Md Fahmid Hossain Bhuiyan
Md Fahmid Hossain Bhuiyan
Genome Science and Technology
Genome Science and Technology (GST)
Bhuiyan is a graduate student in the Genome Science and Technology (GST) program at the University of Tennessee, Knoxville, conducting his doctoral research under the mentorship of Dr. Elena Shpak. Prior to his doctoral studies, Bhuiyan developed a specialized background in molecular biology and plant biology in Bangladesh. During the height of the COVID-19 pandemic, Bhuiyan committed to national service as a volunteer Biotechnologist at the Specialized Lab for COVID-19 Detection at SUST. He played a critical role in the country’s emergency response, performing high-throughput molecular diagnostics to support public health monitoring. Following this contribution, he joined the National Institute of Biotechnology (NIB), a premier public research organization under the Ministry of Science and Technology, the Government of the People’s Republic of Bangladesh, as a Scientific Officer. At NIB, his work utilized CRISPR-Cas9 genome editing to develop high-yielding rice varieties, aiming to enhance agricultural productivity and food security. Outside of his academic and research pursuits, Fahmid enjoys cooking, exploring the outdoors, and gaming.
Education
Bhuiyan earned both his Bachelor of Science and Master of Science in Genetic Engineering and Biotechnology from Shahjalal University of Science and Technology (SUST), where his research focused on plant stress biology in rice and mandarin.
Research
Bhuiyan’s research investigates the fundamental mechanisms governing vasculature development and patterning within the shoot apical meristem. Using Arabidopsis thaliana as a model organism, his work aims to elucidate the complex regulatory networks that dictate how plants establish and organize their internal transport systems in the shoot. He employs a multi-disciplinary approach to dissect these developmental pathways, utilizing genetic mutants and fluorescent-based reporters combined with advanced confocal microscopy to visualize real-time cellular patterning. Furthermore, he integrates molecular analysis through qPCR assays to quantify gene expression and conducts detailed phenotypic experiments to characterize the structural and functional outcomes of genetic modifications on plant architecture. By combining these imaging, molecular, and physiological techniques, his research contributes to a deeper understanding of plant developmental plasticity and the genetic blueprints that define plant growth.