LEARNING OUTCOMES OF GRADUATES

Educational Goals

Character Graduates. Graduates with a noble and civilized attitude, deed, and actions.

Quality Graduates.Graduates with national and international standard knowledge, skills, and competencies.

Global Competitive Graduates. Graduates can compete in the global and have a passion for lifelong learning.

 

Graduate Profiles

Engineer
Graduates are able to have a career in electrical engineering practice in analyzing, designing, developing, and operating system
Researcher
Graduates are able to continue their education to postgraduate level and/or have a career in R&D or as academics.
Technopreneur
Graduates are able to independently pioneer and develop types of business fields related to Electrical Engineering expertise, thereby contributing significantly to the expansion of employment opportunities

 

Program Learning Outcomes

  • Religious and ethical. Able to demonstrate a religious attitude, apply ethical principles and be committed to professional responsibilities and ethics as well as engineering practice norms and care for the community and the environment.
  • Knowledge. Able to apply knowledge of science and mathematics, electrical technology, information technology and/or materials technology to gain a thorough understanding of the principles in the field of electrical engineering.
  • Engineering Analysis. Able to choose methods, make literature reviews, design experiments with simulations, and analyze results to reach the right conclusions, as well as develop guidelines for using tools.
  • Engineering Design. Able to design and develop components, systems and/or processes to support engineering activities and create technological innovations by optimally utilizing potential resources.
  • Experiment. Able to design and carry out experiments using basic and modern technical tools and analyze and interpret data based on the correct methodology to strengthen engineering assessments.
  • Communication. Able to interact and express ideas effectively both orally and in writing within the engineering environment and the general public in the national and international scope.
  • Individual and Teamwork Able to plan, implement, complete, and evaluate tasks both individually and in collaboration in interdisciplinary, multidisciplinary, multinational, and multicultural teams.
  • Entrepreneurship Able to apply entrepreneurial principles and methods in starting a business independently and building technology-based business networks.
  • Lifelong learning. Able to understand the need for lifelong learning with data literacy, technology literacy, information literacy and human literacy.

Specific Intended Learning Outcomes

Specialisation of Electrical Power System Engineering

  1. Mastering the Theoretical Basis and Concept of Electrical Power Systems
    1. Graduates are able to explain the principles of generation, transmission, distribution, and utilization of electrical energy.
    2. Graduates are able to analyse load dynamics, system stability, and calculation of electrical parameters (such as voltage, current, and power factor) under various operating conditions.
  2. Design and Analysis of Electrical Power Systems
    1. Graduates are able to design electrical power systems, including the selection of main components such as generators, transformers, transmission lines, and protection devices.
    2. Graduates are able to apply load analysis, computer simulation (using software such as MATLAB or ETAP) and comprehensive evaluation of system reliability and efficiency.
  3. Integration of Renewable Energy Technology and Hybrid Systems
    1. Graduates are able to design integration and optimization between conventional energy and renewable energy sources, such as solar, wind, biogas, biomass, and geothermal.
    2. Graduates are able to evaluate the environmental and socio-economic impacts of the application of renewable technology in power systems.
  4. Evaluation of Reliability and Quality of Power in Electric Power Systems.
    1. Graduates are able to identify high field phenomena and design integrated control systems (e.g. SCADA and DCS).
    2. Graduates are able to evaluate the reliability of electric power systems and understand key parameters in power quality, such as voltage stability, frequency, and harmonics.
  5. Data Analysis and Utilization of Engineering Software
    1. Graduates are able to collect, process, and analyse operational data of power systems for evidence-based decision making.
    2. Graduates are able to master the use of simulation software and statistical analysis to predict system performance and identify potential failures early.

Specialisation of Electronics Engineering

  1. Mastery of Basic Electronic Theory and Semiconductor Physics
    1. Graduates are able to explain the characteristics and principles of electronic components such as diodes, transistors (BJT, MOSFET), op-amps, and semiconductor-based sensors.
    2. Graduates are able to understand the basic concepts of semiconductor physics, Kirchhoff's laws, and DC/AC circuit analysis which are the basis for designing electronic circuits.
  2. Design and Analysis of Analog and Digital Electronic Circuits
    1. Graduates are able to design, analyse, and optimize analogue circuits for amplifier, filter, and sensor applications, as well as digital circuits for logic applications and simple control systems.
    2. Graduates are able to simulate designs using software such as LTspice, Multisim, or other electronic CAD tools.
  3. Implementation of Electronic Systems in Mechatronics and Automation
    1. Graduates are able to integrate electronic systems with mechanical and control elements in mechatronic systems, including the application of sensors, actuators, and microcontroller or PLC-based controls.
    2. Graduates are able to design and implement automation solutions involving interactions between hardware and software, and understand the concept of embedded systems in the context of mechatronics.
  4. Characterization, Testing, and Performance Analysis of Electronic Circuits
    1. Graduates are able to design test scenarios and operate laboratory instrumentation equipment (e.g., oscilloscopes, multimeters, spectrum analyzers) to measure and analyse circuit performance.
    2. Graduates are able to interpret measurement results to evaluate circuit reliability and efficiency, and identify potential design improvements.
  5. Integration of Electronic Technology in Industrial Applications and Product Innovation
    1. Graduates are able to apply electronic concepts and technologies to develop innovative products, such as in automation systems, telecommunications, and energy management.
    2. Graduates are able to understand interconnectivity and integration standards between subsystems in industrial environments, and can work with multidisciplinary teams in product development.

Specialisation of Telecommunication Engineering

  1. Mastering the Theoretical Foundations of Modern Communication Systems
    1. Graduates are able to explain the basic concepts of modern communication, including analogue and digital communication and the underlying principles.
    2. Graduates are able to understand the basic concepts of electromagnetics and wave propagation that underlie wireless communication systems.
  2. Designing and Analyzing Telecommunication Systems
    1. Graduates are able to design and analyse efficient telecommunication systems, including channel capacity calculations and interference analysis.
    2. Graduates are able to use simulation software (e.g. MATLAB) to analyse the performance of telecommunication systems.
  3. Implementation and Integration of Wireless, Cellular, and Internet of Things (IoT) Technologies
    1. Graduates are able to implement and integrate wireless and cellular technologies, as well as IoT concepts in modern communication solutions.
    2. Graduates are able to identify and overcome technical challenges in the implementation of wireless infrastructure and cellular networks through a systematic approach.
  4. Integration of Digital Media Convergence and Telecommunication Technology
    1. Graduates are able to integrate voice, data, and video communication systems to support digital media convergence effectively.
    2. Graduates are able to apply international standards and communication protocols to ensure interoperability between devices and systems.
  5. Signal Analysis and Data and Image Processing in Telecommunications
    1. Graduates master signal analysis techniques and data and image processing to evaluate telecommunications system performance and review information.
    2. Graduates are able to perform measurements to detect potential interference, optimize telecommunications system reliability and obtain information.