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An E-Band FMCW Radar Receiver With Arbitrary-Path Spillover Cancellation

An E-Band FMCW Radar Receiver With Arbitrary-Path Spillover Cancellation 150 150

Abstract:

This article presents an E-band receiver (RX) with spillover cancellation for frequency-modulated continuous-wave (FMCW) radars. To reject spillover from both TX–RX coupling and undesired reflections from radar assembly (such as bumper reflection), a spillover replication method based on frequency-delay translation through a single-sideband (SSB) modulator is introduced. To keep …

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An E-Band FMCW Radar Receiver With Arbitrary-Path Spillover Cancellation

An E-Band FMCW Radar Receiver With Arbitrary-Path Spillover Cancellation 150 150

Abstract:

This article presents an E-band receiver (RX) with spillover cancellation for frequency-modulated continuous-wave (FMCW) radars. To reject spillover from both TX–RX coupling and undesired reflections from radar assembly (such as bumper reflection), a spillover replication method based on frequency-delay translation through a single-sideband (SSB) modulator is introduced. To keep …

View on IEEE Xplore

An Ultra-Low-Jitter Fast-Hopping Fractional-N PLL With LC DTC and Hybrid-Proportional Paths

An Ultra-Low-Jitter Fast-Hopping Fractional-N PLL With LC DTC and Hybrid-Proportional Paths 150 150

Abstract:

This work presents an ultra-low-jitter fractional-N PLL capable of wideband fast hopping. There is an analog proportional path and a digital proportional/integral path in the PLL. The PLL is digital-path-dominant during settling and analog-path-dominant after settles; therefore, the fast-lock characteristic of the digital PLLs and the low-jitter characteristic of …

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A 27–39-GHz VSWR-Resilient Compact True Power and Gain Sensor With Built-In Sensing Error Compensation for Integrated Power Amplifiers

A 27–39-GHz VSWR-Resilient Compact True Power and Gain Sensor With Built-In Sensing Error Compensation for Integrated Power Amplifiers 150 150

Abstract:

The output power of a transmitter (TX) array can degrade due to a variety of factors, such as device aging, thermal degradation, and load impedance mismatch of the power amplifier due to antenna mutual coupling. Power sensors are needed on phased arrays to detect if any output power degradation occurs. …

View on IEEE Xplore

A 27–39-GHz VSWR-Resilient Compact True Power and Gain Sensor With Built-In Sensing Error Compensation for Integrated Power Amplifiers

A 27–39-GHz VSWR-Resilient Compact True Power and Gain Sensor With Built-In Sensing Error Compensation for Integrated Power Amplifiers 150 150

Abstract:

The output power of a transmitter (TX) array can degrade due to a variety of factors, such as device aging, thermal degradation, and load impedance mismatch of the power amplifier due to antenna mutual coupling. Power sensors are needed on phased arrays to detect if any output power degradation occurs. …

View on IEEE Xplore

A 27–39-GHz VSWR-Resilient Compact True Power and Gain Sensor With Built-In Sensing Error Compensation for Integrated Power Amplifiers

A 27–39-GHz VSWR-Resilient Compact True Power and Gain Sensor With Built-In Sensing Error Compensation for Integrated Power Amplifiers 150 150

Abstract:

The output power of a transmitter (TX) array can degrade due to a variety of factors, such as device aging, thermal degradation, and load impedance mismatch of the power amplifier due to antenna mutual coupling. Power sensors are needed on phased arrays to detect if any output power degradation occurs. …

View on IEEE Xplore

A 27–39-GHz VSWR-Resilient Compact True Power and Gain Sensor With Built-In Sensing Error Compensation for Integrated Power Amplifiers

A 27–39-GHz VSWR-Resilient Compact True Power and Gain Sensor With Built-In Sensing Error Compensation for Integrated Power Amplifiers 150 150

Abstract:

The output power of a transmitter (TX) array can degrade due to a variety of factors, such as device aging, thermal degradation, and load impedance mismatch of the power amplifier due to antenna mutual coupling. Power sensors are needed on phased arrays to detect if any output power degradation occurs. …

View on IEEE Xplore

A 27–39-GHz VSWR-Resilient Compact True Power and Gain Sensor With Built-In Sensing Error Compensation for Integrated Power Amplifiers

A 27–39-GHz VSWR-Resilient Compact True Power and Gain Sensor With Built-In Sensing Error Compensation for Integrated Power Amplifiers 150 150

Abstract:

The output power of a transmitter (TX) array can degrade due to a variety of factors, such as device aging, thermal degradation, and load impedance mismatch of the power amplifier due to antenna mutual coupling. Power sensors are needed on phased arrays to detect if any output power degradation occurs. …

View on IEEE Xplore

A 27–39-GHz VSWR-Resilient Compact True Power and Gain Sensor With Built-In Sensing Error Compensation for Integrated Power Amplifiers

A 27–39-GHz VSWR-Resilient Compact True Power and Gain Sensor With Built-In Sensing Error Compensation for Integrated Power Amplifiers 150 150

Abstract:

The output power of a transmitter (TX) array can degrade due to a variety of factors, such as device aging, thermal degradation, and load impedance mismatch of the power amplifier due to antenna mutual coupling. Power sensors are needed on phased arrays to detect if any output power degradation occurs. …

View on IEEE Xplore