Wesupport knowledge and technology transfer in signal-based information processing, especially when it comes to the development of innovative products in the I4.0, IoT, photonics, medical technology, measurement technology and sensor technology.
We have a new and modern laboratory infrastructure for sophisticated R&D work. Our team of more than 30 experienced and qualified engineers is looking forward to your questions. These can be carried out in the context of bachelor or master's theses, in workshops, or as joint R&D projects - in some cases with the help of funding.
The MSE Switzerland is a practice-oriented cooperation master of the seven Swiss universities of applied sciences and is aimed at students with a very good bachelor's degree. At ISC you can complete the MSE on a full- or part-time basis in the profiles Electrical Engineering, Computer Science, Photonics and Laser Engineering, Data Science, or Medical Engineering if you are interested in one or more of our focal R&D topics.
This MSc covers a range of advanced topics related to wireless communications and communications-related signal processing, including associated enabling technologies. It provides an excellent opportunity for you to develop the skills required for careers in some of the most dynamic fields in wireless communications.
This programme builds on the internationally recognised research strengths of the Communications Systems and Networks group within the Smart Internet Lab. This group conducts pioneering research in a number of key fundamental and experimental work areas, including spatial channel measurements and predictions, information theory, advanced wireless access (cellular and WLAN) and RF technologies. The group has well-equipped laboratories with state-of-the-art test and measurement equipment and first-class computational facilities.
Please note that due to high demand, some programmes may close earlier than advertised. Early applications are advised to avoid disappointment. Places are limited and allocated on a continuous basis from September 2023 until all places are filled.
This programme comprises six core units, followed by a substantial research project, starting during the second term and completed during the summer. Your project may be based at the University or with industrial partners.
An upper second-class honours degree or international equivalent in Electronic and Electrical Engineering, Microelectronic Engineering, Communications Engineering, Computer Systems Engineering, Information and Communications Technologies, Telecommunications, Information Engineering, Computer Networks, Computer Science and Technologies, Optical Information Science and Technologies, Optoelectronic Information Science and Technologies & Optical Engineering. Other Engineering degrees might be considered where a minimum of 5 modules at 2.1 in electronics/communications have been achieved.
This is a challenging taught master's programme, covering aspects of current and future wireless communication systems and associated signal processing technologies. It will prepare you for a diverse range of exciting careers - not only in communications but also in management consultancy, project management, finance and government.
Our graduates have gone on to have rewarding careers in leading multinational communications companies, including Huawei, China Telecom, Toshiba and Intel. Some graduates follow a more research-focused career path, with a number of students going on to study for PhDs at leading universities.
Note that, I'm not asking for the mathematically rigirous literature; I'm aware I'll need to work with large dimensional random matrices and I'm familiar with the random matrix side of things (I'm a mathematcian), but I'd like to know something bit more basic and applicartion-oriented, for example, where those random matrices actually arise, how the models are formulated etc.
One of the most readable (imho) authors on the communication systems is Simon Haykin and the following book from him would probably address most of the issues you would encounter in a wireless communication system analysis.
I would recommend you a book from Emil Bjrnson. He is a professor on the Linkping University and also produces a lot of content on his Youtube channel (which I will not link to avoid getting flagged as spam). His book is completely free and gives a very detailed overview:
Before giving a more detailed question below, the basic one is: can anyone recommend a good signal-processing reference which would be maximally readable by a pure mathematician (who nevertheless wants to use the techniques for actual data analysis)?
Actually, the specific thing I want to understand is how to analyze a small segment of a mystery signal, which should just be the sum of a few sinusoids, but for which the available segment is potentially much shorter than the period of the sinusoids. The goal is to recover the underlying frequencies. I'd appreciate a general reference anyway, but if someone can address my specific problem, that would help too, of course!
More detail: I am a pure mathematician, but I need to learn some signal processing techniques for a side-project in biology. At first I was excited by this, since I am already comfortable with all the "underlying" background material (essentially just Fourier transforms, etc.) and thought it would be easy enough and fun to grasp what engineers and scientists were actually doing.
However, all references I've found are written for someone with the opposite background, or at least, they are written not just to deemphasize math, but sort of to avoid it as much as possible. This makes it very hard and a bit frustrating for me to read, since firstly a bunch of terminology is thrown at me without an underlying theory (so many specific window functions with different names!) and the fact that I am very comfortable with analysis hasn't helped much. My first instinct was just to go at it alone from first principles (the definition of the DFT...) but it seems silly to ignore the vast history in this subject.
I did not mean that to sound as ranty as it did. I am not complaining, I am just wondering if anyone can recommend a reference more amenable to my background, which could take advantage of it or at least, ease me into the subject.
The book is intended for wireless signal processing, with some examples related to GSM, CDMA. It covers basic ideas: the transmission chain, fading channel; Shannon's channel's capacity theory. Advanced topics like MIMO.
A lot signal processing has uncanny resemblance to just plain Fourier analysis. Stein-Shakarchi doesn't tell you what a high-pass filter or low-pass filter is, specifically. He just figures you'll find out on your own. One cannot forget Daubechies' "Ten Lectures on Wavelets"
Keywords: 6G, mmWave communications, THz communications, massive MIMO, sparse signal processing, energy efficient communications, cross-layer optimization, machine learning for wireless communications
Copyright 2021 She, Cheng, Li and Li. This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
We focus on the fundamentals and applications of convex optimization in wireless communications and signal processing in a variety of subjects including 5G System Designs, Statistical Signal Processing, and Big Data Analyses.
Welcome to the homepage of Wireless Communications & Signal Processing (WCSP) Lab. We are a research group, dedicated to cutting-edge, interdisciplinary researches, aiming at solving a wide range of scientific and engineering problems in WCSP and Artificial Intelligence (AI), with recent emphasis on intelligent fusion of AI and convex optimization (CVXopt), privacy-preserved and/or resource-constrained learning and optimization.
Supported by National Science and Technology Council and some other funding agencies, we have accomplished many exciting, leading research results, which have been well recognized domestically and internationally, and published more than 90 journal papers (mostly in IEEE Trans. Signal Processing) and more than 140 international conference papers. Since 2003, we have collaborated internationally with research groups in Virginia Tech. (VT), VA, University of Minnesota (UoM), MN, Chinese University of Hong Kong (CUHK), Hong Kong, and some top universities in Mainland China.
The communications and signal processing group focuses on innovative research in the areas of wireless communications and signal processing. The diversity of expertise in this group facilitates leading-edge research in signal processing and communications.
Wireless Communications: Signal Processing Perspectives is a valuable reference both for signal processing specialists seeking to apply their expertise in the rapidly growing wireless communications field, and for communications specialists eager to exploit signal processing techniques and implementations in developing efficient wireless systems of the future.
Wireless Communications: Signal Processing Perspectives includes both physical and network layer topics, and also contains a thought-provoking essay by Andrew J. Viterbi on the laws of nature and society that ultimately govern wireless networks.
The Communication Systems and Signal Processing Institute at San Diego State University is an organized research and development unit within the SDSU College of Engineering. It was established in recognition of the fact that San Diego has become the leading world-class center of research and development in the field of wireless communication, with virtually every major wireless and cellular communication system manufacturer and provider represented among the large number of local R&D organizations. Membership of the Institute consists of faculty drawn from the College of Engineering (and primarily from the Department of Electrical & Computer Engineering), who have professional interests and expertise in different aspects of communication systems. The Institute is guided by a steering committee having industrial representation. The Institute enters into contracts with external agencies through the San Diego State University Foundation, and its laboratories are housed in the Engineering Building on SDSU campus.
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