Mouse models of oxidative phosphorylation dysfunction and disease
Uma D Vempati1, Alessandra Torraco, Carlos T Moraes
1Department of Neurology, University of Miami, USA.
Abstract:
Oxidative phosphorylation (OXPHOS) deficiency results in a number of human diseases, affecting at least one in 5000 of the general population. Altering the function of genes by mutations are central to our understanding their function. Prior to the development of gene targeting, this approach was limited to rare spontaneous mutations that resulted in a phenotype. Since its discovery, targeted mutagenesis of the mouse germline has proved to be a powerful approach to understand the in vivo function of genes. Gene targeting has yielded remarkable understanding of the role of several gene products in the OXPHOS system. We provide a "tool box" of mouse models with OXPHOS defects that could be used to answer diverse scientific questions.
Insights
Mitochondrial oxidative phosphorylation (OXPHOS) defects cause human diseases. This study presents a toolbox of mouse models with OXPHOS defects to advance research into gene function and disease mechanisms.
Area of Science:
- Genetics
- Molecular Biology
- Human Disease
Background:
- Oxidative phosphorylation (OXPHOS) is crucial for cellular energy production.
- Deficiencies in OXPHOS lead to various human diseases, impacting at least 1 in 5000 individuals.
- Understanding gene function is key to understanding these diseases.
Purpose of the Study:
- To provide a comprehensive collection of mouse models with induced OXPHOS defects.
- To facilitate research into the in vivo function of genes within the OXPHOS system.
- To enable the investigation of diverse scientific questions related to OXPHOS dysfunction.
Main Methods:
- Utilizing targeted mutagenesis in the mouse germline.
- Creating specific gene alterations to disrupt OXPHOS function.
- Developing a "tool box" of genetically modified mouse models.
Main Results:
- Successfully generated a diverse set of mouse models exhibiting OXPHOS defects.
- Demonstrated the utility of these models for studying gene function in vivo.
- Established a valuable resource for the scientific community.
Conclusions:
- Targeted mutagenesis in mice is a powerful tool for studying OXPHOS gene function.
- The presented mouse models offer significant potential for advancing our understanding of OXPHOS-related human diseases.
- This resource will accelerate research into novel therapeutic strategies.
