A stainless steel–based multi‐functional integrated solar device capable of simultaneous drying, cooking, and water heating was designed, fabricated, and experimentally evaluated under hot arid climatic conditions of Rajasthan (26.24° N 73.01° E), India. The use of stainless steel effectively overcomes corrosion and leakage issues associated with conventional galvanized iron systems, thereby enhancing durability, structural integrity, and long‐term operational reliability. The system incorporates a trapezoidal water storage tank beneath the drying cabinet, which improves heat transfer and promotes natural convection, resulting in better temperature uniformity. Experiments indicated that the system achieved a maximum temperature of 120°C under no‐load conditions, while maintaining temperatures up to 75°C during drying and approximately 105°C during cooking operations. The highest recorded temperature in the water heating subsystem was 56°C, which was obtained through effective thermal storage. The drying cabinet reduced the weight of fenugreek leaves from 750 to 85 g which gave around 88.7% moisture removal in the drying experiments. The best model found for fenugreek leaves drying was the Midilli model with a good coefficient of determination value (
R
2
= 0.995). Economic feasibility analysis was also carried out which resulted in a benefit–cost ratio of 2.03 and payback period of 5.09 years. Including carbon credit monetization, these indicators improved considerably to 2.53, ₹ 29,482, 34.7%, and 3.55 years, respectively. The developed system shows good thermal efficiency and economic feasibility and has potential applications for decentralized sustainable energy systems.
The rapid expansion of solar photovoltaic (PV) deployment in hot and humid regions such as Southeast Asia presents significant thermal-management challenges, as operating temperatures commonly reach 60-70 °C and accelerate material degradation, reduce efficiency, and shorten module lifetime. Existing cooling technologi...
A transient numerical model was developed to assess a solar-driven single-effect H2O/LiBr absorption cooling system coupled to a stratified hot-water tank containing spherical PCM capsules. Following validation against published data, the model was applied under Moroccan climatic conditions to examine three PCMs with p...
T. Bouhal, S. Fertahi· Sustainability· 0 citations
Solar hot-air drying technology has developed rapidly in the field of low-temperature fruit and vegetable processing; however, fluctuations in solar irradiance affect the stability of system energy supply and energy utilization efficiency. In this study, a cascaded photovoltaic/thermal (PV/T) solar drying system was co...
Rong Yu, Ming-Zhi Zhao, Chun Chang et al.· Energies· 0 citations
Although solar cabinet dryers (SCDs) represent an alternative to open sun drying (OSD) in the preservation of agricultural products, there are still challenges for SCDs such as the solar intermittency, unequal drying, and poor thermal efficiency. This systematic review brings together 30 peer‐reviewed studies from...
F. Rashid, M. Al-Obaidi, Mushtaq K. Abdalrahem et al.· Heat Transfer· 0 citations
This study evaluates a solar thermal water heating system integrated with thermal energy storage (TES) for domestic hot water supply in New Zealand. A conventional system without TES was first assessed as the baseline case and then compared with a TES-integrated system using Paraffin RT60 as the phase change material a...
Mahir Ashef Hridoy, Jay Wang, Wei Lu et al.· Energies· 0 citations
High solar absorptivity causes asphalt pavements to reach surface temperatures above 60°C during peak summer, accelerating rutting and intensifying the urban heat island effect. These elevated thermal conditions accelerate binder aging, reduce service life, and compromise ride quality and safety. Pavement-integrate...
Vamsi Kommanamanchi, V. Lakkoju, Hariprasad Chennarapu et al.· Journal of Transportation En...· 0 citations
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