Radioiodination of extravesicular surface constituents to study the biocorona, cell trafficking and storage stability of extracellular vesicles
Extracellular vesicles (EVs) are produced by all cell types and serve as biological packets delivering a wide variety of molecules for cell-to-cell communication. However, the biology of the EV extravesicular surface domain that we have termed EV ‘biocorona’ remains underexplored. Upon cell secretio...
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Published in | Biochimica et biophysica acta. General subjects Vol. 1866; no. 2; p. 130069 |
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Main Authors | , , , |
Format | Journal Article |
Language | English |
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Elsevier B.V
01.02.2022
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ISSN | 0304-4165 1872-8006 1872-8006 |
DOI | 10.1016/j.bbagen.2021.130069 |
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Abstract | Extracellular vesicles (EVs) are produced by all cell types and serve as biological packets delivering a wide variety of molecules for cell-to-cell communication. However, the biology of the EV extravesicular surface domain that we have termed EV ‘biocorona’ remains underexplored. Upon cell secretion, EVs possess an innate biocorona containing membrane integral and peripheral constituents that is modified by acquired constituents post secretion. This distinguishes EVs from synthetic nanoparticulate biomaterials that are limited to an adsorption-based, acquired biocorona.
The EV biocorona molecular constituents were radiolabeled with 125I to study biocorona constituents and its surface dynamics. As example toolset applications, 125I-EVs were utilized to study EV cell trafficking and the stability of the EV biocorona during storage.
The biocorona of EVs consisted of proteins, lipids, DNA and RNA. The cellular uptake of 125I-EVs was temperature dependent and internalized 125I-EVs were rapidly recycled by cells. When 125I-EVs were stored in a purified state, they exhibited time and temperature dependent biocorona shedding and proteolytic degradation that was partially inhibited in the presence of serum.
The EV biocorona is complex and dynamic. Radiolabeling of the EV biocorona enables a unique platform methodology to study the biocorona and will facilitate unlocking EV's full clinical translation potential.
The EV biocorona affects EV mediated biological processes in health and disease. Acquiring knowledge of the EV biocorona composition, dynamics, stability and structure not only informs the diagnostic and therapeutic translation of EVs but also aids in designing biomimetic nanomaterials for drug delivery.
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•The extracellular vesicle (EV) has a complex ‘biocorona’ that consists of proteins, lipids, DNA and RNA.•Nucleic acids in the EV biocorona are both membrane protein bound and non-protein bound.•The biocorona exhibits time and temperature dependent proteolytic shedding and degradation.•Cell trafficking of EVs includes rapid recycling of internalized EVs. |
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AbstractList | Extracellular vesicles (EVs) are produced by all cell types and serve as biological packets delivering a wide variety of molecules for cell-to-cell communication. However, the biology of the EV extravesicular surface domain that we have termed EV 'biocorona' remains underexplored. Upon cell secretion, EVs possess an innate biocorona containing membrane integral and peripheral constituents that is modified by acquired constituents post secretion. This distinguishes EVs from synthetic nanoparticulate biomaterials that are limited to an adsorption-based, acquired biocorona.BACKGROUNDExtracellular vesicles (EVs) are produced by all cell types and serve as biological packets delivering a wide variety of molecules for cell-to-cell communication. However, the biology of the EV extravesicular surface domain that we have termed EV 'biocorona' remains underexplored. Upon cell secretion, EVs possess an innate biocorona containing membrane integral and peripheral constituents that is modified by acquired constituents post secretion. This distinguishes EVs from synthetic nanoparticulate biomaterials that are limited to an adsorption-based, acquired biocorona.The EV biocorona molecular constituents were radiolabeled with 125I to study biocorona constituents and its surface dynamics. As example toolset applications, 125I-EVs were utilized to study EV cell trafficking and the stability of the EV biocorona during storage.METHODSThe EV biocorona molecular constituents were radiolabeled with 125I to study biocorona constituents and its surface dynamics. As example toolset applications, 125I-EVs were utilized to study EV cell trafficking and the stability of the EV biocorona during storage.The biocorona of EVs consisted of proteins, lipids, DNA and RNA. The cellular uptake of 125I-EVs was temperature dependent and internalized 125I-EVs were rapidly recycled by cells. When 125I-EVs were stored in a purified state, they exhibited time and temperature dependent biocorona shedding and proteolytic degradation that was partially inhibited in the presence of serum.RESULTSThe biocorona of EVs consisted of proteins, lipids, DNA and RNA. The cellular uptake of 125I-EVs was temperature dependent and internalized 125I-EVs were rapidly recycled by cells. When 125I-EVs were stored in a purified state, they exhibited time and temperature dependent biocorona shedding and proteolytic degradation that was partially inhibited in the presence of serum.The EV biocorona is complex and dynamic. Radiolabeling of the EV biocorona enables a unique platform methodology to study the biocorona and will facilitate unlocking EV's full clinical translation potential.CONCLUSIONThe EV biocorona is complex and dynamic. Radiolabeling of the EV biocorona enables a unique platform methodology to study the biocorona and will facilitate unlocking EV's full clinical translation potential.The EV biocorona affects EV mediated biological processes in health and disease. Acquiring knowledge of the EV biocorona composition, dynamics, stability and structure not only informs the diagnostic and therapeutic translation of EVs but also aids in designing biomimetic nanomaterials for drug delivery.GENERAL SIGNIFICANCEThe EV biocorona affects EV mediated biological processes in health and disease. Acquiring knowledge of the EV biocorona composition, dynamics, stability and structure not only informs the diagnostic and therapeutic translation of EVs but also aids in designing biomimetic nanomaterials for drug delivery. Extracellular vesicles (EVs) are produced by all cell types and serve as biological packets delivering a wide variety of molecules for cell-to-cell communication. However, the biology of the EV extravesicular surface domain that we have termed EV ‘biocorona’ remains underexplored. Upon cell secretion, EVs possess an innate biocorona containing membrane integral and peripheral constituents that is modified by acquired constituents post secretion. This distinguishes EVs from synthetic nanoparticulate biomaterials that are limited to an adsorption-based, acquired biocorona.The EV biocorona molecular constituents were radiolabeled with ¹²⁵I to study biocorona constituents and its surface dynamics. As example toolset applications, ¹²⁵I-EVs were utilized to study EV cell trafficking and the stability of the EV biocorona during storage.The biocorona of EVs consisted of proteins, lipids, DNA and RNA. The cellular uptake of ¹²⁵I-EVs was temperature dependent and internalized ¹²⁵I-EVs were rapidly recycled by cells. When ¹²⁵I-EVs were stored in a purified state, they exhibited time and temperature dependent biocorona shedding and proteolytic degradation that was partially inhibited in the presence of serum.The EV biocorona is complex and dynamic. Radiolabeling of the EV biocorona enables a unique platform methodology to study the biocorona and will facilitate unlocking EV's full clinical translation potential.The EV biocorona affects EV mediated biological processes in health and disease. Acquiring knowledge of the EV biocorona composition, dynamics, stability and structure not only informs the diagnostic and therapeutic translation of EVs but also aids in designing biomimetic nanomaterials for drug delivery. Extracellular vesicles (EVs) are produced by all cell types and serve as biological packets delivering a wide variety of molecules for cell-to-cell communication. However, the biology of the EV extravesicular surface domain that we have termed EV 'biocorona' remains underexplored. Upon cell secretion, EVs possess an innate biocorona containing membrane integral and peripheral constituents that is modified by acquired constituents post secretion. This distinguishes EVs from synthetic nanoparticulate biomaterials that are limited to an adsorption-based, acquired biocorona. The EV biocorona molecular constituents were radiolabeled with I to study biocorona constituents and its surface dynamics. As example toolset applications, I-EVs were utilized to study EV cell trafficking and the stability of the EV biocorona during storage. The biocorona of EVs consisted of proteins, lipids, DNA and RNA. The cellular uptake of I-EVs was temperature dependent and internalized I-EVs were rapidly recycled by cells. When I-EVs were stored in a purified state, they exhibited time and temperature dependent biocorona shedding and proteolytic degradation that was partially inhibited in the presence of serum. The EV biocorona is complex and dynamic. Radiolabeling of the EV biocorona enables a unique platform methodology to study the biocorona and will facilitate unlocking EV's full clinical translation potential. The EV biocorona affects EV mediated biological processes in health and disease. Acquiring knowledge of the EV biocorona composition, dynamics, stability and structure not only informs the diagnostic and therapeutic translation of EVs but also aids in designing biomimetic nanomaterials for drug delivery. Extracellular vesicles (EVs) are produced by all cell types and serve as biological packets delivering a wide variety of molecules for cell-to-cell communication. However, the biology of the EV extravesicular surface domain that we have termed EV ‘biocorona’ remains underexplored. Upon cell secretion, EVs possess an innate biocorona containing membrane integral and peripheral constituents that is modified by acquired constituents post secretion. This distinguishes EVs from synthetic nanoparticulate biomaterials that are limited to an adsorption-based, acquired biocorona. The EV biocorona molecular constituents were radiolabeled with 125I to study biocorona constituents and its surface dynamics. As example toolset applications, 125I-EVs were utilized to study EV cell trafficking and the stability of the EV biocorona during storage. The biocorona of EVs consisted of proteins, lipids, DNA and RNA. The cellular uptake of 125I-EVs was temperature dependent and internalized 125I-EVs were rapidly recycled by cells. When 125I-EVs were stored in a purified state, they exhibited time and temperature dependent biocorona shedding and proteolytic degradation that was partially inhibited in the presence of serum. The EV biocorona is complex and dynamic. Radiolabeling of the EV biocorona enables a unique platform methodology to study the biocorona and will facilitate unlocking EV's full clinical translation potential. The EV biocorona affects EV mediated biological processes in health and disease. Acquiring knowledge of the EV biocorona composition, dynamics, stability and structure not only informs the diagnostic and therapeutic translation of EVs but also aids in designing biomimetic nanomaterials for drug delivery. [Display omitted] •The extracellular vesicle (EV) has a complex ‘biocorona’ that consists of proteins, lipids, DNA and RNA.•Nucleic acids in the EV biocorona are both membrane protein bound and non-protein bound.•The biocorona exhibits time and temperature dependent proteolytic shedding and degradation.•Cell trafficking of EVs includes rapid recycling of internalized EVs. |
ArticleNumber | 130069 |
Author | Yerneni, Saigopalakrishna S. Campbell, Phil G. Solomon, Talia Smith, Jason |
Author_xml | – sequence: 1 givenname: Saigopalakrishna S. surname: Yerneni fullname: Yerneni, Saigopalakrishna S. organization: Department of Biomedical Engineering, Carnegie Mellon University, Pittsburgh, PA, United States of America – sequence: 2 givenname: Talia surname: Solomon fullname: Solomon, Talia organization: Department of Biomedical Engineering, Carnegie Mellon University, Pittsburgh, PA, United States of America – sequence: 3 givenname: Jason surname: Smith fullname: Smith, Jason organization: Engineering Research Accelerator, Carnegie Mellon University, Pittsburgh, PA, United States of America – sequence: 4 givenname: Phil G. surname: Campbell fullname: Campbell, Phil G. email: pcampbel@cs.cmu.edu organization: Department of Biomedical Engineering, Carnegie Mellon University, Pittsburgh, PA, United States of America |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/34906563$$D View this record in MEDLINE/PubMed |
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Keywords | Extracellular vesicles Radiolabeling Biocorona Corona Storage artifacts Cell trafficking |
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Snippet | Extracellular vesicles (EVs) are produced by all cell types and serve as biological packets delivering a wide variety of molecules for cell-to-cell... |
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SubjectTerms | biocompatible materials Biocorona biomimetics cell communication Cell trafficking Corona DNA drugs Extracellular vesicles Extracellular Vesicles - chemistry Extracellular Vesicles - metabolism Humans Iodine Radioisotopes - chemistry proteolysis Radiolabeling RNA secretion Storage artifacts storage quality temperature therapeutics |
Title | Radioiodination of extravesicular surface constituents to study the biocorona, cell trafficking and storage stability of extracellular vesicles |
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