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Morus alba

Morus alba

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Natural products/compounds from  Morus alba

  1. Cat.No. Product Name CAS Number COA
  2. BCN8844 Mulberrofuran Q101383-35-1 Instructions
  3. BCN6343 Mulberroside A102841-42-9 Instructions
  4. BCN6344 Mulberroside C102841-43-0 Instructions
  5. BCN3289 Moracin P102841-46-3 Instructions
  6. BCN6303 Betaine107-43-7 Instructions
  7. BCN5890 Succinic acid110-15-6 Instructions
  8. BCN4004 Moracin O123702-97-6 Instructions
  9. BCN2596 Solanesol13190-97-1 Instructions
  10. BCN1583 3'-Geranyl-3-prenyl-2',4',5,7-tetrahydroxyflavone1334309-44-2 Instructions
  11. BCC8957 Episyringaresinol 4'-O-β-D-glncopyranoside137038-13-2 Instructions
  12. BCN1566 Oxyresveratrol 3'-O-beta-D-glucopyranoside144525-40-6 Instructions
  13. BCN1684 Rutin153-18-4 Instructions
  14. BCN1032 1-Deoxynojirimycin19130-96-2 Instructions
  15. BCN2908 Mulberroside F193483-95-3 Instructions
  16. BCN7840 Multicaulisin286461-76-5 Instructions
  17. BCN5201 Oxyresveratrol29700-22-9 Instructions
  18. BCN5906 Chlorogenic acid327-97-9 Instructions
  19. BCN3692 Sanggenol L329319-20-2 Instructions
  20. BCN1448 Oxyresveratrol 2-O-beta-D-glucopyranoside392274-22-5 Instructions
  21. BCN5549 Astragalin480-10-4 Instructions
  22. BCN1028 Morin480-16-0 Instructions
  23. BCN5607 Resveratrol501-36-0 Instructions
  24. BCN5701 Scopolin531-44-2 Instructions
  25. BCN3820 Stearic Acid57-11-4 Instructions
  26. BCN4165 Morusin62596-29-6 Instructions
  27. BCN2944 Kuwanon A62949-77-3 Instructions
  28. BCN4167 Mulberrin62949-79-5 Instructions
  29. BCN4168 Morusinol62949-93-3 Instructions
  30. BCN3287 Kuwanon E68401-05-8 Instructions
  31. BCC4109 Salicylic acid69-72-7 Instructions
  32. BCN2945 Kuwanon H76472-87-2 Instructions
  33. BCN6350 Sanggenone C80651-76-9 Instructions
  34. BCN1194 Sanggenone D81422-93-7 Instructions
  35. BCN2946 Sanggenone H86450-80-8 Instructions
  36. BCN3693 Mulberrofuran G87085-00-5 Instructions
  37. BCN4477 Umbelliferone93-35-6 Instructions

References

Chalcone derivatives from the root bark of Morus alba L. act as inhibitors of PTP1B and α-glucosidase.[Pubmed: 30103164]


None


Molecular characterization of a geranyl diphosphate-specific prenyltransferase catalyzing stilbenoid prenylation from Morus alba.[Pubmed: 30020500]


Pharmaceutically active compounds from medical plants are attractive as a major source for new drug development. Prenylated stilbenoids with increased lipophilicity are valuable secondary metabolites, which possess a wide range of biological activities. So far, many prenylated stilbenoids have been isolated from Morus alba but the enzyme responsible for the crucial prenyl-modification remains unknown. In the present study, a stilbenoid-specific prenyltransferase (PT), termed Morus alba oxyresveratrol geranyltransferase (MaOGT), was identified and functionally characterized in vitro. MaOGT recognized oxyresveratrol and geranyl diphosphate (GPP) as natural substrates, and catalyzed oxyresveratrol prenylation. Our results indicated that MaOGT shared common features with other aromatic PTs, e.g. multiple transmembrane regions, conserved functional domains, and targeting to plant plastids. This distinct PT represents the first stilbenoid-specific PT accepting GPP as a natural prenyl donor, and could help identify additional functionally varied PTs in moraceous plants. Furthermore, MaOGT might be applied for high-efficiency and large-scale prenylation of oxyresveratrol to produce bioactive compounds for potential therapeutic applications.


Comparative study of chemical composition and active components against α-glucosidase of various medicinal parts of Morus alba L.[Pubmed: 29975423]


Morus alba L has long been used as fodder and as a traditional medicine. Various parts of M. alba (Cortex mori, Ramulus mori, Folium mori and Fructus mori) have various bioactivities, however, most current evidence focused on anti-diabetic properties. In spite of their wide use, few studies compared the chemical composition and active components against α-glucosidase of the various medicinal parts of M. alba. In this study, we developed an HPLC method for simultaneous quality control and discrimination of Cortex mori, Ramulus mori, Folium mori and Fructus mori using thirteen marker compounds. We found that quercetin, morin, kuwanon G, sanggenon C, morusin, mulberroside A and rutin were chemically distinct among the various medicinal parts of M. alba. A spectrum-effect relationship method was established to compare α-glucosidase inhibitory activity of various batches of samples to determine the activity of the primary active components against α-glucosidase. Taken together with molecular docking data, we found that prenylated flavonoids (morin, sanggenon C, kuwanon G and morusin), flavonols (kaempferol, quercetin, rutin and isoquercitrin) and alkaloids (1-deoxynojirimycin) were small molecule α-glucosidase inhibitory ingredients. In conclusion, we laid a solid foundation for effective substance identification in various parts of M. alba, and simultaneously provided a basis for their quality control.


Morus alba Leaf Bioactives Modulate Peroxisome Proliferator Activated Receptor γ in the Kidney of Diabetic Rat and Impart Beneficial Effect.[Pubmed: 29969905]


Peroxisome proliferator activated receptor gamma (PPARγ) is a ligand-activated nuclear receptor that can be activated or repressed by several exogenous and endogenous ligands and acts by modulating genes that regulate lipid, glucose, and insulin homeostasis. In kidney, PPARγ is involved in normal kidney development and other physiological functions. In our earlier report, we showed that feeding Morus alba leaves to experimental diabetic rats ameliorated diabetic nephropathy and significantly decreased microalbuminuria. In this paper, we have attempted to look into the molecular mechanism involving PPARγ modulation by mulberry leaf bioactive compounds by in vitro and in vivo methods and its impact on key inflammatory markers. In vitro assay by TR-FRET suggested that mulberry leaf extracts can serve as a putative modulator of PPARγ. High glucose conditions in vitro and in vivo increased PPARγ levels, which were ameliorated by mulberry leaves or their extracts. Interestingly, PPARγ was significantly phosphorylated at Ser112 by upstream kinases ERK42/44 in kidney of diabetic animals on feeding mulberry leaves. In vitro studies using MDCK cell line revealed that increased Ser112 phosphorylation was observed when cells were treated with bound phenolic acid rich extract but not with free phenolic acid rich extracts. HPLC analysis and bioassay-guided activity revealed that coumaric acid was the bioactive molecule within bound phenolic acid rich extract that was responsible for increased ERK42/44-mediated phosphorylation at Ser112. Furthermore, mulberry leaf bioactive compounds showed beneficial effect on the tested inflammatory markers.


Efficient production of succinic acid from herbal extraction residue hydrolysate.[Pubmed: 29935453]


In this study, six different herbal-extraction residues were evaluated for succinic acid production in terms of chemical composition before and after dilute acid pretreatment (DAP) and sugar release performance. Chemical composition showed that pretreated residues of Glycyrrhiza uralensis Fisch (GUR) and Morus alba L. (MAR) had the highest cellulose content, 50% and 52%, respectively. Higher concentrations of free sugars (71.6 g/L total sugar) and higher hydrolysis yield (92%) were both obtained under 40 FPU/g DM at 10% solid loading for GUR. Using scanning electron microscopy (SEM), GUR was found to show a less compact structure due to process of extraction. Specifically, the fibers in pretreated GUR were coarse and disordered compared with that of GUR indicated by SEM. Finally, 65 g/L succinic acid was produced with a higher yield of 0.89 g/g total sugar or 0.49 g/g GUR. Our results illustrate the potential of GUR for succinic acid production.


Sipi soup inhibits cancer‑associated fibroblast activation and the inflammatory process by downregulating long non‑coding RNA HIPK1‑AS.[Pubmed: 29901171]


Sipi soup (SPS), the aqueous extract derived from the root bark of Sophora japonical L, Salix babylonica L., Morus alba L., as well as Amygdalus davidiana (Carr.) C. de Vos, is a traditional Chinese medicine frequently used to prevent and treat infection and inflammation. However, the role of SPS in cancer‑associated fibroblasts (CAFs) require further investigation. In the present study, the effects of SPS on fibroblast inactivation and the underlying mechanism were investigated. Reverse transcription‑quantitative polymerase chain reaction was used to analyze the mRNA expression levels of fibroblast activation protein (FAP), interleukin (IL)‑6, α‑smooth muscle actin (α‑SMA) and programmed cell death 4 (PDCD4). Flow cytometry was used to evaluate cell apoptosis. Immunofluorescence was used to determine the number of activated fibroblasts. The present study reported that SPS treatment did not affect the proliferative apoptotic potential of fibroblasts. Treatment with HeLa cell culture medium (CM) induced a significant increase in the expression levels of FAP, IL‑6 and α‑SMA, but reduced the expression of PDCD4. SPS reversed the effects of HeLa CM on the expression of these genes. Analysis with a long non‑coding (lnc)RNA array of numerous differentially expressed lncRNAs revealed that the expression levels of the lncRNA homeodomain‑interacting protein kinase 1 antisense RNA (HIPK1‑AS) were increased in cervicitis tissues and cervical squamous cell carcinoma tissues compared with in normal cervical tissues. HIPK1‑AS expression levels were upregulated in response to HeLa CM, but were decreased under SPS treatment. The downregulation of HIPK1‑AS expression via short hairpin RNA abolished the effects of HeLa CM on the expression of inflammation‑associated genes. The findings of the present study suggested that SPS may prevent the progression of cervical cancer by inhibiting the activation of CAF and the inflammatory process by reducing HIPK1‑AS expression.