Project

Using Co-Production of Knowledge to Reconstruct Coastal Food Webs

Full Title: Letting the Past Inform the Future: Using A Co-Production of Knowledge Framework to Reconstruct Deep Time Coastal Food Webs
Coastal ecosystems, crucial for fisheries and other services, are globally degraded, necessitating restoration efforts. To effectively manage these ecosystems, resource managers require comprehensive understanding beyond temporally stunted baselines, which this proposed research aims to address by constructing deep time and present-day food web models for the Indian River Lagoon (IRL) and comparing their metrics to inform recovery targets and management strategies.
Lead Investigator: Michelle Shaffer michelleshaffer8@knights.ucf.edu Dr. Michelle Gaither Associate Professor Bioloigcal Sciences Michelle.Gaither@ucf.edu Dr. Kristy Lewis Director, Gulf Impact Project Lead Assistant Professor, Department of Biology and Sustainable Coastal Systems Cluster kristy.lewis@ucf.edu
Project Team: Lewis Lab of Applied Coastal Ecology, Gaither Lab
Collaborator: University of Rhode Island Ecogeochemistry Laboratory
Award Amount: $25,000
Year Funded: 2023
Award Period: 2/1/23 – 1/31/24
Project Abstract:

Coastal ecosystems provide vital goods and services including the maintenance of fisheries but are among the most degraded ecosystems worldwide. To restore and maintain coastal ecosystems for future generations, resource managers need a detailed understanding of an ecosystem’s healthy baseline condition. However, baseline conditions used in management strategies are almost always temporally stunted (<50 years) and fail to capture ecosystem dynamics of these environments before human impact. The proposed research will combine advanced stable isotope analysis techniques and co-production of knowledge (e.g., traditional scientific and local ecological knowledge systems) with the construction of a deep time (~1,500 years ago) and a present-day food web model. These models will be the foundation of an ecological network analysis that will compare ecosystem metrics from deep time to present-day. This effort will be the first ecosystem model ever developed for the IRL. The team hypothesized that the deeper time ecosystem metrics will exhibit more resilient characteristics than the present-day system. While it is unlikely that an ecosystem can return to its ‘true historic condition’, understanding the historic ecology of a system will help us build a stronger future for our coastal ecosystems and communities by better informing recovery targets and management strategies.

A no cost extension was granted through1/31/25. Two circumstances have impeded the progress of this study. Initially, upon receiving the fellowship in late February 2023, changes to the project protocol mandated by the IACUC delayed funds dispersal until June 4th, 2023, preventing Michelle Shaffer, the Sea Grant Fellow, from collecting or handling samples. Subsequently, Dr. Kristy Lewis, the original PI, departed for a new position at the University of Rhode Island in late July 2023, prompting the transfer of the project to a new PI associated with UCF and necessitating a re-review of the IACUC protocol, further delaying research until the end of September 2023.

More To Explore

The project focuses on understanding the dynamics of coral reef fish assemblages in South Florida by developing a spatially explicit model that incorporates recreational fisher behavior. This model will help in examining the impacts of different management scenarios on the fishery ecosystem.
This project focuses on restoring oyster habitats in Apalachicola Bay to promote sustainable oyster populations and fisheries. It integrates community involvement and scientific research to enhance restoration techniques and management practices.
This project develops smartphone-enabled qPCR technology to enhance the detection and monitoring of harmful algal blooms in the Gulf of Mexico. By integrating this technology into citizen science programs, it aims to improve data accuracy and timeliness, contributing to better management and mitigation of red tide impacts.