IRIS publication 70046603
UWB CMOS Monocycle Pulse Generator
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TY - JOUR - Zito, F.; Pepe, D.; and Zito, D.; - 2010 - January - IEEE Transactions On Circuits and Systems I-Regular Papers - UWB CMOS Monocycle Pulse Generator - Validated - () - Pulse generator radio frequency complimentary metal-oxide-semiconductor (RF-CMOS) system on chip ultrawideband (UWB) radar ULTRA-LOW-POWER IR-UWB WPAN APPLICATIONS TRANSMITTER DESIGN ARCHITECTURE NETWORKS ANTENNAS CIRCUIT SYSTEMS - 57 - 2654 - 2664 - A low-complexity fully integrated ultrawideband (UWB) monocycle pulse generator realized in 90-nm CMOS technology by ST-Microelectronics is presented. The circuit provides a monocycle pulse when activated by a negative edge of an external trigger signal provided by a microcontroller by exploiting the operating principle of nonlinear waveform shapers. This pulse generator represents a building block of an innovative wearable system-on-chip UWB radar on silicon for cardiopulmonary monitoring. On-chip measurements show that the pulse generator provides monocycle pulses with a duration time equal to 380 ps and a peak-to-peak amplitude of 660 mV (including the losses of the microprobes, cables, and electrostatic-discharge-protected pads), which are in very good agreement with the postlayout simulations. The power consumption is 19.8 mW from a 1.2-V power supply. - DOI 10.1109/TCSI.2010.2047751 DA - 2010/01 ER -
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@article{V70046603, = {Zito, F. and Pepe, D. and and Zito, D. and }, = {2010}, = {January}, = {IEEE Transactions On Circuits and Systems I-Regular Papers}, = {UWB CMOS Monocycle Pulse Generator}, = {Validated}, = {()}, = {Pulse generator radio frequency complimentary metal-oxide-semiconductor (RF-CMOS) system on chip ultrawideband (UWB) radar ULTRA-LOW-POWER IR-UWB WPAN APPLICATIONS TRANSMITTER DESIGN ARCHITECTURE NETWORKS ANTENNAS CIRCUIT SYSTEMS}, = {57}, pages = {2654--2664}, = {{A low-complexity fully integrated ultrawideband (UWB) monocycle pulse generator realized in 90-nm CMOS technology by ST-Microelectronics is presented. The circuit provides a monocycle pulse when activated by a negative edge of an external trigger signal provided by a microcontroller by exploiting the operating principle of nonlinear waveform shapers. This pulse generator represents a building block of an innovative wearable system-on-chip UWB radar on silicon for cardiopulmonary monitoring. On-chip measurements show that the pulse generator provides monocycle pulses with a duration time equal to 380 ps and a peak-to-peak amplitude of 660 mV (including the losses of the microprobes, cables, and electrostatic-discharge-protected pads), which are in very good agreement with the postlayout simulations. The power consumption is 19.8 mW from a 1.2-V power supply.}}, = {DOI 10.1109/TCSI.2010.2047751}, source = {IRIS} }
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AUTHORS | Zito, F.; Pepe, D.; and Zito, D.; | ||
YEAR | 2010 | ||
MONTH | January | ||
JOURNAL_CODE | IEEE Transactions On Circuits and Systems I-Regular Papers | ||
TITLE | UWB CMOS Monocycle Pulse Generator | ||
STATUS | Validated | ||
TIMES_CITED | () | ||
SEARCH_KEYWORD | Pulse generator radio frequency complimentary metal-oxide-semiconductor (RF-CMOS) system on chip ultrawideband (UWB) radar ULTRA-LOW-POWER IR-UWB WPAN APPLICATIONS TRANSMITTER DESIGN ARCHITECTURE NETWORKS ANTENNAS CIRCUIT SYSTEMS | ||
VOLUME | 57 | ||
ISSUE | |||
START_PAGE | 2654 | ||
END_PAGE | 2664 | ||
ABSTRACT | A low-complexity fully integrated ultrawideband (UWB) monocycle pulse generator realized in 90-nm CMOS technology by ST-Microelectronics is presented. The circuit provides a monocycle pulse when activated by a negative edge of an external trigger signal provided by a microcontroller by exploiting the operating principle of nonlinear waveform shapers. This pulse generator represents a building block of an innovative wearable system-on-chip UWB radar on silicon for cardiopulmonary monitoring. On-chip measurements show that the pulse generator provides monocycle pulses with a duration time equal to 380 ps and a peak-to-peak amplitude of 660 mV (including the losses of the microprobes, cables, and electrostatic-discharge-protected pads), which are in very good agreement with the postlayout simulations. The power consumption is 19.8 mW from a 1.2-V power supply. | ||
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DOI_LINK | DOI 10.1109/TCSI.2010.2047751 | ||
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