Endemic Water and Storm Trash to energy via in-situ processing. (December 2020)

• Record Type: Journal Article
• Authors: Peng, Valerie; Slocum, Alexander
• Is Part Of: Renewable & sustainable energy reviews. Volume 134(2020)
• Publication Date: 2020-12
• Subjects: Hurricane debris -- Water hyacinth -- Biomass -- Anaerobic digestion -- Waste-to-energy -- Mobile processing; $ 2019 US Dollars (unless otherwise noted) -- AD anaerobic digestion -- BC boiler combustor -- BG biogas -- BTL Biomass-to-Liquid -- CAPEX Capital Expenditure -- CHP combined heat and power -- CO2e carbon dioxide equivalent emissions [kg or tons] -- CY cubic yards -- DW dry weight -- DG diesel generator -- dmt dry metric ton -- EPA Environmental Protection Agency -- FEMA Federal Emergency Management Agency (USA) -- FoRTS Forest Residue Trucking Simulator -- FW fresh weight -- GJ gigajoule -- hp horsepower -- IPCC Intergovernmental Panel on Climate Change -- LHV lower heating value [MJ/kg or GJ/dmt] -- MC moisture content [%] -- MJ megajoule -- MW megawatt -- MWe megawatt -- electricity-basis MWh -- megawatt-hour O + M -- Operations and Maintenance PG -- pyrolysis with generator PMH -- primary machine hour SIF -- Societal Impact Factor TEA -- Techno-Economic Analysis USACE -- United States Army Corps of Engineers USVI -- United States Virgin Islands VS -- volatile solids WASTE VIP -- Waste and Storm Trash to Energy Via In situ Processing WH -- water hyacinth WS -- wood stove WtE -- Waste-To-Energy as in landfills; Renewable energy sources -- Periodicals; Power resources -- Periodicals; Énergies renouvelables -- Périodiques; Ressources énergétiques -- Périodiques; 333.794
• DOI: 10.1016/j.rser.2020.110272
• Languages: English
• ISSNs: 1364-0321

Abstract

Abstract: Significant capital is spent removing and disposing of biomass detritus produced by natural disasters and invasive species infestations. This presents an opportunity to turn the cleanup of these endemic wastes into cost-effective, sustainable bioenergy. Using hurricane debris and invasive water hyacinth as case studies, the results of the presented analysis show that carefully designed, relocatable biofuel facilities that produce energy from biowaste can be cost-competitive and carbon-negative compared to status quo baselines. Techno-economic and carbon accounting analyses show that bioenergy can be economical and sustainable over a range of debris scenarios and facility parameters. Transportation modeling shows that by integrating collection, volume reduction, and transportation, delivered feedstock costs can be reduced by 30–87% compared to status quo costs. For the case of hurricane debris, electricity from biomass boilers and pyrolysis generators with 70% capital utilization are competitive with diesel generators at 4 MW and 1.5 MW scales, respectively. For water hyacinth, anaerobic digestion paired with a harvester that gathers, crushes, and bags plants directly on the water could produce useful heat for a net profit of $9/GJ while offsetting 3 tons CO2 e per GJ. Ultimately, the present work shows that careful design and evaluation of bioenergy systems could enable an endemic Water and Storm Trash to Energy Via In situ Processing (WASTE VIP) system that reduces cleanup costs, increases energy security, and converts costly biomass waste into cleaner, cheaper energy. Highlights: Hurricane debris and water hyacinth can be profitable and carbon-negative bioenergy feedstocks. Techno-economic models that guide the design of machines, supply chains, and facilities are presented. In situ processing of biomass can decrease truck and aquatic boat transport costs by 30–87%.