SILIKA is a European funded Marie Curie project that started September 1, 2016, with partners from Sweden, Belgium and the Netherlands. Its main purpose is to train 12 young researchers (PhD students) to become experts in key technologies for future mobile telecommunication systems. Throughout the training program, the Ph.D. students will work on an individual research topic that is of high relevance for the successful development of the next-generation mobile telecommunication system (5G). Each student will spend at least 18 months at an industrial partner. In this way, the outcome of the research will directly benefit the European industry while the young researchers gain experience in an industrial work environment. The contributions from each research topic will be combined in a 5G base-station demonstrator, which will be assembled and tested by the end of the project.
SILIKA is a European funded Marie Curie project that started September 1, 2016, with partners from Sweden, Belgium and the Netherlands. Its main purpose is to train 12 young researchers (PhD students) to become experts in key technologies for future mobile telecommunication systems. Throughout the training program, the Ph.D. students will work on an individual research topic that is of high relevance for the successful development of the next-generation mobile telecommunication system (5G). Each student will spend at least 18 months at an industrial partner. In this way, the outcome of the research will directly benefit the European industry while the young researchers gain experience in an industrial work environment. The contributions from each research topic will be combined in a 5G base-station demonstrator, which will be assembled and tested by the end of the project.
Our Partners
Project Related Publications
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High capacity real-time hybrid optical-wireless 5G fronthaul with dynamic beam steering
(2021) -
An improved dropping algorithm for line-of-sight massive MIMO with max-min power control
IEEE Communications Letters (2019) -
ARoF-Fed antenna architectures for 5G networks
(2019) -
Testing facilities for end-to-end test of vertical applications enabled by 5G networks
(2018) -
A reduced-complexity linear precoding strategy for massive MIMO base stations
(2018)
Researchers involved in this project
Project Related Publications
-
High capacity real-time hybrid optical-wireless 5G fronthaul with dynamic beam steering
(2021) -
An improved dropping algorithm for line-of-sight massive MIMO with max-min power control
IEEE Communications Letters (2019) -
ARoF-Fed antenna architectures for 5G networks
(2019) -
Testing facilities for end-to-end test of vertical applications enabled by 5G networks
(2018) -
A reduced-complexity linear precoding strategy for massive MIMO base stations
(2018)