Investigation of the mechanical equivalent of heat using aluminum and brass cylinders

This study explores the mechanical equivalent of heat through controlled experiments using aluminum and brass cylinders. By mechanically rotating these cylinders against a friction band, the conversion of mechanical energy into heat is quantified, demonstrating a fundamental thermodynamic process. The experiment is designed to calculate the specific thermal capacities of the metals and evaluate the efficiency of energy transformation. Results validate the concept that mechanical energy, when converted through friction, becomes thermal energy—affirming the principles outlined in the conservation of energy. This work not only reinforces classical thermodynamics but also enhances our understanding of material properties under thermal stress, offering insights applicable to industrial applications and renewable energy technology. The findings underscore the practical implications of energy transformations in material science and engineering, contributing to the development of more efficient thermal management systems in various technological fields.

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Publication Details

Journal
Technobius physics.
Published
2024-09-30
DOI
https://doi.org/10.54355/tbusphys/2.3.2024.0019
Primary Topic
Heat Transfer and Optimization
Type
article
Field-Weighted Citation Impact
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article

Investigation of the mechanical equivalent of heat using aluminum and brass cylinders

Zhaniya Yesimova, Aigerim Makazhanova
Technobius physics.
Heat Transfer and Optimization
article

Investigation of the mechanical equivalent of heat using aluminum and brass cylinders

Zhaniya Yesimova, Aigerim Makazhanova
article en

Abstract

This study explores the mechanical equivalent of heat through controlled experiments using aluminum and brass cylinders. By mechanically rotating these cylinders against a friction band, the conversion of mechanical energy into heat is quantified, demonstrating a fundamental thermodynamic process. The experiment is designed to calculate the specific thermal capacities of the metals and evaluate the efficiency of energy transformation. Results validate the concept that mechanical energy, when converted through friction, becomes thermal energy—affirming the principles outlined in the conservation of energy. This work not only reinforces classical thermodynamics but also enhances our understanding of material properties under thermal stress, offering insights applicable to industrial applications and renewable energy technology. The findings underscore the practical implications of energy transformations in material science and engineering, contributing to the development of more efficient thermal management systems in various technological fields.

Technobius physics.Vol. 2(3)
Al-Farabi Kazakh National University (KZ)
Affordable and clean energy
Openalex Percentile: Top 84%
Heat Transfer and Optimization
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