MASTER'S PROGRAMME - Chalmers
Transcript of MASTER'S PROGRAMME - Chalmers
MASTER'S PROGRAMME
COMMUNICATIONENGINEERINGMSc, 120 cr, 2 years
ENABLING THE INTERCONNECTED WORLD
We live in the age of information, where communication and information processing are at the heart of our modern society. Intelligent transportation systems, smart cities, traffic safety, positioning and navigation, eHealth, Industry 4.0, and cloud services, all rely on our ability to store, share, process and deliver massive amounts of data.
In a constantly and rapidly evolving field, you as a communication engineer will be needed to rethink, design, and build the systems of the future to enable the interconnected world.
COMMUNICATION ENGINEERING
PROGRAMME DESCRIPTIONWe are witnessing an explosion of infor-mation services and applications, in both volume and variety. These services include social networks, video sharing and stream-ing, and cloud computing. Providing these services on a wide scale requires the ability to globally store, share, process, and de-liver massive amounts of data. Therefore, there is a tremendous need of know-how to tackle this data flooding and the accompa-nied challenges. Furthermore, the need for communication engineers goes far beyond the conventional data delivery and storage problem. A striking example is intelligent transportation systems and traffic safety: a world of autonomous vehicles will not be possible without the integration of communi-cation, information processing, positioning, and navigation. Other evolving fields of the “interconnected world” where the knowl-edge of communication engineers is vital for their development are the Internet-of-things, Industry 4.0, environmental monitoring, and smart grids, to name only a few. In the Communication Engineering pro-gramme, we prepare you for an advanced engineering career in the fields of communi-cation and information science, by acquiring deep theoretical and applied knowledge, the competence to conduct complex proj-ects, and the passion for discovery. As a graduate student of this programme, you will be able to contribute to the develop-ment of the transformative and disruptive technologies that are needed to enable the interconnected world. In the core courses of the programme, the focus lies in providing you with solid analytical skills and an understanding of the
fundamental principles of communication and information processing, random signal analysis, applications of digital signal pro-cessing, antennas, information theory, and coding theory. The programme offers several suggested specialization tracks, with a generous number of courses to choose from. In general, the educational methods have specific emphasis on building and refining problem-solving skills, team work, and presentation skills. In the programme, you also get the opportunity to interact with the industry via guest lectures and study visits.
RESEARCH CONNECTIONSThe Department of Electrical Engineering comprises the largest research group in communications in Sweden, and one of the leading research groups in Europe. The research activities include information andcommunication theory, coding theory, dist-ributed data storage, caching and compu-ting, vehicle-to-vehicle communication for traffic safety, positioning and navigation, cyber-physical systems, and wireless and optical communications. The researchers at the department are internationally re-cognized in their respective fields and are engaged in collaborative research with researchers from top universities around the world. The department is also actively engaged in research and development pro-jects with world leading research bodies and companies, such as the German Aero-space Center, Ericsson, Volvo, Nokia-Bell Labs, and Orange Labs, to name a few.
CAREER OPPORTUNITIES The Master’s degree in communication en-gineering will prepare you to work at the
frontier of technology in areas ranging from multimedia communication, data storage, intelligent transportation, traffic safety, po-sitioning and navigation, wireless networks, and Internet-of-things; areas where informa-tion processing plays a decisive role. The generality of the methods and skills taught in the programme prepare you to work within virtually any branch of industry. A salient example is the Internet-of-things for smart cities, where virtually all components across the city (vehicles, buildings, infra-structure, etcetera) will be interconnected and communicate with each other to create safer, more efficient, and sustainable cities. Its full development involves the automotive industry, network service providers, and en-ergy management companies, which are all in demand of communication engineers. Our students are well equipped for lead-ing positions in globally operating compa-nies worldwide. In the Gothenburg area, international players such as Ericsson, Hua-wei, Volvo Cars and Volvo Trucks, Zenuity, Saab group, ABB, Ruag Space, and Autoliv actively recruit our graduate students. Fur-thermore, there are also plenty of smaller companies, startups and consultancy com-panies specializing in the area of commu-nications in Sweden. The prospective jobs range from research and development to project management, and consultancy. Many of our former students are also pursu-ing a PhD degree at Chalmers or at various European and American universities.
UNDERGRADUATE PROFILEMajor in Electrical Engineering, Mathematics, Computer Science, Information Engineering, Information Technology, Telecommunications,
COMMUNICATION ENGINEERING
Communication Engineering, Computer Engineering, Engineering Physics, or Auto-mation and Mechatronics Engineering.
PREREQUISITESMathematics (including probability and lin-ear algebra), signals and systems theory (including linear systems and transforms), and basic programming.
PROGRAMME PLANThe first semester of the programme consists of an initial mandatory block of 30 ECTS credit units, consisting of four of the five compulsory courses described below. In the second semester, the fifth mandato-ry course is taught. Besides the mandatory courses, the programme provides a set of compulsory elective courses, out of which the student must choose at least three (including at least one during the second semester). COMPULSORY COURSES■ Introduction to Communication Engi-neering gives an overview of fundamental concepts in communication engineering and insight into modern communication standards, with some emphasis on com-mercial wireless systems. ■ Random Signal Analysis gives the ne-cessary tools for understanding stochastic models of signals and noise. The course covers various characterizations of random signals as well as statistical inference (esti-mation) based on these.■ In Digital Communications, we derive a theoretical framework for analyzing and de-signing advanced communication systems, based on stochastic methods. The course
tion, Satellite and Sensing Systems, and Information Processing. Furthermore, among the compulsory elective courses, there are four research-oriented courses of a more advanced nature than the others.
MASTER’S THESISThe Master’s degree is completed with a Master’s thesis. There are two possibili-ties: i) A 30 ECTS credit thesis, which can be conducted within a company or within one of our research divisions. ii) Alterna-tively, a 60 ECTS credit thesis can be pur-sued in one of our research divisions, and is intended for those students interested in a research and development oriented job (in industry or in a research lab) or poten-tially interested in pursuing a PhD degree afterwards.
Find out more about our suggested spe-cialization tracks and the elective courses that are offered in the following pages.
MORE INFORMATIONwww.mpcom.se
covers methods for digital modulation, co-ding and detection.■ In Applied Signal Processing, you learn standard techniques and get insight in applications of digital signal processing. You are also given the opportunity to apply some of the techniques to real signal pro-cessing problems and you get insight into current practice in industry.■ Wireless Communications is concerned with the design of wireless communica-tion systems, where you acquire enough understanding of the wireless channel and state of technology to explain why today’s systems are designed as they are, and how they can be improved.
SPECIALIZATION COURSE PACKAGESDepending on how you select and com-bine your courses, you can pursue a spe-cialization of your interest and tailor your education towards a certain application or towards more fundamental topics. Examp-les of specialization course packages are: Mobile communication, Internet-of-Things, Industry 4.0, eHealth, Smart Society, Intelligent Transportation Systems, RF Hardware Design, Optical Communica-
Year 1 Year 2
Communication Engineering, MPCOM
Master’s thesis
Introduction to communi-
cation engineering
Digital communica-
tions
Wireless communica-
tions
Elective course
Elective course
Elective course
Applied signal
processing
Random signal
analysis
Elective course
Elective course
Elective course
Elective course
COMMUNICATION ENGINEERING
COMMUNICATION ENGINEERING – SPECIALIZATION COURSE PACKAGES
Master’s thesis
Year 1 Year 2
Specialization towards Mobile Communication
Introduction to communi-
cation engineering
Digital communica-
tions
Wireless communica-
tions
Wirelessnetworks
Bayesian statistics / Information
theory
Nonlinear optimization
Applied signal
processing
Random signals analysis
Error control coding / Matrix
analysis
Wireless and photonics
system engineering
Network security
Millimetre wave and THz
technology
Computer networks
Satellite communica-
tion
Wireless link project
COMPOSE YOUR OWN SPECIALIZATION COURSE PACKAGE – OR CHOOSE ONE OF THESE SUGGESTIONSThe programme consists of an initial man-datory block of 37,5 ECTS credit units, consisting of five compulsory courses. Af-ter the mandatory courses, you are offered a set of compulsory elective courses out of which you must choose at least three. Normally you need to choose at least one during the second semester, and two during the third semester. Among the compulsory elective courses, there are four research-ori-
ented courses of a more advanced nature than the others. These courses are given biannually. Finally, you select four out of a large number of elective courses to com-plete your specialization. Depending on how you select and combine your courses, you can pursue a specialization of your in-terest and tailor your education towards a certain application or towards more funda-mental topics. Below we have composed
ten specialization course packages: Mobile communication, Internet-of-Things, Industry 4.0, eHealth, Smart Society, Intelligent Trans-portation Systems, RF Hardware Design, Optical Communication, Satellite and Sens-ing Systems, and Information Processing. Note that the specialization packages are only suggestions, and you as a student can select courses from the set of compulsory elective courses of your choice.
Elective course, given biannually
Compulsory elective course, choose at least 3
Compulsory course
Fundamentals of photonics
Laser engineering
Mixed-signalsystemdesign
Fiber-opticalcommunica-
tion
Introduction to electronic
system design
Microwave engineering
Radar system and
applications
Introduction to integratedcircuit design
Opto-electronics
Electro-magnetic
waves and components
Remote sensingeHealth
Wireless networks
Wireless link project
Image analysis
Multimedia and video
communica-tions
Satellite positioning
Matrix analysis with applications,
advanced level
Network security
Error control coding,
advanced level
Information theory,
advanced level
Bayesian statistics
Image processing
Satellite communica-
tions
Computer networks
Elective / Compulsory elective courses
COMMUNICATION ENGINEERING
COMMUNICATION ENGINEERING – SPECIALIZATION COURSE PACKAGES
Master’s thesis
Year 1 Year 2
Specialization towards Internet-of-Things
Introduction to communi-
cation engineering
Digital communica-
tions
Wireless communica-
tions
Wirelessnetworks
Network security
Introduction to curcuit
system design
Distributedsystems
Applied signal
processing
Random signals analysis
Computer networks
Multimedia and video
communica-tions
Stochastic optimization
Sensor fusion and nonlinear
filtering
Wireless link project
Discreteoptimization
Distributedsystems, advanced
course
Master’s thesis
Year 1 Year 2
Specialization towards Industry 4.0
Introduction to communi-
cation engineering
Digital communica-
tions
Wireless communica-
tions
Linear and integer
optimization with
applications
Optical communica-
tion
Linear control systems design
Applied signal
processing
Random signals analysis
Computer networks
Wireless networks
Discrete event systems
Wireless and photonics
system engineering
Wireless link project
Matrix analysis / Error control
coding
Model predictive
control
Embedded control systems
Master’s thesis
Year 1 Year 2
Specialization towards eHealth
Introduction to communi-
cation engineering
Digital communica-
tions
Wireless communica-
tionseHealth
Network security
Medicine for the engineer
Biomedical instrumentation
Applied signal
processing
Random signals analysis
Image analysis
Sensor fusion and nonlinear
filtering
Linear control systems design
Image processing
Wireless link project
Statisticalinference
Diagnostic imaging
COMMUNICATION ENGINEERING
Master’s thesis
Year 1 Year 2
Specialization towards RF Hardware Design
Introduction to communi-
cation engineering
Digital communica-
tions
Wireless communica-
tions
Wirelessnetworks
Microwave engineering
Wireless link project
Applied signal
processing
Random signals analysis
Introduction to integrated circuit design
Electro-magnetic waves ad
components
Antenna engineering
Mixed-signal system design
Introduction to electronic
system design
Computational electro-
magnetics
Master’s thesis
Year 1 Year 2
Specialization towards Smart society
Introduction to communi-
cation engineering
Digital communica-
tions
Wireless communica-
tions
Wirelessnetworks
Network security
Simulation of complex
systems
Nonlinear optimization
Power systemoperation
Applied signal
processing
Random signals analysis
Power system analysis
Stochasticoptimization
eHealth
Autonomous and
cooperative vehicular systems
Computer networks
Image analysis
Master’s thesis
Year 1 Year 2
Specialization towards Intelligent Transportation Systems
Introduction to communi-
cation engineering
Digital communica-
tions
Wireless communica-
tions
Wirelessnetworks
Radar systems and applications
Matrix Analysis / Error control coding
Distributed systems
Model predictive
control
Algorithms for machine learning and
inference
Applied signal
processing
Random signals analysis
Antenna engineering
Autonomous and
cooperative vehicular systems
Computer networks
Sensor fusion and nonlinear
filtering
Simulation of complex
systems
Stochasticoptimization
Elective course, given biannually
Compulsory elective course, choose at least 3
Compulsory course
COMMUNICATION ENGINEERING
Master’s thesis
Year 1 Year 2
Specialization towards Optical Communication
Introduction to communi-
cation engineering
Digital communica-
tions
Wireless communica-
tions
Matrix analysis / Error control
coding
Fundamentals of Photonics
Bayesian statistics / Information
theory
Fiber optical communication
Applied signal
processing
Random signals analysis
Computer networks
Laser engineering
Opto-electronics
Linear and integer
optimization with
applications
Wireless and photonics
system engineering
Millimetre wave and THz
technology
Nonlinear optimization
Master’s thesis
Year 1 Year 2
Specialization towards Satellite and Sensing Systems
Introduction to communi-
cation engineering
Digital communica-
tions
Wireless communica-
tions
Remote sensing
Bayesian statistics / Information
theory
Satellite positioning
Satellite communica-
tion
Wireless link project
Applied signal
processing
Random signals analysis
Image processing
Radar systems and applications
Electro-magnetic
waves and components
Statistical image
analysis
Discrete optimization
Microwave engineering
Space science and technique
Master’s thesis
Year 1 Year 2
Specialization towards Information Processing
Introduction to communi-
cation engineering
Digital communica-
tions
Wireless communica-
tions
Matrix analysis / Error control coding
Image processing
Applied signal
processing
Random signals analysis
Bayesian statistics / Information
theory
Statistical learning for
big data
Stochastic processes
Statistical inference
Simulation of complex
systems
Information theory of complex systems
Computer intensice statistical methods
Distributed systems
Integration theory
Stochastic data process-
ing and simulation
Nonlinear optimization
Numerical linear algebra
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www.mpcom.se
Chalmers University of Technology, SE-412 96 Gothenburg, Sweden, Phone +46 31 772 1000, www.chalmers.se/en
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