A Low-Complexity Self-Calibrating Adaptive Quadrature Receiver

In this paper digital part of a self-calibrating quadrature-receiver is described, containing a digital calibration-engine. The blind source-separation-based calibration-engine eliminates the RF-impairments in real-time hence improving the receiver's performance without the need for test/pilot...

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Hauptverfasser: Cetin, E., Demirsoy, S.S., Kale, I., Morling, R.C.S.
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Kale, I.
Morling, R.C.S.
description In this paper digital part of a self-calibrating quadrature-receiver is described, containing a digital calibration-engine. The blind source-separation-based calibration-engine eliminates the RF-impairments in real-time hence improving the receiver's performance without the need for test/pilot tones, trimming or use of power-hungry discrete components. Furthermore, an efficient time-multiplexed calibration-engine architecture is proposed and implemented on an FPGA utilising a reduced-range multiplier structure. The use of reduced-range multipliers results in substantial reduction of area as well as power consumption without a compromise in performance when compared with an efficiently designed general purpose multiplier. The performance of the calibration-engine does not depend on the modulation format or the constellation size of the received signal; hence it can be easily integrated into the digital signal processing paths of any receiver
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source IEEE Electronic Library (IEL) Conference Proceedings
subjects Constellation diagram
Degradation
Digital signal processing
Energy consumption
Field programmable gate arrays
Hardware
Radio frequency
Signal processing
Transceivers
Very large scale integration
title A Low-Complexity Self-Calibrating Adaptive Quadrature Receiver
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