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CHALMERS UNIVERSITY OF TECHNOLOGY
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THE WILLIAM CHALMERS LEGACY
MICROWAVE ENGINERING AT CHALMERS
Chancellery member William Chalmers (1748-1811)
had amassed a considerable fortune from the East India
Company’s trade with other countries, in­­­cluding China,
during the latter half of the 18th century. Inspired by fellow
Freemason Pehr Dubb, he left his entire estate to Sahlgrenska Hospital in Gothenburg and for the founding of an
“industrial school for poor children who had learned to read
and write”.
The Freemasons’ Orphanage Trustees in Gothenburg
were assigned the task of administering the will and after
several years of discussions regarding a framework for the
school, the Chalmers School of Arts and Crafts was finally
opened on November 5, 1829. The principal of the school
was Carl Palmstedt.
During the first year the school had three teachers and 10
students. Over the years the school expand­ed and eventually became a university with 2,700 employees and almost
10,000 students.
At Chalmers University of Technology more than a hundred
employees are engaged in research related to microwaves
such as devices, subsystems, systems, and applications
at frequencies ranging from below 1 GHz extending to
beyond 1THz.
External partners in the Gothenburg area employ at least
5000 people in large companies such as Ericsson, RUAG,
Saab Microwave Systems, Emerson Rosemount TankRadar,
Huawei as well as numerous small, startup, companies.
Internationally, there is an increasing number of cooperating
companies see page 22.
In this leaflet we present the departments and the specialized centers, where the work is performed. Some examples
of current research projects are also shown.
Good research work is always based on a solid educational effort. Chalmers offers competitive master and graduate
programs in the field of microwave, photonics and space
engineering.
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CONTENTS:
Dept. of Signals and Systems ....................................................... 5
Dept. of Microtechnology and Nanoscience ..............................6
Dept. of Earth and Space Science .............................................. 8
Advanced Receiver Development ................................................ 9
Biomedical Electromagnetics ...................................................... 10
Emerging Microwave Technologies .......................................... 11
High-Efficiency Power Amplifiers ............................................... 12
Low-Noise HEMTs and Amplifiers ............................................ 13
Metamaterials and -Surfaces ...................................................... 14
Microwave Wide-Bandgap Technology ................................... 15
MIMO Antennas ............................................................................. 16
MMIC Design: Frequency Generation ..................................... 17
MMIC Design: Multifunctional Circuits .................................... 18
Terahertz Technology ..................................................................... 19
Ultra Wide Band Antennas (UWB) ........................................... 20
Microwave and Millimetrewave Measurements Capability . 21
GigaHertz Centre ........................................................................... 22
Chalmers Antenna Systems VINN Excellence Centre ........ 23
Nanofabrication Laboratory ......................................................... 24
Myfab ................................................................................................. 25
PhD and Postdoc Programmes ................................................. 26
Master’s Programme in
Wireless, Photonics, and Space Engineering ........................ 27
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Dept. of Signals and Systems
The Department of Signals and Systems performs microwave research within two research groups, i.e. the Antenna
group and the Biomedical Electromagnetics group. Their laboratory resources cover an anechoic chamber for tradional
radiation patternmeasurements, and a reverberation chamber for measuring performance of wireless terminals and
stations such as mobile phones.
ANTENNA GROUP
Areas of research:
–MIMO antennas
–UWB antennas and antenna arrays
–Metamaterials and -surfaces
Staff: 17
Contact:
Prof. Per-Simon Kildal, Chalmers
per-simon.kildal@chalmers.se
BIOMEDICAL ELECTROMAGNETICS GROUP
–Microwave imaging for biomedical applications
–Microwave hyperthermia for cancer treatment
Contact:
Assoc. Prof. Andreas Fhager
andreas.fhager@chalmers.se
Homepage: www.chalmers.se/s2/EN
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Dept. of Microtechnology and Nanoscience
MICROWAVE ELECTRONICS LABORATORY
The focus is on applications of research in high frequency
devices and integrated circuits. Our most important laboratory resources cover a dedicated III-V process line and a
world-class microwave measurement equipment for frequencies up to and beyond 300 GHz.
Areas of research:
–Terahertz semiconductor devices and circuits
–Ultra-low noise devices
–Agile materials and microwave components
–Terahertz metrology and applications
Staff: 45
Contacts:
Prof. Herbert Zirath
herbert.zirath@chalmers.se
Prof. Jan Grahn
jan.grahn@chalmers.se
Homepage:
www.chalmers.se/mc2/EN/laboratories/
microwave-electronics
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TERAHERTZ AND MM-WAVE LABORATORY
At the Terahertz and Millimetre Wave Laboratory we conduct
research on new materials, devices and circuits for appli­ca­tions in the microwave, millimetre wave and terahertz fre­quen­­
cy region. Our research finds applications in radio astrono­
my, atmospheric science, radar sensors, THz-imaging
systems, and future wireless communication systems.
Areas of research:
–Terahertz semiconductor devices and circuits
–Low noise superconducting devices
–Agile materials and microwave components
–Terahertz metrology and applications
Staff: 20
Contacts:
Prof. Jan Stake
jan.stake@chalmers.se
Homepage:
www.chalmers.se/mc2/EN/laboratories/thz-millimetre-wave
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Dept. of Earth and Space Sciences
Advanced Receiver Development
ADVANCED RECEIVER DEVELOPMENT GROUP
Instrumentation for Environmental Science
and Astronomy – from GHz to THz
The Group for Advanced Receiver Development (GARD)
works on technologies and instruments for Radio Astronomy and Environmental Science. Our receivers are based
on latest advances in physics and technology. The work
comprises material and thin-film technology, fabrication of
components, system integration. Constant improvement in
instruments’ performance provides deeper knowledge about
Universe and better understanding of our planet- Earth.
Staff: 14
Contact:
Prof. Victor Belitsky
victor.belitsky@chalmers.se
Homepage:
www.chalmers.se/rss/EN/research/research-groups/advanced-receiver
–R&D on terahertz sensors, amplifiers, thin-film and
micromachining technologies
–Complete millimetre and THz receiver systems
(100 GHz– 2 THz)
–In-house fabrication of THz mixers based on superconducting electronics using thin film technology
–In-house micromachining of all copper waveguides for SubMM Waves and THz
–In-house cryogenic Low Noise Amplifiers development
Applications
–Environmental science and atmospheric research,
e,g PHOCUS, Odin
–Radio astronomy ground based (APEX, ALMA)
or space borne (HERSCHEL)
Contact:
Prof. Victor Belitsky
victor.belitsky@chalmers.se
ALMA band 5 cartridge
SondRad 557 GHz receiver on
PHOCUS rocket
Micromachined 1.32 THz waveguides for APEX T2 receiver
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SHeFI receiver (100 GHz–1.4 THz)
on APEX telescope
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Biomedical Electromagnetics
Emerging Microwave Technologies
Research aiming at developing diagnostic and treatment
tools based on microwave technology for application to
breast cancer detection, stroke diagnostics and hyper thermia treatment of cancer tumors. Activities span from design
and development of algorithms and systems to clinical trials.
Ferroelectrics and multiferroics in agile microwave devices
–Varactors
– Tuneable filters, matching networks, phase shifters,
delay lines
– Voltage-controlled oscillators (VCO) using
ferroelectric varactor
– Tuneable film bulk acoustic resonators (FBAR),
FBAR base filters, VCOs
– Gas sensors
Passive microwave components in RFICs and MMICs
Contact:
Assoc. Prof. Andreas Fhager
andreas.fhager@chalmers.se
Startup company:
Medfield Diagnostics AB, www.medfielddiagnostics.com
Diagnosing stroke. Microwave system developed in collaboration with
the company Medfield Diagnostics for stroke diagnostics. The system
consists of measurement electronics and a wearable antenna array
Multiferroic Bismuth Ferrite
film over interdigital gold
electrodes for sensor
applications
4” multiproject silicon wafer with integrated tuneable microwave ferroelectric and
passive components developed at the
Chalmers Nanofabrication Laboratory
Contact:
Prof. Spartak Gevorgian
spartak.gevorgian@chalmers.se
High Q-factor parallel-plate
ferroelectric varactors
VCO based on tuneable ferroelectric
delay line
Microwave hyperthermia. System for phase and amplitude control of a micro­wave
based system for microwave hyperthermia. The clinical system under development
is intended for treatment of tumors in the head and neck region
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Breast cancer detection. Prototype antenna
system where active microwave imaging is investigated
Silicon substrate integrated Bragg reflector used in
tuneable FBARs based on paraelectric phase ferroelectrics. Q-factor more then 350 at 5.4 GHz, tuning more
than 3%
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High-Efficiency Power Amplifiers
Low-Noise HEMTs and Amplifiers
– High efficiency and wideband power amplifier design techniques
– Transmitter architectures for future wireless applications
– Integration of analog and digital techniques for lineariza-
tion and efficiency enhancement
–InP HEMTs for ultra-low noise
–Emerging InAs HEMTs for ultra-low power
Applications:
- Radio base-stations and point-to-point radio links
- Advanced radar transmitters
–Cryogenic InP HEMT MMIC process up to 200 GHz
–Cryogenic ultra low-noise amplifiers with
best performance in class
Contact:
Assoc. Prof. Christian Fager
christian.fager@chalmers.se
Wideband and efficient 1-3 GHz digitally controlled dual-RF input power
amplifier
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Spectrum [dB]
20
10
Without linearization
0
Generalized Memory Polynomial
(GMP)
−10
−20
−30
Vector−switched GMP
−10
Highly efficient RF pulse width modulated class E power amplifier
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−5
0
Frequency [MHz]
5
10
Pre-distortion linearization of a
Doherty power amplifier using our
Wideband modulated measurements of a high efficiency trans­mitter proposed Vector-Switched modeling approach
architecture
Highlights:
–InP HEMT 4–8 GHz cryogenic hybrid LNA with record
noise performance of 1.2 K (Schleeh IEEE EDL 33, 664, 2012)
–First demonstration of InAs/AlSb HEMT cryogenic hybrid
LNA (Moschetti IEEE MWCL 22,144, 2012)
–Demo of 0.5-13 GHz InP HEMT MMIC LNA with
3 K noise temperature (Schleeh IEEE TMTT 60, 206, 2013)
–Design, production and delivery of 30 cryogenic
ultra-sensitive LNAs for European Space Agency
Cooperation:
Low Noise Factory (www.lownoisefactory.com)
Contacts:
Prof. Jan Grahn
jan.grahn@chalmers.se
Cryogenic 24-40 GHz InP HEMT MMIC
Cross-section of 130 nm InP HEMT
Assoc. Prof. Piotr Starski
piotr.starski@chalmers.se
Cryogenic 4-8 GHz InP HEMT LNA design
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Meta-Materials and -Surfaces
Microwave Wide-Bandgap Technology
–­Artificial surfaces (AMC, EBG, soft and hard)
–Wideband low-­loss low-­cost gap waveguides
–­Gap waveguide based packaging technology
–EM modeling and method developments
Exploring wide bandgap semiconductor technologies in
microwave applications by developing processes, devices,
models, characterization methods, and integrated circuits.
Contact:
Assoc. Prof. Niklas Rorsman
niklas.rorsman@chalmers.se
Applications:
–­Millimetre and submillimetre wave systems
–Radio links, car radar
Contacts:
–­ Prof. Per-­Simon Kildal
per-­simon.kildal@chalmers.se
–­Dr. Rob Maaskant
rob.maaskant@chalmers.se
Ridge gap waveguide 180°
hybrid power divider
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Groove gap waveguide filter
Packaging of microstrip filter
WBG microwave varactors:
SiC varactors for load modulation and reconfigurable
circuits with a tuning range
of 5:1 and a breakdown
greater than 100 V
11–20 GHz demonstrator of ridge gap waveguide (left). Computed field distribuons at different frequencies. Waves are seen to follow ridge between 11 and 20 GHz. No metal contact is needed between
textured surface and smooth lid. This is advantageous for applications above 30 GHz
GaN HEMT: Two 3”-GaN HEMT wafers processed at Chalmers
WBG MMICs: A fully integrated X-band tranceiver realized in the
Chalmers GaN MMIC process
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MIMO Antennas
MMIC Design: Frequency Generation
–Measurements in reverberation chamber
–Emulation of Rayleigh fading environments
–EM modeling including processing and modulation
–Efficiency, radiated power, receiver sensivity, diversity gain,
capacity, throughput
Applications:
–General multiport antenna arrays
–Mobile phones and other wireless terminals and stations
Contacts:
–Adj. Prof. Jan Carlsson
jan.carlsson@sp.se
–Prof. Per-­Simon Kildal
per-­simon.kildal@chalmers.se
– Low phase noise voltage controlled oscillators with
wide tuning
–Frequency multipliers for millimetre-wave frequency
generation
Applications:
–Communication systems, radars, etc.
–Sources for millimetre wave and submillimetre-wave
Contact:
Prof. Herbert Zirath
herbert.zirath@chalmers.se
Startup company:
Gotmic AB, www.gotmic.se
Measurement set-­up for passive measurements in reverberation chamber
Computed fading field in reverberation chamber, and high performance
shielded chamber for sensitive measurements of actve terminals
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Measurement set-­up for active throughput measurements of
WLAN system in two connected reverberation chambers
Low phase noise VCOs : -118 dBc/Hz @100 kHz off-set for a 7GHz
VCO, 10-13GHz VCO with phase noise <-98dBc/Hz @100 kHz
V-band frequency source based on 7 GHz InGaP HBT VCO and an
mHEMT _8 multiplier
Wideband frequency tripler designed for 20-30GHz VCO
flip-chip based E-band source
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MMIC Design: Multifunctional Circuits
Terahertz Technology
Fully integrated RF-frontends for millimetre-wave application
based on active devices (FET and HBT types, III-V and Si)
Applications:
–52 GHz, 60 GHz, E-band, 120 GHz,
220 GHz communication
–Remote sensing for 118, 183, 220, 340 GHz
Contact:
Prof. Herbert Zirath
herbert.zirath@chalmers.se
Startup company:
Gotmic AB, www.gotmic.se
–Terahertz sources such as Schottky varactor and Hetero-­
structure Barrier Varactor frequency multipliers
–Terahertz detectors and heterodyne mixers based on
Schottky diode technology and Hot Electron Bolometers
(HEB).
–Semiconductor materials and devices for high frequency
applications
–Graphene electronics
–THz imaging and measurement techniques
220 GHz antenna integrated receiver: antenna+3-stage
LNA+mixer+frequency multiplier
Contact:
Prof. Jan Stake
jan.stake@chalmers.se
Herschel Space Observatory, courtesy D.Ducros, ESA
Startup company:
Wasa Millimeter Wave AB
www.wmmw.se
60 GHz RX/TX chip-set
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60 GHz module
Packaged 220 GHz receiver MMIC
170 GHz Schottky diode frequency doubler Microwave graphene field effect transistor
Integrated high power terahertz diode multiplier (HBV)
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Ultra Wide Band Antennas (UWB)
–Beam-­forming arrays and array feeds
–Multiband antennas
–Co-­design with low noise amplifiers (LNA)
–Cryogenic technology in collaboration with Onsala Space Observatory (OSO)
State-of-the-art microwave and millimetre wave measurement laboratory for both devices and circuits
Applications:
–Square-kilometre Array (SKA) radio telescopes
–VLBI2010 radio telescopes
–Satcom terminals, radio links
–Medical imaging
Contacts:
–Assoc. Prof. Jian Yang, jian.yang@chalmers.se
–Assoc. Prof. Marianna Ivashina, marianna.ivashina@chalmers.se
–Prof. Per-­Simon Kildal, per-­simon.kildal@chalmers.se
1.2–13 GHz compact log-periodic folded-dipole antenna developed
for SKA. It is named the eleven antenna because it consists of parallel
dipoles in eleven configuration, directivity is 11 dBi, RL > 11 dB, and
more than decade bandwidth (11>10)
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Microwave and Millimetre wave
Measurements Capability
Setup for measuring system noise temperature of
eleven antenna with LNAs in cryostat at OSO
Four differential LNAs
integrated on rear side of
ground plane of eleven
antenna
Measurement capabilities:
–On-wafer characterization from DC to 325 GHz
–Network analyzers from 3 Hz to 325 GHz
–Large signal characterization with waveforms measurements
and load/source pull, both active and passive.
–Phase noise and 1/f noise characterization
–Spectrum analysis up to 220 GHz
–Fourier Transform Spectroscopy up to 8 THz
–Coherent tunable sources up to 1 THz
–FIR laser sources up to 3.5 THz
–Characterization of modulated signals (fast oscilloscopes,
arbitrary wave generators, etc)
–Thermal characterization including IR microscope
–Assembly lab including wire bonder and flip chip
Contacts:
Dr. Mattias Ferndahl
mattias.ferndahl@chalmers.se
Dr. Serguei Cherednichenko
serguei@chalmers.se
Noise parameter measurements setup
Oscillator noise measurement setup
24 GHz loadpull setup with thermal
probe station
On-wafer measurement setup
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GigaHertz Centre
An international consortium between Chalmers and leading
companies for bringing research advances in microwave
engineering and components faster to industry
Research projects:
–Energy-efficient MIMO transmitters
–GaN HEMT MMIC design & characterization
–GaN HEMT oscillators
–Extremely low noise InP HEMT MMICs and
THz GaAs Schottky diode integrated circuits
Chase is a ten-­year agreement between Chalmers, compa­ny
partners, and the Swedish Governmental Agency for Innovation Systems (VINNOVA), to carry out research and innovation in antenna systems technologies.
Partners:
Arkivator, Bluetest, Elekta Instrument AB, Ericsson AB, Food
Radar Systems AB, Gapwaves AB, Kapsch Trafficom AB,
Medfield Diagnostics AB, Micropos Medical AB, Qamcom
Techn. AB, RUAG Space AB, Smarteq Wireless AB, Volvo
Car Corp., Västra Götalandsregionen, Chalmers, SP Techn.
Research Inst. of Sweden, Royal Inst. of Techn., Telenor A/S
System targets:
–Cellular radio base stations
–Microwave/mm-wave radio links
–Defense radar systems
–Sources and receivers for space applications
MIMO Terminal
Present joint projects:
– Gap waveguide frontend demonstrator
– Microwave hyperthermia
– Sensor systems
– Multi-antenna techn. for wireless access & backhaul
– Antenna Systems for V2X Communication
– Next Generation Array Antennas
–Capacity Optimization of LTE Wireless Systems Using
OTA Testing with Statistical User-Data
Contact:
Centre Director Prof. Jan Grahn
jan.grahn@chalmers.se, www.chalmers.se/ghz
Partners:
COMHEAT
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Chalmers Antenna Systems
VINN Excellence Centre
Contact:
Dr Staffan Sjödin, staffan.sjodin@cit.chalmers.se
www.chalmers.se/s2/cha-­en/chase
Microwave
tomography
Reverberation chamber
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Nanofabrication Laboratory
Myfab – access to success
The Myfab node at Chalmers, the Nanofabrication Laboratory, is a world-class university cleanroom for research and
fabrication of micro and nano-technology. The laboratory is
operated by MC2 as an open facility for external as well as
internal academic and industrial interests.
Myfab is the Swedish national research infrastructure for micro
and nano fabrication. The infrastructure includes 600 instruments, and has 600 scientists and over 80 companies active in
academic research and product development.
The processing techniques include thin film deposition, wet
and dry etching, oxidation, thermal treatments, and various
advanced analysis methods. Special emphasis is placed on
lithography where several optical systems and two electronbeam lithography tools are available.
Contact info:
Dr. Peter Modh, Head of Nanofabrication Laboratory
peter.modh@chalmers.se
Jeol Ebeam system capable of 4 nm spot size
REALIZE YOUR NANOVISION
Through Myfab you gain access to Sweden’s most advanced and comprehensive micro and nano technology research
equipment, in the precisely controlled process environments of
cleanroom facilities at MC2 at Chalmers University of Technology in Gothenburg, Ångström Laboratory at Uppsala University
and Electrum Laboratory at KTH Royal Institute of Technology
in Stockholm. These three nodes share common resources,
knowledge and opportunities. Our highly skilled personnel is
available to assist you or to provide training in using cleanroom
tools. Myfab will give you the opportunity to develop and realize
your own unique micro and nano vision.
Contact:
Thomas Swahn, Director Myfab
thomas.swahn@chalmers.se
www.myfab.se
The lab staff, ready to help with processing issues
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Spectroscopic ellipsometer for
multilayer film characterization
MBE system for advanced epitaxi
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PhD and Postdoc Programmes
We encourage international graduate students and postdocs to join our research groups. From experience it is
verified to be rewarding for them as well as for us. Half of
the PhD students with us are international. For research
programmes, see this brochure.
PhD courses (also for master students):
–Empirical Modeling of Microwave Devices
Teaches methods for empirical device modeling, i.e. for
development of small and large signal models from
mea­surements and physical understanding of dominant
device mechanisms.
–Microwave Network Analysis, Filtering, and Matching
Teaches advanced methods of analysis and design for
non-distributed and distributed microwave networks.
–Numerical Simulation of Semiconductor Devices
Provides deep theoretical background and broad know ledge about the benefits and different areas of applica tions for physics-based simulation of semiconductor
devices (TCAD).
–High-Speed Transistors
Focus is on the physical understanding of how materials,
processing, and component design affect the electrical
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characteristics of a semiconductor device. Emphasis is on
the transistors (MESFET, HEMT, BJT, HBT, and MOSFET).
–Nonlinear Microwave Circuits & Simulation Techniques
It covers transient and steady-state methods for compu­ ting the response of nonlinear circuits. The outcome is
thorough understanding of how a modern nonlinear
microwave simulator works.
Contacts:
Prof. Herbert Zirath, herbert.zirath@chalmers.se
Prof. Jan Stake, jan.stake@chalmers.se
Assoc. prof. Hans Hjelmgren, hans.hjelmgren@chalmers.se
Master’s Programme in
Wireless, Photonics, and Space Engineering
The programme starts with five compulsory courses.
Through semi-compulsory courses, students can specialize
in wireless, photonics or space engineering, or a combination thereof. To provide opportunities to study related fields,
there is also a wide range of elective courses.
Engineering students specializing in Microwave Engineering
will learn to analyze and design passive and active microwave components and circuits (directional couplers, amplifiers,
antennas, mixers, etc.) for different applications, including
radar and wireless communication systems. A solid physical
understanding is reached through a combination of lectures,
assignments, projects, and laboratory exercises. There is
also a close connection to local and worldwide companies
in microwave engineering.
Happy engineering students
show their microwave radio
link system.
Study period 1 & 2
A balanced frequency quadrupler
(x4) designed in the MMIC course
by a former master student (Morteza Abbasi)
Year 1
Year 2
Study period 3 & 4
Microwave courses:
ElectromagAntenna
Fundamentals Engineering
netic Waves
– Microwave Engineering
Microwave
of
&
Engineering
Photonics
Components
–Active Microwave Circuits
Laser
–Antenna Engineering
Engineering
Active Micro­
Space
Wireless and
wave Circuits
–Design of Monolithic Microwave
Science
Photonics
Radar
and
System
Systems
Remote
Integrated Circuits (MMIC)
Techniques
Engineering
and
Sensing
Applications
–Mm-Wave and THz Technology
Semi-compulsory courses, select 3–7 of 12
Contact:
Assoc. Prof. Hans Hjelmgren, hans.hjelmgren@chalmers.se
Study period 1 & 2
Design of
MMIC
Mm-wave &
THz Techn.
Optoelectronics
Fiber Optical
Communic.
Satellite
Communic.
Satellite
Positioning
Semiconduct.
Devices
Wireless
link project
Study period 3 & 4
Master’s Thesis
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Chalmers University of Technology conducts research and education
in the main engineering sciences as well as in technology related
mathematical and natural sciences. Researchers, graduate engineers
and architects, engineers, technicians and ship’s officers receive their
education at Chalmers. Chalmers has about 10 000 students.
The pursuit of new knowledge and improved technology has characterised Chalmers since its foundation in 1829 in accordance with the
testament of William Chalmers, director of the Swedish East India
Company. Our driving force is inspired by the joy of discovery and the
desire for learning. Behind all that Chalmers accomplishes, the hope
persists for particpating in sustainable development – both nationally
and globally.
Two thirds of the university’s budget relate to research and about
a thousand research projects are conducted on an ongoing basis,
many of them at the forefront of international development. Research
and education are conducted in close contact with industry and
society to meet the demands of the world around.
TWO CAMPUSES – Chalmers has two pleasant university
campuses in Göteborg. Campus Johanneberg close to the city centre
and Campus Lindholmen on the North bank of the river Göta Älv.
MAJOR RESEARCH INFRASTRUCTURES – Onsala Space
Observatory is a Swedish National Research Facility for advanced
radio astronomy, located 45 kilometers south of Göteborg. The
Observatory is also involved in the APEX projects, a new radio
telescope in Chile. The Nanofabrication Laboratory is a state-of-the-art
cleanroom and a European transnational access facility.
THREE SCIENCE PARKS – Chalmers Science Park houses
research departments of major enterprises. Chalmers Innovation
houses newly-started innovative high technology companies, mainly
emenating from research and study programmes at Chalmers.
At Lindholmen Science Park, a unique and growth-oriented interplay
is being developed within the areas of mobile data communications,
intelligent vehicles and transport systems as well as media and design.
CLOSE CO-OPERATION WITH UNIVERSITY OF GOTHENBURG
Particularly within mathematical sciences, environmental and information technology research and education.
Chalmers
University of Technology, SE-412 96 Gothenburg, Sweden, +46 31 772 1000, www.chalmers.se
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Chalmers, Communication & market, 2013
CHALMERS