Dr. Huijing Meng | Forestry - Student at Henan Agricultural University, China
Huijing Meng is an emerging researcher in forest biotechnology, focusing on genetic breeding and cultivation of stress-resistant, high carbon-sequestering plants. With expertise in molecular biology and plant tissue culture, Huijing has contributed to award-winning studies and published impactful research. Currently pursuing a Ph.D. at Henan Agricultural University, Huijing demonstrates a strong commitment to sustainability and ecological resilience through plant science. Their academic and research journey highlights a dedication to innovation in forestry biotechnology and a promising future in advancing climate-smart plant systems.
ACADEMIC PROFILE
Scopus
EDUCATION
Huijing Meng is pursuing a Ph.D. at Henan Agricultural University in forestry-related research. Their educational background includes Master’s degrees from the Chinese Academy of Forestry Sciences and Shanxi Agricultural University, following a Bachelor’s degree from Xinyang Agricultural and Forestry College. Across these programs, Huijing has built a solid foundation in plant breeding, genetics, and molecular biology. The academic path reflects a consistent interest in forestry and environmental adaptation, equipping Huijing with critical skills and theoretical grounding to address complex challenges in plant resilience and sustainable forestry systems.
EXPERIENCE
Huijing Meng has accumulated hands-on experience through advanced academic research and collaborative laboratory projects. Their work spans gene cloning, stress tolerance analysis, and transgenic plant development. Huijing has actively contributed to studies involving Populus, Arabidopsis, and other plant species using cutting-edge molecular and cultivation methods. Exposure to multi-institutional research environments has enhanced their technical proficiency and collaborative skills. These experiences have allowed Huijing to effectively contribute to plant improvement projects, with practical knowledge in breeding strategies and functional genomics applied to climate-resilient forestry.
RESEARCH INTEREST
Huijing Meng’s research centers on improving forest trees through genetic enhancement and understanding their stress-response mechanisms. Their primary interest lies in identifying genes related to drought, salinity, and cold tolerance, particularly in species with ecological and carbon sequestration value. Huijing combines molecular tools, tissue culture, and genetic transformation techniques to explore gene function and regulation under environmental stress. Their work supports the development of adaptable plant varieties that align with global goals in biodiversity conservation, climate mitigation, and sustainable forestry, contributing to innovations in plant-based environmental solutions.
AWARD AND HONOR
On December 18, 2023, Huijing Meng was awarded the Outstanding Paper Award by Guangzhou Boluteng Biological Co., Ltd. for their study titled “PeGSTU58, a Glutathione S-Transferase from Populus euphratica, Enhances Salt and Drought Stress Tolerance in Transgenic Arabidopsis.” The award recognizes Huijing’s innovation and scientific rigor in addressing critical challenges in plant stress biology. This achievement reflects their growing influence in the field and dedication to uncovering novel genetic solutions to enhance the resilience of plant species under environmental stress conditions.
RESEARCH SKILL
Huijing Meng possesses advanced skills in both plant tissue culture and molecular techniques. They are experienced with culturing various species including Acer palmatum, Populus, Arabidopsis thaliana, and Nicotiana tabacum. Their molecular toolkit includes gene cloning, vector construction, yeast hybridization, and genetic transformation of Arabidopsis and tree species such as Paulownia. Huijing is proficient in DNA and RNA extraction and designing functional gene experiments. These capabilities position Huijing as a versatile researcher capable of contributing to genetic improvement projects in plant resilience and forestry biotechnology.
PUBLICATIONS
Huijing Meng has authored and co-authored several significant scientific publications. Their lead-authored paper in International Journal of Molecular Sciences (2023) earned an Outstanding Paper Award for advancing stress-resistance research. Additional co-authored works include studies on AtruLEA1 and AtruNAC36, addressing drought tolerance mechanisms in Arabidopsis and Acer truncatum. Huijing also leads a forthcoming study on cold germination in Acer truncatum. These publications reflect their focus on applied genomics and abiotic stress response, positioning them at the forefront of climate-resilient plant research.
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Title: Overexpression of AtruLEA1 from Acer truncatum Bunge Enhanced Arabidopsis Drought and Salt Tolerance by Improving ROS-Scavenging Capability
Authors: Shaofeng Li, Huijing Meng, Yanfei Yang, Fei Wang, Guangshun Zheng, Jianbo Li
Journal: Plants
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Title: Transcriptional Regulation of the Acer truncatum B. Response to Drought and the Contribution of AtruNAC36 to Drought Tolerance
Authors: Jianbo Li, Wei Guo, Jinna Zhao, Yanfei Yang, Guangshun Zheng, Weijie Yuan, Huijing Meng
Journal: Antioxidants
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Title: PeGSTU58, a Glutathione S-Transferase from Populus euphratica, Enhances Salt and Drought Stress Tolerance in Transgenic Arabidopsis
Authors: Huijing Meng, Jinna Zhao, Yanfei Yang, Tao Li, Xinren Dai, Jianbo Li
Journal: International Journal of Molecular Sciences
CONCLUSION
Huijing Meng is a dedicated and skilled researcher committed to advancing forestry and plant science through innovative genetic approaches. Their academic path, practical research experience, and recognized publications underline a strong potential in solving environmental challenges through plant breeding. Huijing's work aligns with global priorities in sustainability and climate change resilience, particularly in tree species. With a growing portfolio of awards and publications, Huijing is poised to contribute meaningfully to ecological research, forestry innovation, and sustainable agricultural systems.