Comprehensive energy balance analysis and techno-economic evaluation of static hydrogen carbon savings for an industrial dual-fuel combustor used in food manufacturing

Energy balance and techno-economic emission analysis of dual-fuel industrial fryer • Energy balance of hydrogen substitution in an industrial dual-fuel fryer is presented, assessing efficiency and emissions reductions. • Techno-economic evaluation of industrial hydrogen integration with green supply, covering CAPEX, OPEX, carbon tax, payback. • Results show hydrogen blending up to 100% is feasible with burner replacement only, enabling emissions cuts up to 97.3%. • Rapid payback is possible with minimal CAPEX, aided by lower carbon taxes despite higher near-term hydrogen costs. • Pipeline hydrogen delivery gives greatest carbon and economic gains, while long-distance transport reduces effectiveness. Industry contributes around a quarter of the United Kingdom’s greenhouse gas emissions, and the UK Government has set ambitious net-zero targets, including establishing the first net-zero industrial cluster by 2040. Decarbonizing heavy industry will rely on technologies such as carbon capture and storage and the transition to low-emission fuels like hydrogen, though its adoption is hindered by uncertainties around feasibility, cost, and supply. This study proposes a dual-fuel strategy and presents a comprehensive energy balance, emissions assessment, and techno-economic analysis of hydrogen–natural gas blends in an industrial fryer. A baseline natural-gas energy profile is developed, followed by evaluation of hydrogen substitution up to 100 %. The analysis incorporates capital and operational costs, including hydrogen transport, and relevant UK policy incentives for low-emission combustion. Results confirm technical feasibility and show that full hydrogen substitution via pipeline or local seaport delivery can cut CO 2 emissions by up to 97 % while reducing carbon-tax liabilities and operating costs. However, large-distance truck transport and reduced carbon-tax pressures significantly erode these benefits, underscoring the need for optimized supply chains and supportive policy. Operational costs remain lower than with natural gas, but fixed on-site hydrogen storage is not financially viable due to long payback periods. Overall, hydrogen is shown to be a promising low-emission industrial fuel, provided favorable policy and infrastructure conditions are in place.

Authors

Institutions

Publication Details

Journal
Fuel
Published
2026-02-16
DOI
https://doi.org/10.1016/j.fuel.2026.138675
Primary Topic
Hybrid Renewable Energy Systems
Type
article
Field-Weighted Citation Impact
0.00

Funders

Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
OCT
article

Comprehensive energy balance analysis and techno-economic evaluation of static hydrogen carbon savings for an industrial dual-fuel combustor used in food manufacturing

Paul Russell, Dipal Patel, Huda Dawood, F. Hamad et al.
Fuel
Hybrid Renewable Energy Systems
article

Comprehensive energy balance analysis and techno-economic evaluation of static hydrogen carbon savings for an industrial dual-fuel combustor used in food manufacturing

Paul Russell, Dipal Patel, Huda Dawood, F. Hamad, Edgar Segovia, Craig Tether, Michael Short
article en

Abstract

Energy balance and techno-economic emission analysis of dual-fuel industrial fryer • Energy balance of hydrogen substitution in an industrial dual-fuel fryer is presented, assessing efficiency and emissions reductions. • Techno-economic evaluation of industrial hydrogen integration with green supply, covering CAPEX, OPEX, carbon tax, payback. • Results show hydrogen blending up to 100% is feasible with burner replacement only, enabling emissions cuts up to 97.3%. • Rapid payback is possible with minimal CAPEX, aided by lower carbon taxes despite higher near-term hydrogen costs. • Pipeline hydrogen delivery gives greatest carbon and economic gains, while long-distance transport reduces effectiveness. Industry contributes around a quarter of the United Kingdom’s greenhouse gas emissions, and the UK Government has set ambitious net-zero targets, including establishing the first net-zero industrial cluster by 2040. Decarbonizing heavy industry will rely on technologies such as carbon capture and storage and the transition to low-emission fuels like hydrogen, though its adoption is hindered by uncertainties around feasibility, cost, and supply. This study proposes a dual-fuel strategy and presents a comprehensive energy balance, emissions assessment, and techno-economic analysis of hydrogen–natural gas blends in an industrial fryer. A baseline natural-gas energy profile is developed, followed by evaluation of hydrogen substitution up to 100 %. The analysis incorporates capital and operational costs, including hydrogen transport, and relevant UK policy incentives for low-emission combustion. Results confirm technical feasibility and show that full hydrogen substitution via pipeline or local seaport delivery can cut CO 2 emissions by up to 97 % while reducing carbon-tax liabilities and operating costs. However, large-distance truck transport and reduced carbon-tax pressures significantly erode these benefits, underscoring the need for optimized supply chains and supportive policy. Operational costs remain lower than with natural gas, but fixed on-site hydrogen storage is not financially viable due to long payback periods. Overall, hydrogen is shown to be a promising low-emission industrial fuel, provided favorable policy and infrastructure conditions are in place.

FuelVol. 418
Cambridge Research Biochemicals (United Kingdom) (GB), Teesside University (GB)
U.S. Department of Energy, Government of the United Kingdom
Industry, innovation and infrastructure
Openalex Percentile: Top 56%
Hybrid Renewable Energy Systems
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.