Combinatorial nanodot stripe assay to systematically study cell haptotaxis

Cytology: Nanodot stripe assay for studying cell haptotaxis Critical to cell guidance and development, haptotaxis is directional cell movement in response to an adhesive substrate, and a method has been developed using nanodot stripe assays (NSAs) to systematically study haptotaxis that supersedes c...

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Main Authors: Mcolisi Dlamini, Timothy E. Kennedy, David Juncker
Format: Article
Language:English
Published: Nature Publishing Group 2020-12-01
Series:Microsystems & Nanoengineering
Online Access:https://doi.org/10.1038/s41378-020-00223-0
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spelling doaj-6c5c4838cf964d5ba0376a4430c6241f2020-12-20T12:11:27ZengNature Publishing GroupMicrosystems & Nanoengineering2055-74342020-12-016111210.1038/s41378-020-00223-0Combinatorial nanodot stripe assay to systematically study cell haptotaxisMcolisi Dlamini0Timothy E. Kennedy1David Juncker2Biomedical Engineering Department, McGill UniversityMcGill Program in NeuroengineeringBiomedical Engineering Department, McGill UniversityCytology: Nanodot stripe assay for studying cell haptotaxis Critical to cell guidance and development, haptotaxis is directional cell movement in response to an adhesive substrate, and a method has been developed using nanodot stripe assays (NSAs) to systematically study haptotaxis that supersedes conventional stripe assays. Hitherto, haptotaxis has been studied in vitro using standard stripe assays, which offer only a binary choice between full or zero response to a protein: the assays measure cellular responses under extreme conditions that do not reflect in vivo situations. However, a group headed by David Juncker at McGill University, Canada has succeeded in producing NSAs, which are formed by adjacent stripes of nanodot arrays, that in addition to the extremes, include 5 intermediate surface densities. The team used a combination of 21 NSAs of the Netrin-1 protein to study the migration choices of cells to both the extreme and 20 intermediate conditions. The authors believe their approach can better elucidate haptotactic choices and mechanisms.https://doi.org/10.1038/s41378-020-00223-0
collection DOAJ
language English
format Article
sources DOAJ
author Mcolisi Dlamini
Timothy E. Kennedy
David Juncker
spellingShingle Mcolisi Dlamini
Timothy E. Kennedy
David Juncker
Combinatorial nanodot stripe assay to systematically study cell haptotaxis
Microsystems & Nanoengineering
author_facet Mcolisi Dlamini
Timothy E. Kennedy
David Juncker
author_sort Mcolisi Dlamini
title Combinatorial nanodot stripe assay to systematically study cell haptotaxis
title_short Combinatorial nanodot stripe assay to systematically study cell haptotaxis
title_full Combinatorial nanodot stripe assay to systematically study cell haptotaxis
title_fullStr Combinatorial nanodot stripe assay to systematically study cell haptotaxis
title_full_unstemmed Combinatorial nanodot stripe assay to systematically study cell haptotaxis
title_sort combinatorial nanodot stripe assay to systematically study cell haptotaxis
publisher Nature Publishing Group
series Microsystems & Nanoengineering
issn 2055-7434
publishDate 2020-12-01
description Cytology: Nanodot stripe assay for studying cell haptotaxis Critical to cell guidance and development, haptotaxis is directional cell movement in response to an adhesive substrate, and a method has been developed using nanodot stripe assays (NSAs) to systematically study haptotaxis that supersedes conventional stripe assays. Hitherto, haptotaxis has been studied in vitro using standard stripe assays, which offer only a binary choice between full or zero response to a protein: the assays measure cellular responses under extreme conditions that do not reflect in vivo situations. However, a group headed by David Juncker at McGill University, Canada has succeeded in producing NSAs, which are formed by adjacent stripes of nanodot arrays, that in addition to the extremes, include 5 intermediate surface densities. The team used a combination of 21 NSAs of the Netrin-1 protein to study the migration choices of cells to both the extreme and 20 intermediate conditions. The authors believe their approach can better elucidate haptotactic choices and mechanisms.
url https://doi.org/10.1038/s41378-020-00223-0
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