A multi-rate SerDes transceiver for IEEE 1394b applications
Longfei Wei, Jinyue Ji, Haiqi Liu, Qiang Li
Abstract
Longfei Wei, Jinyue Ji, Haiqi Liu, Qiang Li
Abstract
This paper presents an implementation of multi-rate SerDes transceiver for IEEE 1394b applications. Simple and effective pre-emphasis and equalizer circuits are used at transmitter and receiver, respectively. A phase interpolator based clock and data recovery circuit with optimized linearity is also described. With an on-chip fully integrated phase locked loop, the transceiver works at data rates of 100Mb/s, 400Mb/s and 800Mb/s, supporting three different operating modes of S100b, S400b and S800b for IEEE 1394b. The chip has been fabricated using 0.13μm technology. The die area of transceiver is 2.9*1.6 mm2including bonding pads and the total power dissipation is 284 mW with 1.2V and 3.3V supply voltages.
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This paper presents an implementation of multi-rate SerDes transceiver for IEEE 1394b applications. Simple and effective pre-emphasis and equalizer circuits are used at transmitter and receiver, respectively. A phase interpolator based clock and data recovery circuit with optimized linearity is also described. With an on-chip fully integrated phase locked loop, the transceiver works at data rates of 100Mb/s, 400Mb/s and 800Mb/s, supporting three different operating modes of S100b, S400b and S800b for IEEE 1394b. The chip has been fabricated using 0.13μm technology. The die area of transceiver is 2.9*1.6 mm2including bonding pads and the total power dissipation is 284 mW with 1.2V and 3.3V supply voltages.
Key concepts: SerDes, Transceiver, Transmitter, Phase-locked loop, Chip, Computer science, Electronic engineering, Electrical engineering