Study directions

for engineers

Courses of study for engineers

How do you become an engineer? Becoming an engineer starts with a technical education at a university (such as a bachelor's or master's degree in engineering) or college (hbo).

Possible fields of study for engineers are:

Architecture and civil engineering

  • Civil Engineering: Design and construction of buildings and urban structures.
  • Civil Engineering: Infrastructure such as bridges, roads, tunnels, and water works.
  • Urban Engineering: Planning and design of urban areas.
  • Water Management: Management of water resources and flood protection.
  • Geotechnics: Investigation of soil structures and their interaction with structures.

Mechanical engineering

  • General Mechanical Engineering: Design and development of machines and mechanical systems.
  • Robotics and Mechatronics: Integration of mechanics, electronics and computer science.
  • Aerospace Engineering: Development of aircraft, satellites and drones.
  • Materials Technology: Research and development of new materials such as composites and metal alloys.

Electrical engineering and electronics

  • Electrical engineering: electrical systems such as power supply, electronics and networks.
  • Automation and Control Systems: Development of automated systems and industrial processes.
  • Telecommunications: Design of communication infrastructures, such as 5G networks.
  • Microelectronics: Miniaturisation and development of integrated circuits and chips.

Informatics and IT

  • Informatics: Software development, data analysis and artificial intelligence.
  • Cybersecurity: Securing systems and data against digital threats.
  • Data Science: Analysing and applying large data sets for decision-making.
  • Systems and Network Management: Managing and optimising IT infrastructures.

Chemical Engineering and Materials

  • Chemical Technology: Development of processes for chemical production.
  • Biochemical Technology: Application of biotechnology in the chemical industry.
  • Process Technology: Optimisation of industrial processes.
  • Polymer Science: Research into plastics and new materials.

Energy and sustainability

  • Energy Engineering: Design and management of energy systems such as wind and solar power.
  • Sustainable Technology: Development of environmentally friendly solutions.
  • Hydrogen Technology: Production and storage of hydrogen as an energy source.
  • Climate Technology: Innovations for reducing climate change.

Health technology

  • Biomedical Engineering: Development of medical devices such as prostheses and pacemakers.
  • Health Informatics: Use of data and IT in healthcare.
  • Medical Robotics: Robotic systems for surgical and therapeutic applications.

Industrial Technology and Management

  • Industrial Design: Creation of user-friendly and aesthetic products.
  • Engineering Management: Combination of technology and management.
  • Production Technology: Optimisation of production processes.
  • Supply Chain Management: Management of logistics processes and chains.

Environmental engineering

  • Environmental engineering: Solutions to environmental problems such as waste treatment and air pollution.
  • Ecotechnology: Sustainable applications in ecosystems and natural resources.
  • Soil and Water Engineering: Protection and improvement of soil and water quality.

Aerospace

  • Aerospace Engineering: Development of aircraft, satellites and space vehicles.
  • Space emission technology: Techniques for missions and space research.
  • Aerodynamics: Research into air flows and flight performance.

Agricultural and food technology

  • Agricultural Technology: Mechanisation and automation in agriculture.
  • Food Technology: Development of food processes and packaging.
  • Precision agriculture: Use of technology for more efficient farming methods.

Physical and Mathematical Engineering

  • Engineering Physics: Application of physics principles in technology.
  • Mathematical Modelling: Simulations and models for complex systems.
  • Nanotechnology: Manipulation of materials at the nanoscale.