Starting in Fall 2019, the mathematical biology group is officially a mathematical biology SMART Team as part of the NSF Funded NSF Funded Data-Intensive Research And Computing (DIRAC) Research Training Group (RTG).
We meet weekly to discuss reearch involving the application of mathematical tools (such as mathematical modeling, computational simulation) to the study of biological systems. Our topics cover a range of biological processes including, but not limited to, protein aggregation, population genetics & structural variation, and dynamics of marine animals.
Our group is led by Professor Suzanne Sindi (ssindi@ucmerced.edu) and consists of graduate students, postdocs and faculty in the Applied Mathematics, Physics and Quantitative & Systems Biology graduate programs.
For Spring 2026, we will be meeting Wednesday from 3:30pm-4:20pm in ACS 362B. We will post our updated schedule on this website once it is complete. You can follow our activities at our Twitter Account.
If you are not on the slack channel but want to attend presentations, please email Prof. Erica Rutter (erutter2@ucmerced.edu) for access.
Spring 2026 Schedule
Wednesday, February 4:
Speaker: Dr. Baltazar Gonzalez, UC Merced
Title: Multiple global change drivers reshape the spatiotemporal dynamics of bee--plant interactions: priorities for California’s blue orchard bee
Abstract: Rapid climate change is a primary driver of the ongoing biodiversity loss, with impacts that span both natural and anthropogenic landscapes. Pollination lies at the center of this challenge, underpinning agricultural production while sustaining native plant communities and ecosystem functioning. Understanding how climate change alters pollination systems is therefore essential for ensuring food security and ecosystem integrity. Among pollinators, bees are the most important, representing an extraordinary diversity of species. Solitary bees are particularly critical in this context: they are often more efficient pollinators than their social counterparts and account for over 80% of global bee diversity. In this talk, I will present a modeling framework combining multiple modeling strategies with different, large-scale datasets—including high-resolution climate projections, socioeconomic and land-use scenarios, species distribution models, and climate-related hazards—to assess the future of pollination services. I will focus on California, a region of exceptional biodiversity, and global agricultural importance. By integrating projections of pollinator suitability with spatial estimates of plant resource availability, I analyze how pollination systems may respond jointly to climate change. From these models, we develop a novel spatially explicit conservation priority index that integrates pollinator habitat suitability to projected changes in plant resources. This index explicitly incorporates information on ecological interaction, allowing raw model predictions to be modulated by expected species responses to shifting resource landscapes. By doing so, it provides a reproducible and operational framework for evaluating the vulnerability and persistence of pollination services across space and time, and for identifying priority areas where conservation and management actions can be most effective for the long-term persistence of both agricultural and natural areas.
If you want to be added to our mailing list please email ssindi@ucmerced.edu.
