Summary
The fifth generation and beyond radio systems targets 1000 times traffic volumes compared to present state-of-the-art. In order to guarantee the quality of service, communication capacity leap of three orders of magnitude requires sophisticated interference management and communication channel protection from the interference generated by other users. The objective of this project is to develop integrated transceiver hardware structures for massive MIMO/beam forming antenna arrays, supporting agile carrier aggregation, digitally assisted interference management, and full duplex communication, thus enhancing communication efficiency in spatial, temporal and frequency domains.
The evolution of communications systems inherently relies on integrated microelectronic circuits. In circuits developed in this project, we will fully exploit the digital-driven process evolution by utilizing digitally intensive time/phase domain signal processing as much as possible to minimize the effect of existing discrepancy between digital-driven process scaling and analog circuit design. The developed structures will take advantage of time/phase domain signal processing, taking full advantage of CMOS process evolution and inherently supporting beam forming antenna array structures.
We will demonstrate the effectiveness of design methods by implementing transceiver hardware structures for massive transceiver arrays. Digitally reconfigurable transceiver arrays will enable spatial multiplexing, agile carrier aggregation and digitally assisted interference management to enhance communication efficiency in spatial, temporal and frequency domains, enabling the targeted capacity leap.
The evolution of communications systems inherently relies on integrated microelectronic circuits. In circuits developed in this project, we will fully exploit the digital-driven process evolution by utilizing digitally intensive time/phase domain signal processing as much as possible to minimize the effect of existing discrepancy between digital-driven process scaling and analog circuit design. The developed structures will take advantage of time/phase domain signal processing, taking full advantage of CMOS process evolution and inherently supporting beam forming antenna array structures.
We will demonstrate the effectiveness of design methods by implementing transceiver hardware structures for massive transceiver arrays. Digitally reconfigurable transceiver arrays will enable spatial multiplexing, agile carrier aggregation and digitally assisted interference management to enhance communication efficiency in spatial, temporal and frequency domains, enabling the targeted capacity leap.
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More information & hyperlinks
| Web resources: | https://cordis.europa.eu/project/id/704947 |
| Start date: | 01-06-2017 |
| End date: | 31-05-2020 |
| Total budget - Public funding: | 267 793,20 Euro - 267 793,00 Euro |
Cordis data
Original description
The fifth generation and beyond radio systems targets 1000 times traffic volumes compared to present state-of-the-art. In order to guarantee the quality of service, communication capacity leap of three orders of magnitude requires sophisticated interference management and communication channel protection from the interference generated by other users. The objective of this project is to develop integrated transceiver hardware structures for massive MIMO/beam forming antenna arrays, supporting agile carrier aggregation, digitally assisted interference management, and full duplex communication, thus enhancing communication efficiency in spatial, temporal and frequency domains.The evolution of communications systems inherently relies on integrated microelectronic circuits. In circuits developed in this project, we will fully exploit the digital-driven process evolution by utilizing digitally intensive time/phase domain signal processing as much as possible to minimize the effect of existing discrepancy between digital-driven process scaling and analog circuit design. The developed structures will take advantage of time/phase domain signal processing, taking full advantage of CMOS process evolution and inherently supporting beam forming antenna array structures.
We will demonstrate the effectiveness of design methods by implementing transceiver hardware structures for massive transceiver arrays. Digitally reconfigurable transceiver arrays will enable spatial multiplexing, agile carrier aggregation and digitally assisted interference management to enhance communication efficiency in spatial, temporal and frequency domains, enabling the targeted capacity leap.
Status
CLOSEDCall topic
MSCA-IF-2015-GFUpdate Date
28-04-2024
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