“…Hernandez-Ledesma et al [138] reported that the amino acid sequence 23-31 is responsible for lunasin to target histones H3 and H4; the RGD motif for the internalization of lunasin into the cells and the polyaspartic acid tail for direct binding of lunasin to core histones thereby affecting mitosis and eventually leading to cell death. Galvez and de Lumen [139] first reported the biological property of [166,167] Induction of LC3-II generation, double-layer vesicle, BNIP3 and acidic vascular formation (Con A, 40 μg/ml and 20 mg/kg, in vitro and in vivo) [168] Apoptosis Mitochondrial depolarization (mistletoe extract, 60-250 μg/ml, in vitro; Polygonatum cyrtonema, 15 μg/ml, in vitro) [128,166,167] Cytochrome c release (Polygonatum cyrtonema, 15 μg/ml, in vitro) [ 167,168] Caspase activation (Clematis montana, 1 pM, in vitro; Sophora flavescens, 1 μg/ml, in vitro) [ 134,135] Decreased expression of NF-κB, X-linked inhibitor of apoptosis proteins, and Akt/kinase B; activation of TNF receptor 1 and caspase-8 (Korean mistletoe, 100 ng/ml, in vitro) [124] Degradation of the cytoskeletal protein gelsolin (Viscum album agglutinin-I 1 μg/ml, in vitro) [ 129] Increased expression of FasL and FADD proteins (Polygonatum odoratum, 25 μg/ml, in vitro) [ 133] BNIP3 BCL2/adenovirus E1B 19 kDa protein-interacting protein 3, FADD Fas-associated protein with death domain lunasin, formerly known as a soybean cDNA encoding small subunit peptide of 2S soy albumin. They showed that transfection of lunasin plasmid into murine hepatoma cancer cells, murine fibroblast cells, and human cancer cells arrested cell division, caused abnormal elongation of spindle fiber, chromosomal fragmentation, and cell lysis.…”