2012 · 27 citations · 5 references
EngineeringComputer EngineeringElectrical EngineeringEmbedded SystemsMicroelectronicsWireless CommunicationsBeamformingHigh-frequency Semiconductor DevicesIntegrated Circuit DesignMicrowave Integrated CircuitsMillimeter-wave CommunicationsRadio-frequency Integrated CircuitsBiomedical ApplicationsHigh-frequency OperationMillimeter-wave Integrated CircuitsRadio Frequency Front-end IntegrationRadio Frequency TransceiversRf Cmos DesignTransceiver ArchitecturesYield Enhancement
The available ISM band from 57-65GHz has become attractive for high-speed wireless applications including mass data transfer, streaming high-definition video and even biomedical applications. While silicon based data transceivers at mm-wave frequencies have become increasingly mature in recent years [1,2,3], the primary focus of the circuit community remains on the design of mm-wave front-ends to achieve higher data rates through higher-order modulation and beamforming techniques. However, the sustainability of such mm-wave systems when integrated in a SoC has not been addressed in the context of die performance yield and device aging. This problem is especially challenging for the implementation of mm-wave SoC's in deep sub-micron technology due to its process & operating temperature variations and limited ft / fmax with respect to the operation frequency.
5
A 60GHz CMOS phased-array transceiver pair for multi-Gb/s wireless communications
Sohrab Emami, Robert Wiser, Ershad Ali et al. · 2011 · 260 citations
Engineering, Computer Engineering, Electrical Engineering +17
A 65nm CMOS 4-element Sub-34mW/element 60GHz phased-array transceiver
Maryam Tabesh, Jiashu Chen, Cristian Marcu et al. · 2011 · 47 citations