Research

Our research integrates biomaterials and biointerface engineering, AI-enabled imaging and spectral analytics, and energy-efficient high-performance processing to address critical challenges across food and agricultural systems. By connecting materials, data, and processing, we develop engineering solutions for microbial control and food protection, process verification and hazard detection, and valorization of food and agricultural waste streams.

Our Research Themes

Biomaterials & Biointerface Engineering

for microbial control and food protection

We engineer food-compatible biomaterials and biointerfaces that control interactions among microbes, active agents, and surfaces across food and agricultural systems. Our research spans biobased delivery systems, multifunctional coatings, food-contact materials, and engineered interfaces designed to improve antimicrobial performance and reduce microbial persistence, transfer, and spoilage.

Current Directions

  • Biobased carriers for antimicrobial and biopesticide delivery
  • Functional food-contact and packaging materials
  • Microbe–material interactions and biointerface engineering
Biomaterials and biointerface engineering diagram showing food byproducts, plant pollen grains, microbial cells, antimicrobial materials, and microscopic interactions with phages and bacteria.

AI-Enabled Imaging & Spectral Analytics

for process verification and hazard detection

We integrate imaging, spectroscopy, and sensing techniques with machine learning, deep learning, and multimodal analytics to extract rapid, nondestructive information from food and processing systems. These approaches support process verification, microbial and chemical hazard detection, quality assessment, and predictive decision-making.

Current Directions

  • Machine learning and deep learning for image and spectral analysis
  • Rapid process verification and hazard detection
  • Multimodal prediction of food shelf life
Diagram showing AI-enabled interpretation during food processing and prediction during storage and distribution.

Energy-Efficient & High-Performance Processing

for valorizing food and agricultural waste streams

We develop energy-efficient and high-performance processing strategies to convert food and agricultural waste streams into value-added materials and products. Our research seeks to improve energy and resource efficiency while recovering functional components and creating higher-value applications from underutilized biomass.

Current Directions

  • Valorization of food and agricultural byproducts
  • Recovery of functional compounds from waste streams
  • Development of value-added ingredients and biomaterials

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