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Morin­ga olei­fe­ra
Nach­hal­tig   Lebens­ret­ter   Gesund­heits­phä­no­men

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Studien zu Moringa oleifera

Blät­ter und Blatt­pul­ver

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Samen

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Früch­te (Pods)

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Wur­zeln

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Blü­ten

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Rin­de

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Wich­tig: Morin­ga-Pul­ver ersetzt kei­ne Medi­ka­men­te oder ärzt­li­che Hil­fe! 

Ein gro­ßer Teil der fol­gen­den Stu­di­en basiert auf der Erfor­schung von iso­lier­ten Inhalts­stof­fen.

Ein wei­te­rer Aspekt der beach­tet wer­den muss, ist die Über­prü­fung, inwie­weit die Extrak­te zur Ver­bes­se­rung der Gesund­heit bei­tra­gen kön­nen. Dies erfolgt meist durch stan­dar­di­sie­re Ver­fah­ren in künst­li­cher Umge­bung.

  • in vitro mit Bak­te­ri­en-, Zell- und Gewe­be­kul­tu­ren (= außer­halb des Kör­pers)
  • in vivo im Tier­ver­such (= im Leben­di­gen)
  • zum Teil wer­den auch hohe Dosie­run­gen ver­wen­det

Das ist gän­gi­ge Pra­xis, denn dadurch lässt sich die Unbe­denk­lich­keit oder Wirk­sam­keit ein­zel­ner Pflan­zen­in­halts­stof­fe leich­ter nach­wei­sen. Außer­dem sind Human­stu­di­en sehr teu­er, denn man benö­tigt eine sehr gro­ße Anzahl an Teil­neh­mer, da man  Fak­to­ren wie die all­ge­mei­ne Ernäh­rung, Stress, Sucht­mit­tel­ver­wen­dung, Vor­er­kran­kun­gen oder Umwelt­ein­flüs­se mit berück­sich­ti­gen muss.

Die Über­trag­bar­keit die­ser Stu­di­en­ergeb­nis­se auf den Men­schen ist des­halb begrenzt und schon gar kein “har­ter” Beweis für eine the­ra­peu­ti­sche Wirk­sam­keit. 

Aller­dings sind die unter­such­ten Sub­stan­zen, ja in den Blät­ter und im Pul­ver ent­hal­ten. Und, was auch sehr wich­tig ist: die “gan­ze Pflan­ze” ist ein Kon­glo­me­rat an unzäh­li­gen Wirk- und Auf­bau­stof­fen in beson­ders hoher Kon­zen­tra­ti­on. Zumin­dest zur Vor­beu­gung ist der Ver­zehr von Morin­ga-Blät­tern und -Pul­ver des­halb ide­al.

Grund­la­ge der Stu­di­en­über­sicht: PubMed, die mit rund 28. Mil­lio­nen Fach­ar­ti­keln die welt­weit umfang­reichs­te Daten­bank im Bereich der Bio­wis­sen­schaf­ten ist. 

Stich­wort: moringa+oleifera

Zuletzt aktua­li­siert: Juni 2018

Studien zu Gesundheit

Herz-Kreis­lauf-Sys­tem

López M, Ríos-Sil­va M, Huer­ta M, Cár­de­nas Y, Bri­cio-Bar­ri­os JA, Díaz-Reval MI, Urzúa Z, Huer­ta-Tru­jil­lo M, López-Que­za­da K, Tru­jil­lo X.
Effects of Morin­ga olei­fe­ra leaf powder on meta­bo­lic syn­dro­me indu­ced in male Wistar rats: a preli­mi­na­ry stu­dy.
 J Int Med Res. 2018 Jan 1:300060518781726. doi: 10.1177/0300060518781726. Epub 2018 Jul 1.
Frei­er Arti­kel
  prä­ven­ti­ve Wir­kung auf das meta­bo­li­sche Syn­drom (Kom­bi­na­ti­on der Risi­ko­fak­to­ren abdo­mi­nel­le Fett­lei­big­keit, Blut­hoch­druck, Fett­stoff­wech­sel­stö­rung mit Hyper­t­ri­gly­ze­ri­dä­mie und ernied­rig­tem HDL-Cho­le­ste­rin und Insu­lin­re­sis­tenz bzw. gestör­te Glu­ko­se­to­le­ranz)

Gou­da AS, El-Naba­ra­wy NA, Ibra­him SF.
Morin­ga olei­fe­ra extract (Lam) atte­nua­tes Alu­mi­ni­um phos­phi­de-indu­ced acu­te car­diac toxi­ci­ty in rats.
Toxi­col Rep. 2018 Jan 28;5:209–212.  doi: 10.1016/j.toxrep.2018.01.001. eCollec­tion 2018.
Frei­er Arti­kel  oxi­da­ti­ver Stress, Schutz des Herz­ge­we­bes durch Alu­mi­ni­ump­hos­phid indu­zier­te aku­te kar­dia­le Toxi­zi­tät

Pan­da S, Kar A, Bis­was S.
Pre­ven­ti­ve effect of Agnu­cas­to­si­de C against Iso­pro­te­re­nol-indu­ced myo­car­di­al inju­ry.
Sci Rep. 2017 Nov 23;7(1):16146. doi: 10.1038/s41598-017–16075-0.
Frei­er Arti­kel
  Prä­ven­ti­on vor Myo­kard­schä­den (den Herz­mus­kel betref­fend)

Att­ak­pa ES, Ber­tin GA, Chabi NW, Ateg­bo JM, Seri B, Khan NA.
Morin­ga olei­fe­ra-rich diet and T cell cal­ci­um signa­ling in spon­ta­neous­ly hyper­ten­si­ve rats.
Phy­si­ol Res. 2017 Nov 24;66(5):753–767. doi: 10.3390/plants6040048.
  blut­druck­sen­ken­de Wir­kung

Wright RJ, Lee KS, Hyacinth HI, Hib­bert JM, Reid ME, Wheat­ley AO, Ase­mo­ta HN.
An Inves­ti­ga­ti­on of the Anti­oxi­dant Capa­ci­ty in Extracts from Morin­ga olei­fe­ra Plants Grown in Jamai­ca.
Plants (Basel). 2017 Oct 23;6(4). pii: E48. doi: 10.3390/plants6040048.
  Sichel­zel­len­an­ämie, anti­oxi­da­ti­ve Wir­kung

Hel­my SA, Mor­sy NFS, Ela­by SM, Gha­ly MAA.
Hypo­li­pi­de­mic Effect of Morin­ga olei­fe­ra Lam Leaf Powder and its Extract in Diet-Indu­ced Hyper­cho­le­ste­ro­le­mic Rats.
J Med Food. 2017 Aug;20(8):755–762. doi: 10.1089/jmf.2016.0155. Epub 2017 May 1.
/   Sen­kung nega­ti­ver Cho­le­ste­rin- und ande­rer Blut­fett­wer­te

Cher­aghi M et al.
Car­dio­pro­tec­tive effect of magne­tic hydro­gel nano­com­po­si­te loa­ded N,α-L-rhamnopyranosyl vin­co­sa­mi­de iso­la­ted from Morin­ga olei­fe­ra lea­ves against doxo­ru­bicin-indu­ced car­diac toxi­ci­ty in rats: in vitro and in vivo stu­dies.
J Micro­en­cap­sul. 2017 Jun;34(4):335–341.
  herz­schüt­zen­de und anti­oxi­da­ti­ve Wir­kung

Rolim JC et al.,
Ili­ac arte­ry myo­in­ti­mal hyper­pla­sia in rab­bits sub­mit­ted to angio­plas­ty and trea­ted with Morin­ga olei­fe­ra.
Rev Col Bras Cir. 2016 Feb;43(1):28–34.
  Gefäß­me­di­zin, Behand­lung der myo­in­ti­ma­len Hyper­pla­sie (MH)

Pan­da S.
But­a­no­lic frac­tion of Morin­ga olei­fe­ra Lam. (Moring­aceae) atte­nua­tes iso­pro­t­re­nol-indu­ced car­diac necro­sis and oxi­da­ti­ve stress in rats: an EPR stu­dy.
EXCLI J. 2015 Jan 15;14:64–74.
  Poly­phe­no­le, Reduk­ti­on von Myo­kard­schä­den und oxi­da­ti­vem Stress

Sahoo S, Rag­ha­ven­dra KM, Bis­was S.
Iden­ti­fi­ca­ti­on of  a Pro­tein­aceous Com­po­nent in the Leaf of Morin­ga olei­fe­ra Lam. with Effects on High Serum Crea­ti­ni­ne.
Indi­an J Pharm Sci. 2014 Jan;76(1):78–81.
  Pro­te­in­ex­trakt und sei­ne Wir­kung auf das Herz-Kreis­lauf-Sys­tem und den Serum-Krea­tin­in­spie­gel

Pan­da S, Kar A, Shar­ma P, Shar­ma A.
Car­dio­pro­tec­tive poten­ti­al of N, -L-rham­no­py­ra­no­syl vin­co­sa­mi­de, an indo­le alka­lo­id, iso­la­ted from the lea­ves of Morin­ga olei­fe­ra in iso­pro­te­re­nol indu­ced car­dio­to­xic rats: in vivo and in vitro stu­dies.
Bio­org Med Chem Lett. 2013 Feb 15;23(4):959–62.
  car­dio­pro­tek­ti­ve Wir­kung (das Herz-Kreis­lauf-Sys­tem betref­fend)

Kiri­s­at­ta­y­a­kul W et al.
Cere­bro­pro­tec­tive effect of Morin­ga olei­fe­ra against focal ische­mic stro­ke indu­ced by midd­le cere­b­ral arte­ry occlu­si­on.
Oxid Med Cell Lon­gev. 2013;2013:951415.
  Schutz gegen einen ischä­mi­schen Schlag­an­fall

Abro­goua DP
Effect on blood pres­su­re of a die­ta­ry sup­ple­ment con­tai­ning tra­di­tio­nal medi­c­inal plants of Côte d’Ivoire.
J Eth­no­phar­ma­col. 2012 Jun 14;141(3):840–7.
  Sen­kung des Blut­drucks, Salz­ersatz

Wang HL, Wei JW
Effects of 2-aza­fluo­reno­nes on phos­pha­t­idyl-ino­si­tol spe­ci­fic phos­pho­li­pa­se C activa­ti­on in c6 glio­ma cells.
Chin J Phy­si­ol. 2012 Apr 30;55(2):101–7.
  Herz-Kreis­lauf-Sys­tem, anti­oxi­da­ti­ve Akti­vi­tät

Ade­ju­mo OE, Kolapo AL, Fola­rin AO.
Morin­ga olei­fe­ra Lam. (Moring­aceae) grown in Nige­ria: In vitro anti­sick­ling activi­ty on deoxy­gena­ted ery­thro­cy­te cells.
J Pharm Bio­al­lied Sci. 2012 Apr;4(2):118–22.
  Sichel­zel­len­an­ämie (erb­li­che Erkran­kung der roten Blut­kör­per­chen)

Mbi­kay M.
The­ra­peutic Poten­ti­al of Morin­ga olei­fe­ra Lea­ves in Chro­nic Hyper­gly­ce­mia and Dysli­pi­de­mia: A Review.
Front Phar­ma­col. 2012 Mar 1;3:24.
/   Herz-Kreis­lauf-Sys­tem, Dia­be­tes

Chen KH.
Atte­nua­ti­on of the extract from Morin­ga olei­fe­ra on mono­cro­ta­li­ne-indu­ced pul­mo­na­ry hyper­ten­si­on in rats.
Chin J Phy­si­ol. 2012 Feb 29;55(1):22–30.
  Blut­hoch­druck, anti­oxi­da­ti­ve Wir­kung

Duang­jai A, Ing­ka­nin­an K, Lim­pean­chob N
Poten­ti­al mecha­nisms of hypo­cho­le­ste­ro­la­emic effect of Thai spi­ces / die­ta­ry extracts
Nat Prod Res. 2011 Feb;25(4):341–52.
  cho­le­ste­rin­sen­ken­de Wir­kung

Nan­da­ve M.
Morin­ga olei­fe­ra leaf extract pre­vents iso­pro­te­re­nol-indu­ced myo­car­di­al dama­ge in rats: evi­dence for an anti­oxi­dant, anti­per­oxi­da­ti­ve, and car­dio­pro­tec­tive inter­ven­ti­on.
J Med Food. 2009 Feb;12(1):47–55.
  Herz-Kreis­lauf-Sys­tem, Lipid­per­oxi­da­ti­on

Naz­nin a, Mamunur d, Md. Shah A.
Com­pa­ri­son of Morin­ga olei­fe­ra Lea­ves Extract with Ateno­lol on Serum tri­gly­ce­ri­de, Serum Cho­le­ste­rol, Blood glu­co­se, heart weight, body weight in Adre­na­li­ne Indu­ced Rats.
J Bio­lo­gi­cal Sci. 2008 Dec;15(2):253–258.
  Cho­le­ste­rin-, Tri­gly­ce­rid- u. Blut­zu­cker­wer­te

Chu­mark P et al.
The in vitro and ex vivo anti­oxi­dant pro­per­ties, hypo­li­pi­da­emic and antia­the­ros­clerotic activi­ties of water extract of Morin­ga olei­fe­ra Lam. lea­ves.
J Eth­no­phar­ma­col. 2008 Mar 28;116(3):439–46. Epub 2007 Dec 23.S: Dec 23.
  anti­oxi­da­ti­ve, lipid­sen­ken­de, anti­ar­te­rio­sklero­ti­sche Wir­kung

Ndong M et al.
Pre­ven­ti­ve effects of Morin­ga olei­fe­ra (Lam) on hyper­li­pi­de­mia and hepa­to­cy­te ultrast­ruc­tu­ral chan­ges in iron defi­ci­ent rats.
Bio­sci Bio­tech­nol Bio­chem. 2007 Aug;71(8):1826–33. Epub 2007 Aug 7.
  vor­beu­gen­de Wir­kung bei Hyper­li­pi­dä­mie (erhöh­te Tri­gly­ce­rid- und Cho­le­ste­rin­wer­te) und Eisen­man­gel

Gha­si S, Nwo­bo­do E, Ofi­li JO.
Hypo­cho­le­ste­ro­le­mic effects of cru­de extract of leaf of Morin­ga olei­fe­ra Lam. in high-fat diet fed wistar rats.
J Eth­no­phar­ma­col. 2000 Jan;69(1):21–5.
  blut­druck­sen­ken­de Wir­kung

Gila­ni AH et al. (1994).
Phar­ma­co­lo­gi­cal stu­dies on hypo­ten­si­ve and spas­mo­ly­tic activi­ties of pure com­pounds from Morin­ga olei­fe­ra.
Phy­to­the­ra­py Rese­arch 8(2):87–91.
  Herz-Kreis­lauf-Sys­tem, blut­druck­sen­ken­de, krampf­lö­sen­de und ver­dau­ungs­för­dern­de Wir­kung

Fai­zi S, et al. (1994).
Novel hypo­ten­si­ve agents, nia­zi­min A, nia­zi­min B, nia­zi­cin A and nia­zi­cin B from Morin­ga olei­fe­ra: Iso­la­ti­on of first natu­ral­ly occur­ring car­ba­ma­tes.
J Che­mi­cal Socie­ty Per­kin Tran­sac­tions I: 3035–3040.
  blut­druck­sen­ken­de Wir­kung

Fai­zi S, Siddi­qui BS, et al. (1992).
Iso­la­ti­on and struc­tu­re elu­ci­da­ti­on of novel hypo­ten­si­ve agents, nia­zin­in A, nia­zin­in B, nia­zi­micin and nia­zi­mi­nin A plus B from Morin­ga olei­fe­ra: The first natu­ral­ly occur­ring thio­car­ba­ma­tes.
J Che­mi­cal Socie­ty Per­kin Tran­sac­tions I(23):3237–3241.
  Blut­hoch­druck, Anti-Tumor-Wir­kung

Cáce­res A et al.
Phar­ma­co­lo­gic pro­per­ties of Morin­ga olei­fe­ra. 2: Scree­ning for antis­pas­mo­dic, anti­in­flamma­to­ry and diuretic activi­ty.
J Eth­no-phar­ma­col. 1992 Jun;36(3):233–7.
  phar­ma­ko­lo­gi­sche Wir­kun­gen, schmerz­lin­dernd, gegen Infek­tio­nen, Herz-Kreis­lauf-Sys­tem, Ner­ven­sys­tem, ent­wäs­sernd

Dia­be­tes, Blut­zu­cker­spie­gel

Andrews CM, Wyne K, Sven­son JE.
The Use of Tra­di­tio­nal and Com­ple­men­ta­ry Medi­ci­ne for Dia­be­tes in Rural Gua­te­ma­la.
J Health Care Poor Under­ser­ved. 2018;29(4):1188–1208.
Dia­be­tes, Ein­satz von Morin­ga in der tra­di­tio­nel­len Phy­to­me­di­zin im länd­li­chen Gua­te­ma­la

Leo­ne A et al.
Effect of Morin­ga olei­fe­ra Leaf Powder on Post­pran­di­al Blood Glu­co­se Respon­se: In Vivo Stu­dy on Saha­ra­wi Peop­le Living in Refu­gee Camps.
Nut­ri­ents. 2018 Oct 12;10(10). pii: E1494.
 Blatt­pul­ver, hypo­gly­kä­mi­sche Wir­kung (Ver­mei­dung von Unter­zu­cker), sen­so­ri­sche Akzep­tanz grö­ße­rer Men­gen

Aze­ve­do ÍM et al.
Wound healing of dia­betic rats trea­ted with Morin­ga olei­fe­ra extract.
Acta Cir Bras. 2018 Sep;33(9):799–805.
   Wund­hei­lung im Zusam­men­hang mit Dia­be­tes

Sosa-Gutiér­rez JA et al.
Effects of Morin­ga olei­fe­ra Lea­ves Extract on High Glu­co­se-Indu­ced Meta­bo­lic Chan­ges in HepG2 Cells.
Bio­lo­gy (Basel). 2018 Jun 26;7(3).
  mito­chon­dria­le Dys­funk­ti­on, Wir­kung bei Dia­be­tes, Insu­lin­re­sis­tenz und nicht-alko­ho­li­scher Leber­er­kran­kun­gen

Ame­lia D et al.
Effects of Morin­ga olei­fe­ra on Insu­lin Levels and Fol­li­cu­lo­ge­ne­sis in Poly­cystic Ova­ry Syn­dro­me Model with Insu­lin Resis­tan­ce.
Immu­nol Endo­cr Metab Agents Med Chem. 2018 May;18(1):22–30.
   Blatt­ex­trakt, Sen­kung des Insu­lin­spie­gels, Wir­kung von Morin­ga-Blatt­ex­trakt bei gleich­zei­ti­ger Behand­lung mit Met­for­min und Blatt-Morin­ga

Chin CY, Ng PY, Ng SF.
Morin­ga olei­fe­ra stan­dar­di­sed aqueous leaf extract-loa­ded hydro­col­lo­id film dres­sing: in vivo der­mal safe­ty and wound healing eva­lua­ti­on in STZ/HFD dia­betic rat model.
Drug Deliv Transl Res. 2018 Mar 20. doi: 10.1007/s13346-018‑0510-z.
  Dia­be­tes mit schlecht hei­len­den oder chro­ni­schen Wun­den

Ale­jan­dra Sán­chez-Muñoz M et al.
Strep­to­zo­to­cin-Indu­ced Adap­ti­ve Modi­fi­ca­ti­on of Mito­chon­dri­al Super­com­ple­xes in Liver of Wistar Rats and the Pro­tec­tive Effect of Morin­ga olei­fe­ra Lam.
Bio­chem Res Int. 2018 Mar 1;2018:5681081.
  schüt­zen­de Wir­kung auf die Mito­chon­dri­en­tä­tig­keit bei Dia­be­tes

Ama­eze OU et al.
Her­bal medi­ci­ne use among Type 2 dia­be­tes mel­li­tus pati­ents in Nige­ria: under­stan­ding the magnitu­de and pre­dic­tors of use.
Int J Clin Pharm. 2018 May 2. doi: 10.1007/s11096-018‑0648-2.
  Kräu­ter­me­di­zin

Vil­lar­ru­el-López A, et al.
Effect of Morin­ga olei­fe­ra con­sump­ti­on on dia­betic rats.
BMC Com­ple­ment Altern Med. 2018 Apr 10;18(1):127. doi: 10.1186/s12906-018‑2180-2.
  Ein­fluss auf die Darm­mi­kro­bio­ta bei Dia­be­tes

Oboh G et al.
Morin­ga olei­fe­ra sup­ple­men­ted diet modu­la­tes nootro­pic-rela­ted bio­mole­cu­les in the brain of STZ-indu­ced dia­betic rats trea­ted with acar­bo­se.
Metab Brain Dis. 2018 Apr;33(2):457–466. doi: 10.1007/s11011-018‑0198-2. Epub 2018 Feb 12.
  Ein­fluss auf kogni­ti­ve Funk­tio­nen und Neu­ro­mo­du­la­ti­on

López M et al.
Effects of Morin­ga olei­fe­ra leaf powder on meta­bo­lic syn­dro­me indu­ced in male Wistar rats: a preli­mi­na­ry stu­dy.
J Int Med Res. 2018 Jan 1:300060518781726.
  prä­ven­ti­ve Wir­kung auf das meta­bo­li­sche Syn­drom (Kom­bi­na­ti­on der Risi­ko­fak­to­ren abdo­mi­nel­le Fett­lei­big­keit, Blut­hoch­druck, Fett­stoff­wech­sel­stö­rung mit Hyper­t­ri­gly­ze­ri­dä­mie und ernied­rig­tem HDL-Cho­le­ste­rin und Insu­lin­re­sis­tenz bzw. gestör­te Glu­ko­se­to­le­ranz)

Ahmad J et al.
Effect of Incorpo­ra­ting Stevia and Morin­ga in Coo­kies on Post­pran­di­al Gly­ce­mia, Appe­ti­te, Pala­ta­bi­li­ty, and Gastro­in­tes­ti­nal Well-Being.
J Am Coll Nutr. 2017 Dec 22:1–7.
  Blut­zu­cker­spie­gel, Appe­tit, Ver­träg­lich­keit

Aa AB, Om J, Ts E, Ga A.
Preli­mi­na­ry phy­to­che­mi­cal scree­ning, anti­oxi­dant and anti­hy­per­gly­cae­mic activi­ty of Morin­ga olei­fe­ra leaf extracts.
Pak J Pharm Sci. 2017 Nov;30(6):2217–2222.
  anti­oxi­da­ti­ve und blut­zu­cker­sen­ken­de Akti­vi­tät

Khan W et al.
Hypo­gly­ce­mic Poten­ti­al of Aqueous Extract of Morin­ga olei­fe­ra Leaf and In Vivo GC-MS Meta­bo­lo­mics.
Front Phar­ma­col. 2017 Sep 12;8:577.
  blut­zu­cker­sen­ken­de Wir­kung, Phy­to­phar­ma­ka zur Behand­lung von Dia­be­tes

Reha­na D, Mahen­d­iran D, Kumar RS, Rahi­man AK.
In vitro anti­oxi­dant and anti­dia­betic activi­ties of zinc oxi­de nano­par­ti­cles syn­the­si­zed using dif­fe­rent plant extracts
Bio­pro­cess Bio­syst Eng. 2017 Jun;40(6):943–957.
  anti­dia­be­ti­sche und anti­oxi­da­ti­ve Akti­vi­tät

Azad SB et al.
Anti-hyper­gly­cae­mic activi­ty of Morin­ga olei­fe­ra is part­ly media­ted by car­bo­hy­dra­se inhi­bi­ti­on and glu­co­se-fib­re bin­ding.
Bio­sci Rep. 2017 Jun 30;37(3). pii: BSR20170059.
  blut­zu­cker­sen­ken­de Wir­kung bei bestehen­der Dia­be­tes

Tang Y et al.
Morin­ga olei­fe­ra from Cam­bo­dia Ame­lio­ra­tes Oxi­da­ti­ve Stress, Hyper­gly­ce­mia, and Kid­ney Dys­func­tion in Type 2 Dia­betic Mice
J Med Food. 2017 May;20(5):502–510.
  anti­oxi­da­ti­ve Akti­vi­tät, Insu­lin­spie­gel, Nie­ren­funk­ti­ons­stö­run­gen bei Dia­be­tes

Omo­da­ni­si EI et al.
Hepa­to­pro­tec­tive, Anti­hy­per­li­pi­de­mic, and Anti-inflamma­to­ry Activi­ty of Morin­ga olei­fe­ra in Dia­betic-indu­ced Dama­ge in Male Wistar Rats.
Phar­ma­co­gno­sy Res. 2017 Apr-Jun;9(2):182–187.
  leber­schüt­zen­de, anti­hy­per­li­pi­dä­mi­sche (eine Stö­rung des Fett­stoff­wech­sels) und ent­zün­dungs­hem­men­de Akti­vi­tät bei Dia­be­tis-indu­zier­ten Schä­den

Omo­da­ni­si EI, Aboua YG, Ogun­ti­be­ju OO.
Assess­ment of the Anti-Hyper­gly­cae­mic, Anti-Inflamma­to­ry and Anti­oxi­dant Activi­ties of the Metha­nol Extract of Morin­ga Olei­fe­ra in Dia­be­tes-Indu­ced Nephro­to­xic Male Wistar Rats.
Frei­er Arti­kel
Mole­cu­les 017 Mar 23;22(4). pii: E439.
  Blut­zu­cker­sen­ken­de, ent­zün­dungs­hem­men­de und anti­oxi­da­ti­ve Wir­kung bei Dia­be­tes

Pau­la PC et al.
Pro­te­in Iso­la­te from Morin­ga olei­fe­ra Lea­ves Has Hypo­gly­ce­mic and Anti­oxi­dant Effects in Allo­xan-Indu­ced Dia­betic Mice.
Mole­cu­les. 2017 Feb 11;22(2).
Frei­er Arti­kel
  anti­dia­be­ti­scher Effekt, anti­oxi­da­ti­ve Akti­vi­tät, Pro­te­iniso­lat

Aleg­be­leye OO et al., How Func­tio­nal Is Morin­ga Olei­fe­ra? A Review of Its Nut­ri­ti­ve, Medi­c­inal, and Socio­eco­no­mic Poten­ti­al, Food Nutr Bull. 2017 Jan 1:379572117749814.
/   Über­blick über das nut­ri­ti­ve, medi­zi­nisch und sozio­öko­no­mi­sche Poten­zi­al.

Taweerut­cha­na R et al.
Effect of Morin­ga olei­fe­ra Leaf Cap­su­les on Gly­ce­mic Con­trol in The­ra­py-Naï­ve Type 2 Dia­be­tes Pati­ents: A Ran­do­mi­zed Pla­ce­bo Con­trol­led Stu­dy, Evid Based Com­ple­ment Alter­nat Med. 2017;2017:6581390.
  Sen­kung des Blut­zu­cker­spie­gels bei Dia­be­tes- Pati­en­ten

Att­ak­pa ES et al.
Morin­ga oli­fei­ra Lam. Sti­mu­la­tes Activa­ti­on of the Insu­lin-Depen­dent Akt Pathway. Anti­dia­betic Effect in a Diet-Indu­ced Obe­si­ty (DIO) Mou­se Model.
Folia Biol (Pra­ha). 2017;63(2):42–51.
  anti­dia­be­ti­sche Effek­te in Bezug auf den Blut­zu­cker­spie­gel und die Gewichts­zu­nah­me

Oluris­he C et al.
Chro­nic admi­nis­tra­ti­on of etha­nol leaf extract of Morin­ga olei­fe­ra Lam. (Moring­aceae) may com­pro­mi­se gly­cae­mic effi­cacy of Sita­g­liptin with no signi­fi­cant effect in reti­no­pa­thy in a dia­betic rat model.
J Eth­no­phar­ma­col. 2016 Dec 24;194:895–903.
  Glu­ko­se­ein­stel­lung,  dia­be­ti­sche Reti­no­pa­thie

Pau­la PC et al.
Insu­lin-like plant pro­te­ins as poten­ti­al inno­va­ti­ve drugs to tre­at dia­be­tes-The Morin­ga olei­fe­ra case stu­dy.
N Bio­tech­nol. 2016 Oct 11. pii: S1871-6784(16)32460–8.
  anti­dia­be­ti­sche Wir­kung, Blatt­pro­te­iniso­lat

Tuor­key MJ.
Effects of Morin­ga olei­fe­ra aqueous leaf extract in allo­xan indu­ced dia­betic mice.
Interv Med Appl Sci. 2016 Sep;8(3):109–117.
  anti­dia­be­ti­sche Wir­kung, Insu­lin­re­sis­tenz, anti­oxi­da­ti­ve Akti­vi­tät

Nuntha­na­wa­nich P et al.
Morin­ga olei­fe­ra aqueous leaf extract inhi­bits redu­cing monosac­chari­de-indu­ced pro­te­in gly­ca­ti­on and oxi­da­ti­on of bovi­ne serum albu­min.
Sprin­ger­plus. 2016 Jul 16;5(1):1098.
  Vor­beu­gung vor Dia­be­tes­kom­pli­ka­tio­nen

Antha­n­ont P et al.
Morin­ga Olei­fe­ra Leaf Increa­ses Insu­lin Secre­ti­on after Sin­gle Dose Admi­nis­tra­ti­on: A Preli­mi­na­ry Stu­dy in Healt­hy Sub­jects.
J Med Assoc Thai. 2016 Mar;99(3):308–13.
  anti­dia­be­ti­sche Wir­kung, glu­ko­se­ab­hän­gi­ge Insu­lin­se­kre­ti­on

Water­man C et al.
Isot­hio­cya­na­te-rich Morin­ga olei­fe­ra extract redu­ces weight gain, insu­lin resis­tan­ce, and hepa­tic glu­co­neo­ge­ne­sis in mice.
Mol Nutr Food Res. 2015 Jun;59(6):1013–24.
  Reduk­ti­on des Fett­ge­we­bes, Glu­ko­se­to­le­ranz, Insu­lin­se­kre­ti­on

Ola­ya­ki LA et al.
Metha­no­lic extract of Morin­ga olei­fe­ra lea­ves impro­ves glu­co­se tole­ran­ce, gly­co­gen syn­the­sis and lipid meta­bo­lism in allo­xan-indu­ced dia­betic rats.
J Basic Clin Phy­si­ol Phar­ma­col. 2015 Jun 27.
  anti­dia­be­ti­sche Wir­kung, Lipidstoff­wech­sel

Water­man C et al.
Isot­hio­cya­na­te-rich Morin­ga olei­fe­ra extract redu­ces weight gain, insu­lin resis­tan­ce, and hepa­tic glu­co­neo­ge­ne­sis in mice
Mol Nutr Food Res. 2015 Jun;59(6):1013–24.
  Reduk­ti­on der Fett­mas­se, Ver­bes­se­rung der Glu­ko­se­to­le­ranz und Insu­lin­an­sprech­bar­keit

Oma­be M et al.
Anion Gap Toxi­ci­ty in Allo­xan Indu­ced Type 2 Dia­betic Rats Trea­ted with Anti­dia­betic Non­cy­to­to­xic Bioac­tive Com­pounds of Etha­no­lic Extract of Morin­ga olei­fe­ra
J Toxi­col. 2014;2014:406242.
  anti­dia­be­ti­sche Wir­kung, zyto­to­xi­sche Eigen­schaf­ten

Abd El Latif A et al.
Morin­ga olei­fe­ra leaf extract ame­lio­ra­tes allo­xan-indu­ced dia­be­tes in rats by rege­ne­ra­ti­on of  β cells and reduc­tion of pyru­va­te car­boxy­la­se expres­si­on.
Bio­chem Cell Biol. 2014 Oct;92(5):413–9.
  anti­dia­be­ti­sche Wir­kung, Rege­ne­ra­ti­on geschä­dig­ter Leber­zel­len, anti­oxi­da­ti­ve Wir­kung

Yas­sa HD, Toha­my AF.
Extract of Morin­ga olei­fe­ra lea­ves ame­lio­ra­tes strep­to­zo­to­cin-indu­ced Dia­be­tes mel­li­tus in adult rats.
Acta Histo­chem. 2014 Mar 20. pii:S0065-1281(14)00039–7.
  Dia­be­tes, oxi­da­ti­ver Stress

Momoh MA, Chi­me SA, Ken­echuk­wu FC.
Novel drug deli­very sys­tem of plant extract for the manage­ment of dia­be­tes: an anti­dia­betic stu­dy.
J Diet Sup­pl. 2013 Sep;10(3):252–63.
  Dia­be­tes

Jais­wal D et al.
Role of Morin­ga olei­fe­ra in regu­la­ti­on of dia­be­tes-indu­ced oxi­da­ti­ve stress.
Asi­an Pac J Trop Med. 2013 Jun;6(6):426–32.
  Dia­be­tes, anti­oxi­da­ti­ve Wir­kung

Kumar Gupta S et al.
Reti­no­pro­tec­tive effects of Morin­ga olei­fe­ra via anti­oxi­dant, anti-inflamma­to­ry, and anti-angio­ge­nic mecha­nisms in strep­to­zo­to­cin-indu­ced dia­betic rats.
J Ocul Phar­ma­col Ther. 2013 May;29(4):419–26.
  Dia­be­tes, Blut­zu­cker­sen­kung, Dia­be­tes-indu­zier­te Beschwer­den der Netz­haut, anti­ent­zünd­li­che Wir­kung

Seme­nya S, Pot­gie­ter M, Eras­mus L.
Eth­no­bo­ta­ni­cal sur­vey of medi­c­inal plants used by Bape­di hea­lers to tre­at dia­be­tes mel­li­tus in the Lim­po­po Pro­vin­ce, South Afri­ca.
J Eth­no­phar­ma­col. 2012 May 7;141(1):440–5.
/   Dia­be­tes

Adis­ak­wattana S, Cha­nathong B.
Alpha-glu­co­si­da­se inhi­bi­to­ry activi­ty and lipid-lowering mecha­nisms of Morin­ga olei­fe­ra leaf extract.
Eur Rev Med Phar­ma­col Sci. 2011 Jul;15(7):803–8.
  Dia­be­tes und Hyper­li­pi­dä­mie

Iffiú-Sol­tész Z et al.
Chro­nic ben­zyl­ami­ne admi­nis­tra­ti­on in the drin­king water impro­ves glu­co­se tole­ran­ce, redu­ces body weight gain and cir­cu­la­ting cho­le­ste­rol in high-fat diet-fed mice.
Phar­ma­col Res. 2010 Apr;61(4):355–63.
  Dia­be­tes, Insu­lin­re­sis­tenz, Über­ge­wicht, Cho­le­ste­rin

Jais­wal D et al.
Effect of Morin­ga olei­fe­ra Lam. lea­ves aqueous extract the­ra­py on hyper­gly­ce­mic rats.
J Eth­no­phar­ma­col. 2009 Jun 25;123(3):392–6. Epub 2009 Apr 5.
  Blut­zu­cker­spie­gel, Dia­be­tes

Naz­nin A, Mamunur R, Md. Shah A:
Com­pa­ri­son of Morin­ga olei­fe­ra Lea­ves Extract with Ateno­lol on Serum tri­gly­ce­ri­de, Serum Cho­le­ste­rol, Blood glu­co­se, heart weight, body weight in Adre­na­li­ne Indu­ced Rats.
J of Bio­lo­gi­cal Sci. 2008 Dec;15(2):253–258.
  Cho­le­ste­rin-, Tri­gly­ce­rid- und Blut­zu­cker­wer­te

Dièye AM et al.
Medi­c­inal plants and the tre­at­ment of dia­be­tes in Sene­gal: sur­vey with pati­ents.
Fun­dam Clin Phar­ma­col. 2008 Apr;22(2):211–6. Epub 2008 Jan 19.
  Dia­be­tes

Ndong M, Ueha­ra M, Kats­u­ma­ta S, Suzu­ki K.
Effects of Oral Admi­nis­tra­ti­on of Morin­ga olei­fe­ra Lam on Glu­co­se Tole­ran­ce in Goto-Kakiza­ki and Wistar Rats.
J Clin Bio­chem Nutr. 2007 May;40(3):229–33.
  Blut­zu­cker­spie­gel, Dia­be­tes

Bour S et al.
Effects of oral admi­nis­tra­ti­on of ben­zyl­ami­ne on glu­co­se tole­ran­ce and lipid meta­bo­lism in rats.
J Phy­si­ol Bio­chem. 2005 Jun;61(2):371–9.
  Blut­zu­cker­spie­gel, Fett­stoff­wech­sel

Wil­liam F, Lak­sh­mi­n­ara­yan­an S, et al. (1993).
Effect of some Indi­an vege­ta­bles on the glu­co­se and insu­lin respon­se in dia­betic sub­jects.
Inter­na­tio­nal J Food Sci­en­ces and Nut­ri­ti­on 44(3) 191–196.
  Blut­zu­cker­spie­gel, Dia­be­tes

Tumor­er­kran­kun­gen

Khor KZ, Lim V, Moses EJ, Abdul Samad N.
The In Vitro and In Vivo Anti­can­cer Pro­per­ties of Morin­ga olei­fe­ra.
Evid Based Com­ple­ment Alter­nat Med. 2018 Nov 14;2018:1071243. doi: 10.1155/2018/1071243. eCollec­tion 2018. Review.
/   In Vitro and In Vivo Unter­su­chun­gen der Wir­kung auf ver­schie­de­ne Krebs­ar­ten und als Quel­le für Krebs­me­di­ka­men­te

Wang X et al.
Hydro­gen Sul­fi­de (H₂S) Releasing Capa­ci­ty of Isot­hio­cya­na­tes from Morin­ga olei­fe­ra Lam.
Mole­cu­les. 2018 Oct 29;23(11). pii: E2809.
   alle Tei­le der Pflan­zen, Ana­ly­se der sekun­dä­ren Pflan­zen­stof­fe, Frei­set­zungs­ver­mö­gen von Was­ser­stoff­sul­fid (Schwe­fel­was­ser­stoff) zur Krebs­chemo­prä­ven­ti­on

Tilo­ke C, Anand K, Gen­gan RM, Chu­tur­goon AA.
Morin­ga olei­fe­ra and their phy­ton­a­no­par­ti­cles: Poten­ti­al anti­pro­li­fe­ra­ti­ve agents against can­cer.
Bio­med Phar­ma­co­ther. 2018 Sep 18;108:457–466.
  die Syn­the­se von Phy­ton­a­no­par­ti­keln und die fun­da­men­ta­le Rol­le als poten­ti­el­les anti­pro­li­fe­ra­ti­ves Mit­tel gegen Krebs

Elwan AM et al.
Bio­phy­si­cal and bio­che­mi­cal roles of Morin­ga olei­fe­ra lea­ves as radio­pro­tec­tor.
Prog Bio­phys Mol Biol. 2018 Jun 6. pii: S0079-6107(18)30091–9.
   Schutz vor ioni­sie­ren­der Strah­lung, Radio­pro­tek­tor

Dong Yang, Xiling Zhang, Wen­cun Zhang, Tha­ma­rai­sel­van Ren­ga­ra­jan
Vice­nin-2 inhi­bits Wnt/β-caten­in signa­ling and indu­ces apo­pto­sis in HT-29 human colon can­cer cell line
Drug Des Devel Ther. 2018; 12: 1303–1310. Published online 2018 May 18. doi: 10.2147/DDDT.S149307
   Vice­nin-2 (ein Fla­vo­no­id aus Morin­ga) zur Behand­lung von Darm­krebs

Fahey JW et al.
The Diver­si­ty of Chemo­pro­tec­tive Glu­co­si­no­la­tes in Moring­aceae (Morin­ga spp.).
Sci Rep. 2018 May 22;8(1):7994.
  Ana­ly­se, Glu­co­si­no­la­te, chemo­pro­tek­ti­ve Wir­kung (Wir­kung gegen Kar­zi­no­ge­ne)

Cuel­lar-Nuñez ML et al.
Phy­si­co­che­mi­cal and nut­raceuti­cal pro­per­ties of morin­ga (Morin­ga olei­fe­ra) lea­ves and their effects in an in vivo AOM/DSS-indu­ced colo­rec­tal car­ci­no­ge­ne­sis model.
Food Res Int. 2018 Mar;105:159–168. doi: 10.1016/j.foodres.2017.11.004. Epub 2017 Nov 6.
  chemo­prä­ven­ti­ve Fähig­keit bei kolo­rek­ta­ler Kar­zi­no­ge­ne­se (Krebs an Dick- und End­darm)

Sadek KM et al..
The che­mo-pro­phy­l­ac­tic effi­cacy of an etha­nol Morin­ga olei­fe­ra leaf extract against hepa­to­cel­lu­lar car­ci­no­ma in rats.
Pharm Biol. 2017 Dec;55(1):1458–1466.
  Schutz vor Leber­zell­kar­zi­nom

Gia­cop­po S et al.
Morin­ga isot­hio­cya­na­te com­ple­xed with α-cyclo­d­ex­trin: a new per­spec­tive in neu­ro­blas­to­ma tre­at­ment.
BMC Com­ple­ment Altern Med. 2017 Jul 14;17(1):362.
  Krebs­prä­ven­ti­on und -behand­lung

Ezhil­ara­si AA et al.
Green syn­the­sis of NiO nano­par­ti­cles using Morin­ga olei­fe­ra extract and their bio­me­di­cal app­li­ca­ti­ons: Cyto­to­xi­ci­ty effect of nano­par­ti­cles against HT-29 can­cer cells.
J Pho­to­chem Pho­to­bi­ol B. 2016 Nov;164:352–360.
  Syn­the­se von Nickel­oxid-Nano­par­ti­keln, anti­bak­te­ri­el­le Wir­kung, zyto­to­xi­sche Akti­vi­tät gegen mensch­li­che Krebs­zel­len

Fer­nan­des EE et al.
Pro­bing Rege­ne­ra­ti­ve Poten­ti­al of Morin­ga olei­fe­ra Aqueous Extracts Using In vitro Cel­lu­lar Assays.
Phar­ma­co­gno­sy Res. 2016 Oct-Dec;8(4):231–237.
  krebs­hem­men­de und hepa­to­pro­tek­ti­ve (leber­schüt­zen­de) Wir­kun­gen

Tilo­ke C et al.
Morin­ga olei­fe­ra Gold Nano­par­ti­cles Modu­la­te Onco­ge­nes, Tumor Sup­pres­sor Genes, and Cas­pa­se-9 Spli­ce Vari­ants in A549 Cells.
J Cell Bio­chem. 2016 Oct;117(10):2302–14.
  Anti-Krebs-Wir­kung

Madi N et al.
Morin­ga oleifera’s Nut­ri­tious Aqueous Leaf Extract Has Anti­can­ce­rous Effects by Com­pro­mi­sing Mito­chon­dri­al Via­bi­li­ty in an ROS-Depen­dent Man­ner.
J Am Coll Nutr. 2016 Sep-Oct;35(7):604–613. Epub 2016 Jun 17.
  Anti-Krebs-Wir­kung, Lun­gen­krebs

Tilo­ke C et al.
The Anti­pro­li­fe­ra­ti­ve Effect of Morin­ga olei­fe­ra Cru­de Aqueous Leaf Extract on Human Eso­pha­ge­al Can­cer Cells.
J Med Food. 2016 Apr;19(4):398–403.
  Schutz vor Spei­se­röh­ren­krebs

Nayak G et al.
Etha­no­lic extract of Morin­ga olei­fe­ra Lam. lea­ves pro­tect the pre-puber­tal sper­ma­to­go­ni­al cells from cyclo­phos­pha­mi­de-indu­ced dama­ge.
J Eth­no­phar­ma­col. 2016 Apr 22;182:101–9.
  Schutz vor den nega­ti­ven Wir­kung von Cyclo­phos­pha­mid (Wirk­stoff in der Che­mo­the­ra­pie)

Nayak G et al.
Sperm abnor­ma­li­ties indu­ced by pre-puber­tal expo­sure to cyclo­phos­pha­mi­de are effec­tively miti­ga­ted by Morin­ga olei­fe­ra leaf extract.
Andro­lo­gia. 2016 Mar;48(2):125–36.
  Anti-Krebs-Wir­kung, krank­haf­te Ver­än­de­run­gen des Sper­mas

Maiyo FC et al.
Cyto­to­xi­ci­ty, Anti­oxi­dant and Apo­pto­sis Stu­dies of Quer­ce­tin-3-O Glu­co­si­de and 4-(β-D-Glucopyranosyl-1→4-α-L-Rhamnopyranosyloxy)-Benzyl Isot­hio­cya­na­te from Morin­ga olei­fe­ra.
Anti­can­cer Agents Med Chem. 2016;16(5):648–56.
  Anti-Krebs-Wir­kung

Karim NA et al.
Morin­ga olei­fe­ra Lam: Tar­ge­ting Chemo­pre­ven­ti­on.
Asi­an Pac J Can­cer Prev. 2016;17(8):3675–86.
  krebs­vor­beu­gen­de Wir­kung

Nayak D et al.
Bio­lo­gi­cal­ly syn­the­sis­ed sil­ver nano­par­ti­cles from three diver­se fami­ly of plant extracts and their anti­can­cer activi­ty against epi­der­mo­id A431 car­ci­no­ma.
J Col­lo­id Inter­face Sci. 2015 Nov 1;457:329–38.
  Anti-Krebs-Wir­kung

Jung IL et al.
A poten­ti­al oral anti­can­cer drug can­di­da­te, Morin­ga olei­fe­ra leaf extract, indu­ces the apo­pto­sis of human hepa­to­cel­lu­lar car­ci­no­ma cells.
Oncol Lett. 2015 Sep;10(3):1597–1604.
  Anti-Krebs-Wir­kung, Lun­gen­krebs

Diab KA et al.
In Vitro Anti­can­cer Activi­ties of Anog­eis­sus lati­fo­lia, Ter­mi­na­lia bel­le­ri­ca, Acacia catechu and Morin­ga olei­fer­na Indi­an Plants.
Asi­an Pac J Can­cer Prev. 2015;16(15):6423–8.
  hem­men­de Wir­kung auf Krebs­zel­len

Krish­na­mur­thy PT et al.
Iden­ti­fi­ca­ti­on and cha­rac­te­ri­za­ti­on of a potent anti­can­cer frac­tion from the leaf extracts of Morin­ga olei­fe­ra L.
Indi­an J Exp Biol. 2015 Feb;53(2):98–103.
  Anti-Krebs-Wir­kung

Taha NR, Amin HA, Sul­tan AA.
The pro­tec­tive effect of Morin­ga olei­fe­ra lea­ves against cyclo­phos­pha­mi­de-indu­ced uri­na­ry blad­der toxi­ci­ty in rats.
Tis­sue Cell. 2014 Dec 23. pii: S0040-8166(14)00132–3.
  Anti-Krebs-Wir­kung

Rajen­dran P et al.
Kaemp­fe­rol, a poten­ti­al cyto­sta­tic and cure for inflamma­to­ry dis­or­ders.
Eur J Med Chem. 2014 Oct 30;86:103–12.
  Anti­tu­mor­wir­kun­gen von Kaemp­fe­rol, anti­oxi­da­ti­ve und ent­zün­dungs­hem­men­de Wir­kun­gen

Jafa­rain A, Asgha­ri G, Ghassa­mi E.
Eva­lua­ti­on of cyto­to­xi­ci­ty of Morin­ga olei­fe­ra Lam. cal­lus and leaf extracts on Hela cells.
Adv Bio­med Res. 2014 Sep 23;3:194.
  Schutz vor Medi­ka­men­ten-Neben­wir­kun­gen

Jung IL.
Solub­le extract from Morin­ga olei­fe­ra lea­ves with a new anti­can­cer activi­ty.
PLoS One. 2014 Apr 18;9(4):e95492.
  Anti-Krebs-Wir­kung

Akan­ni EO et al.
Chemo­pre­ven­ti­ve and anti-leu­kemic effects of etha­nol extracts of Morin­ga olei­fe­ra lea­ves on wistar rats bea­ring ben­ze­ne indu­ced leu­kemia.
Curr Pharm Bio­tech­nol. 2014;15(6):563–8.
  Wir­kung bei Leuk­ämie

Tilo­ke C, Phu­luk­da­ree A, Chu­tur­goon AA.
The anti­pro­li­fe­ra­ti­ve effect of Morin­ga olei­fe­ra cru­de aqueous leaf extract on can­ce­rous human alveo­lar epi­the­li­al cells.
BMC Com­ple­ment Altern Med. 2013 Sep 16;13:226.
  anti­oxi­da­ti­ve Wir­kung, Lun­gen­krebs

Gis­mon­di A et al.
Anti­oxi­dant extracts of Afri­can medi­c­inal plants indu­ce cell cycle arrest and dif­fe­ren­tia­ti­on in B16F10 melano­ma cells.
Int J Oncol. 2013 Sep;43(3):956–64.
  Anti-Krebs-Wir­kung

Ber­ko­vich L et al.
Morin­ga Olei­fe­ra aqueous leaf extract down-regu­la­tes nuclear fac­tor-kapp­aB and increa­ses cyto­to­xic effect of che­mo­the­ra­py in pan­crea­tic can­cer cells.
BMC Com­ple­ment Altern Med. 2013 Aug 19;13:212.
  krebs­hem­men­de Wir­kung, Erhö­hung der Che­mo­the­ra­pie-Wirk­sam­keit

Waiya­put W et al.
Inhi­bi­to­ry effects of cru­de extracts from some edi­ble Thai plants against repli­ca­ti­on of hepa­ti­tis B virus and human liver can­cer cells.
BMC Com­ple­ment Altern Med. 2012 Dec 6;12:246.
  Hepa­ti­tis B, Leber­krebs

Sree­la­tha S, Jeyachi­tra A, Pad­ma PR.
Anti­pro­li­fe­ra­ti­on and induc­tion of apo­pto­sis by Morin­ga olei­fe­ra leaf extract on human can­cer cells.
Food Chem Toxi­col. 2011 Jun;49(6):1270–5.
  Tumor­prä­ven­ti­on

Park EJ et al.
Inhi­bi­ti­on of lipo­po­lys­ac­chari­de-indu­ced cyclooxy­ge­na­se-2 and indu­ci­ble nitric oxi­de syn­t­ha­se expres­si­on by 4-[(2′-O-acetyl-α-L-rhamnosyloxy)benzyl]isothiocyanate from Morin­ga olei­fe­ra.
Nutr Can­cer. 2011;63(6):971–82.
  Ana­ly­se, ent­zün­dungs­hem­men­de Akti­vi­tät, Chemo­prä­ven­ti­on gegen den Krebs

Gupta A et al.
Immu­no­mo­du­la­to­ry effect of Morin­ga olei­fe­ra Lam. extract on cyclo­phos­pha­mi­de indu­ced toxi­ci­ty in mice.
Indi­an J Exp Biol. 2010 Nov;48(11):1157–60.
  immun­mo­du­la­to­ri­sche Wir­kung nach einer Behand­lung mit Cyclo­phos­pha­mid (Wirk­stoff aus der Grup­pe der Zyto­sta­ti­ka)

Cos­ta-Lotu­fo LV et al.
Stu­dies of the anti­can­cer poten­ti­al of plants used in Ban­gla­de­shi folk medi­ci­ne.
J Eth­no­phar­ma­col. 2005 May 13;99(1):21–30.
  Anti-Tumor-Wir­kung

Rao AV, Devi PU, Kamath R.
In vivo radio­pro­tec­tive effect of Morin­ga olei­fe­ra lea­ves.
Indi­an J Exp Biol. 2001 Sep;39(9):858–63.
  Reduk­ti­on von Strah­len­schä­den

Fai­zi S, Siddi­qui BS, et al. (1992).
Iso­la­ti­on and struc­tu­re elu­ci­da­ti­on of novel hypo­ten­si­ve agents, nia­zin­in A, nia­zin­in B, nia­zi­micin and nia­zi­mi­nin A plus B from Morin­ga olei­fe­ra: The first natu­ral­ly occur­ring thio­car­ba­ma­tes.
J Che­mi­cal Socie­ty Per­kin Tran­sac­tions I(23) 3237–3241.
  Anti-Tumor-Wir­kung, Blut­hoch­druck

Infek­tio­nen mit Krank­heits­er­re­gern, Ent­zün­dun­gen, Wund­hei­lung, Immun­sys­tem

Manal El-khadra­gy, Ebte­sam M. Alo­la­y­an, Dina M. Met­wal­ly, Moha­med F. et al.
Nano­par­ti­cles Bio­syn­the­si­zed Using Morin­ga olei­fe­ra Leaf Extract, Against Cuta­neous Leish­ma­nia­sis in a Muri­ne Model of Leish­ma­nia major
Int J Envi­ron Res Public Health. 2018 May; 15(5): 1037. Published online 2018 May 22. doi: 10.3390/ijerph15051037
   Bio­syn­the­se von Sil­bernano­par­ti­keln (Ag-NPs) zur Behand­lung von Leish­ma­nio­se

Elu­ma­lai K et al.
Retrac­tion noti­ce to “Green syn­the­sis of Zinc oxi­de nano­par­ti­cles using Morin­ga olei­fe­ra leaf extract and eva­lua­ti­on of its anti­mi­cro­bi­al activi­ty”. [Spec­tro­chim. Acta A Mol. Bio­mol. Spec­trosc. 143 (2015) 158–164, Spec­tro­chim Acta A Mol Bio­mol Spec­trosc. 2019 Jan 5;206:651.
    Bewer­tung der anti­mi­kro­bi­el­len Akti­vi­tät

Liao PC et al.
Iden­ti­fi­ca­ti­on of β-Sitos­te­rol as in Vitro Anti-Inflamma­to­ry Con­sti­tu­ent in Morin­ga olei­fe­ra.
J Agric Food Chem. 2018 Oct 3.
  Iden­ti­fi­zie­rung von β-Sitos­te­rol als in vitro ent­zün­dungs­hem­men­der Bestand­teil

Elabd EMY, Mor­sy SM, Elmalt HA.
Inves­ti­ga­ting of Morin­ga Olei­fe­ra Role on Gut Micro­bio­ta Com­po­si­ti­on and Inflamma­ti­on Asso­cia­ted with Obe­si­ty Fol­lo­wing High Fat Diet Fee­ding.
Open Access Maced J Med Sci. 2018 Aug 19;6(8):1359–1364.
   Regu­lie­rung der Gewichts­zu­nah­me bei Adi­po­si­tas und Ent­zün­dun­gen (Inter­leu­kin 6) durch die Modu­la­ti­on von Darm­bak­te­ri­en

Aré­va­lo-Híjar L et al.
Anti­bac­te­ri­al and Cyto­to­xic Effects of Morin­ga olei­fe­ra (Morin­ga) and Aza­d­irach­ta indi­ca (Neem) Metha­no­lic Extracts against Strains of Ent­ero­coc­cus fae­ca­lis.
Int J Dent. 2018 Sep 25;2018:1071676.
   Wir­kung gegen das Bak­te­ri­um Ent­ero­coc­cus fae­ca­lis (ein wich­ti­ger Erre­ger von Harn­wegs­in­fek­tio­nen und und Pro­ble­men nach Darm­ope­ra­tio­nen)

Huang ML et al.
Pre­pa­ra­ti­on opti­mi­za­ti­on of extract of Morin­ga olei­fe­ra lea­ves and its immu­ne regu­la­ti­on effect on immu­no­sup­pres­sed mice.
Zhong­guo Zhong Yao Za Zhi. 2018 Jul;43(13):2697–2704.
   Immun­re­gu­la­ti­on, Gehalt an Gesamt­fla­vo­no­iden

Are­mu A et al.
Metha­no­lic leaf extract of Morin­ga olei­fe­ra impro­ves the sur­viva­bi­li­ty rate, weight gain and his­topa­tho­lo­gi­cal chan­ges of Wis­ter rats infec­ted with Try­pa­no­so­ma brucei.
Int J Vet Sci Med. 2018 Jun 14;6(1):39–44.
   Extrakt, Blät­ter, Wir­kung auf Infek­tio­nen mit Try­pa­no­so­ma brucei ( Krank­heits­er­re­ger der Afri­ka­ni­schen Schlaf­krank­heit)

Mat­h­i­ron D et al.
A Com­bi­ned Approach of NMR and Mass Spec­tro­me­try Tech­ni­ques App­lied to the α-Cyclo­d­ex­trin/­Mo­rin­gin Com­plex for a Novel Bioac­tive For­mu­la­ti­on.
Mole­cu­les. 2018 Jul 13;23(7).
  Her­stel­lung eines Morin­gin-Kom­plex für eine neue bio­ak­ti­ve For­mu­lie­rung, ent­zün­dungs­hem­men­de Wir­kung

Ola­woye OS, Ade­ag­bo BA, Bola­ji OO.
Morin­ga olei­fe­ra leaf powder alters the phar­ma­co­ki­ne­tics of amo­dia­qui­ne in healt­hy human vol­un­te­ers.
J  Clin Pharm Ther. 2018 Jun 19.
  Ein­satz  von Morin­ga-Pul­ver in der Mala­ria-The­ra­pie zusam­men mit dem Wirk­stoff Amo­dia­quin

Mah­di HJ et al.
In vivo anti-arthri­tic and anti-noci­cep­ti­ve effects of etha­nol extract of Morin­ga olei­fe­ra lea­ves on com­ple­te Freund’s adju­vant (CFA)-induced arthri­tis in rats.
Inte­gr Med Res. 2018 Mar;7(1):85–94.
  anti­no­zi­zep­ti­ve Wir­kung (ernied­rigt die Sen­si­ti­vi­tät gegen­über Schmerz­rei­zen), Medi­ka­ment für Schmerz­mit­tel und Arthri­tis

Dos San­tos AO et al.
Anti­no­ci­cep­ti­ve, anti-inflamma­to­ry and toxi­co­lo­gi­cal eva­lua­ti­on of semi-syn­thetic mole­cu­les obtai­ned from a ben­zyl-isot­hio­cya­na­te iso­la­ted from Morin­ga olei­fe­ra Lam. in a tem­po­ro­man­di­bu­lar joint inflamma­to­ry hyper­no­ci­cep­ti­on model in rats.
Bio­med Phar­ma­co­ther. 2017 Dec 28;98:609–618.
  schmerz­re­du­zie­ren­de und ent­t­zün­dungs­hem­men­de Wir­kung

You­nus I et al.
Eva­lua­ti­on of cyto­to­xic and anti­vi­ral activi­ties of aqueous lea­ves extracts of dif­fe­rent plants against foot and mouth disea­se virus infec­tion in far­ming ani­mals.
Pak J Pharm Sci. 2017 Nov;30(6):2165–2172.
  anti­vi­ra­le Wir­kung gegen die Maul- und Klau­en­seu­che

Tshin­ga­ni K et al.
Impact of Morin­ga olei­fe­ra lam. Leaf powder sup­ple­men­ta­ti­on ver­sus nut­ri­tio­nal coun­se­ling on the body mass index and immu­ne respon­se of HIV pati­ents on anti­re­tro­vi­ral the­ra­py: a sin­gle-blind ran­do­mi­zed con­trol tri­al.
BMC Com­ple­ment Altern Med. 2017 Aug 22;17(1).
  HIV, anti­re­tro­vi­ra­le The­ra­pie, Body-Mass-Index

Gia­cop­po S et al.
The α-cyclo­d­ex­trin com­plex of the Morin­ga isot­hio­cya­na­te sup­pres­ses lipo­po­lys­ac­chari­de-indu­ced inflamma­ti­on in RAW 264.7 macro­pha­ge cells through Akt and p38 inhi­bi­ti­on.
Inflamm Res. 2017 Jun;66(6):487–503.
  ent­zün­dungs­hem­men­de und anti­oxi­da­ti­ve Wir­kung

Alma­tra­fi MM.
Morin­ga Lea­ves Pre­vent Hepa­tic Lipid Accu­mu­la­ti­on and Inflamma­ti­on in Gui­nea Pigs by Redu­cing the Expres­si­on of Genes Invol­ved in Lipid Meta­bo­lism.
Int J Mol Sci. 2017 Jun 22;18(7). pii: E1330.
  Ent­zün­dun­gen und Lipid- akku­mu­la­ti­on der Leber

Dougnon TV et al.
Tra­di­tio­nal tre­at­ment of human and ani­mal sal­mo­nel­lo­ses in Sou­thern Benin: Know­ledge of far­mers and tra­di­the­ra­pists.
Vet World. 2017 Jun;10(6):580–592.
  anti­bak­te­ri­el­le Wir­kung gegen Sal­mo­nel­len

Abdel-Latif M et al.
Modu­la­ti­on of muri­ne intes­ti­nal immu­ni­ty by Morin­ga olei­fe­ra extract in expe­ri­men­tal hyme­n­ol­epia­sis nana.
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  schüt­zen­de Wir­kung gegen eine H. nana-Infek­tio­nen (ein Zwerg­band­wurm)

Enda­le Gur­mu A et al.
Pat­tern of Tra­di­tio­nal Medi­ci­ne Uti­li­za­ti­on among HIV/AIDS Pati­ents on Anti­re­tro­vi­ral The­ra­py at a Uni­ver­si­ty Hos­pi­tal in Nor­thwes­tern Ethio­pia: A Cross-Sec­tio­nal Stu­dy.
Evid Based Com­ple­ment Alter­nat Med. 2017;2017:1724581.
  Ein­satz tra­di­tio­nel­ler Medi­zin bei HIV / AIDS-Pati­en­ten in einem Uni­ver­si­täts­kran­ken­haus

Kini SG et al.
Morin­ti­des: car­go-free chi­tin-bin­ding pep­ti­des from Morin­ga olei­fe­ra.
BMC Plant Biol. 2017 Mar 31;17(1):68.
  anti­my­ko­ti­sche Wir­kung von Morin­ga-Pep­ti­den

Mone­ra-Pen­du­ka TG, Mapon­ga CC, Mor­se GD, Nha­chi CFB
Capa­ci­ty for ethi­cal and regu­la­to­ry review of her­bal tri­als in deve­lo­ping coun­tries: a case stu­dy of Morin­ga olei­fe­ra rese­arch in HIV-infec­ted pati­ents.
J Pharm Poli­cy Pract. 2017 Feb 20;10:9.
  For­schung an HIV-infi­zier­ten Pati­en­ten, ethi­sche und auf­sichts­be­hörd­li­che Geneh­mi­gung und Über­prü­fung

Mone­ra-Pen­du­ka TG et al.
Qua­li­ty and label­ing infor­ma­ti­on of Morin­ga olei­fe­ra pro­ducts mar­ke­ted for HIV-infec­ted peop­le in Zim­bab­we.
J Public Health Afr. 2016 Dec 31;7(2):84–88.
  Qua­li­täts­kon­trol­le von Morin­ga-Pro­duk­ten, die für HIV-Infi­zier­te bestimmt sind

Arul­sel­van P et al.
Anti-Inflamma­to­ry Poten­ti­al of Ethyl Ace­ta­te Frac­tion of Morin­ga olei­fe­ra in Down­re­gu­la­ting the NF-κB Signa­ling Pathway in Lipo­po­lys­ac­chari­de-Sti­mu­la­ted Macro­pha­ges.
Mole­cu­les. 2016 Oct 31;21(11). pii: E1452.
  ent­zün­dungs­hem­men­des Poten­ti­al

Suren­dra T et al.
RSM opti­mi­zed Morin­ga olei­fe­ra peel extract for green syn­the­sis of M. olei­fe­ra cap­ped pal­la­di­um nano­par­ti­cles with anti­bac­te­ri­al and hemo­ly­tic pro­per­ty.
J Pho­to­chem Pho­to­bi­ol B. 2016 Sep;162:550–557.
  anti­bak­te­ri­el­le Akti­vi­tät

Ezhil­ara­si AA et al.
Green syn­the­sis of NiO nano­par­ti­cles using Morin­ga olei­fe­ra extract and their bio­me­di­cal app­li­ca­ti­ons: Cyto­to­xi­ci­ty effect of nano­par­ti­cles against HT-29 can­cer cells.
J Pho­to­chem Pho­to­bi­ol B. 2016 Nov;164:352–360.
  Syn­the­se von Nickel­oxid-Nano­par­ti­keln, anti­bak­te­ri­el­le Wir­kung, zyto­to­xi­sche Akti­vi­tät gegen mensch­li­che Krebs­zel­len

You­nus I et al.
Eva­lua­ti­on of anti­vi­ral activi­ty of plant extracts against foot and mouth disea­se virus in vitro.
Pak J Pharm Sci. 2016 Jul;29(4):1263–8.
  anti­vi­ra­le Akti­vi­tät gegen die Maul- und Klau­en­seu­che

Muham­mad AA et al.
Eva­lua­ti­on of wound healing pro­per­ties of bioac­tive aqueous frac­tion from Morin­ga olei­fe­ra Lam on expe­ri­ment­al­ly indu­ced dia­betic ani­mal model.
Drug Des Devel Ther. 2016 May 24;10:1715–30.
  Wund­hei­lung, dia­be­ti­sches Fuß­ge­schwür, anti­bak­te­ri­el­le Akti­vi­tät

Kuro­ka­wa M et al.
Activa­ti­on of Cel­lu­lar Immu­ni­ty in Her­pes Sim­plex Virus Type 1-Infec­ted Mice by the Oral Admi­nis­tra­ti­on of Aqueous Extract of Morin­ga olei­fe­ra Lam. Lea­ves.
Phy­to­ther Res. 2016 May;30(5):797–804.
  Wirk­sam­keit gegen den Her­pes-sim­plex-Virus-Typ-1

Elu­ma­lai K et al.
RETRACTED: Green syn­the­sis of zinc oxi­de nano­par­ti­cles using Morin­ga olei­fe­ra leaf extract and eva­lua­ti­on of its anti­mi­cro­bi­al activi­ty.
Spec­tro­chim Acta A Mol Bio­mol Spec­trosc. 2015 May 15;143:158–64.
  anti­mi­kro­bi­el­le Akti­vi­tät

Rajen­dran P et al.
Kaemp­fe­rol, a poten­ti­al cyto­sta­tic and cure for inflamma­to­ry dis­or­ders.
Eur J Med Chem. 2014 Oct 30;86:103–12.
  Anti­tu­mor­wir­kun­gen von Kaemp­fe­rol, anti­oxi­da­ti­ve und ent­zün­dungs­hem­men­de Wir­kun­gen

Extrakt / anti­vi­ra­len gegen das Virus der Maul- und Klau­en­seu­che­Kaur A, Kaur PK, Singh S, Singh IP, Antileish­ma­ni­al com­pounds from Morin­ga olei­fe­ra Lam., Natur­forsch C. 2014 Mar-Apr;69(3–4):110–6.
  leish­ma­ni­en­ab­tö­ten­de Wir­kung (intra­zel­lu­lä­re Para­si­ten)

Ebi­lo­ma GU et al.
Bio­as­say-gui­ded iso­la­ti­on of active princi­ples from Nige­ri­an medi­c­inal plants iden­ti­fies new try­p­ano­ci­des with low toxi­ci­ty and no cross-resis­tan­ce to dia­mi­di­nes and arse­ni­cals.
J Eth­no­phar­ma­col. 2017 Apr 18;202:256–264.
  anti­pa­ra­si­tä­re Wir­kung

Mone­ra-Pen­du­ka TG et al.
Effect of Morin­ga olei­fe­ra Lam. leaf powder on the phar­ma­co­ki­ne­tics of nevi­ra­pi­ne in HIV-infec­ted adults: a one sequence cross-over stu­dy.
AIDS Res Ther. 2017 Mar 14;14:12.
  HIV, Wir­kung auf die Phar­ma­ko­ki­ne­tik von Nevi­ra­pin (HIV-Medi­ka­ment)

Mar­tí­nez-Gon­zá­lez CL et al.
Morin­ga olei­fe­ra, a spe­ci­es with poten­ti­al anal­ge­sic and anti-inflamma­to­ry activi­ties. Bio­med Phar­ma­co­ther.
2017 Mar;87:482–488.
  schmerz­lin­dern­de und  anti­ent­zünd­li­che Wir­kung

Elga­mi­ly H et al.
Micro­bio­lo­gi­cal Assess­ment of Morin­ga Olei­fe­ra Extracts and Its Incorpo­ra­ti­on in Novel Den­tal Reme­di­es against Some Oral Patho­gens.
Open Access Maced J Med Sci. 2016 Dec 15;4(4):585–590.
  anti­mi­kro­bi­el­le Wir­kung gegen­über Krank­heits­er­re­ger im Mund­raum

Somsak V et al.
Anti­ma­la­ri­al Pro­per­ties of Aqueous Cru­de Extracts of Gyn­o­stem­ma pen­ta­phyl­lum and Morin­ga olei­fe­ra Lea­ves in Com­bi­na­ti­on with Artes­u­n­a­te in Plas­mo­di­um berg­hei-Infec­ted Mice.
J Trop Med. 2016;2016:8031392. Epub 2016 Oct 31.
  Wir­kung gegen Mala­ria

Kart­hi­vashan G, et al.
The modu­la­to­ry effect of Morin­ga olei­fe­ra leaf extract on endo­ge­nous anti­oxi­dant sys­tems and inflamma­to­ry mar­kers in an acet­ami­no­phen-indu­ced nephro­to­xic mice model.
PeerJ. 2016 Jul 7;4:e2127.
  anti­ent­zünd­li­che Wir­kung

Nfam­bi J et al.
Immu­no­mo­du­la­to­ry activi­ty of metha­no­lic leaf extract of Morin­ga olei­fe­ra in Wistar albi­no rats.
J Basic Clin Phy­si­ol Phar­ma­col. 2015 Nov;26(6):603–11.
  immun­mo­du­lie­ren­de Wir­kung

Jay­an­thi M et al.
Some newer mar­ker phy­to­con­sti­tu­ents in metha­no­lic extract of Morin­ga olei­fe­ra lea­ves and eva­lua­ti­on of its immu­no­mo­du­la­to­ry and sple­n­o­cy­tes pro­li­fe­ra­ti­on poten­ti­al in rats.
Indi­an J Phar­ma­col. 2015 Sep-Oct;47(5):518–23.
  immun­mo­du­lie­ren­de Wir­kung

Fard MT et al.
Bioac­tive Extract from Morin­ga olei­fe­ra Inhi­bits the Pro-inflamma­to­ry Media­tors in Lipo­po­lys­ac­chari­de Sti­mu­la­ted Macro­pha­ges.
Phar­ma­co­gn Mag. 2015 Oct;11(Suppl 4):S556-63.
  anti­ent­zünd­li­che Wir­kung

Adeda­po AA, Falayi OO, Oyag­be­mi AA.
Eva­lua­ti­on of the anal­ge­sic, anti-inflamma­to­ry, anti-oxidant, phy­to­che­mi­cal and toxi­co­lo­gi­cal pro­per­ties of the metha­no­lic leaf extract of com­mer­ci­al­ly pro­ces­sed Morin­ga olei­fe­ra in some labo­ra­to­ry ani­mals.
J Basic Cln Phy­si­ol Phar­ma­col. 2015 Sep 1;26(5):491–9.
  schmerz­lin­dern­de, anti­ent­zünd­li­che und anti­oxi­da­ti­ve Wir­kung

Nfam­bi J et al.
Immu­no­mo­du­la­to­ry activi­ty of metha­no­lic leaf extract of Morin­ga olei­fe­ra in Wistar albi­no rats.
J Basic Clin Phy­si­ol Phar­ma­col. 2015 Jun 23.
  immun­mo­du­lie­ren­de Wir­kung

Rana­sing­he S et al.
Herbs and her­bal com­bi­na­ti­ons used to tre­at suspec­ted mala­ria in Bo, Sier­ra Leo­ne.
J Eth­no­phar­ma­col. 2015 May 26;166:200–4.
  Wirk­sam­keit gegen Mala­ria

Water­man C et al.
Sta­ble, water extrac­ta­ble isot­hio­cya­na­tes from Morin­ga olei­fe­ra lea­ves atte­nua­te inflamma­ti­on in vitro.
Phy­to­che­mi­stry. 2014 Jul;103:114–22.
  ent­zün­dungs­hem­men­de Wir­kung

Ndh­la­la AR et al.
Anti­oxi­dant, anti­mi­cro­bi­al and phy­to­che­mi­cal varia­ti­ons in thir­te­en Morin­ga olei­fe­ra Lam. cul­ti­vars.
Mole­cu­les. 2014 Jul 18;19(7).
  anti­mi­kro­bi­el­le Wir­kung

Ahmad S et al.
Anti­py­retic activi­ty of hydro-alco­ho­lic extracts of Morin­ga olei­fe­ra in rab­bits.
Pak J Pharm Sci. 2014 Jul;27(4):931–4.
  fie­ber- und ent­zün­dungs­sen­ken­de Eigen­schaf­ten

Toron­del B et al.
Effi­cacy of Morin­ga olei­fe­ra leaf powder as a hand-washing pro­duct: a cross­over con­trol­led stu­dy among healt­hy vol­un­te­ers.
BMC Com­ple­ment Altern Med. 2014 Feb 14;14:57.
  anti­bak­te­ri­el­le Wir­kung

Mar­ru­fo T, et al.
Che­mi­cal com­po­si­ti­on and bio­lo­gi­cal activi­ty of the essen­ti­al oil from lea­ves of Morin­ga olei­fe­ra Lam. cul­ti­va­ted in Mozam­bi­que.
Mole­cu­les 2013 Sep 9;18(9):10989–1000.
  anti­oxi­da­ti­ve und anti­mi­kro­bi­el­le Wir­kung

Das N, Sik­der K et al.
Quer­ce­tin alle­via­tes inflamma­ti­on after short-term tre­at­ment in high-fat-fed mice.
Food Funct. 2013 Jun;4(6):889–98.
  ent­zün­dungs­hem­men­de Wir­kung

Haz­ra S et al.
Qua­li­ty of coo­ked ground buf­fa­lo meat trea­ted with the cru­de extracts of Morin­ga olei­fe­ra (Lam.) lea­ves.
J Food Sci Tech­nol. 2012 Apr;49(2):240–5.
  Reduk­ti­on der mikro­bi­el­len Belas­tung im Zusam­men­hang mit der Fleisch­zu­be­rei­tung

Satish A, Sairam S, Ahmed F, Urooj A.
Morin­ga olei­fe­ra Lam.: Pro­tease activi­ty against blood coagu­la­ti­on cas­ca­de.
Phar­ma­co­gno­sy Res. 2012 Jan;4(1):44–9.
  Ein­fluss auf Blut­ge­rin­nung und Wund­hei­lung

Mud­zvi­ti T et al.
The impact of her­bal drug use on adver­se drug reac­tion pro­files of pati­ents on anti­re­tro­vi­ral the­ra­py in zim­bab­we.
AIDS Res Tre­at. 2012;2012:434171.
/   tra­di­tio­nel­len Heil­kräu­ter­me­di­zin in Kom­bi­na­ti­on mit der Schul­me­di­zin, uner­wünsch­te Arz­nei­mit­tel­wir­kun­gen

Dhol­vi­ta­y­ak­hun A.
Cush­nie TP, Trachoo N, Anti­bac­te­ri­al activi­ty of three medi­c­inal Thai plants against Cam­py­lo­bac­ter jeju­ni and other food­bor­ne patho­gens.
Nat Prod Res. 2012;26(4):356–63.
 Wir­kung gegen Lebens­mit­tel­kei­me

Pra­sad TN, Elu­ma­lai EK.
Bio­fa­bri­ca­ti­on of Ag nano­par­ti­cles using Morin­ga olei­fe­ra leaf extract and their anti­mi­cro­bi­al activi­ty.
Asi­an Pac J Trop Bio­med. 2011 Dec;1(6):439–42.
  anti­mi­kro­bi­el­le Akti­vi­tät von aus M. olei­fe­ra- Blatt­ex­trakt syn­the­ti­sier­ten Sil­bernano­par­ti­keln

Pei­xo­to JR et al.
In vitro anti­bac­te­ri­al effect of aqueous and etha­no­lic Morin­ga leaf extracts.
Asi­an Pac J Trop Med. 2011 Mar;4(3):201–4.
  anti­bak­te­ri­el­le Wir­kung

Mana­he­ji H et al.
Anal­ge­sic effects of metha­no­lic extracts of the leaf or root of Morin­ga olei­fe­ra on com­ple­te Freund’s adju­vant-indu­ced arthri­tis in rats.
Zhong Xi Yi Jie He Xue Bao. 2011 Feb;9(2):216–22.
  Schmerz­re­duk­ti­on und ent­zün­dungs­hem­men­de Wir­kung bei Arthri­tis

Park EJ et al.
Inhi­bi­ti­on of lipo­po­lys­ac­chari­de-indu­ced cyclooxy­ge­na­se-2 and indu­ci­ble nitric oxi­de syn­t­ha­se expres­si­on by 4-[(2′-O-acetyl-α-L-rhamnosyloxy)benzyl]isothiocyanate from Morin­ga olei­fe­ra.
Nutr Can­cer. 2011;63(6):971–82.
  Ana­ly­se, ent­zün­dungs­hem­men­de Akti­vi­tät und Chemo­prä­ven­ti­on gegen den Krebs

Gupta A et al.
Immu­no­mo­du­la­to­ry effect of Morin­ga olei­fe­ra Lam. extract on cyclo­phos­pha­mi­de indu­ced toxi­ci­ty in mice.
Indi­an J Exp Biol. 2010 Nov;48(11):1157–60.
  immun­mo­du­la­to­ri­sche Wir­kung

Sud­ha P et al.
Immu­no­mo­du­la­to­ry activi­ty of metha­no­lic leaf extract of Morin­ga olei­fe­ra in ani­mals.
Indi­an J Phy­si­ol Phar­ma­col. 2010 Apr-Jun;54(2):133–40.
  immun­mo­du­la­to­ri­sche Wir­kung

Nepo­le­an P, Ani­tha J, Emi­lin Renit­ta R.
Iso­la­ti­on, ana­ly­sis and iden­ti­fi­ca­ti­on of phy­to­che­mi­cals of anti­mi­cro­bi­al activi­ty of Morin­ga olei­fe­ra Lam.
India. Cur­rent Bio­ti­ca Vol. 3, Issue 1, 2009.
  anti­mi­kro­bi­el­le Wir­kung

Ayan­bim­pe GM et al.
Eva­lua­ti­on of extracts of Jatro­pha cur­cas and Morin­ga olei­fe­ra in cul­tu­re media for selec­tive inhi­bi­ti­on of sapro­phytic fun­gal con­ta­mi­nants.
J Clin Lab Anal. 2009;23(3):161–4.
  pilz­hem­men­de Wir­kung

Mone­ra TG et al.
Morin­ga olei­fe­ra leaf extracts inhi­bit 6be­ta-hydroxy­la­ti­on of tes­to­ste­ro­ne by CYP3A4.
J Infect Dev Ctries. 2008 Oct 1;2(5):379–83.
  HIV/Aids

Akin­bo­de OA, Iko­tun T
Effi­cacy of cer­tain plant extracts against seed-bor­ne infec­tion of Collec­to­trichum dest­ruc­tivum on cow­pea (Vigna uni­gu­cu­la­ta).
Afri­can J Bio­tech­no­lo­gy Vol. 7 (20), pp. 3683–3685, 20 Octo­ber, 2008.
  pilz­hem­men­de Wir­kung

Sulai­man MR et al.
Eva­lua­ti­on of Morin­ga olei­fe­ra Aqueous Extract for Anti­no­ci­cep­ti­ve and Anti-Inflamma­to­ry Activi­ties in Ani­mal Models.
Phar­maceuti­cal Bio­lo­gy 2008, Vol. 46, No. 12, 838–845.
  schmerz­lin­dern­de, anti­ent­zünd­li­che Wir­kung

Doug­ha­ri JH, Puku­ma MS, De N.
Anti­bac­te­ri­al effects of Bala­ni­tes aegyp­tia­ca L. Drel. and Morin­ga olei­fe­ra Lam. on Sal­mo­nel­la typhi.
Afri­can J Bio­tech­no­lo­gy Vol. 6 (19), pp. 2212–2215, 4 Octo­ber 2007.
  anti­bak­te­ri­el­le Wir­kung gegen­über Sal­mo­nel­la typhi

Chuang PH et al.
Anti-fun­gal activi­ty of cru­de extracts and essen­ti­al oil of Morin­ga olei­fe­ra Lam..
Bio­re­sour Tech­nol. 2007 Jan;98(1):232–6. Epub 2006 Jan 6.
  pilz­hem­men­de Wir­kung

Ata­wo­di SE.
Com­pa­ra­ti­ve in vitro try­p­ano­ci­dal activi­ties of petro­le­um ether, chlo­ro­form, metha­nol and aqueous extracts of some Nige­ri­an savan­nah plants.
Afri­can J Bio­tech­no­lo­gy Vol. 4 (2), pp. 177–182, Febru­ary 2005.
  try­p­a­no­zi­de Wir­kung (u. a. gegen den Erre­ger der afri­ka­ni­schen Schlaf­krank­heit)

Lipi­pun V et al.
Effi­cacy of Thai medi­c­inal plant extracts against her­pes sim­plex virus type 1 infec­tion in vitro and in vivo.
Anti­vi­ral Res. 2003 Nov;60(3):175–80.
  Wir­kung gegen Her­pes-sim­plex-Viren Typ 1

Köh­ler I et al.
In vitro anti­plas­mo­di­al inves­ti­ga­ti­on of medi­c­inal plants from El Sal­va­dor.
Z Natur­forsch C. 2002 Mar-Apr;57(3–4):277–81.
  anti-plas­mo­dia­le Wir­kung (gegen Mala­ria)

Rao KNV et al. (1999).
Anti­in­flamma­to­ry activi­ty of Morin­ga olei­fe­ra Lam..
Anci­ent Sci­ence of Life 18(3–4):195–198.
  anti­ent­zünd­li­che Wir­kung

Pal SK et al. (1995).
Anti­mi­cro­bi­al action of the leaf extract of Morin­ga olei­fe­ra Lam..
Anci­ent Sci­ence of Life 14(3): 197–199.
  anti­mi­kro­bi­el­le Wir­kung

Mura­ka­mi A et al.
Nia­zi­mi­nin, a thio­car­ba­ma­te from the lea­ves of Morin­ga olei­fe­ra, holds a strict struc­tu­ral requi­re­ment for inhi­bi­ti­on of tumor-pro­mo­ter-indu­ced Epstein-Barr virus activa­ti­on.
Plan­ta Med. 1998 May;64(4):319–23.
  Epstein-Barr-Virus

Nwo­su MO, Oka­for JI.
Preli­mi­na­ry stu­dies of the anti­fun­gal activi­ties of some medi­c­inal plants against Basidio­bo­lus and some other patho­ge­nic fun­gi.
Myco­ses. 1995 May-Jun;38(5–6):191–5.
  anti­fun­ga­le Wir­kung

Haut, Wund­hei­lung, Kos­me­tik

Zhou Y et al.
Morin­ga olei­fe­ra stem extract pro­tect skin kera­ti­no­cy­tes against oxi­da­ti­ve stress inju­ry by enhan­ce­ment of anti­oxi­dant defen­se sys­tems and activa­ti­on of PPARα.
Bio­med Phar­ma­co­ther. 2018 Aug 2;107:44–53.
  Extrakt aus den Stän­geln zum Schutz vor oxi­da­ti­ven Haut­schä­den, topi­sche Behand­lung mit einer Creme 

Omo­lo­la Esther Fay­e­mi, Antho­ny Chi­non­so Eken­nia, Lebo­kang Kata­ta-Seru, Azu­bui­ke Peter Ebo­ka­i­we, Oma­muyov­wi Meas­hack et al.
Anti­mi­cro­bi­al and Wound Healing Pro­per­ties of Poly­acrylo­ni­tri­le-Morin­ga Extract Nano­fi­bers
ACS Ome­ga. 2018 May 31; 3(5): 4791–4797. Published online 2018 May 1. doi: 10.1021/acsomega.7b01981
   anti­mi­kro­bi­el­le Eigen­schaf­ten einer Wund­auf­la­ge aus einer Poly­acryl­ni­tril-Nano­fa­ser gegen Sta­phy­lo­coc­cus aure­us und Esche­ri­chia coli

Moham­med Sani Jaa­fa­ru, Nurul Ashi­kin Abd Karim, Moha­mad Elia­ser Enas, Patrick Rol­lin, Ema­nue­la Maz­zon et al.
Pro­tec­tive Effect of Glu­co­si­no­la­tes Hydro­ly­tic Pro­ducts in Neu­ro­de­ge­ne­ra­ti­ve Disea­ses (NDDs)
Nut­ri­ents. 2018 May; 10(5): 580. Published online 2018 May 8. doi: 10.3390/nu10050580
   Schutz­wir­kung von Glu­co­si­no­la­ten und deren Abkömm­lin­ge bei neu­ro­de­ge­ne­ra­ti­ven Erkran­kun­gen (NDDs)

Chin CY et al.
Morin­ga olei­fe­ra stan­dar­di­sed aqueous leaf extract-loa­ded hydro­col­lo­id film dres­sing: in vivo der­mal safe­ty and wound healing eva­lua­ti­on in STZ/HFD dia­betic rat model.
Drug Deliv Transl Res. 2018 Mar 20.
  der­ma­le Sicher­heit, dia­be­ti­scher Wund­hei­lungs­pro­zess

Hur SS et al.
Advan­ced Effect of Morin­ga olei­fe­ra Bio­con­ver­si­on by Rhi­zo­pus oli­go­s­po­rus on the Tre­at­ment of Ato­pic Der­ma­ti­tis: Preli­mi­na­ry Stu­dy.
Evid Based Com­ple­ment Alter­nat Med. 2018 Jan 17;2018:7827565. doi: 10.1155/2018/7827565. eCollec­tion 2018.
  (fer­men­tiert), ato­pi­sche Der­ma­ti­tis

Bal­dis­s­erot­to A et al.
Morin­ga olei­fe­ra Leaf Extracts as Mul­ti­func­tio­nal Ingre­dients for “Natu­ral and Orga­nic” Sun­screens and Pho­to­pro­tec­tive Pre­pa­ra­ti­ons, 
2018 Mar 15;23(3). pii: E664. doi: 10.3390/molecules23030664.
  Her­stel­lung einer Son­nen­creme, Son­nen­schutz­fak­tor

Chin CY, Jalil J, Ng PY, Ng SF.
Deve­lop­ment and for­mu­la­ti­on of Morin­ga olei­fe­ra stan­dar­di­sed leaf extract film dres­sing for wound healing app­li­ca­ti­on.
J Eth­no­phar­ma­col. 2018 Feb 15;212:188–199.
  wund­hei­len­de Eigen­schaf­ten, Wund­ver­band

Got­hai S et al.
Che­mi­cal Com­po­si­ti­on of Morin­ga olei­fe­ra Ethyl Ace­ta­te Frac­tion and Its Bio­lo­gi­cal Activi­ty in Dia­betic Human Der­mal Fibro­blasts.
Phar­ma­co­gn Mag. 2017 Oct;13(Suppl 3):S462-S469.
  anti­bak­te­ri­el­le und anti­oxi­da­ti­ve Wir­kung, Wund­hei­lung

Choi EJ et al.
Topi­cal app­li­ca­ti­on of Morin­ga olei­fe­ra leaf extract ame­lio­ra­tes expe­ri­ment­al­ly indu­ced ato­pic der­ma­ti­tis by the regu­la­ti­on of Th1/Th2/Th17 balan­ce.
Bio­med Phar­ma­co­ther. 2016 Dec;84:870–877.
  Wir­kung gegen ato­pi­sche Der­ma­ti­tis und Ein­fluss auf Regu­la­tor­fak­to­ren des Immun­sys­tems

Got­hai S, Arul­sel­van P, Tan WS, Faku­ra­zi S.
Wound healing pro­per­ties of ethyl ace­ta­te frac­tion of Morin­ga olei­fe­ra in nor­mal human der­mal fibro­blasts.
J Inter­cult Eth­no­phar­ma­col. 2016 Feb 8;5(1):1–6.
  the­ra­peu­ti­sches Mit­tel zur Beschleu­ni­gung der Haut­wund­hei­lung

Eya­re­fe OD, Idowu A, Afo­la­bi JM, Healing.
Poten­ti­als of Oral Morin­ga Olei­fe­ra Lea­ves Extract and Tetra­cy­cli­ne on Methi­cil­lin Resistant Sta­phy­lo­coc­cus Aure­us Infec­ted Wounds of Wistar rats.
Niger J Phy­si­ol Sci. 2015 Dec 20;30(1–2):73–8. PubMed PMID: 27507780.
  Wir­kun­gen auf die Wund­hei­lung bei einer Sta­phy­lo­coc­cus-aure­us-Infek­ti­on

Jadoon S et al..
Anti-Aging Poten­ti­al of Phy­to­ex­tract Loa­ded-Phar­maceuti­cal Creams for Human Skin Cell Lon­ge­ti­vi­ty.
Oxid Med Cell Lon­gev. 2015;2015:709628.
/   Anti-Aging-Effek­te von Creme­for­mu­lie­run­gen, anti­oxi­da­ti­ven Eigen­schaf­ten

Tso­uh Fokou PV et al.
Eth­no­phar­ma­co­lo­gi­cal reports on anti-Buru­li ulcer medi­c­inal plants in three West Afri­can coun­tries.
J Eth­no­phar­ma­col. 2015 Aug 22;172:297–311.
/   anti­bak­te­ri­el­le Wir­kung gegen Buru­li Ulkus (infek­tiö­se Erkran­kung der Haut und Weich­tei­le)

Muham­mad AA et al.
In vitro wound healing poten­ti­al and iden­ti­fi­ca­ti­on of bioac­tive com­pounds from Morin­ga olei­fe­ra Lam.
Bio­med Res Int. 2013;2013:974580.
  Wund­hei­lung

Satish A, Sairam S, Ahmed F, Urooj A.
Morin­ga olei­fe­ra Lam.: Pro­tease activi­ty against blood coagu­la­ti­on cas­ca­de.
Phar­ma­co­gno­sy Res. 2012 Jan;4(1):44–9.
  Ein­fluss auf Blut­ge­rin­nung und Wund­hei­lung

Rathi BS, Bodhan­kar SL, Bahe­ti AM.
Eva­lua­ti­on of aqueous lea­ves extract of Morin­ga olei­fe­ra Linn for wound healing in albi­no rats.
Indi­an J Exp Biol. 2006 Nov;44(11):898–901.
   wund­hei­len­de und anti­mi­kro­bi­el­le Wir­kung

Magen-Darm-Trakt

Aré­va­lo-Híjar L et al.
Anti­bac­te­ri­al and Cyto­to­xic Effects of Morin­ga olei­fe­ra (Morin­ga) and Aza­d­irach­ta indi­ca (Neem) Metha­no­lic Extracts against Strains of Ent­ero­coc­cus fae­ca­lis.
Int J Dent. 2018 Sep 25;2018:1071676.
   Blatt­ex­trakt, Wir­kung gegen das Bak­te­ri­um Ent­ero­coc­cus fae­ca­lis (ein wich­ti­ger Erre­ger von Harn­wegs­in­fek­tio­nen und und Pro­ble­men nach Darm­ope­ra­tio­nen)

Ijio­ma SN et al.
His­to­lo­gi­cal exhi­bi­ti­on of the gastro­pro­tec­tive effect of Morin­ga olei­fe­ra leaf extract.
Comp Clin Path. 2018;27(2):327–332.
  gastro­pro­tek­ti­ve Wir­kung, Ent­wick­lung neu­er Anti-Ulcer-Mit­tel (gegen Magen­ge­schwü­re)

Gao X et al.
Meta­bo­lic adap­tati­on to the aqueous leaf extract of Morin­ga olei­fe­ra Lam.-supplemented diet is rela­ted to the modu­la­ti­on of gut micro­bio­ta in mice.
Appl Micro­bi­ol Bio­tech­nol. 2017 Jun;101(12):5115–5130.
  Ein­fluss auf die Darm­flo­ra

Deva­raj VC, Krish­na BG.
Anti­ul­cer activi­ty of a poly­her­bal for­mu­la­ti­on (PHF) from Indi­an medi­c­inal plants.
Chin J Nat Med. 2013 Mar;11(2):145–8.
  Magen­ge­schwü­re

Deb­nath S, Bis­was D, Ray K, Guha D.
Morin­ga olei­fe­ra indu­ced poten­tia­ti­on of sero­to­nin release by 5-HT(3) recep­tors in expe­ri­men­tal ulcer model.
Phy­to­me­di­ci­ne 2011 Jan 15;18(2–3):91–5.
  Magen­ge­schwü­re und Magen-Darm-Erkran­kun­gen

Rah­man MM et al.
Con­trol of coli­form bac­te­ria detec­ted from diar­r­hea asso­cia­ted pati­ents by extracts of Morin­ga olei­fe­ra.
Nepal Med Coll J. 2010 Mar;12(1):12–9.
  anti­bak­tie­ri­el­le Wir­kung, Ein­satz bei Durch­fall­erkran­kun­gen

Deb­nath S, Guha D.
Role of Morin­ga olei­fe­ra on ent­ero­ch­ro­maffin cell count and sero­to­nin con­tent of expe­ri­men­tal ulcer model.
Indi­an J Exp Biol. 2007 Aug;45(8):726–31.
  Magen­ge­schwü­re

Ruck­ma­ni K, Dav­ima­ni S, Jaya­kar B, Anan­dan R (1998).
Anti­ul­cer activi­ty of the alka­li pre­pa­ra­ti­on of the root and fresh leaf juice of Morin­ga olei­fe­ra Lam..
Anci­ent Sci­ence of Life 17(3):220–223.
  (fri­scher Blatt­saft) Magen­ge­schwü­re

Pal SK, Muk­her­jee PK, Saha BP (1995).
Stu­dies on the anti­ul­cer activi­ty of Morin­ga olei­fe­ra leaf extract on gas­tric ulcer models in rats.
Phy­to­the­ra­py Rese­arch 9 463–465.
  Magen­ge­schwü­re

Augen, Vit­amin-A-Sta­tus

Boateng L et al.
Impro­ving Blood Reti­nol Con­cen­tra­ti­ons with Com­ple­men­ta­ry Foods Forti­fied with Morin­ga olei­fe­ra Leaf Powder — A Pilot Stu­dy.
Yale J Biol Med. 2018 Jun 28;91(2):83–94. eCollec­tion 2018 Jun.  Vit­amin-A-Sta­tus, Ver­bes­se­rung der Blut-Reti­nol-Kon­zen­tra­tio­nen durch Morin­ga-Pul­ver bei Säug­lin­gen

Lopez-Teros V et al.
Use of a “Super-child” Approach to Assess the Vit­amin A Equi­v­a­lence of Morin­ga olei­fe­ra Lea­ves, Deve­lop a Com­part­ment­al Model for Vit­amin A Kine­tics, and Esti­ma­te Vit­amin A Total Body Stores in Young Mexi­can Child­ren.
J Nutr. 2017 Dec;147(12):2356–2363.
  Vit­amin-A-Sta­tus

Pas­apor­te MS et al.
Xan­t­ho­phyll con­tent of selec­ted vege­ta­bles com­mon­ly con­su­med in the Phil­ip­pi­nes and the effect of boi­ling.
Food Chem. 2014 Sep 1;158:35–40.
  Augen­schutz durch das ent­hal­te­ne Lutein und Zea­xan­t­hin

Kur­mi R et al.
Etha­nol extract of Morin­ga olie­fe­ra pre­vents in vitro glu­co­se indu­ced cataract on iso­la­ted goat eye lens.
Indi­an J Oph­thal­mol. 2014 Feb;62(2):154–7.
  Anti­ka­rakt­po­ten­ti­al, schüt­zen­de Wir­kung auf einen glu­co­se-indu­zier­ten Kata­rakt (grau­er Star)

Sas­ika­la V et al.
Morin­ga olei­fe­ra pre­vents sele­ni­te-indu­ced catarac­to­ge­ne­sis in rat pups.
J Ocul Phar­ma­col Ther. 2010 Oct;26(5):441–7.
  Schutz vor Lin­sen­trü­bung, För­de­rung der Augen­ge­sund­heit

Ejoh RA, Dever JT, Mills JP, Tanu­mi­hard­jo SA.
Small quan­ti­ties of caro­te­no­id-rich tro­pi­cal green leafy vege­ta­bles indi­ge­nous to Afri­ca main­tain vit­amin A sta­tus in Mon­go­li­an ger­bils (Merio­nes ungui­cu­la­tus).
Br J Nutr. 2010 Jun;103(11):1594–601.
  Vit­amin-A-Sta­tus

Nam­bi­ar VS, Bha­dal­kar K, Daxi­ni M.
Drum­stick lea­ves as source of vit­amin A in ICDS-SFP.
Indi­an J Pediatr. 2003 May;70(5):383–7.
  Vit­amin-A-Sta­tus

Nam­bi­ar VS, Ses­hadri S.
Bio­avai­la­bi­li­ty tri­als of beta-caro­te­ne from fresh and dehy­dra­ted drum­stick lea­ves (Morin­ga olei­fe­ra) in a rat model.
Plant Foods Hum Nutr. 2001;56(1):83–95.
  Vit­amin-A-Sta­tus

Babu SC (2000).
Rural nut­ri­ti­on inter­ven­ti­ons with indi­ge­nous plant foods – a case stu­dy of vit­amin A defi­ci­en­cy in Mala­wi.
Inter­na­tio­nal Food Poli­cy Rese­arch Insti­tu­te, Washing­ton, DC. Bio­tech­no­lo­gy, Agro­no­my Soc. Envi­ron. 4(3):169–179.
  Vit­amin-A-Sta­tus

Mut­ter­milch­bil­dung, Schwan­ger­schaft

Morin­ga.
Drugs and Lac­ta­ti­on Data­ba­se (Lact­Med) [Inter­net]. Bethes­da (MD): Natio­nal Libra­ry of Medi­ci­ne (US); 2006-.
Sicher­heit und Wirk­sam­keit der Blät­ter in Hin­sicht auf die Anre­gung der Mut­ter­milch­pro­duk­ti­on

Jor­dan E. Bis­anz, Megan K. Enos, Geor­ge Pray­God, Shan­non Seney, Jean M. Mack­laim et al.
Micro­bio­ta at Mul­ti­ple Body Sites during Pregnan­cy in a Rural Tan­za­ni­an Popu­la­ti­on and Effects of Morin­ga-Sup­ple­men­ted Pro­bio­tic Yogurt
Appl Envi­ron Micro­bi­ol. 2015 Aug; 81(15): 4965–4975. Pre­pu­blished online 2015 May 15. Published online 2015 Jul 7. doi: 10.1128/AEM.00780–15
 Kon­sum eines pro­bio­ti­schen Joghurts mit 4,3 Gramm getrock­ne­te Blät­ter wäh­rend der Schwan­ger­schaft, Zusam­men­set­zung der Mund-, Darm-, Vagi­nal- und Mut­ter­milchmi­kro­bio­ta, Gesund­heit der Neu­ge­bo­re­nen

Ewuo­la EO et al.
Haema­to­lo­gi­cal and serum bio­che­mi­cal respon­ses of rab­bit does to cru­de Morin­ga olei­fe­ra leaf extract at gesta­ti­on and lac­ta­ti­on.
Trop Anim Health Prod. 2015 Apr; 47(4):637–42.
  Über­prü­fung mög­li­cher Neben­wir­kun­gen bei der Ein­nah­me

Raguin­din PF, Dans LF, King JF.
Morin­ga olei­fe­ra as a Galact­ago­gue.
Bre­ast­feed Med. 2014 Jun 3.
Anre­gung der Milch­pro­duk­ti­on

Bri­ton-Medra­no G, Perez L.
The effi­cacy of Malung­gay (Morin­ga olei­fe­ra) given to near term pregnant women in inclu­ding ear­ly post­par­tum bre­ast milk pro­duc­tion – a dou­ble blind ran­do­mi­zed cli­ni­cal tri­al.
Ospi­tal ng Maka­ti (Osmak) 2004.
Anre­gung der Milch­pro­duk­ti­on in der Still­pe­ri­ode

Unter­ernäh­rung

Sum­an Moha­jan, Tania N. Orchy, Tas­nim Farzana
Effect of incorpo­ra­ti­on of soy flour on func­tio­nal, nut­ri­tio­nal, and sen­so­ry pro­per­ties of mushroom–moringa‐supplemented healt­hy soup
Food Sci Nutr. 2018 May; 6(3): 549–556. Published online 2018 Feb 2. doi: 10.1002/fsn3.594
    Soja­mehl in Kom­bi­na­ti­on mit einer Pilz-Morin­ga-Sup­pe als eiweiß­rei­che Mahl­zeit, sen­so­ri­sche Bewer­tung

Lylia Men­as­ria, Sonia Bla­ney, Bar­ba­ra Main, Lenin Vong, Vanna­ry Hun et al.
Miti­ga­ted Impact of Pro­vi­si­on of Local Foods Com­bi­ned with Nut­ri­ti­on Edu­ca­ti­on and Coun­se­ling on Young Child Nut­ri­tio­nal Sta­tus in Cam­bo­dia
Nut­ri­ents. 2018 Oct; 10(10): 1450. Published online 2018 Oct 6. doi: 10.3390/nu10101450.
 Opti­mie­rung des Ernäh­rungs­sta­tus und der Gesund­heit von jun­gen kam­bo­dscha­ni­schen Kin­dern

Kums­sa DB et al.
Chal­len­ges and oppor­tu­nities for Morin­ga gro­wers in sou­thern Ethio­pia and Kenya.
PLoS One. 2017 Nov 9;12(11):e0187651.
 Mög­lich­kei­ten der diä­ti­schen Nut­zung im Kampf gegen ver­steck­ten Hun­ger

Pan­da S, Kar A, Bis­was S.
A review on morin­ga tree and veti­ver grass — Poten­ti­al bio­re­fi­ne­ry feed­stocks.
Bio­re­sour Tech­nol. 2017 Oct 31.
 Bei­trag zur Ener­gie- und Ernäh­rungs­si­cher­heit

Ama­g­loh FK.
Nut­ri­ent and Total Poly­phe­nol Con­tents of Dark Green Leafy Vege­ta­bles, and Esti­ma­ti­on of Their Iron Bioac­ces­si­bi­li­ty Using the In Vitro Diges­ti­on/­Caco-2 Cell Model.
Foods. 2017 Jul 22;6(7). pii: E54.
 Bio­ver­füg­bar­keit von Eisen, Poly­phe­n­ol­ge­halt, Pro­vit­amin-A-Quel­le

Farzana T et al.
For­mu­la­ti­on and nut­ri­tio­nal eva­lua­ti­on of a healt­hy vege­ta­ble soup powder sup­ple­men­ted with soy flour, mushroom, and morin­ga leaf.
Food Sci Nutr. 2017 May 3;5(4):911–920.
Moringa­pul­ver als Bestand­teil einer Sup­pen­fer­tig­mi­schung

Kums­sa DB et al.
Varia­ti­on in the mine­ral ele­ment con­cen­tra­ti­on of Morin­ga olei­fe­ra Lam. and M. sten­o­pe­ta­la (Bak. f.) Cuf.: Role in human nut­ri­ti­on.
PLoS One. 2017 Apr 7;12(4):e0175503.
 Ver­wen­dung bei Mine­ral­stoff­man­gel- Man­gel­er­schei­nun­gen, Anteil an Selen

Boateng L.
Accep­ta­bi­li­ty of Com­ple­men­ta­ry Foods That Incorpo­ra­te Morin­ga Olei­fe­ra Leaf Powder Among Infants and Their Care­gi­vers.
Food Nutr Bull. 2017 Jan 1:379572117708656.
 Akzep­tanz von Morin­ga als Säug­lings­brei-Zusatz

Glover-Amen­gor M et al.
Micro­nut­ri­ent com­po­si­ti­on and accep­ta­bi­li­ty of Morin­ga olei­fe­ra leaf-forti­fied dis­hes by child­ren in Ada-East dis­trict.
Gha­na,  Food Sci Nutr. 2016 Jul 5;5(2):317–323.
 Unter­näh­rung und Akzep­tanz von Morin­ga als Lebens­mit­tel

Mawo­u­ma S et al.
Accep­ta­bi­li­ty and solu­b­i­li­ty of iron and zinc con­tents of modi­fied Morin­ga olei­fe­ra sau­ces con­su­med in the Far-north regi­on of Cameroon.
Food Sci Nutr. 2016 Jun 21;5(2):344–348.
 Vor­beu­gung und Behe­bung von  Eisen- und Zink­man­gel, Bio­ver­füg­bar­keit von Eisen und Zink

Glover-Amen­gor M et al.
Micro­nut­ri­ent com­po­si­ti­on and accep­ta­bi­li­ty of Morin­ga olei­fe­ra leaf-forti­fied dis­hes by child­ren in Ada-East dis­trict.
Gha­na, Essen Sci Nutr. 2016 5. Juli; 5 (2): 317–323.
 Akzep­tanz von Morin­ga bei Schul­kin­dern, Prä­ven­ti­on vor Man­gel­er­näh­rung

Sai­ni RK et al.
Rela­ti­ve bio­avai­la­bi­li­ty of fola­te from the tra­di­tio­nal food plant Morin­ga olei­fe­ra L. as eva­lua­ted in a rat model, J Food Sci Tech­nol. 2016 Jan;53(1):511–20.
 Bio­ver­füg­bar­keit von Fol­säu­re

Sai­ni RK et al.
Die­ta­ry iron sup­ple­ments and Morin­ga olei­fe­ra lea­ves influ­ence the liver hep­ci­din mes­sen­ger RNA expres­si­on and bio­che­mi­cal indi­ces of iron sta­tus in rats.
Nutr Res. 2014 Jul;34(7):630–8.
 Vor­beu­gung und Behe­bung von Eisen­man­gel

Urbain Zon­go, Ste­ve Léon­ce Zoungra­na, Aly Sava­do­go, Alfred S. Tra­o­ré.
Nut­ri­tio­nal and Cli­ni­cal Reha­bi­li­ta­ti­on of Severely Mal­nou­ris­hed Child­ren with Morin­ga olei­fe­ra Lam. Leaf Powder in Ouag­adou­gou (Bur­ki­na Faso)
Food and Nut­ri­ti­on Sci­en­ces, 2013, 4, 991–997. DOI: 10.4236/fns.2013.49128.

Jil­cott SB et al.
Ite­ra­ti­ve design, imple­men­ta­ti­on and eva­lua­ti­on of a sup­ple­men­tal fee­ding pro­gram for under­weight child­ren ages 6–59 mon­ths in Wes­tern Ugan­da.
Matern Child Health J 2010 Mar;14(2):299–306.
 Unter­ernäh­rung

Thur­ber MD, Fahey JW.
Adop­ti­on of Morin­ga olei­fe­ra to com­bat under-nut­ri­ti­on view­ed through the lens of the ‘Dif­fu­si­on of inno­va­tions’ theo­ry.
Ecol Food Nutr. 2009 May-Jun;48(3):212–25.
 Unter­ernäh­rung, ernäh­rungs­phy­sio­lo­gi­sche Vor­tei­le

Lockett CT, Cal­vert CC, Gri­vet­ti LE.
Ener­gy and micro­nut­ri­ent com­po­si­ti­on of die­ta­ry and medi­c­inal wild plants con­su­med during drought. Stu­dy of rural Fula­ni, nor­the­as­tern Nige­ria.
Int J Food Sci Nutr. 2000 May;51(3):195–208.
 diä­te­ti­sche und medi­zi­ni­sche Wild­pflan­zen die wäh­rend der Tro­cken­heit genutzt wer­den

Leber­schutz, Ent­gif­tung

Hamed HS, El-Say­ed YS.
Anti­oxi­dant activi­ties of Morin­ga olei­fe­ra leaf extract against pen­di­met­ha­lin-indu­ced oxi­da­ti­ve stress and geno­to­xi­ci­ty in Nile tila­pia, Oreo­chro­mis niloti­cus (L.).
Fish Phy­si­ol Bio­chem. 2018 Jul 7.
  leber­schüt­zen­de Wir­kung, anti­oxi­da­ti­ve und anti­gen­to­xi­sche Wir­kung gegen Pen­di­met­ha­lin-Toxi­zi­tät

Abdou KH et al.
Morin­ga olei­fe­ra Lea­ves Extract Pro­tects Tita­ni­um Dioxi­de Nano­par­ti­cles-Indu­ced Nephro­to­xi­ci­ty via Nrf2/HO-1 Signa­ling and Ame­lio­ra­ti­on of Oxi­da­ti­ve Stress.
Biol Trace Elem Res. 2018 May 4.
  Wir­kung bei einer Titan­di­oxid-Nano­par­ti­kel (TiO 2 -NPs) indu­zier­ten Nephro­to­xi­zi­tät

Sadek KM et al.
The che­mo-pro­phy­l­ac­tic effi­cacy of an etha­nol Morin­ga olei­fe­ra leaf extract against hepa­to­cel­lu­lar car­ci­no­ma in rats.
Pharm Biol. 2017 Dec;55(1):1458–1466.
  Leber­zell­kar­zi­nom

Iga­do OO et al.
Iso­la­ti­on of a novel com­po­und (MIMO2) from the metha­no­lic extract of Morin­ga olei­fe­ra lea­ves: pro­tec­tive effects against vana­di­um-indu­ced cyto­to­xi­ty.
Drug Chem Toxi­col. 2017 Sep 19:1–10.
  Schutz­wir­kung gegen Vana­di­um

Abd Eldaim MA et al.
An aqueous extract from Morin­ga olei­fe­ra lea­ves ame­lio­ra­tes hepa­to­to­xi­ci­ty in allo­xan-indu­ced dia­betic rats.
Bio­chem Cell Biol. 2017 Aug;95(4):524–530.
  leber­schüt­zen­de und anti­oxi­da­ti­ve Wir­kung bei Allo­xan-indu­zier­ter Dia­be­tes

Ste­phen Adey­e­mi O et al.
Morin­ga olei­fe­ra-based diet pro­tects against nickel-indu­ced hepa­to­to­xi­ci­ty in rats.
J Bio­med Res. 2017 Jul 13;31(4):350–357.
 nickel­in­du­zier­te Leber­schä­den

FJoung H et al.
Fer­men­ted Morin­ga olei­fe­ra Decrea­ses Hepa­tic Adi­po­si­ty and Ame­lio­ra­tes Glu­co­se Into­le­ran­ce in High-Fat Diet-Indu­ced Obese Mice.
J Med Food. 2017 May;20(5):439–447.
  /    (fer­men­tiert) Wirk­sam­keit gegen eine nicht­al­ko­ho­li­sche Fett­le­ber­er­kran­kun­gen, oxi­da­ti­ver Stress, Ent­zün­dun­gen,  Blut­zu­cker­kon­trol­le

Mal­lya R et al.
Morin­ga olei­fe­ra Leaf Extract: Bene­fi­ci­al Effects on Cad­mi­um Indu­ced Toxi­ci­ties.
A Review. J Clin Diagn Res. 2017 Apr;11(4):CE01-CE04.
  Ent­gif­tung von Cad­mi­um

Feus­tel S et al.
Pro­tec­tive Effects of Morin­ga olei­fe­ra on HBV Geno­ty­pes C and H Tran­si­ent­ly Trans­fec­ted Huh7 Cells.
J Immu­nol Res. 2017;2017:6063850.
  schüt­zen­der Effekt bei einer chro­ni­sche Hepa­ti­tis-B-Infek­ti­on

Kart­hi­vashan G et al.
Opti­mi­za­ti­on, for­mu­la­ti­on, and cha­rac­te­ri­za­ti­on of mul­tif­la­vo­no­ids-loa­ded fla­va­no­so­me by bulk or sequen­ti­al tech­ni­que.
Int J Nano­me­di­ci­ne. 2016 Jul 27;11:3417–34.
  Fla­vo­no­ide, anti­oxi­da­ti­ve Akti­vi­tät, Leber­schutz

Kerd­som­boon K et al.
Solub­le Morin­ga olei­fe­ra leaf extract redu­ces intracel­lu­lar cad­mi­um accu­mu­la­ti­on and oxi­da­ti­ve stress in Sac­charo­my­ces cere­vi­siae.
J Bio­sci Bio­eng. 2016 May;121(5):543–9.
  Ent­gif­tung von Cad­mi­um und anti­oxi­da­ti­ve Wir­kung

Top­po R et al.
Hepa­to­pro­tec­tive activi­ty of Morin­ga olei­fe­ra against cad­mi­um toxi­ci­ty in rats.
Vet World. 2015 Apr;8(4):537–40.
  Schutz gegen Cad­mi­um-indu­zier­te Hepa­to­to­xi­zi­tät, leber­schüt­zen­de Wir­kung

Sheikh A et al.
Pro­tec­tive effects of Morin­ga olei­fe­ra Lam. lea­ves against arse­nic-indu­ced toxi­ci­ty in mice.
Asi­an Pac J Trop Bio­med. 2014 May;4(Suppl 1).
 Ent­gif­tung von Arsen

Sadek KM.
Che­mo­the­ra­peutic effi­cacy of an etha­no­lic Morin­ga olei­fe­ra leaf extract against chro­mi­um-indu­ced testi­cu­lar toxi­ci­ty in rats.
Andro­lo­gia 2013 Nov 12.
  Ent­gif­tung von Chrom

Shari­fu­din SA et al.
The­ra­peutic poten­ti­al of Morin­ga olei­fe­ra extracts against acet­ami­no­phen-indu­ced hepa­to­to­xi­ci­ty in rats.
Pharm Biol. 2013 Mar;51(3):279–88.
  Schutz der Leber bei Über­do­sie­rung von Par­acet­amol (schmerz- und fie­ber­sen­ken­des Medi­ka­ment)

Ouédrao­go M et al.
Pro­tec­tive effect of Morin­ga olei­fe­ra lea­ves against genta­micin-indu­ced nephro­to­xi­ci­ty in rab­bits.
Exp Toxi­col Pathol. 2013 Mar;65(3):335–9.
  leber­schüt­zen­de und anti­oxi­da­ti­ve Wir­kung

Moyo B et al.
Poly­phe­n­o­lic con­tent and anti­oxi­dant pro­per­ties of Morin­ga olei­fe­ra leaf extracts and enzy­ma­tic activi­ty of liver from goats sup­ple­men­ted with Morin­ga olei­fe­ra leaves/sunflower seed cake.
Meat Sci. 2012 Aug;91(4):441–7.
  leber­schüt­zen­de und anti­oxi­da­ti­ve Wir­kung

Faku­ra­zi S, Shari­fu­din SA, Arul­sel­van P.
Morin­ga olei­fe­ra hydro­etha­no­lic extracts effec­tively alle­via­te acet­ami­no­phen-indu­ced hepa­to­to­xi­ci­ty in expe­ri­men­tal rats through their anti­oxi­dant natu­re.
Mole­cu­les 2012 Jul 10;17(7):8334–50.
  leber­schüt­zen­de und anti­oxi­da­ti­ve Wir­kung

Das N et al.
Morin­ga olei­fe­ra Lam. leaf extract pre­vents ear­ly liver inju­ry and res­to­res anti­oxi­dant sta­tus in mice fed with high-fat diet.
Indi­an J Exp Biol. 2012 Jun;50(6):404–12.
  leber­schüt­zen­de und anti­oxi­da­ti­ve Wir­kung

Sin­ha M et al.
Ame­lio­ra­ti­on of ioni­zing radia­ti­on indu­ced lipid per­oxi­da­ti­on in mou­se liver by Morin­ga olei­fe­ra Lam. leaf extract.
Indi­an J Exp Biol. 2012 Mar;50(3):209–15.
  leber­schüt­zen­de und anti­oxi­da­ti­ve Wir­kung

Sin­ha M et al.
Leaf extract of Morin­ga olei­fe­ra pre­vents ioni­zing radia­ti­on-indu­ced oxi­da­ti­ve stress in mice.
J Med Food 2011 Oct;14(10):1167–72.
  leber­schüt­zen­de und anti­oxi­da­ti­ve Wir­kung

Uma N Jr, Faku­ra­zi S, Hai­rus­zah I.
Morin­ga olei­fe­ra Enhan­ces Liver Anti­oxi­dant Sta­tus via Ele­va­ti­on of Anti­oxi­dant Enzy­mes Activi­ty and Coun­ter­acts Par­acet­amol-indu­ced Hepa­to­to­xi­ci­ty.
Malays J Nutr. 2010 Aug;16(2):293–307.
  leber­schüt­zen­de und anti­oxi­da­ti­ve Wir­kung

Sree­la­tha S, Pad­ma PR.
Pro­tec­tive mecha­nisms of Morin­ga olei­fe­ra against CCl(4)-induced oxi­da­ti­ve stress in pre­ci­si­on-cut liver sli­ces.
Forsch Kom­ple­ment­med. 2010;17(4):189–94.
  leber­schüt­zen­de und anti­oxi­da­ti­ve Wir­kung

Faku­ra­zi S, Hai­rus­zah I, Nan­t­hi­ni U.
Morin­ga olei­fe­ra Lam pre­vents acet­ami­no­phen indu­ced liver inju­ry through res­to­ra­ti­on of glut­a­thio­ne level.
Food Chem Toxi­col. 2008 Aug;46(8):2611–5. Epub 2008 Apr 25.
  Schutz vor Leber­schä­den, Ent­gif­tung

Ver­ma R et al.
Ame­lio­ra­ti­ve effect of three medi­c­inal plants (P. fra­ter­nus, Ter­mi­ne­lia a., and Morin­ga olei­fe­ra) on arse­nic tri­oxi­de indu­ced alte­ra­ti­on of lipid per­oxi­da­ti­on and pro­te­in con­tents in chi­cken liver homo­gena­te: an in vitro stu­dy.
Acta Pol Pharm. 2007 Sep-Oct;64(5):417–21.
  Ent­if­tung, Leber, anti­oxi­da­ti­ve Wir­kung

Ashok Kumar N, Pari L.
Anti­oxi­dant action of Morin­ga olei­fe­ra Lam. (drum­stick) against anti­tu-ber­cu­lar drugs indu­ced lipid per­oxi­da­ti­on in rats.
J Med Food 2003 Fall;6(3):255–9.
  Leber, Lipid­per­oxi­da­ti­on, anti­oxi­da­ti­ve Wir­kung, Ent­gif­tung

Pari L, Kumar NA.
Hepa­to­pro­tec­tive activi­ty of Morin­ga olei­fe­ra on anti­tu­ber­cu­lar drug-indu­ced liver dama­ge in rats.
J Med Food. 2002 Fall;5(3):171–7.
  leber­schüt­zen­de Wir­kung

Ner­ven­be­ding­te Krank­hei­ten

Omo­to­so GO et al.
Morin­ga olei­fe­ra Ame­lio­ra­tes His­to­mor­pho­lo­gi­cal Chan­ges Asso­cia­ted with Cup­ri­zo­ne Neu­ro­to­xi­ci­ty in the Hip­po­cam­pal Cor­nu ammo­nis (CA) 3 Regi­on.
Niger J Phy­si­ol Sci. 2018 Jun 30;33(1):95–99.
   the­ra­peu­ti­sche For­mu­lie­rung zur Behand­lung von neu­ro­lo­gi­schen Defi­zi­ten wie sie bei  Mul­ti­ple Skle­ro­se (MS) auf­tre­ten

Omo­to­so GO et al.
Ame­lio­ra­ti­ve effects of Morin­ga on cup­ri­zo­ne-indu­ced memo­ry decli­ne in rat model of mul­ti­ple scle­ro­sis.
Anat Cell Biol. 2018 Jun;51(2):119–127. doi: 10.5115/acb.2018.51.2.119. Epub 2018 Jun 27.
  Mul­ti­ple Skle­ro­se, anti­oxi­da­ti­ven und neu­ro­pro­tek­ti­ven Eigen­schaf­ten, signi­fi­kan­te Umkehr der neu­ro­pa­tho­lo­gi­schen Defi­zi­te, die durch Cup­ri­zon indu­ziert wur­den

Nwi­du LL et al.
In Vitro Anti-Cho­li­nes­tera­se and Anti­oxi­dant Activi­ty of Extracts of Morin­ga olei­fe­ra Plants from Rivers Sta­te, Niger Del­ta, Nige­ria.
Medi­ci­nes (Basel). 2018 Jul 5;5(3).
  Reduk­ti­on von Cho­li­nes­tera­se (zur Behand­lung von Alz­hei­mer-Demenz wer­den Ace­tyl­cho­li­nes­tera­se-Hem­mer ein­ge­setzt ), anti­oxi­da­ti­ve Akti­vi­tät

Romeo L et al.
Morin­gin Indu­ces Neural Dif­fe­ren­tia­ti­on in the Stem Cell of the Human Peri­odon­tal Liga­ment.
Sci Rep. 2018 Jun 14;8(1):9153.
  Ein­satz von Mori­gin bei neu­ro­de­ge­ne­ra­ti­ve Erkran­kun­gen, Genex­pres­si­on durch Mori­gin, Sicher­heit der Anwen­dung

Oluris­he CO et al.
Sita­g­liptin-Morin­ga olei­fe­ra coad­mi­nis­tra­ti­on did not delay the pro­gres­si­on nor ame­lio­ra­ted func­tio­nal and mor­pho­lo­gi­cal ano­ma­li­es in allo­xan-indu­ced dia­betic nephro­pa­thy.
Indi­an J Phar­ma­col. 2017 Sep-Oct;49(5):366–373.
  dia­be­ti­sche Nephro­pa­thie

Maha­man YAR et al.
Morin­ga Olei­fe­ra.
lle­via­tes Homo­cystei­ne-Indu­ced Alzheimer’s Disea­se-Like Patho­lo­gy and Cogni­ti­ve Impairments, J Alz­hei­mers Dis. 2018;63(3):1141–1159.
  homo­cystein-indu­zier­te Alz­hei­mer­krank­heit

Gon­zá­lez-Tru­ja­no ME et al.
Beha­vio­ral and elec­tro­en­ce­pha­logra­phic eva­lua­ti­on of the anti­con­vul­si­ve activi­ty of Morin­ga olei­fe­ra leaf non-polar extracts and one meta­bo­li­te in PTZ-indu­ced sei­zu­res.
Phy­to­me­di­ci­ne. 2018 Jan 15;39:1–9. doi: 10.1016/j.phymed.2017.12.009. Epub 2017 Dec 8.
  anti­kon­vul­si­ve Wir­kung, Epi­lep­sie­the­ra­pie

Omo­to­so GO et al.
Morin­ga olei­fe­ra phy­to­che­mi­cals pro­tect the brain against expe­ri­men­tal nico­ti­ne-indu­ced neu­ro­be­ha­vio­ral dis­tur­ban­ces and cer­e­bel­lar dege­ne­ra­ti­on.
Patho­phy­sio­lo­gy. 2018 Jan 4. pii: S0928-4680(16)30072–4.
  Schutz vor Niko­tin-indu­zier­ten Stö­run­gen des Gehirns

Ekong MB et al.
Neu­ro­pro­tec­tive effect of Morin­ga olei­fe­ra leaf extract on alu­mi­ni­um-indu­ced tem­po­ral cor­ti­cal dege­ne­ra­ti­on.
Metab Brain Dis. 2017 Apr 11.
  ner­ven­schüt­zen­de Wir­kung gegen­über alu­mi­ni­um­in­du­zier­te kor­ti­ka­le Dege­ne­ra­ti­on

Iga­do OO, Olo­pa­de J O. A.
Review on the Pos­si­ble Neu­ro­pro­tec­tive Effects of Morin­ga Olei­fe­ra Leaf Extract.
Niger J Phy­si­ol Sci. 2017 Mar 6;31(2):183–187. Review. PubMed PMID: 28262857.
  ner­ven­schüt­zen­de Wir­kung

Iga­do OO, Olo­pa­de J O.
A Review on the Pos­si­ble Neu­ro­pro­tec­tive Effects of Morin­ga Olei­fe­ra Leaf Extract.
Niger J Phy­si­ol Sci. 2017 Mar 6;31(2):183–187.
  Über­blick über die Ver­wen­dung bei Erkran­kun­gen des Ner­ven­sys­tems

Gia­cop­po S et al.
The Isot­hio­cya­na­te Iso­la­ted from Morin­ga olei­fe­ra Shows Potent Anti-Inflamma­to­ry Activi­ty in the Tre­at­ment of Muri­ne Sub­acu­te Parkinson’s Disea­se.
Reju­ve­na­ti­on Res. 2017 Feb;20(1):50–63.
  neu­ro­pro­tek­ti­ve Wir­kung von Glu­co­morin­gin zur Behand­lung oder Prä­ven­ti­on der Par­kin­son-Krank­heit, ent­zün­dungs­hem­men­de Akti­vi­tät

Ema­mi SA, Saheb­kar A, Java­di B.
Par­esthe­sia: A Review of Its Defi­ni­ti­on, Etio­lo­gy and Tre­at­ments in View of the Tra­di­tio­nal Medi­ci­ne.
Curr Pharm Des. 2016;22(3):321–7. Review.
  /    tra­di­tio­nel­le Medi­zin gegen Par­äs­the­si­en (Fehl­funk­tio­nen der Ner­ven mit Krib­beln, „Amei­sen­lau­fen“, Pel­zig­keit, Pri­ckeln, Jucken, Schwel­lungs­ge­fühl und Käl­te- oder Wär­me­emp­fin­dung)

Suren­dra TV et al.
Pho­to­ca­ta­ly­tic and anti­bac­te­ri­al pro­per­ties of phy­to­syn­the­si­zed CeO2 NPs using Morin­ga olei­fe­ra peel extract.
J Pho­to­chem Pho­to­bi­ol B. 2016 Aug;161:122–8.
  neu­ro­pro­tek­ti­ve Wir­kung von Glu­co­morin­gin zur Behand­lung oder Prä­ven­ti­on der Par­kin­son-Krank­heit, ent­zün­dungs­hem­men­de Akti­vi­tät

Kaur G, Inval­ly M, Sanz­agi­ri R, But­tar HS.
Eva­lua­ti­on of the anti­de­pres­sant activi­ty of Morin­ga olei­fe­ra alo­ne and in com­bi­na­ti­on with flu­oxe­ti­ne.
J Ayur­ve­da Inte­gr Med. 2015 Oct-Dec;6(4):273–9.
  anti­de­pres­si­ve Wir­kung

Bin-Meferij MM, El-Kott AF.
The radio­pro­tec­tive effects of Morin­ga olei­fe­ra against mobi­le pho­ne elec­tro­ma­gne­tic radia­ti­on-indu­ced infer­ti­li­ty in rats.
Int J Clin Exp Med. 2015 Aug 15;8(8):12487–97. eCollec­tion 2015.
  Ver­hü­tung von nega­ti­ven Aus­wir­kun­gen elek­tro­ma­gne­ti­scher Strah­lung durch Mobil­te­le­fo­ne (EMR)

Galup­po M et al.
Anti­in­flamma­to­ry activi­ty of glu­co­morin­gin isot­hio­cya­na­te in a mou­se model of expe­ri­men­tal auto­im­mu­ne ence­pha­lo­mye­li­tis.
Fitoter­a­pia 2014 Jun;95:160–74.
  Wir­kung von Glu­co­morin­gin bei Mul­ti­pler Skle­ro­se

Hann­an MA et al.
Morin­ga olei­fe­ra with pro­mi­sing neu­ro­nal sur­vi­val and neu­ri­te out­growth pro­mo­ting poten­ti­als.
J Eth­no­phar­ma­col. 2014 Feb 27;152(1):142–50.
  Ner­ven­sys­tem

Sutal­ang­ka C et al.
Morin­ga olei­fe­ra miti­ga­tes memo­ry impairment and neu­ro­de­ge­ne­ra­ti­on in ani­mal model of age-rela­ted demen­tia.
Oxid Med Cell Lon­gev. 2013;2013:695936.
  Alters­de­menz, oxi­da­ti­ver Stress

Bak­re AG, Ade­ri­big­be AO, Ade­mo­wo OG.
Stu­dies on neu­ro­phar­ma­co­lo­gi­cal pro­fi­le of etha­nol extract of Morin­ga olei­fe­ra lea­ves in mice.
J Eth­no­phar­ma­col. 2013 Oct 7;149(3):783–9.
  neu­ro­lo­gi­sche und krampf­lö­sen­de Eigen­schaf­ten

Muthees­wa­ran S et al.
Docu­men­ta­ti­on and quan­ti­ta­ti­ve ana­ly­sis of the local know­ledge on medi­c­inal plants among tra­di­tio­nal Sid­dha hea­lers in Virud­huna­gar dis­trict of Tamil Nadu, India.
J Eth­no­phar­ma­col. 2011 Sep 1;137(1):523–33.
  /    Ver­wen­dung als Aphro­di­sia­kum

Obu­le­su M, Rao DM.
Effect of plant extracts on Alzheimer’s disea­se: An insight into the­ra­peutic ave­nues.
J Neu­ro­sci Rural Pract. 2011 Jan;2(1):56–61.
  Alz­hei­mer, posi­ti­ver Ein­fluss auf die Hor­mo­ne Nor­ad­re­na­lin, Dopa­min und Sero­to­nin

Gang­u­ly R, Guha D.
Alte­ra­ti­on of brain monoa­mi­nes & EEG wave pat­tern in rat model of Alzheimer’s disea­se & pro­tec­tion by Morin­ga olei­fe­ra.
Indi­an J Med Res. 2008 Dec;128(6):744–51.
  Alz­hei­mer

Hameed-Un-Nisa L, Sheh­naz D, Fai­zi S (1998).
Mea­su­rement of sym­pa­tho­ly­tic activi­ty of Morin­ga olei­fe­ra, New Trends in Natu­ral Pro­ducts Chemistry.[6th Inter­na­tio­nal Sym­po­si­um on Natu­ral Pro­ducts Che­mi­stry] 269–277.
  ner­vö­se Beschwer­den

Anti­oxi­da­ti­ve Wir­kung

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Fish Phy­si­ol Bio­chem. 2018 Jul 7.

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Chin J Inte­gr Med. 2016 Dec 29.

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Plan­ta Med. 2015 Jul 10.

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Food Chem. 2015 Apr 1;172:423–7.

  Mats­hedi­so PG, Cukrow­ska E, Chi­mu­ka L.
Deve­lop­ment of pres­su­ri­sed hot water extrac­tion (PHWE) for essen­ti­al com­pounds from Morin­ga olei­fe­ra leaf extracts.
Food Chem. 2015 Apr 1;172:423–7.

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Direct and Indi­rect Anti­oxi­dant Activi­ty of Poly­phe­nol and Isot­hio­cya­na­te-Enri­ched Frac­tions from Morin­ga olei­fe­ra.
J Agric Food Chem. 2015 Jan 20

  Bade­jo AA, Dami­la­re A, Ojua­de TD.
Pro­ces­sing Effects on the Anti­oxi­dant Activi­ties of Beverage Blends Deve­lo­ped from Cyperus escu­len­tus, Hibis­cus sab­da­rif­fa, and Morin­ga olei­fe­ra Extracts.
Prev Nutr Food Sci. 2014 Sep;19(3):227–33.

  Bade­jo AA, Dami­la­re A, Ojua­de TD.
Pro­ces­sing Effects on the Anti­oxi­dant Activi­ties of Beverage Blends Deve­lo­ped from Cyperus escu­len­tus, Hibis­cus sab­da­rif­fa, and Morin­ga olei­fe­ra Extracts.
Prev Nutr Food Sci. 2014 Sep;19(3):227–33.

  Ali A, Akhtar N, Chowd­ha­ry F.
Enhan­ce­ment of human skin faci­al revi­ta­li­za­ti­on by morin­ga leaf extract cream.
Pos­te­py Der­ma­tol Aler­gol. 2014 May;31(2):71–6.

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Effect of Morin­ga olei­fe­ra on advan­ced gly­ca­ti­on end-pro­duct for­ma­ti­on and lipid meta­bo­lism gene expres­si­on in HepG2 cells.
Genet Mol Res. 2014 Jan 29;13(1):723–35.

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In vitro inhi­bi­to­ry effects of Morin­ga olei­fe­ra leaf extract and its major com­pon­ents on che­milu­mi­ne­scence and che­mot­ac­tic activi­ty of pha­go­cy­tes.
Nat Prod Com­mun. 2013 Nov;8(11):1559–61.

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Modu­la­to­ry effects of Morin­ga olei­fe­ra extracts against hydro­gen per­oxi­de-indu­ced cyto­to­xi­ci­ty and oxi­da­ti­ve dama­ge.
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Eva­lua­ti­on of the poly­phe­nol con­tent and anti­oxi­dant pro­per­ties of metha­nol extracts of the lea­ves, stem, and root barks of Morin­ga olei­fe­ra Lam.
J Med Food. 2010 Jun;13(3):710–6.

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Unter­su­chun­gen auf mög­li­che Neben­wir­kun­gen

Jacob J et al.
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   toxi­sche Wir­kung, NOA­EL-Wert (die höchs­te Dosis, bei der kei­ne schäd­li­che Wir­kung beob­ach­tet wur­de)

Stohs SJ, Kaats GR, Preuss HG.
Safe­ty and Effi­cacy of Bana­ba-Morin­ga olei­fe­ra-Green Cof­fee Bean Extracts and Vit­amin D3 in a Sustai­ned Release Weight Manage­ment Sup­ple­ment.
Phy­to­ther Res. 2016 Apr;30(4):681–8.
 Nah­rungs­er­gän­zung, Gewichts­re­duk­ti­on, Blut­wer­te, Sicher­heit und Wirk­sam­keit

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J Basic Clin Phy­si­ol Phar­ma­col. 2013;24(4):307–12.
  dosis­ab­hän­gi­ge Unter­su­chung von Neben­wir­kun­gen auf Leber und Nie­re

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J Eth­no­phar­ma­col.   toxi­ko­lo­gi­sche Bewer­tung eines wäss­ri­gen Extrakts

Asa­re GA et al.
Toxi­ci­ty poten­ti­als of the nut­raceuti­cal Morin­ga olei­fe­ra at supra-sup­ple­men­ta­ti­on levels.
J Eth­no­phar­ma­col. 2012 Jan 6;139(1):265–72.
  Toxi­zi­tät in Abhän­gig­keit der Sup­ple­men­tie­rungs­hö­he

Rolim LA et al.
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  Samen­pul­ver, Was­ser­be­hand­lung, Ver­zehr, Risi­ko für die mensch­li­che Gesund­heit in Abhän­gig­keit der Zufüh­rung

Com­mon­ly used Indi­an abor­ti­fa­ci­ent plants with spe­cial refe­rence to their tera­to­lo­gic effects in rats.
J Eth­no­phar­ma­col. 1992 Apr;36(2):147–54.
  abtrei­ben­de Wir­kung

Shuk­la S, Mathur R, Pra­kash AO, Bio­che­mi­cal and phy­sio­lo­gi­cal alte­ra­ti­ons in fema­le repro­duc­tive organs of cyclic rats trea­ted with aqueous extract of Morin­ga olei­fe­ra Lam, Acta Eur Fer­til. 1988 Jul-Aug;19(4):225–32.
  Ein­fluss auf den Geni­al­trakt

Sethi N, Nath D, Shuk­la SC, Dyal R
Abor­ti­fa­ci­ent activi­ty of a medi­c­inal plant “morin­ga olei­fe­ra” in rats.
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  /    abtrei­ben­de Wir­kung in Abhän­gig­keit von der täg­li­chen Dosis

Nath D, Sethi N, Singh RK, Jain AK
Com­mon­ly used Indi­an abor­ti­fa­ci­ent plants with spe­cial refe­rence to their tera­to­lo­gic effects in rats.
J Eth­no­phar­ma­col. 1992 Apr;36(2):147–54.
  /    abtrei­ben­de Wir­kung

Eth­no­bo­ta­nik, tra­di­tio­nel­le Medi­zin

Harpreet Bha­tia, Yash Pal Shar­ma, R. K. Man­has, Kewal Kumar
Tra­di­tio­nal­ly used wild edi­ble plants of dis­trict Udham­pur, J&K, India
J Eth­no­bi­ol Eth­no­med. 2018; 14: 73. Published online 2018 Nov 29. doi: 10.1186/s13002-018‑0272-1
Tra­di­tio­nell ver­wen­de­te wil­de ess­ba­re Pflan­zen des Bezirks Udham­pur, J & K, Indi­en

Andrews CM, Wyne K, Sven­son JE.
The Use of Tra­di­tio­nal and Com­ple­men­ta­ry Medi­ci­ne for Dia­be­tes in Rural Gua­te­ma­la.
J Health Care Poor Under­ser­ved. 2018;29(4):1188–1208.
Dia­be­tes, Ein­satz von Morin­ga in der tra­di­tio­nel­len Phy­to­me­di­zin im länd­li­chen Gua­te­ma­la

Suga­ha­ra S et al.
Uni­que anti­oxi­dant effects of her­bal leaf tea and stem tea from Morin­ga olei­fe­ra L. espe­ci­al­ly on super­oxi­de anion radi­cal gene­ra­ti­on sys­tems.
Bio­sci Bio­tech­nol Bio­chem. 2018 Jul 11:1–12.
anti­oxi­da­ti­ve Wir­kung des Tees (Blatt-Tee und Sti­el­chen-Tee) auf Super­oxid-Anion­ra­di­ka­le

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A stu­dy on food-medi­ci­ne con­ti­nu­um among the non-insti­tu­tio­nal­ly trai­ned sid­dha prac­titio­ners of Tiru­vallur dis­trict, Tamil Nadu, India.
J Eth­no­bi­ol Eth­no­med. 2018 Jun 28;14(1):45.
Ein­satz von Morin­ga in der Sid­dha Medi­zin bei Anämie

Kujaw­ska M et al.
Yer­ba Mate (Ilex para­gua­ri­en­sis) Beverage: Nut­raceuti­cal Ingre­dient or Con­veyor for the Inta­ke of Medi­c­inal Plants? Evi­dence from Para­gua­y­an Folk Medi­ci­ne.
Evid Based Com­ple­ment Alter­nat Med. 2018 Mar 14;2018:6849317.
 para­gu­ay­ische Volks­me­di­zin, Ein­nah­me von Morin­ga zusam­men mit Mate-Geträn­ken

Nur Zahi­rah Abd Rani, Khai­ra­na Husain, Endang Kumo­losasi
Morin­ga Genus: A Review of Phy­to­che­mi­stry and Phar­ma­co­lo­gy
Front Phar­ma­col. 2018; 9: 108. Published online 2018 Feb 16. doi: 10.3389/fphar.2018.00108
  /    /    umfas­sen­de Dar­stel­lung der Wir­kun­gen auf die Gesund­heit und bio­lo­gi­schen Akti­vi­tä­ten, Tra­di­tio­nel­le Medi­zin ver­schie­de­ner Pflan­zen­tei­le

Enda­le Gur­mu A et al.
Pat­tern of Tra­di­tio­nal Medi­ci­ne Uti­li­za­ti­on among HIV/AIDS Pati­ents on Anti­re­tro­vi­ral The­ra­py at a Uni­ver­si­ty Hos­pi­tal in Nor­thwes­tern Ethio­pia: A Cross-Sec­tio­nal Stu­dy.
Evid Based Com­ple­ment Alter­nat Med. 2017;2017:1724581.
 Tra­di­tio­nel­le Medi­zin bei HIV / AIDS-Pati­en­ten in einem Uni­ver­si­täts­kran­ken­haus

Lun­y­e­ra J et al.
Tra­di­tio­nal medi­ci­ne prac­tices among com­mu­ni­ty mem­bers with dia­be­tes mel­li­tus in Nort­hern Tan­za­nia: an eth­no­me­di­cal sur­vey­As­sess­ment For Risk fac­tors, epi­de­mio­lo­gy.
Know­ledge, and Atti­tu­des (CKD AFRi­KA) Stu­dy.
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 Tra­di­tio­nel­le Medi­zin, Behand­lung von Dia­be­tes

Leo­ne A et al.
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Int J Mol Sci. 2015 Jun 5;16(6):12791–835.
 Über­blick über die Kul­ti­vie­rung, Gene­tik, Eth­no­phar­ma­ko­lo­gie, Phy­to­che­mie und Phar­ma­ko­lo­gie

Ema­mi SA, Saheb­kar A, Java­di B.
Par­esthe­sia: A Review of Its Defi­ni­ti­on, Etio­lo­gy and Tre­at­ments in View of the Tra­di­tio­nal Medi­ci­ne.
Curr Pharm Des. 2016;22(3):321–7. Review.
 Tra­di­tio­nel­le Medi­zin gegen Par­äs­the­si­en (Fehl­funk­tio­nen der Ner­ven mit Krib­beln, „Amei­sen­lau­fen“, Pel­zig­keit, Pri­ckeln, Jucken, Schwel­lungs­ge­fühl und Käl­te- oder Wär­me­emp­fin­dung)

Gopal D, Nagen­dra H, Mant­hey M.
Vege­ta­ti­on in Bangalore’s Slums: Com­po­si­ti­on, Spe­ci­es Dis­tri­bu­ti­on, Den­si­ty, Diver­si­ty, and Histo­ry.
Envi­ron Mana­ge. 2015 Jun;55(6):1390–401.
 Vege­ta­ti­on in Slums von Ban­gla­do­re, Exis­tenz­si­che­rung, ernäh­rungs­be­zo­ge­ne, wirt­schaft­li­che, medi­zi­ni­sche und kul­tu­rel­le Nut­zung

Yabesh JE, Prab­hu S, Vija­y­a­ku­mar S.
An eth­no­bo­ta­ni­cal stu­dy of medi­c­inal plants used by tra­di­tio­nal hea­lers in silent val­ley of Kera­la, India.
J Eth­no­phar­ma­col. 2014 Jul 3;154(3):774–89.
 eth­no-bota­ni­sche Stu­die, tra­di­tio­nel­les Wis­sens über Arznei­pflan­zen

Siva­san­ka­ri B, Anandha­raj M, Guna­se­ka­ran P.
An eth­no­bo­ta­ni­cal stu­dy of indi­ge­nous know­ledge on medi­c­inal plants used by the vil­la­ge peop­les of Thop­pam­pat­ti, Din­di­gul dis­trict, Tamil­na­du, India.
J Eth­no­phar­ma­col. 2014 Apr 28;153(2):408–23.
 eth­no­bo­ta­ni­sches und eth­no­phar­ma­ko­lo­gi­sches Wis­sen, Tra­di­tio­nel­le Medi­zin

Popoo­la JO, Obem­be OO.
Local know­ledge, use pat­tern and geo­gra­phi­cal dis­tri­bu­ti­on of Morin­ga olei­fe­ra Lam. (Moring­aceae) in Nige­ria.
J Eth­no­phar­ma­col. 2013 Nov 25;150(2):682–91.
  eth­no-bota­ni­scher Nut­zungs­wert und Ver­wen­dung

Ezalde­en EA, Fahal AH, Osman A.
Myce­to­ma her­bal tre­at­ment: the Myce­to­ma Rese­arch Cent­re, Sudan expe­ri­ence.
PLoS Negl Trop Dis. 2013 Aug 22;7(8):e2400.
 Tra­di­tio­nel­le Medi­zin, Behand­lung von Myze­tom (durch Pil­ze ver­ur­sach­te chro­nisch-gra­nu­lo­ma­tö­se Infek­ti­on der Haut, Madu­ra­fuß)

Abe R, Ohta­ni K.
An eth­no­bo­ta­ni­cal stu­dy of medi­c­inal plants and tra­di­tio­nal the­ra­pies on Batan Island, the Phil­ip­pi­nes.
J Eth­no­phar­ma­col. 2013 Jan 30;145(2):554–65.
 eth­no­bo­ta­ni­sche Stu­die, tra­di­tio­nel­le Pflan­zen­heil­mit­tel

Mathieu G, Meis­sa D.
Tra­di­tio­nal leafy vege­ta­bles in Sene­gal: diver­si­ty and medi­c­inal uses.
Afr J Tra­dit Com­ple­ment Altern Med. 2007 Jun 10;4(4):469–75.
 Ver­zehr der Blät­ter als Blatt­ge­mü­se und medi­zi­ni­sche Ver­wen­dung

Lockett CT, Cal­vert CC, Gri­vet­ti LE.
Ener­gy and micro­nut­ri­ent com­po­si­ti­on of die­ta­ry and medi­c­inal wild plants con­su­med during drought. Stu­dy of rural Fula­ni, nor­the­as­tern Nige­ria.
Int J Food Sci Nutr. 2000 May;51(3):195–208.
 diä­te­ti­sche und medi­zi­ni­sche Wild­pflan­zen die wäh­rend der Tro­cken­heit genutzt wer­den

Sons­ti­ges

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Effects of Morin­ga olei­fe­ra Lam Extract (MOLE) in the heat shock pro­te­in 70 expres­si­on and germ cell apo­pto­sis on expe­ri­ment­al­ly indu­ced cryptor­chid tes­tes of rats.
Gene. 2018 Dec 6. pii: S0378-1119(18)31242–3. doi: 10.1016/j.gene.2018.11.091. [Epub ahead of print]   Redu­zie­rung von oxi­da­ti­vem Stress bei Hoden­hoch­stand (Kryptor­chis­mus), Abwehr männ­li­che Unfrucht­bar­keit

Elabd EMY, Mor­sy SM, Elmalt HA.
Inves­ti­ga­ting of Morin­ga Olei­fe­ra Role on Gut Micro­bio­ta Com­po­si­ti­on and Inflamma­ti­on Asso­cia­ted with Obe­si­ty Fol­lo­wing High Fat Diet Fee­ding.
Open Access Maced J Med Sci. 2018 Aug 19;6(8):1359–1364.
   Regu­lie­rung der Gewichts­zu­nah­me bei Adi­po­si­tas und Ent­zün­dun­gen (Inter­leu­kin 6) durch die Modu­la­ti­on von Darm­bak­te­ri­en

Hus­sain M et al.
Seed ger­mi­na­ti­on and bio­che­mi­cal pro­fi­le of Citrus reti­cu­la­ta (Kin­now) expo­sed to green syn­the­sis­ed sil­ver nano­par­ti­cles.
IET Nano­bio­tech­nol. 2018 Aug;12(5):688–693.
   Blät­ter, Reduk­ti­ons- und Sta­bi­li­sie­rungs­mit­tel für die Bio­syn­the­se von Sil­ber-Nano­par­ti­keln

Wern­ke G et al.
Mathe­ma­ti­cal model­ling app­lied to the rate-limi­ting mass trans­fer step deter­mi­na­ti­on of a her­bici­de bio­sorp­ti­on onto fixed-bed columns.
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  Umwelt

Dixit K, Kamath DV, All­uri KV, Davis BA.
Effi­cacy of a novel her­bal for­mu­la­ti­on for weight loss demons­tra­ted in a 16-week ran­do­mi­zed, dou­ble-blind, pla­ce­bo-con­trol­led cli­ni­cal tri­al with healt­hy over­weight adults.
Dia­be­tes Obes Metab. 2018 Jun 19.
  Reduk­ti­on von Über­ge­wicht durch eine Kom­bi­na­ti­on von Kräu­ter­ex­trak­ten (Morin­ga olei­fe­ra, urra­ya koein­gii, Cur­cu­ma lon­ga)

Abdou KH et al.
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Biol Trace Elem Res. 2018 May 4.
  Wir­kung bei einer Titan­di­oxid-Nano­par­ti­kel (TiO 2 -NPs) indu­zier­ten Nephro­to­xi­zi­tät

Kou X et al.
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  Vor­beu­gung und Behand­lung von chro­ni­schen Krank­hei­ten — ein­schließ­lich ent­zünd­li­cher Erkran­kun­gen, neu­ro­dys­funk­tio­na­ler Erkran­kun­gen, Dia­be­tes und Krebs

Zhang J et al.
A near-infra­red reflec­tan­ce spec­tro­sco­pic method for the direct ana­ly­sis of several fod­der-rela­ted che­mi­cal com­pon­ents in drum­stick (Morin­ga olei­fe­ra Lam.) lea­ves.
Bio­sci Bio­tech­nol Bio­chem. 2018 May;82(5):768–774.
  Ana­ly­se

Rébufa C, Pany I, Bom­bar­da I.
NIR spec­tro­sco­py for the qua­li­ty con­trol of Morin­ga olei­fe­ra (Lam.) leaf powders: Pre­dic­tion of mine­rals, pro­te­in and mois­tu­re con­tents.
Food Chem. 2018 Sep 30;261:311–321. doi: 10.1016/j.foodchem.2018.04.066. Epub 2018 Apr 19.
 Ana­ly­se

López M et al.
Effects of Morin­ga olei­fe­ra leaf powder on meta­bo­lic syn­dro­me indu­ced in male Wistar rats: a preli­mi­na­ry stu­dy.
J Int Med Res. 2018 Jan 1:300060518781726.
  prä­ven­ti­ve Wir­kung auf das meta­bo­li­sche Syn­drom (Kom­bi­na­ti­on der Risi­ko­fak­to­ren abdo­mi­nel­le Fett­lei­big­keit, Blut­hoch­druck
Fett­stoff­wech­sel­stö­rung mit Hyper­t­ri­gly­ze­ri­dä­mie und ernied­rig­tem HDL-Cho­le­ste­rin und Insu­lin­re­sis­tenz bzw. gestör­te Glu­ko­se­to­le­ranz)

Bala­mu­rugan S et al.
Tradi­tio­nal plants used for the tre­at­ment of gynae­co­lo­gi­cal dis­or­ders in Vedar­anyam tal­uk, South India — An eth­no­me­di­c­inal sur­vey.
J Tra­dit Com­ple­ment Med. 2017 Jul 4;8(2):308–323. doi: 10.1016/j.jtcme.2017.06.009. eCollec­tion 2018 Apr.
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Abdel-Latif M et al.
Influ­ence of Morin­ga olei­fe­ra extract, vit­amin C, and sodi­um bicar­bo­na­te on heat stress-indu­ced HSP70 expres­si­on and cel­lu­lar immu­ne respon­se in rab­bits.
Cell Stress Cha­pe­ro­nes. 2018 May 4. doi: 10.1007/s12192-018‑0906-1.
  Wir­kung bei Hit­zes­tress

Aleg­be­leye OO.
How Func­tio­nal Is Morin­ga olei­fe­ra? A Review of Its Nut­ri­ti­ve, Medi­c­inal, and Socio­eco­no­mic Poten­ti­al.
Food Nutr Bull. 2018 Mar;39(1):149–170. doi: 10.1177/0379572117749814. Epub 2017 Dec 28.
  the­ra­peu­ti­sches Poten­ti­al der Pflan­ze, Ana­ly­se

Isho­la I et al..
Poten­ti­al of Morin­ga olei­fe­ra in the Tre­at­ment of Benign Pro­sta­te Hyper­pla­sia: Role of Anti­oxi­dant Defence Sys­tems.
Med Princ Pract. 2017 Dec 17.
  schüt­zen­de Wir­kung gegen benig­ne Pro­sta­ta­hy­per­pla­sie (gut­ar­ti­ge Ver­grö­ße­rung der Pro­sta­ta) und anti­oxi­da­ti­ve Effek­te

Ver­ga­ra-Jime­nez M, Alma­tra­fi MM, Fer­nan­dez ML.
Bioac­tive Com­pon­ents in Morin­ga Olei­fe­ra Lea­ves Pro­tect against Chro­nic Disea­se.
Anti­oxi­d­ants (Basel). 2017 Nov 16;6(4).
  /    Schutz vor chro­ni­schen Zivi­li­sa­ti­ons­krank­hei­ten

El-Des­o­ky NI et al.
Phy­sio­lo­gi­cal respon­se and semen qua­li­ty of rab­bit bucks sup­ple­men­ted with Morin­ga lea­ves etha­no­lic extract during sum­mer sea­son.
Ani­mal. 2017 Sep;11(9):1549–1557.
  Ein­fluss auf die Sper­mi­en­qua­li­tät

Hani NM et al.
Cha­rac­te­ri­sa­ti­on of elec­tros­pun gela­ti­ne nano­fi­b­res encap­su­la­ted with Morin­ga olei­fe­ra bioac­tive extract.
J Sci Food Agric. 2017 Aug;97(10):3348–3358.
  Ver­kap­se­lung von Morin­ga-Extrak­ten

Jacob J, Gopi S, Divya C.
A Ran­do­mi­zed Sin­gle Dose Par­al­lel Stu­dy on Enhan­ce­ment of Nitric Oxi­de in Serum and Sali­va with the Use of Natu­ral Sports Sup­ple­ment in Healt­hy Adults.
J Diet Sup­pl. 2017 Jun 22:1–12.
  Leis­tungs­stei­ge­rung im Sport durch die bes­se­re Ver­füg­bar­keit von NO (Stick­stoff­mon­oxid)

Wang Y et al.
Sub­cri­ti­cal etha­nol extrac­tion of fla­vo­no­ids from Morin­ga olei­fe­ra leaf and eva­lua­ti­on of anti­oxi­dant activi­ty.
Food Chem. 2017 Mar 1;218:152–158.
  Extrak­ti­on von Morin­ga in Hin­blick auf die höchs­te Aus­beu­te der wert­ge­ben­den Inhalts­stof­fe

Vats S, Gupta T.
Eva­lua­ti­on of bioac­tive com­pounds and anti­oxi­dant poten­ti­al of hydro­etha­no­lic extract of Morin­ga olei­fe­ra Lam. from Rajasthan, India.
Phy­si­ol Mol Biol Plants. 2017 Jan;23(1):239–248.
  Ana­ly­se der Phy­to­che­mi­ka­li­en und des anti­oxi­da­ti­ven Poten­zi­als

Zheng Y et al.
Opti­mi­za­ti­on of for­mu­la­ti­on and pro­ces­sing of Morin­ga olei­fe­ra and spi­ru­li­na com­plex tablets.
Sau­di J Biol Sci. 2017 Jan;24(1):122–126.
Morin­ga in Kom­bi­na­ti­on mit Spi­ru­li­na als Tablet­ten­for­mu­lie­rung

Jes­utha­san AS, Ulu­wa­du­ge DI.
Eth­no­bo­ta­nics used in folk medi­ci­ne of Tamil cul­tu­re in Sri Lan­ka: a sci­en­ti­fic review.
J Inte­gr Med. 2017 Jan;15(1):19–26.
  /    Ein­satz in der Volks­me­di­zin

Bar­ba­gal­lo I et al.
Morin­ga olei­fe­ra Lam. impro­ves lipid meta­bo­lism during adi­po­ge­nic dif­fe­ren­tia­ti­on of human stem cells.
Eur Rev Med Phar­ma­col Sci. 2016 Dec;20(24):5223–5232.
  Über­ge­wicht, Fett­stoff­wech­sel, Ther­mo­ge­ne­se, anti­oxi­da­ti­ve Fähig­keit

Förs­ter N et al.
Cha­rac­te­ris­tic sin­gle glu­co­si­no­la­tes from Morin­ga olei­fe­ra: Induc­tion of deto­xi­fy­ing enzy­mes and lack of geno­to­xic activi­ty in various model sys­tems.
Food Funct. 2016 Nov 9;7(11):4660–4674.
  zyto­to­xi­schen Wir­kun­gen von Morin­ga-Glu­co­si­no­la­ten

Lamou B et al.
Anti­oxi­dant and Anti­fa­ti­gue Pro­per­ties of the Aqueous Extract of Morin­ga olei­fe­ra in Rats Sub­jec­ted to Forced Swim­ming Endu­ran­ce Test.
Oxid Med Cell Lon­gev. 2016;2016:3517824.
  Sport, Erhö­hung der Leis­tung, Ver­rin­ge­rung von Milch­säu­re im Gewe­be, anti­oxi­da­ti­ve Akti­vi­tät

Silam­ba­ra­san R, Ayya­nar M.
An eth­no­bo­ta­ni­cal stu­dy of medi­c­inal plants in Pala­ma­lai regi­on of Eas­tern Ghats, India.
J Eth­no­phar­ma­col. 2015 Aug 22;172:162–78.
 Eth­no­bo­ta­ni­sche Stu­die

Bin-Meferij MM, El-Kott AF
The radio­pro­tec­tive effects of Morin­ga olei­fe­ra against mobi­le pho­ne elec­tro­ma­gne­tic radia­ti­on-indu­ced infer­ti­li­ty in rats.
Int J Clin Exp Med. 2015 Aug 15;8(8):12487–97. eCollec­tion 2015.
  Ver­hü­tung von nega­ti­ven Aus­wir­kun­gen elek­tro­ma­gne­ti­scher Strah­lung durch Mobil­te­le­fo­ne (EMR)

Leo­ne A et al.
Nut­ri­tio­nal Cha­rac­te­ri­za­ti­on and Phe­n­o­lic Pro­filing of  Lea­ves Grown in Chad, Sahra­wi Refu­gee Camps, and Hai­ti.
Int J Mol Sci. 2015 Aug 12;16(8):18923–18937.
  Ana­ly­se

Stohs SJ, Hart­man MJ.
Review of the Safe­ty and Effi­cacy of Morin­ga olei­fe­ra.
Phy­to­ther Res. 2015 Jun;29(6):796–804.
  /    Effek­ti­vi­tät und Sicher­heit der Ein­nah­me

Oboh G et al.
Phe­n­o­lic Extract from Morin­ga olei­fe­ra Lea­ves Inhi­bits Key Enzy­mes Lin­ked to Erec­tile Dys­func­tion and Oxi­da­ti­ve Stress in Rats’ Peni­le Tis­su­es.
Bio­chem Res Int. 2015;2015:175950.
  erek­ti­le Dys­funk­ti­on (Erek­ti­ons­stö­rung) und ani­toxi­da­ti­ve Effek­te

Prabsattroo T et al.
Morin­ga olei­fe­ra extract enhan­ces sexu­al per­for­mance in stres­sed rats.
J Zhe­jiang Univ Sci B. 2015 Mar;16(3):179–90.
  männ­li­che sexu­el­le Dys­funk­ti­on, M. Olei­fe­ra als sein poten­zi­el­les Aphro­di­sia­kum

Kush­wa­ha S, Chaw­la P, Koch­har A.
Effect of sup­ple­men­ta­ti­on of drum­stick (Morin­ga olei­fe­ra) and ama­ranth (Ama­ran­thus tri­co­lor) lea­ves powder on anti­oxi­dant pro­fi­le and oxi­da­ti­ve sta­tus among post­me­no­pau­sal women.
J Food Sci Tech­nol. 2014 Nov;51(11):3464–9.
 Frau­en in der Meno­pau­se, oxi­da­ti­ver Stress, Nüch­tern­blut­zu­cker­spie­gel, Hämo­glo­bin­spie­gel

Singh D, Arya PV, Aggar­wal VP, Gupta RS.
Eva­lua­ti­on of Anti­oxi­dant and Hepa­to­pro­tec­tive Activi­ties of Morin­ga olei­fe­ra Lam. Lea­ves in Car­bon Tetra­ch­lo­ri­de-Into­xi­ca­ted Rats.
Anti­oxi­d­ants (Basel). 2014 Sep 2;3(3):569–91.
  anti­oxi­da­ti­ve und hepa­to­pro­tek­ti­ve Akti­vi­tä­ten

Kool­theat N et al.
An ethyl ace­ta­te frac­tion of Morin­ga olei­fe­ra Lam. inhi­bits human macro­pha­ge cyto­ki­ne pro­duc­tion indu­ced by ciga­ret­te smo­ke.
Nut­ri­ents. 2014 Feb 18;6(2):697–710.
  Schutz vor Lun­gen­schä­den durch Ziga­ret­ten­rauch

Asie­du-Gye­kye IJ et al.
Micro- and Macro­ele­men­tal Com­po­si­ti­on and Safe­ty Eva­lua­ti­on of the Nut­raceuti­cal Morin­ga olei­fe­ra Lea­ves, J Toxi­col. 2014;2014:786979.
 Sicher­heit bei der Ein­nah­me

Adey­e­mi OS, Ele­biyo TC.
Morin­ga olei­fe­ra Sup­ple­men­ted Diets Pre­ven­ted Nickel-Indu­ced Nephro­to­xi­ci­ty in Wistar Rats.
J Nutr Metab. 2014;2014:958621.
  Schutz der Nie­ren bei nickel­be­ding­ter Nephro­to­xi­zi­tät

Abdull Razis AF, Ibra­him MD, Kntay­ya SB.
Health bene­fits of Morin­ga olei­fe­ra.
Asi­an Pac J Can­cer Prev. 2014;15(20):8571–6.
  /    phy­to­me­di­zi­ni­sche Anwen­dung

Afo­la­bi AO, Ade­ro­ju HA, Alag­bonsi IA.
Effects of metha­no­lic extract of Morin­ga olei­fe­ra lea­ves on semen and bio­che­mi­cal para­me­ters in cryptor­chid rats.
Afr J Tra­dit Com­ple­ment Altern Med. 2013 Aug 12;10(5):230–5.
  Ver­bes­se­rung der Sper­mi­en­qua­li­tät

Sen­gupta K et al.
Effi­cacy and tole­ra­bi­li­ty of a novel her­bal for­mu­la­ti­on for weight manage­ment in obese sub­jects: a ran­do­mi­zed dou­ble blind pla­ce­bo con­trol­led cli­ni­cal stu­dy.
Lipids Health Dis. 2012; 11: 122.
  Reduk­ti­on von Über­ge­wicht

Mel­es­se A, Stein­gass H, Bog­uhn J.
 Rode­hutscord M, In vitro fer­men­ta­ti­on cha­rac­te­ris­tics and effec­tive uti­li­sable cru­de pro­te­in in lea­ves and green pods of Morin­ga sten­o­pe­ta­la and Morin­ga olei­fe­ra cul­ti­va­ted at low and mid-alti­tu­des.
J Anim Phy­si­ol Anim Nutr (Berl). 2013 Jun;97(3):537–46. doi: 10.1111/j.1439–0396.2012.01294.x. Epub 2012 Apr 12.
 Land­wirt­schaft, Pro­te­iner­gän­zung, Ver­dau­lich­keit

Singh V et al.
Cli­ni­cal eva­lua­ti­on of cis­sus qua­dran­gu­la­ris and morin­ga olei­fe­ra and osteo­se­al as osteo­ge­nic agents in man­di­bu­lar frac­tu­re.
Natl J Maxillo­fac Surg. 2011 Jul;2(2):132–6.
  Beschleu­ni­gung der Kno­chen­hei­lung, Anstieg des Serum-Cal­ci­um-Spie­gels, Schmerz­re­duk­ti­on

Krishn­ar­a­ju AV et al.
Safe­ty and toxi­co­lo­gi­cal eva­lua­ti­on of a novel anti-obe­si­ty for­mu­la­ti­on LI85008F in ani­mals.
Toxi­col Mech Methods. 2010 Feb;20(2):59–68.
  Über­ge­wicht, Sicher­heit in der Anwen­dung

Ndong M et al.
Pre­ven­ti­ve effects of Morin­ga olei­fe­ra (Lam) on hyper­li­pi­de­mia and hepa­to­cy­te ultrast­ruc­tu­ral chan­ges in iron defi­ci­ent rats.
Bio­sci Bio­tech­nol Bio­chem. 2007 Aug;71(8):1826–33. Epub 2007 Aug 7.
 vor­beu­gen­de Wir­kung bei Hyper­li­pi­dä­mie (erhöh­te Tri­gly­ce­rid- und Cho­le­ste­rin­wer­te) und Eisen­man­gel

Foidl N, Mak­kar H P S and Becker K.
The poten­ti­al of Morin­ga olei­fe­ra for agri­cul­tu­ral and indus­tri­al uses.
Mana­gua (Nica­ra­gua) 2001.
  /    ers­te umfas­sen­de wis­sen­schaft­li­che Unter­su­chung von Morin­ga olei­fe­ra

Tahi­lia­ni P, Kar A.
Role of Morin­ga olei­fe­ra leaf extract in the regu­la­ti­on of thy­ro­id hor­mo­ne sta­tus in adult male and fema­le rats.
Phar­ma­col Res. 2000 Mar;41(3):319–23.
  Regu­la­ti­on der Schild­drü­sen­hor­mo­ne

Studien zur Analyse, Extraktion und den chemischen Eigenschaften

Nobos­sé P, Fom­bang EN, Mbo­fung CMF.
Effects of age and extrac­tion sol­vent on phy­to­che­mi­cal con­tent and anti­oxi­dant activi­ty of fresh Morin­ga olei­fe­ra L. lea­ves.
Food Sci Nutr. 2018 Sep 14;6(8):2188–2198. doi: 10.1002/fsn3.783. eCollec­tion 2018 Nov.
/   anti­oxi­da­ti­ve Akti­vi­tät und phy­to­che­mi­scher Gehalt in Abhän­gig­keit vom Alter der Blät­ter und dem Extrak­ti­ons­lö­sungs­mit­tel (Metha­nol, Etha­nol und Was­ser) 

Sau­ce­do-Pom­pa S.
Morin­ga plants: Bioac­tive com­pounds and pro­mi­sing app­li­ca­ti­ons in food pro­ducts.
Food Res Int. 2018 Sep;111:438–450.
  Ana­ly­se, Beschrei­bung und Extrak­ti­on der bio­ak­ti­ven Ver­bin­dun­gen

Huang ML et al.
Pre­pa­ra­ti­on opti­mi­za­ti­on of extract of Morin­ga olei­fe­ra lea­ves and its immu­ne regu­la­ti­on effect on immu­no­sup­pres­sed mice.
Zhong­guo Zhong Yao Za Zhi. 2018 Jul;43(13):2697–2704.
   Gehalt an Gesamt­fla­vo­no­iden

Liao PC et al.
Iden­ti­fi­ca­ti­on of β-Sitos­te­rol as in Vitro Anti-Inflamma­to­ry Con­sti­tu­ent in Morin­ga olei­fe­ra.
J Agric Food Chem. 2018 Oct 3.
  Iden­ti­fi­zie­rung von β-Sitos­te­rol als in vitro ent­zün­dungs­hem­men­der Bestand­teil

Tilo­ke C, Anand K, Gen­gan RM, Chu­tur­goon AA.
Morin­ga olei­fe­ra and their phy­ton­a­no­par­ti­cles: Poten­ti­al anti­pro­li­fe­ra­ti­ve agents against can­cer.
Bio­med Phar­ma­co­ther. 2018 Sep 18;108:457–466.
   Syn­the­se von Phy­ton­a­no­par­ti­keln

Sau­ce­do-Pom­pa S.
Morin­ga plants: Bioac­tive com­pounds and pro­mi­sing app­li­ca­ti­ons in food pro­ducts.
Food Res Int. 2018 Sep;111:438–450.
  Ana­ly­se, Beschrei­bung und Extrak­ti­on der bio­ak­ti­ven Ver­bin­dun­gen, Anwen­dung in der Nah­rungs­mit­tel­in­dus­trie

Ye WJ et al.
Two new fla­vo­no­id gly­co­si­des from lea­ves of Morin­ga olei­fe­ra.
Zhong­guo Zhong Yao Za Zhi. 2018 Aug;43(15):3150–3156.
   Iso­lie­rung zwei neu­er Fla­vo­no­id­gly­co­si­de

Nazir S et al.
Enzy­ma­tic syn­the­sis of poly­phe­nol gly­co­si­des cata­ly­zed by trans­gly­co­sy­la­ti­on reac­tion of cyclo­d­ex­trin gluca­no­trans­fe­ra­se deri­ved from Tri­cho­der­ma viri­de.
J Food Sci Tech­nol. 2018 Aug;55(8):3026–3034.
  Tech­no­lo­gie zur Syn­the­se und Sta­bi­li­sie­rung von Poly­phe­n­ol­be­stand­tei­len, aus den Blät­tern von Morin­ga olei­fe­ra als Quel­le für bio­ak­ti­ve Ver­bin­dun­gen

Lin M et al.
Evo­lu­ti­on and expres­si­on pat­terns of the tre­ha­lo­se-6-phos­pha­te syn­t­ha­se gene fami­ly in drum­stick tree (Morin­ga olei­fe­ra Lam.).
Plan­ta. 2018 Jul 13.
  Ana­ly­se der Gene, Aus­wir­kun­gen auf die Gene unter Stress­be­hand­lun­gen,  wis­sen­schaft­li­che Klas­si­fi­ka­ti­on 

Huang ML et al.
Pre­pa­ra­ti­on opti­mi­za­ti­on of extract of Morin­ga olei­fe­ra lea­ves and its immu­ne regu­la­ti­on effect on immu­no­sup­pres­sed mice.
Zhong­guo Zhong Yao Za Zhi. 2018 Jul;43(13):2697–2704.
   Gehalt an Gesamt­fla­vo­no­iden

Banik S, Bis­was S, Kar­ma­kar S. et al.
Extrac­tion, puri­fi­ca­ti­on, and activi­ty of pro­tease from the lea­ves of Morin­ga olei­fe­ra.
F1000Res. 2018 Jul 30;7:1151.
   Iso­lie­rung von Pro­tea­sen für die Anwen­dung in der Bio­tech­no­lo­gie und phar­ma­zeu­ti­schen Indus­trie

Nwi­du LL et al.
In Vitro Anti-Cho­li­nes­tera­se and Anti­oxi­dant Activi­ty of Extracts of Morin­ga olei­fe­ra Plants from Rivers Sta­te, Niger Del­ta, Nige­ria.
Medi­ci­nes (Basel). 2018 Jul 5;5(3).
  Gesamt­phe­nol- und Fla­vo­no­id­ge­halt der ver­schie­de­nen Pflan­zen­teil

Masike K, Mada­la N.
Syn­chro­ni­zed Sur­vey Scan Approach Allows for Effi­ci­ent Discri­mi­na­ti­on of Iso­me­ric and Iso­ba­ric Com­pounds during LC-MS/MS Ana­ly­ses.
J Anal Methods Chem. 2018 Apr 1;2018:2046709.
  iso­me­re und iso­ba­re Ver­bin­dun­gen

Cho­dur GM et al.
Wild and domesti­ca­ted Morin­ga olei­fe­ra dif­fer in tas­te, glu­co­si­no­la­te com­po­si­ti­on, and anti­oxi­dant poten­ti­al, but not myro­si­na­se activi­ty or pro­te­in con­tent.
Sci Rep. 2018 May 22;8(1):7995.
  wild­wach­sen­de Pflan­zen im Ver­gleich zu Kul­tur­pflan­zen, Geschmack, anti­oxi­da­ti­ves Poten­ti­al

Fahey JW et al.
The Diver­si­ty of Chemo­pro­tec­tive Glu­co­si­no­la­tes in Moring­aceae (Morin­ga spp.).
Sci Rep. 2018 May 22;8(1):7994.
  Glu­co­si­no­la­te, chemo­pro­tek­ti­ve Wir­kung

Nur Zahi­rah Abd Rani, Khai­ra­na Husain, Endang Kumo­losasi
Morin­ga Genus: A Review of Phy­to­che­mi­stry and Phar­ma­co­lo­gy
Front Phar­ma­col. 2018; 9: 108. Published online 2018 Feb 16. doi: 10.3389/fphar.2018.00108
  /    /    umfas­sen­de Dar­stel­lung der Wir­kun­gen auf die Gesund­heit und bio­lo­gi­schen Akti­vi­tä­ten, Tra­di­tio­nel­le Medi­zin ver­schie­de­ner Pflan­zen­tei­le

Li FH et al.
Con­sti­tu­ents iso­la­ted from n-but­a­nol extract of lea­ves of Morin­ga olei­fe­ra.
Zhong­guo Zhong Yao Za Zhi. 2018 Jan;43(1):114–118.

Pai­kra BK, Dhon­ga­de HKJ, Gid­wa­ni B.
Phy­to­che­mi­stry and Phar­ma­co­lo­gy of Morin­ga olei­fe­ra Lam.
J Phar­ma­co­punc­tu­re. 2017 Sep;20(3):194–200.
  Ana­ly­se der phy­to­che­mi­schen Zusam­men­set­zung, die medi­zi­ni­schen Ver­wen­dun­gen und die phar­ma­ko­lo­gi­sche Akti­vi­tät

Olson ME et al
Leaf Pro­te­in and Mine­ral Con­cen­tra­ti­ons across the “Mira­cle Tree” Genus Morin­ga.
PLoS One. 2016 Jul 26;11(7):e0159782.
  Ana­ly­se, Pro­te­in- und Mine­ra­li­en­ge­halt ver­schie­de­ner Moringaar­ten

Qi N et al.
Simul­ta­neous ana­ly­sis of eight vit­amin E iso­mers in Morin­ga olei­fe­ra Lam. lea­ves by ultra per­for­mance con­ver­gence chro­ma­to­gra­phy.
Food Chem. 2016 Sep 15;207:157–61.
  E-Vit­ami­ne (α-, β-, γ- und δ-Toco­phe­rol und α-, β-, γ- und δ-Toco­tri­enol)

Rodríguez- et al.
Opti­mi­za­ti­on of micro­wa­ve-assisted extrac­tion and pres­su­ri­zed liquid extrac­tion of phe­n­o­lic com­pounds from Morin­ga olei­fe­ra lea­ves by mul­ti­re­spon­se sur­face metho­do­lo­gy.
Elec­tro­pho­re­sis. 2016 Jul;37(13):1938–46.
  Opti­mie­rung der Extrak­ti­on von Phe­n­ol­ver­bin­dun­gen

Rajen­dran P et al.
Kaemp­fe­rol, a poten­ti­al cyto­sta­tic and cure for inflamma­to­ry dis­or­ders.
Eur J Med Chem. 2014 Oct 30;86:103–12.
  Anti­tu­mor­wir­kun­gen von Kaemp­fe­rol, anti­oxi­da­ti­ve und ent­zün­dungs­hem­men­de Wir­kun­gen

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Com­pa­ri­son of Ele­ven Hea­vy Metals in Morin­ga Olei­fe­ra Lam. Pro­ducts.
Indi­an J Pharm Sci. 2015 Jul-Aug;77(4):485–90.
  Schwer­me­tall­be­las­tun­gen in Tee- und Blatt­pro­duk­ten

Gov­in­dar­a­jan Kart­hi­vashan, Pala­nisa­my Arul­sel­van, Abd. Razak Ali­mon, Intan Safi­nar Ismail, Shari­da Faku­ra­zi
Com­pe­ting Role of Bioac­tive Con­sti­tu­ents in Morin­ga olei­fe­ra Extract and Con­ven­tio­nal Nut­ri­ti­on Feed on the Per­for­mance of Cobb 500 Broi­lers
Bio­med Res Int. 2015; 2015: 970398. Published online 2015 Feb 22. doi: 10.1155/2015/970398
   Ein­fluss auf die anti­oxi­da­ti­ven Akti­vi­tät in Hüh­ner­fleisch

Tian Y et al.
High qua­li­ty refe­rence geno­me of drum­stick tree (Morin­ga olei­fe­ra Lam.), a poten­ti­al peren­ni­al crop.
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  Refe­renz­ge­nom zur Grund­la­gen­for­schung (bie­tet bes­se­re Ein­sich­ten in die Gen­re­gu­la­ti­on)

Kho­za BS et al.
The Effect of Tem­pe­ra­tu­re on Pres­su­ri­sed Hot Water Extrac­tion of Phar­ma­co­lo­gi­cal­ly Important Meta­bo­li­tes as Ana­ly­sed by UPLC-qTOF-MS and PCA.
Evid Based Com­ple­ment Alter­nat Med. 2014;2014:914759.
  Opti­mie­rung der Heiß­was­ser­ex­trak­ti­on unter Druck (PHWE), phar­ma­ko­lo­gi­sche Wirk­sam­keit der Extrak­te bei unter­schied­li­chen Tem­pe­ra­tu­ren

Mal­di­ni M et al.
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J Mass Spectrom. 2014 Sep;49(9):900–10.
  Bestim­mung der Phe­no­le und Glu­co­si­no­la­te

Jabe­en R et al.
Expres­si­on pro­filing of bioac­tive genes from Morin­ga olei­fe­ra.
Appl Bio­chem Bio­tech­nol. 2014 Sep;174(2):657–66.
  bio­ak­ti­ve Gene im Keim­lings­sta­di­um, Ent­wick­lung ver­bes­ser­ter trans­ge­ner Ras­sen

Mah­mud I, Chowd­hu­ry K, Borou­jer­di A.
Tis­sue-Spe­ci­fic Meta­bo­lic Pro­fi­le Stu­dy of Morin­ga olei­fe­ra L. Using Nuclear Magne­tic Reso­nan­ce Spec­tro­sco­py.
Plant Tis­sue Cult Bio­tech­nol. 2014 Jun;24(1):77–86.
  Ana­ly­se mit­tels Kern­spin­re­so­nanz­spek­tro­sko­pie, meta­bo­lo­mi­sche Ana­ly­se der che­mi­schen Reak­tio­nen

Padu­ma­non­da T, Johns J, Sang­ka­s­at A, Tiya­wor­anant S.
Deter­mi­na­ti­on of mela­to­nin con­tent in tra­di­tio­nal Thai her­bal reme­di­es used as slee­ping aids.
Daru. 2014 Jan 6;22(1):6.
  Mela­to­n­in­ge­halt, P. nig­rum-Extrakt

Tei­xei­ra EM, Car­val­ho MR, Neves VA, Sil­va MA, Aran­tes-Perei­ra L.
Che­mi­cal cha­rac­te­ris­tics and frac­tio­na­ti­on of pro­te­ins from Morin­ga olei­fe­ra Lam. lea­ves.
Food Chem. 2014 Mar 15;147:51–4.
  Pro­te­ine, Ver­dau­lich­keit

Vongs­ak B, Sithisarn P, Grits­ana­pan W.
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J Chro­ma­to­gr Sci. 2014 Aug;52(7):641–5.
  Bestim­mung der pri­mä­ren anti­oxi­da­ti­ven Ver­bin­dun­gen, Hil­fe bei Stan­dar­di­sie­rung von Blatt­ex­trak­ten und phar­ma­zeu­ti­schen Pro­duk­ten

Vongs­ak B, Sithisarn P, Grits­ana­pan W.
Simul­ta­neous Deter­mi­na­ti­on of Cryp­to-Chlo­ro­ge­nic Acid, Iso­quer­ce­tin, and Astra­ga­lin Con­tents in Morin­ga olei­fe­ra Leaf Extracts by TLC-Den­si­to­me­tric Method.
Evid Based Com­ple­ment Alter­nat Med. 2013;2013:917609.
  Iso­quer­ce­tin, Astra­ga­lin und Kryp­to-Chlo­ro­gen­säu­re, stand­ort­be­ding­te Unter­schie­de

Kart­hi­vashan G et al.
Iden­ti­fi­ca­ti­on of bioac­tive can­di­da­te com­pounds respon­si­ble for oxi­da­ti­ve chal­len­ge from hydro-etha­no­lic extract of Morin­ga olei­fe­ra lea­ves.
J Food Sci. 2013 Sep;78(9):C1368-75.
  Gehalt an Anti­oxi­dan­ti­en

Paka­de V et al.
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J Sep Sci. 2013 Feb;36(3):548–55.
 ] Extrak­ti­on und Rei­ni­gung der Fla­vo­no­ide Quer­ce­tin und Kaemp­fe­rol

Nae­em S, Ali M, Mah­mood A.
Opti­mi­za­ti­on of extrac­tion con­di­ti­ons for the extrac­tion of phe­n­o­lic com­pounds from Morin­ga olei­fe­ra lea­ves.
Pak J Pharm Sci. 2012 Jul;25(3):535–41.
  Opti­mie­rung der Extrak­ti­on phe­n­o­li­scher Ver­bin­dung, quan­ti­ta­ti­ve Unter­schie­de in Abhän­gig­keit der Trock­nungs­me­tho­de

Kashi­wa­da Y et al.
New α-glu­co­si­des of caf­feoyl qui­nic acid from the lea­ves of Morin­ga olei­fe­ra Lam.
J Nat Med. 2012 Jan;66(1):217–21.
  Caf­feoyl­chi­na­säu­re-α-glu­co­si­de

Sathya­va­thi R, Krish­na MB, Rao DN.
Bio­syn­the­sis of sil­ver nano­par­ti­cles using Morin­ga olei­fe­ra leaf extract and its app­li­ca­ti­on to opti­cal limi­ting.
J Nano­sci Nano­tech­nol. 2011 Mar;11(3):2031–5.
  Bio­syn­the­se von Sil­ber-Nano­par­ti­keln

Saha­kit­pichan P et al.
Unusu­al gly­co­si­des of pyr­ro­le alka­lo­id and 4′-hydroxyphenylethanamide from lea­ves of Morin­ga olei­fe­ra.
Phy­to­che­mi­stry. 2011 Jun;72(8):791–5.
  Bestim­mung unbe­kann­ter Gly­ko­si­de

Shih MC, Chang CM, Kang SM, Tsai ML.
Effect of dif­fe­rent parts (leaf, stem and stalk) and sea­sons (sum­mer and win­ter) on the che­mi­cal com­po­si­ti­ons and anti­oxi­dant activi­ty of Morin­ga olei­fe­ra.
Int J Mol Sci. 2011;12(9):6077–88.
  Blatt, Stän­gel und Stiel, che­mi­sche Zusam­men­set­zung und die anti­oxi­da­ti­ve Akti­vi­tät in Abhän­gig­keit der Jah­res­zeit (Som­mer, Win­ter)

Deva­raj VC, Krish­na BG, Vis­wa­natha GL.
Simul­ta­neous deter­mi­na­ti­on of quer­ce­tin, rutin and kaemp­fe­rol in the leaf extracts of Morin­ga olei­fe­ra Lam. and Raphi­nus sati­vus Linn. by liquid chro­ma­to­gra­phy-tan­dem mass spec­tro­me­try.
Zhong Xi Yi Jie He Xue Bao. 2011 Sep;9(9):1022–30.
  gleich­zei­ti­ge Bestim­mung von Quer­ce­tin, Rutin und Kaemp­fe­rol

Gowris­han­kar R et al.
Trace Ele­ment Stu­dies on Tino­s­po­ra cor­di­fo­lia (Menis­per­maceae), Oci­mum sanc­tum (Lami­aceae), Morin­ga olei­fe­ra (Moring­aceae), and Phyl­lan­thus nir­uri (Euphor­bi­aceae) Using PIXE.
Biol Trace Elem Res. 2010 Mar;133(3):357–63.
 “”] Spu­ren­ele­men­te

Prasu­na CP, Chak­rad­har RP, Rao JL, Gopal NO.
EPR and IR spec­tral inves­ti­ga­ti­ons on some leafy vege­ta­bles of Indi­an ori­gin.
Spec­tro­chim Acta A Mol Bio­mol Spec­trosc. 2009 Sep 15;74(1):140–7.
  EPR- und IR-Spek­tral­un­ter­su­chung

Doerr B et al.
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Ecol Food Nutr. 2009 May-Jun;48(3):199–211.
  Glu­co­si­no­lat-Gehalt und Geschmack in Abhän­gig­keit von der Anbaus­or­te

Guang Pu Xue Yu Guang Pu Fen Xi.
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2007 Feb;27(2):383–5. Chi­ne­se.
  Selen­ge­halt

Man­gu­ro LO, Lem­men P.
Phe­n­o­lics of Morin­ga olei­fe­ra lea­ves.
Nat Prod Res. 2007 Jan;21(1):56–68.
  Phe­n­ol­ge­halt und Iso­lie­rung der unter­schied­li­chen Phe­no­le

Lak­sh­mi­n­ara­ya­na R, Raju M, Krish­n­ak­an­tha TP, Bas­ka­ran V.
Deter­mi­na­ti­on of major caro­te­no­ids in a few Indi­an leafy vege­ta­bles by high-per­for­mance liquid chro­ma­to­gra­phy.
J Agric Food Chem. 2005 Apr 20;53(8):2838–42.
  Caro­ti­no­id­be­stim­mung

Fahey JW, Wade KL, Ste­phen­son KK, Chou FE.
Sepa­ra­ti­on and puri­fi­ca­ti­on of glu­co­si­no­la­tes from cru­de plant homo­gena­tes by high-speed coun­ter-cur­rent chro­ma­to­gra­phy.
Chro­ma­to­gr A. 2003 May 9;996(1–2):85–93.
  Tren­nung und Rei­ni­gung von Glu­co­si­no­la­ten

Sid­d­hu­ra­ju P, Becker K.
Anti­oxi­dant pro­per­ties of various sol­vent extracts of total phe­n­o­lic con­sti­tu­ents from three dif­fe­rent agro­cli­ma­tic orig­ins of drum­stick tree (Morin­ga olei­fe­ra Lam.) lea­ves.
J Agric Food Chem. 2003 Apr 9;51(8):2144–55.
  anti­oxi­d­an­ti­ve Wir­kung, geeig­ne­tes Lösungs­mit­tel für bio­ak­ti­ve Ver­bin­dun­gen

Ses­hadri S, Nam­bi­ar VS
Kan­je­ro (Dige­ra arven­sis) and drum­stick lea­ves (Morin­ga olei­fe­ra): nut­ri­ent pro­fi­le and poten­ti­al for human con­sump­ti­on.
World Rev Nutr Diet. 2003;91:41–59. Review.
 ”] Nähr­stoff­pro­fil und Poten­zi­al für den mensch­li­chen Ver­zehr

Ching LS, Moha­med S.
Alpha-toco­phe­rol con­tent in 62 edi­ble tro­pi­cal plants.
J Agric Food Chem. 2001 Jun;49(6):3101–5.
  Alpha-Toco­phe­rol-Gehalt

Mulu­vi GM et al.
Ampli­fied frag­ment length poly­mor­phism (AFLP) ana­ly­sis of gene­tic varia­ti­on in Morin­ga olei­fe­ra Lam.
Mol Ecol. 1999 Mar;8(3):463–70.
  gene­ti­sche Ana­ly­se unter­schied­li­cher Popu­la­tio­nen

Sena LP et al.
Ana­ly­sis of nut­ri­tio­nal com­pon­ents of eight fami­ne foods of the Repu­blic of Niger.
Plant Foods Hum Nutr. 1998;52(1):17–30.
  Nähr­stoff­ge­halt (Pro­te­ine, Fett­säu­ren, Caro­ti­no­ide, Vit­amin E, Mine­ra­li­en)

Pal SK et al.
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  phar­ma­ko­lo­gi­sche Eigen­schaf­ten

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Phy­to­che­mi­stry. 1995 Mar;38(4):957–63.
  Gly­co­si­de

Frei­ber­ger CE et al.
Nut­ri­ent con­tent of the edi­ble lea­ves of seven wild plants from Niger.
Plant Foods Hum Nutr. 1998;53(1):57–69.
  Nähr­stoff­ge­halt

Bar­mi­nas JT, Charles M, Emma­nu­el D.
Mine­ral com­po­si­ti­on of non-con­ven­tio­nal leafy vege­ta­bles.
Plant Foods Hum Nutr. 1998;53(1):29–36.
  Mine­ra­li­en­zu­sam­men­set­zung

Studien zur Ernährung, Lebensmittelherstellung und Bioverfügbarkeit

Ade­mi­luyi AO, Alad­e­se­lu OH, Oboh G, Boli­gon AA.
Dry­ing alters the phe­n­o­lic con­sti­tu­ents, anti­oxi­dant pro­per­ties, α-amy­la­se, and α-glu­co­si­da­se inhi­bi­to­ry pro­per­ties of Morin­ga (Morin­ga olei­fe­ra) leaf.
Food Sci Nutr. 2018 Oct 10;6(8):2123–2133. doi: 10.1002/fsn3.770. eCollec­tion 2018 Nov.
 /  Moring­a­b­lät­ter,  Wir­kung ver­schie­de­ner Trock­nungs­me­tho­den (Gefrier-, Luft-, Son­ne-, und Ofen­trock­nung) auf die anti­oxi­da­ti­ven Eigen­schaf­ten und die phe­n­o­li­schen Bestand­tei­le

Karim NU, Siddiq USAA, Razak MRM, Zai­nol MKM, Abdul­lah MI.
Effects of morin­ga lea­ves (Morin­ga olei­fe­ra) extrac­tion on qua­li­ty chan­ges and mela­no­sis of giant freshwa­ter prawn (Macro­bra­chi­um rosen­ber­gii) during chil­led sto­ra­ge.
Ital J Food Saf. 2018 Sep 26;7(3):6846. doi: 10.4081/ijfs.2018.6846. eCollec­tion 2018 Sep 26.
  Eig­nung zur bio­lo­gi­schen Kon­ser­vie­rung von Süß­was­ser­gar­ne­len (Macro­bra­chi­um rosen­ber­gii) 

Sau­ce­do-Pom­pa S.
Morin­ga plants: Bioac­tive com­pounds and pro­mi­sing app­li­ca­ti­ons in food pro­ducts.
Food Res Int. 2018 Sep;111:438–450.
  Ana­ly­se, Beschrei­bung und Extrak­ti­on der bio­ak­ti­ven Ver­bin­dun­gen, Anwen­dung in der Nah­rungs­mit­tel­in­dus­trie

Cui YM et al.
Effect of die­ta­ry sup­ple­men­ta­ti­on with Morin­ga Olei­fe­ra leaf on per­for­mance, meat qua­li­ty, and oxi­da­ti­ve sta­bi­li­ty of meat in broi­lers.
Poult Sci. 2018 Apr 11.
Füt­te­rung mit Morin­ga, Fleisch­qua­li­tät, oxi­da­ti­ve Sta­bi­li­tät des Flei­sches, Glut­a­thion­per­oxi­da­se-Akti­vi­tät

Kujaw­ska M et al.
Yer­ba Mate (Ilex para­gua­ri­en­sis) Beverage: Nut­raceuti­cal Ingre­dient or Con­veyor for the Inta­ke of Medi­c­inal Plants? Evi­dence from Para­gua­y­an Folk Medi­ci­ne.
Evid Based Com­ple­ment Alter­nat Med. 2018 Mar 14;2018:6849317.
para­gu­ay­ischen Volks­me­di­zin, Ein­nah­me von Morin­ga zusam­men mit Mate-Geträn­ken

Falo­wo AB et al.
Mul­ti-func­tio­nal app­li­ca­ti­on of Morin­ga olei­fe­ra Lam in nut­ri­ti­on and ani­mal food pro­ducts: A review.
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Morin­ga als Ernäh­rungs- und Fut­ter­mit­tel­res­sour­ce für die Ernäh­rung von Mensch und Tier

Ali MA et al.
Deve­lop­ment and Stan­dar­di­za­ti­on of Morin­ga olei­fe­ra Lea­ves as a Natu­ral Die­ta­ry Sup­ple­ment.
J Diet Sup­pl. 2018 Feb 22:1–20.
 Tablet­tie­rungs­ei­gen­schaf­ten, oral auf­lö­sen­de Tablet­te

Sai­ni RK, Siva­ne­san I, Keum YS, Phy­to­che­mi­cals of Morin­ga olei­fe­ra: a review of their nut­ri­tio­nal, the­ra­peutic and indus­tri­al signi­fi­can­ce, 3 Bio­tech. 2016 Dec;6(2):203.
  /    Phy­to­che­mi­ka­li­en, Über­prü­fung ihrer ernäh­rungs­phy­sio­lo­gi­schen, the­ra­peu­ti­schen und indus­tri­el­len Bedeu­tung

Mone­ra-Pen­du­ka TG et al.
Qua­li­ty and label­ing infor­ma­ti­on of Morin­ga olei­fe­ra pro­ducts mar­ke­ted for HIV-infec­ted peop­le in Zim­bab­we.
J Public Health Afr. 2016 Dec 31;7(2):84–88.
  /    Qua­li­täts­kon­trol­le von Morin­ga-Pro­duk­ten die für HIV-Infi­zier­te bestimmt sind

Lee KY, Yang HJ, Song KB.
App­li­ca­ti­on of a puf­fer fish skin gela­tin film con­tai­ning Morin­ga olei­fe­ra Lam. leaf extract to the packa­ging of Gou­da cheese.
J Food Sci Tech­nol. 2016 Nov;53(11):3876–3883.
  Lebens­mit­tel­her­stel­lung, anti­mi­kro­bi­el­le Akti­vi­tät, Ver­pa­ckung von Gou­da-Käse

Sajid M et al.
Deve­lop­ment of natu­ral sor­bent based micro-solid-pha­se extrac­tion for deter­mi­na­ti­on of phtha­la­te esters in milk sam­ples.
Anal Chim Acta. 2016 Jun 14;924:35–44.
  Lebens­mit­tel-Ana­ly­se, Bestim­mung von Phtha­la­tes­tern in Milch­pro­ben

Lamou B et al.
Anti­oxi­dant and Anti­fa­ti­gue Pro­per­ties of the Aqueous Extract of Morin­ga olei­fe­ra in Rats Sub­jec­ted to Forced Swim­ming Endu­ran­ce Test.
Oxid Med Cell Lon­gev. 2016;2016:3517824.
  Sport, Erhö­hung der Leis­tung, Ver­rin­ge­rung von Milch­säu­re im Gewe­be, anti­oxi­da­ti­ve Akti­vi­tät

Stohs SJ, Kaats GR, Preuss HG.
Safe­ty and Effi­cacy of Bana­ba-Morin­ga olei­fe­ra-Green Cof­fee Bean Extracts and Vit­amin D3 in a Sustai­ned Release Weight Manage­ment Sup­ple­ment.
Phy­to­ther Res. 2016 Apr;30(4):681–8.
  /   Nah­rungs­er­gän­zung, Gewichts­re­duk­ti­on, Blut­wer­te, Sicher­heit und Wirk­sam­keit

Oloy­ede OO et al.
Effects of fer­men­ta­ti­on time on the func­tio­nal and pas­ting pro­per­ties of def­at­ted Morin­ga olei­fe­ra seed flour.
Food Sci Nutr. 2015 Jul 30;4(1):89–95.
  Samen­mehl, Aus­wir­kun­gen der Fer­men­ta­ti­ons­zeit auf die auf die funk­tio­nel­len und kle­ben­den Eigen­schaf­ten

Devi­set­ti R, Sre­er­a­ma YN, Bhat­tacha­rya S.
Pro­ces­sing effects on bioac­tive com­pon­ents and func­tio­nal pro­per­ties of morin­ga lea­ves: deve­lop­ment of a snack and qua­li­ty eva­lua­ti­on.
J Food Sci Tech­nol. 2016 Jan;53(1):649–57.
  Lebens­mit­tel­her­stel­lung, Her­stel­lung und Qua­li­tät eines Fer­tigs­nacks

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Com­pa­ri­son of Ele­ven Hea­vy Metals in Morin­ga Olei­fe­ra Lam. Pro­ducts.
Indi­an J Pharm Sci. 2015 Jul-Aug;77(4):485–90.
Ana­ly­se, Schwer­me­tall­be­las­tun­gen in Tee- und Blatt­pro­duk­ten

Jor­dan E. Bis­anz, Megan K. Enos, Geor­ge Pray­God, Shan­non Seney, Jean M. Mack­laim et al.
Micro­bio­ta at Mul­ti­ple Body Sites during Pregnan­cy in a Rural Tan­za­ni­an Popu­la­ti­on and Effects of Morin­ga-Sup­ple­men­ted Pro­bio­tic Yogurt
Appl Envi­ron Micro­bi­ol. 2015 Aug; 81(15): 4965–4975. Pre­pu­blished online 2015 May 15. Published online 2015 Jul 7. doi: 10.1128/AEM.00780–15
 Kon­sum eines pro­bio­ti­schen Joghurts mit 4,3 Gramm getrock­ne­te Blät­ter wäh­rend der Schwan­ger­schaft, Zusam­men­set­zung der Mund-, Darm-, Vagi­nal- und Mut­ter­milchmi­kro­bio­ta, Gesund­heit der Neu­ge­bo­re­nen

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J Food Sci Tech­nol. 2014 Nov;51(11):3172–80.
  Lebens­mit­tel­in­dus­trie, Reduk­ti­on der Lipi­doxi­da­ti­on von Schwei­ne­fleisch­pas­tet­chen, Ein­fluss auf die sen­so­ri­schen Eigen­schaf­ten

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Cul­ti­va­ti­on, Gene­tic, Eth­no­phar­ma­co­lo­gy, Phy­to­che­mi­stry and Phar­ma­co­lo­gy of Morin­ga olei­fera­Lea­ves: An Over­view.
Int J Mol Sci. 2015 Jun 5;16(6):12791–835.
  /    Über­blick über die Kul­ti­vie­rung, Gene­tik, Eth­no­phar­ma­ko­lo­gie, Phy­to­che­mie und Phar­ma­ko­lo­gie von Morin­ga olei­fe­ra Blät­ter

Hek­mat S, Mor­gan K, Sol­ta­ni M, Gough R.
Sen­so­ry eva­lua­ti­on of local­ly-grown fruit purees and inu­lin fib­re on pro­bio­tic yogurt in Mwan­za, Tan­za­nia and the Micro­bi­al Ana­ly­sis of Pro­bio­tic Yogurt Forti­fied with Morin­ga olei­fe­ra.
J Health Popul Nutr. 2015 Mar;33(1):60–7.
  pro­bio­ti­scher Yoghurt, Sen­so­rik

Gopal D, Nagen­dra H, Mant­hey M.
Vege­ta­ti­on in Bangalore’s Slums: Com­po­si­ti­on, Spe­ci­es Dis­tri­bu­ti­on, Den­si­ty, Diver­si­ty, and Histo­ry.
Envi­ron Mana­ge. 2015 Jun;55(6):1390–401.
Vege­ta­ti­on in Slums von Ban­gla­do­re, Exis­tenz­si­che­rung, ernäh­rungs­be­zo­ge­ne, wirt­schaft­li­che, medi­zi­ni­sche und kul­tu­rel­le Nut­zung

Gov­in­dar­a­jan Kart­hi­vashan, Pala­nisa­my Arul­sel­van, Abd. Razak Ali­mon, Intan Safi­nar Ismail, Shari­da Faku­ra­zi
Com­pe­ting Role of Bioac­tive Con­sti­tu­ents in Morin­ga olei­fe­ra Extract and Con­ven­tio­nal Nut­ri­ti­on Feed on the Per­for­mance of Cobb 500 Broi­lers
Bio­med Res Int. 2015; 2015: 970398. Published online 2015 Feb 22. doi: 10.1155/2015/970398
   Ein­fluss als Fut­te­r­er­gän­zung auf die anti­oxi­da­ti­ve Akti­vi­tät in Hüh­ner­fleisch

Omo­bo­wa­le TO et al.
Effect of Chro­nic Admi­nis­tra­ti­on of Metha­nol Extract of Morin­ga Olei­fe­ra on Some Bio­che­mi­cal Indi­ces in Fema­le Wistar Rats.
Niger J Phy­si­ol Sci. 2014 Dec 29;29(2):107–11.
  Lebens­mit­tel­in­dus­trie, Sicher­heit von Morin­ga- Extrakt in Geträn­ken, Leber- und Nie­ren­to­xi­tät

Tei­xei­ra EM, Car­val­ho MR, Neves VA, Sil­va MA, Aran­tes-Perei­ra L.
Che­mi­cal cha­rac­te­ris­tics and frac­tio­na­ti­on of pro­te­ins from Morin­ga olei­fe­ra Lam. lea­ves.
Food Chem. 2014 Mar 15;147:51–4.
  Ana­ly­se, Pro­te­ine, Ver­dau­lich­keit

Van Tienen  et al.
Deve­lop­ment of a local­ly sustain­ab­le func­tio­nal food for peop­le living with HIV in Sub-Saha­ran Afri­ca: labo­ra­to­ry tes­ting and sen­so­ry eva­lua­ti­on.
Benef Micro­bes. 2011 Sep;2(3):193–8.
HIV, Ent­wick­lung eines pro­pio­ti­schen Joghurts mit Morin­ga

Pul­lak­han­dam R, Fail­la ML.
Mic­el­la­ri­za­ti­on and intes­ti­nal cell upt­ake of beta-caro­te­ne and lutein from drum­stick (Morin­ga olei­fe­ra) lea­ves.
J Med Food. 2007 Jun;10(2):252–7.
  Bio­ver­füg­bar­keit der Caro­ti­no­ide Beta-Caro­tin und Lutein, Ein­nah­me zusam­men mit einem Spei­se­öl, Vit­amin-A-Man­gel

Mathieu G, Meis­sa D.
Tra­di­tio­nal leafy vege­ta­bles in Sene­gal: diver­si­ty and medi­c­inal uses.
Afr J Tra­dit Com­ple­ment Altern Med. 2007 Jun 10;4(4):469–75.
Ver­zehr der Blät­ter als Blatt­ge­mü­se und medi­zi­ni­sche Ver­wen­dung

Ses­hadri S, Nam­bi­ar VS.
Kan­je­ro (Dige­ra arven­sis) and drum­stick lea­ves (Morin­ga olei­fe­ra): nut­ri­ent pro­fi­le and poten­ti­al for human con­sump­ti­on.
World Rev Nutr Diet. 2003;91:41–59. Review.
Nähr­stoff­pro­fil und Poten­zi­al für den mensch­li­chen Ver­zehr

Pan­ka­ja N, Pra­kash J.
Avai­la­bi­li­ty of cal­ci­um from kil­kee­rai (Ama­ran­thus tri­co­lor) and drum­stick (Morin­ga olei­fe­ra) greens in wean­ling rats.
Nah­rung. 1994;38(2):199–203.
  Ver­füg­bar­keit von Cal­ci­um

Giri­ja V, Sha­ra­da D, Push­pam­ma P.
Bio­avai­la­bi­li­ty of thia­mi­ne, ribo­fla­vin and nia­cin from com­mon­ly con­su­med green leafy vege­ta­bles in the rural are­as of Andhra Pra­desh in India.
Int J Vitam Nutr Res. 1982;52(1):9–13.
   Bio­ver­füg­bar­keit von Thia­min, Ribo­fla­vin und Nia­cin in Abhän­gig­keit von der Zube­rei­tung

Geer­va­ni P, Devi A.
Influ­ence of pro­te­in and fat on the uti­li­sa­ti­on of caro­te­ne from drum­stick (Morin­ga olei­fe­ra) lea­ves.
Indi­an J Med Res. 1981 Oct;74:548–53.
  Ein­fluss von Pro­te­in und Fett auf die Ver­wer­tung der Caro­ti­no­ide

Studien zum Einsatz in der Landwirtschaft und als Tierfutter

Muham­mad Sar­war, Muham­mad Far­rukh Saleem, Najeeb Ullah, Muham­mad Riz­wan Shafaqat Ali et al.
Exo­ge­nous­ly app­lied growth regu­la­tors pro­tect the cot­ton crop from heat-indu­ced inju­ry by modu­la­ting plant defen­se mecha­nism
Sci Rep. 2018; 8: 17086. Published online 2018 Nov 20. doi: 10.1038/s41598-018–35420-5
   Schutz vor erhöh­ten Tem­pe­ra­tu­ren in der Wachs­tums­pha­se, wär­me­be­ding­te Reduk­ti­on der Baum­woll­aus­beu­te, Zea­tin, Chlo­ro­phyll­ge­halt

Nobos­sé P, Fom­bang EN, Mbo­fung CMF.
Effects of age and extrac­tion sol­vent on phy­to­che­mi­cal con­tent and anti­oxi­dant activi­ty of fresh Morin­ga olei­fe­ra L. lea­ves.
Food Sci Nutr. 2018 Sep 14;6(8):2188–2198. doi: 10.1002/fsn3.783. eCollec­tion 2018 Nov.
/  anti­oxi­da­ti­ve Akti­vi­tät und phy­to­che­mi­scher Gehalt in Abhän­gig­keit vom Alter der Blät­ter und dem Extrak­ti­ons­lö­sungs­mit­tel (Metha­nol, Etha­nol und Was­ser) 

Chang Y, Liu H, Liu M, Liao X et al.,
The draft geno­mes of five agri­cul­tu­ral­ly important Afri­can orphan crops.
Giga­sci­ence. 2018 Dec 7. doi: 10.1093/gigascience/giy152. [Epub ahead of print]  Genom­for­schung, Ver­bes­se­rung der Kul­ti­vie­rung von Morin­ga 

Girid­har KS, Prab­hu TM, Singh KC, Nagab­hus­han V et al.
Nut­ri­tio­nal poten­tia­li­ties of some tree lea­ves based on poly­phe­n­ols and rumen in vitro gas pro­duc­tion.
Vet World. 2018 Nov;11(10):1479–1485. doi: 10.14202/vetworld.2018.1479–1485. Epub 2018 Oct 23.
 /  Eig­nung als Fut­ter­mit­tel für Wie­der­käu­er

Mbo­ka­ne EM, Moyo NAG.
Alte­ra­ti­ons of haema­to-bio­che­mi­cal para­me­ters pre and post-chal­len­ge with Aero­mo­nas hydro­phi­la and sur­vi­val of Oreo­chro­mis mos­sam­bi­cus fed Morin­ga olei­fe­ra-based diets.
Fish Shell­fish Immu­nol. 2018 Sep 6;83:213–222.
Ein­satz als Fisch­fut­ter und immun­sti­mu­lie­ren­den Eigen­schaf­ten

Jad­hav R, Anal AK.
Expe­ri­men­tal inves­ti­ga­ti­on on bio­che­mi­cal, micro­bi­al and sen­so­ry pro­per­ties of Nile tila­pia (Oreo­chro­mis niloti­cus) trea­ted with morin­ga (Morin­ga olei­fe­ra) lea­ves powder.
J Food Sci Tech­nol. 2018 Sep;55(9):3647–3656. doi: 10.1007/s13197-018‑3293-9. Epub 2018 Jun 22.
 Kon­ser­vie­rung von Nil Tila­pia ( ein Fisch der Art Oreo­chro­mis niloti­cus)

Bru­net­ti C et al.
Meta­bo­lic plasti­ci­ty in the hygro­phy­te Morin­ga olei­fe­ra expo­sed to water stress.
Tree Phy­si­ol. 2018 Aug 18.
  Anbau, wie sich die Blät­ter durch eine höhe­re Iso­pren-Bio­syn­the­se vor Was­ser­stress schüt­zen

Naze­er AA, Udha­y­a­ku­mar S, Mani S, Dha­na­pal M, Vijay­ku­mar SD.
Sur­face modi­fi­ca­ti­on of Fe2O3 and MgO nano­par­ti­cles with agro­was­tes for the tre­at­ment of chlo­ro­sis in Gly­ci­ne max.
Nano Con­verg. 2018 Aug 20;5(1):23.
   Extrakt aus Abfäl­len der Land­wirt­schaft zur Behand­lung von Chlo­ro­se ( ein durch Chlo­ro­phyll­man­gel beding­tes Krank­heits­sym­ptom von Land­pflan­zen)

Wang Y et al.
Effects of Wil­ting and Lac­to­ba­c­il­lus plant­ar­um Addi­ti­on on the Fer­men­ta­ti­on Qua­li­ty and Micro­bi­al Com­mu­ni­ty of Morin­ga olei­fe­ra Leaf Sila­ge.
Front Micro­bi­ol. 2018 Aug 6;9:1817.
  Blatt-Sila­ge (unge­wa­sche­ne oder ver­welk­te M. olei­fe­ra-Blät­ter) wur­de nach einer Fer­men­ta­ti­ons­zeit von 60 und 120 Tagen unter­sucht, Milch­säu­re­bak­te­ri­en

More­no-Ramí­rez YDR et al.
First Report of the Mist­le­toe Pho­ra­den­dron qua­dran­gu­la­re (Vis­caceae) on Morin­ga olei­fe­ra (Moring­aceae) in Mexi­co.
Plant Dis. 2018 Aug 8:PDIS03180413PDN.
  Land­wirt­schaft, Befall durch eine para­si­tä­re Mis­tel­art (Phor­den­dron spp., Vis­caceae)

Lin M et al.
Evo­lu­ti­on and expres­si­on pat­terns of the tre­ha­lo­se-6-phos­pha­te syn­t­ha­se gene fami­ly in drum­stick tree (Morin­ga olei­fe­ra Lam.).
Plan­ta. 2018 Jul 13.
  Ana­ly­se der Gene, Aus­wir­kun­gen auf die Gene unter Stress­be­hand­lun­gen,  wis­sen­schaft­li­che Klas­si­fi­ka­ti­on 

Man­sour AT et al.
Effects of die­ta­ry inclu­si­on of Morin­ga olei­fe­ra lea­ves on growth and some sys­temic and muco­sal immu­ne para­me­ters of seabream.
Fish Phy­si­ol Bio­chem. 2018 May 25.
 Fut­ter­mit­tel für Mee­res­bras­sen, Ein­fluss auf das Wachs­tum, die Fut­ter­ver­wer­tung und den Immun­sta­tus

Cho­dur GM et al.
Wild and domesti­ca­ted Morin­ga olei­fe­ra dif­fer in tas­te, glu­co­si­no­la­te com­po­si­ti­on, and anti­oxi­dant poten­ti­al, but not myro­si­na­se activi­ty or pro­te­in con­tent.
Sci Rep. 2018 May 22;8(1):7995.
     wild­wach­sen­de Pflan­zen im Ver­gleich zu Kul­tur­pflan­zen, Geschmack, anti­oxi­da­ti­ves Poten­ti­al

Cui YM et al.
Effect of die­ta­ry sup­ple­men­ta­ti­on with Morin­ga Olei­fe­ra leaf on per­for­mance, meat qua­li­ty, and oxi­da­ti­ve sta­bi­li­ty of meat in broi­lers.
Poult Sci. 2018 Apr 11.
Füt­te­rung mit Morin­ga, Fleisch­qua­li­tät, oxi­da­ti­ve Sta­bi­li­tät des Flei­sches, Glut­a­thion­per­oxi­da­se-Akti­vi­tät

Falo­wo AB et al.
Mul­ti-func­tio­nal app­li­ca­ti­on of Morin­ga olei­fe­ra Lam in nut­ri­ti­on and ani­mal food pro­ducts: A review.
Food Res Int. 2018 Apr;106:317–334.
Morin­ga als  Ernäh­rungs- und Fut­ter­mit­tel­res­sour­ce für die Ernäh­rung von Mensch und Tier

Chen B et al.
Woo­dy fora­ges effect the intes­ti­nal bac­te­ria diver­si­ty of gol­den pom­pa­no Tra­chi­no­tus ova­tus.
AMB Express. 2018 Feb 27;8(1):29.
Wir­kung auf die Darm­bak­te­ri­en­viel­falt des Fisches Gol­den Pom­pa­no

Kho­lif AE, Gou­da GA, Olafa­de­han OA, Abdo MM.
Effects of repla­ce­ment of Morin­ga olei­fe­ra for ber­seem clover in the diets of Nubi­an goats on feed uti­li­sa­ti­on, and milk yield, com­po­si­ti­on and fat­ty acid pro­fi­le.
Ani­mal. 2018 May;12(5):964–972.
Fut­ter­mit­tel für Zie­gen, Wir­kung auf die Milch­leis­tung und Milch­qua­li­tät, Fut­ter­ver­wer­tung

San­tos-Rical­de R, Gutiér­rez-Ruiz E, Nove­lo-Ucan W, Mar­ti­nez-Rome­ro P, Segu­ra-Cor­rea J. Effect of feed restric­tion on inta­ke of Morin­ga olei­fe­ra and Leu­cae­na leu­coce­pha­la and growth per­for­mance of rab­bits.
Trop Anim Health Prod. 2017 Dec;49(8):1685–1688.
 Fut­ter­mit­tel für Kanin­chen, Wachs­tums­leis­tung, mög­li­che Men­ge die dem nor­ma­len Fut­ter zuge­setzt wer­den kann

Khan S et al.
Growth pro­mo­ting poten­ti­al of fresh and stored Morin­ga olei­fe­ra leaf extracts in impro­ving seed­ling vigor, growth and pro­duc­tivi­ty of wheat crop.
Envi­ron Sci Pol­lut Res Int. 2017 Dec;24(35):27601–27612.
 Land­wirt­schaft, wachs­tums­för­dern­des Poten­zi­al auf Wei­zen, Wir­kung in Abhän­gig­keit von der Lager­zeit

Kam­p­em­ba FM, Tshi­b­an­gu IM, Nyon­gom­be NU, Hor­nick JL.
Pala­ta­bi­li­ty of nine fod­ders spe­ci­es used by gui­nea pigs (Cavia porcel­lus).
Trop Anim Health Prod. 2017 Dec;49(8):1733–1739.
 Fut­ter­mit­tel für Meer­schwein­chen, Schmack­haf­tig­keit

Cas­tro-López C et al.
Impact of extrac­tion tech­ni­ques on anti­oxi­dant capa­ci­ties and phy­to­che­mi­cal com­po­si­ti­on of poly­phe­nol-rich extracts.
Food Chem. 2017 Dec 15;237:1139–1148.
 Fut­ter­mit­tel für Kanin­chen, Wir­kung bei Fut­ter­mit­tel­be­schrän­kung auf das Gewicht und die Wachs­tums­leis­tung

Zhang T et al.
Effects of fee­ding a Morin­ga olei­fe­ra rachis and twig pre­pa­ra­ti­on to dai­ry cows on their milk pro­duc­tion and fat­ty acid com­po­si­ti­on, and plas­ma anti­oxi­d­ants.
J Sci Food Agric. 2018 Jan;98(2):661–666.
 Füt­te­rung von Milch­kü­hen mit Morin­ga-Spin­deln und -Zwei­gen, Her­stel­lung von qua­li­ta­tiv hoch­wer­ti­ge­rer und gesün­de­rer Milch

Zeng B et al.
Effects of Morin­ga olei­fe­ra sila­ge on milk yield, nut­ri­ent diges­ti­bi­li­ty and serum bio­che­mi­cal inde­xes of lac­ta­ting dai­ry cows.
J Anim Phy­si­ol Anim Nutr (Berl). 2018 Feb;102(1):75–81.
 Fut­ter­mit­tel für Milch­kü­he, Ver­dau­lich­keit, Aus­wir­kung auf die Milch­leis­tung und Milch­zu­sam­men­set­zung

Far­han Mah­mood Shah, Muham­mad Razaq, Abid Ali, Peng Han, Juli­an Chen
Com­pa­ra­ti­ve role of neem seed extract, morin­ga leaf extract and imi­da­clo­prid in the manage­ment of wheat aphids in rela­ti­on to yield los­ses in Paki­stan
PLoS One. 2017; 12(9): e0184639. Published online 2017 Sep 27. doi: 10.1371/journal.pone.0184639
   Neem­sa­men­ex­trakt, Moring­a­b­latt­ex­trakt und Imi­da­clo­prid zur Reduk­ti­on von Wei­zen­blatt­läu­sen und Ertags­ver­lus­ten

Khan I et al.
Effect of Morin­ga olei­fe­ra leaf powder sup­ple­men­ta­ti­on on growth per­for­mance and intes­ti­nal mor­pho­lo­gy in broi­ler chi­ckens.
J Anim Phy­si­ol Anim Nutr (Berl). 2017 Jun;101 Sup­pl 1:114–121.
  Fut­ter­mit­tel für Mast­hähn­chen, Ein­fluss auf das Kör­per­ge­wicht, die Län­ge und den Darm

Ali M. Tab­bo, Zak­ou Ama­dou
Asses­sing new­ly intro­du­ced cli­ma­te chan­ge adap­tati­on stra­te­gy packa­ges among rural hou­se­holds: Evi­dence from Kaou local government area, Tahoua Sta­te, Niger Repu­blic
Jam­ba. 2017; 9(1): 383. Published online 2017 Apr 25. doi: 10.4102/jamba.v9i1.383
 Stra­te­gi­en zur Anpas­sung an den Kli­ma­wan­del, Pro­duk­ti­on von Blatt­ge­mü­se

Sun J et al.
Cha­rac­te­ri­za­ti­on of fae­cal micro­bi­al com­mu­nities of dai­ry cows fed diets con­tai­ning ensi­led Morin­ga olei­fe­ra fod­der.
Sci Rep. 2017 Jan 30;7:41403.
 Fut­ter­mit­tel für Milch­kü­he, Ver­dau­lich­keit, Milch­ei­gen­schaf­ten und -zusam­men­set­zung

Cai Y et al.
Faci­le Syn­the­sis of Three-Dimen­sio­nal Hete­roatom-Doped and Hier­archi­cal Egg-Box-Like Car­bons Deri­ved from Morin­ga olei­fe­ra Bran­ches for High-Per­for­mance Super­ca­pa­ci­tors.
ACS Appl Mater Inter­faces. 2016 Dec 7;8(48):33060–33071. Epub 2016 Nov 22.
 Moringa­zwei­ge, Nut­zung des Bio­mas­se­ab­falls zur Her­stel­lung von Koh­len­stoffnano­ma­te­ria­li­en

Babi­ker EE et al.
Effect of par­ti­al repla­ce­ment of alfal­fa hay with Morin­ga spe­ci­es lea­ves on milk yield and com­po­si­ti­on of Naj­di ewes.
Trop Anim Health Prod. 2016 Oct;48(7):1427–33.
 Fut­ter­mit­tel für Naj­di-Mut­ter­scha­fe, oxi­da­ti­ver Sta­tus, Gewicht­zu­nah­me der Läm­mer, Milch­leis­tung und -qua­li­tät

Araújo M et al.
Plasti­ci­ty of young Morin­ga olei­fe­ra L. plants to face water defi­cit and UVB radia­ti­on chal­len­ges.
J Pho­to­chem Pho­to­bi­ol B. 2016 Sep;162:278–285.
 Zucht­pro­gram­me in Gegen­den mit sehr hohem UV-Index oder Tro­cken­heit

You­nus I et al.
Eva­lua­ti­on of anti­vi­ral activi­ty of plant extracts against foot and mouth disea­se virus in vitro.
Pak J Pharm Sci. 2016 Jul;29(4):1263–8.
  anti­vi­ra­le Eigen­schaf­ten gegen das Virus der Maul- und Klau­en­seu­che

Rama­bu­la­na T et al.
Per­tur­ba­ti­on of phar­ma­co­lo­gi­cal­ly rele­vant poly­phe­n­o­lic com­pounds in Morin­ga olei­fe­ra against pho­to-oxi­da­ti­ve damages impo­sed by gam­ma radia­ti­on.
J Pho­to­chem Pho­to­bi­ol B. 2016 Mar;156:79–86.
   Ana­ly­se, Land­wirt­schaft, Mecha­nis­men der Pflan­ze vor pho­tooxi­da­ti­ven Schä­den, Poly­phe­n­ol­ver­bin­dun­gen

Saf­wat AM et al.
Esti­ma­ting Appa­rent Nut­ri­ent Diges­ti­bi­li­ty of Diets Con­tai­ning Leu­cae­na leu­coce­pha­la or Morin­ga olei­fe­ra Leaf Meals for Gro­wing Rab­bits by Two Methods.
Asi­an-Aus­tralas J Anim Sci. 2015 Aug;28(8):1155–62.
  Füt­te­rung von Kanin­chen, Bewer­tung der Nähr­stoff­ver­dau­lich­keit

Gov­in­dar­a­jan Kart­hi­vashan, Pala­nisa­my Arul­sel­van, Abd. Razak Ali­mon, Intan Safi­nar Ismail, Shari­da Faku­ra­zi
Com­pe­ting Role of Bioac­tive Con­sti­tu­ents in Morin­ga olei­fe­ra Extract and Con­ven­tio­nal Nut­ri­ti­on Feed on the Per­for­mance of Cobb 500 Broi­lers
Bio­med Res Int. 2015; 2015: 970398. Published online 2015 Feb 22. doi: 10.1155/2015/970398
   Ein­fluss als Fut­te­r­er­gän­zung auf die Wachs­tums­leis­tung von Hüh­ner und der  anti­oxi­da­ti­ven Akti­vi­tät in Hüh­ner­fleisch

Leo­ne A et al.
Cul­ti­va­ti­on, Gene­tic, Eth­no­phar­ma­co­lo­gy, Phy­to­che­mi­stry and Phar­ma­co­lo­gy of Morin­ga olei­fe­ra Lea­ves: An Over­view.
Int J Mol Sci. 2015 Jun 5;16(6):12791–835.
   Über­blick über die Kul­ti­vie­rung, Gene­tik, Eth­no­phar­ma­ko­lo­gie, Phy­to­che­mie und Phar­ma­ko­lo­gie von Morin­ga olei­fe­ra Blät­ter

Tian Y et al.
High qua­li­ty refe­rence geno­me of drum­stick tree (Morin­ga olei­fe­ra Lam.), a poten­ti­al peren­ni­al crop.
Sci Chi­na Life Sci. 2015 Jul;58(7):627–38.
  Refe­renz­ge­nom zur Grund­la­gen­for­schung (bie­tet bes­se­re Ein­sich­ten in die Gen­re­gu­la­ti­on)

Förs­ter N et al.
Eco­ty­pe varia­bi­li­ty in growth and secon­da­ry meta­bo­li­te pro­fi­le in Morin­ga olei­fe­ra: impact of sul­fur and water avai­la­bi­li­ty.
J Agric Food Chem. 2015 Mar 25;63(11):2852–61.
  Land­wirt­schaft, Erhö­hung der Bio­mas­se (Ern­te), opti­ma­le Kul­ti­vie­rungs­be­din­gun­gen, Anstieg des Glu­co­si­no­lat­ge­halts bei Was­ser­man­gel

Sai­ni RK, Shet­ty NP, Pra­kash M, Girid­har P.
Effect of dehy­dra­ti­on methods on reten­ti­on of caro­te­no­ids, toco­phe­rols, ascor­bic acid and anti­oxi­dant activi­ty in Morin­ga olei­fe­ra lea­ves and pre­pa­ra­ti­on of a RTE pro­duct.
J Food Sci Tech­nol. 2014 Sep;51(9):2176–82.
  geeig­ne­tes Trock­nungs­ver­fah­ren zum Erhalt der ernäh­rungs­phy­sio­lo­gi­schen Eigen­schaf­ten

Jabe­en R et al.
Expres­si­on pro­filing of bioac­tive genes from Morin­ga olei­fe­ra.
Appl Bio­chem Bio­tech­nol. 2014 Sep;174(2):657–66.
  bio­ak­ti­ve Gene im Keim­lings­sta­di­um, Ent­wick­lung ver­bes­ser­ter trans­ge­ner Ras­sen

Saf­wat AM et al.
Deter­mi­na­ti­on of tro­pi­cal fora­ge pre­fe­ren­ces using two offe­ring methods in rab­bits.
Asi­an-Aus­tralas J Anim Sci. 2014 Apr;27(4):524–9.
  Füt­te­rung von Kanin­chen, Wachs­tums­leis­tung, annehm­ba­re Fut­ter­men­ge

Saf­wat AM et al.
Effect of die­ta­ry inclu­si­on of Leu­cae­na leu­coce­pha­la or Morin­ga olei­fe­ra leaf meal on per­for­mance of gro­wing rab­bits.
Trop Anim Health Prod. 2014 Oct;46(7):1193–8.
Fut­ter­mit­tel für Kanin­chen, Wachs­tums­leis­tung, Schlacht­kör­per­ei­gen­schaf­ten

Zvi­no­ro­va PI et al.
Die­ta­ry effects of Morin­ga olei­fe­ra leaf powder on growth, gastro­in­tes­ti­nal mor­pho­me­try and blood and liver meta­bo­li­tes in Spra­gue Daw­ley rats.
J Anim Phy­si­ol Anim Nutr (Berl). 2015 Feb;99(1):21–28.
Füt­te­rung von Rat­ten mit Blatt­pul­ver, Ein­fluss auf die Wachs­tums­leis­tung, den Ver­dau­ungs­trakt, die Meta­bo­li­ten­kon­zen­tra­ti­on des Blu­tes und die Gly­ko­gen- und Lipid­spei­che­rung der Leber

Howla­dar SM.
A novel Morin­ga olei­fe­ra leaf extract can miti­ga­te the stress effects of salin­i­ty and cad­mi­um in bean (Pha­seo­lus vul­ga­ris L.) plants.
Eco­to­xi­col Envi­ron Saf. 2014 Feb;100:69–75.
  Land­wirt­schaft, Reduk­ti­on von Stress durch Salz (NaCl) und Cad­mi­um auf die Boh­ne Pha­seo­lus vul­ga­ris L.

Paul LT, Fow­ler LA, Bar­ry RJ, Watts SA.
Eva­lua­ti­on of Morin­ga olei­fe­ra as a die­ta­ry sup­ple­ment on growth and repro­duc­tive per­for­mance in zebra­fish.
J Nutr Ecol Food Res. 2013 Dec;1(4):322–328.
Fut­ter­mit­tel für Fische (Zebra­fisch), Wirk­sam­keit als ergän­zen­der Ersatz für Vit­ami­ne, Mine­ral­stof­fe und Pro­te­in, Ein­fluss auf die Wachs­tums­leis­tung und Fort­pflan­zung

Vongs­ak B, Sithisarn P, Grits­ana­pan W.
Simul­ta­neous Deter­mi­na­ti­on of Cryp­to-Chlo­ro­ge­nic Acid, Iso­quer­ce­tin, and Astra­ga­lin Con­tents in Morin­ga olei­fe­ra Leaf Extracts by TLC-Den­si­to­me­tric Method.
Evid Based Com­ple­ment Alter­nat Med. 2013;2013:917609.
   Iso­quer­ce­tin, Astra­ga­lin und Kryp­to-Chlo­ro­gen­säu­re, stand­ort­be­ding­te Unter­schie­de

Nkuk­wa­na TT et al.
Fat­ty acid com­po­si­ti­on and oxi­da­ti­ve sta­bi­li­ty of bre­ast meat from broi­ler chi­ckens sup­ple­men­ted with Morin­ga olei­fe­ra leaf meal over a peri­od of ref­ri­ge­ra­ti­on.
Food Chem. 2014 Jan 1;142:255–61.
Fut­ter­mit­tel für Hähn­chen, Fett­säu­re­zu­sam­men­set­zung und oxi­da­ti­ve Sta­bi­li­tät von Brust­fleisch

Ola-Fad­un­sin SD, Ade­mo­la IO.
Direct effects of Morin­ga olei­fe­ra Lam (Moring­aceae) ace­to­ne leaf extract on broi­ler chi­ckens natu­ral­ly infec­ted with Eime­ria spe­ci­es.
Trop Anim Health Prod. 2013 Aug;45(6):1423–8.
  Vieh­zucht, Wir­kung auf die Geflü­gel­krank­heit Vogel­kok­zidio­se

Rivas R, Oli­vei­ra MT, San­tos MG.
Three cycles of water defi­cit from seed to young plants of Morin­ga olei­fe­ra woo­dy spe­ci­es impro­ves stress tole­ran­ce.
Plant Phy­si­ol Bio­chem. 2013 Feb;63:200–8.
   Anbau, Samen die einem mil­den Was­ser­de­fi­zit aus­ge­setzt waren, erhöh­ten die Tro­cken­heits­to­le­ranz von jun­gen Pflan­zen

Bhat­ta R, Sara­van­an M, Baruah L, Sam­path KT.
Nut­ri­ent con­tent, in vitro rumi­nal fer­men­ta­ti­on cha­rac­te­ris­tics and metha­ne reduc­tion poten­ti­al of tro­pi­cal tan­nin-con­tai­ning lea­ves.
J Sci Food Agric. 2012 Dec;92(15):2929–35.
Fut­ter­mit­tel für Wie­der­käu­er

Nae­em S, Ali M, Mah­mood A.
Opti­mi­za­ti­on of extrac­tion con­di­ti­ons for the extrac­tion of phe­n­o­lic com­pounds from Morin­ga olei­fe­ra lea­ves.
Pak J Pharm Sci. 2012 Jul;25(3):535–41.
   Opti­mie­rung der Extrak­ti­on phe­n­o­li­scher Ver­bin­dung, quan­ti­ta­ti­ve Unter­schie­de in Abhän­gig­keit mit der Trock­nungs­me­tho­de

Aberra Mel­es­se, H. Stein­gass, J. Bog­uhn, M. Schol­len­ber­ger & M. Rode­hutscord.
Effects of ele­va­ti­on and sea­son on nut­ri­ent com­po­si­ti­on of lea­ves and green pods of Morin­ga sten­o­pe­ta­la and Morin­ga olei­fe­ra.
Agro­fo­rest Syst (2012) 86: 505. https://doi.org/10.1007/s10457-012‑9514-8.
  /    Aus­wir­kun­gen der Anbau­hö­he und Jah­res­zeit auf die Nähr­stoff­zu­sam­men­set­zung der  Blät­tern und grü­nen Früch­te

Moyo B, Mas­ika PJ, Muchen­je V.
Effect of sup­ple­men­ting cross­bred Xho­sa lop-eared goat cas­tra­tes with Morin­ga olei­fe­ra lea­ves on growth per­for­mance, car­cass and non-car­cass cha­rac­te­ris­tics.
Trop Anim Health Prod. 2012 Apr;44(4):801–9.
 Fut­ter­mit­tel für Zie­gen, Ein­fluss auf die Wachs­tums­leis­tung und Schlacht­ei­gen­schaf­ten

Mea­le SJ, Cha­ves AV, Baah J, McAl­lis­ter TA.
Metha­ne Pro­duc­tion of Dif­fe­rent Fora­ges in In vitro Rumi­nal Fer­men­ta­ti­on.
Asi­an-Aus­tralas J Anim Sci. 2012 Jan;25(1):86–91.
     Methan­pro­duk­ti­on ver­schie­de­ner Fut­ter­mit­tel

Abou- et al.
The nut­ri­tio­nal effect of Morin­ga olei­fe­ra fresh lea­ves as feed sup­ple­ment on Rho­de Island Red hen egg pro­duc­tion and qua­li­ty.
Trop Anim Health Prod. 2012 Jun;44(5):1035–40.
 Fut­ter­mit­tel für Island Red (RIR) Hen­nen, ernäh­rungs­phy­sio­lo­gi­sche Wir­kung, Eiqua­li­tät

K. Sai­ni, N. P. Shet­ty, P. Girid­har, G. A. Ravis­han­kar
Rapid in vitro rege­ne­ra­ti­on method for Morin­ga olei­fe­ra and per­for­mance eva­lua­ti­on of field grown nut­ri­tio­nal­ly enri­ched tis­sue cul­tu­red plants
3 Bio­tech. 2012 Sep; 2(3): 187–192. Published online 2012 Feb 4. doi: 10.1007/s13205-012‑0045-9
 Opti­mie­rung des Gehalts an Lutein, β-Caro­tin, α-Toco­phe­rol, Gesamt­ca­ro­ti­no­iden und Chlo­ro­phyll in Blät­tern

Shih MC, Chang CM, Kang SM, Tsai ML.
Effect of dif­fe­rent parts (leaf, stem and stalk) and sea­sons (sum­mer and win­ter) on the che­mi­cal com­po­si­ti­ons and anti­oxi­dant activi­ty of Morin­ga olei­fe­ra.
Int J Mol Sci. 2011;12(9):6077–88.
   Ana­ly­se (Blatt, Stän­gel und Stiel), che­mi­sche Zusam­men­set­zung und die anti­oxi­da­ti­ve Akti­vi­tät in Abhän­gig­keit der Jah­res­zeit (Som­mer, Win­ter)

Men­die­ta-Arai­ca B, Spörndly E, Reyes-Sán­chez N, Spörndly R.
Fee­ding Morin­ga olei­fe­ra fresh or ensi­led to dai­ry cows–effects on milk yield and milk fla­vor.
Trop Anim Health Prod. 2011 Jun;43(5):1039–47.
  Fut­ter­mit­tel für Milch­kü­he (frisch und als Sila­ge), Ver­dau­lich­keit, Milch­men­ge und -qua­li­tät

Doerr B et al.
Cul­ti­var effect on Morin­ga olei­fe­ra glu­co­si­no­la­te con­tent and tas­te: a pilot stu­dy.
Ecol Food Nutr. 2009 May-Jun;48(3):199–211.
     Anbau, Glu­co­si­no­lat-Gehalt und Geschmack in Abhän­gig­keit von der Anbaus­or­te

Al-Mas­ri MR.
An in vitro eva­lua­ti­on of some uncon­ven­tio­nal rumi­nant feeds in terms of the orga­nic mat­ter diges­ti­bi­li­ty, ener­gy and  micro­bi­al bio­mass.
Tro­pi­cal Ani­mal Health and Pro­duc­tion April 2003, Volu­me 35, Issue 2, pp 155–167.
   Fut­ter­mit­tel für Wie­der­käu­er, Ver­dau­lich­keit, Pro­duk­ti­on von Ver­dau­ungs­ga­sen

1

Legen­de

et al.: bei mehr als 4 Auto­ren wird nur der Erst­au­tor genannt

Extrak­te oder Iso­la­te aus den Morin­ga-Samen:  

Pro­duk­te aus dem gan­zen Morin­ga-Samen: 

Sowohl als auch:    /   

Ana­ly­se:  

Studien zu den Samen

Sprung­mar­ken

Effek­te auf die Gesund­heit

Ma N, Tang Q, Wu WT, Huang XA, Xu Q, Rong GL, Chen S, Song JP.
Three Con­sti­tu­ents of Morin­ga olei­fe­ra Seeds Regu­la­te Expres­si­on of Th17-Rele­vant Cyto­ki­nes and Ame­lio­ra­te TPA-Indu­ced Pso­ria­sis-Like Skin Lesi­ons in Mice.
Mole­cu­les. 2018 Dec 10;23(12). pii: E3256. doi: 10.3390/molecules23123256.
    Tra­di­tio­nel­le Anwen­dung bei Haut­krank­hei­ten, Ana­ly­se, the­ra­peu­ti­sche Anwen­dung zur Behand­lung von Samen

Wang X et al.
Hydro­gen Sul­fi­de (H₂S) Releasing Capa­ci­ty of Isot­hio­cya­na­tes from Morin­ga olei­fe­ra Lam.
Mole­cu­les. 2018 Oct 29;23(11). pii: E2809.
   Ana­ly­se der sekun­dä­ren Pflan­zen­stof­fe, Frei­set­zungs­ver­mö­gen von Was­ser­stoff­sul­fid (Schwe­fel­was­ser­stoff) zur Krebs­chemo­prä­ven­ti­on

Oli­vei­ra JTA et al.
Mo-CBP3-PepI, Mo-CBP3-PepII, and Mo-CBP3-PepIII are syn­thetic anti­mi­cro­bi­al pep­ti­des active against human patho­gens by sti­mu­la­ting ROS gene­ra­ti­on and increa­sing plas­ma mem­bra­ne per­mea­bi­li­ty.
Bio­chi­mie. 2018 Oct 31;157:10–21.
   Samen­pro­te­iniso­lat, Syn­the­se von anti­mi­kro­bi­el­len Pro­te­inen aus den Samen, Poten­zi­al gegen das Bak­te­ri­um Sta­phy­lo­coc­cus aure­us und den Pilz Can­di­da– Parap­si­lo­se

Ade­ri­no­la TA et al.
Ami­no acid com­po­si­ti­on and anti­oxi­dant pro­per­ties of Morin­ga olei­fe­ra seed pro­te­in iso­la­te and enzy­ma­tic hydro­ly­sa­tes.
Heliyon. 2018 Oct 23;4(10):e00877.
   Samen­pro­te­iniso­lat, Ami­no­säu­re­zu­sam­men­set­zung und anti­oxi­da­ti­ve Eigen­schaf­ten von Samen­pro­te­in­hy­dro­ly­sa­te

Kan­dil OM et al.
Ant­hel­min­tic effi­cacy of Morin­ga olei­fe­ra seed metha­no­lic extract against Fascio­la hepa­ti­ca.
J Para­sit Dis. 2018 Sep;42(3):391–401. doi: 10.1007/s12639-018‑1014-y. Epub 2018 Jun 13.
   Ant­hel­min­ti­sche Wirk­sam­keit gegen Fascio­la hepa­ti­ca (Gro­ßer Lebe­re­gel der Pflan­zen­fres­ser wie Rin­der, Scha­fe, Schwei­ne aber auch Men­schen und ande­re Säu­ge­tie­re befällt)

Jana S, Chat­to­pad­hyay S, Dey A, Per­veen H, Dolai D.
Invol­ve­ment of metal­lot­hion­ein, homo­cystei­ne and B-vit­amins in the atte­nua­ti­on of arse­nic-indu­ced ute­ri­ne dis­or­ders in respon­se to the oral app­li­ca­ti­on of hydro-etha­no­lic extract of Morin­ga olei­fe­ra­seed: a preli­mi­na­ry stu­dy.
Drug Chem Toxi­col. 2018 Sep 13:1–12.
  Eig­nung zur Behand­lung von Arsen­ver­gif­tun­gen, anti­oxi­da­ti­ve Wir­kung

Anto­ni­ni E, Iori R, Nin­fa­li P, Sal­va­to­re Scar­pa E.
A Com­bi­na­ti­on of Morin­gin and Aven­an­thra­mi­de 2f Inhi­bits the Pro­li­fe­ra­ti­on of Hep3B Liver Can­cer Cells Indu­cing Intrin­sic and Extrin­sic Apo­pto­sis.
Nutr Can­cer. 2018 Sep 11:1–7.
    Kom­bi­na­ti­on von Morin­gin und Aven­an­thra­mid 2f als chemo­prä­ven­ti­ves Mit­tel gegen die Ent­wick­lung von Leber­krebs (Hepa­to­kar­zi­nom)

Romeo L et al.
The α-Cyclo­d­ex­trin/­Mo­rin­gin Com­plex: A New Pro­mi­sing Anti­mi­cro­bi­al Agent against Sta­phy­lo­coc­cus aure­us.
Mole­cu­les. 2018 Aug 21;23(9). pii: E2097.
   Extrakt, Samen, Morin­gin (MOR als eine the­ra­peu­ti­sche Alter­na­ti­ve für häu­fig ver­wen­de­te Anti­bio­ti­ka und anti­mi­kro­bi­el­ler Wirk­stoff gegen Sta­phy­lo­coc­cus aure­us

Jaa­fa­ru MS et al.
Non­to­xic Glu­co­morin­gin-Isot­hio­cya­na­te (GMG-ITC) Rich Solub­le Extract Indu­ces Apo­pto­sis and Inhi­bits Pro­li­fe­ra­ti­on of Human Pro­sta­te Ade­n­o­car­ci­no­ma Cells (PC-3).
Nut­ri­ents. 2018 Aug 27;10(9). pii: E1174.
   Wirk­sam­keit eines Glu­co­morin­gin-Isot­hio­cya­nat-Extrakts (GMG-ITC-RSE) zur Behand­lung von Pro­sta­ta­krebs

Kim Y et al.
A 14-day repeated-dose oral toxi­co­lo­gi­cal eva­lua­ti­on of an isot­hio­cya­na­te-enri­ched hydro-alco­ho­lic extract from Morin­ga olei­fe­ra Lam. seeds in rats.
Toxi­col Rep. 2018 Mar 6;5:418–426.
   Toxi­zi­täts­stu­die, NOA­EL-Wert (die höchs­te Dosis, bei der kei­ne schäd­li­che Wir­kung beob­ach­tet wur­de)

Ade­dayo MR et al.
Effect of die­ta­ry sup­ple­ment from mono-cul­tu­re fer­men­ta­ti­on of Morin­ga olei­fe­ra seeds by Rhi­zo­pus sto­lo­ni­fer on hema­to­lo­gy and mar­kers lin­ked to hyper­cho­le­ste­ro­le­mia in rat model.
Food Sci Nutr. 2018 Aug 14;6(7):1826–1838.
 fer­men­tier­te Moringa­s­a­men, Wir­kung auf den Cho­le­ste­rin­spie­gel und Stö­run­gen des Immun­sys­tems

Mil­ler GJ et al.
A Labo­ra­to­ry Activi­ty Demons­tra­ting the Anti­bac­te­ri­al Effects of Extracts from Two Plant Spe­ci­es, Morin­ga olei­fe­ra and Alli­um sati­vum (Gar­lic).
J Micro­bi­ol Biol Educ. 2017 Oct 30;18(3). pii: 18.3.56.
   anti­bak­te­ri­el­le Wir­kung, natür­lich Alter­na­ti­ve zu syn­the­ti­schen anti­mi­kro­bi­el­len Arz­nei­mit­teln

Zhou J et al.
Morin­ga olei­fe­ra Seed Extract Alle­via­tes Sco­pola­mi­ne-Indu­ced Learning and Memo­ry Impairment in Mice.
Front Phar­ma­col. 2018 Apr 24;9:389.
  neu­ro­phar­ma­ko­lo­gi­sche Wir­kun­gen (Wir­kung auf das Ner­ven­sys­tem)

Jaa­fa­ru MS et al.
Isot­hio­cya­na­te from Morin­ga olei­fe­ra seeds miti­ga­tes hydro­gen per­oxi­de-indu­ced cyto­to­xi­ci­ty and pre­ser­ved mor­pho­lo­gi­cal fea­tures of human neu­ro­nal cells.
PLoS One. 2018 May 3;13(5):e0196403.
  oxi­da­ti­ver Stress

Ade­ba­yo IA, Arsad H, Sami­an MR.
Total Phe­n­o­lics, Total Fla­vo­no­ids, Anti­oxi­dant Capa­ci­ties, and Vola­ti­le Com­pounds Gas Chro­ma­to­gra­phy-Mass Spec­tro­me­try Pro­filing of Morin­ga olei­fe­ra Ripe Seed Polar Frac­tions.
Phar­ma­co­gn Mag. 2018 Apr-Jun;14(54):191–194.
  anti­oxi­da­ti­ve Kapa­zi­tät

Corio­la­no MC et al.
Immu­no­mo­du­la­to­ry effects of the water-solub­le lec­tin from Morin­ga olei­fe­ra seeds (WSMoL) on human peri­pheral blood mononu­clear cells (PBMC).
Pro­te­in Pept Lett. 2018 Jan 30.
  Lek­ti­ne, Wund­hei­lung

Raa­fat K, Hdaib F.
Neu­ro­pro­tec­tive effects of Morin­ga olei­fe­ra: Bio-gui­ded GC-MS iden­ti­fi­ca­ti­on of active com­pounds in dia­betic neu­ro­pa­thic pain model.
Chin J Inte­gr Med. 2017 Dec 12.
  schmerz­haf­te dia­be­ti­sche Neu­ro­pa­thie (Erkran­kun­gen des peri­phe­ren Ner­ven­sys­tems)

Gon­zá­lez Gar­za NG et al.
Bio­func­tio­nal pro­per­ties of bioac­tive pep­ti­de frac­tions from pro­te­in iso­la­tes of morin­ga seed (Morin­ga olei­fe­ra).
J Food Sci Tech­nol. 2017 Dec;54(13):4268–4276.
  Pro­te­iniso­lat, funk­tio­na­le Eigen­schaf­ten, Anti­dia­be­ti­kum

de Medei­ros MLS et al.
Nema­ti­ci­dal activi­ty of a water solub­le lec­tin from seeds of Morin­ga olei­fe­ra.
Int J Biol Macro­mol. 2018 Mar;108:782–789.
  anti­pa­ra­si­tä­re The­ra­pie

Asa­duz­za­man AKM et al.
Morin­ga olei­fe­ra seed lec­tin inhi­bits Ehr­lich asci­tes car­ci­no­ma cell growth by indu­cing apo­pto­sis through the regu­la­ti­on of Bak and NF-κB gene expres­si­on.
Int J Biol Macro­mol. 2018 Feb;107(Pt B):1936–1944.
  hem­men­de Wir­kung auf das Wachs­tum von Krebs­zel­len

Ibra­him AM, Abdal­la AM.
Impact of Morin­ga olei­fe­ra seed aqueous extract on some bio­lo­gi­cal, bio­che­mi­cal, and his­to­lo­gi­cal aspects of Biom­phala­ria alex­an­dri­na snails.
Envi­ron Sci Pol­lut Res Int. 2017 Dec;24(36):28072–28078.
  Wir­kung gegen eine Schis­to­so­mia­sis-Infek­ti­on (Wur­mer­kran­kung)

Kim Y et al.
Isot­hio­cya­na­te-enri­ched morin­ga seed extract alle­via­tes ulce­ra­ti­ve coli­tis sym­ptoms in mice.
PLoS One. 2017 Sep 18;12(9):e0184709.
  Lin­de­rung von Coli­tis ulce­ro­sa (chro­nisch-ent­zünd­li­chen Darm­er­kran­kung)

Mou­ra MC et al.
Mul­ti-effect of the water-solub­le Morin­ga olei­fe­ra lec­tin against Ser­ra­tia mar­ce­scens and Bac­il­lus sp.: anti­bac­te­ri­al, anti­bio­film and anti-adhe­si­ve pro­per­ties.
J Appl Micro­bi­ol. 2017 Oct;123(4):861–874.
  Reduk­ti­on der Bio­film­bil­dung durch Bak­te­ri­en

Jaja-Chi­med­za A et al.
Bio­che­mi­cal cha­rac­te­ri­za­ti­on and anti-inflamma­to­ry pro­per­ties of an isot­hio­cya­na­te-enri­ched morin­ga (Morin­ga olei­fe­ra) seed extract.
PLoS One. 2017 Aug 8;12(8):e0182658.
  anti-ent­zünd­li­che Wir­kung

Albu­quer­que Cos­ta R et al.
Thio­car­ba­ma­tes from Morin­ga olei­fe­ra Seeds Bioac­tive against Viru­lent and Multidrug-Resistant Vibrio Spe­ci­es.
Bio­med Res Int. 2017;2017:7963747.
  The­ra­pie bei Krank­hei­ten, die durch mul­ti­re­sis­ten­te Bak­te­ri­en ver­ur­sacht wer­den

Gia­cop­po S, Iori R, Bra­man­ti P, Maz­zon E.
Topi­cal morin­gin-cream relie­ves neu­ro­pa­thic pain by sup­pres­si­on of inflamma­to­ry pathway and vol­ta­ge-gated ion chan­nels in muri­ne model of mul­ti­ple scle­ro­sis.
Mol Pain. 2017 Jan-Dec;13:1744806917724318.
  Crè­me gegen neu­ro­pa­thi­sche Schmer­zen im Zusam­men­hang mit Mul­ti­pler Skle­ro­se

Dougnon TV et al..
Tra­di­tio­nal tre­at­ment of human and ani­mal sal­mo­nel­lo­ses in Sou­thern Benin: Know­ledge of far­mers and tra­di­the­ra­pists.
Vet World. 2017 Jun;10(6):580–592.
  /    tra­di­tio­nel­le Behand­lung einer Sal­mo­nel­lo­se (eine durch Sal­mo­nel­len-Bak­te­ri­en ver­ur­sach­te Infek­ti­ons­krank­heit)

Ran­driam­boavon­jy JI et al.
Morin­ga olei­fe­ra Seeds Atte­nua­te Vascu­lar Oxi­da­ti­ve and Nitro­sa­ti­ve Stres­ses in Spon­ta­neous­ly Hyper­ten­si­ve Rats.
Oxid Med Cell Lon­gev. 2017;2017:4129459.
 herz­be­ding­te oxi­da­ti­ve und nitro­sa­ti­ve Belas­tun­gen, Reduk­ti­on einer vasku­lä­ren Ent­zün­dung

de And­ra­de Luz L et al.
Cyto­to­xi­ci­ty of the coagu­lant Morin­ga olei­fe­ra lec­tin (cMoL) to B16-F10 melano­ma cells.
Toxi­col In Vitro. 2017 Oct;44:94–99.
  Anti­krebs-Poten­ti­al

Neto JXS et al.
A Chi­tin-bin­ding Pro­te­in Puri­fied from Morin­ga olei­fe­ra Seeds Pres­ents Anti­can­di­dal Activi­ty by Increa­sing Cell Mem­bra­ne Per­mea­bi­li­ty and Reac­tive Oxy­gen Spe­ci­es Pro­duc­tion.
Front Micro­bi­ol. 2017 Jun 6;8:980.
  anti­my­ko­ti­schen Eigen­schaf­ten gegen Can­di­da-Arten

Ade­ba­yo IA, Arsad H, Sami­an MR.
ANTIPROLIFERATIVE EFFECT ON BREAST CANCER (MCF7) OF MORINGA OLEIFERA SEED EXTRACTS.
Afr J Tra­dit Com­ple­ment Altern Med. 2017 Jan 13;14(2):282–287.
  anti­pro­li­fe­ra­ti­ve (wachs­tums­hem­men­de) Wir­kung gegen Brust­krebs­zel­len

Kums­sa DB et al.
Varia­ti­on in the mine­ral ele­ment con­cen­tra­ti­on of Morin­ga olei­fe­ra Lam. and M. sten­o­pe­ta­la (Bak. f.) Cuf.: Role in human nut­ri­ti­on.
PLoS One. 2017 Apr 7;12(4):e0175503.
 Redu­zie­rung von Selen­man­gel

Lee­la­wat S, Lee­la­wat K.
Mole­cu­lar mecha­nisms of cho­lan­gio­car­ci­no­ma cell inhi­bi­ti­on by medi­c­inal plants.
Oncol Lett. 2017 Feb;13(2):961–966.
  Anti-Krebs­wir­kung gegen das Cho­langio­kar­zi­nom (Gal­len­gangs­kar­zi­nom)

Wang F et al.
Poten­ti­al hypo­gly­cae­mic activi­ty phe­n­o­lic gly­co­si­des from Morin­ga olei­fe­ra seeds.
Nat Prod Res. 2017 Aug;31(16):1869–1874.
  Ent­de­ckung eines neu­en Phe­n­ol­gly­co­sid, Ver­wen­dung als hypo­gly­kä­mi­sches Arz­nei­mit­tel (gegen Unter­zu­cke­rung)

Pau­la PC et al.
Insu­lin-like plant pro­te­ins as poten­ti­al inno­va­ti­ve drugs to tre­at dia­be­tes-The Morin­ga olei­fe­ra case stu­dy.
N Bio­tech­nol. 2017 Oct 25;39(Pt A):99–109.
  Pro­te­in­ex­trakt, anti­dia­be­ti­sche Eigen­schaf­ten

Karim NA et al.
Morin­ga olei­fe­ra Lam: Tar­ge­ting Chemo­pre­ven­ti­on.
Asi­an Pac J Can­cer Prev. 2016;17(8):3675–86. Review.
  Glu­co­morin­gin (ein Glu­co­si­no­lat), krebs­hem­men­de Wir­kung

Michl C et al.
The Chemo­pre­ven­ti­ve Phy­to­che­mi­cal Morin­gin Iso­la­ted from Morin­ga olei­fe­ra Seeds Inhi­bits JAK/STAT Signa­ling.
PLoS One. 2016 Jun 15;11(6):e0157430.
  Sul­for­a­phan (SFN) und Morin­gin (GMG-ITC), Prä­ven­ti­on von chro­ni­schen Krank­hei­ten wie Krebs, ent­zünd­li­chen Erkran­kun­gen und Immun­stö­run­gen

Anude­ep S, Pra­san­na VK, Adya SM, Rad­ha C.
Cha­rac­te­ri­za­ti­on of solub­le die­ta­ry fiber from Morin­ga olei­fe­ra seeds and its immu­no­mo­du­la­to­ry effects.
Int J Biol Macro­mol. 2016 Oct;91:656–62.
  Bal­last­stof­fe, immun­mo­du­la­to­ri­sche Effek­te

Rajan TS et al.
Anti-inflamma­to­ry and anti­oxi­dant effects of a com­bi­na­ti­on of can­na­b­idi­ol and morin­gin in LPS-sti­mu­la­ted macro­pha­ges.
Fitoter­a­pia. 2016 Jul;112:104–15.
  anti­ent­zünd­li­che und anti­oxi­da­ti­ve Wir­kung der Kom­bi­na­ti­on von Can­na­b­idi­ol aus Can­na­bis sati­va und Morin­gin aus den Morin­ga Samen

Gos­wa­mi SK et al.
Erec­to­ge­nic and Aphro­di­siac Pro­per­ty of Morin­ga olei­fe­ra: Invol­ve­ment of Solub­le Epo­xi­de Hydro­la­se Enzy­me.
Phy­to­ther Res. 2016 Jul;30(7):1119–27.
  erek­ti­le Dys­funk­ti­on

Ran­driam­boavon­jy JI et al.
Car­diac Pro­tec­tive Effects of Morin­ga olei­fe­ra Seeds in Spon­ta­neous Hyper­ten­si­ve Rats.
Am J Hyper­tens. 2016 Jul;29(7):873–81.
 herz­schüt­zen­de Wir­kun­gen

Das N, Gang­u­li D, Dey S.
Morin­ga olei­fe­ra Lam. seed extract pre­vents fat diet indu­ced oxi­da­ti­ve stress in mice and pro­tects liver cell-nuclei from hydroxyl radi­cal media­ted dama­ge.
Indi­an J Exp Biol. 2015 Dec;53(12):794–802.
  oxi­da­ti­ver Stress, Leber­schutz

Maiyo FC, Mood­ley R, Singh M.
Cyto­to­xi­ci­ty, Anti­oxi­dant and Apo­pto­sis Stu­dies of Quer­ce­tin-3-O Glu­co­si­de and 4-(β-D-Glucopyranosyl-1→4-α-L-Rhamnopyranosyloxy)-Benzyl Isot­hio­cya­na­te from Morin­ga olei­fe­ra.
Anti­can­cer Agents Med Chem. 2016;16(5):648–56.
  Ana­ly­se der Inhalts­stof­fe von Blät­tern und Samen zur  Behand­lung ver­schie­de­ner Krebs­ar­ten ver­wen­det

Al-Asma­ri AK et al.
Morin­ga olei­fe­ra as an Anti-Can­cer Agent against Bre­ast and Colo­rec­tal Can­cer Cell Lines.
PLoS One. 2015 Aug 19;10(8):e0135814.
  Anti-Krebs — Wir­kung von Morin­ga olei­fe­ra Blät­ter, Rin­de und Samen (gegen Brust- und Darm­krebs)

Galup­po M et al.
4(α-L-RHAMNOSYLOXY)-BENZYL ISOTHIOCYANATE, A BIOACTIVE PHYTOCHEMICAL THAT DEFENDS CEREBRAL TISSUE AND PREVENTS SEVERE DAMAGE INDUCED BY FOCAL ISCHEMIA/REPERFUSION.
J Biol Regul Home­ost Agents. 2015 Apr-Jun;29(2):343–56.
  neu­ro­pro­tek­ti­ve Eigen­schaf­ten, Ent­zün­dun­gen, oxi­da­ti­ver Stress

Pous­sel M et al.
Occupa­tio­nal asth­ma to “the mira­cle tree” (Morin­ga olei­fe­ra): first descrip­ti­on.
J All­er­gy Clin Immu­nol Pract. 2015 Sep-Oct;3(5):813–4.
 All­er­gie gegen­über der Ver­ar­bei­tung des Samen­pul­vers

Mou­ra MC et al.
Water-solub­le Morin­ga olei­fe­ra lec­tin inter­fe­res with growth, sur­vi­val and cell per­mea­bi­li­ty of cor­ro­si­ve and patho­ge­nic bac­te­ria.
J Appl Micro­bi­ol. 2015 Sep;119(3):666–76.
  anti­bak­te­ri­el­le Eigen­schaf­ten

Elsay­ed EA, Sha­raf-Eldin MA, Wada­an M.
In vitro Eva­lua­ti­on of Cyto­to­xic Activi­ties of Essen­ti­al Oil from Morin­ga olei­fe­ra Seeds on HeLa, HepG2, MCF-7, CACO-2 and L929 Cell Lines.
Asi­an Pac J Can­cer Prev. 2015;16(11):4671–5.
  cyto­to­xi­sche Akti­vi­tä­ten gegen Krebs­zell­li­ni­en

Galup­po M et al.
Admi­nis­tra­ti­on of 4-(α-L-rhamnosyloxy)-benzyl isot­hio­cya­na­te delays disea­se phe­no­ty­pe in SOD1(G93A) rats: a trans­ge­nic model of amyo­tro­phic late­ral scle­ro­sis.
Bio­med Res Int. 2015;2015:259417.
  Wir­kung in Bezug auf die amyo­tro­phe Late­ral­skle­ro­se (ALS)

She­bek K et al.
The Floc­cu­la­ting Catio­nic Poly­pet­i­de from Morin­ga olei­fe­ra Seeds Damages Bac­te­ri­al Cell Mem­bra­nes by Causing Mem­bra­ne Fusi­on.
Lang­muir. 2015 Apr 21;31(15):4496–502.
  anti­mi­kro­bi­el­le Wir­kung

Frei­re JE et al.
Mo-CBP3, an anti­fun­gal chi­tin-bin­ding pro­te­in from Morin­ga olei­fe­ra seeds, is a mem­ber of the 2S albu­min fami­ly.
PLoS One. 2015 Mar 19;10(3):e0119871.
  Unter­su­chung von Mo-CBP3 (ein anti­my­ko­ti­sches Chi­tin-bin­den­des Pro­te­in)

Al-Mal­ki AL, El Rabey HA.
The anti­dia­betic effect of low doses of Morin­ga olei­fe­ra Lam. seeds on strep­to­zo­to­cin indu­ced dia­be­tes and dia­betic nephro­pa­thy in male rats.
Bio­med Res Int. 2015;2015:381040.
 anti­dia­be­ti­sche Wir­kung

Gia­cop­po S et al.
4(α-l-rhamnosyloxy)-benzyl isot­hio­cya­na­te, a bioac­tive phy­to­che­mi­cal that atte­nua­tes secon­da­ry dama­ge in an expe­ri­men­tal model of spi­nal cord inju­ry.
Bio­org Med Chem. 2015 Jan 1;23(1):80–8.
  Behand­lungs­op­ti­on bei einem Rücken­markst­rau­ma­ta

Onsa­re JG, Aro­ra DS.
Anti­bio­film poten­ti­al of fla­vo­no­ids extrac­ted from Morin­ga olei­fe­ra seed coat against Sta­phy­lo­coc­cus aure­us, Pseu­do­mo­nas aeru­gi­no­sa and Can­di­da albi­cans.
J Appl Micro­bi­ol. 2015 Feb;118(2):313–25.
  /    Anti­bio­ti­ka­po­ten­ti­al gegen­über Sta­phy­lo­coc­cus aure­us, Pseu­do­mo­nas aeru­gi­no­sa und Can­di­da albi­cans

Vela­ga MK et al.
Atte­nua­ti­on of lead-indu­ced oxi­da­ti­ve stress in rat brain, liver, kid­ney and blood of male Wistar rats by Morin­ga olei­fe­ra seed powder.
J Envi­ron Pathol Toxi­col Oncol. 2014;33(4):323–37.
 Wir­kung bei blei-indu­zier­tem oxi­da­ti­ven Stress

Batis­ta AB et al.
New insights into the struc­tu­re and mode of action of Mo-CBP3, an anti­fun­gal chi­tin-bin­ding pro­te­in of Morin­ga olei­fe­ra seeds.
PLoS One. 2014 Oct 27;9(10):e111427.
  anti­my­ko­ti­sche Wir­kung

Sal­les HO et al.
Lec­tin, hemo­ly­sin and pro­tease inhi­bi­tors in seed frac­tions with ovici­dal activi­ty against Hae­mon­chus con­tor­tus.
Rev Bras Para­si­tol Vet. 2014 Apr-Jun;23(2):136–43.
  Bekämp­fung von Magen-Darm-Nema­to­den (Magen-Darm-Faden­wür­mer)

Minaiyan M et al.
Anti-inflamma­to­ry effect of Morin­ga olei­fe­ra Lam. seeds on acetic acid-indu­ced acu­te coli­tis in rats.
Avicen­na J Phy­to­med. 2014 Mar;4(2):127–36.
  Wirk­sam­keit bei aku­ter Coli­tis (Ent­zün­dung des Dick­darms)

Rim Jeon S et al.
Syn­er­gistic anti­mi­cro­bi­al effi­cacy of meso­po­rous ZnO loa­ded with 4-(α-L-rhamnosyloxy)-benzyl isot­hio­cya­na­te iso­la­ted from the Morin­ga olei­fe­ra seed.
J Gen Appl Micro­bi­ol. 2014;60(6):251–5.
  anti­mi­kro­bi­el­le Akti­vi­tät

Araújo LC et al.
Eva­lua­ti­on of cyto­to­xic and anti-inflamma­to­ry activi­ties of extracts and lec­tins from Morin­ga olei­fe­ra seeds.
PLoS One. 2013 Dec 9;8(12):e81973.
  zyto­to­xi­sche (zell­schä­di­gen­de) und ent­zün­dungs­hem­men­de Akti­vi­tät

Bhat­na­gar M et al.
Hemo­sta­tic, anti­bac­te­ri­al bio­po­ly­mers from Acacia ara­bi­ca (Lam.) Willd. and Morin­ga oleifera(Lam.) as poten­ti­al wound dres­sing mate­ri­als.
Indi­an J Exp Biol. 2013 Oct;51(10):804–10.
  Ein­satz gegen Wund­in­fek­tio­nen und als Wund­ver­band

Galup­po M et al.
Anti­bac­te­ri­al activi­ty of glu­co­morin­gin bioac­tiva­ted with myro­si­na­se against two important patho­gens affec­ting the health of long-term pati­ents in hos­pi­tals.
Mole­cu­les. 2013 Nov 20;18(11):14340–8.
  anti­bak­te­ri­el­le bzw. anti­my­ko­ti­sche Akti­vi­tät gegen­über Sta­phy­lo­coc­cus aure­us, Ent­ero­coc­cus cas­se­lif­la­vus und Can­di­da albi­cans

Maroyi A.
Use of weeds as tra­di­tio­nal vege­ta­bles in Shu­rug­wi Dis­trict, Zim­bab­we.
J Eth­no­bi­ol Eth­no­med. 2013 Aug 20;9:60.
 Morin­ga als Nah­rungs­quel­le in der Tro­cken­zeit

Pad­la EP et al.
Anti­mi­cro­bi­al isot­hio­cya­na­tes from the seeds of Morin­ga olei­fe­ra Lam.
Z Natur­forsch C. 2012 Nov-Dec;67(11–12):557–64.
  anti­bak­te­ri­el­le Akti­vi­tä­ten gegen ver­schie­den Arten von krank­ma­chen­den Mikro­or­ga­nis­men

Ade­ju­mo OE, Kolapo AL, Fola­rin AO.
Morin­ga olei­fe­ra Lam. (Moring­aceae) grown in Nige­ria: In vitro anti­sick­ling activi­ty on deoxy­gena­ted ery­thro­cy­te cells.
J Pharm Bio­al­lied Sci. 2012 Apr;4(2):118–22.
  Wir­kung gegen Sichel­zel­len­an­ämie

San­tos AF, Argo­lo AC, Pai­va PM, Coel­ho LC.
Anti­oxi­dant activi­ty of Morin­ga olei­fe­ra tis­sue extracts.
Phy­to­ther Res. 2012 Sep;26(9):1366–70.
  anti­oxi­da­ti­ve Akti­vi­tät

Perei­ra ML et al.
Puri­fi­ca­ti­on of a chi­tin-bin­ding pro­te­in from Morin­ga olei­fe­ra seeds with poten­ti­al to relie­ve pain and inflamma­ti­on.
Pro­te­in Pept Lett. 2011 Nov;18(11):1078–85.
  Poten­zi­al um Schmer­zen und Ent­zün­dun­gen zu lin­dern

Ogun­si­na BS, Rad­ha C, Indra­ni D, Qua­li­ty cha­rac­te­ris­tics of bread and coo­kies enri­ched with debit­te­red Morin­ga olei­fe­ra seed flour.
Int J Food Sci Nutr. 2011 Mar;62(2):185–94.
 ent­bit­ter­tes Samen­mehl in Kom­bi­na­ti­on mit Wei­zen­mehl, Unter­ernäh­rung

Maha­jan SG, Meh­ta AA.
Sup­pres­si­on of oval­bu­min-indu­ced Th2-dri­ven air­way inflamma­ti­on by β-sitos­te­rol in a gui­nea pig model of asth­ma.
Eur J Phar­ma­col. 2011 Jan 10;650(1):458–64.
  anti­asth­ma­ti­sche und ent­zün­dungs­hem­men­de Eigen­schaf­ten auf die Atem­we­ge

Olu­du­ro OA et al.
Cha­rac­te­ri­za­ti­on and anti­mi­cro­bi­al activi­ty of 4-(β-D-glucopyranosyl-1→4-α-L-rhamnopyranosyloxy)-benzyl thio­car­bo­xami­de; a novel bioac­tive com­po­und from Morin­ga olei­fe­ra­seed extract.
Folia Micro­bi­ol (Pra­ha). 2010 Sep;55(5):422–6.
  anti­mi­kro­bi­el­le Akti­vi­tät

Chat­to­pad­hyay S et al.
Pro­tec­tive role of Morin­ga olei­fe­ra (Saji­na) seed on arse­nic-indu­ced hepa­to­cel­lu­lar dege­ne­ra­ti­on in fema­le albi­no rats.
Biol Trace Elem Res. 2011 Aug;142(2):200–12.
  Wir­kung auf eine Arsen-indu­zier­te Leber­be­las­tung

Vie­ra GH, Mourão JA, Ange­lo AM, Cos­ta RA, Viei­ra RH, Anti­bac­te­ri­al effect (in vitro) of Morin­ga olei­fe­ra and Anno­na muri­ca­ta against Gram posi­ti­ve and Gram nega­ti­ve bac­te­ria.
Rev Inst Med Trop Sao Pau­lo. 2010 May-Jun;52(3):129–32.
  anti­bak­te­ri­el­le Wir­kun­gen gegen Sta­phy­lo­coc­cus aure­us, Vibrio cho­le­rae, Esche­ri­chia coli und Sal­mo­nel­la Ent­e­rit­i­dis

Maha­jan SG, Meh­ta AA.
Immu­no­sup­pres­si­ve activi­ty of etha­no­lic extract of seeds of Morin­ga olei­fe­ra Lam. in expe­ri­men­tal immu­ne inflamma­ti­on.
J Eth­no­phar­ma­col. 2010 Jul 6;130(1):183–6.
  immun­sup­pres­si­ve Akti­vi­tät (kann hilf­reich sein bei Fehl­funk­ti­on des Immun­sys­tems wie Rheu­ma, Mul­ti­ple Skle­ro­se oder chro­nisch ent­zünd­li­che Darm­er­kran­kun­gen

Maha­jan SG et al.
Inhi­bi­to­ry effect of n-but­a­nol frac­tion of Morin­ga olei­fe­ra Lam. seeds on oval­bu­min-indu­ced air­way inflamma­ti­on in a gui­nea pig model of asth­ma.
Int J Toxi­col. 2009 Nov-Dec;28(6):519–27.
  hem­men­de Wir­kung auf Ent­zün­dun­gen der Atem­we­ge

Ham­za AA.
Ame­lio­ra­ti­ve effects of Morin­ga olei­fe­ra Lam seed extract on liver fibro­sis in rats.
Food Chem Toxi­col. 2010 Jan;48(1):345–55.
  Wir­kung auf Leber­fi­bro­se

Mishra D et al.
Co-admi­nis­tra­ti­on of mono­i­so­a­myl dimer­cap­to­suc­ci­nic acid and Morin­ga olei­fe­ra seed powder pro­tects arse­nic-indu­ced oxi­da­ti­ve stress and metal dis­tri­bu­ti­on in mice.
Toxi­col Mech Methods. 2009 Feb;19(2):169–82.
  Wir­kung gegen eine Arsen­ver­gif­tung, Che­lat-The­ra­pie

Singh BN et al.
Oxi­da­ti­ve DNA dama­ge pro­tec­tive activi­ty, anti­oxi­dant and anti-quo­rum sen­sing poten­ti­als of Morin­ga olei­fe­ra.
Food Chem Toxi­col. 2009 Jun;47(6):1109–16.
  anti­oxi­da­ti­ve Akti­vi­tät, Schutz vor oxi­da­tiv beding­ten DNA-Schä­den

Goy­al BR, Goy­al RK, Meh­ta AA.
Inves­ti­ga­ti­on into the mecha­nism of anti-asth­ma­tic action of Morin­ga olei­fe­ra.
J Diet Sup­pl. 2009;6(4):313–27.
  anti­asth­ma­ti­sche Wir­kung, Hem­mung der Hist­amin­frei­set­zung

Maha­jan SG, Meh­ta AA.
Inhi­bi­to­ry Action of Etha­no­lic Extract of Seeds of Morin­ga olei­fe­ra Lam. On Sys­temic and Local Ana­phy­la­xis.
J Immu­no­to­xi­col. 2007 Oct;4(4):287–94.
  Ver­wen­dung bei all­er­gi­schen Erkran­kun­gen

Maha­jan SG, Mali RG, Meh­ta AA.
Effect of Morin­ga olei­fe­ra Lam. seed extract on tolue­ne diiso­cya­na­te-indu­ced immu­ne-media­ted inflamma­to­ry respon­ses in rats.
J Immu­no­to­xi­col. 2007 Apr;4(2):85–96.
  Wir­kung gegen immun­ver­mit­tel­te Ent­zün­dungs­re­ak­tio­nen die bei Asth­ma typisch sind

Maha­jan SG, Mali RG, Meh­ta AA.
Pro­tec­tive Effect of Etha­no­lic Extract of Seeds of Morin­ga olei­fe­ra Lam. Against Inflamma­ti­on Asso­cia­ted with Deve­lop­ment of Arthri­tis in Rats.
J Immu­no­to­xi­col. 2007 Jan;4(1):39–47.
  anti­ent­zünd­li­che Wir­kung, Arthri­tis

Maha­jan SG, Meh­ta AA.
Effect of Morin­ga olei­fe­ra Lam. seed extract on oval­bu­min-indu­ced air­way inflamma­ti­on in gui­nea pigs.
Inhal Toxi­col. 2008 Aug;20(10):897–909.
  Behand­lung von all­er­gi­schen Erkran­kun­gen wie Asth­ma

Agra­wal B, Meh­ta A.
Anti­asth­ma­tic activi­ty of Morin­ga olei­fe­ra Lam: A cli­ni­cal stu­dy.
Indi­an J Phar­ma­col. 2008 Jan;40(1):28–31.
 Behand­lung von Bron­chi­al­asth­ma

Kat­re UV, Suresh CG, Khan MI, Gaik­wad SM.
Struc­tu­re-activi­ty rela­ti­ons­hip of a hem­ag­glu­ti­nin from Morin­ga olei­fe­ra seeds.
Int J Biol Macro­mol. 2008 Mar 1;42(2):203–7. Epub 2007 Nov 4.
  Zusam­men­bal­lung roter Blut­kör­per­chen

Gupta R, Dubey DK, Kann­an GM, Flo­ra SJ.
Con­co­mitant admi­nis­tra­ti­on of Morin­ga olei­fe­ra seed powder in the reme­dia­ti­on of arse­nic-indu­ced oxi­da­ti­ve stress in mou­se.
Cell Biol Int. 2007 Jan;31(1):44–56. Epub 2006 Sep 15.
Ein­satz bei der Behand­lung einer Arsen­be­las­tung bzw. Ver­gif­tung des Men­schen

Chuang PH et al.
Anti-fun­gal activi­ty of cru­de extracts and essen­ti­al oil of Morin­ga olei­fe­ra Lam..
Bio­re­sour Tech­nol. 2007 Jan;98(1):232–6. Epub 2006 Jan 6.
  Anti-Pilz-Akti­vi­tät von Roh­ex­trak­ten und äthe­ri­schen Ölen

Gupta R, Kann­an GM, Shar­ma M, S Flo­ra SJ.
The­ra­peutic effects of Morin­ga olei­fe­ra on arse­nic-indu­ced toxi­ci­ty in rats.
Envi­ron Toxi­col Phar­ma­col. 2005 Nov;20(3):456–64.
 Schutz von Tie­ren vor Arsen-indu­zier­tem oxi­da­ti­vem Stress, Che­latthe­ra­pie

Mandloi M, Chaud­ha­ri S, Folk­ard GK.
Eva­lua­ti­on of natu­ral coagu­lants for direct fil­tra­ti­on.
Envi­ron Tech­nol. 2004 Apr;25(4):481–9.
  Ana­ly­se, anti­oxi­da­ti­ve Wir­kung

Gue­va­ra AP et al.
An anti­tu­mor pro­mo­ter from Morin­ga olei­fe­ra Lam..
Mutat Res. 1999 Apr 6;440(2):181–8.
  Ana­ly­se, chemo­prä­ven­ti­ves Poten­ti­al

Fai­zi S et al.
Hypo­ten­si­ve con­sti­tu­ents from the pods of Morin­ga olei­fe­ra.
Plan­ta Med. 1998 Apr;64(3):225–8.
  blut­druck­sen­ken­de Wir­kung

Cáce­res A et al.
Phar­ma­co­lo­gic pro­per­ties of Morin­ga olei­fe­ra. 2: Scree­ning for antis­pas­mo­dic, anti­in­flamma­to­ry and diuretic activi­ty.
J Eth­no­phar­ma­col. 1992 Jun;36(3):233–7.
  /   phar­ma­ko­lo­gi­sche Akti­vi­tä­ten der ver­schie­de­nen Pflan­zen­tei­le

Vil­la­sen­or IM, Lim-Syl­i­an­co CY, Day­rit F.
Muta­gens from roas­ted seeds of Morin­ga olei­fe­ra.
Mutat Res. 1989 Oct;224(2):209–12.
 Muta­ge­ne in gerös­te­ten Samen

Cáce­res A et al.
Phar­ma­co­lo­gi­cal pro­per­ties of Morin­ga olei­fe­ra. 1: Preli­mi­na­ry scree­ning for anti­mi­cro­bi­al activi­ty.
J Eth­no­phar­ma­col. 1991 Jul;33(3):213–6.
  /    anti­mi­kro­bi­el­le Akti­vi­tät

Eilert U, Wol­ters B, Nahr­stedt A.
The anti­bio­tic princip­le of seeds of Morin­ga olei­fe­ra and Morin­ga sten­o­pe­ta­la.
Plan­ta Med. 1981 May;42(1):55–61. No abs­tract avail­abl,.
  anti­bio­ti­sche Eigen­schaf­ten

Morin­ga-Samen­öl

Fin­zi-Quin­tão CM, Melo TMS, Ber­nar­des-Sil­va AC, Novack KM.
Morin­ga olei­fe­ra oil influ­ence on bio­de­gra­da­ti­on beha­viour of poly­mers.
Envi­ron Tech­nol. 2018 Sep 26:1–29.
   Eig­nung als Bestand­teil von Lebens­mit­tel­beu­teln wie Markt­plas­tik­ta­schen

A M Hassan F et al.
Pro­duc­tion of Healt­hy Func­tio­nal Soft White Cheese Using Morin­ga olei­fe­ra Oil.
Pak J Biol Sci. 2018 Jan;21(8):394–400.
 Her­stel­lung von Weich­kä­se mit Morin­ga-Öl, Ver­bes­se­rung des Geschmacks und der Halt­bar­keit

Pre­mi M, Shar­ma HK.
Effect of dif­fe­rent com­bi­na­ti­ons of mal­to­d­ex­trin, gum ara­bic and whey pro­te­in con­cen­tra­te on the encap­su­la­ti­on beha­vi­or and oxi­da­ti­ve sta­bi­li­ty of spray dried drum­stick (Morin­ga olei­fe­ra) oil.
Int J Biol Macro­mol. 2017 Dec;105(Pt 1):1232–1240.
 physi­ka­li­sche Eigen­schaf­ten von ver­kap­sel­tem und sprüh­ge­trock­ne­tem Morin­ga-Öl

Fin­zi-Quin­tão CM et al.
Bio­de­gra­da­ti­on of Morin­ga oleifera’s poly­mer blends.
Envi­ron Tech­nol. 2017 Nov 10:1–10.
  Ein­satz als Bio­po­ly­mer

Ras­he­dul HK et al.
Attempts to mini­mi­ze nitro­gen oxi­de emis­si­on from die­sel engi­ne by using anti­oxi­dant-trea­ted die­sel-bio­die­sel blend.
Envi­ron Sci Pol­lut Res Int. 2017 Apr;24(10):9305–9313.
alter­na­ti­ve Kraft­stof­fe, Eig­nung als Bio­die­sel

Aba­rik­wu SO et al.
Oral admi­nis­tra­ti­on of Morin­ga olei­fe­ra oil but not coco­nut oil pre­vents mer­cu­ry-indu­ced testi­cu­lar toxi­ci­ty in rats.
Andro­lo­gia. 2017 Feb;49(1).
 anti­oxi­da­ti­ve Akti­vi­tät, Queck­sil­ber-indu­zier­te Hoden­to­xi­zi­tät, Sper­mi­en­qua­li­tät

Abd-Rabou AA et al.
Nano-Mic­el­le of Morin­ga Olei­fe­ra Seed Oil Trig­gers Mito­chon­dri­al Can­cer Cell Apo­pto­sis.
Asi­an Pac J Can­cer Prev. 2016 Nov 1;17(11):4929–4933.
  mito­chon­dria­le Apo­pto­se bei Krebs

Aba­rik­wu SO et al.
Pro­tec­tive effect of Morin­ga olei­fe­ra oil against HgCl2-indu­ced hepa­to- and nephro-toxi­ci­ty in rats.
J Basic Clin Phy­si­ol Phar­ma­col. 2017 Jul 26;28(4):337–345.
  oxi­da­ti­ver Stress, Schutz­wir­kung gegen Queck­sil­ber­chlo­rid (HgCl2) indu­zier­ter Hepa­to- und Nephro­to­xi­zi­tät (Leber und Nie­re)

Leo­ne A et al.
Morin­ga olei­fe­ra Seeds and Oil: Cha­rac­te­ris­tics and Uses for Human Health.
Int J Mol Sci. 2016 Dec 20;17(12). pii: E2141.
   Ana­ly­se der Samen und des Öls, Ein­satz der Morin­ga-Samen und des -Öls in der tra­di­tio­nel­len Medi­zin

Nade­em M, Imran M.
Pro­mi­sing fea­tures of Morin­ga olei­fe­ra oil: recent updates and per­spec­tives.
Lipids Health Dis. 2016 Dec 8;15(1):212. Review.
   ther­mo- und oxi­da­ti­ve Sta­bi­li­tät des Öls, Fett­säu­ren­pro­fil, indus­tri­el­le Anwen­dun­gen

Nanssou Kou­teu PA et al.
Lipa­se Activi­ty of Tro­pi­cal Oil­seed Plants for Ethyl Bio­die­sel Syn­the­sis and Their Typo- and Regio­selec­tivi­ty.
J Agric Food Chem. 2016 Nov 23;64(46):8838–8847. Epub 2016 Nov 8.
   Bio­die­sel, Lipa­se­ak­ti­vi­tät

Mat Yusoff M et al.
Aqueous enzy­ma­tic extrac­tion of Morin­ga olei­fe­ra oil.
Food Chem. 2016 Nov 15;211:400–8.
  wäss­rig-enzy­ma­ti­sche Extrak­ti­on von Morin­ga-Öl

Onyishi IV, Chi­me SA, Ogu­dieg­wu EO.
For­mu­la­ti­on of novel sustai­ned release rif­am­pi­cin-loa­ded solid lipid micro­par­ti­cles based on struc­tu­red lipid matri­ces from Morin­ga olei­fe­ra.
Pharm Dev Tech­nol. 2015;20(5):546–54.
  For­mu­lie­rung von Rif­am­pi­cin-bela­de­nen fes­ten Lipid-Mikro­par­ti­keln (SLMs) zur Behand­lung von Tuber­ko­lo­se

Avi­a­ra NA et al.
Effect of pro­ces­sing con­di­ti­ons on oil point pres­su­re of morin­ga olei­fe­ra seed.
J Food Sci Tech­nol. 2015 Jul;52(7):4499–506.
   Ver­ar­bei­tung des Pflan­zen­öls (Feuch­tig­keits­ge­halt, Wär­me­be­hand­lung, Press­druck)

Sán­chez-Mach­a­do DI et al.
Effect of the refi­ning pro­cess on Morin­ga olei­fe­ra seed oil qua­li­ty.
Food Chem. 2015 Nov 15;187:53–7.
   Oxi­da­ti­ons­sta­bi­li­tät, Raf­fi­na­ti­on

Dol­lah S et al.
Phy­si­co­che­mi­cal pro­per­ties and poten­ti­al food app­li­ca­ti­ons of Morin­ga olei­fe­ra seed oil blen­ded with other vege­ta­ble oils.
J Oleo Sci. 2014;63(8):811–22. Epub 2014 Jul 8.
 Ölmi­schung mit Palmo­lein, Palm­ste­arin, Palm­kern­öl und Kokos­nuss­öl (VCO)

Ogun­si­na BS et al.
Qua­li­ty cha­rac­te­ris­tics and sta­bi­li­ty of Morin­ga olei­fe­ra seed oil of Indi­an ori­gin.
J Food Sci Tech­nol. 2014 Mar;51(3):503–10.
     Qua­li­täts­merk­ma­le und Sta­bi­li­tät im Ver­gleich zu Erd­nuss­öl

Al-Said MS et al.
Edi­ble oils for liver pro­tec­tion: hepa­to­pro­tec­tive poten­tia­li­ty of Morin­ga olei­fe­ra seed oil against che­mi­cal-indu­ced hepa­ti­tis in rats.
J Food Sci. 2012 Jul;77(7):T124-30.
 leber­schüt­zen­de und anti­oxi­da­ti­ve Wir­kung

Baner­ji R, Bajpai A, Ver­ma SC.
Oil and fat­ty acid diver­si­ty in gene­ti­cal­ly varia­ble clo­nes of Morin­ga olei­fe­ra from India.
J Oleo Sci. 2009;58(1):9–16.
   Ana­ly­se des Samen­öls

Rashid U, Anwar F, Moser BR, Kno­t­he G.
Morin­ga olei­fe­ra oil: a pos­si­ble source of bio­die­sel.
Bio­re­sour Tech­nol. 2008 Nov;99(17):8175–9.
 Eig­nung als Roh­stoff für Bio­die­sel

Anwar F, Bhan­ger MI.
Ana­ly­ti­cal cha­rac­te­ri­za­ti­on of Morin­ga olei­fe­ra seed oil grown in tem­pe­ra­te regi­ons of Paki­stan.
J Agric Food Chem. 2003 Oct 22;51(22):6558–63.
   Ana­ly­se des Samen­öls

Vla­hov G, Chepkw­o­ny PK, Nda­lut PK.
(13)C NMR cha­rac­te­ri­za­ti­on of tri­a­cyl­gly­ce­rols of Morin­ga olei­fe­ra seed oil: an “oleic-vac­ce­nic acid” oil.
J Agric Food Chem. 2002 Feb 27;50(5):970–5.
   Ana­ly­se des Samen­öls

Tsa­k­nis J et al.
Cha­rac­te­ri­za­ti­on of Morin­ga olei­fe­ra varie­ty Mbo­lo­lo seed oil of Kenya.
J Agric Food Chem. 1999 Nov;47(11):4495–9.
   Ana­ly­se des Samen­öls

Trink­was­ser-, Was­ser- und Abwas­ser­be­hand­lung mit den Samen

Begrif­fe die häu­fig ver­wen­det wer­den:

Koagu­la­ti­on, Koagulans: Auf­be­rei­tung der Samen mit dem Zweck, die elek­tri­schen Absto­ßungs­kräf­te zwi­schen den Teil­chen auf­zu­he­ben.
Flo­ckung (floc­cu­la­ti­on), Flo­ckungs­mit­tel: Durch die Koagu­la­ti­on kön­nen sich die im ver­schmutz­ten Was­ser feinst­ver­teil­ten (kol­lo­ida­le) Schad-, Fremd-, oder Trüb­stof­fe zusam­men­la­gern — das bedeu­tet in grö­ße­re “Flo­cken” über­führt wer­den (Agglo­me­ra­ti­on).

Peco­ra HB, Dilar­ri G, Men­des CR, Cor­so CR.
Bio­as­says and coagu­la­ti­on stu­dies using Morin­ga olei­fe­ra seeds for the remo­val of tex­ti­le dyes.
Water Sci Tech­nol. 2018 Nov;78(8):1679–1692. doi: 10.2166/wst.2018.446.
Samen­pul­ver, Was­ser­rei­ni­gung, Ent­fer­nung von Tex­til­farb­stof­fen, Öko­to­xi­ko­lo­gie

Jung Y, Jung Y, Kwon M, Kye H, Abrha YW, Kang JW.
Eva­lua­ti­on of Morin­ga olei­fe­ra seed extract by extrac­tion time: effect on coagu­la­ti­on effi­ci­en­cy and extract cha­rac­te­ris­tic.
J Water Health. 2018 Dec;16(6):904–913. doi: 10.2166/wh.2018.078.
  Erfor­schung der Koagu­la­ti­ons­ak­ti­vi­tät 

Shira­ni Z, San­thosh C, Iqbal J, Bhat­na­gar A.
Was­te Morin­ga olei­fe­ra seed pods as green sor­bent for effi­ci­ent remo­val of toxic aqua­tic pol­lut­ants.
J Envi­ron Mana­ge. 2018 Dec 1;227:95–106.
 Samen­hül­sen­pul­ver (aus den Kap­seln) zur Ent­fer­nung von toxi­schen Was­ser­schad­stof­fen

Nou­reen A et al.
Ame­lio­ra­ti­ve effects of Morin­ga olei­fe­ra on cop­per nano­par­ti­cle indu­ced toxi­ci­ty in Cypri­nus car­pio asses­sed by his­to­lo­gy and oxi­da­ti­ve stress mar­kers.
Nano­tech­no­lo­gy. 2018 Nov 16;29(46):464003.
   Samen­ex­trakt zur Redu­zie­rung der Neben­wir­kun­gen von Kup­fer-Nano­par­ti­keln

Mateus GAP et al.
Eva­lua­ti­on of a magne­tic coagu­lant based on Fe3O4 nano­par­ti­cles and Morin­ga olei­fe­ra extract on tar­t­ra­zi­ne remo­val: coagu­la­ti­on-adsorp­ti­on and kine­tics stu­dies.
Envi­ron Tech­nol. 2018 Nov 1:1–16.
   Ent­fer­nung von Tar­t­ra­zin (ein syn­the­ti­scher Azo­farb­stoff)

Oteng-Peprah M, Acheam­pong MA, deVries NK.
Grey­wa­ter Cha­rac­te­ris­tics, Tre­at­ment Sys­tems, Reu­se Stra­te­gies and User Per­cep­ti­on-a Review.
Water Air Soil Pol­lut. 2018;229(8):255.
   Ent­fer­nung von Schad­stof­fen aus Grau­was­ser (gering ver­schmutz­tes Abwas­ser, wie es etwa im Haus­halt beim Duschen, Baden, oder Wäsche waschen anfällt)

Vis­ha­li S, Roshi­ni SK, Samyuk­tha MR, Ashish An and K.
Towards zero was­te pro­duc­tion in the paint indus­try was­te­wa­ter using an agro-based mate­ri­al in the tre­at­ment train.
Envi­ron Monit Assess. 2018 Sep 14;190(10):587.
   Alter­na­ti­ve für che­mi­sche Koagu­lan­ti­en bei Abwäs­sern der Farb­in­dus­trie

Bar­bo­sa AD et al.
Com­bi­ned use of coagu­la­ti­on (M. olei­fe­ra) and elec­tro­che­mi­cal tech­ni­ques in the tre­at­ment of indus­tri­al paint was­te­wa­ter for reu­se and/or dis­po­sal.
Water Res. 2018 Aug 13;145:153–161.
   Was­ser­rei­ni­gung, Behand­lung von Indus­trie­ab­was­ser zur Wie­der­ver­wen­dung und / oder Ent­sor­gung

Wil­liams FE, Lee AK, Oran­di S, Lewis DM.
Anti­bac­te­ri­al action of func­tio­nal sili­con dioxi­de: an inves­ti­ga­ti­on of the attach­ment and sepa­ra­ti­on of bac­te­ria.
Envi­ron Tech­nol. 2018 Aug 24:1–8.
   Samen, bak­te­ri­zi­de Pro­te­ine zur Ent­fer­nung von Bak­te­ri­en aus kon­ta­mi­nier­tem Was­ser

Priya T, Taraf­dar A, Gupta B, Mishra BK.
Effect of bio­floc­cu­lants on the coagu­la­ti­on activi­ty of alum for remo­val of tri­ha­lo­me­tha­ne pre­cur­sors from low tur­bid water.
J Envi­ron Sci (Chi­na). 2018 Aug;70:1–10.
  Ent­fer­nung von Tri­ha­lo­gen­me­than-Vor­stu­fen aus chlo­rier­tem Was­ser

Bezer­ra CO et al.
Assess­ment of the use of Morin­ga olei­fe­ra seed husks for remo­val of pesti­ci­de diuron from con­ta­mi­na­ted water.
Envi­ron Tech­nol. 2018 Jun 22:1–37.
  Ver­wen­dung der Samen­scha­len zur Ent­fer­nung von Pes­ti­zi­den

Pai­xão RM et al.
Water decon­ta­mi­na­ti­on con­tai­ning nitra­te using bio­sorp­ti­on with Morin­ga olei­fe­ra in dyna­mic mode.
Envi­ron Sci Pol­lut Res Int. 2018 May 20.
  Bio­sorp­ti­on von Nitrat in einer wäss­ri­gen Lösung

Nord­mark BA et al.
Morin­ga olei­fe­ra Seed Pro­te­in Adsorp­ti­on to Sili­ca: Effects of Water Hard­ness, Frac­tio­na­ti­on, and Fat­ty Acid Extrac­tion.
Lang­muir. 2018 Apr 24;34(16):4852–4860.
  Ent­wick­lung eines Was­ser­rei­ni­gungs­ge­rä­tes für Ent­wick­lungs­län­der

Formen­ti­ni-Schmitt DM et al.
Poten­ti­al of the Morin­ga olei­fe­ra sali­ne extract for the tre­at­ment of dai­ry was­te­wa­ter: app­li­ca­ti­on of the respon­se sur­face metho­do­lo­gy.
Envi­ron Tech­nol. 2018 Mar 2:1–10.
  Behand­lung von Milch­ab­was­ser aus einer Mol­ke­rei

Ngan­djui Tch­an­goue YA et al.
Use of Morin­ga olei­fe­ra seed extracts to polish efflu­ents from natu­ral sys­tems trea­ting fae­cal sludge.
Envi­ron Tech­nol. 2018 Feb 15:1–9.
  Ent­fer­nung von Krank­heits­er­re­gern in Abwas­ser

Bou­la­ad­joul S, et al.
A novel use of Morin­ga olei­fe­ra seed powder in enhan­cing the pri­ma­ry tre­at­ment of paper mill efflu­ent.
Che­mo­s­phe­re. 2018 May 2;206:142–149.
Samenpulver

Nouhi S et al.
Sti­cking par­ti­cles to solid sur­faces using Morin­ga olei­fe­ra pro­te­ins as a glue.
Col­lo­ids Surf B Bio­in­ter­faces. 2018 Jan 8. pii: S0927-7765(18)30004–3.
  Pote­in­ex­trakt / Was­ser­fil­ter

Frei­ta CM et al.
Bio­etha­nol pro­duc­tion with dif­fe­rent dosa­ges of the com­mer­ci­al Acryl­ami­de poly­mer com­pa­red to a Bio­ex­tract in cla­ri­fy­ing sug­arca­ne juice.
An Acad Bras Cienc. 2017 Oct-Dec;89(4):3093–3102.
  Klä­rung Zucker­rohr­saft

M. Dimut­hu Nilmi­ni Wijeya­rat­ne, Suven­dran Sub­an­ky
Assess­ment of the Effi­cacy of Home Reme­di­al Methods to Impro­ve Drin­king Water Qua­li­ty in Two Major Aqui­fer Sys­tems in Jaff­na Pen­in­su­la, Sri Lan­ka
Sci­en­ti­fi­ca (Cai­ro) 2017; 2017: 9478589. Published online 2017 Oct 18. doi: 10.1155/2017/9478589
 Fil­tra­ti­on mit Morin­ga olei­fe­ra -Blatt­pul­ver, Ver­bes­se­rung der Was­ser­qua­li­tät von häus­li­chen Brun­nen, Reduk­ti­on von Nitrat

Wil­liams FE et al.
Morin­ga olei­fe­ra func­tio­na­li­sed sand — reu­se with non-ionic sur­fac­tant dode­cyl glu­co­si­de.
J Water Health. 2017 Oct;15(6):863–872.
  bak­te­ri­el­le Kon­ta­mi­na­ti­on

Sil­vei­ra C, Shi­ma­bu­ku QL, Fer­nan­des Sil­va M, Berg­a­mas­co R.
Iron-oxi­de nano­par­ti­cles by the green syn­the­sis method using Morin­ga olei­fe­ra leaf extract for fluo­ri­de remo­val.
Envi­ron Tech­nol. 2017 Sep 6:1–11.
  Ent­fer­nung von Fluo­r­idio­nen in Was­ser

Abd Wahid MA et al.
Recom­bi­nant pro­te­in expres­si­on of Morin­ga olei­fe­ra lec­tin in methy­lo­tro­phic yeast as active coagu­lant for sustain­ab­le high tur­bid water tre­at­ment.
Bio­sci Bio­tech­nol Bio­chem. 2017 Aug;81(8):1642–1649.
  Behand­lung von stark getrüb­tem Was­ser

Bril­han­te RSN et al.
Rese­arch advan­ces on the mul­ti­ple uses of Morin­ga olei­fe­ra: A sustain­ab­le alter­na­ti­ve for soci­al­ly neglec­ted popu­la­ti­on.
Asi­an Pac J Trop Med. 2017 Jul;10(7):621–630.
  öko­lo­gi­sche und sozia­le Aspek­te

Losi­to F et al.
Field App­li­ca­ti­on of the Micro Bio­lo­gi­cal Sur­vey Method for the Assess­ment of the Micro­bio­lo­gi­cal Safe­ty of Dif­fe­rent Water Sources in Horn of Afri­ca and the Eva­lua­ti­on of the Effec­tiveness of Morin­ga Olei­fe­ra in Drin­king Water Puri­fi­ca­ti­on.
J Public Health Afr. 2017 Jul 3;8(1):679.
  /    Wirk­sam­keit der Trink­was­ser­auf­be­rei­tung, Ver­hü­tung von was­ser­be­ding­ten Krank­hei­ten in Ent­wick­lungs­län­dern

Kap­se G, Pato­liya P, Samad­der SR.
Cha­rac­te­ri­sa­ti­on of coal was­he­ry efflu­ent and opti­mi­sa­ti­on of coagu­la­ti­on beha­viour of Morin­ga olei­fe­ra seed as a coagu­lant.
Envi­ron Monit Assess. 2017 Mar;189(3):133.
  Behand­lung von Abwas­ser aus einer Koh­le­auf­be­rei­tungs­an­la­ge

Pra­ma­nik BK et al.
Effect of bio­lo­gi­cal and coagu­la­ti­on pre-tre­at­ments to con­trol orga­nic and bio­fou­ling poten­ti­al com­pon­ents of ultra­fil­tra­ti­on mem­bra­ne in the tre­at­ment of lake water.
Envi­ron Tech­nol. 2017 Mar;38(5):579–587.
  Rei­ni­gung von See­was­ser

Tava­res FO et al.
Envi­ron­ment­al­ly fri­end­ly bio­sorb­ents (husks, pods and seeds) from Morin­ga olei­fe­ra for Pb(II) remo­val from con­ta­mi­na­ted water.
Envi­ron Tech­nol. 2017 Dec;38(24):3145–3155.
  Reduk­ti­on von Blei

Gar­de WK, Buch­ber­ger SG, Wen­dell D, Kup­fer­le MJ.
App­li­ca­ti­on of Morin­ga Olei­fe­ra seed extract to tre­at cof­fee fer­men­ta­ti­on was­te­wa­ter.
J Hazard Mater. 2017 May 5;329:102–109.
  Behand­lung von Kaf­fee-Fer­men­ta­ti­ons­ab­was­ser.

Frei­tas JH et al.
Eva­lua­ti­on of Morin­ga olei­fe­ra Seed Lec­tin as a Metal Remo­ver in Aqueous Solu­ti­ons.
Pro­te­in Pept Lett. 2016;23(7):645–9.
  Samen­lek­tin zur Ent­fer­nung und Metal­len aus Was­ser

Frei­tas JHES, de Santa­na KV et al.
Eva­lua­ti­on of using alu­mi­num sul­fa­te and water-solub­le Morin­ga olei­fe­ra seed lec­tin to redu­ce tur­bi­di­ty and toxi­ci­ty of pol­lu­t­ed stream water.
Che­mo­s­phe­re. 2016 Nov;163:133–141.
  Was­ser­rei­nigz­bg durch Morin­ga-Lek­tin

Bede­kar PA, Bhal­kar BN, Patil SM, Gov­ind­war SP, Morin­ga olei­fe­ra-media­ted coagu­la­ti­on of tex­ti­le was­te­wa­ter and its bio­de­gra­da­ti­on using novel con­sor­ti­um-BBA grown on agri­cul­tu­ral was­te sub­stra­tum.
Envi­ron Sci Pol­lut Res Int. 2016 Oct;23(20):20963–20976. Epub 2016 Aug 3.
  bio­lo­gi­scher Abbau von Tex­til­ab­was­ser

de Mou­ra KS et al.
Coagu­lant Activi­ty of Water-Solub­le Morin­ga olei­fe­ra Lec­tin Is Lin­ked to Lowering of Elec­tri­cal Resis­tan­ce and Inhi­bi­ted by Monosac­chari­des and Magne­si­um Ions.
Appl Bio­chem Bio­tech­nol. 2016 Dec;180(7):1361–1371. Epub 2016 Jun 28.
  koagu­lie­ren­de Akti­vi­tät des was­ser­lös­li­chen Lek­tins

Frei­tas JH et al.
Eva­lua­ti­on of Morin­ga olei­fe­ra Seed Lec­tin as a Metal Remo­ver in Aqueous Solu­ti­ons.
Pro­te­in Pept Lett. 2016;23(7):645–9.
  Ent­fer­nung von Metal­len

Gold M et al.
Local­ly pro­du­ced natu­ral con­di­tio­ners for dewa­te­ring of fae­cal sludge.
Envi­ron Tech­nol. 2016 Nov;37(21):2802–14.
  Ent­wäs­se­rung von Fäkal­schlamm

San­tos TR et al.
Erra­tum to: Deve­lop­ment of a magne­tic coagu­lant based on Morin­ga olei­fe­ra seed extract for water tre­at­ment.
Envi­ron Sci Pol­lut Res Int. 2016 Apr;23(8):7701.
  Ent­wick­lung eines Koagulans basie­rend auf Morin­ga olei­fe­ra Samen­ex­trakt zur Was­ser­be­hand­lung

Pra­ma­nik BK, Pra­ma­nik SK, Suja F, Remo­val of arse­nic and iron remo­val from drin­king water using coagu­la­ti­on and bio­lo­gi­cal tre­at­ment.
J Water Health. 2016 Feb;14(1):90–6.
  Ent­fer­nung von Arsen und Eisen

San­tos TR et al.
Deve­lop­ment of a magne­tic coagu­lant based on Morin­ga olei­fe­ra seed extract for water tre­at­ment.
Envi­ron Sci Pol­lut Res Int. 2016 Apr;23(8):7692–700.
  Ent­wick­lung eines Koagulans zur Was­ser­be­hand­lung

Bar­ra­do-More­no MM, Bel­tran-Her­e­dia J, Mar­tín-Gall­ar­do J.
Micro­al­gae remo­val with Morin­ga olei­fe­ra.
Toxi­con. 2016 Feb;110:68–73.
  Reduk­ti­on der Algen­bil­dung

Sala­zar Gámez LL, Luna-del­Ris­co M, Cano RE.
Com­pa­ra­ti­ve stu­dy bet­ween M. olei­fe­ra and alu­mi­num sul­fa­te for water tre­at­ment: case stu­dy Colom­bia.
Envi­ron Monit Assess. 2015 Oct;187(10):668.
  Ver­gleich von Morin­ga-Samen olei­fe­ra und Alu­mi­ni­um­sul­fat zur Was­ser­be­hand­lung

San­tos AF et al.
Remo­val of tetra­cy­cli­ne from con­ta­mi­na­ted water by Morin­ga olei­fe­ra seed pre­pa­ra­ti­ons.
Envi­ron Tech­nol. 2016;37(6):744–51.
  Ent­fer­nung von Tetra­cy­clin aus kon­ta­mi­nier­tem Was­ser

Pra­ma­nik BK, Pra­ma­nik SK, Suja F.
A com­pa­ra­ti­ve stu­dy of coagu­la­ti­on, gra­nu­lar- and powde­red-activa­ted car­bon for the remo­val of per­fluo­rooc­ta­ne sul­fo­na­te and per­fluo­rooc­t­a­no­a­te in drin­king water tre­at­ment.
Envi­ron Tech­nol. 2015;36(20):2610–7.
  Trink­was­ser­auf­be­rei­tung

de Car­val­ho HP et al.
Remo­val of Acid Black 1 and Basic Red 2 from aqueous solu­ti­ons by electrocoagulation/Moringa olei­fe­ra seed adsorp­ti­on cou­pling in a batch sys­tem.
Water Sci Tech­nol. 2015;72(2):203–13.
  Ent­fär­bung von Farb­stof­fen

Kwaamb­wa HM, Hell­sing MS, Ren­nie AR, Bar­ker R.
Inter­ac­tion of Morin­ga olei­fe­ra seed pro­te­in with a mine­ral sur­face and the influ­ence of sur­fac­tants.
J Col­lo­id Inter­face Sci. 2015 Jun 15;448:339–46.
  Samen­pro­te­in, Ten­s­id

Li L, Zhang H, Pan G.
Influ­ence of zeta poten­ti­al on the floc­cu­la­ti­on of cya­no­bac­te­ria cells using chi­to­san modi­fied soil.
J Envi­ron Sci (Chi­na). 2015 Feb 1;28:47–53.
  Bekämp­fung von Cya­no­bak­te­ri­en­blü­ten

Bon­gio­va­ni MC et al.
Impro­ve­ment of the coagulation/flocculation pro­cess using a com­bi­na­ti­on of Morin­ga olei­fe­ra lam with anio­nic poly­mer in water tre­at­ment.
Envi­ron Tech­nol. 2014 Sep-Oct;35(17–20):2227–36.
  Wirk­sam­keit als Koagu­la­ti­ons­mit­tel, Was­ser­rei­ni­gung von Roh­was­ser aus einem Fluss­be­cken

Vilase­ca M, López-Grimau V, Gutiér­rez-Bou­zán C.
Valo­ri­za­ti­on of Was­te Obtai­ned from Oil Extrac­tion in Morin­ga Olei­fe­ra Seeds: Coagu­la­ti­on of Reac­tive Dyes in Tex­ti­le Efflu­ents.
Mate­ri­als (Basel). 2014 Sep 12;7(9):6569–6584.
  Öltres­ter zur Trink­was­ser­klä­rung oder Abwas­ser­be­hand­lung

Lea M.
Bio­re­me­dia­ti­on of Tur­bid Sur­face Water Using Seed Extract from the Morin­ga olei­fe­ra Lam. (Drum­stick) Tre.
Curr Pro­toc Micro­bi­ol. 2014 May 1;33:1G.2.1–8.
  Rei­ni­gung von trü­ben Öber­flä­chen­was­ser

Akrem A et al.
Preli­mi­na­ry crystal­lo­gra­phic ana­ly­sis of a cru­ci­fe­rin pro­te­in from seeds of Morin­ga olei­fe­ra.
Pro­te­in J. 2014 Jun;33(3):253–7.
  Ana­ly­se eines Cru­ci­fe­rin­pro­te­ins aus den Samen 

Al-Ani­zi AA, Hel­ly­er MT, Zhang D.
Toxi­ci­ty assess­ment and model­ling of Morin­ga olei­fe­ra seeds in water puri­fi­ca­ti­on by who­le cell bio­re­por­ter.
Water Res. 2014 Jun 1;56:77–87.
  Toxi­zi­täts­be­wer­tung

Kan­sal SK, Kuma­ri A.
Poten­ti­al of M. olei­fe­ra for the tre­at­ment of water and was­te­wa­ter.
Chem Rev. 2014 May 14;114(9):4993–5010.
  /    Bewer­tung von M. olei­fe­ra als nach­hal­ti­ges Mit­tel für die Was­ser- und Abwas­ser­be­hand­lung,

Meneg­hel AP et al.
Stu­dies of Pb2+ adsorp­ti­on by Morin­ga olei­fe­ra Lam. seeds from an aqueous medi­um in a batch sys­tem.
Water Sci Tech­nol. 2014;69(1):163–9.
  Ent­fer­nung von Bleiio­nen, Ver­gleich mit Aktiv­koh­le

Oko­li C et al.
In sili­co mode­ling and expe­ri­men­tal evi­dence of coagu­lant pro­te­in inter­ac­tion with pre­cur­sors for nano­par­ti­cle func­tio­na­li­za­ti­on.
J Bio­mol Struct Dyn. 2013 Oct;31(10):1182–90.
  

Luz Lde A et al.
Struc­tu­ral cha­rac­te­ri­za­ti­on of coagu­lant Morin­ga olei­fe­ra Lec­tin and its effect on hemo­sta­tic para­me­ters.
Int J Biol Macro­mol. 2013 Jul;58:31–6.
  Struk­tu­rel­le Unter­su­chun­gen der Lek­ti­ne

Li L, Pan G.
A uni­ver­sal method for floc­cu­la­ting harm­ful algal blooms in mari­ne and fresh waters using modi­fied sand.
Envi­ron Sci Tech­nol. 2013 May 7;47(9):4555–62.
  Reduk­ti­on von Algen­blü­ten (HAB) in Meer- und Süß­was­ser

Fitria D, Scholz M, Swift GM.
Impact of dif­fe­rent shapes and types of mixers on sludge dewa­te­ra­bi­li­ty.
Envi­ron Tech­nol. 2013 Mar-Apr;34(5–8):931–6.
  Ein­satz in einer Klär­an­la­ge um die Betriebs­kos­ten zu sen­ken

Lak­sh­man­an R et al.
Effect of magne­tic iron oxi­de nano­par­ti­cles in sur­face water tre­at­ment: trace mine­rals and micro­bes.
Bio­re­sour Tech­nol. 2013 Feb;129:612–5.
  Was­ser­auf­be­rei­tung, Ein­fluss auf Mine­ra­lio­nen und Mikro­or­ga­nis­men

Almei­da IL et al.
Remo­val of BTEX from aqueous solu­ti­on using Morin­ga olei­fe­ra seed cake.
Envi­ron Tech­nol. 2012 Jun;33(10–12):1299–305.
  Ent­fer­nung von BTEX (Ben­zol, Toluol, Ethyl­ben­zol, p-Xylol und o-Xylol) aus wäss­ri­ger Lösung mit Morin­ga olei­fe­ra-Samen­ku­chen

Viei­ra RB et al.
Sedi­men­ta­ti­on of mixed cul­tures using natu­ral coagu­lants for the tre­at­ment of efflu­ents gene­ra­ted in ter­restri­al fuel dis­tri­bu­ti­on ter­mi­nals.
J Hazard Mater. 2012 Sep 15;231–232:98–104.
  die Ver­wen­dung von natür­li­chen Koagu­lan­ti­en (Morin­ga olei­fe­ra und Chi­to­san)

Obuseng V, Nare­et­si­le F, Kwaamb­wa HM.
A stu­dy of the remo­val of hea­vy metals from aqueous solu­ti­ons by Morin­ga olei­fe­ra seeds and ami­ne-based ligand 1,4-bis[N,N-bis(2-picoyl)amino]butane.
Anal Chim Acta. 2012 Jun 12;730:87–92.
  Ent­fer­nung von Schwer­me­tal­len (Blei, Kup­fer, Cad­mi­um, Nickel und Man­gan)

Acheam­pong MA, Perei­ra JP, Meu­le­pas RJ, Lens PN.
Kine­tics model­ling of Cu(II) bio­sorp­ti­on on to coco­nut shell and Morin­ga olei­fe­ra seeds from tro­pi­cal regi­ons.
Envi­ron Tech­nol. 2012 Feb-Mar;33(4–6):409–17.
  Eig­nung als Adsorp­ti­ons­mit­tel (zum Bei­spiel zur Ent­fer­nung Schwer­me­tal­len aus Trink­was­ser)

San­tos AF et al.
Coagu­lant pro­per­ties of Morin­ga olei­fe­ra pro­te­in pre­pa­ra­ti­ons: app­li­ca­ti­on to humic acid remo­val.
Envi­ron Tech­nol. 2012 Jan-Feb;33(1–3):69–75.
  Ent­fer­nung von Humin­säu­ren aus Was­ser

Mar­ques TL, Alves VN, Coel­ho LM, Coel­ho NM.
Remo­val of Ni(II) from aqueous solu­ti­on using Morin­ga olei­fe­ra seeds as a bioad­sor­bent.
Water Sci Tech­nol. 2012;65(8):1435–40.
  Ent­fer­nung von metal­li­schen Ver­un­rei­ni­gun­gen

Sen­gupta ME et al.
Use of Morin­ga olei­fe­ra seed extracts to redu­ce hel­minth egg num­bers and tur­bi­di­ty in irri­ga­ti­on water.
Water Res. 2012 Jul;46(11):3646–56.
  Reduk­ti­on von Hel­min­then-Para­si­ten­ei­er

Kwaamb­wa HM, Ren­nie AR.
Inter­ac­tions of sur­fac­tants with a water tre­at­ment pro­te­in from Morin­ga olei­fe­ra seeds in solu­ti­on stu­di­ed by zeta-poten­ti­al and light scat­te­ring mea­su­rements.
Bio­po­ly­mers. 2012 Apr;97(4):209–18.
  Ein­fluss von klei­nen Zuga­ben Salz

Jer­ri HA et al.
Anti­mi­cro­bi­al sand via adsorp­ti­on of catio­nic Morin­ga olei­fe­ra pro­te­in.
Lang­muir. 2012 Jan 31;28(4):2262–8.
  Her­stel­lung von lager­fä­hi­gem Trink­was­ser

Alves VN, Bor­ges SS, Neto WB, Coel­ho NM.
Deter­mi­na­ti­on of low levels of lead in beer using solid-pha­se extrac­tion and detec­tion by fla­me ato­mic absorp­ti­on spec­tro­me­try.
J Autom Methods Manag Chem. 2011;2011:464102.
  Morin­ga olei­fe­ra Samen als Bio­sorp­ti­ons­ma­te­ri­al zur Bestim­mung nied­ri­ger Blei­kon­zen­tra­tio­nen in Bier­pro­ben

Gole­stan­bagh M, Aha­mad IS, Idris A, Yunus R.
Effect of sto­ra­ge of shel­led Morin­ga olei­fe­ra seeds from rea­ping time on tur­bi­di­ty remo­val.
J Water Health. 2011 Sep;9(3):597–602.
  Metho­den und Bewer­tung der Wirk­stoff­ex­trak­ti­on

Fer­rei­ra RS et al.
Coagu­lant and anti­bac­te­ri­al activi­ties of the water-solub­le seed lec­tin from Morin­ga olei­fe­ra.
Lett Appl Micro­bi­ol. 2011 Aug;53(2):186–92.
  Koagi­la­ti­ons- und anti­bak­te­ri­el­le Akti­vi­tä­ten der was­ser­lös­li­chen Samen­lec­ti­ne

Kavi­tha C, Ramesh M, Kumaran SS, Lak­sh­mi SA.
Toxi­ci­ty of Morin­ga olei­fe­ra seed extract on some hema­to­lo­gi­cal and bio­che­mi­cal pro­files in a freshwa­ter fish, Cypri­nus car­pio.
Exp Toxi­col Pathol. 2012 Nov;64(7–8):681–7.
  vToxi­ti­tät gegen­über Süß­was­ser­fi­sche

Asra­fuz­za­man M, Fakhrud­din AN, Hos­sain MA.
Reduc­tion of tur­bi­di­ty of water using local­ly avail­ab­le natu­ral coagu­lants.
ISRN Micro­bi­ol. 2011 Dec 19;2011:632189.
  Rei­ni­gung von trü­bem Was­ser mit lokal ver­füg­ba­ren natür­li­chen Koagu­lan­ti­en

Rolim LA et al.
Geno­to­xi­ci­ty eva­lua­ti­on of Morin­ga olei­fe­ra seed extract and lec­tin.
J Food Sci. 2011 Mar;76(2):T53-8.
  Samen­pul­ver, Was­ser­be­hand­lung, Ver­zehr, Risi­ko für die mensch­li­che Gesund­heit in Abhän­gig­keit der Zufüh­rung

Dama­y­an­ti A, Ujang Z, Salim MR.
The influ­en­ced of PAC, zeo­li­te, and Morin­ga olei­fe­ra as bio­fou­ling redu­cer (BFR) on hybrid mem­bra­ne bio­reac­tor of palm oil mill efflu­ent (POME).
Bio­re­sour Tech­nol. 2011 Mar;102(6):4341–6.
  Reduk­ti­on der Ansamm­lung von Mikro­or­ga­nis­men in Palm­öl­müh­len­ab­was­ser

Lür­ling M, Beek­man W.
Anti-cya­no­bac­te­ri­al activi­ty of Morin­ga olei­fe­ra seeds.
J Appl Phy­col. 2010 Aug;22(4):503–510. Epub 2009 Nov 27.
  Aus­wir­kun­gen auf das blü­ten­bil­den­de Cya­no­bak­te­ri­um Micro­cys­tis aeru­gi­no­sa

Araújo CS et al.
Cha­rac­te­ri­za­ti­on and use of Morin­ga olei­fe­ra seeds as bio­sor­bent for remo­ving metal ions from aqueous efflu­ents.
Water Sci Tech­nol. 2010;62(9):2198–203.
  Ent­fer­nung von Metal­lio­nen

Ghe­bre­mi­cha­el K, Gebre­med­hin N, Amy G.
Per­for­mance of Morin­ga olie­fe­ra as a bio­sor­bent for chro­mi­um remo­val.
Water Sci Tech­nol. 2010;62(5):1106–11.
  Ent­fer­nung von Chrom

Firth J, Bal­raj V et al.
Point-of-use inter­ven­ti­ons to decrea­se con­ta­mi­na­ti­on of drin­king water: a ran­do­mi­zed, con­trol­led pilot stu­dy on effi­cacy, effec­tiveness, and accep­ta­bi­li­ty of clo­sed con­tai­ners, Morin­ga olei­fe­ra, and in-home chlo­ri­na­ti­on in rural South India.
Am J Trop Med Hyg. 2010 May;82(5):759–65.
  Wirk­sam­keit in der Trink­was­ser­auf­be­rei­tung

Sán­chez-Mar­tín J, Ghe­bre­mi­cha­el K, Bel­trán-Her­e­dia J.
Com­pa­ri­son of sin­gle-step and two-step puri­fied coagu­lants from Morin­ga olei­fe­ra seed for tur­bi­di­ty and DOC remo­val.
Bio­re­sour Tech­nol. 2010 Aug;101(15):6259–61.
  Ver­gleich zwi­schen ein- und zwei­stu­fig gerei­nig­ten Koagu­lan­ti­en

Kwaamb­wa HM, Hell­sing M, Ren­nie AR.
Adsorp­ti­on of a water tre­at­ment pro­te­in from Morin­ga olei­fe­ra seeds to a sili­con oxi­de sur­face stu­di­ed by neu­tron reflec­tion.
Lang­muir. 2010 Mar 16;26(6):3902–10.
  Unter­su­chung der Adsorp­ti­on-Mecha­nisen des gerei­nig­ten Pro­te­ins an Sili­ci­um­di­oxid­grenz­flä­chen 

Pres­ton K, Lan­ta­gne D, Kot­larz N, Jel­li­son K.
Tur­bi­di­ty and chlo­ri­ne demand reduc­tion using alum and morin­ga floc­cu­la­ti­on befo­re hou­se­hold chlo­ri­na­ti­on in deve­lo­ping coun­tries.
J Water Health. 2010 Mar;8(1):60–70.
  Des­in­fek­ti­on von Trin­was­ser, Chlor­be­darf in Kom­bi­na­ti­on mit Morin­ga

Lea M.
Bio­re­me­dia­ti­on of tur­bid sur­face water using seed extract from Morin­ga olei­fe­ra Lam. (drum­stick) tree.
Curr Pro­toc Micro­bi­ol. 2010 Feb;Chapter 1:Unit1G.2.
  natür­li­ches Klä­rungs­mit­tel für stark trü­bes und­pa­tho­ge­nes Ober­flä­chen­was­ser

Ran­jan R, Swa­rup D, Patra RC, Chan­dra V.
Tama­rin­dus indi­ca L. and Morin­ga olei­fe­ra M. extract admi­nis­tra­ti­on ame­lio­ra­tes fluo­ri­de toxi­ci­ty in rab­bits.
Indi­an J Exp Biol. 2009 Nov;47(11):900–5.
  Trin­ken von fluo­rier­tem Trink­was­ser, Min­de­rung der Fluo­rid­toxi­zi­tät

Jeon JR et al.
Use of grape seed and its natu­ral poly­phe­nol extracts as a natu­ral orga­nic coagu­lant for remo­val of catio­nic dyes.
Che­mo­s­phe­re. 2009 Nov;77(8):1090–8.
   Samen in Kom­bi­na­ti­on mit Trau­ben­ker­nen

Bel­trán-Her­e­dia J et al.
Remo­val of Ali­za­rin Vio­let 3R (anthraqui­no­nic dye) from aqueous solu­ti­ons by natu­ral coagu­lants.
J Hazard Mater. 2009 Oct 15;170(1):43–50.
  Ent­fer­nung von Farb­stof­fen

Pra­sad RK.
Color remo­val from distil­le­ry spent wash through coagu­la­ti­on using Morin­ga olei­fe­ra seeds: use of opti­mum respon­se sur­face metho­do­lo­gy.
J Hazard Mater. 2009 Jun 15;165(1–3):804–11.
  Farb­ent­fer­nung

Bel­trán-Her­e­dia J, Sán­chez-Mar­tín J.
Impro­ve­ment of water tre­at­ment pilot plant with Morin­ga olei­fe­ra extract as floc­cu­lant agent.
Envi­ron Tech­nol. 2009 May;30(6):525–34.
  Ent­fer­nung von Trüb­stof­fen in Ober­flä­chen­was­ser

Jamal P, Muy­ibi SA, Sya­rif WM.
Opti­mi­za­ti­on of pro­cess con­di­ti­ons for remo­val of cad­mi­um using bioac­tive con­sti­tu­ents of Morin­ga olei­fe­ra seeds.
Med J Malay­sia. 2008 Jul;63 Sup­pl A:105–6.
  Dekon­ta­mi­na­ti­on von Cad­mi­um

Bel­trán-Her­e­dia J, Sán­chez-Mar­tín J.
Remo­val of sodi­um lau­ryl sulp­ha­te by coagulation/flocculation with Morin­ga olei­fe­ra seed extract.
J Hazard Mater. 2009 May 30;164(2–3):713–9.
  Ent­fer­nung von anio­ni­schen Ten­s­iden

Nku­run­zi­za T, Ndu­way­e­zu JB, Banad­da EN, Nha­pi I.
The effect of tur­bi­di­ty levels and Morin­ga olei­fe­ra con­cen­tra­ti­on on the effec­tiveness of coagu­la­ti­on in water tre­at­ment.
Water Sci Tech­nol. 2009;59(8):1551–8.
  Was­ser­auf­be­rei­tung, opti­ma­le Dosie­rung

Kwaamb­wa HM, Mai­ko­ke­ra R.
Infra­red and cir­cu­lar dich­ro­ism spec­tro­sco­pic cha­rac­te­ri­sa­ti­on of secon­da­ry struc­tu­re com­pon­ents of a water tre­at­ment coagu­lant pro­te­in extrac­ted from Morin­ga olei­fe­ra seeds.
Col­lo­ids Surf B Bio­in­ter­faces. 2008 Jun 15;64(1):118–25.
  Unter­su­chung und Cha­rak­te­ri­sie­rung von Sekun­där­struk­tur­kom­po­nen­ten 

Bou­cher J, Stei­ner L, Mari­son IW.
Bio­sorp­ti­on of atra­zi­ne in the press-cake from oil­seeds.
Water Res. 2007 Aug;41(15):3209–16. Epub 2007 May 25.
   Ölpress­ku­chen

Mai­ko­ke­ra R, Kwaamb­wa HM.
Inter­fa­ci­al pro­per­ties and fluo­rescence of a coagu­la­ting pro­te­in extrac­ted from Morin­ga olei­fe­ras eeds and its inter­ac­tion with sodi­um dode­cyl sulp­ha­te.
Col­lo­ids Surf B Bio­in­ter­faces. 2007 Apr 1;55(2):173–8. Epub 2006 Dec 3.
  Unter­su­chung des Ten­s­idver­hal­tens

Bha­tia S, Oth­man Z, Ahmad AL.
Pretre­at­ment of palm oil mill efflu­ent (POME) using Morin­ga olei­fe­ra seeds as natu­ral coagu­lant.
J Hazard Mater. 2007 Jun 25;145(1–2):120–6. Epub 2006 Nov 9.
  Vor­be­hand­lung von Abwas­ser die bei der Palm­öl­her­stel­lung ent­ste­hen

Bhupt­awat H, Folk­ard GK, Chaud­ha­ri S.
Inno­va­ti­ve phy­si­co-che­mi­cal tre­at­ment of was­te­wa­ter incorpo­ra­ting Morin­ga olei­fe­ra seed­co­agu­lant.
J Hazard Mater. 2007 Apr 2;142(1–2):477–82. Epub 2006 Aug 25.
  phy­si­ka­lisch-che­mi­sche Behand­lung von Abwäs­sern 

Shar­ma P, Kuma­ri P, Sri­va­sta­va MM, Sri­va­sta­va S.
Ternary bio­sorp­ti­on stu­dies of Cd(II), Cr(III) and Ni(II) on shel­led Morin­ga olei­fe­ra seeds.
Bio­re­sour Tech­nol. 2007 Jan;98(2):474–7. Epub 2006 Feb 3.
  Aus­maß der Adsorp­ti­ons­ka­pa­zi­tät 

Kuma­ri P, Shar­ma P, Sri­va­sta­va S, Sri­va­sta­va MM.
Arse­nic remo­val from the aqueous sys­tem using plant bio­mass: a bio­re­me­di­al approach.
J Ind Micro­bi­ol Bio­tech­nol. 2005 Dec;32(11–12):521–6. Epub 2005 Oct 8.
  Arsen­be­las­tung

Kumar A, Kumar CJ.
Making dir­ty water drin­ka­ble: …as is the drum­stick tree.
BMJ. 2005 Oct 1;331(7519):781.
  Trink­was­ser­auf­be­rei­tung

Ghe­bre­mi­cha­el KA, Gun­arat­na KR, Dal­hammar G.
Sin­gle-step ion exchan­ge puri­fi­ca­ti­on of the coagu­lant pro­te­in from Morin­ga olei­fe­ra seed.
Appl Micro­bi­ol Bio­tech­nol. 2006 May;70(5):526–32. Epub 2005 Oct 8.
  Was­ser­rei­ni­gung, Her­stel­lung eines gerei­nig­tes Pro­te­ins

Katay­on S et al.
Effects of sto­ra­ge con­di­ti­ons of Morin­ga olei­fe­ra seeds on its per­for­mance in coagu­la­ti­on.
Bio­re­sour Tech­nol. 2006 Sep;97(13):1455–60. Epub 2005 Oct 4.
  Effek­ti­vi­tät der Was­ser- und Abwas­ser­be­hand­lung bei ver­schie­de­nen Lager­be­din­gun­gen

Sua­rez M et al.
Struc­tu­re-func­tion cha­rac­te­ri­za­ti­on and opti­mi­za­ti­on of a plant-deri­ved anti­bac­te­ri­al pep­ti­de.
Anti­mi­crob Agents Che­mo­ther. 2005 Sep;49(9):3847–57.
  anti­bak­te­ri­el­le Akti­vi­tät

Babu R, Chaud­hu­ri M.
Home water tre­at­ment by direct fil­tra­ti­on with natu­ral coagu­lant.
J Water Health. 2005 Mar;3(1):27–30.
  häus­li­che Was­ser­auf­be­rei­tung in länd­li­chen Gebie­ten von Ent­wick­lungs­län­dern

Shar­ma P, Kuma­ri P, Sri­va­sta­va MM, Sri­va­sta­va S.
Remo­val of cad­mi­um from aqueous sys­tem by shel­led Morin­ga olei­fe­ra Lam. seed powder.
Bio­re­sour Tech­nol. 2006 Jan;97(2):299–305.
  Ent­fer­nung von Cad­mi­um

Ghe­bre­mi­cha­el KA et al.
A simp­le puri­fi­ca­ti­on and activi­ty assay of the coagu­lant pro­te­in from Morin­ga olei­fe­ra seed.
Water Res. 2005 Jun;39(11):2338–44.
  Rei­ni­gung mit­tels Ionen­aus­tausch, che­mi­sche, koagu­lie­ren­de und anti­mi­kro­bi­el­le Eigen­schaf­ten

San­tos AF, Argo­lo AC, Coel­ho LC, Pai­va PM.
Detec­tion of water solub­le lec­tin and anti­oxi­dant com­po­nent from Morin­ga olei­fe­ra seeds.
Water Res. 2005 Mar;39(6):975–80.
  Nach­weis der was­ser­lös­li­chen Lek­ti­ne und anti­oxi­da­ti­ver Kom­po­nen­ten

Sua­rez M et al.
Expres­si­on of a plant-deri­ved pep­ti­de har­bo­ring water-clea­ning and anti­mi­cro­bi­al activi­ties.
Bio­tech­nol Bio­eng. 2003 Jan 5;81(1):13–20.
  anti­mi­kro­bi­el­le Akti­vi­tät

Bro­in M et al.
Floc­cu­lent activi­ty of a recom­bi­nant pro­te­in from Morin­ga olei­fe­ra Lam. seeds.
Appl Micro­bi­ol Bio­tech­nol. 2002 Oct;60(1–2):114–9. Epub 2002 Aug 23.
  Flo­ckungs­ak­ti­vi­tät von rekom­bi­nan­ten Pro­te­ine

Kalo­go Y, M’Bassiguié Séka A, Ver­strae­te W.
Enhan­cing the start-up of a UASB reac­tor trea­ting domestic was­te­wa­ter by adding a water extract of Morin­ga olei­fe­ra seeds.
Appl Micro­bi­ol Bio­tech­nol. 2001 May;55(5):644–51.
  Behand­lung von Haus­halts­ab­was­ser

Oku­da T, Baes AU, Nis­hi­ji­ma W, Oka­da M.
Iso­la­ti­on and cha­rac­te­ri­za­ti­on of coagu­lant extrac­ted from Morin­ga olei­fe­ra seed by salt solu­ti­on.
Water Res. 2001 Feb;35(2):405–10.
  Iso­lie­rung und Cha­rak­te­ri­sie­rung der extra­hier­ten Koagu­lan­ti­en

Oku­da T, Baes AU, Nis­hi­ji­ma W, Oka­da M.
Coagu­la­ti­on mecha­nism of salt solu­ti­on-extrac­ted active com­po­nent in Morin­ga olei­fe­ra seeds.
Water Res. 2001 Mar;35(3):830–4.
  Koagu­la­ti­ons­me­cha­nis­mus durch die gerei­nig­te Koagu­la­ti­ons­mit­tel­lö­sung (MOC-SC-PC)

Kalo­go Y, Rosil­lon F, Ham­mes F, Ver­strae­te W.
Effect of a water extract of Morin­ga olei­fe­ra seeds on the hydro­ly­tic micro­bi­al spe­ci­es diver­si­ty of a UASB reac­tor trea­ting domestic was­te­wa­ter.
Lett Appl Micro­bi­ol. 2000 Sep;31(3):259–64.
  Rei­ni­gung des häus­li­chen Abwas­sers

Gas­sen­schmidt U, Jany KD, Tau­scher B, Nie­bergall H.
Iso­la­ti­on and cha­rac­te­ri­za­ti­on of a floc­cu­la­ting pro­te­in from Morin­ga olei­fe­ra Lam..
Bio­chim Bio­phys Acta. 1995 Apr 13;1243(3):477–81.
  Iso­lie­rung und Cha­rak­te­ri­sie­rung eines Flo­ckungs­pro­te­ins

Madsen M, Schlundt J, Omer EF.
Effect of water coagu­la­ti­on by seeds of Morin­ga olei­fe­ra on bac­te­ri­al con­cen­tra­ti­ons.
J Trop Med Hyg. 1987 Jun;90(3):101–9.
  anti­bak­te­ri­el­le Wir­kung

Ber­ger MR, Habs M, Jahn SA, Schmahl D.
Toxi­co­lo­gi­cal assess­ment of seeds from Morin­ga olei­fe­ra and Morin­ga sten­o­pe­ta­la, two high­ly effi­ci­ent pri­ma­ry coagu­lants for domestic water tre­at­ment of tro­pi­cal raw waters.
East Afr Med J. 1984 Sep;61(9):712–6. No abs­tract avail­ab­le.
  toxi­ko­lo­gi­sche Bewer­tung

 

Ein­satz in der Land­wirt­schaft und zur Bekämp­fung von Schad­in­sek­ten  

Lins TOJD et al.
Effects of the inclu­si­on of Morin­ga olei­fe­ra seed on rumen fer­men­ta­ti­on and metha­ne pro­duc­tion in a beef catt­le diet using the rumen simu­la­ti­on tech­ni­que (Rusi­tec).
Ani­mal. 2018 Jun 29:1–9.
Aus­wir­kun­gen auf die Pan­sen­fer­men­ta­ti­on und Methan­pro­duk­ti­on bei Fleisch­rin­dern

Hega­zi AG et al.
Com­pa­ra­ti­ve ovici­dal activi­ty of Morin­ga olei­fe­ra leaf extracts on Fascio­la gigan­ti­ca eggs.
Poult Sci. 2018 Apr 11.
  ovi­zi­de Akti­vi­tät auf Fascio­la gigan­ti­ca- Eiern

Jan­ta­pan K et al.
Inhi­bi­to­ry Effects of Thai Essen­ti­al Oils on Poten­ti­al­ly Afla­to­xi­ge­nic Asperg­il­lus para­si­ti­cus and Asperg­il­lus fla­vus.
Bio­con­trol Sci. 2017;22(1):31–40.
  antiafla­to­xi­ge­ne und anti­my­ko­ti­sche Akti­vi­tät der äthe­ri­schen Öle auf Asperg­il­lus para­si­ti­cus und Asperg­il­lus fla­vus

de Oli­vei­ra CFR et al.
A chi­tin-bin­ding lec­tin from Morin­ga olei­fe­ra seeds (WSMoL) impairs the diges­ti­ve phy­sio­lo­gy of the Medi­ter­ra­ne­an flour lar­vae, Ana­gas­ta kuehni­el­la.
Pestic Bio­chem Phy­si­ol. 2017 Oct;142:67–76.
  Pflan­zen­schutz, bio­lo­gi­sches Insek­ti­zid

Sán­chez-Muñoz MA et al.
Uti­li­ty of Milk Coagu­lant Enzy­me of Morin­ga olei­fe­ra Seed in Cheese Pro­duc­tion from Soy and Skim Milks.
Foods. 2017 Aug 5;6(8). pii: E62.
  Gerin­nungs­mit­tel für ver­schie­de­ne Milch­sor­ten

de Santa­na Sil­va LL et al.
Eco­to­xi­ci­ty of water-solub­le lec­tin from Morin­ga olei­fe­ra seeds to zebra­fish (Danio rerio) embry­os and lar­vae.
Che­mo­s­phe­re. 2017 Oct;185:178–182.
  Mit­tel gegen Stech­mü­cken, Öko­to­xi­zi­tät

Urva, Shafi­que H et al.
Low power con­ti­nuous wave-laser seed irra­dia­ti­on effect on Morin­ga olei­fe­ra ger­mi­na­ti­on, seed­ling growth and bio­che­mi­cal attri­bu­tes.
Pho­to­chem Pho­to­bi­ol B. 2017 May;170:314–323.
  Ver­wen­dung um das Wachs­tum von Säm­lin­gen zu ver­bes­sern

Aris­til J, Ven­tu­ri­ni G, Spa­da A, Occur­rence of Toxi­ge­nic Fun­gi and Afla­to­xin Poten­ti­al of Asperg­il­lus spp. Strains Asso­cia­ted with Sub­sis­tence Far­med Crops in Hai­ti.
J Food Prot. 2017 Apr;80(4):626–631.
Kon­ta­mi­na­ti­on der Samen mit Pilz­gif­ten

More­ti LO et al.
Remo­val of Ana­bae­na flos-aquae in water tre­at­ment pro­cess using Morin­ga olei­fe­ra and assess­ment of fat­ty acid pro­fi­le of gene­ra­ted sludge.
Envi­ron Tech­nol. 2016;37(11):1408–17.
 Ein­satz zur Gewin­nung von Bio­die­sel

Kay­o­de RM, Afo­la­y­an AJ, Cyto­to­xi­ci­ty and effect of extrac­tion methods on the che­mi­cal com­po­si­ti­on of essen­ti­al oils of Morin­ga olei­fe­ra seeds.
J Zhe­jiang Univ Sci B. 2015 Aug;16(8):680–9.
  Ana­ly­se, Zyto­to­xi­zi­tät und Wir­kung von Extrak­ti­ons­me­tho­den in Bezug auf die che­mi­sche Zusam­men­set­zung von äthe­ri­schen Ölen

Pin­to CE et al.
Food safe­ty assess­ment of an anti­fun­gal pro­te­in from Morin­ga olei­fe­ra seeds in an agri­cul­tu­ral bio­tech­no­lo­gy per­spec­tive.
Food Chem Toxi­col. 2015 Sep;83:1–9.
  Lebens­mit­tel­si­cher­heit, Tier­ver­träg­lich­keit

Suji­tha V et al.
Green-syn­the­si­zed sil­ver nano­par­ti­cles as a novel con­trol tool against den­gue virus (DEN-2) and its pri­ma­ry vec­tor Aedes aegyp­ti.
Para­si­tol Res. 2015 Sep;114(9):3315–25.
  lar­vi­zi­de Eigen­schaf­ten gegen A. aegyp­ti zur Bekämp­fung von Den­gue (eine Infek­ti­on mit dem Den­gue-Virus, das durch Stech­mü­cken über­tra­gen wird)

Frei­re JE et al.
Mo-CBP3, an anti­fun­gal chi­tin-bin­ding pro­te­in from Morin­ga olei­fe­ra seeds, is a mem­ber of the 2S albu­min fami­ly.
PLoS One. 2015 Mar 19;10(3):e0119871.
  anti­my­ko­ti­sches Chi­tin-bin­den­des Pro­te­in, Hem­mung von phy­topa­tho­ge­nen Pil­zen

San­tos ND et al.
Eva­lua­ti­on of Morin­ga olei­fe­ra seed lec­tin in traps for the cap­tu­re of Aedes aegyp­ti eggs and adults under semi-field con­di­ti­ons.
Para­si­tol Res. 2014 May;113(5):1837–42.
  ovi­zi­de und lar­vi­zi­de Wir­kung gegen Aedes aegyp­ti

Fotouo-M H, du Toit ES, Rob­bert­se PJ.
Ger­mi­na­ti­on and ultrast­ruc­tu­ral stu­dies of seeds pro­du­ced by a fast-gro­wing, drought-resistant tree: impli­ca­ti­ons for its domesti­ca­ti­on and seed sto­ra­ge.
AoB Plants. 2015 Feb 27;7. pii: plv016.
Lage­rung der Samen, Erhalt der Samen­qua­li­tät und Keim­fä­hig­keit

Ija­rot­imi OS, Adeo­ti OA, Ariyo O.
Com­pa­ra­ti­ve stu­dy on nut­ri­ent com­po­si­ti­on, phy­to­che­mi­cal, and func­tio­nal cha­rac­te­ris­tics of raw, ger­mi­na­ted, and fer­men­ted Morin­ga olei­fe­ra seed flour.
Food Sci Nutr. 2013 Nov;1(6):452–63.
   Ana­ly­se von rohem, gekeim­tem und fer­men­tier­tem Samen­mehl

San­tos ND et al.
Eva­lua­ti­on of Morin­ga olei­fe­ra seed lec­tin in traps for the cap­tu­re of Aedes aegyp­ti eggs and adults under semi-field con­di­ti­ons.
Para­si­tol Res. 2014 May;113(5):1837–42.
  Bekämp­fung der Stech­mü­cke Aedes aegyp­ti (A. aegyp­ti)

Agra-Neto AC et al.
Effect of Morin­ga olei­fe­ra lec­tins on sur­vi­val and enzy­me activi­ties of Aedes aegyp­ti lar­vae sus­cep­ti­ble and resistant to orga­no­phos­pha­te.
Para­si­tol Res. 2014 Jan;113(1):175–84.
  lar­vi­zi­des Mit­tel gegen die Stech­mü­cke A. aegyp­ti

Rufai S et al.
Gene­tic dis­sec­tion of new geno­ty­pes of drum­stick tree (Morin­ga olei­fe­ra Lam.) using ran­dom ampli­fied poly­mor­phic DNA mar­ker, Bio­med Res Int. 2013;2013:604598.
   Geno­ty­pen, Zucht­pro­gramm und Ver­bes­se­rung der Eigen­schaf­ten

Aji­ba­de TO, Aro­wo­lo R, Olay­e­mi FO.
Phy­to­che­mi­cal scree­ning and toxi­ci­ty stu­dies on the metha­nol extract of the seeds of morin­ga olei­fe­ra, J Com­ple­ment Inte­gr Med. 2013 May 7;10. pii: /j/jcim.2013.10.issue-1/jcim-2012–0015/jcim-2012–0015.xml.
  Sicher­heit in der medi­zi­ni­schen Anwen­dung und in der Ernäh­rung

Rivas R, Oli­vei­ra MT, San­tos MG.
Three cycles of water defi­cit from seed to young plants of Morin­ga olei­fe­ra woo­dy spe­ci­es impro­ves stress tole­ran­ce.
Plant Phy­si­ol Bio­chem. 2013 Feb;63:200–8.
   Reduk­ti­on von Tro­cken­stress bei jun­gen Pflan­zen

Qwe­le K et al.
Che­mi­cal com­po­si­ti­on, fat­ty acid con­tent and anti­oxi­dant poten­ti­al of meat from goats sup­ple­men­ted with Morin­ga (Morin­ga olei­fe­ra) lea­ves, sun­flower cake and grass hay.
Meat Sci. 2013 Mar;93(3):455–62.
Land­wirt­schaft, Ver­bes­se­rung der Fleisch­qua­li­tät

Gifo­ni JM et al.
A novel chi­tin-bin­ding pro­te­in from Morin­ga olei­fe­ra seed with poten­ti­al for plant disea­se con­trol.
Bio­po­ly­mers. 2012;98(4):406–15.
  Reduk­ti­on von Pflan­zen­krank­hei­ten, anti­my­ko­ti­scher Akti­vi­tät

San­tos ND et al.
Ovi­po­si­ti­on-sti­mu­lant and ovici­dal activi­ties of Morin­ga olei­fe­ra lec­tin on Aedes aegyp­ti.
PLoS One. 2012;7(9):e44840.
  lar­vi­zi­des Mit­tel gegen die Stech­mü­cke A. aegyp­ti

Alves VN, Bor­ges SS, Neto WB, Coel­ho NM.
Deter­mi­na­ti­on of low levels of lead in beer using solid-pha­se extrac­tion and detec­tion by fla­me ato­mic absorp­ti­on spec­tro­me­try.
J Autom Methods Manag Chem. 2011;2011:464102.
  Samen als Bio­sorp­ti­ons­ma­te­ri­al zur Bestim­mung nied­ri­ger Blei­kon­zen­tra­tio­nen in Bier­pro­ben

Biji­na B et al.
Pro­tease inhi­bi­tor from Morin­ga olei­fe­ra with poten­ti­al for use as the­ra­peutic drug and as sea­food pre­ser­va­ti­ve.
Sau­di J Biol Sci. 2011 Jul;18(3):273–81.
  Poten­ti­al als Pro­teas­ein­hi­bi­tor zur Ver­wen­dung als the­ra­peu­ti­sches Arz­nei­mit­tel und als Kon­ser­vie­rungs­mit­tel für Mee­res­pro­duk­te

Prab­hu K et al.
Lar­vici­dal and repel­lent poten­ti­al of Morin­ga olei­fe­ra against mala­ri­al vec­tor, Ano­phe­les ste­phen­si Lis­ton (Insec­ta: Dipte­ra: Culi­ci­dae).
Asi­an Pac J Trop Bio­med. 2011 Apr;1(2):124–9.
  lar­vi­zi­de Akti­vi­tät gegen Mala­ria-Stech­mü­cken (A. ste­phen­si-Stech­mü­cken)

Kavi­tha C, Ramesh M, Kumaran SS, Lak­sh­mi SA.
Toxi­ci­ty of Morin­ga olei­fe­ra seed extract on some hema­to­lo­gi­cal and bio­che­mi­cal pro­files in a freshwa­ter fish, Cypri­nus car­pio.
Exp Toxi­col Pathol. 2012 Nov;64(7–8):681–7.
  Toxi­ti­tät gegen­über Süß­was­ser­fi­sche

Coel­ho JS et al.
Effect of Morin­ga olei­fe­ra lec­tin on deve­lop­ment and mor­ta­li­ty of Aedes aegyp­ti lar­vae.
Che­mo­s­phe­re. 2009 Nov;77(7):934–8.
  lar­vi­zi­de Wir­kung gegen die Stech­mü­cke Aedes aegyp­ti

Fer­rei­ra PM et al.
Lar­vici­dal activi­ty of the water extract of Morin­ga olei­fe­ra seeds against Aedes aegyp­ti and its toxi­ci­ty upon labo­ra­to­ry ani­mals.
An Acad Bras Cienc. 2009 Jun;81(2):207–16.
  lar­vi­zi­de Akti­vi­tät gegen die Stech­mü­cke Aedes aegyp­ti und even­tu­el­le Toxi­zi­tät

Ogun­binu AO et al.
Con­sti­tu­ents of Caja­nus cajan (L.) Millsp., Morin­ga olei­fe­ra Lam., Helio­tro­pi­um indi­cum L. and Bidens pilosa L. from Nige­ria.
Nat Prod Com­mun. 2009 Apr;4(4):573–8.
  Ana­ly­se der äthe­ri­schen Öle

Mak­kar HP, Fran­cis G, Becker K.
Bioac­tivi­ty of phy­to­che­mi­cals in some les­ser-known plants and their effects and poten­ti­al app­li­ca­ti­ons in live­stock and aquacul­tu­re pro­duc­tion sys­tems.
Ani­mal. 2007 Oct;1(9):1371–91.
  /    Anwen­dun­gen in der Tier­hal­tung und in Aqua­kul­tu­ren

Bajpai M, Pan­de A, Tewa­ri SK, Pra­kash D.
Phe­n­o­lic con­tents and anti­oxi­dant activi­ty of some food and medi­c­inal plants.
Int J Food Sci Nutr. 2005 Jun;56(4):287–91.
  Gesamt­phe­n­ol­ge­halt und anti­oxi­da­ti­ve Akti­vi­tät

Don­li PO, Dau­da H.
Eva­lua­ti­on of aqueous Morin­ga seed extract as a seed tre­at­ment bio­fun­gi­ci­de for ground­nuts.
Pest Manag Sci. 2003 Sep;59(9):1060–2.
  Land­wirt­schaft, Ver­wen­dung als Saat­gut­be­hand­lungs-Bio­fun­gi­zid

Hoff­mann EM, Muet­zel S, Becker K.
Effects of Morin­ga olei­fe­ra seed extract on rumen fer­men­ta­ti­on in vitro.
Arch Tie­rer­nahr. 2003 Feb;57(1):65–81.
  Land­wirt­schaft, Ein­fluss auf die Pan­sen­fer­men­ta­ti­on von Wie­der­käu­ern

Ben­nett RN et al.
Pro­filing glu­co­si­no­la­tes and phe­n­o­lics in vege­ta­ti­ve and repro­duc­tive tis­su­es of the mul­ti-pur­po­se trees Morin­ga olei­fe­ra L. (hor­se­radish tree) and Morin­ga sten­o­pe­ta­la L.
J Agric Food Chem. 2003 Jun 4;51(12):3546–53.
  Ana­ly­se auf Glu­co­si­no­la­te und Phe­no­le

Warhurst AM et al.
Adsorp­ti­on of the cya­no­bac­te­ri­al hepa­to­to­xin micro­cys­tin-LR by a low-cost activa­ted car­bon from the seed husks of the pan-tro­pi­cal tree, Morin­ga olei­fe­ra.
Sci Total Envi­ron. 1997 Nov 27;207(2–3):207–11.
 Aktiv­koh­le aus den Samen­scha­len

Vil­la­sen­or IM, Lim-Syl­i­an­co CY, Day­rit F.
Muta­gens from roas­ted seeds of Morin­ga olei­fe­ra.
Mutat Res. 1989 Oct;224(2):209–12.
 Muta­ge­ne in  gerös­te­ten Samen

1

Studien zu den Früchten (Pods)

Sprung­mar­ken

Legen­de

et al.: bei mehr als 4 Auto­ren wird nur der Erst­au­tor genannt

Extrak­te oder Iso­la­te aus den Morin­ga-Früch­ten:  

Pro­duk­te aus dem gan­zen Morin­ga-Früch­ten: 

Sowohl als auch:    /   

Ana­ly­se:  

Effek­te auf die Gesund­heit

Guon TE, Chung HS.
Morin­ga olei­fe­ra fruit indu­ce apo­pto­sis via reac­tive oxy­gen spe­ci­es-depen­dent activa­ti­on of mito­gen-activa­ted pro­te­in kina­ses in human melano­ma A2058 cells.
Oncol Lett. 2017 Aug;14(2):1703–1710.
  Frucht­ex­trakt, Anti-Krebs­wir­kung

Att­ak­pa ES et al.
Morin­ga olei­fe­ra-rich diet and T cell cal­ci­um signa­ling in spon­ta­neous­ly hyper­ten­si­ve rats.
Phy­si­ol Res. 2017 Nov 24;66(5):753–767. Epub 2017 Apr 12.
  blut­druck­sen­ken­de Wir­kung

Suren­dra TV et al.
Pho­to­ca­ta­ly­tic and anti­bac­te­ri­al pro­per­ties of phy­to­syn­the­si­zed CeO2 NPs using Morin­ga olei­fe­ra peel extract.
J Pho­to­chem Pho­to­bi­ol B. 2016 Aug;161:122–8.
  Frucht­scha­le, Abfäl­le, anti­bak­te­ri­el­le Akti­vi­tät, Peel-Extrakt

Man­dal KD et al.
Effect of Morin­ga olei­fe­ra on hema­to­lo­gi­cal para­me­ters of cal­ves rea­red in indus­tri­al fluo­rotic area.
Vet World. 2015 Nov;8(11):1364–9.
Frucht­pul­ver, Schutz gegen chro­ni­sche Fluo­rid­toxi­zi­tät bei Käl­bern

Lee HJ et al.
Morin­ga fruit inhi­bits LPS-indu­ced NO/iNOS expres­si­on through sup­pres­sing the NF-κ B activa­ti­on in RAW264.7 cells.
Am J Chin Med. 2013;41(5):1109–23.
  ent­zün­dungs­hem­men­de Wir­kung

Waiya­put W, Payung­porn S, Issa­ra-Amphorn J, Pan­ja­wor­a­y­an NT.
Inhi­bi­to­ry effects of cru­de extracts from some edi­ble Thai plants against repli­ca­ti­on of hepa­ti­tis B virus and human liver can­cer cells.
BMC Com­ple­ment Altern Med. 2012 Dec 6;12:246.
  Wir­kung gegen den Hepa­ti­tis B-Virus und Leber­krebs­zel­len

Karim AA, Azlan A.
Fruit pod extracts as a source of nut­raceuti­cals and phar­maceuti­cals.
Mole­cu­les. 2012 Oct 10;17(10):11931–46.
  anti­oxi­da­ti­ve, ent­zün­dungs­hem­men­de, anti­bak­te­ri­el­le, anti­my­ko­ti­sche und chemo­prä­ven­ti­ve Wir­kun­gen

Luq­man S et al.
Expe­ri­men­tal Assess­ment of Morin­ga olei­fe­ra Leaf and Fruit for Its Anti­stress, Anti­oxi­dant, and Sca­ven­ging Poten­ti­al Using In Vitro and In Vivo Assays.
Evid Based Com­ple­ment Alter­nat Med. 2012;2012:519084. pub 2011 Dec 14.
  Ana­ly­se, Sicher­heit, anti­oxi­da­ti­ve Wir­kung

Gupta R et al.
Eva­lua­ti­on of anti­dia­betic and anti­oxi­dant activi­ty of Morin­ga olei­fe­ra in expe­ri­men­tal dia­be­tes.
J Dia­be­tes. 2012 Jun;4(2):164–71.
  anti­dia­be­ti­sche Wir­kung

Bud­da S et al.
Sup­pres­si­ve effects of Morin­ga olei­fe­ra Lam pod against mou­se colon car­ci­no­ge­ne­sis indu­ced by azo­xy­me­tha­ne and dex­tran sodi­um sul­fa­te.
Asi­an Pac J Can­cer Prev. 2011;12(12):3221–8.
  chemo­prä­ven­ti­ves Mit­tel gegen Darm­krebs (Colon­kar­zi­no­ge­ne­se)

Prom­kum C, Kupra­dinun P, Tun­ti­po­pi­pat S, Butryee C.
Nut­ri­ti­ve eva­lua­ti­on and effect of Morin­ga olei­fe­ra pod on clas­to­ge­nic poten­ti­al in the mou­se.
Asi­an Pac J Can­cer Prev. 2010;11(3):627–32.
 Gekocht,  chemo­prä­ven­ti­ves Mit­tel gegen Darm­krebs (Colon­kar­zi­no­ge­ne­se)

Che­en­pracha S et al.
Poten­ti­al anti-inflamma­to­ry phe­n­o­lic gly­co­si­des from the medi­c­inal plant Morin­ga olei­fe­ra fruits.
Bio­org Med Chem. 2010 Sep 1;18(17):6598–602.
  Ana­ly­se, ent­zün­dungs­hem­men­de Wir­kung der phe­n­o­li­schen Gly­ko­si­de

Meh­ta K, Bala­ra­man R, Amin AH, Baf­na PA, Gula­ti OD.
Effect of fruits of Morin­ga olei­fe­ra on the lipid pro­fi­le of nor­mal and hyper­cho­le­ste­ro­la­emic rab­bits.
Eth­no­phar­ma­col. 2003 Jun;86(2–3):191–5.
 hypo­li­pi­dä­mi­sche Wir­kung

Muang­noi C1 et al.
Morin­ga olei­fe­ra pod inhi­bits inflamma­to­ry media­tor pro­duc­tion by lipo­po­lys­ac­chari­de-sti­mu­la­ted RAW 264.7 muri­ne macro­pha­ge cell lines.
Inflamma­ti­on. 2012 Apr;35(2):445–55. doi: 10.1007/s10753-011‑9334-4.
  ent­zün­dungs­hem­men­de Akti­vi­tät

Shar­ma V, Pali­wal R.
Poten­ti­al Chemo­pre­ven­ti­on of 7,12-Dimethylbenz[a]anthracene Indu­ced Renal Car­ci­no­ge­ne­sis by Morin­ga olei­fe­ra Pods and Its Iso­la­ted Sapo­nin.
Indi­an J Clin Bio­chem. 2014 Apr;29(2):202–9. doi: 10.1007/s12291-013‑0335-y. Epub 2013 May 21.
  Chemo­prä­ven­ti­on von 7,12-Dimethylbenz [a] anthr­acen indu­zier­te Nie­ren­kar­zi­no­ge­ne­se

Shar­ma V, Pali­wal R, Jan­me­da P, Shar­ma S.
Reno­pro­tec­tive effects of Morin­ga olei­fe­ra pods in 7,12-dimethylbenz [a] anthr­ace­ne-expo­sed mice.
Zhong Xi Yi Jie He Xue Bao. 2012 Oct;10(10):1171–8.
  Schutz gegen durch che­mi­sche Kar­zi­no­ge­ne indu­zier­te Nephro­to­xi­zi­tät (Schä­di­gung der Nie­re)

Rattana­sena P.
Anti­oxi­dant and anti­bac­te­ri­al activi­ties of vege­ta­bles and fruits com­mon­ly con­su­med in Thai­land.
Pak J Biol Sci. 2012 Sep 15;15(18):877–82.
   Ana­ly­se, anti­oxi­da­ti­ve und anti­bak­te­ri­el­le Akti­vi­tät gegen Sta­phy­lo­coc­cus aure­us, Stra­phy­lo­coc­cus epi­der­mi­dis, Strep­to­coc­cus pyo­ge­nes und Pro­pio­ni­bac­te­ri­um acnes.

Pal A, Bawan­ku­le DU, Dar­o­kar MP, Gupta SC, Arya JS, Shan­ker K, Gupta MM, Yadav NP, Singh Kha­nu­ja SP.
Influ­ence of Morin­ga olei­fe­ra on phar­ma­co­ki­ne­tic dis­po­si­ti­on of rif­am­pi­cin using HPLC-PDA method: a pre-cli­ni­cal stu­dy.
Bio­med Chro­ma­to­gr. 2011 Jun;25(6):641–5. doi: 10.1002/bmc.1494. Epub 2010 Sep 15.
  Stei­ge­rung der Bio­ver­füg­bar­keit des Anti-Tuber­ku­lo­se-Medi­ka­ments Rif­am­pi­cin

Bha­ra­li R, Tabas­sum J, Azad MR.
Che­mo­mo­du­la­to­ry effect of Morin­ga olei­fe­ra, Lam, on hepa­tic car­ci­no­gen meta­bo­li­sing enzy­mes, anti­oxi­dant para­me­ters and skin papil­lom­age­ne­sis in mice.
Asi­an Pac J Can­cer Prev. 2003 Apr-Jun;4(2):131–9.
  Anti-Tumor-Wir­kung, anti­oxi­da­ti­ve Wir­kung, Reduk­ti­on der Lipid­per­oxi­da­ti­on

Sons­ti­ges

Lou BS et al.
Ruthe­ni­um nano­par­ti­cles deco­ra­ted curl-like porous car­bons for high per­for­mance super­ca­pa­ci­tors.
Sci Rep. 2016 Jan 28;6:19949.
  Ruthe­ni­um Nano­par­ti­kel aus Frucht­scha­len

Roy SK et al.
Struc­tu­ral inves­ti­ga­ti­on of a hetero­po­lys­ac­chari­de iso­la­ted from the pods (fruits) of Morin­ga olei­fe­ra (Saji­na).
Car­bo­hy­dr Res. 2007 Nov 26;342(16):2380–9. Epub 2007 Aug 6.
  Ana­ly­se

Mel­es­se A, Stein­gass H, Bog­uhn J, Rode­hutscord M.
In vitro fer­men­ta­ti­on cha­rac­te­ris­tics and effec­tive uti­li­sable cru­de pro­te­in in lea­ves and green pod­sof Morin­ga sten­o­pe­ta­la and Morin­ga olei­fe­ra cul­ti­va­ted at low and mid-alti­tu­des.
J Anim Phy­si­ol Anim Nutr (Berl). 2013 Jun;97(3):537–46. doi: 10.1111/j.1439–0396.2012.01294.x. Epub 2012 Apr 12.
Pro­te­iner­gän­zung, Ver­dau­lich­keit

Aberra Mel­es­se, H. Stein­gass, J. Bog­uhn, M. Schol­len­ber­ger & M. Rode­hutscord.
Effects of ele­va­ti­on and sea­son on nut­ri­ent com­po­si­ti­on of lea­ves and green pods of Morin­ga sten­o­pe­ta­la and Morin­ga olei­fe­ra.
Agro­fo­rest Syst (2012) 86: 505. https://doi.org/10.1007/s10457-012‑9514-8.
  /    Aus­wir­kun­gen der Anbau­hö­he und Jah­res­zeit auf die Nähr­stoff­zu­sam­men­set­zung der  Blät­tern und grü­nen Früch­te

Akhtar M, Moo­sa Has­a­ny S, Bhan­ger MI, Iqbal S.
Sorp­ti­on poten­ti­al of Morin­ga olei­fe­ra pods for the remo­val of orga­nic pol­lut­ants from aqueous solu­ti­ons.
J Hazard Mater. 2007 Mar 22;141(3):546–56. Epub 2006 Jul 14.
  Ent­fer­nung von orga­ni­schen Schad­stof­fen aus wäss­ri­gen Lösun­gen

Akhtar M, Has­a­ny SM, Bhan­ger MI, Iqbal S.
Low cost sorb­ents for the remo­val of methyl para­thion pesti­ci­de from aqueous solu­ti­ons.
Che­mo­s­phe­re. 2007 Jan;66(10):1829–38. Epub 2006 Nov 15.
  Ent­fer­nung von Methyl­pa­ra­thion-Pes­ti­zi­den aus Ober­flä­chen- und Grund­was­ser

Nade­em M, Mah­mood A, Shahid SA, Shah SS, Kha­lid AM, McK­ay G.
Sorp­ti­on of lead from aqueous solu­ti­on by che­mi­cal­ly modi­fied car­bon adsorb­ents.
J Hazard Mater. 2006 Dec 1;138(3):604–13. Epub 2006 Jun 6.
  Ent­fer­nung von Blei aus wäss­ri­gen Lösun­gen

1

Studien zu den Wurzeln

Sprung­mar­ken

Legen­de

et al.: bei mehr als 4 Auto­ren wird nur der Erst­au­tor genannt

Extrak­te oder Iso­la­te aus den Morin­ga-Wur­zeln:  

Pro­duk­te aus dem gan­zen Morin­ga-Wur­zeln: 

Sowohl als auch:    /   

Ana­ly­se:  

Effek­te auf die Gesund­heit

Nwi­du LL et al.
In Vitro Anti-Cho­li­nes­tera­se and Anti­oxi­dant Activi­ty of Extracts of Morin­ga olei­fe­ra Plants from Rivers Sta­te, Niger Del­ta, Nige­ria.
Medi­ci­nes (Basel). 2018 Jul 5;5(3).
  Reduk­ti­on von Cho­li­nes­tera­se (zur Behand­lung von Alz­hei­mer-Demenz wer­den Ace­tyl­cho­li­nes­tera­se-Hem­mer ein­ge­setzt ), anti­oxi­da­ti­ve Akti­vi­tät

Abd-Rabou AA, Abdal­la AM, Ali NA, Zoheir KM.
Morin­ga olei­fe­ra Root Indu­ces Can­cer Apo­pto­sis more Effec­tively than Lea­ve Nano­com­po­si­tes and Its Free Coun­ter­part.
Asi­an Pac J Can­cer Prev. 2017 Aug 27;18(8):2141–2149.
  Anti-Krebs-Wir­kung

Att­ak­pa ES et al.
Morin­ga olei­fe­ra-rich diet and T cell cal­ci­um signa­ling in spon­ta­neous­ly hyper­ten­si­ve rats.
Phy­si­ol Res. 2017 Nov 24;66(5):753–767. Epub 2017 Apr 12.
  mehr­fach unge­sät­tig­te Fett­säu­ren, anti­hy­per­ten­si­ve Wir­kun­gen

Agra­wal ND, Nira­la SK, Shuk­la S, Mathur R.
Co-admi­nis­tra­ti­on of adju­vants along with Morin­ga olei­fe­ra atte­nua­tes beryl­li­um-indu­ced oxi­da­ti­ve stress and his­topa­tho­lo­gi­cal alte­ra­ti­ons in rats.
Pharm Biol. 2015;53(10):1465–73.09.2014.986685. Epub 2015 Apr 8.
  Wir­kung gegen Beryl­li­um-indu­zier­ten oxi­da­ti­ven Stress

Stohs SJ, Hart­man MJ.
Review of the Safe­ty and Effi­cacy of Morin­ga olei­fe­ra.
Phy­to­ther Res. 2015 Jun;29(6):796–804.
  Sicher­heit und Wir­kung

Kaur A, Kaur PK, Singh S, Singh IP.
Antileish­ma­ni­al com­pounds from Morin­ga olei­fe­ra Lam.
Z Natur­forsch C. 2014 Mar-Apr;69(3–4):110–6.
  Anti-Leish­ma­nia-Ver­bin­dun­gen (Blät­ter und Wur­zeln)

Igwi­lo IO et al.
Anti-nut­ri­tio­nal fac­tors in the roots of a local cul­ti­var of Morin­ga olei­fe­ra (Lam).
Pak J Biol Sci. 2014 Jan 1;17(1):114–7.
  Bestim­mung der anti­nut­ri­ti­ven Stof­fe

Hus­sain S, Malik F, Mah­mood S.
Review: an expo­si­ti­on of medi­c­inal prepon­der­an­ce of Morin­ga olei­fe­ra (Lank.).
Pak J Pharm Sci. 2014 Mar;27(2):397–403.
  Ana­ly­se, phar­ma­ko­lo­gi­sche Eigen­schaf­ten

Choud­ha­ry MK, Bod­ak­he SH, Gupta SK.
Assess­ment of the anti­ul­cer poten­ti­al of Morin­ga olei­fe­ra root-bark extract in rats.
J Acu­p­unct Meri­di­an Stud. 2013 Aug;6(4):214–20.
  Quel­le für ein Anti­ul­cus­mit­tel

Gholap PA et al.
Poten­ti­al of Morin­ga olei­fe­ra root and Citrus sinen­sis fruit rind extracts in the tre­at­ment of ulce­ra­ti­ve coli­tis in mice.
Pharm Biol. 2012 Oct;50(10):1297–302.
  Behand­lung von Coli­tis ulce­ro­sa

Seme­nya S, Pot­gie­ter M, Eras­mus L.
Eth­no­bo­ta­ni­cal sur­vey of medi­c­inal plants used by Bape­di hea­lers to tre­at dia­be­tes mel­li­tus in the Lim­po­po Pro­vin­ce, South Afri­ca.
J Eth­no­phar­ma­col. 2012 May 7;141(1):440–5.
  Tra­di­tio­nel­le Medi­zin, Behand­lung von Dia­be­tes

Satish A, Sairam S, Ahmed F, Urooj A.
Morin­ga olei­fe­ra Lam.: Pro­tease activi­ty against blood coagu­la­ti­on cas­ca­de.
Phar­ma­co­gno­sy Res. 2012 Jan;4(1):44–9.
  Wund­hei­lung

Mone­ra TG, Mapon­ga CC.
Pre­v­a­lence and pat­terns of Morin­ga olei­fe­ra use among HIV posi­ti­ve pati­ents in Zim­bab­we: a cross-sec­tio­nal sur­vey.
  Tra­di­tio­nel­le Medi­zin / HIV

Mana­he­ji H et al.
, Zhong Xi Yi Jie He Xue Bao. 2011 Feb;9(2):216–22.
  Arthri­tis, ent­zün­dungs­hem­men­de Wir­kung, syn­er­gis­ti­sche Wir­kung von Wur­zel- und Blatt­ex­trak­ten auf die Schmerz­re­duk­ti­on

Ata­wo­di SE et al.
Eva­lua­ti­on of the poly­phe­nol con­tent and anti­oxi­dant pro­per­ties of metha­nol extracts of the lea­ves, stem, and root barks of Morin­ga olei­fe­ra Lam.
J Med Food. 2010 Jun;13(3):710–6.
  anti­oxi­da­ti­ve Wir­kung

Sul­ta­na B, Anwar F, Ashraf M.
Effect of extrac­tion solvent/technique on the anti­oxi­dant activi­ty of selec­ted medi­c­inal plant extracts.
Mole­cu­les. 2009 Jun 15;14(6):2167–8.
  anti­oxi­da­ti­ve Wir­kung

Sashid­ha­ra KV et al.
Rare dipep­ti­de and urea deri­va­ti­ves from roots of Morin­ga olei­fe­ra as poten­ti­al anti-inflamma­to­ry and anti­no­ci­cep­ti­ve agents.
Eur J Med Chem. 2009 Jan;44(1):432–6.
  Ana­ly­se, ent­zün­dungs­hem­men­de und anti­no­zi­zep­ti­ve Wirk­stof­fe

Bose CK.
Pos­si­ble role of Morin­ga olei­fe­ra Lam. root in epi­the­li­al ova­ri­an can­cer.
Med­Gen­Med. 2007 Feb 6;9(1):26. Review. No abs­tract avail­ab­le.
  Behand­lung von epi­the­lia­lem Ova­ri­al­kar­zi­nom, Neben­wir­kun­gen

Kara­di RV, Gadge NB, Alaga­wa­di KR, Sava­di RV.
Effect of Morin­ga olei­fe­ra Lam. root-wood on ethy­le­ne gly­col indu­ced uro­li­thia­sis in rats.
J Eth­no­phar­ma­col. 2006 Apr 21;105(1–2):306–11. Epub 2006 Jan 4.
  Wir­kung in Bezug auf die Ethy­len­gly­kol indu­zier­te Uro­li­thia­sis

Ray K, Haz­ra R, Deb­nath PK, Guha D.
Role of 5-hydroxyt­ryp­t­a­mi­ne in Morin­ga olei­fe­ra indu­ced poten­tia­ti­on of pen­to­bar­bi­to­ne hyp­no­sis in albi­no rats.
Indi­an J Exp Biol. 2004 Jun;42(6):632–5.
  Schlaf, moto­ri­sche Akti­vi­tät

Ndia­ye M et al.
Con­tri­bu­ti­on to the stu­dy of the anti-inflamma­to­ry activi­ty of Morin­ga olei­fe­ra (moring­aceae)].
Dakar Med. 2002;47(2):210–2. French.
  ent­zün­dungs­hem­men­de Wir­kung zur Behand­lung von rheu­ma­ti­schen und arti­ku­lä­ren Schmer­zen

Ray K, Haz­ra R, Guha D.
Cen­tral inhi­bi­to­ry effect of Morin­ga olei­fe­ra root extract: pos­si­ble role of neu­ro­trans­mit­ters.
Indi­an J Exp Biol. 2003 Nov;41(11):1279–84.
  Wir­kung bei einem gestör­ten Gleich­ge­wicht von Neu­ro­trans­mit­tern

Mazum­der UK, Gupta M, Cha­krab­ar­ti S, Pal D.
Eva­lua­ti­on of hema­to­lo­gi­cal and hepa­to­re­nal func­tions of metha­no­lic extract of Morin­ga olei­feraLam. root trea­ted mice.
Indi­an J Exp Biol. 1999 Jun;37(6):612–4.
  Ein­fluss einer the­ra­peu­ti­schen Ver­ab­rei­chung auf Leber- und Nie­ren­funk­tio­nen

Ruck­ma­ni K, Kav­ima­ni S, Jaya­kar B, Anan­dan R.
Anti-ulcer activi­ty of the alka­li pre­pa­ra­ti­on of the root and fresh leaf juice of morin­ga olei­fe­ra lam.
Anc Sci Life. 1998 Jan;17(3):220–3.
  Wur­zel- und Blatt­saft, Anti-Ulcus-Akti­vi­tät

Cáce­res A et al.
Phar­ma­co­lo­gic pro­per­ties of Morin­ga olei­fe­ra. 2: Scree­ning for antis­pas­mo­dic, anti­in­flamma­to­ry and diuretic activi­ty.
J Eth­no­phar­ma­col. 1992 Jun;36(3):233–7.
  phar­ma­ko­lo­gi­sche Akti­vi­tä­ten

Shuk­la S, Mathur R, Pra­kash AO.
His­to­ar­chi­tec­tu­re of the geni­tal tract of ova­riec­to­mi­zed rats trea­ted with an aqueous extract of Morin­ga olei­fe­ra roots.
J Eth­no­phar­ma­col. 1989 May;25(3):249–6.
  Geni­al­trakt, Gebär­mut­ter

Pra­kash AO, Pathak S, Shuk­la S, Mathur R.
Pre and post-implan­ta­ti­on chan­ges in the uteus of rats: respon­se to morin­ga olei­fe­ra lam. Extract.
Anc Sci Life. 1988 Jul;8(1):49–54.
  Geni­al­trakt, Gebär­mut­ter

Shuk­la S, Mathur R, Pra­kash AO.
Anti­fer­ti­li­ty pro­fi­le of the aqueous extract of Morin­ga olei­fe­ra roots.
J Eth­no­phar­ma­col. 1988 Jan;22(1):51–62.
  Östro­ge­ne Wir­kung, Anti­fer­ti­li­täts­wir­kung

Pra­kash AO, Pathak S, Shuk­la S, Mathur R.
Ute­ri­ne his­to­ar­chi­tec­tu­re during pre and post-implan­ta­ti­on peri­ods of rats trea­ted with aqueous extract of Morin­ga olei­fe­ra Lam.
Acta Eur Fer­til. 1987 Mar-Apr;18(2):129–35.
  Ein­fluss auf die Gebär­mut­ter

Sons­ti­ges

Wang L et al.
Pro­teo­mic Pro­files Reveal the Func­tion of Dif­fe­rent Vege­ta­ti­ve Tis­su­es of Morin­ga olei­fe­ra.
Pro­te­in J. 2016 Dec;35(6):440–447.
  Ana­ly­se, Pro­te­in­zu­sam­men­set­zung

Deng LT et al.
Scree­ning Relia­ble Refe­rence Genes for RT-qPCR Ana­ly­sis of Gene Expres­si­on in Morin­ga olei­fe­ra.
PLoS One. 2016 Aug 19;11(8):e0159458.
  Genex­pres­si­on

Fai­zi S et al.
GC/GCMS ana­ly­sis of the petro­le­um ether and dichlo­ro­me­tha­ne extracts of Morin­ga olei­fer­a­roots.
Asi­an Pac J Trop Bio­med. 2014 Aug;4(8):650–4.
  Ana­ly­se

Cos­me M et al.
Arbus­cu­lar mycor­r­hiz­al fun­gi affect glu­co­si­no­la­te and mine­ral ele­ment com­po­si­ti­on in lea­ves of Morin­ga olei­fe­ra.
Mycor­r­hi­za. 2014 Oct;24(7):565–70. Epub 2014 Apr 5.
Anbau / Mykor­r­hiza­pil­ze

Zhao JH et al.
Bioac­tive secon­da­ry meta­bo­li­tes from Nigro­spo­ra sp. LLGLM003, an endo­phytic fun­gus of the medi­c­inal plant Morin­ga olei­fe­ra Lam.
World J Micro­bi­ol Bio­tech­nol. 2012 May;28(5):2107–12.
  Hem­mung von pflan­zen­pa­tho­ge­nen Pil­zen

Ben­nett RN et al.
Pro­filing glu­co­si­no­la­tes and phe­n­o­lics in vege­ta­ti­ve and repro­duc­tive tis­su­es of the mul­ti-pur­po­se trees Morin­ga olei­fe­ra L. (hor­se­radish tree) and Morin­ga sten­o­pe­ta­la L.
J Agric Food Chem. 2003 Jun 4;51(12):3546–53.
  Ana­ly­se

1

Studien zu den Blüten

Sprung­mar­ken

Legen­de

et al.: bei mehr als 4 Auto­ren wird nur der Erst­au­tor genannt

Extrak­te oder Iso­la­te aus den Morin­ga-Blü­ten:  

Pro­duk­te aus dem gan­zen Morin­ga-Blü­ten: 

Sowohl als auch:    /   

Ana­ly­se:  

Effek­te auf die Gesund­heit

Man­dal SM et al.
Novel Com­po­und from Flowers of Morin­ga olei­fe­ra Com­pet­ent­ly Active against Mul­ti-Drug Resistant Gram-nega­ti­ve Bacil­li.
Infect Dis­ord Drug Tar­gets. 2018 Oct 1.
   anti­bak­te­ri­el­len Wirk­stof­fe gegen mul­ti­re­sis­ten­te gram­ne­ga­ti­ve Bak­te­ri­en

Pon­tu­al EV et al.
A tryp­sin inhi­bi­tor from Morin­ga olei­fe­ra flower extract is cyto­to­xic to Try­pa­no­so­ma cru­zi with high selec­tivi­ty over mam­ma­li­an cells.
Nat Prod Res. 2017 Oct 19:1–5.
  anti­pro­to­zoa­le Akti­vi­tät

Anand K et al.
Bio­syn­the­sis of pal­la­di­um nano­par­ti­cles by using Morin­ga olei­fe­ra flower extract and their cata­ly­tic and bio­lo­gi­cal pro­per­ties.
J Pho­to­chem Pho­to­bi­ol B. 2016 Dec;165:87–95.
  Ana­ly­se, krebs- und anti­bak­te­ri­el­le Wir­kung

Fer­nan­des EE, Pul­wa­le AV, Patil GA, Mog­he AS.
Pro­bing Rege­ne­ra­ti­ve Poten­ti­al of Morin­ga olei­fe­ra Aqueous Extracts Using In vitro Cel­lu­lar Assays.
Phar­ma­co­gno­sy Res. 2016 Oct-Dec;8(4):231–237.
  phar­ma­ko­lo­gi­sche Eigen­schaf­ten

Singh MK, Paul J, De T, Cha­kra­b­or­ti T.
Bioac­tivi­ty gui­ded frac­tio­na­ti­on of Morin­ga olei­fe­ra Lam. flower tar­ge­ting Leish­ma­nia dono­va­ni.
Indi­an J Exp Biol. 2015 Nov;53(11):747–52.
  Reduk­ti­on der Para­si­ten­last von Leish­ma­nia dono­va­ni in Leber und Milz

Bril­han­te RSN et al.
Vibrio spp. from Macro­bra­chi­um ama­zo­ni­cum prawn far­ming are inhi­bi­ted by Morin­ga olei­fe­ra extracts.
Asi­an Pac J Trop Med. 2015 Nov;8(11):919–922.
  anti­mi­kro­bi­el­le Akti­vi­tät

Tan WS, Arul­sel­van P, Kart­hi­vashan G, Faku­ra­zi S.
Morin­ga olei­fe­ra Flower Extract Sup­pres­ses the Activa­ti­on of Inflamma­to­ry Media­tors in Lipo­po­lys­ac­chari­de-Sti­mu­la­ted RAW 264.7 Macro­pha­ges via NF-κB Pathway.
Media­tors Inflamm. 2015;2015:720171.
  ent­zün­dungs­hem­men­de Akti­vi­tät

Alhak­ma­ni F, Kumar S, Khan SA.
Esti­ma­ti­on of total phe­n­o­lic con­tent, in-vitro anti­oxi­dant and anti-inflamma­to­ry activi­ty of flowers of Morin­ga olei­fe­ra.
Asi­an Pac J Trop Bio­med. 2013 Aug;3(8):623–7; dis­cus­sion 626–7.
  anti­oxi­da­ti­ves Poten­ti­al und ent­zün­dungs­hem­men­de Akti­vi­tät

Paka­de V et al.
The­ra­peutic poten­ti­al of Morin­ga olei­fe­ra extracts against acet­ami­no­phen-indu­ced hepa­to­to­xi­ci­ty in rats.
J Sep Sci. 2013 Feb;36(3):548–55.2012 Dec 18.
  Wir­kung zum Schutz vor Leber­schä­den

Shari­fu­din SA et al.
The­ra­peutic poten­ti­al of Morin­ga olei­fe­ra extracts against acet­ami­no­phen-indu­ced hepa­to­to­xi­ci­ty in rats.
Pharm Biol. 2013 Mar;51(3):279–88.
  Wir­kung gegen Acet­ami­no­phen-indu­zier­te Hepa­to­to­xi­zi­tät

Faku­ra­zi S, Shari­fu­din SA, Arul­sel­van P.
Morin­ga olei­fe­ra hydro­etha­no­lic extracts effec­tively alle­via­te acet­ami­no­phen-indu­ced hepa­to­to­xi­ci­ty in expe­ri­men­tal rats through their anti­oxi­dant natu­re.
Mole­cu­les. 2012 Jul 10;17(7):8334–50.
  Wir­kung bei Acet­ami­no­phen (APAP) -indu­zier­te toxi­scher Leber­schä­di­gung

Ade­ju­mo OE, Kolapo AL, Fola­rin AO.
Morin­ga olei­fe­ra Lam. (Moring­aceae) grown in Nige­ria: In vitro anti­sick­ling activi­ty on deoxy­gena­ted ery­thro­cy­te cells.
J Pharm Bio­al­lied Sci. 2012 Apr;4(2):118–22.
  tra­di­tio­nel­le Medi­zin gegen Sichel­zel­len­an­ämie (SCD).

San­tos AF, Argo­lo AC, Pai­va PM, Coel­ho LC.
Anti­oxi­dant activi­ty of Morin­ga olei­fe­ra tis­sue extracts.
Phy­to­ther Res. 2012 Sep;26(9):1366–70. r.4591. Epub 2012 Feb 1.
  Ana­ly­se, Anti­oxi­da­ti­ve Akti­vi­tät

Sons­ti­ges

Vats S, Gupta T.
Eva­lua­ti­on of bioac­tive com­pounds and anti­oxi­dant poten­ti­al of hydro­etha­no­lic extract of Morin­ga olei­fe­ra Lam. from Rajasthan, India.
  Ana­ly­se

Gull I et al.
Use of Morin­ga olei­fe­ra Flower Pod Extract as Natu­ral Pre­ser­va­ti­ve and Deve­lop­ment of SCAR Mar­ker for Its DNA Based Iden­ti­fi­ca­ti­on.
Bio­med Res Int. 2016;2016:7584318. 318. Epub 2016 Jul 4.
  Ver­wen­dung als natür­li­ches Kon­ser­vie­rungs­mit­tel und Nut­raceuti­cal in der Lebens­mit­tel­in­dus­trie

Sank­hal­kar S, Ver­ne­kar V.
Quan­ti­ta­ti­ve and Qua­li­ta­ti­ve Ana­ly­sis of Phe­n­o­lic and Fla­vo­no­id Con­tent in Morin­ga olei­fe­ra Lam and Oci­mum tenuiflorum L.
Phar­ma­co­gno­sy Res. 2016 Jan-Mar;8(1):16–21.
  Ana­ly­se

Rocha-Fil­ho CA et al.
Assess­ment of toxi­ci­ty of Morin­ga olei­fe­ra flower extract to Biom­phala­ria gla­bra­ta, Schis­to­so­ma man­so­ni and Artemia sali­na.
Che­mo­s­phe­re. 2015 Aug;132:188–92.
  Wir­kung auf Biom­phala­ria gla­bra­ta, Schis­to­so­ma man­so­ni und Artemia sali­na

Hus­sain S, Malik F, Mah­mood S.
Review: an expo­si­ti­on of medi­c­inal prepon­der­an­ce of Morin­ga olei­fe­ra (Lank.).
Pak J Pharm Sci. 2014 Mar;27(2):397–40 3. Review.
  All­ge­mein

Pon­tu­al EV et al.
Tryp­sin inhi­bi­tor from Morin­ga olei­fe­ra flowers inter­fe­res with sur­vi­val and deve­lop­ment of Aedes aegyp­ti lar­vae and kills bac­te­ria inh­a­bi­tant of lar­vae mid­gut.
Para­si­tol Res. 2014 Feb;113(2):727–33.
  lar­vi­zi­des Mit­tel gegen die Stech­mü­cke Aedes aegyp­ti

Bind­hu MR, Sathe V, Umade­vi M.
Syn­the­sis, cha­rac­te­ri­za­ti­on and SERS activi­ty of bio­syn­the­si­zed sil­ver nano­par­ti­cles.
Spec­tro­chim Acta A Mol Bio­mol Spec­trosc. 2013 Nov;115:409–15.
  Blü­ten­ex­trakt zur Syn­the­se von Sil­bernano­par­ti­kel

Pon­tu­al EV et al.
Cas­einoly­tic and milk-clot­ting activi­ties from Morin­ga olei­fe­ra flowers.
Food Chem. 2012 Dec 1;135(3):1848–54.
  Anwen­dung in der Milch­in­dus­trie

Pon­tu­al EV et al.
Effect of Morin­ga olei­fe­ra flower extract on lar­val tryp­sin and ace­tyl­cho­li­nes­tera­se activi­ties in Aedes aegyp­ti.
Arch Insect Bio­chem Phy­si­ol. 2012 Mar;79(3):135–52.
  lar­vi­zi­de Wir­kung gegen Aedes aegyp­ti

Sil­va N, Men­des-Bona­to AB, Sales JG, Paglia­ri­ni MS.
Meio­tic beha­vi­or and pol­len via­bi­li­ty in Morin­ga olei­fe­ra (Moring­aceae) cul­ti­va­ted in sou­thern Bra­zil.
Genet Mol Res. 2011;10(3):1728–32.
  Lebens­fä­hig­keit der Pol­len

Sán­chez-Mach­a­do DI, López-Cer­van­tes J, Váz­quez NJ.
High-per­for­mance liquid chro­ma­to­gra­phy method to mea­su­re alpha- and gam­ma-toco­phe­rol in lea­ves, flowers and fresh beans from Morin­ga olei­fe­ra.
J Chro­ma­to­gr A. 2006 Feb 10;1105(1–2):111–4. Epub 2005 Aug 10.
  Vit­amin-E-Gehalt

1

Studien zu der Rinde

Sprung­mar­ken

Legen­de

et al.: bei mehr als 4 Auto­ren wird nur der Erst­au­tor genannt

Extrak­te oder Iso­la­te aus der Morin­ga-rin­de:  

Pro­duk­te aus dem gan­zen Morin­ga-Rin­de: 

Sowohl als auch:    /   

Ana­ly­se:  

Effek­te auf die Gesund­heit

Aro­ra DS, Kaur N.
Anti­mi­cro­bi­al Poten­ti­al of Fun­gal Endo­phy­tes from Morin­ga olei­fe­ra.
Appl Bio­chem Bio­tech­nol. 2018 Jul 19.
  Die Rin­de als Quel­le für ein Pro­dukt mit anti­mi­kro­bi­el­ler Breit­spek­trumver­bin­dung

Nwi­du LL et al.
In Vitro Anti-Cho­li­nes­tera­se and Anti­oxi­dant Activi­ty of Extracts of Morin­ga olei­fe­ra Plants from Rivers Sta­te, Niger Del­ta, Nige­ria.
Medi­ci­nes (Basel). 2018 Jul 5;5(3).
  Reduk­ti­on von Cho­li­nes­tera­se (zur Behand­lung von Alz­hei­mer-Demenz wer­den Ace­tyl­cho­li­nes­tera­se-Hem­mer ein­ge­setzt ), anti­oxi­da­ti­ve Akti­vi­tät

Singh B et al.
Net­work for­ma­ti­on of Morin­ga olei­fe­ra gum by radia­ti­on indu­ced cross­lin­king: Eva­lua­ti­on of drug deli­very, net­work para­me­ters and bio­me­di­cal pro­per­ties.
Int J Biol Macro­mol. 2018 Mar;108:477–488.
  Poten­ti­al der Rin­den-Gum­mi-Polys­ac­chari­de

Al-Asma­ri AK et al.
Morin­ga olei­fe­ra as an Anti-Can­cer Agent against Bre­ast and Colo­rec­tal Can­cer Cell Lines.
PLoS One. 2015 Aug 19;10(8):e0135814. doi: 10.1371/journal.pone.0135814. eCollec­tion 2015.
  Anti­krebs­ak­ti­vi­tät, Ent­wick­lung neu­er Medi­ka­men­te gegen Brust- und Dick­darm­krebs

Zaf­fer M et al.
Anti­bac­te­ri­al activi­ty of bark extracts of Morin­ga olei­fe­ra Lam. against some selec­ted bac­te­ria.
Pak J Pharm Sci. 2014 Nov;27(6):1857–62.
  anti­bak­te­ri­el­le Akti­vi­tät

Ahmad S et al.
Anti­py­retic activi­ty of hydro-alco­ho­lic extracts of Morin­ga olei­fe­ra in rab­bits.
Pak J Pharm Sci. 2014 Jul;27(4):931–4.
  anti­py­re­ti­sche Akti­vi­tät

Pan­da DS.
Stu­dies on gum of Morin­ga olei­fe­ra for its emul­si­fy­ing pro­per­ties.
J Pharm Bio­al­lied Sci. 2014 Apr;6(2):92–6.
  Rin­den­gum­mi, emul­gie­ren­de Eigen­schaf­ten, Ein­satz als phar­ma­zeu­ti­sches und nicht-phar­ma­zeu­ti­sche Prä­pa­rat

Vasanth K et al.
Anti­can­cer activi­ty of Morin­ga olei­fe­ra media­ted sil­ver nano­par­ti­cles on human cer­vi­cal car­ci­no­ma cells by apo­pto­sis induc­tion.
Col­lo­ids Surf B Bio­in­ter­faces. 2014 May 1;117:354–9. doi: 10.1016/j.colsurfb.2014.02.052. Epub 2014 Mar 13.
  Sil­ber-Nano­par­ti­kel, Anti-Krebs-Wir­kung

Mau­rya SK, Singh AK.
Cli­ni­cal Effi­cacy of Morin­ga olei­fe­ra Lam. Stems Bark in Uri­na­ry Tract Infec­tions.
Int Sch Res Noti­ces. 2014 Nov 2;2014:906843. doi: 10.1155/2014/906843. eCollec­tion 2014.
  Harn­wegs­in­fek­tio­nen

Choud­ha­ry MK, Bod­ak­he SH, Gupta SK.
Assess­ment of the anti­ul­cer poten­ti­al of Morin­ga olei­fe­ra root-bark extract in rats.
J Acu­p­unct Meri­di­an Stud. 2013 Aug;6(4):214–20. doi: 10.1016/j.jams.2013.07.003. Epub 2013 Jul 27.
  Anti-Ulcer-Pote­in­ti­al

Shola­pur HN, Patil BM.
Effect of Morin­ga olei­fe­ra bark extracts on dex­a­me­tha­so­ne-indu­ced insu­lin resis­tan­ce in rats.
Drug Res (Stuttg). 2013 Oct;63(10):527–31. doi: 10.1055/s-0033–1347238. Epub 2013 Jun 18.
  anti­dia­be­ti­sche Wir­kung

Mone­ra TG, Mapon­ga CC.
Pre­v­a­lence and pat­terns of Morin­ga olei­fe­ra use among HIV posi­ti­ve pati­ents in Zim­bab­we: a cross-sec­tio­nal sur­vey.
J Public Health Afr. 2012;3(1). pii: e6.
  Tra­di­tio­nel­le Medi­zin, HIV, in Kom­bi­na­ti­on mit den Blät­tern

Singhal AK, Jarald EE, Show­kat A, Daud A.
In vitro eva­lua­ti­on of Morin­ga olei­fe­ra gum for colon-spe­ci­fic drug deli­very.
Int J Pharm Inves­tig. 2012 Jan;2(1):48–51.
  Rin­den­gum­mi als Trä­ger für eine Dick­darm-spe­zi­fi­sche Wirk­stoff­frei­set­zung von Cur­cu­min

Ata­wo­di SE et al.
Eva­lua­ti­on of the poly­phe­nol con­tent and anti­oxi­dant pro­per­ties of metha­nol extracts of the lea­ves, stem, and root barks of Morin­ga olei­fe­ra Lam.
J Med Food. 2010 Jun;13(3):710–6. doi: 10.1089/jmf.2009.0057.
  anti­oxi­da­ti­ve und krebs­hem­men­de Wir­kung

Cáce­res A et al.
Phar­ma­co­lo­gic pro­per­ties of Morin­ga olei­fe­ra. 2: Scree­ning for antis­pas­mo­dic, anti­in­flamma­to­ry and diuretic activi­ty.
J Eth­no­phar­ma­col. 1992 Jun;36(3):233–7.
  phar­ma­ko­lo­gi­sche Akti­vi­tä­ten

Cáce­res A et al.
Phar­ma­co­lo­gi­cal pro­per­ties of Morin­ga olei­fe­ra. 1: Preli­mi­na­ry scree­ning for anti­mi­cro­bi­al activi­ty.
J Eth­no­phar­ma­col. 1991 Jul;33(3):213–6.
  anti­bak­te­ri­el­le Akti­vi­tät

Sons­ti­ges

Rim­py, Abhis­hek, Ahu­ja M.
Eva­lua­ti­on of car­boxy­me­thyl morin­ga gum as nano­me­tric car­ri­er.
Car­bo­hy­dr Polym. 2017 Oct 15;174:896–903.
   Rin­den­gum­mi, Car­boxy­me­thy­lie­rung, Chi­to­san

Mni­si RL, Ndi­be­wu PP.
Sur­face and adsorp­ti­ve pro­per­ties of Morin­ga olei­fe­ra bark for remo­val of V(V) from aqueous solu­ti­ons.
Envi­ron Monit Assess. 2017 Nov 4;189(12):606. doi: 10.1007/s10661-017‑6329-0.
   Was­ser­rei­ni­gung

Vats S, Gupta T.
Eva­lua­ti­on of bioac­tive com­pounds and anti­oxi­dant poten­ti­al of hydro­etha­no­lic extract of Morin­ga olei­fe­ra Lam. from Rajasthan, India.
Phy­si­ol Mol Biol Plants. 2017 Jan;23(1):239–248. doi: 10.1007/s12298-016‑0407-6. Epub 2017 Jan 3.
  Ana­ly­se

Wang L et al.
Pro­teo­mic Pro­files Reveal the Func­tion of Dif­fe­rent Vege­ta­ti­ve Tis­su­es of Morin­ga olei­fe­ra.
Pro­te­in J. 2016 Dec;35(6):440–447.
  Pro­te­in­zu­sam­men­set­zung

Red­dy DH et al.
Bio­sorp­ti­on of Pb2+ from aqueous solu­ti­ons by Morin­ga olei­fe­ra bark: equi­li­bri­um and kine­tic stu­dies.
J Hazard Mater. 2010 Feb 15;174(1–3):831–8. doi: 10.1016/j.jhazmat.2009.09.128. Epub 2009 Oct 2.
   Was­ser­rei­ni­gung

Ben­nett RN et al.
Pro­filing glu­co­si­no­la­tes and phe­n­o­lics in vege­ta­ti­ve and repro­duc­tive tis­su­es of the mul­ti-pur­po­se trees Morin­ga olei­fe­ra L. (hor­se­radish tree) and Morin­ga sten­o­pe­ta­la L.
J Agric Food Chem. 2003 Jun 4;51(12):3546–53.
  Ana­ly­se

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