A Detailed Optimisation of Solar Photovoltaic/Thermal Systems and its Application.

Antony, Anu; Wang, Yaodong; Roskilly, Anthony Paul

doi:10.1016/j.egypro.2019.01.295

Cited by 11 publications

(3 citation statements)

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“…The results showed a 13% improvement in thermal performance, suggesting wider applications in areas such as swimming pool water heating, floor heating, and medium-temperature heat pumps. Antony et al [93] conducted a detailed analysis of a PVT system, considering various parameters such as solar irradiance, operational temperature, heat and electricity demand, thermal storage capacity, rate of flow, and ambient temperature over an entire year, as shown in Figure 11a. The study found that factors like heat removal, flow rate, location (longitude and latitude), tilt angles, and the choice of heat dissipation fluid significantly influenced the system's performance.…”

Section: Water Heatingmentioning

confidence: 99%

Hybrid Photovoltaic Thermal Systems: Present and Future Feasibilities for Industrial and Building Applications

Samykano

2023

Buildings

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The growing demands of modern life, industrialization, and technological progress have significantly increased energy requirements. However, this heightened need for energy has raised concerns about its impact on the environment and the rising costs associated with it. Therefore, the engineering sector is actively seeking sustainable and cost-effective energy solutions. Among the promising innovations in solving the problem is the photovoltaic thermal system (PVT), which aims to capture electrical and thermal energy from solar radiation. Despite its potential, the application of PVT systems is currently limited due to the unpredictable nature of solar energy and the absence of efficient thermal energy storage capabilities. To address these challenges, researchers have explored the use of phase change materials and nano-improved phase change materials (NEPCMs) to optimize energy extraction from solar systems. By incorporating these materials, the PVT system can maximize energy utilization. This article provides a comprehensive overview of the potential applications of PVT techniques in both industrial and building settings. It also offers a detailed assessment of their commercial and environmental aspects. The research findings highlight several advantages of PVT systems, including reduced electricity consumption, efficient utilization of cooling and heating loads during off-peak periods, improved temperature stability, and enhanced thermal comfort. Furthermore, the integration of NEPCMs in PVT systems has demonstrated superior thermal performance, enabling 8.3% more heat energy storage during charging and 25.1% more heat energy release during discharging. Additionally, the implementation of solar-assisted combined heating and power systems showed the potential to prevent the emission of 911 tons of CO2 per year compared to conventional PV systems. These systems offer a promising pathway towards mitigating environmental impacts while meeting energy demands. Overall, this review article serves as a valuable resource for fellow researchers by providing detailed insights into the viability of PVT systems for various applications in the industrial and building sectors.

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Section: Water Heatingmentioning

confidence: 99%

Hybrid Photovoltaic Thermal Systems: Present and Future Feasibilities for Industrial and Building Applications

Samykano

2023

Buildings

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“…Solar PV technology helps to generate power with lowest cost and also enhance the environment factor to the environment. PV energy volatility, however creates numerous issues, for example, economic losses from the hybrid power grid [8,9]. The economic dispatch of the complex MG system considered two related operating modes, such as grid connected mode and island modes, taking into account of renewable source abrupt changes due to change in environment conditions [10][11][12].…”

Section: Introductionmentioning

confidence: 99%

Grey Wolf Optimized Economic Load Dispatch Including Battery Storage In Microgrid

ALJRIBI,

YUSUPOV

2024

Politeknik Dergisi

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In last decades, grey wolf optimizer algorithm as a new meta-heuristic optimization technique plays major role in optimization of engineering problems such as load forecasting, controller parameter tuning and job scheduling. In this paper, grey wolf optimization (GWO) is used to optimize the microgrid system for effective dispatching of power to load with economic manner. The model of microgrid system components are developed and investigated in the MATLAB/Simulink platform. The vital objective of the proposed grey wolf algorithm is to minimize overall cost of the microgrid operation. The detailed investigation is carried out on power dispatch optimization and cost minimization for both modes, i.e. island and grid-connected modes of the microgrid system with considering the impact of running costs. From the analysis, the cost of the overall system is optimized effectively, and load sharing is done effectively by means of GWO.

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“…To the best of the authors' knowledge, an experimental study on the long-term effect of temperature on the a-Si PV/T system has yet to be reported. In fact, longstanding evidential data are lacking even for the mainstream PV/T systems using c-Si cells [17,18]. Long-term performance is one of the most important research directions of the PV/T system in the future [19].…”

Section: Introductionmentioning

confidence: 99%

Temperature-dependent performance of amorphous silicon photovoltaic/thermal systems in the long term operation

Jiao

Gao

et al. 2020

Applied Energy

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A Detailed Optimisation of Solar Photovoltaic/Thermal Systems and its Application.

Cited by 11 publications

References 0 publications

Hybrid Photovoltaic Thermal Systems: Present and Future Feasibilities for Industrial and Building Applications

Hybrid Photovoltaic Thermal Systems: Present and Future Feasibilities for Industrial and Building Applications

Grey Wolf Optimized Economic Load Dispatch Including Battery Storage In Microgrid

Temperature-dependent performance of amorphous silicon photovoltaic/thermal systems in the long term operation

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