Marine Biomedicine Laboratory
Research Field
Zhi Hong Wen is a pharmacologist who graduated from the Institute of Life Sciences, National Defense Medical Center, Taiwan in 2003. He worked at the Shin Kong Wu Ho-Su Memorial Hospital in 2004 and the Department of Marine Biotechnology and Resources, National Sun Yat-sen University from 2005 to the present. He has served as Vice President, Office of industrial collaboration and continuing education affairs, National Sun Yat-sen University (2015/2-2018/7). Distinguished Professor (2018/08 to present) and Professor (2012/08 to 2018/07), Department of Marine Biotechnology and Resources, National Sun Yat-sen Univerity . Over the past 18 years, our team has discovered many bioactive substances that have potential to treat many human diseases such as skin-related diseases, neuropathic pain, neurodegenerative diseases, osteoarthritis, cardiovascular diseases, cancer and so on. Further, we also examined the in vivo therapeutic effects of bioactive substances by using animal (zebrafish and rat) disease models. Up to the present, our laboratory has established more than 25 animal disease models. From 2005 to 2023/7, we have published more than 350 articles in SCI journals, 50 industry - university cooperation grants and also possessed 25 patents. We also concluded 13 biotechnological technology transfers to private enterprises, and have substantially assisted in their production and marketing. In collaboration with the coral breeding techniques and the pharmaceutical research on marine bioactive products, we utilize research results in areas such as skin care products and drug discovery. Especially, the successful development of coral cosmetics was affirmed by the 13th National Innovation Award, the 20th Moscow Archimedes International Invention Exhibition Golden Medal Award and Women Inventors Association "NOVA" Bosnia and Herzegovina special award.
The Marine Biomedical Laboratory at the National Sun Yat-sen University was established in August 2005. To date, our laboratory has successfully developed 32 in vivo disease models (non-genetic manipulation) to accelerate drug discovery (or repurposing), investigate the pathogenic mechanisms underlying human diseases, and enhance cooperation between industry and academia. In recent years, our team has discovered several anti-inflammatory, anti-neuroinflammation, osteoprotective, and cytotoxic bioactive substances from marine and herbal pharmaceutical species. Furthermore, our animal experiments have strongly indicated that these substances or repurposed drugs could potentially treat several human diseases, including skin-related diseases, pain, neurodegenerative diseases, arthritis, cardiovascular diseases, brain cancer, bone regeneration, among others. In addition, our laboratory has cooperated with several medical doctors at hospitals. From 2008 to 2023, we have published more than 200 articles in SCI journals, acquired more than 40 industry-university cooperation grants, and attained several patents involving the effect of marine compounds or novel gene therapy in animal models of inflammatory diseases, along with 21 biotechnology and medical patents. Our laboratory has concluded 10 biotechnological transfers to private enterprises, substantially assisting in their production and marketing. With support from the Ministry of Science and Technology (2013-2019), we cooperated with several principal investigators and established the “Translational League of Marine Cosmeceuticals” to promote active chemical knowledge and a biomedical core testing technology platform for related industries, reinforcing competitiveness to accelerate the economic development of Taiwan. Recently, in collaboration with coral breeding techniques, and pharmaceutical and cosmeceutical research on marine bioactive products, we extended our research results to areas such as skin-care products and drug discovery. Furthermore, we have successfully established a startup company from the university based on the above-derived technology.
- Establish a system for selecting of Indigenous Marine Organisms-Derived Bioceramic Bone Graft Substitutes with Clinical Potential (NSTC 2021/08-2025/07)
- Osteoprotective effects and molecular mechanisms of bioactive substances obtained from cultured red algae Sarcodia suieae (NSTC 2017/08-2021/07)
- Phenotypic screening of marine compounds provides novel antichronic itch implications: The advancing therapeutic strategies for itch and its relationship with neuropathic pain
- Establish a system for screening of anti-inflammatory nature compound from Formosan corals
- Effects of marine derived anti-inflammatory, anti-nociceptive or neuroprotective compounds from Formosa coral reef-from cell to animal study.
- Integration of in vitro neuroinflammatory system and animal models in search of potential therapeutic drugs for neuropathological diseases from indigenous soft corals.
- Therapeutic effects of Formosan drugs on intractable pain, multiple sclerosis, Parkinson’s disease and spinal cord injury in animal diseases model.
- The mariculture of marine organisms and their use as sources for the development of marine natural drugs.
Academic expertise (specialty/research)
Drugs, Cosmeceutical and Nutraceutical development
Animal disease model (non-genetic) platform
Osteoarthritis
Glioblastoma multiforme
Marine-derived bioceramic material for bone graft application
Neuroscience and Neurodegeneration
- Outstanding research award of National Sun Yat-sen University (2010-2017).
- Outstanding industry and University award of National Sun Yat-sen University (2012, 2016, 2017).
- Outstanding mentor award of National Sun Yat-sen University (2005 and 2009).
- Advisor, College Student Research Creativity Award of National Science Council (2005, 2009).
- The Marquis Who's Who in the World (Medicine and Healthcare 7th edition).
- The 13th national innovation award (2016), academic research category by the biotechnology and medicine industry. The culture Formosa soft coral for cosmeceuticals.
- The winners of the 2017 FutureTech Breakthrough Award, Ministry of Science and Technology.
- Distinguished industry and university award of National Sun Yat-sen University 2018-2020.
- The Academic Entrepreneurship Pioneer Award, 2019 FutureTech Breakthrough Award, Ministry of Science and Technology.
- The 2019 National Innovation Award renewal and issue the excelsior award in recognition of continuing innovations and advance in R&D.
Academic Background (please indicate period):
1. Ph.D., Graduate Institute of Life Sciences, National Defense Medical Center, Taiwan. (1998/08-2003/05)
2. MS, Institute of Marine Resources, National Sun Yat-sen University, Taiwan. (1996/08-1998/07)
3. BS, Department of Marine Resources (major), Department of Biology (minor), National Sun Yat-sen Univerity, Taiwan. (1992/08-1996/07)
2 Vacancies
Job Description
ntral nervous system. Even TMZ (temozolomide) plus radiation therapy only extends the median survival by 2.5 months. Studies have shown that the highly variable tumor microenvironment and resistance to the chemotherapy drug TMZ in GBM patients are the most critical challenges in the course of the disease. Therefore, we established an in vitro co-culture system of GBM, macrophages, and microglia to simulate the microenvironment of GBM in the patient's brain. Preliminary use of software to analyze and find STAT3 and p53-SNAIL molecules may be important biomarkers for GBM patients. We have also obtained inhibitors of the above molecules that meet the "drug-like" physicochemical properties and have blood brain barrier-passing properties. Preliminary results show that the two target inhibitors have excellent anti-GBM properties in the tumor microenvironment and TMZ resistance. This study mainly wanted to explore the interaction between GBM and the microenvironment, its impact on cancer stem cells, immune escape, drug resistanc, and clarify exosome roles. At the same time, we also evaluate whether STAT3 and p53-SNAIL target inhibitors can be developed into drug candidates for treating GBM and their possible mechanisms of action. This project is expected to last three years: The first year will focus on exploring the interaction between the tumor microenvironment and GBM-TMZ drug resistance on GBM stem cells, exosomes, mitochondrial function, EMT (Epithelial-mesenchymal transition) molecules, and anti-tumor immunity. Mechanism of action at the molecular level to evaluate the impact of STAT3 and p53-SNAIL targeted inhibitors. In the second year, we will explore the impact of the target inhibitor on the tumor microenvironment in regulating TMZ in an in vitro model, as well as its molecular mechanism and the role of exosomes. The target inhibitors will also be tested in vivo (xenografts). In the third year, the effect of the target inhibitor in vivo (brain cancer) in the presence and absence of TMZ will be analyzed. It is hoped that these results will provide a deeper understanding of the interactions between the complex GBM microenvironment and drug resistance, and provide opportunities to identify potential strategies and drug targets.
Preferred Intern Education Level
Undergraduate students or bachelor's students at national universities
Skill sets or Qualities
cell culture
western blot
animal experiment
Internship-related fee required by the school/institution
Interns who conduct their internship on campus must apply as visiting students at least 1 month before their arrival. They are required to pay the fees listed on this page
<https://oia.nsysu.edu.tw/p/412-1308-20683.php?Lang=en>
and complete registration/leaving procedures. Please note that NSYSU does not provide on-campus housing for visiting students. Interns will have to look for off-campus housing by themselves. Off-campus housing resources can be found on this page
<https://oia.nsysu.edu.tw/p/412-1308-20683.php?Lang=en>