TY - CHAP
T1 - Sub-THz transceiver design for future generation mobile communications
AU - Mangravit, Giovanni
AU - Dehos, Cedric
AU - Puyal, Vincent
AU - Richard, Olivier
AU - Yaakoubi Khbiza, Ghita
AU - Foglia Manzillo, Francesco
AU - Nguyen, Xuan Viet Linh
AU - Filice, Francesco
AU - Noccetti, Ettore
AU - Hellier, Pierre Louis
AU - Podevin, Florence
AU - Bourdel, Sylvain
AU - Ruffino, Andrea
AU - Choi, Kyung Sik
AU - Abdelaziz Abdelmagid, Basem
AU - Eleraky, Mohamed
AU - Wang, Hua
AU - Ardouin, Bertrand
AU - Johansen, Tom K.
AU - Fanori, Luca
AU - Huang, Qiuting
AU - Schlaffer, Erich
AU - Wambacq, Piet
AU - Morche, Dominique
AU - Debaillie, Björn
N1 - Publisher Copyright:
© 2024 River Publishers.
PY - 2024/8/22
Y1 - 2024/8/22
N2 - This paper outlines the design considerations necessary to realize an innovative transceiver prototype for future-generation mobile communication, adeptly harnessing the spectrum beyond 100 GHz. The primary innovations and challenges reside in maximizing the efficacy of BiCMOS and indium phosphide technologies, advanced radio frequency (RF) packaging, and the design of high-performance D-band RF frontends. The selection of RF-chip technologies and the integration of densely packed RF packaging are thoroughly defined and justified. Specifications for both transmitter and receiver systems are derived from a meticulous link budget analysis. These preliminary studies and decisions inform the forthcoming tape-outs in this project. The focus remains on developing key transceiver technologies to drive the next generation of mobile communications, surpassing the capabilities of 5G. This includes enhancing data rates, power efficiency, integration density, and minimizing footprint.
AB - This paper outlines the design considerations necessary to realize an innovative transceiver prototype for future-generation mobile communication, adeptly harnessing the spectrum beyond 100 GHz. The primary innovations and challenges reside in maximizing the efficacy of BiCMOS and indium phosphide technologies, advanced radio frequency (RF) packaging, and the design of high-performance D-band RF frontends. The selection of RF-chip technologies and the integration of densely packed RF packaging are thoroughly defined and justified. Specifications for both transmitter and receiver systems are derived from a meticulous link budget analysis. These preliminary studies and decisions inform the forthcoming tape-outs in this project. The focus remains on developing key transceiver technologies to drive the next generation of mobile communications, surpassing the capabilities of 5G. This includes enhancing data rates, power efficiency, integration density, and minimizing footprint.
KW - 6G mobile communication
KW - Antenna-in-package
KW - BiMOS integrated circuits
KW - InP
KW - Integrated circuit packaging
KW - Millimeter wave integrated
KW - Mobile communication
KW - Phased arrays
KW - Receivers
KW - Transmitters
UR - https://www.scopus.com/pages/publications/85204838256
M3 - Chapter
AN - SCOPUS:85204838256
SN - 9788770046657
SP - 115
EP - 132
BT - Key Enabling Technologies for Future Wireless, Wired, Optical and Satcom Applications
PB - River Publishers
ER -