Cargando…
Comparison of Proteomics Profiles Between Xenografts Derived from Cell Lines and Primary Tumors of Thyroid Carcinoma
Patient-consistent xenograft model is a challenge for all cancers but particularly for thyroid cancer, which shows some of the greatest genetic divergence between human tumors and cell lines. In this study, proteomic profiles of tumor tissues from patients, included anaplastic thyroid carcinoma (ATC...
Autores principales: | , , , , , , , , , , , |
---|---|
Formato: | Online Artículo Texto |
Lenguaje: | English |
Publicado: |
Ivyspring International Publisher
2021
|
Materias: | |
Acceso en línea: | https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7974514/ https://www.ncbi.nlm.nih.gov/pubmed/33753996 http://dx.doi.org/10.7150/jca.50897 |
_version_ | 1783666925023264768 |
---|---|
author | Fang, Luo Liu, Yu-jia Zhang, Yi-wen Pan, Zong-fu Zhong, Li-ke Jiang, Lie-hao Wang, Jia-feng Zheng, Xiao-wei Chen, Ling-ya Huang, Ping Ge, Ming-hua Tan, Zhuo |
author_facet | Fang, Luo Liu, Yu-jia Zhang, Yi-wen Pan, Zong-fu Zhong, Li-ke Jiang, Lie-hao Wang, Jia-feng Zheng, Xiao-wei Chen, Ling-ya Huang, Ping Ge, Ming-hua Tan, Zhuo |
author_sort | Fang, Luo |
collection | PubMed |
description | Patient-consistent xenograft model is a challenge for all cancers but particularly for thyroid cancer, which shows some of the greatest genetic divergence between human tumors and cell lines. In this study, proteomic profiles of tumor tissues from patients, included anaplastic thyroid carcinoma (ATC) and papillary thyroid carcinoma, and xenografts (8305C, 8505C, FRO, BAPAP and IHH4) were obtained using HPLC-tandem mass spectrometry and compared based on all proteins detected (3,961), cancer-related proteins and druggable proteins using pairwise Pearson's correlation analysis. The human tissue showed low proteomic similarity to the ATC cell lines (8305C, r = 0.344-0.416; 8505C, 0.47-0.579; FRO, 0.267-0.307) and to PTC cell lines (BCPAP, 0.303-0.468; IHH4, 0.262-0.509). Human tissue showed the following similarity to cell lines at the level of 135 cancer-related pathways. The ATC cell lines contained 47.4% of the cancer-related pathways (19.26%-33.33%), while the PTC cell lines contained 40% (BCPAP, 25.93%; IHH4, 28.89%). In patient tumor tissues, 44-60 of 76 and 52-53 of 93 druggable proteins were identified in ATC and PTC tumors, respectively. Ten and 29 druggable proteins were not identified in any of the ATC and PTC xenografts, respectively. We provide a reference for CDX selecting in in vivo studies of thyroid cancer. |
format | Online Article Text |
id | pubmed-7974514 |
institution | National Center for Biotechnology Information |
language | English |
publishDate | 2021 |
publisher | Ivyspring International Publisher |
record_format | MEDLINE/PubMed |
spelling | pubmed-79745142021-03-21 Comparison of Proteomics Profiles Between Xenografts Derived from Cell Lines and Primary Tumors of Thyroid Carcinoma Fang, Luo Liu, Yu-jia Zhang, Yi-wen Pan, Zong-fu Zhong, Li-ke Jiang, Lie-hao Wang, Jia-feng Zheng, Xiao-wei Chen, Ling-ya Huang, Ping Ge, Ming-hua Tan, Zhuo J Cancer Research Paper Patient-consistent xenograft model is a challenge for all cancers but particularly for thyroid cancer, which shows some of the greatest genetic divergence between human tumors and cell lines. In this study, proteomic profiles of tumor tissues from patients, included anaplastic thyroid carcinoma (ATC) and papillary thyroid carcinoma, and xenografts (8305C, 8505C, FRO, BAPAP and IHH4) were obtained using HPLC-tandem mass spectrometry and compared based on all proteins detected (3,961), cancer-related proteins and druggable proteins using pairwise Pearson's correlation analysis. The human tissue showed low proteomic similarity to the ATC cell lines (8305C, r = 0.344-0.416; 8505C, 0.47-0.579; FRO, 0.267-0.307) and to PTC cell lines (BCPAP, 0.303-0.468; IHH4, 0.262-0.509). Human tissue showed the following similarity to cell lines at the level of 135 cancer-related pathways. The ATC cell lines contained 47.4% of the cancer-related pathways (19.26%-33.33%), while the PTC cell lines contained 40% (BCPAP, 25.93%; IHH4, 28.89%). In patient tumor tissues, 44-60 of 76 and 52-53 of 93 druggable proteins were identified in ATC and PTC tumors, respectively. Ten and 29 druggable proteins were not identified in any of the ATC and PTC xenografts, respectively. We provide a reference for CDX selecting in in vivo studies of thyroid cancer. Ivyspring International Publisher 2021-01-31 /pmc/articles/PMC7974514/ /pubmed/33753996 http://dx.doi.org/10.7150/jca.50897 Text en © The author(s) This is an open access article distributed under the terms of the Creative Commons Attribution License (https://creativecommons.org/licenses/by/4.0/). See http://ivyspring.com/terms for full terms and conditions. |
spellingShingle | Research Paper Fang, Luo Liu, Yu-jia Zhang, Yi-wen Pan, Zong-fu Zhong, Li-ke Jiang, Lie-hao Wang, Jia-feng Zheng, Xiao-wei Chen, Ling-ya Huang, Ping Ge, Ming-hua Tan, Zhuo Comparison of Proteomics Profiles Between Xenografts Derived from Cell Lines and Primary Tumors of Thyroid Carcinoma |
title | Comparison of Proteomics Profiles Between Xenografts Derived from Cell Lines and Primary Tumors of Thyroid Carcinoma |
title_full | Comparison of Proteomics Profiles Between Xenografts Derived from Cell Lines and Primary Tumors of Thyroid Carcinoma |
title_fullStr | Comparison of Proteomics Profiles Between Xenografts Derived from Cell Lines and Primary Tumors of Thyroid Carcinoma |
title_full_unstemmed | Comparison of Proteomics Profiles Between Xenografts Derived from Cell Lines and Primary Tumors of Thyroid Carcinoma |
title_short | Comparison of Proteomics Profiles Between Xenografts Derived from Cell Lines and Primary Tumors of Thyroid Carcinoma |
title_sort | comparison of proteomics profiles between xenografts derived from cell lines and primary tumors of thyroid carcinoma |
topic | Research Paper |
url | https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7974514/ https://www.ncbi.nlm.nih.gov/pubmed/33753996 http://dx.doi.org/10.7150/jca.50897 |
work_keys_str_mv | AT fangluo comparisonofproteomicsprofilesbetweenxenograftsderivedfromcelllinesandprimarytumorsofthyroidcarcinoma AT liuyujia comparisonofproteomicsprofilesbetweenxenograftsderivedfromcelllinesandprimarytumorsofthyroidcarcinoma AT zhangyiwen comparisonofproteomicsprofilesbetweenxenograftsderivedfromcelllinesandprimarytumorsofthyroidcarcinoma AT panzongfu comparisonofproteomicsprofilesbetweenxenograftsderivedfromcelllinesandprimarytumorsofthyroidcarcinoma AT zhonglike comparisonofproteomicsprofilesbetweenxenograftsderivedfromcelllinesandprimarytumorsofthyroidcarcinoma AT jiangliehao comparisonofproteomicsprofilesbetweenxenograftsderivedfromcelllinesandprimarytumorsofthyroidcarcinoma AT wangjiafeng comparisonofproteomicsprofilesbetweenxenograftsderivedfromcelllinesandprimarytumorsofthyroidcarcinoma AT zhengxiaowei comparisonofproteomicsprofilesbetweenxenograftsderivedfromcelllinesandprimarytumorsofthyroidcarcinoma AT chenlingya comparisonofproteomicsprofilesbetweenxenograftsderivedfromcelllinesandprimarytumorsofthyroidcarcinoma AT huangping comparisonofproteomicsprofilesbetweenxenograftsderivedfromcelllinesandprimarytumorsofthyroidcarcinoma AT geminghua comparisonofproteomicsprofilesbetweenxenograftsderivedfromcelllinesandprimarytumorsofthyroidcarcinoma AT tanzhuo comparisonofproteomicsprofilesbetweenxenograftsderivedfromcelllinesandprimarytumorsofthyroidcarcinoma |