Rocket Stove—Principle, Advantages and Disadvantages

This mini-review summarizes current knowledge of rocket stoves as a technology for efficient, low-emission biomass combustion. It focuses primarily on two major design configurations: natural-draught J-tube systems and forced-air systems. Their design principles, operational stability, thermal efficiency, fuel consumption, and emission performance are compared with those of traditional open fires and more advanced wood-burning appliances. Available studies indicate that J-tube systems can substantially reduce fuel consumption and emissions of CO and PM2.5 compared with open fires. However, their performance is strongly influenced by combustion-core geometry, fuel properties, and operating conditions. Forced-air systems can provide more stable combustion, lower emissions, and higher efficiency through controlled primary- and secondary-air supply. Their performance nevertheless depends on the appropriate optimisation of airflow rates, nozzle positions, and combustion-chamber geometry. Overall, rocket stove technology provides a promising basis for the further development of efficient, low-emission biomass combustion appliances, including advanced rocket space heaters and rocket boilers.

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Publication Details

Journal
Green energy and fuel research.
Published
2026-09-29
DOI
https://doi.org/10.53941/gefr.2026.100015
Primary Topic
Fire dynamics and safety research
Type
article
Field-Weighted Citation Impact
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article

Rocket Stove—Principle, Advantages and Disadvantages

Jiří Ryšavý, František Hopan, Matyáš Trač
Green energy and fuel research.
Fire dynamics and safety research
article

Rocket Stove—Principle, Advantages and Disadvantages

Jiří Ryšavý, František Hopan, Matyáš Trač
article en

Abstract

This mini-review summarizes current knowledge of rocket stoves as a technology for efficient, low-emission biomass combustion. It focuses primarily on two major design configurations: natural-draught J-tube systems and forced-air systems. Their design principles, operational stability, thermal efficiency, fuel consumption, and emission performance are compared with those of traditional open fires and more advanced wood-burning appliances. Available studies indicate that J-tube systems can substantially reduce fuel consumption and emissions of CO and PM2.5 compared with open fires. However, their performance is strongly influenced by combustion-core geometry, fuel properties, and operating conditions. Forced-air systems can provide more stable combustion, lower emissions, and higher efficiency through controlled primary- and secondary-air supply. Their performance nevertheless depends on the appropriate optimisation of airflow rates, nozzle positions, and combustion-chamber geometry. Overall, rocket stove technology provides a promising basis for the further development of efficient, low-emission biomass combustion appliances, including advanced rocket space heaters and rocket boilers.

Green energy and fuel research.Vol. 3(3)
VSB - Technical University of Ostrava (CZ)
Affordable and clean energy
Openalex Percentile: Top 12%
Fire dynamics and safety research
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