Sarasota Dolphin Research Program
Long term study of dolphin populations in Sarasota Bay.
Potential Research Experiences for Undergraduate Projects:
Passive Acoustic Hydrophone Array (fish sounds): Fish sound production is mostly associated with courtship and reproduction and is why drums (family Sciaenidae) are so named. This project will use a passive acoustic hydrophone array to collect data of calling fishes in an estuarine environment. The data will be analyzed in MATLAB with a localization algorithm. From these data we will be able to localize the position of calling fishes and estimate the source levels of their sounds (e.g. how “loud” their sounds are). Tracking movement may also be possible based on the location at the time calls are produced. This project has good potential to contribute original results which may be publishable.
Passive Acoustic Hydrophone Array (acoustic tags): Acoustic tags are widely used to track the movement patterns of fishes over broad spatial scales. In the past few years this technology has been used to track fish movement on fine spatial scales at meter-level resolution. This project will use Vemco acoustic receivers and acoustic tags and a localization algorithm to develop a method for localizing the position of an acoustic tag. An array of acoustic receivers (minimum of 3) will be deployed in the field and an acoustic tag will be positioned at known locations to confirm the accuracy of the localization estimate. This project has excellent potential for developing a user based method for localizing the position of tagged fishes, a service currently only offered by the manufacturer.
Recording Tag: Fishes produce species-specific sounds associated with courtship and spawning due to morphological uniqueness of sound producing mechanisms. The sounds of many species have been documented and can be identified in field recordings, just as with birds. However, many more closely related taxa that likely also use sound production have not been documented. This project will begin designing a recording tag that will be attached to fishes to record and verify their species-specific sounds. This project is engineering based and may use the Arduino system. Students with an interest in engineering and programming skills are especially encouraged to apply to work on this project.
Relatedness of Juvenile Snook: Snook are a highly prized gamefish in Florida and much is known about their life history and habitat use and requirements. Newly settled juveniles are fairly easy to locate based on knowledge of the timing of reproduction and habitat requirements. Genetic data and tagging studies have so far shown that site fidelity for snook is high and mixing between different estuarine systems appears to be low. Recruitment patterns of juveniles may therefore reflect the site fidelity patterns of adults. This project will look at the level of kinship among newly settled juvenile snook using DNA microsatellite to address the question of kinship among recruits in different juvenile habitats. Are groups of recruits siblings, half siblings, etc.
“Offshore” Snook: Snook are often thought of as occupying the mangrove shoreline and flats of the estuary and beaches and passes in the summertime during the spawning season. However, snook are also found on artificial reefs located miles offshore and virtually nothing is known about these fishes, whether they are residents at these sites or transients that may come and go between the adult sites on the beaches/passes, etc. This project will survey sites where snook have been reported to occur and estimate their numbers and sizes. Attempts to capture individuals for acoustic tagging will also be made. If attempts at non-lethal capture are successful gonad biopsies will be collected to determine sex and gonad condition. SCUBA required.
Larval Fish Sampling: Despite having a good general understanding of snook life history, collection of larval snook remains a very difficult task and few have ever been collected. This project will use light traps, which are more often used on reefs, to sample larval fishes on their recruitment path to juvenile habitat. We have conducted light trap experiments in the lab with larval snook and the results indicate the traps may be effective in the field. The light traps will be set in strategic locations where snook spawning and recruitment have been documented. We also anticipate collecting other larval fishes in these traps and will identify these as well. This project represents a good opportunity to use an established sampling method for larval fishes in a novel way.
Goliath Grouper Spawning Aggregations: Goliath Grouper have been protected since a moratorium was established in 1990 preventing their harvest. Since that time the population has shown clear signs of recovery, particularly at spawning aggregation sites where they occur during August through November. An ongoing study is using passive acoustic recordings of their sound production along with SONAR surveys of abundance to relate these two independent data streams. Several internship opportunities exist to work on this project. Inquire for more details.
Coastal Ocean Observing Station:
Ocean observing stations collect high temporal data on physical and chemical atmospheric and oceanic conditions. However, few opportunities exist to include biological data on these same timeframes; acoustics are one means for this to be possible. We have an ongoing project in cooperation with the University of South Florida to collect acoustic data in Big Carlos Pass in southwest Florida in association with water quality and atmospheric measurements. This project will tag fishes in the pass that will be detected by an acoustic receiver at the station and will record ambient acoustic fish sound production. This project seeks to show how important biological data on fish behavior and reproduction may be explained by environmental conditions. This project has opportunity for those who wish to gain experience with ‘big data’ management.
Long term study of dolphin populations in Sarasota Bay.
Study of the Ocean's Phytoplankton Community
Using innovative ocean technology to accomplish interdisciplinary scientific goals
Rehabilitation hospital to provide provide state-of-the-art critical care & chronic care for stranded sea turtles and dolphins.
Coral diseases are one of the greatest threats to reefs worldwide.
Studying the physical, biological, geological & chemical processes that distribute nutrients and other chemical species in the ocean
The Red Tide Institute at Mote Marine Laboratory leads Florida red tide mitigation and control research.
Contaminant detection of toxic substances.
Investigating the source, fact & effects of toxins in the environment
Studying habitats and trends in turtle nesting to conserve Sea Turtles.
Advancing science to support abundant, productive fish populations
Basic and applied research on the health and immune systems of marine vertebrates
PERC is dedicated to improving stock assessment, management and sustainability of highly migratory fishes in the Atlantic and Gulf of Mexico
Studying manatee behavioral ecology, distribution, habitat use, genetics, and population status in Florida.
The Sharks and Rays Conservation Research Program is dedicated to studying the biology, ecology and conservation of sharks, skates and rays.
10TH FSU-MOTE INTERNATIONAL SYMPOSIUM ON FISHERIES ECOLOGY AND 6TH INTERNATIONAL SYMPOSIUM ON STOCK ENHANCEMENT AND SEA RANCHING
Investigating how marine & freshwater chemicals impact public health
Bottom-dwelling organism response to environmental disturbance.
Understanding processes and environmental factors that influence coral reef health.
Developing technologies to produce fish & invertebrates to meet growing demand for seafood & fishing stocks.
Study responses of ecologically important species to projected levels of ocean acidification.
The Stranding Investigations Program (SIP) provides 24-hour response to sick, injured and deceased marine mammals & sea turtles.
Studying the impacts of nutrients and physical parameters in riverine, estuarine and coastal environments.
Study of how fish interact with their habitats & how disturbances influence these interactions.
Studying sharks, skates and stingrays as laboratory animal models for basic & applied research
A Mote-FWC partnership to develop prevention, control and mitigation technologies and approaches that will decrease Florida red tide impacts
Seeking to develop systems and techniques to grow coral and other reef species.