A Circular Economy Approach for Nutrient Redistribution and Renewable Energy Production

Abstract Biomass waste-to-energy (BWtE) systems provide the opportunity to capture, recycle, and convert waste streams to value-added resources that can be redistributed. Adoption of BWtE systems can close nutrient loops, produce renewable energy, mitigate greenhouse gas emissions, and foster local economic and climate resilience. Here, we review anaerobic digestion, pyrolysis, and gasification as potential BWtE technology options to serve as part of a circular economy. Prioritizing local, context-specific solutions can provide environmental and societal benefits, driving the transition to a more sustainable and regenerative energy future. Additionally, we provide a case study on the Lower Eastern Shore of Maryland, USA, to illustrate how local agriculture and waste management practices can be integrated into BWtE systems at a regional level in the face of environmental challenges, such as saltwater intrusion. These practices generate energy and create nutrient byproducts that can benefit local stakeholders and economies.

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Publication Details

Journal
Environmental Science & Technology
Published
2026-09-10
DOI
https://doi.org/10.1021/acs.est.6c01363
Primary Topic
Phosphorus and nutrient management
Type
article
Field-Weighted Citation Impact
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article

A Circular Economy Approach for Nutrient Redistribution and Renewable Energy Production

Gordon Custer, Kate Tully, Marccus D. Hendricks, Jonathan Cumming et al.
Environmental Science & Technology
Phosphorus and nutrient management
article

A Circular Economy Approach for Nutrient Redistribution and Renewable Energy Production

Gordon Custer, Kate Tully, Marccus D. Hendricks, Jonathan Cumming, Stephanie Lansing, Shaylan Kolodney, Fahmi Dwilaksono, Alison Schulenburg, Nate Spicer, Andrew Moss, Eric Burnstein, Kathleen Brown, Priscila B. R. Alves, Rafian Aziz
article en

Abstract

Abstract Biomass waste-to-energy (BWtE) systems provide the opportunity to capture, recycle, and convert waste streams to value-added resources that can be redistributed. Adoption of BWtE systems can close nutrient loops, produce renewable energy, mitigate greenhouse gas emissions, and foster local economic and climate resilience. Here, we review anaerobic digestion, pyrolysis, and gasification as potential BWtE technology options to serve as part of a circular economy. Prioritizing local, context-specific solutions can provide environmental and societal benefits, driving the transition to a more sustainable and regenerative energy future. Additionally, we provide a case study on the Lower Eastern Shore of Maryland, USA, to illustrate how local agriculture and waste management practices can be integrated into BWtE systems at a regional level in the face of environmental challenges, such as saltwater intrusion. These practices generate energy and create nutrient byproducts that can benefit local stakeholders and economies.

Environmental Science & Technology
University of Maryland, Baltimore (US), University of Maryland Eastern Shore (US), University of Maryland, College Park (US), Core Laboratories (United States) (US)
Zero hunger
Openalex Percentile: Top 10%
Phosphorus and nutrient management
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A Circular Economy Approach for Nutrient Redistribution and Renewable Energy Production — Gordon Custer, Kate Tully, et al. · Environmental Science & Technology (2026) | TGRS Research Map | TGRS