I lead an integrative research program in marine ecophysiology and conservation physiology focused on how combinations of anthropogenic stressors — such as warming, acidification, deoxygenation, acoustic pollution, light and microplastic pollution — affect the performance and resilience of marine organisms. My work links behavioral and physiological mechanisms across molecular, metabolic, and organismal scales to understand how interacting stressors shape stress tolerance, acclimation, adaptation and survival in changing oceans. Because behavioral and physiological disruption often precedes population and ecosystem decline, I use these responses as early-warning indicators of environmental change. Through field studies, mesocosm experiments, laboratory manipulations in recirculating aquaculture systems, and molecular and sensor-based approaches, I quantify organismal responses across short- and long-term timescales to identify thresholds, interactions, and cascading effects of multiple stressors. My research is open, collaborative, and technology-driven, translating complex physiological data into insights for marine conservation and climate adaptation.