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Optimization of Field-Free Point Position, Gradient Field and Ferromagnetic Polymer Ratio for Enhanc...

Optimization of Field-Free Point Position, Gradient Field and Ferromagnetic Polymer Ratio for Enhanc...

https://devfeature-collection.sl.nsw.gov.au/record/TN_cdi_doaj_primary_oai_doaj_org_article_35f7ae403d534241aca1f9f623638279

Optimization of Field-Free Point Position, Gradient Field and Ferromagnetic Polymer Ratio for Enhanced Navigation of Magnetically Controlled Polymer-Based Microrobots in Blood Vessel

About this item

Full title

Optimization of Field-Free Point Position, Gradient Field and Ferromagnetic Polymer Ratio for Enhanced Navigation of Magnetically Controlled Polymer-Based Microrobots in Blood Vessel

Publisher

Switzerland: MDPI AG

Journal title

Micromachines (Basel), 2021-04, Vol.12 (4), p.424

Language

English

Formats

Publication information

Publisher

Switzerland: MDPI AG

More information

Scope and Contents

Contents

Microscale and nanoscale robots, frequently referred to as future cargo systems for targeted drug delivery, can effectively convert magnetic energy into locomotion. However, navigating and imaging them within a complex colloidal vascular system at a clinical scale is exigent. Hence, a more precise and enhanced hybrid control navigation and imaging...

Alternative Titles

Full title

Optimization of Field-Free Point Position, Gradient Field and Ferromagnetic Polymer Ratio for Enhanced Navigation of Magnetically Controlled Polymer-Based Microrobots in Blood Vessel

Authors, Artists and Contributors

Identifiers

Primary Identifiers

Record Identifier

TN_cdi_doaj_primary_oai_doaj_org_article_35f7ae403d534241aca1f9f623638279

Permalink

https://devfeature-collection.sl.nsw.gov.au/record/TN_cdi_doaj_primary_oai_doaj_org_article_35f7ae403d534241aca1f9f623638279

Other Identifiers

ISSN

2072-666X

E-ISSN

2072-666X

DOI

10.3390/mi12040424

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