What Will Learn?

• Course Aims

Requirements

MCT231

Description

• English Description
  
  Ground vehicles types. Vehicle main systems: propulsion systems, braking systems, suspension systems, steering systems. Engine starting system, fuel supply system and ignition system. Air conditioning and climate control system. Electric vehicles. Examples of Autotronic systems. Introduction to the fundamental knowledge and experience in the design and manufacturing of Nano-Mechatronic systems, Methodologies for design, fabrication, and packaging of Nano-Mechatronic systems, Overview on fabrication and manufacturing technologies for producing Nano-Mechatronic systems. Interdisciplinary nature of Nano-Mechatronic systems will be emphasized via various engineering principles ranging from mechanical and electrical to materials and chemical engineering. Introduction to biomechatronic systems: definition of biomechatronic, principles of bio-mechatronics, biotechnology and mechatronic systems design, applying mechatronics theory to biotechnology. Human motion control, physiological sensory system, physiological motor control, central nervous system, impaired motor control, assistive motor control, human-robot interaction, biomimetic and bioinspired systems, bio-interface. Examples: assistive devices and rehabilitation robotics
• Arabic Description
  
  Ground vehicles types. Vehicle main systems: propulsion systems, braking systems, suspension systems, steering systems. Engine starting system, fuel supply system and ignition system. Air conditioning and climate control system. Electric vehicles. Examples of Autotronic systems. Introduction to the fundamental knowledge and experience in the design and manufacturing of Nano-Mechatronic systems, Methodologies for design, fabrication, and packaging of Nano-Mechatronic systems, Overview on fabrication and manufacturing technologies for producing Nano-Mechatronic systems. Interdisciplinary nature of Nano-Mechatronic systems will be emphasized via various engineering principles ranging from mechanical and electrical to materials and chemical engineering. Introduction to biomechatronic systems: definition of biomechatronic, principles of bio-mechatronics, biotechnology and mechatronic systems design, applying mechatronics theory to biotechnology. Human motion control, physiological sensory system, physiological motor control, central nervous system, impaired motor control, assistive motor control, human-robot interaction, biomimetic and bioinspired systems, bio-interface. Examples: assistive devices and rehabilitation robotics