• Skip to main content
  • Skip to footer

University of Tennessee Research Foundation

Technology Transfer & Licensing

  • About
    • Our Mission
    • Foundation Details
    • Student Opportunities
    • Staff
    • Subsidiaries
  • For Innovators
    • Accelerate Fund
    • Entrepreneurial Fellows Program
    • Technology Maturation Award
    • Business Incubator
    • IDEA Tutorial & Manuals
    • Technology Transfer Process
    • Resources
  • For Industry
    • Available Technologies
    • Express Licensing
  • Media
    • News
    • Newsletters
    • Annual Reports
  • Contact
  • UT Ventures

Advanced Regenerative Agriculture Through Bio-Based Materials: Biodegradable Pots to Reduce Microplastics and Landfill Waste

The Problem

The horticulture and gardening industries rely heavily on single-use plastic containers, consuming over 500 million pots annually in the U.S. alone and generating roughly 350 million pounds of plastic waste. With recycling rates for these containers sitting at a dismal 3% to 5%, the vast majority end up in landfills taking anywhere from 20 to 1,000 years to decompose. As these plastics decompose, they introduce harmful microplastics and toxic chemicals into the environment. The agricultural market desperately needs a scalable, commercially viable alternative to traditional plastic planters that is cost effective without compromising structural integrity or plant health. 

The Solution

Researchers at the University of Tennessee have developed a novel manufacturing machine and optimized material compositions for producing 100% biodegradable, plastic-free plant pots from local natural waste (soil, manure, construction site soil). This technology is scalable, portable, mechanical or easily automated, and can tailor pot composition to meet various crop requirements. The innovation aligns with U.S. priorities to advance regenerative agriculture and strengthen American farm resilience, while supporting domestic bio-based manufacturing and more sustainable agricultural production. 

Benefits

Benefit
Environmentally Sustainable: Eliminates plastic waste and microplastic contamination by utilizing 100% biodegradable, earth-friendly materials.
Circular Economy for Cost-Effective Production: Repurposes abundant soil, manure, and other natural waste, significantly lowering raw material acquisition costs.
Customizable Nutrient Profiles: Pot compositions can be tailored with specific nitrogen, phosphorus, and potassium (N, P, K) levels to optimize growth for crops.

More Information

  • Gregory Sechrist
  • Technology Manager
  • 865-974-1882 | gsechris@tennessee.edu
  • UTRF Reference ID: 26184
  • Patent Status: Patent Pending

Innovators

Fuhar Dixit, Ph.D. 

Assistant Professor, Department of Civil and Environmental Engineering, UT Knoxville

Fuhar Dixit joined the University of Tennessee Knoxville in 2026 where he focuses on the intersection of chemical engineering, environmental health, and sustainability. Bringing extensive experience from his Ph.D. at the University of British Columbia and postdoctoral research at UC Berkeley on environmental contamination, his interdisciplinary lab aims to develop practical, scalable solutions to ...

Fuhar Dixit joined the University of Tennessee Knoxville in 2026 where he focuses on the intersection of chemi...

Read more about Fuhar Dixit, Ph.D. 
  • Gregory Sechrist
  • Technology Manager
  • 865-974-1882 | gsechris@tennessee.edu

Footer

  • LinkedIn
  • Twitter
  • YouTube

Knoxville Office

400 W. Summit Hill Drive
UT Tower 961A
Knoxville, TN 37902
Phone: 865-974-1882

Memphis Office

UT Health Science Center
910 Madison Avenue, Suite 827
Memphis, TN 38163
Phone: 901-448-7827

Copyright © 2026


University of Tennessee Campuses & Institutes

  • UT Knoxville
  • UT Chattanooga
  • UT Southern
  • UT Martin
  • UT Health Science Center
  • UT Institute of Agriculture
  • UT Institute for Public Service
  • UT Alumni Association
  • UT Foundation
  • UT Research Park