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Gene-Tailored Treatments for Brain Disorders: Challenges and Opportunities


Esposito, G; Burgunder, J M; Dunlop, J; Gorwood, P; Inamdar, A; Pfister, S M; Pochet, R; van den Bent, M J; Van Hoylandt, N; Weller, M; Westphal, M; Wick, W; Nutt, D (2016). Gene-Tailored Treatments for Brain Disorders: Challenges and Opportunities. Public Health Genomics, 19(3):170-177.

Abstract

Brain disorders pose major challenges to medicine and treatment innovation. This is because their spectrum spans inflammatory, degenerative, traumatic/ischaemic, and neoplastic disease processes with a complex and often ill- understood aetiology. An improved genetic and genomic understanding of specific disease pathways offers new approaches to these challenges, but at present it is in its infancy. Here, we review different aspects of the challenges facing neuromedicine, give examples of where there are advances, and highlight challenges to be overcome. We see that some disorders such as Huntington's disease are the product of single gene mutations, whose discovery has been leading to the development of new targeted interventions. In the field of neurosurgery, the identification of a number of mutations allows an elaborated genetic analysis of brain tumours and opens the door to individualised therapies. Psychiatric disorders remain the area where progress is slow. Genetic analyses show that for major common disorders such as schizophrenia and depression there are no single gene alterations which offer options for targeted therapy development. However, new approaches are being developed to leverage genetic information to predict patients' responses to treatment. These recent developments hold promise for early diagnosis, follow-up with personalised treatments with adjusted therapeutic doses, predictable responses, reduced adverse drug reactions, and personal health planning. The scenario is promising but calls for increased support for curiosity-driven research into the mechanisms of normal brain functioning as well as challenging adaptations of health care and research infrastructures, encompassing legal frameworks for analysing large amounts of personal data, a flexible regulatory framework for correlating big data analyses in cooperative networks between academia and the drug development industry, and finally new strategies for brain banking in order to increase access to brain tissue samples. To make personalised medicine for brain disorders a reality, a joint effort between all relevant stakeholders - among which patients and patient organisations should play an important role - is required.

Abstract

Brain disorders pose major challenges to medicine and treatment innovation. This is because their spectrum spans inflammatory, degenerative, traumatic/ischaemic, and neoplastic disease processes with a complex and often ill- understood aetiology. An improved genetic and genomic understanding of specific disease pathways offers new approaches to these challenges, but at present it is in its infancy. Here, we review different aspects of the challenges facing neuromedicine, give examples of where there are advances, and highlight challenges to be overcome. We see that some disorders such as Huntington's disease are the product of single gene mutations, whose discovery has been leading to the development of new targeted interventions. In the field of neurosurgery, the identification of a number of mutations allows an elaborated genetic analysis of brain tumours and opens the door to individualised therapies. Psychiatric disorders remain the area where progress is slow. Genetic analyses show that for major common disorders such as schizophrenia and depression there are no single gene alterations which offer options for targeted therapy development. However, new approaches are being developed to leverage genetic information to predict patients' responses to treatment. These recent developments hold promise for early diagnosis, follow-up with personalised treatments with adjusted therapeutic doses, predictable responses, reduced adverse drug reactions, and personal health planning. The scenario is promising but calls for increased support for curiosity-driven research into the mechanisms of normal brain functioning as well as challenging adaptations of health care and research infrastructures, encompassing legal frameworks for analysing large amounts of personal data, a flexible regulatory framework for correlating big data analyses in cooperative networks between academia and the drug development industry, and finally new strategies for brain banking in order to increase access to brain tissue samples. To make personalised medicine for brain disorders a reality, a joint effort between all relevant stakeholders - among which patients and patient organisations should play an important role - is required.

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Additional indexing

Item Type:Journal Article, refereed, further contribution
Communities & Collections:04 Faculty of Medicine > University Hospital Zurich > Clinic for Neurology
Dewey Decimal Classification:610 Medicine & health
Language:English
Date:2016
Deposited On:10 Nov 2016 07:44
Last Modified:01 Jun 2017 00:01
Publisher:Karger
ISSN:1662-4246
Publisher DOI:https://doi.org/10.1159/000446535
PubMed ID:27238144

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