Renewable Energy Trading to Enhance Sustainability Transition Across Vehicle Parking Station

Renewable Energy Trading to Enhance Sustainability Transition Across Vehicle Parking Station

Copyright: © 2024 |Pages: 22
DOI: 10.4018/979-8-3693-3932-9.ch010
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Abstract

The study focuses on the use of renewable energy trading to improve the sustainability of vehicle parking stations. It explores potential renewable energy trading systems that might help the parking business manage the shift to sustainability. The research provides the potential effects of a microgrid system on the environment and the economy. The system has PV/WT/GEN, which includes an annualized savings of $3,740, a simple payback period of 8.79 years, ROI of 8.09%, and an IRR of 10.5%. The system also involves a capital investment of $31,948. This research explores its financial and environmental advantages, especially considering that it can produce 3,494,424 units of power yearly and reduce carbon emissions by 55.3 kg. Based on this analysis, the chapter provides specific suggestions for stakeholders to encourage the microgrid's uptake and clear up misinterpretation, supporting environmentally friendly energy practices.
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List Of Nomenclature

  • CP: Power Temperature Coefficient

  • GEN: Genset

  • IRR: Internal rate of return

  • LCOE: Levelized cost of energy

  • RET: Renewable Energy Trading

  • ROI: Return of investment

  • SoC: State of charge

  • V2B: vehicle-to-building

  • V2G: vehicle-to-grid

  • V2G-EVs: vehicle-to-grid electric cars

  • WT: Wind turbine

  • GT(t): Real solar radiation on the PV panel

  • GT,STC(t): Solar radiation on the PV panel under standard conditions

  • Hhub: hub height (m)

  • Hanem: Anemometer height (m)

  • PPV,t: Rated capacity of the PV array

  • Tcell(t): Real-time temperature of the PV

  • Vanem(t): Wind speeds at the anemometer's elevation

  • Vw(t): Wind speeds at hub height

  • 𝜏: Solar transmittance

  • 𝛼: PV solar absorbance

  • 𝜂c: PV array's electrical conversion efficiency

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Introduction

The integration of RET represents a pivotal strategy in fostering sustainability transition within the context of Vehicle Parking Stations. As global concerns over climate change and environmental sustainability continue to escalate, there is a pressing need to explore innovative solutions that reduce carbon footprints and promote eco-friendly practices. This research initiative focuses on the strategic implementation of RET mechanisms to enhance sustainability within vehicle parking facilities. The significance of the research is highlighted by the fast development and rising energy consumption associated with parking lots for vehicles. In addition to being essential for urban transportation, these facilities have a major influence on the environment and energy consumption. Parking lots for vehicles have the potential to develop into sustainable hubs that reduce greenhouse gas emissions and advance energy efficiency by utilizing renewable energy sources and RET platforms. Furthermore, the geographical context of the research location, located at KG Halli, D' Souza Layout, Ashok Nagar, Bengaluru, Karnataka 560001, India, offers a distinct dimension to the study. Comprehending the geological features and natural resources of the location is important to develop customized RET approaches that sync with the surrounding environment and maximize energy efficiency.

Paper layout: Rest of the paper is organized as follows: problem statement, energy potential assessment, research gap and contributions, mathematical modeling, solution methodology, electricity consumption and results discussion. Finally, this study has been concluded.

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