Abstract

This study investigates the optimal parameters for a hybrid heating system incorporating heat pump technology to enhance energy efficiency and cost-effectiveness. With growing interest in sustainable heating solutions, optimizing hybrid schemes is crucial for reducing energy consumption while maintaining thermal comfort. The research evaluates different configurations based on factors such as ambient temperature, system load, and operational constraints to identify key design considerations that maximize performance. A comparative analysis of various setups demonstrates how parameter adjustments affect efficiency, operational costs, and environmental impact. Furthermore, the study explores the integration of auxiliary heating sources to supplement the heat pump under extreme weather conditions, ensuring consistent heating performance. Computational modeling and experimental validation provide insights into the most effective approaches for balancing efficiency and affordability. The findings contribute to the advancement of hybrid heating technologies by offering practical recommendations for residential and industrial applications. By establishing rational criteria for parameter selection, this research aims to support the development of adaptable and resilient heating systems that meet modern sustainability standards.

Keywords: Hybrid heating system, heat pump technology, energy efficiency, sustainable heating solutions, thermal comfort, operational parameters

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