Autonomous Drones and Their Integration With AI Technologies

Autonomous Drones and Their Integration With AI Technologies

Copyright: © 2024 |Pages: 21
DOI: 10.4018/979-8-3693-1702-0.ch004
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Abstract

Artificial intelligence integration in autonomous drones has various advantages, including greater operational efficiency and cost savings. By automating historically manual tasks, drones can complete them far more quickly, accurately, and cheaply than humans could. Prioritizing safety is of paramount importance when operating drones. Advanced safety measures, including real-time monitoring and collision avoidance systems, are built into AI-powered drones, making them safer to operate and reducing the likelihood of mishaps. Autonomous drones that use AI have a lot of promise, but there are a lot of problems that need fixing first. One of the key concerns is the creation of robust AI algorithms capable of adapting to dynamic situations and efficiently dealing with unforeseen scenarios. The integration of self-driving drones and AI technologies could revolutionize various sectors and enhance our everyday lives.
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1. Introduction

By enabling intelligent, autonomous flying without human intervention, unmanned aerial vehicles (UAVs), another term for autonomous drones, are revolutionising aerial operations. Incorporating artificial intelligence (AI) algorithms into their design, these drones are capable of real-time sensing, analysis, and decision-making, making them versatile tools. New possibilities are opening up as a result of the increased dexterity of unmanned aerial vehicles brought about by the use of artificial intelligence technologies. Drones that are outfitted with advanced sensors and AI algorithms can perceive, analyse, and make decisions about their environment in real-time. This groundbreaking combination of hardware and software is influencing many different industries and parts of our lives.

The incorporation of AI technologies is opening up new possibilities, which is leading to autonomous drones becoming more flexible. The combination of sophisticated sensors and artificial intelligence algorithms allows autonomous drones, often called unmanned aerial vehicles (UAVs), to see, analyse, and make decisions in the blink of an eye. Because of this groundbreaking combination of technology and software, many areas and parts of our lives are evolving. Operators' levels of alertness diminish and trust in the AI system grows when they perceive greater autonomy, less cognitive work, and better situational awareness. Given these findings, it's clear that human elements need to be incorporated at every stage of development for autonomous UAVs to be as safe and effective as possible in the future (Alharasees et al., 2023).

Benefits of AI-capable autonomous drones are numerous and include:

  • Enhanced safety: AI can assist drones in navigating challenging settings and avoiding obstructions, which lowers the possibility of mishaps.

  • Enhanced productivity and efficiency are possible because to AI's ability to automate processes and optimise aircraft routes.

  • Increased capabilities: AI gives drones the ability to carry out a greater variety of jobs, including delivery, monitoring, and inspection.

  • Lower operating costs can be achieved by using AI to lessen the requirement for human intervention.

Figure 1.

Drones4Safety uses a drone swarm that can self-charge to examine bridges and railroads

979-8-3693-1702-0.ch004.f01
(https://www.mdpi.com/applsci/applsci-13-01256/article_deploy/html/images/applsci-13-01256-g001-550.jpg)

Bridges and railway catenary systems can have structural degradation and flaws detected using high-resolution cameras that have onboard fault detection algorithms. Using data collected before takeoff, we create digital 3D models of the specific railway sections or bridges that will be used in the mission (Drones4Safety Project, 2022).. The ground segment that supports the autonomous mission receives the most recent information on flying limits over the target assets through the networked drone swarm that communicates with cloud services. Also, the swarm gets a rough trajectory from the cloud services' waypoints, which show a route from the inspection's origin to its destination.

An autonomous, cooperative, and always-on drone system is what the European research and innovation project Drones4Safety (D4S) is aiming to create in order to make Europe's public transport system more secure. The operators of railways and bridges will be able to conduct more thorough and independent inspections of their transportation infrastructure using this method (Hussein et al., 2021). This admirable goal is achieved by a swarm of drones that offer safe and economical inspection flights (Figure 1).

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