Cargando…

Genetic diseases conferring resistance to infectious diseases

This review considers available evidence for mechanisms of conferred adaptive advantages in the face of specific infectious diseases. In short, we explore a number of genetic conditions, which carry some benefits in adverse circumstances including exposure to infectious agents. The examples discusse...

Descripción completa

Detalles Bibliográficos
Autores principales: Withrock, Isabelle C., Anderson, Stephen J., Jefferson, Matthew A., McCormack, Garrett R., Mlynarczyk, Gregory S.A., Nakama, Aron, Lange, Jennifer K., Berg, Carrie A., Acharya, Sreemoyee, Stock, Matthew L., Lind, Melissa S., Luna, K.C., Kondru, Naveen C., Manne, Sireesha, Patel, Bhavika B., de la Rosa, Bierlein M., Huang, Kuei-Pin, Sharma, Shaunik, Hu, Hilary Z., Kanuri, Sri Harsha, Carlson, Steve A.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Chongqing Medical University 2015
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6150079/
https://www.ncbi.nlm.nih.gov/pubmed/30258868
http://dx.doi.org/10.1016/j.gendis.2015.02.008
_version_ 1783356924226437120
author Withrock, Isabelle C.
Anderson, Stephen J.
Jefferson, Matthew A.
McCormack, Garrett R.
Mlynarczyk, Gregory S.A.
Nakama, Aron
Lange, Jennifer K.
Berg, Carrie A.
Acharya, Sreemoyee
Stock, Matthew L.
Lind, Melissa S.
Luna, K.C.
Kondru, Naveen C.
Manne, Sireesha
Patel, Bhavika B.
de la Rosa, Bierlein M.
Huang, Kuei-Pin
Sharma, Shaunik
Hu, Hilary Z.
Kanuri, Sri Harsha
Carlson, Steve A.
author_facet Withrock, Isabelle C.
Anderson, Stephen J.
Jefferson, Matthew A.
McCormack, Garrett R.
Mlynarczyk, Gregory S.A.
Nakama, Aron
Lange, Jennifer K.
Berg, Carrie A.
Acharya, Sreemoyee
Stock, Matthew L.
Lind, Melissa S.
Luna, K.C.
Kondru, Naveen C.
Manne, Sireesha
Patel, Bhavika B.
de la Rosa, Bierlein M.
Huang, Kuei-Pin
Sharma, Shaunik
Hu, Hilary Z.
Kanuri, Sri Harsha
Carlson, Steve A.
author_sort Withrock, Isabelle C.
collection PubMed
description This review considers available evidence for mechanisms of conferred adaptive advantages in the face of specific infectious diseases. In short, we explore a number of genetic conditions, which carry some benefits in adverse circumstances including exposure to infectious agents. The examples discussed are conditions known to result in resistance to a specific infectious disease, or have been proposed as being associated with resistance to various infectious diseases. These infectious disease—genetic disorder pairings include malaria and hemoglobinopathies, cholera and cystic fibrosis, tuberculosis and Tay-Sachs disease, mycotic abortions and phenylketonuria, infection by enveloped viruses and disorders of glycosylation, infection by filoviruses and Niemann–Pick C1 disease, as well as rabies and myasthenia gravis. We also discuss two genetic conditions that lead to infectious disease hypersusceptibility, although we did not cover the large number of immunologic defects leading to infectious disease hypersusceptibilities. Four of the resistance-associated pairings (malaria/hemogloginopathies, cholera/cystic fibrosis, tuberculosis/Tay-Sachs, and mycotic abortions/phenylketonuria) appear to be a result of selection pressures in geographic regions in which the specific infectious agent is endemic. The other pairings do not appear to be based on selection pressure and instead may be serendipitous. Nonetheless, research investigating these relationships may lead to treatment options for the aforementioned diseases by exploiting established mechanisms between genetically affected cells and infectious organisms. This may prove invaluable as a starting point for research in the case of diseases that currently have no reliably curative treatments, e.g., HIV, rabies, and Ebola.
format Online
Article
Text
id pubmed-6150079
institution National Center for Biotechnology Information
language English
publishDate 2015
publisher Chongqing Medical University
record_format MEDLINE/PubMed
spelling pubmed-61500792018-09-26 Genetic diseases conferring resistance to infectious diseases Withrock, Isabelle C. Anderson, Stephen J. Jefferson, Matthew A. McCormack, Garrett R. Mlynarczyk, Gregory S.A. Nakama, Aron Lange, Jennifer K. Berg, Carrie A. Acharya, Sreemoyee Stock, Matthew L. Lind, Melissa S. Luna, K.C. Kondru, Naveen C. Manne, Sireesha Patel, Bhavika B. de la Rosa, Bierlein M. Huang, Kuei-Pin Sharma, Shaunik Hu, Hilary Z. Kanuri, Sri Harsha Carlson, Steve A. Genes Dis Article This review considers available evidence for mechanisms of conferred adaptive advantages in the face of specific infectious diseases. In short, we explore a number of genetic conditions, which carry some benefits in adverse circumstances including exposure to infectious agents. The examples discussed are conditions known to result in resistance to a specific infectious disease, or have been proposed as being associated with resistance to various infectious diseases. These infectious disease—genetic disorder pairings include malaria and hemoglobinopathies, cholera and cystic fibrosis, tuberculosis and Tay-Sachs disease, mycotic abortions and phenylketonuria, infection by enveloped viruses and disorders of glycosylation, infection by filoviruses and Niemann–Pick C1 disease, as well as rabies and myasthenia gravis. We also discuss two genetic conditions that lead to infectious disease hypersusceptibility, although we did not cover the large number of immunologic defects leading to infectious disease hypersusceptibilities. Four of the resistance-associated pairings (malaria/hemogloginopathies, cholera/cystic fibrosis, tuberculosis/Tay-Sachs, and mycotic abortions/phenylketonuria) appear to be a result of selection pressures in geographic regions in which the specific infectious agent is endemic. The other pairings do not appear to be based on selection pressure and instead may be serendipitous. Nonetheless, research investigating these relationships may lead to treatment options for the aforementioned diseases by exploiting established mechanisms between genetically affected cells and infectious organisms. This may prove invaluable as a starting point for research in the case of diseases that currently have no reliably curative treatments, e.g., HIV, rabies, and Ebola. Chongqing Medical University 2015-02-25 /pmc/articles/PMC6150079/ /pubmed/30258868 http://dx.doi.org/10.1016/j.gendis.2015.02.008 Text en Copyright © 2015, Chongqing Medical University. Production and hosting by Elsevier B.V. http://creativecommons.org/licenses/by-nc-nd/4.0/ This is an open access article under the CC BY-NC-ND license (http://creativecommons.org/licenses/by-nc-nd/4.0/).
spellingShingle Article
Withrock, Isabelle C.
Anderson, Stephen J.
Jefferson, Matthew A.
McCormack, Garrett R.
Mlynarczyk, Gregory S.A.
Nakama, Aron
Lange, Jennifer K.
Berg, Carrie A.
Acharya, Sreemoyee
Stock, Matthew L.
Lind, Melissa S.
Luna, K.C.
Kondru, Naveen C.
Manne, Sireesha
Patel, Bhavika B.
de la Rosa, Bierlein M.
Huang, Kuei-Pin
Sharma, Shaunik
Hu, Hilary Z.
Kanuri, Sri Harsha
Carlson, Steve A.
Genetic diseases conferring resistance to infectious diseases
title Genetic diseases conferring resistance to infectious diseases
title_full Genetic diseases conferring resistance to infectious diseases
title_fullStr Genetic diseases conferring resistance to infectious diseases
title_full_unstemmed Genetic diseases conferring resistance to infectious diseases
title_short Genetic diseases conferring resistance to infectious diseases
title_sort genetic diseases conferring resistance to infectious diseases
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6150079/
https://www.ncbi.nlm.nih.gov/pubmed/30258868
http://dx.doi.org/10.1016/j.gendis.2015.02.008
work_keys_str_mv AT withrockisabellec geneticdiseasesconferringresistancetoinfectiousdiseases
AT andersonstephenj geneticdiseasesconferringresistancetoinfectiousdiseases
AT jeffersonmatthewa geneticdiseasesconferringresistancetoinfectiousdiseases
AT mccormackgarrettr geneticdiseasesconferringresistancetoinfectiousdiseases
AT mlynarczykgregorysa geneticdiseasesconferringresistancetoinfectiousdiseases
AT nakamaaron geneticdiseasesconferringresistancetoinfectiousdiseases
AT langejenniferk geneticdiseasesconferringresistancetoinfectiousdiseases
AT bergcarriea geneticdiseasesconferringresistancetoinfectiousdiseases
AT acharyasreemoyee geneticdiseasesconferringresistancetoinfectiousdiseases
AT stockmatthewl geneticdiseasesconferringresistancetoinfectiousdiseases
AT lindmelissas geneticdiseasesconferringresistancetoinfectiousdiseases
AT lunakc geneticdiseasesconferringresistancetoinfectiousdiseases
AT kondrunaveenc geneticdiseasesconferringresistancetoinfectiousdiseases
AT mannesireesha geneticdiseasesconferringresistancetoinfectiousdiseases
AT patelbhavikab geneticdiseasesconferringresistancetoinfectiousdiseases
AT delarosabierleinm geneticdiseasesconferringresistancetoinfectiousdiseases
AT huangkueipin geneticdiseasesconferringresistancetoinfectiousdiseases
AT sharmashaunik geneticdiseasesconferringresistancetoinfectiousdiseases
AT huhilaryz geneticdiseasesconferringresistancetoinfectiousdiseases
AT kanurisriharsha geneticdiseasesconferringresistancetoinfectiousdiseases
AT carlsonstevea geneticdiseasesconferringresistancetoinfectiousdiseases