Description
The interplay between genotype and phenotype is governed by a multitude of genetic interactions (GIs), and the mapping of GI networks holds significant importance for two main reasons: (1) GIs offer a valuable means to uncover compensatory biological mechanisms by modelling biological robustness, thereby identifying functional relationships between genes. This aspect is particularly relevant for biological exploration and translational research, as biological systems have evolved to compensate for genetic (i.e. variations, mutations) and environmental (i.e. drug efficacy) perturbations by leveraging compensatory relationships between genes, pathways, and biological processes; (2) GI facilitates the identification of the direction (positive/alleviating or negative/aggravating interactions) and magnitude of epistatic interactions that influence the resulting phenotype. While comprehensive GI databases exist for organisms like yeast, generating GIs for human diseases through experimental biology methods such as systematic deletion analysis is infeasible. Furthermore, generating disease-specific GIs in humans has not been previously attempted.
We will use a large schizophrenia case-control genetic dataset to generate and validate GIs.
Essential criteria:
Minimum entry requirements can be found here: https://www.monash.edu/admissions/entry-requirements/minimum
Keywords
Systems Biology, Epistasis, Schizophrenia, Bioinformatics, Genomics
School
School of Clinical Sciences at Monash Health / Hudson Institute of Medical Research » Psychiatry
Available options
PhD/Doctorate
Masters by research
Honours
Joint PhD/Exchange Program
Time commitment
Full-time
Part-time
Top-up scholarship funding available
No
Physical location
Monash Medical Centre Clayton