Energy Scalable Radio Design [electronic resource] : for Pulsed UWB Communication and Ranging / by Marian Verhelst, Wim Dehaene.

By: Verhelst, Marian [author.]Contributor(s): Dehaene, Wim [author.] | SpringerLink (Online service)Material type: TextTextLanguage: English Series: Analog Circuits and Signal Processing: Publisher: Dordrecht : Springer Netherlands, 2009Description: XIII, 243 p. online resourceContent type: text Media type: computer Carrier type: online resourceISBN: 9789048126941Subject(s): Engineering | Microwaves | Engineering economy | Engineering | Microwaves, RF and Optical Engineering | Energy EconomicsAdditional physical formats: Printed edition:: No titleDDC classification: 621.3 LOC classification: TK7876-7876.42Online resources: Click here to access online
Contents:
and Motivation -- Adaptation of Classical Design Flow for Energy-Driven System-to-Circuit Design -- System Level Specifications and Design -- Algorithmic/Architectural Design Space Exploration -- Algorithmic/Architectural Level Refinement -- Digital RT Level Design: Flexibility to Save Energy -- Chip and System Measurements -- Conclusions.
In: Springer eBooksSummary: Smart energy management, both at design time and at run time, is indispensable in modern radios. It requires a careful trade-off between the system’s performance, and its power consumption. Moreover, the design has to be dynamically reconfigurable to optimally balance these parameters at run time, depending on the current operating conditions. Energy Scalable Radio Design starts by describing an energy-driven design strategy, tackling these implementation challenges for wireless communication systems. The strategy minimizes energy consumption and optimizes reconfigurability at all consecutive design steps, from system level down to circuit level. In addition, a novel implementation concept of "nested FLEXmodules" is introduced at digital RT-level, enabling highly scalable implementations, with minimal energy overhead. Energy Scalable Radio Design continues by applying this design strategy to the design of an energy-efficient, highly scalable, pulsed UWB receiver, suitable for low data rate communication and sub-cm ranging. This book meticulously covers the different design steps and the adopted optimizations: System level air interface selection, architectural/algorithmic design space exploration, algorithmic refinement (acquisition, synchronization and ranging algorithms) and circuit level (RTL) implementation based on the FLEXmodule-concept. Measurement results demonstrate the effectiveness and necessity of the energy-driven design strategy.
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and Motivation -- Adaptation of Classical Design Flow for Energy-Driven System-to-Circuit Design -- System Level Specifications and Design -- Algorithmic/Architectural Design Space Exploration -- Algorithmic/Architectural Level Refinement -- Digital RT Level Design: Flexibility to Save Energy -- Chip and System Measurements -- Conclusions.

Smart energy management, both at design time and at run time, is indispensable in modern radios. It requires a careful trade-off between the system’s performance, and its power consumption. Moreover, the design has to be dynamically reconfigurable to optimally balance these parameters at run time, depending on the current operating conditions. Energy Scalable Radio Design starts by describing an energy-driven design strategy, tackling these implementation challenges for wireless communication systems. The strategy minimizes energy consumption and optimizes reconfigurability at all consecutive design steps, from system level down to circuit level. In addition, a novel implementation concept of "nested FLEXmodules" is introduced at digital RT-level, enabling highly scalable implementations, with minimal energy overhead. Energy Scalable Radio Design continues by applying this design strategy to the design of an energy-efficient, highly scalable, pulsed UWB receiver, suitable for low data rate communication and sub-cm ranging. This book meticulously covers the different design steps and the adopted optimizations: System level air interface selection, architectural/algorithmic design space exploration, algorithmic refinement (acquisition, synchronization and ranging algorithms) and circuit level (RTL) implementation based on the FLEXmodule-concept. Measurement results demonstrate the effectiveness and necessity of the energy-driven design strategy.

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