Translating digital signal processing (DSP) software into its finite-precision hardware implementation is often a timeconsuming task. We describe a new static analysis technique that can accurately analyze finite-precision e#ects arising from fixed-point implementations of DSP algorithms. The technique is based on recent interval representation methods from a#ne arithmetic, and the use of new probabilistic bounds. The resulting numerical error estimates are comparable to detailed statistical simulation, but achieve speedups of four to five orders of magnitude by avoiding actual bittrue simulation. We show error analysis results on several common DSP kernals
The minimization of cost, power consumption and time-to-market of DSP applications requires the deve...
Interval methods represent a relatively new research direction in digital sig-nal processing. Though...
Complex signal processing algorithms are specified in floating point precision. When their hardware ...
We introduce a static error analysis technique, based on smart interval methods from ane arithmetic,...
IEEE/ACM International Conference on Computer-Aided Design, Digest of Technical Papers275-282DICD
Digital signal processing applications are specified with floating-point data types but they are usu...
This paper presents software tools that convert the C/Cµ floating point source code for a DSP algori...
This book is intended to fill the gap between the ""ideal precision"" digital signal processing (DSP...
International audienceMost of digital signal processing applications are specified and designed with...
Recent advances in technology of VLSI circuits enables economical hardware implementation of highly ...
The minimization of cost, power consumption and time-to-market of DSP applications requires the deve...
ICASSP, IEEE International Conference on Acoustics, Speech and Signal Processing - Proceedings2561-5...
International audienceIn this paper we target the Fixed-Point (FxP) implementation of Linear Time-In...
Digital Signal Processors are widely used in critical embed-ded systems to pilot low-level, often cr...
Numerical linear algebra algorithms use the inherent elegance of matrix formulations and are usually...
The minimization of cost, power consumption and time-to-market of DSP applications requires the deve...
Interval methods represent a relatively new research direction in digital sig-nal processing. Though...
Complex signal processing algorithms are specified in floating point precision. When their hardware ...
We introduce a static error analysis technique, based on smart interval methods from ane arithmetic,...
IEEE/ACM International Conference on Computer-Aided Design, Digest of Technical Papers275-282DICD
Digital signal processing applications are specified with floating-point data types but they are usu...
This paper presents software tools that convert the C/Cµ floating point source code for a DSP algori...
This book is intended to fill the gap between the ""ideal precision"" digital signal processing (DSP...
International audienceMost of digital signal processing applications are specified and designed with...
Recent advances in technology of VLSI circuits enables economical hardware implementation of highly ...
The minimization of cost, power consumption and time-to-market of DSP applications requires the deve...
ICASSP, IEEE International Conference on Acoustics, Speech and Signal Processing - Proceedings2561-5...
International audienceIn this paper we target the Fixed-Point (FxP) implementation of Linear Time-In...
Digital Signal Processors are widely used in critical embed-ded systems to pilot low-level, often cr...
Numerical linear algebra algorithms use the inherent elegance of matrix formulations and are usually...
The minimization of cost, power consumption and time-to-market of DSP applications requires the deve...
Interval methods represent a relatively new research direction in digital sig-nal processing. Though...
Complex signal processing algorithms are specified in floating point precision. When their hardware ...