The world is undergoing a fourth industrial revolution. Digital data is the new capital and the Internet has become a resource as precious as water or electricity.
The master’s programme Wireless, photonics and space engineering will allow you to become a technology innovator. Your creations will be the core engines of the cell phones, antennas, quantum computers, sensors, robots, communication systems and satellites of the future.
Wireless, photonics and space engineering master's programme at Chalmers
Emerging infrastructure like data centers and new applications such as industrial automation and autonomous driving will require unprecedented investments in photonics and wireless technology. The space industry is likewise transforming, with increasing private businesses and offering new and ubiquitous satellite constellation services for global communications, navigation, Earth observation and space science.
Watch a recording of the webinar about Wireless, Photonics, and Space Engineering on YouTube >> and YouKu >>
The master’s programme Wireless, photonics and space engineering at Chalmers will prepare you to meet these future challenges by giving you the basic knowledge in photonic and microwave devices, and how these components work at the system level.
You will be offered an unique opportunity to learn about applied electromagnetics by studying a combination of subjects for which Chalmers has world-class facilities. The Onsala space observatory has radio telescopes and instruments to study the Earth and the Universe. The Nanofabrication laboratory
is one of the best equipped university cleanrooms in Europe for research and fabrication of advanced semiconductor devices and integrated circuits. The research laboratories are equipped with state-of-the-art photonics and microwave measurement equipment including the Kollberg Laboratory.
The lectures are given by world-leading researchers and industry professionals, They bring advanced and contemporary knowledge to the lectures they teach. The programme offers a diverse range of learning activities: lectures, tutorial exercises, home assignments, projects, teamwork activities and practical laboratory work. Furthermore, the focus in each of these learning activities is on understanding the concepts and the implications. The aim of the learning in the programme is not to provide you with all the answers, but rather in helping you to ask the right questions.
The programme encompasses technology and fundamentals of electromagnetic components and systems. The courses included in the programme cover topics such as monolithic microwave and photonic integrated circuits, lasers, wireless and fiber optic communication systems, optoelectronics, satellite communication and positioning, antennas, sensor systems and space techniques. Together the research laboratories cover phenomena and applications of electromagnetic waves on all frequencies from microwaves to visible light.
Master's programme structure
The master's programme runs for a duration of two years, leading to a Master of Science (MSc) degree. During each year, students can earn 60 credits (ECTS) and complete the programme by accumulating a total of 120 credits. Credits are earned by completing courses where each course is usually 7.5 credits. The programme consists of Compulsory courses, Compulsory elective courses and Elective courses.
Compulsory courses year 1
During the first year the programme starts with five compulsory courses that form a common foundation in wireless, photonics and space engineering. Each course is usually 7.5 credits.
- Electromagnetic waves and components
- Wireless and photonics system engineering
- Microwave engineering
- Space science and techniques
- Photonics and lasers
Compulsory courses year 2
In the second year you must complete a master's thesis in order to graduate. The thesis may be worth 30 credits or 60 credits depending on your choice.
Compulsory elective courses
Through compulsory elective courses, you can then specialize in wireless, photonics or space engineering, or a combination thereof. During year 1 and 2, you need to select at least 3 compulsory elective courses out of the following in order to graduate.
- Active microwave circuits
- Microwave and optical remote sensing
- Antenna engineering
- Integrated photonics
- Radar systems and applications
- Design of MMIC
- Satellite communication
- Semiconductor devices
- Millimeter wave and THz technology
- Fiber optical communication
- Satellite positioning
- Wireless link project
You will also be able to select courses outside of your programme plan. These are called elective courses. You can choose from a wide range of elective courses, including the following:
Programme plan, syllabus, course description and learning outcomes
- Image processing
- Modern imaging
- Introduction to communication engineering
- Radioastronomical techniques and interferometry
- Applied signal processing
- Introduction to microsystem packaging
- Fundamentals of micro- and nanotechnology
- Introduction to law
- Computational electromagnetics
- Implementation of digital signal processing systems
Other master's programmes that might interest you
Admissions academic year 2021/22
General entry requirements
An applicant must either have a Bachelor's degree in Science/Engineering/Technology/Architecture or be enrolled in his/her last year of studies leading to such a degree.
Specific entry requirements
Bachelor's degree with a major in Electrical Engineering, Engineering Physics, Physics or Engineering Mathematics
Prerequisites: Mathematics (at least 30 credits) (including Linear algebra, Multivariable analysis and Fourier analysis) and Electromagnetic field theory
Preferable course experience: High-frequency electromagnetic waves.
English language requirements
Chalmers Bachelor’s degree
Are you enrolled in a Bachelor’s degree programme at Chalmers now or do you already have a Bachelor’s degree from Chalmers? If so, different application dates and application instructions apply.
Master of Science (MSc)Credits:
: Second Cycle, Master'sRate of study:
Full-time, 100%Instructional time:
DaytimeLanguage of instruction:
On-campus (Location: campus Johanneberg)Tuition fee:
140 000 SEK/academic year
*EU/EEA Citizens are not required to pay fees
Questions about the application:
Chalmers Admissions, firstname.lastname@example.org
Specific questions about the programme:Lars Ulander
, Director of master's programme
The programme is highly interlinked with the achievement of the UN Sustainable development goals (SDGs)
. The table below provides an overview of the sustainable development goals and the associated targets within the programme.
Goal 9: Industry, Innovation and Infrastructure
Wireless and photonics technology are key enablers for the fourth industrial revolution, e.g. 5G and 6G communication networks and Internet of Things (IoT).
Goal 11: Sustainable cities and communities
Wireless and photonics sensor systems are needed for transforming cities and achieving sustainability. Important examples include autonomous vehicles and pollution monitoring.
Goal 13: Climate action
Microwave and optical remote sensing are essential for supporting climate change action, e.g. monitoring from space of CO2 emissions and the retreat of glaciers, sea ice and forests.
The industry is in the middle of the fourth industrial revolution, where the physical and digital worlds blend, and skilled experts in wireless and photonics technologies are needed. The telecom, aerospace, medical and automotive industries are all expected to grow in the coming years and students who have graduated from this programme will be in high demand. Our alumni work as technical specialists in design, research, development or production of wireless and photonics components, and systems.
Entrepreneurship is strong in the region including many small enterprises and start-ups, for example Omnisys Instruments (electronic systems for space), Medfield diagnostics (medical imaging), Bluetest (antenna test systems), Iloomina (photonic integration) and Gapwaves (integrated waveguide technology). The region is also a leading European R&D and industrial node including large companies such as Ericsson, Saab, Nvidia and RUAG Space. Ericsson is one of the world's leading information and communication companies and has one of its R&D centers located in Gothenburg, Saab offers defence and security systems, Nvidia develops chip units, including photonics, for mobile computing and datacenter infrastructure, and RUAG Space develops antennas, data handling systems and on-board computers for the space sector.
The opportunities for an academic career are also excellent and a master’s degree from this programme is a perfect background for pursuing PhD studies in our research fields. Chalmers is internationally recognized for the cutting-edge research in microwave electronics, photonics, antennas, THz and mm waves, radio astronomy, plasma physics, space geodesy and remote sensing.
Research within Wireless, photonics and space engineering
Swedish industry has a strong tradition in wireless, photonics and space engineering and Chalmers is internationally recognised for research in microwave technology, antennas and communication systems.. The western part of Sweden is a leading European node for research, development and business in microwave technology. The present largest regional microwave employers are Ericsson, Saab and RUAG Space. Ericsson has research and development of cellular radio base stations and microwave radio links. Ericsson is at the forefront of developing technologies for the new 5G networks and Lindholmen in Gothenburg, Sweden, is a leading R&D centre. Saab develops and delivers state of the art radar systems for defence and security applications, and RUAG Space in Gothenburg develops antennas, data handling systems and on-board computers for the space sector.
Entrepreneurship is strong in the region and it supports many small enterprises and growing start-ups within the microwave business such as microwave sensor systems for space (Omnisys Instruments), microwave detection of foreign bodies in food (Foodradar Systems), medical microwave imaging (Medfield diagnostics), antenna test systems (Bluetest) and integrated waveguide technology (Gapwaves). Not only are we connected to research, but also several companies have emerged from research at Chalmers, for example Gapwaves, Bluetest, Food Radar Systems, Gotmic, Low-noise factory, Omnisys Instruments, Smoltek, and Wasa mm-wave.
The teachers in the master's programme Wireless, photonics and space engineering are active researchers at Chalmers. They conduct application-oriented research on high-speed electronics for future communication and remote sensing applications, optoelectronics and fibre optics for long haul transmission and short reach interconnects, THz imaging systems, and advanced receivers for space applications. Since microwave power amplifiers dominate the energy consumption in mobile communication networks, we work on advanced transistor technologies and amplifier designs for increasing power efficiency. Research at the photonics laboratory focuses on different methods to increase data flow in fibre optical communication systems. For example, new optical amplifiers with extremely low noise with the potential to fourfold the transmission distance for long distance links has been presented, as well as energy and cost-efficient lasers for high capacity short distance links. This technology is well suited for interconnects and networks within e.g. data centres or supercomputers.
The Department of Space, Earth and Environment at Chalmers is involved in the development of methods to quantify gas emission from active volcanoes. Apart from geophysical research and risk assessment, this will provide information on ozone depletion and climate change. A method based on UV/visible light for quantifying hydrocarbon emission from oil-related industrial activities has also been developed. Data from satellite global radar mapping is used to understand the role of forest in the global carbon cycle. Chalmers takes part in constructing the Square Kilometer Array (SKA), the world's largest and most advanced radio telescope. A compact feed antenna with extremely large bandwidth is developed for this purpose. This antenna technique can also be used in satellite communication terminals, radio links and medical imaging.
“We get to fabricate and test our own solutions”
Teanette, South Africa, Wireless, photonics and space engineering
Why did you choose this programme?
– I was first introduced to high frequency design in my bachelor’s degree, and explored it briefly in my bachelor’s thesis. My interest was especially piqued after a study visit to a radio astronomy observatory in South Africa, where the engineers shared the unique challenges they face and the clever ways in which they overcome them. Not only does this programme explore all the aspects of high frequency design that I am interested in (communications, microwave sensing, space observation), but it also provides students with the resources to fabricate and test their high frequency solutions.
What have you been working on?
– During my first study period, I worked on a group assignment where we were tasked with designing a transatlantic communication link. The goal was to create a link with a capacity of up to 10 Tb/s using deep sea optical fibre cables. We had to consider many interesting design challenges to achieve this, such as the effects of optical noise in the system, how to modulate optical signals, and how to compensate for optical dispersion along the fibre. As a student who had not worked with optics before, it was both an enlightening and rewarding experience to complete this task in a group of international students with different backgrounds.
What do you like the most about your programme?
– Engineering is not a purely theoretical field and, by implication, engineering students tend to be people who enjoy solving real-life problems in a concrete, tangible fashion. I really appreciate the fact that this course provides students with the resources and opportunities to realize their design solutions. I am especially excited about the fabrication of our high-frequency PCB design, which will be manufactured and tested later in the second study period.
What do you want to do in the future?
– Ultimately, I want to complete a PhD in high frequency design. However, I would like to build up some industry experience and broaden my skillset before finalising a thesis topic. Two fields which I’d like to pursue for their interesting applications of high frequency design are biomedical engineering and radio astronomy. With regards to the latter, I look forward to visiting the Onsala Space Observatory that is operated by Chalmers later in the programme.