Regulation of nerve growth and patterning by cell surface protein disulphide isomerase

Author:

Cook Geoffrey MW1,Sousa Catia12,Schaeffer Julia1,Wiles Katherine13,Jareonsettasin Prem14,Kalyanasundaram Asanish15,Walder Eleanor15,Casper Catharina16,Patel Serena15,Chua Pei Wei17,Riboni-Verri Gioia18,Raza Mansoor9,Swaddiwudhipong Nol1,Hui Andrew1,Abdullah Ameer1,Wajed Saj110,Keynes Roger J1ORCID

Affiliation:

1. Department of Physiology, Development and Neuroscience, University of Cambridge, Cambridge, United Kingdom

2. Grenoble Institute des Neurosciences, La Tronche, France

3. Independent researcher, London, United Kingdom

4. Exeter College, Oxford, United Kingdom

5. School of Clinical Medicine, Cambridge University Hospitals, Cambridge, United Kingdom

6. Winter, Brandl, Fürniss, Hübner, Röss, Kaiser & Polte, Partnerschaft mbB, Patent und Rechtsanwaltskanzlei, München, Germany

7. School of Medicine and Health Sciences, Monash University, Bandar Sunway, Malaysia

8. School of Medicine, Medical Science and Nutrition, University of Aberdeen, Aberdeen, United Kingdom

9. Cambridge Innovation Capital, Cambridge, United Kingdom

10. University of Exeter Medical School, Exeter, United Kingdom

Abstract

Contact repulsion of growing axons is an essential mechanism for spinal nerve patterning. In birds and mammals the embryonic somites generate a linear series of impenetrable barriers, forcing axon growth cones to traverse one half of each somite as they extend towards their body targets. This study shows that protein disulphide isomerase provides a key component of these barriers, mediating contact repulsion at the cell surface in chick half-somites. Repulsion is reduced both in vivo and in vitro by a range of methods that inhibit enzyme activity. The activity is critical in initiating a nitric oxide/S-nitrosylation-dependent signal transduction pathway that regulates the growth cone cytoskeleton. Rat forebrain grey matter extracts contain a similar activity, and the enzyme is expressed at the surface of cultured human astrocytic cells and rat cortical astrocytes. We suggest this system is co-opted in the brain to counteract and regulate aberrant nerve terminal growth.

Funder

Medical Research Council

Wellcome

Spinal Research

Trinity College, University of Cambridge

University of Cambridge

Rosetrees Trust

The Anatomical Society

Amgen Foundation

Publisher

eLife Sciences Publications, Ltd

Subject

General Immunology and Microbiology,General Biochemistry, Genetics and Molecular Biology,General Medicine,General Neuroscience

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