Donggiun Kim
Journal of Plant Biotechnology 2015; 42(4): 409-413Abstract : To enhance phytoremediation, which removes heavy metal from soil, transgenic plants were applied to contaminated soil. We constructed a transformation vector expressing both
Jaemin Jung, Sunghwan Choi, Juyeol Oh, Nahui Kim, Daeun Kim, Beunggu Son, and Younghoon Park
Journal of Plant Biotechnology 2015; 42(4): 401-408Abstract : Horticultural traits and genetic relationship were evaluated for 83 melon (
Min Sun Park, and Pil Son Choi
Journal of Plant Biotechnology 2015; 42(4): 396-400Abstract : To investigate the optimal conditions for shoot organogenesis in
Na Nyum Lee, Yong Eui Choi, and Heung Kyu Moon
Journal of Plant Biotechnology 2015; 42(4): 388-395Abstract : Somatic embryogenesis is as an excellent technology for potential use in plant mass production, germplasm conservation, or genetic engineering. We examined the effect of cold storage using 3 embryogenic callus lines with different levels of embryogenesis competence derived from immature zygotic embryo cultures of
Myoung-Chul Kwak, Chung-Ho Choi, Yong-Eui Choi, and Heung-Kyu Moon
Journal of Plant Biotechnology 2015; 42(4): 380-387Abstract : Aronia (
Yong Wook Kim, Ji Ah Kim, Heung Kyu Moon, and Su Jin Jeong
Journal of Plant Biotechnology 2015; 42(4): 376-379Abstract : This study was conducted to evaluate the effects of different types and concentrations of organic nitrogen sources (L-Glutamine and casein hydrolysate, CH) and plant growth regulators (auxins and cytokinins) on embryogenic tissue proliferation and somatic embryo production in
Hyun Suk Lee, Hyun Rho Park, Hyun seak Kim, and Chang Kil Kim
Journal of Plant Biotechnology 2015; 42(4): 370-375Abstract : This experiment compared the regeneration conditions of the radiation mutant spray chrysanthemum ‘purple ND’. The four different flower blooming stages (S1: 10% opened flower, S2: 30% opened flower, S3: 50% opened flower, and S4: 70% opened flower) and different petal parts (TBOP: the basal of petal and TEOP: the end of petal) were used to compare regeneration conditions between plants grown in MS medium supplemented with IAA and BAP. The highest adventitious shooting rate was identified in plants grown on the IAA 1.0mg·L-1 and BAP 2.0mg·L-1 when using the end of petal at the S2 stage. It displayed 79.2% regeneration and produced 33.4 shoots. Rooted plantlets were successfully established in the greenhouse, showing the same morphological characteristics of vegetative and reproductive organs with those of the mother plant. Flow cytometry analysis revealed no ploidy variation between the regenerated plants and the mother plant grown under greenhouse conditions.
Dong-Hee Kim, Yong-Sun Moon, Tae-Soon Park, and Jun-Ho Son
Journal of Plant Biotechnology 2015; 42(4): 364-369Abstract : Safflower (
Jin-Seong Cho, Seol Ah Noh, and Young-Im Choi
Abstract : In order to study genetic engineering in trees, the characterization of genes and promoters from trees is necessary. We isolated the promoter region (867 bp) of
Jae Yun Jeung, Yong Pyo Lim, and Cheol Ho Hwang
Journal of Plant Biotechnology 2015; 42(4): 350-355Abstract : Clubroot disease is one of the most wide-spread and devastating diseases in the cultivation of Chinese cabbage. To develop a protein marker for resistance to clubroot disease in Chinese cabbage, a comparative proteome analysis was performed between a sensitive line, 94SK, and a resistant line, CR Shinki DH. Three proteins of two fold or higher accumulation that are specific to each line were found 3 days after innoculation of the
Journal of
Plant BiotechnologyConfirmation of Clubroot disease symptoms in the Chinese cabbage roots of 94SK with inoculation of
Comparative proteomic analysis of root proteins of 94SK (clubroot disease susceptible Chinese cabbage) without inoculation (A1) and with inoculation (A2) at 3 DAI. CR Shinki DH line (clubroot disease resistant Chinese cabbage) without inoculation (B1) and with inoculation (B2) at 3 DAI. C1 and C2 are recombined data of A2 and B1 for comparison
|@|~(^,^)~|@|Parts of 2-D images as shown in Fig 2 showing difference in proteins from roots of 94SK without inoculation (A1) and with inoculation (A2) at 3 DAI as well as from roots of CR Shinki DH line without inoculation (B1) and with inoculation (B2) at 3 DAI. C1 and C2 are parts of 2-D images showing difference in proteins from the roots of 94SK and CR Shinki DH line without inoculation, respectively. The circles indicate the up or down regulated proteins in those comparisons