Proximity‐Enhanced Functional Imaging Analysis of Engineered Tumors
Functional imaging (FI) techniques have revolutionized tumor imaging by providing information on specific tumor functions, such as glycometabolism. However, tumor cells lack unique molecular characteristics at the molecular level and metabolic pathways, resulting in limited metabolic differences com...
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description | Functional imaging (FI) techniques have revolutionized tumor imaging by providing information on specific tumor functions, such as glycometabolism. However, tumor cells lack unique molecular characteristics at the molecular level and metabolic pathways, resulting in limited metabolic differences compared to normal cells and increased background signals from FI. To address this limitation, we developed a novel imaging technique termed proximity‐enhanced functional imaging (PEFI) for accurate visualization of tumors. By using “two adjacent chemically labeled glycoproteins” as output signals, we significantly enhance the metabolic differences between tumor and normal cells by PEFI, thereby reducing the background signals for analysis and improving the accuracy of tumor functional imaging. Our results demonstrate that PEFI can accurately identify tumors at the cellular, tissue, and animal level, and has potential value in clinical identification and analysis of tumor cells and tissues, as well as in the guidance of clinical tumor resection surgery.
A novel proximity‐enhanced functional imaging (PEFI) analysis was developed for accurately visualizing tumors at cellular, tissue, and animal levels by enhancing metabolic differences. The strategy will potentially aid tumor identification, analysis, and surgical guidance. |
doi_str_mv | 10.1002/anie.202319117 |
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A novel proximity‐enhanced functional imaging (PEFI) analysis was developed for accurately visualizing tumors at cellular, tissue, and animal levels by enhancing metabolic differences. 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However, tumor cells lack unique molecular characteristics at the molecular level and metabolic pathways, resulting in limited metabolic differences compared to normal cells and increased background signals from FI. To address this limitation, we developed a novel imaging technique termed proximity‐enhanced functional imaging (PEFI) for accurate visualization of tumors. By using “two adjacent chemically labeled glycoproteins” as output signals, we significantly enhance the metabolic differences between tumor and normal cells by PEFI, thereby reducing the background signals for analysis and improving the accuracy of tumor functional imaging. Our results demonstrate that PEFI can accurately identify tumors at the cellular, tissue, and animal level, and has potential value in clinical identification and analysis of tumor cells and tissues, as well as in the guidance of clinical tumor resection surgery.
A novel proximity‐enhanced functional imaging (PEFI) analysis was developed for accurately visualizing tumors at cellular, tissue, and animal levels by enhancing metabolic differences. The strategy will potentially aid tumor identification, analysis, and surgical guidance.</abstract><cop>Germany</cop><pub>Wiley Subscription Services, Inc</pub><pmid>38305848</pmid><doi>10.1002/anie.202319117</doi><tpages>10</tpages><edition>International ed. in English</edition><orcidid>https://orcid.org/0000-0001-5497-4538</orcidid></addata></record> |
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subjects | Animals Brain Neoplasms Cell-Surface Engineering Diagnostic Imaging DNA Self-Limited Assembly Functional Imaging Glycoproteins Imaging techniques Metabolic pathways Proximity Enhancement Tumor cells Tumor Imaging Tumors |
title | Proximity‐Enhanced Functional Imaging Analysis of Engineered Tumors |
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