彭進順 助理教授

彭進順 (Chin-Soon Phan)

職稱 (Job Title):

長庚科技大學 助理教授 (Assistant Professor, Chang Gung University of Science and Technology)

主要學歷 (Education) :

馬來西亞沙巴大學 熱帶生物學與保育研究所 博士 2018 (Ph.D., Institute for Tropical Biology and Conservation, Universiti Malaysia Sabah, 2018).

西澳大利亞大學 分子科學學院 訪問學者 2018-2019 (Visiting Fellow, School of Molecular Sciences, The University of Western Australia 2018-2019).

北海道大學 環境科學研究生院 JSPS博士後研究員 2019-2021 (JSPS Postdoctoral Fellow, Graduate School of Environmental Science, Hokkaido University 2019-2021).

新加坡國立大學 藥學系 博士後研究員 2021-2023 (Postdoctoral Researcher, Department of Pharmacy, National University of Singapore 2021-2023).

拉脫維亞有機合成研究所 天然產物研究組 首席研究員 2023-2026 (PI, Natural Products Research Group, Latvian Institute of Organic Synthesis 2023-2026).

分機號碼 (Office Telephone No.):5100

電子郵件帳號 (Email Address):csphan@mail.cgust.edu.tw

實驗室網站:(Laboratory Website): https://sites.google.com/view/phanlab/

研究專長 (Research Specialties)

天然產物 (Natural Products)、生物合成 (Biosynthesis)、酵素學 (Enzymology)

研究概要 (Research Summary)

我們主要關注微生物中的生物活性分子和酶,並利用它們來應對人類健康和環境永續性的挑戰,這包括對其結構、生物合成和生物活性的基本了解。(Our primary interest concerns the bioactive molecules and enzymes in microbes, repurposing them to address challenges in human health and environmental sustainability, which includes a fundamental understanding of their structures, biosynthesis, and bioactivities.)

研究方向 (Research Directions)

(1)天然產物發現:為了發現與人類健康相關的微生物天然產物,我們使用基於質譜的檢測、基於色譜的分離和基於核磁共振的表徵等技術。(Natural products discovery: To discover microbial natural products that are relevant to human health, we use techniques such as mass spectrometry-based detection, chromatography-based isolation and NMR-based characterization.)
(2) 將化學與基因聯繫起來:為了更好地了解自然界如何製造分子,我們對已鑑定的天然產物進行體內和/或體外生物合成途徑重建。(Connecting chemistry back to genes: To better understanding how nature makes molecules, we perform in vivo and/or in vitro biosynthetic pathway reconstitution of identified natural products.)
(3) 受演化啟發的探索:為了對編碼天然產物的蛋白質進行基因組挖掘,我們使用生物資訊工具(如序列相似性網絡和系統發育樹)來建構、視覺化和分析蛋白質序列。(Evolution-inspired exploration: To perform genome mining for proteins encoding natural products, we use bioinformatic tools such as sequence similarity networks and phylogenetic trees to construct, visualize and analyze protein sequences.)
(4) 酵素學:為了研究酵素的結構、底物範圍和活性位點,我們使用 AlphaFold 蛋白質結構預測、體外表徵和定點突變。(Enzymology: To study the structure, substrate scope and active site of enzymes, we use AlphaFold protein structure prediction, in vitro characterization and site-directed mutagenesis.)

學會或專業認證或得獎事蹟 (Societies, Professional Certifications, or Awards)

  1. 2026: Young Investigator Workshop - European Chemical Society, EU. (Nominated, selected but self-declined)
  2. 2025: Emerging Investigator - RSC Chemical Biology, UK.
  3. 2024: D. John Faulkner Award - American Society of Pharmacognosy, USA.
  4. 2019: JSPS Postdoc Fellowship Award - Japan Society for the Promotion of Science, Japan.
  5. 2018: Best PhD Thesis Award - Natural Products Society, Malaysia.
  6. 2018: Best PhD Thesis Award - UMS, Malaysia.

重要論文著作 (Key publications)

  • Haedar J. R., Khan A. H., Gullick J., Hansen M. H., Coe L. J., De Voss J. J., Romanuks V., Smits G., Donadio S., Cryle M. J., Phan C.-S.* P450 cyptide synthase AscB catalyzes fused cyclophane at the YxWxH motif on the precursor peptides. Org. Lett. 2026, 28, 5966-5971.
  • Haedar J. R., Kumari G. S., Kiselov V., Romanuks V., Smits G., Donadio S., Phan C.-S.* P450 cyptide synthase KwwB catalyzes Trp-C5–Trp-N1 cross-linking and accepts diverse precursor peptides. Org. Lett. 2026, 28, 433-437.
  • Khan A. H., Haedar J. R., Kiselov V., Romanuks V., Smits G., Donadio S., Phan C.-S.* P450 biarylitide synthase ShyB catalyzes cross-link between His-C2 and Tyr-O4 on the precursor peptide. Org. Lett. 2025, 27, 5715-5719.
  • Khan A. H., Haedar J. R., Kiselov V., Romanuks V., Smits G., Donadio S., Phan C.-S.* Radical SAM enzyme WprB catalyzes uniform cross-link topology between Trp-C5 and Arg-Cg on the precursor peptide. ACS Chem. Biol. 2025, 20, 259-265.
  • Phan C.-S., Morinaka B. I. Sequence-function space of radical SAM cyclophane synthases reveal conserved active site residues that influence substrate specificity. RSC Chem. Biol. 2024, 5, 1195-1200.
  • Phan, C.-S., Matsuda, K., Balloo, N., Fujita, K., Wakimoto, T., Okino, T. Argicyclamides A-C unveil enzymatic basis for guanidine bis-prenylation. J. Am. Chem. Soc. 2021, 143, 10083-10087.