Design of a low-power, reconfigurable digital front-end for a multimode SDR handset
Emerging communication paradigms like opportunistic spectrum access and wireless heterogeneous networks impose a high degree of flexibility on the underlying physical layer hardware of the mobile terminal. A software implementation of the radio baseband algorithms on an instruction set architecture...
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sg-ntu-dr.10356-480732023-03-04T00:48:11Z Design of a low-power, reconfigurable digital front-end for a multimode SDR handset Navin Michael Vinod Achutavarrier Prasad School of Computer Engineering Centre for High Performance Embedded Systems DRNTU::Engineering::Electrical and electronic engineering::Wireless communication systems Emerging communication paradigms like opportunistic spectrum access and wireless heterogeneous networks impose a high degree of flexibility on the underlying physical layer hardware of the mobile terminal. A software implementation of the radio baseband algorithms on an instruction set architecture (ISA) offers the highest degree of flexibility and hardware reusability, since the reconfiguration of the terminal for a new standard involves a mere change of software code. However the power efficiencies of ISAs have not scaled to the point where the entire baseband computations of a mobile handset can be performed in software. The computationally intensive signal processing tasks in the radio baseband have to be accelerated in hardware. Dedicated hardware (HW) accelerator cores have a power efficiency which is several orders higher than a software implementation and hence, have been extensively used for accelerating the computationally intensive tasks like channelization and decoding. HW accelerators, however, are inflexible in general and are optimized for a single specification. Incorporating flexibility necessarily incurs both an area and power penalty. The growing need for supporting multiple wireless standards with heterogeneous throughput and mobility requirements in a small form factor mobile handset with a limited silicon area requires the accelerator cores to be flexible and reusable in addition to being power efficient. DOCTOR OF PHILOSOPHY (SCE) 2012-03-01T07:48:03Z 2012-03-01T07:48:03Z 2012 2012 Thesis Navin, M. (2012). Design of a low-power, reconfigurable digital front-end for a multimode SDR handset. Doctoral thesis, Nanyang Technological University, Singapore. https://hdl.handle.net/10356/48073 10.32657/10356/48073 en 171 p. application/pdf |
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DRNTU::Engineering::Electrical and electronic engineering::Wireless communication systems Navin Michael Design of a low-power, reconfigurable digital front-end for a multimode SDR handset |
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Emerging communication paradigms like opportunistic spectrum access and wireless heterogeneous networks impose a high degree of flexibility on the underlying physical layer hardware of the mobile terminal. A software implementation of the radio baseband algorithms on an instruction set architecture (ISA) offers the highest degree of flexibility and hardware reusability, since the reconfiguration of the terminal for a new standard involves a mere change of software code. However the power efficiencies of ISAs have not scaled to the point where the entire baseband computations of a mobile handset can be performed in software. The computationally intensive signal processing tasks in the radio baseband have to be accelerated in hardware. Dedicated hardware (HW) accelerator cores have a power efficiency which is several orders higher than a software implementation and hence, have been extensively used for accelerating the computationally intensive tasks like channelization and decoding. HW accelerators, however, are inflexible in general and are optimized for a single specification. Incorporating flexibility necessarily incurs both an area and power penalty. The growing need for supporting multiple wireless standards with heterogeneous throughput and mobility requirements in a small form factor mobile handset with a limited silicon area requires the accelerator cores to be flexible and reusable in addition to being power efficient. |
author2 |
Vinod Achutavarrier Prasad |
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Vinod Achutavarrier Prasad Navin Michael |
format |
Theses and Dissertations |
author |
Navin Michael |
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Navin Michael |
title |
Design of a low-power, reconfigurable digital front-end for a multimode SDR handset |
title_short |
Design of a low-power, reconfigurable digital front-end for a multimode SDR handset |
title_full |
Design of a low-power, reconfigurable digital front-end for a multimode SDR handset |
title_fullStr |
Design of a low-power, reconfigurable digital front-end for a multimode SDR handset |
title_full_unstemmed |
Design of a low-power, reconfigurable digital front-end for a multimode SDR handset |
title_sort |
design of a low-power, reconfigurable digital front-end for a multimode sdr handset |
publishDate |
2012 |
url |
https://hdl.handle.net/10356/48073 |
_version_ |
1759855703486365696 |