| 國立成功大學 |
2023 |
Antibacterial effects against pathogens of Vibrio genus using 5-aminolevulinic acid produced from recombinant Escherichia coli
|
Liao, Y.-C.;Lo, Y.-C.;Ho, N.H.E.;Lee, D.-J.;Ng, I.-S.;Chang, J.-S. |
| 國立成功大學 |
2023 |
Clustered regularly interspaced short palindromic repeats (CRISPR) technology and genetic engineering strategies for microalgae towards carbon neutrality: A critical review
|
Lee, T.-M.;Lin, J.-Y.;Tsai, Tsai T.-H.;Yang, R.-Y.;Ng, I.-S. |
| 國立成功大學 |
2023 |
A direct enzymatic evaluation platform (DEEP) to fine-tuning pyridoxal 5′-phosphate-dependent proteins for cadaverine production
|
Xue, C.;Ng, I.-S. |
| 國立成功大學 |
2023 |
Precise strength prediction of endogenous promoters from Escherichia coli and J-series promoters by artificial intelligence
|
Huang, Y.-K.;Yu, C.-H.;Ng, I.-S. |
| 國立成功大學 |
2023 |
Enhanced carbon capture, lipid and lutein production in Chlamydomonas reinhardtii under meso-thermophilic conditions using chaperone and CRISPRi system
|
Lin, J.-Y.;Ng, I.-S. |
| 國立成功大學 |
2023 |
Iterative optimization of exogenous genes and redirection of metabolic flux for enhanced itaconate biosynthesis in engineered Escherichia coli
|
Hsiang, C.-C.;Chen, Y.-C.;Ng, I.-S. |
| 國立成功大學 |
2023 |
Pathogenesis-related protein 1 suppresses oomycete pathogen by targeting against AMPK kinase complex
|
Luo, X.;Tian, Tian T.;Feng, L.;Yang, X.;Li, Li L.;Tan, X.;Wu, Wu W.;Li, Z.;Treves, H.;Serneels, F.;Ng, I.-S.;Tanaka, K.;Ren, M. |
| 國立成功大學 |
2023 |
Prospective and challenges of live bacterial therapeutics from a superhero Escherichia coli Nissle 1917
|
Effendi, S.S.W.;Ng, I.-S. |
| 臺大學術典藏 |
2022-03-22T08:29:15Z |
Succinic acid fermentation with immobilized Actinobacillus succinogenes using hydrolysate of carbohydrate-rich microalgal biomass
|
Chiang Y.-Y;Nagarajan D;Lo Y.-C;Chen C.-Y;Ng I.-S;Chang C.-H;Lee D.-J;Chang J.-S.; Chiang Y.-Y; Nagarajan D; Lo Y.-C; Chen C.-Y; Ng I.-S; Chang C.-H; Lee D.-J; Chang J.-S.; DUU-JONG LEE |
| 臺大學術典藏 |
2022-03-22T08:29:15Z |
Succinic acid fermentation with immobilized Actinobacillus succinogenes using hydrolysate of carbohydrate-rich microalgal biomass
|
Chiang Y.-Y;Nagarajan D;Lo Y.-C;Chen C.-Y;Ng I.-S;Chang C.-H;Lee D.-J;Chang J.-S.; Chiang Y.-Y; Nagarajan D; Lo Y.-C; Chen C.-Y; Ng I.-S; Chang C.-H; Lee D.-J; Chang J.-S.; DUU-JONG LEE |
| 臺大學術典藏 |
2022-03-22T08:29:15Z |
Succinic acid fermentation with immobilized Actinobacillus succinogenes using hydrolysate of carbohydrate-rich microalgal biomass
|
Chiang Y.-Y;Nagarajan D;Lo Y.-C;Chen C.-Y;Ng I.-S;Chang C.-H;Lee D.-J;Chang J.-S.; Chiang Y.-Y; Nagarajan D; Lo Y.-C; Chen C.-Y; Ng I.-S; Chang C.-H; Lee D.-J; Chang J.-S.; DUU-JONG LEE |
| 臺大學術典藏 |
2022-03-22T08:29:15Z |
Succinic acid fermentation with immobilized Actinobacillus succinogenes using hydrolysate of carbohydrate-rich microalgal biomass
|
Chiang Y.-Y;Nagarajan D;Lo Y.-C;Chen C.-Y;Ng I.-S;Chang C.-H;Lee D.-J;Chang J.-S.; Chiang Y.-Y; Nagarajan D; Lo Y.-C; Chen C.-Y; Ng I.-S; Chang C.-H; Lee D.-J; Chang J.-S.; DUU-JONG LEE |
| 臺大學術典藏 |
2022-03-22T08:26:24Z |
Succinic acid fermentation with immobilized Actinobacillus succinogenes using hydrolysate of carbohydrate-rich microalgal biomass
|
Chiang Y.-Y;Nagarajan D;Lo Y.-C;Chen C.-Y;Ng I.-S;Chang C.-H;Lee D.-J;Chang J.-S.; Chiang Y.-Y; Nagarajan D; Lo Y.-C; Chen C.-Y; Ng I.-S; Chang C.-H; Lee D.-J; Chang J.-S.; DUU-JONG LEE |
| 臺大學術典藏 |
2022-03-22T08:26:24Z |
Succinic acid fermentation with immobilized Actinobacillus succinogenes using hydrolysate of carbohydrate-rich microalgal biomass
|
Chiang Y.-Y;Nagarajan D;Lo Y.-C;Chen C.-Y;Ng I.-S;Chang C.-H;Lee D.-J;Chang J.-S.; Chiang Y.-Y; Nagarajan D; Lo Y.-C; Chen C.-Y; Ng I.-S; Chang C.-H; Lee D.-J; Chang J.-S.; DUU-JONG LEE |
| 國立成功大學 |
2022 |
Prospective and challenges of live bacterial therapeutics from a superhero Escherichia coli Nissle 1917
|
Effendi, S.S.W.;Ng, I.-S. |
| 國立成功大學 |
2022 |
Adaptive laboratory evolution and metabolic regulation of genetic Escherichia coli W3110 toward low-carbon footprint production of 5-aminolevulinic acid
|
Ting, W.-W.;Ng, I.-S. |
| 國立成功大學 |
2021 |
Stepwise optimization of genetic RuBisCO-equippedEscherichia colifor low carbon-footprint protein and chemical production
|
Tan, S.-I.;Ng, I.-S. |
| 國立成功大學 |
2021 |
Molecular mechanism of arachidonic acid biosynthesis in Porphyridium purpureum promoted by nitrogen limitation
|
Jiao, K.;Xiao, W.;Shi, X.;Ho, S.-H.;Chang, J.-S.;Ng, I.-S.;Tang, X.;Sun, Y.;Zeng, X.;Lin, Lin L. |
| 國立成功大學 |
2020 |
Effective purification of lysozyme from chicken egg white by tris(hydroxymethyl)aminomethane affinity nanofiber membrane
|
Liu, B.-L.;Ooi, C.W.;Ng, I.-S.;Show, P.L.;Lin, K.-J.;Chang, Y.-K. |
| 國立成功大學 |
2020 |
Development of chromosome-based T7 RNA polymerase and orthogonal T7 promoter circuit in Escherichia coli W3110 as a cell factory
|
Ting, W.-W.;Tan, S.-I.;Ng, I.-S. |
| 國立成功大學 |
2020 |
Efficient biotransformation of L-lysine into cadaverine by strengthening pyridoxal 5’-phosphate-dependent proteins in Escherichia coli with cold shock treatment
|
Xue, C.;Hsu, K.-M.;Ting, W.-W.;Huang, S.-F.;Lin, H.-Y.;Li, S.-F.;Chang, J.-S.;Ng, I.-S. |
| 國立成功大學 |
2020 |
Antibacterial efficacy of chitosan- and poly(hexamethylene biguanide)-immobilized nanofiber membrane
|
Ng, I.-S.;Ooi, C.W.;Liu, B.-L.;Peng, C.-T.;Chiu, Chiu C.-Y.;Chang, Y.-K. |
| 國立成功大學 |
2020 |
High-level L-lysine bioconversion into cadaverine with enhanced productivity using engineered Escherichia coli whole-cell biocatalyst
|
Leong, Y.K.;Chen, Chen C.-H.;Huang, S.-F.;Lin, H.-Y.;Li, S.-F.;Ng, I.-S.;Chang, J.-S. |
| 國立成功大學 |
2020 |
Optimization of three-phase fluidized bed cell disruptor for the release of alcohol dehydrogenase from baker's yeast
|
Chang, Y.-K.;Ooi, C.-W.;Liew, P.-E.;Ng, I.-S.;Huang, Y.-N.;Chen, Z.-H. |
| 國立成功大學 |
2020 |
Facilitating the enzymatic conversion of lysineto cadaverine in engineered Escherichia coli with metabolic regulation by genes deletion
|
Huang, C.-Y.;Ting, W.-W.;Chen, Y.-C.;Wu, P.-Y.;Dong, C.-D.;Huang, S.-F.;Lin, H.-Y.;Li, S.-F.;Ng, I.-S.;Chang, J.-S. |
