Energy Harvesting and Smart Highways for Sustainable Transportation Infrastructure: Revolutionizing Roads Using Nanotechnology

Energy Harvesting and Smart Highways for Sustainable Transportation Infrastructure: Revolutionizing Roads Using Nanotechnology

Mohanraj Gopal, J. Lurdhumary, S. Bathrinath, A. Parvathi Priya, Atul Sarojwal, S. Boopathi
DOI: 10.4018/978-1-6684-9214-7.ch005
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Abstract

The chapter explores the integration of nanotechnology, energy harvesting, and smart highways into global transportation infrastructure, aiming to create sustainable and efficient systems. Nanotechnology enhances road surface durability and functionality, offering increased strength, resilience, and self-healing properties. Energy harvesting techniques, such as piezoelectric and solar technologies, harness kinetic and solar energy from vehicular motion and sunlight, powering infrastructure, streetlights, and even the grid. Smart highways, enabled by interconnected sensors and communication systems, monitor traffic flow, adjust speed limits, provide real-time updates, and autonomously manage transportation systems. These innovations not only promise a sustainable transportation ecosystem but also catalyze economic growth, environmental preservation, and enhanced quality of life for communities worldwide.
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Introduction

In the 21st century, the global community faces unprecedented challenges related to transportation, with burgeoning urbanization, population growth, and environmental concerns placing immense pressure on existing infrastructure. Traditional transportation systems heavily reliant on fossil fuels contribute significantly to air pollution, greenhouse gas emissions, and congestion, necessitating a paradigm shift towards sustainable alternatives. This has propelled the exploration and implementation of innovative technologies to transform transportation infrastructure into more efficient, eco-friendly, and resilient systems (Sultana et al., 2021).

As the world witness’s rapid urbanization and population growth, cities become focal points for economic activities and human habitation. However, this surge in urban living also intensifies the demand for transportation, leading to increased traffic congestion, longer commute times, and environmental degradation. Sustainable transportation infrastructure is crucial to mitigate these challenges, ensuring that cities remain hubs of productivity without compromising the quality of life for their inhabitants (Ding & Liu, 2023).

The environmental toll of conventional transportation systems is undeniable, with vehicular emissions contributing significantly to air pollution and climate change. The need for sustainable transportation infrastructure arises from the imperative to reduce carbon footprints, embrace renewable energy sources, and foster eco-friendly practices. Addressing these environmental concerns is not only a responsibility but a necessity to ensure the health of the planet and its inhabitants. Traditional transportation systems often operate with inefficiencies, utilizing non-renewable energy sources and contributing to resource depletion. Sustainable transportation infrastructure seeks to optimize energy usage through innovative technologies like energy harvesting and nanotechnology. By harnessing energy from vehicular motion and sunlight, these systems not only reduce dependence on fossil fuels but also promote resource conservation, aligning with the principles of a circular and sustainable economy (Prus & Sikora, 2021).

The economic impact of inefficient transportation systems is profound, affecting productivity, commerce, and overall economic growth. Congestion and delays in transportation lead to financial losses for businesses and individuals alike. Sustainable transportation infrastructure presents an opportunity to boost economic development by improving the efficiency of logistics, reducing operational costs, and fostering innovation in emerging industries related to clean energy and smart technologies (Zhao et al., 2020). Beyond the environmental and economic aspects, the need for sustainable transportation infrastructure is deeply rooted in enhancing the quality of life for communities. Reduced air pollution, efficient traffic flow, and improved accessibility contribute to healthier, more livable urban environments. Smart highways, enabled by interconnected systems, provide real-time updates, reduce accidents, and offer a seamless travel experience. This, in turn, fosters community well-being, attracting businesses, residents, and investors to regions with forward-thinking, sustainable transportation solutions (Petru & Krivda, 2021).

Sustainable transportation infrastructure is crucial due to urbanization, environmental concerns, resource conservation, economic efficiency, and community well-being. Embracing innovative technologies and approaches is essential for building a sustainable and resilient future, meeting current demands while ensuring a resilient future in the complexities of the modern world.

Nanotechnology plays a pivotal role in revolutionizing transportation infrastructure by offering unprecedented improvements in road surface durability. Traditional road materials are susceptible to wear and degradation over time, leading to frequent maintenance and repair. Nanomaterials, with their unique properties at the nanoscale, enhance the strength and resilience of road surfaces. By incorporating nanoparticles into construction materials, roads become more resistant to abrasion, weathering, and structural damage. Moreover, nanotechnology introduces self-healing properties, allowing road surfaces to repair minor damages autonomously. This enhanced durability not only reduces maintenance costs but also extends the lifespan of transportation infrastructure, contributing to a more sustainable and cost-effective road network (Petru & Krivda, 2021; Pompigna & Mauro, 2022a).

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