Engineering - Advancements in Robotic Systems and Automation
Fouad Sabry
Publisher: One Billion Knowledgeable
Summary
Engineering-This chapter introduces engineering as the backbone of technological progress, discussing its principles, methodologies, and realworld applications in robotics Biomedical Engineering-Explore how biomedical engineering merges technology with biology to create solutions for medical devices, prosthetics, and healthrelated innovations Computing-Delve into the critical relationship between computing and engineering, focusing on how computational systems enhance robotics and automation Computer Science-Learn the key role computer science plays in software development, machine learning, and robotics, shaping the future of artificial intelligence Control Engineering-This chapter examines how control systems are designed to manage robotic systems' behavior, ensuring precision and efficiency in automation Electrical Engineering-Discover how electrical engineering powers robots and smart systems, covering circuits, sensors, and energy management crucial to robotic operation Mechanical Engineering-Learn about the mechanical foundations of robotics, including the design and function of moving parts, structure, and materials for durable robots Computer Engineering-Understand the fusion of computer science and electrical engineering in the development of the hardware and software that drives robotics Machine-This chapter explores the machinery used in robotics, from mechanical components to automation tools that are foundational to intelligent machines Hydraulic Engineering-Dive into the world of hydraulics, studying fluid dynamics and their applications in robotics, especially for systems requiring highforce motion Bachelor of Engineering-Gain an understanding of what the Bachelor of Engineering degree entails, including the core competencies and pathways it offers for aspiring engineers in robotics Engineering Physics-This chapter explains the physical principles that underpin engineering, exploring forces, energy, and materials critical to robotics design History of Technology-Trace the evolution of technology and its influence on engineering, shedding light on past innovations that have paved the way for robotics today Manufacturing Engineering-Learn how manufacturing processes are optimized for robotic production, focusing on efficiency, precision, and scalability in industrial settings Architectural Engineering-Discover the intersection of architecture and engineering in designing spaces for robotics and automation systems in modern structures History of Engineering-Explore the rich history of engineering, from its ancient roots to contemporary advancements that have shaped robotics and its applications Industrial Engineering-This chapter covers the role of industrial engineering in optimizing systems and processes, crucial for developing efficient robotic systems Electronic Engineering-Dive into the electronics behind robotics, including circuits, microcontrollers, and sensors essential for robotic operation Industrial and Production Engineering-Learn how industrial engineering principles contribute to designing production systems that integrate robotics for improved productivity History of Mechanical Engineering-Trace the development of mechanical engineering and its contributions to robotics, focusing on machinery design, tools, and automation Biochemical Engineering-This chapter explores the integration of chemical engineering principles into robotics, focusing on bioreactors, sensors, and biorobotics applications
Available since: 01/02/2025.
Print length: 375 pages.
