Ultrasound elasticity imaging using Golay code

Ultrasound elasticity imaging is becoming a new diagnostic tool for clinicians to detect lesions or cancers in tissues. In this paper, Golay code is applied to elasticity imaging to improve its quality. Phase-zero algorithm is employed as the displacement estimator, and the amplitude modulation corr...

Full description

Bibliographic Details
Main Authors: Peng Hui, Tie Juhong
Format: Article
Language:English
Published: EDP Sciences 2017-01-01
Series:BIO Web of Conferences
Online Access:http://dx.doi.org/10.1051/bioconf/20170803017
id doaj-0f60430915d54434a275291b383b32c7
record_format Article
spelling doaj-0f60430915d54434a275291b383b32c72021-04-02T18:23:56ZengEDP SciencesBIO Web of Conferences2117-44582017-01-0180301710.1051/bioconf/20170803017bioconf_icmsb2017_03017Ultrasound elasticity imaging using Golay codePeng HuiTie JuhongUltrasound elasticity imaging is becoming a new diagnostic tool for clinicians to detect lesions or cancers in tissues. In this paper, Golay code is applied to elasticity imaging to improve its quality. Phase-zero algorithm is employed as the displacement estimator, and the amplitude modulation correction location estimate method is used as the location estimator. We compared the performance of Golay code and the conventional short pulse in simulation method. The simulation results demonstrate that Golay code can achieve higher elastographic signal-to-noise ratio (SNRe) than the short pulse in low echo signal-to-noise ratio (eSNR) conditions, because the eSNR gain with Golay code increases the accuracy of the displacement estimates. However, in high eSNR conditions, Golay code performs worse than the short pulse, because the range sidelobe level of Golay code will decrease the SNRe and the performance of Golay code depends mainly on its range sidelobe level in high eSNR conditions. Therefore, the optimal conditions for Goaly code to be used in elasticity imaging are the low eSNR, great depth or high attenuation conditions.http://dx.doi.org/10.1051/bioconf/20170803017
collection DOAJ
language English
format Article
sources DOAJ
author Peng Hui
Tie Juhong
spellingShingle Peng Hui
Tie Juhong
Ultrasound elasticity imaging using Golay code
BIO Web of Conferences
author_facet Peng Hui
Tie Juhong
author_sort Peng Hui
title Ultrasound elasticity imaging using Golay code
title_short Ultrasound elasticity imaging using Golay code
title_full Ultrasound elasticity imaging using Golay code
title_fullStr Ultrasound elasticity imaging using Golay code
title_full_unstemmed Ultrasound elasticity imaging using Golay code
title_sort ultrasound elasticity imaging using golay code
publisher EDP Sciences
series BIO Web of Conferences
issn 2117-4458
publishDate 2017-01-01
description Ultrasound elasticity imaging is becoming a new diagnostic tool for clinicians to detect lesions or cancers in tissues. In this paper, Golay code is applied to elasticity imaging to improve its quality. Phase-zero algorithm is employed as the displacement estimator, and the amplitude modulation correction location estimate method is used as the location estimator. We compared the performance of Golay code and the conventional short pulse in simulation method. The simulation results demonstrate that Golay code can achieve higher elastographic signal-to-noise ratio (SNRe) than the short pulse in low echo signal-to-noise ratio (eSNR) conditions, because the eSNR gain with Golay code increases the accuracy of the displacement estimates. However, in high eSNR conditions, Golay code performs worse than the short pulse, because the range sidelobe level of Golay code will decrease the SNRe and the performance of Golay code depends mainly on its range sidelobe level in high eSNR conditions. Therefore, the optimal conditions for Goaly code to be used in elasticity imaging are the low eSNR, great depth or high attenuation conditions.
url http://dx.doi.org/10.1051/bioconf/20170803017
work_keys_str_mv AT penghui ultrasoundelasticityimagingusinggolaycode
AT tiejuhong ultrasoundelasticityimagingusinggolaycode
_version_ 1721551728006922240