High‐Preservation Single‐Cell Operation through a Photo‐responsive Hydrogel‐Nanopipette System
Single‐cell and in situ cell‐based operation with nanopipette approach offers a possibility to elucidate the intracellular processes and may aid the improvement of therapy efficiency and precision. We present here a photo‐responsive hydrogel‐nanopipette hybrid system that can achieve single‐cell ope...
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| Published in | Angewandte Chemie International Edition Vol. 60; no. 10; pp. 5157 - 5161 |
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| Main Authors | , , , , , , |
| Format | Journal Article |
| Language | English |
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Germany
Wiley Subscription Services, Inc
01.03.2021
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| Edition | International ed. in English |
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| Online Access | Get full text |
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| Abstract | Single‐cell and in situ cell‐based operation with nanopipette approach offers a possibility to elucidate the intracellular processes and may aid the improvement of therapy efficiency and precision. We present here a photo‐responsive hydrogel‐nanopipette hybrid system that can achieve single‐cell operation with high spatial/temporal resolution and negligible cell damage. This strategy overcomes long‐time obstacles in nanopipette single‐cell studies as high electric potential (ca. 1000 mV) or organic solvent is always used during operations, which would inevitably impose disturbance and damage to targeted cells. The light‐triggered system promotes a potential‐free, non‐invasive single‐cell injection, resulting in a well‐retained cell viability (90 % survival rate). Moreover, the photo‐driven injection enables a precisely dose‐controllable single‐cell drug delivery. Significantly reduced lethal doses of doxorubicin (163–217 fg cell−1) are demonstrated in corresponding cell lines.
The fabrication of photo‐responsive hydrogel‐nanopipette system ensures both precision single‐cell operation and high cell preservation. Upon light‐controlled, non‐invasive operation, a high cell viability over 90 % as well as precise quantification of injection are obtained. Hence, a single‐cell precise‐dosing is achieved with a minimum lethal dose of 163–217 fg cell−1. |
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| AbstractList | Single-cell and in situ cell-based operation with nanopipette approach offers a possibility to elucidate the intracellular processes and may aid the improvement of therapy efficiency and precision. We present here a photo-responsive hydrogel-nanopipette hybrid system that can achieve single-cell operation with high spatial/temporal resolution and negligible cell damage. This strategy overcomes long-time obstacles in nanopipette single-cell studies as high electric potential (ca. 1000 mV) or organic solvent is always used during operations, which would inevitably impose disturbance and damage to targeted cells. The light-triggered system promotes a potential-free, non-invasive single-cell injection, resulting in a well-retained cell viability (90 % survival rate). Moreover, the photo-driven injection enables a precisely dose-controllable single-cell drug delivery. Significantly reduced lethal doses of doxorubicin (163-217 fg cell
) are demonstrated in corresponding cell lines. Single‐cell and in situ cell‐based operation with nanopipette approach offers a possibility to elucidate the intracellular processes and may aid the improvement of therapy efficiency and precision. We present here a photo‐responsive hydrogel‐nanopipette hybrid system that can achieve single‐cell operation with high spatial/temporal resolution and negligible cell damage. This strategy overcomes long‐time obstacles in nanopipette single‐cell studies as high electric potential (ca. 1000 mV) or organic solvent is always used during operations, which would inevitably impose disturbance and damage to targeted cells. The light‐triggered system promotes a potential‐free, non‐invasive single‐cell injection, resulting in a well‐retained cell viability (90 % survival rate). Moreover, the photo‐driven injection enables a precisely dose‐controllable single‐cell drug delivery. Significantly reduced lethal doses of doxorubicin (163–217 fg cell−1) are demonstrated in corresponding cell lines. The fabrication of photo‐responsive hydrogel‐nanopipette system ensures both precision single‐cell operation and high cell preservation. Upon light‐controlled, non‐invasive operation, a high cell viability over 90 % as well as precise quantification of injection are obtained. Hence, a single‐cell precise‐dosing is achieved with a minimum lethal dose of 163–217 fg cell−1. Single‐cell and in situ cell‐based operation with nanopipette approach offers a possibility to elucidate the intracellular processes and may aid the improvement of therapy efficiency and precision. We present here a photo‐responsive hydrogel‐nanopipette hybrid system that can achieve single‐cell operation with high spatial/temporal resolution and negligible cell damage. This strategy overcomes long‐time obstacles in nanopipette single‐cell studies as high electric potential (ca. 1000 mV) or organic solvent is always used during operations, which would inevitably impose disturbance and damage to targeted cells. The light‐triggered system promotes a potential‐free, non‐invasive single‐cell injection, resulting in a well‐retained cell viability (90 % survival rate). Moreover, the photo‐driven injection enables a precisely dose‐controllable single‐cell drug delivery. Significantly reduced lethal doses of doxorubicin (163–217 fg cell−1) are demonstrated in corresponding cell lines. Single‐cell and in situ cell‐based operation with nanopipette approach offers a possibility to elucidate the intracellular processes and may aid the improvement of therapy efficiency and precision. We present here a photo‐responsive hydrogel‐nanopipette hybrid system that can achieve single‐cell operation with high spatial/temporal resolution and negligible cell damage. This strategy overcomes long‐time obstacles in nanopipette single‐cell studies as high electric potential (ca. 1000 mV) or organic solvent is always used during operations, which would inevitably impose disturbance and damage to targeted cells. The light‐triggered system promotes a potential‐free, non‐invasive single‐cell injection, resulting in a well‐retained cell viability (90 % survival rate). Moreover, the photo‐driven injection enables a precisely dose‐controllable single‐cell drug delivery. Significantly reduced lethal doses of doxorubicin (163–217 fg cell −1 ) are demonstrated in corresponding cell lines. Single-cell and in situ cell-based operation with nanopipette approach offers a possibility to elucidate the intracellular processes and may aid the improvement of therapy efficiency and precision. We present here a photo-responsive hydrogel-nanopipette hybrid system that can achieve single-cell operation with high spatial/temporal resolution and negligible cell damage. This strategy overcomes long-time obstacles in nanopipette single-cell studies as high electric potential (ca. 1000 mV) or organic solvent is always used during operations, which would inevitably impose disturbance and damage to targeted cells. The light-triggered system promotes a potential-free, non-invasive single-cell injection, resulting in a well-retained cell viability (90 % survival rate). Moreover, the photo-driven injection enables a precisely dose-controllable single-cell drug delivery. Significantly reduced lethal doses of doxorubicin (163-217 fg cell-1 ) are demonstrated in corresponding cell lines.Single-cell and in situ cell-based operation with nanopipette approach offers a possibility to elucidate the intracellular processes and may aid the improvement of therapy efficiency and precision. We present here a photo-responsive hydrogel-nanopipette hybrid system that can achieve single-cell operation with high spatial/temporal resolution and negligible cell damage. This strategy overcomes long-time obstacles in nanopipette single-cell studies as high electric potential (ca. 1000 mV) or organic solvent is always used during operations, which would inevitably impose disturbance and damage to targeted cells. The light-triggered system promotes a potential-free, non-invasive single-cell injection, resulting in a well-retained cell viability (90 % survival rate). Moreover, the photo-driven injection enables a precisely dose-controllable single-cell drug delivery. Significantly reduced lethal doses of doxorubicin (163-217 fg cell-1 ) are demonstrated in corresponding cell lines. |
| Author | Li, Yuan‐Jie Wang, Wenhui Liu, Ying‐Ya Song, Yanyan Zhang, Junji Tian, He Li, Zi‐Yuan |
| Author_xml | – sequence: 1 givenname: Zi‐Yuan surname: Li fullname: Li, Zi‐Yuan organization: East China University of Science & Technology – sequence: 2 givenname: Ying‐Ya surname: Liu fullname: Liu, Ying‐Ya organization: East China University of Science & Technology – sequence: 3 givenname: Yuan‐Jie surname: Li fullname: Li, Yuan‐Jie organization: East China University of Science & Technology – sequence: 4 givenname: Wenhui surname: Wang fullname: Wang, Wenhui organization: East China University of Science & Technology – sequence: 5 givenname: Yanyan surname: Song fullname: Song, Yanyan organization: East China University of Science & Technology – sequence: 6 givenname: Junji orcidid: 0000-0003-2823-4637 surname: Zhang fullname: Zhang, Junji email: zhangjunji@ecust.edu.cn organization: East China University of Science & Technology – sequence: 7 givenname: He orcidid: 0000-0003-3547-7485 surname: Tian fullname: Tian, He organization: East China University of Science & Technology |
| BackLink | https://www.ncbi.nlm.nih.gov/pubmed/33241876$$D View this record in MEDLINE/PubMed |
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| SubjectTerms | Cell lines Cell survival Cell viability Damage diarylethene Dosage Doxorubicin Drug delivery Electric potential Hybrid systems Hydrogels Injection potential-free nanopipette precise dosing single-cell operation supramolecular hydrogel Survival Temporal resolution |
| Title | High‐Preservation Single‐Cell Operation through a Photo‐responsive Hydrogel‐Nanopipette System |
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