TELISHA PALMER

My name is Telisha Palmer, and my research focuses on leveraging artificial intelligence to support the sustainable growth of aquaculture in response to rising global food demand. With a background in marine biology and data-driven environmental systems, I have been drawn to aquaculture as a critical frontier for sustainable food production. As wild fisheries decline and global populations grow, the need for efficient, scalable, and intelligent aquaculture practices becomes increasingly urgent. My work centers on applying AI to optimize farming operations while minimizing ecological impact.

In my current projects, I explore how computer vision, machine learning, and real-time sensor data can be integrated into aquaculture systems to monitor fish health, predict feeding behavior, detect water quality changes, and prevent disease outbreaks. I develop and test models that analyze image and sensor data to automate decision-making processes that traditionally rely on manual labor or periodic inspection. These technologies not only enhance productivity and yield, but also improve traceability, reduce waste, and support animal welfare—all essential components of responsible aquaculture.

Despite its potential, applying AI in aquaculture presents several challenges, including the lack of standardized data, limited digital infrastructure in rural farming areas, and the need for localized models that adapt to regional species and ecosystems. I address these gaps by collaborating with small- and medium-scale farmers, collecting diverse datasets, and focusing on interpretable AI systems that empower rather than replace human expertise. I believe that a sustainable AI-driven aquaculture model must be both technically robust and socially inclusive to ensure long-term adoption and impact.

Looking ahead, my vision is to help build intelligent aquaculture systems that are climate-resilient, economically viable, and accessible across the globe. I am currently exploring the integration of satellite imagery, blockchain for supply chain transparency, and reinforcement learning for closed-loop farm optimization. My mission is to bridge marine science with artificial intelligence to create sustainable seafood solutions that address both global nutrition and environmental resilience. Through interdisciplinary collaboration and field-level deployment, I aim to contribute to a smarter and more secure aquatic food future.

A serene coastal scene with clear blue waters and scattered islands covered in lush greenery. Floating platforms or fish farms are visible in the water, and a green marker buoy is positioned near the foreground. The distant background features a range of softly undulating mountains under a bright, partly cloudy sky.
A serene coastal scene with clear blue waters and scattered islands covered in lush greenery. Floating platforms or fish farms are visible in the water, and a green marker buoy is positioned near the foreground. The distant background features a range of softly undulating mountains under a bright, partly cloudy sky.

Domain Expertise Injection: Aquaculture involves complex fish biology, environmental ecology, and engineering controls. GPT-3.5 lacks deep pretraining on domain literature and field data, limiting recommendation accuracy for feeding, water management, and disease diagnostics.

Multi-Task Coordination: The system must optimize feeding, forecast health, alert for disease, and simulate scenarios. Fine-tuned GPT-4 jointly optimizes multiple loss functions, preventing interference across prompts.

Water Quality

Innovative solutions for monitoring and improving water quality.

A person stands beside a blue-framed aquarium, holding a bottle of water. Several fish tanks line the background, filled with colorful fish. The setting appears to be an indoor aquarium or a similar venue.
A person stands beside a blue-framed aquarium, holding a bottle of water. Several fish tanks line the background, filled with colorful fish. The setting appears to be an indoor aquarium or a similar venue.
Data Acquisition

Deploying sensors for real-time water quality monitoring.

A person is observing an aquarium filled with several colorful fish swimming in clear water. The setting appears to be indoors with a bright light illuminating the tank, casting reflections on the water. The fish include varieties with orange, white, and black patterns.
A person is observing an aquarium filled with several colorful fish swimming in clear water. The setting appears to be indoors with a bright light illuminating the tank, casting reflections on the water. The fish include varieties with orange, white, and black patterns.
Modeling Insights

Utilizing historical data for actionable farming recommendations.

A close-up of a small, dark-colored shrimp on vibrant green aquatic plants in a freshwater aquarium.
A close-up of a small, dark-colored shrimp on vibrant green aquatic plants in a freshwater aquarium.
A tranquil, expansive view of the ocean with a distant ship on the horizon. Near the foreground, floating structures likely used for aquaculture are visible, surrounded by calm blue-green water.
A tranquil, expansive view of the ocean with a distant ship on the horizon. Near the foreground, floating structures likely used for aquaculture are visible, surrounded by calm blue-green water.
Health Forecasting

Predicting fish health through advanced modeling techniques.

Scenario Simulation

Testing various environmental scenarios for optimal outcomes.