The "Automation and Robotics in Engineering Applications" course explores how these transformative technologies are revolutionizing various engineering fields, with a focus on highway systems as a comprehensive case study. This course provides a deep dive into foundational concepts, practical applications, and future trends, leveraging the NIST-FHWA study on automation and robotics in highway systems.

You will gain an executive overview of the study's objectives, methodologies, and key findings, understanding the critical role of automation in addressing infrastructure challenges like decaying civil infrastructure, declining federal investment, and significant economic losses due to traffic delays.

• Understanding the Study's Rationale and Scope: Explore the crisis in America's civil infrastructure, the economic implications, and the rationale behind leveraging industrial automation for civil construction.
• Key Technologies and Applications: Delve into automated site integration, bridge decking, trenching and pipelaying, bridge inspection and maintenance, pavement inspection and repair, and temporary bridging systems.
• Economic Impact and Benefits: Analyze the meticulous cost-benefit analyses, identifying proposals with significant potential for national economic benefits and improved efficiency.
• Challenges and Solutions: Examine technological and contextual challenges, including regulatory hurdles, fragmented industry structure, current contracting practices, and labor costs, along with proposed federal initiatives to overcome these.
• State-of-the-Art in Automation and Robotics: Review existing technologies, including telerobotics, unmanned ground vehicles (UGVs), intelligent sensor processing, bar code technology, voice recognition, expert systems, neural networks, object-oriented programming (OOP), simulation systems, integrated pavement management systems, and computer-aided techniques for planning and design.

By the end of this course, you will be equipped to understand the landscape of automation in engineering applications, identify promising opportunities, and contribute to the development and implementation of cutting-edge solutions that enhance safety, productivity, and sustainability in critical infrastructure projects.