Department of Biological Sciences

The Department of Biological Sciences is pleased to announce that Sarah Lu Chang and Robert Ditter have each won cash awards in the Art of Research. The competition took place April 16, 2024, in Hamlin Hall at the Buffalo Museum of Science. The event recognizes the extraordinary research of graduate students and postdoctoral scholars by showcasing original imagery inspired by the beauty inherent in research, scholarship and creative activities.

Published in Nature Genetics, researchers have created what they say is the highest-quality reference genome to date of the world’s most popular coffee species, Arabica, unearthing secrets about its lineage that span millennia and continents. Their findings, suggest that Coffea arabica developed more than 600,000 years ago in the forests of Ethiopia via natural mating between two other coffee species. The large international team was co-led by Victor Albert, Empire Innovation Professor in the Department of Biological Sciences. Other contributors from the department include Trevor Krabbenhoft and Zhen Wang, both assistant professors of biological sciences; PhD student Steven Fleck; PhD graduate Minakshi Mukherjee; and former research scientist Tianying Lan. “Our work has not been unlike reconstructing the family tree of a very important family,” Albert says.

“Our findings not only provide key insights into the adaptive landscape of the Nepenthes genome, but also broaden our understanding of how polyploidy — having multiple sets of chromosomes — can stimulate the evolution of new functions,” says Victor Albert, Empire Innovation Professor in the Department of Biological Sciences, College of Arts and Sciences. He is co-senior author of the study, published in Nature Plants. Other contributors from UB include Charlotte Lindqvist, professor of biological sciences, and PhD students Emily Caroll and Michaela Richter. The work was supported in part by the National Science Foundation. Read article in UB Research News.

The Wang Lab's  breakthrough discovery, described in a paper published July 8 in Nature Communications, builds upon knowledge of the compounds, known as cardiac glycosides. It also could help speed up production of the plant-based drug, which is among the oldest medications used in the field of cariology, and help researchers create less toxic alternatives. Read the news.

Three faculty of the Department of Biological Sciences were recently honored with university awards: the Exceptional Scholars Award for Sustained Achievement to Dr. Paul Cullen; the Teaching Innovation Award to Dr. Lara Hutson; and the Exceptional Scholars — Young Investigator Award to Dr. Eric Strobel. The Department is proud to recognize these faculty among its ranks, as they contribute to our core missions of excellence in research and teaching.

The peer-reviewed, open-access journal, iScience, has published a paper by UB evolutionary biologist Charlotte Lindqvist and collaborators, “A paleogenome from a Holocene individual supports genetic continuity in Southeast Alaska." Their findings show, using ancient genetic data analyses, that some modern Alaska Natives still live almost exactly where their ancestors did some 3,000 years ago. In addition to Lindqvist, authors of the new paper include Alber Aqil, Stephanie Gill, Omer Gokcumen, Ripan Malhi, Esther Aaltséen Reese, Jane Smith, and, Timothy Heaton. The research was funded by the National Science Foundation. Read more.

A $1.5 million grant from the Simons Foundation Autism Research Initiative (SFARI) has been awarded to Professor Soo-Kyung Lee to support research on the rare neurodevelopmental disorder FOXG1 Syndrome. SFARI’s mission is to improve the understanding, diagnosis and treatment of autism spectrum disorders by funding innovative research of the highest quality and relevance. The grant could help benefit people suffering from the rare genetic brain disorder. Read the article by UB Research News.

The Neuroscience faculty explore signal transduction events during sensory perception, synaptic transmission, and disease. Specific areas of interest include hearing, taste, smell, and neurodegenerative disease. This group of researchers uses a wide array of techniques spanning the fields of electrophysiology, cell and developmental biology, microscopy and imaging, and molecular genetics.

Faculty in Genetics explore the molecular regulation of gene expression at various stages, including transcription, splicing, translation, and post translation modification. Our faculty also use molecular genetics approaches to study signaling, cell wall formation, protein trafficking, and neurobiology. Other faculty use population genetics approaches to identify the selective forces that act on genes.

Faculty explore how filamentous fungi and budding yeasts assess nutrient availability and respond appropriately by adjusting gene expression, budding patterns, cell morphology, and cell wall structure. Some of these studies involve opportunistic fungal pathogens. Our faculty also use yeast as a model organism to investigate the molecular basis of gene expression, including transcription, RNA processing and translation.

The Department of Biological Sciences has a strong history of research going back to our founding. Faculty, postdocs, graduate students, and undergraduate students all contribute to our research mission. We work with scientific colleagues across the University and around the world. Our productivity speaks volumes about our commitment to research. Please refer to the profile pages for an updated listing of publications by each faculty member.

Faculty research concerns plant evolutionary biology; development and genomics; evolutionary biology; molecular phylogenetics and population genomics; chromatin and its impact on gene expression; genome stabilit; chromosome function; evolutionary genetics of aquatic invertebrates; and community and ecosystem ecology.

Faculty study the ecology of microorganisms including how bacteria use phage-encoded toxins to evade protozoan predators, how the protozoan Tetrahymena uses chemosensation to find food, and how transcription termination regulates gene expression in Bacillus subtilis.  Other microbiology faculty study how filamentous fungi and budding yeast adapt to their environments.

Faculty address diverse areas of plant biology. Their work investigates molecular regulation of the photosynthetic pathway in C4 plants, biosynthetic pathways of plant products that are important as pharmaceutics, growth in difficult or contaminated environments, evolutionary biology by combining state-of-the-art genomics with molecular analyses to understand plant origins and diversification.

Signaling faculty study cellular communication and the intracellular pathways that regulate activity. These faculty use a wide range of model organisms and techniques to examine a diverse array of signaling pathways involved in hormonal regulation, sensory transduction, and cell growth and metabolism.

The Department of Biological Sciences supports the research of our faculty, postdoctoral scholars, graduate students, and undergraduates through funding obtained from many granting agencies, including both government and private foundations. Active and completed grants are listed on this page.

Faculty in Animal Systems Biology study complex physiological and developmental processes in model animals. These systems offer important experimental advantages in their accessibility, genetic resources, or amenability to specialized biochemical and molecular analysis. The systems used include rats and mice, zebrafish, the fruit fly Drosophila, and the nematode worm C. elegans. With modern tools and techniques, our faculty creatively explore key questions relating to sensory biology and neuronal processing, gene and protein expression in metabolic syndromes, and organismal integration through endocrine signaling.

The Cell and Molecular faculty explore how genetic information is encoded in genomes and how it is interpreted to produce functional proteins. The research interests of the faculty focus on the regulation of transcription, translation, splicing, and post-translational modifications.

Genomics faculty address questions concerning the mechanisms that drive evolutionary change. A variety of theoretical, descriptive and novel experimental approaches using recent advances in genomic methodology are being used to address the roles played by various evolutionary processes in shaping organisms and populations.