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F. Legray, T. Heeb, S. Genevey, and H. Kuo, "Period Deviation Tolerance Templates: A Novel Approach to Evaluation and Specification of Self-Synchronizing Audio Converters," Paper 8729, (2012 October.). doi: F. Legray, T. Heeb, S. Genevey, and H. Kuo, "Period Deviation Tolerance Templates: A Novel Approach to Evaluation and Specification of Self-Synchronizing Audio Converters," Paper 8729, (2012 October.). doi:
Abstract: Self-synchronizing converters represent an elegant and cost effective solution for audio functionality integration into SoC (System-on-Chip) as they integrate both conversion and clock synchronization functionalities. Audio performance of such converters is, however, very dependent on the jitter rejection capabilities of the synchronization system. A methodology based on two period deviation tolerance templates is described for evaluating such synchronization solutions, prior to any silicon measurements. It is also a unique way for specifying expected performance of a synchronization system in the presence of jitter on the audio interface. The proposed methodology is applied to a self-synchronizing audio converter and its advantages are illustrated by both simulation and measurement results.

@article{legray2012period,
author={legray, francis and heeb, thierry and genevey, sebastien and kuo, hugo},
journal={journal of the audio engineering society},
title={period deviation tolerance templates: a novel approach to evaluation and specification of self-synchronizing audio converters},
year={2012},
volume={},
number={},
pages={},
doi={},
month={october},} @article{legray2012period,
author={legray, francis and heeb, thierry and genevey, sebastien and kuo, hugo},
journal={journal of the audio engineering society},
title={period deviation tolerance templates: a novel approach to evaluation and specification of self-synchronizing audio converters},
year={2012},
volume={},
number={},
pages={},
doi={},
month={october},
abstract={self-synchronizing converters represent an elegant and cost effective solution for audio functionality integration into soc (system-on-chip) as they integrate both conversion and clock synchronization functionalities. audio performance of such converters is, however, very dependent on the jitter rejection capabilities of the synchronization system. a methodology based on two period deviation tolerance templates is described for evaluating such synchronization solutions, prior to any silicon measurements. it is also a unique way for specifying expected performance of a synchronization system in the presence of jitter on the audio interface. the proposed methodology is applied to a self-synchronizing audio converter and its advantages are illustrated by both simulation and measurement results.},}

TY - paper
TI - Period Deviation Tolerance Templates: A Novel Approach to Evaluation and Specification of Self-Synchronizing Audio Converters
SP - EP -
AU - Legray, Francis
AU - Heeb, Thierry
AU - Genevey, Sebastien
AU - Kuo, Hugo
PY - 2012
JO - Journal of the Audio Engineering Society
IS -
VO -
VL -
Y1 - October 2012 TY - paper
TI - Period Deviation Tolerance Templates: A Novel Approach to Evaluation and Specification of Self-Synchronizing Audio Converters
SP - EP -
AU - Legray, Francis
AU - Heeb, Thierry
AU - Genevey, Sebastien
AU - Kuo, Hugo
PY - 2012
JO - Journal of the Audio Engineering Society
IS -
VO -
VL -
Y1 - October 2012
AB - Self-synchronizing converters represent an elegant and cost effective solution for audio functionality integration into SoC (System-on-Chip) as they integrate both conversion and clock synchronization functionalities. Audio performance of such converters is, however, very dependent on the jitter rejection capabilities of the synchronization system. A methodology based on two period deviation tolerance templates is described for evaluating such synchronization solutions, prior to any silicon measurements. It is also a unique way for specifying expected performance of a synchronization system in the presence of jitter on the audio interface. The proposed methodology is applied to a self-synchronizing audio converter and its advantages are illustrated by both simulation and measurement results.