Miss. Betsega Yosef Erchafo

Industrial control and instrumentation Engineering Chair Head

Email: This email address is being protected from spambots. You need JavaScript enabled to view it.

 Office: New AMiT Faculties Building Phone No: +251910054056

Industrial Control and Instrumentation Engineering focuses on the design, development, and implementation of control systems and instrumentation used in manufacturing, process industries, and automation. It covers areas such as sensors and measurement technologies, control theory, process automation, robotics, and industrial communication networks. This discipline addresses critical challenges like precision control, system integration, safety, and real-time monitoring. It combines traditional control techniques with modern innovations like AI, IoT, and smart systems. Engineers in this field ensure efficient, reliable, and intelligent operation of industrial systems, playing a vital role in advancing automation and digital transformation across sectors.

The Chair leads academic and research excellence in industrial control and instrumentation, overseeing curriculum development, faculty advancement, and industry collaboration. Focused on automation, control systems, smart manufacturing, and industrial IoT integration, the role fosters innovation in intelligent systems and advanced instrumentation. Through cutting-edge research and strategic partnerships, the Chair ensures the department remains at the forefront of global developments while equipping graduates to tackle complex challenges in industrial automation and control.

                                Mr. Amanuel Zemach Guma

   Computer Engineering Computer and Electronics Engineering Chair Head 

Email: This email address is being protected from spambots. You need JavaScript enabled to view it.

Office: New AMiT Faculties Building Phone No: +251910997131

Computer and Electronics Engineering Chair The Chair leads academic and research activities in computer and electronics engineering. Computer engineering focuses on the design, development, and integration of computing systems that bridge hardware and software. It combines principles from electrical engineering and computer science to create embedded systems, processors, and intelligent devices. Key areas include microprocessor architecture, FPGA/ASIC design, real-time operating systems, hardware-software co-design, and cyber-physical systems. The field emphasizes efficiency, reliability, and security in applications ranging from IoT devices and robotics to autonomous systems and edge computing. Computer engineers optimize both the physical computing hardware and the low-level software that controls it, enabling smarter, faster, and more energy-efficient technological solutions across industries such as automotive, healthcare, energy, and industrial automation. Electronics engineering focuses on designing and optimizing electronic circuits, devices, and systems that process signals, manage power, and enable communication. It covers areas such as analog and digital circuits, power electronics, RF/wireless systems, embedded hardware, and microelectronics. The field combines physics and materials science to develop components like transistors, sensors, and integrated circuits, as well as complex applications in consumer electronics, automotive systems, medical devices, and aerospace. Electronics engineering emphasizes low-power electronic design (unlike electrical engineering’s high-power focus) and physical hardware (unlike computer engineering’s software integration), enabling innovations from semiconductor chips to 5G networks and renewable energy systems.

Mr. Biruk Satnaw Abeba  

Electrical Communication Chair Head

Email: This email address is being protected from spambots. You need JavaScript enabled to view it. 

Office: New AMiT Faculties Building Phone No: +251903088509

Communication Engineering: focuses on the design, development, and management of communication systems, covering areas like telecommunications, wireless networks, satellite communication, and optical fiber technologies. It addresses critical challenges such as data security, spectrum efficiency, and global connectivity. Communication engineers ensure reliable, high-speed information exchange while advancing global digital infrastructure. This discipline is essential for tomorrow’s digital transformation and technological innovation.

Program Overview:

The Chair delivers undergraduate programs, covering core fundamentals alongside cutting-edge focus areas in wireless communication, optical networks, and modern telecommunication systems and other. Our rigorous curriculum merges theoretical knowledge with hands-on laboratory work, industry collaborations, and research projects to cultivate both technical expertise and innovative problem-solving abilities. Graduates emerge equipped to address global connectivity challenges with sustainable engineering solutions.