Biomedical Engineering

The 3D genome organisation regulates gene expression by bringing distal regulatory elements, such as enhancers, to promoters in close spatial proximity. While many scientists have been working on cell-type specificity of gene regulation through transcriptomic sequencing, comprehensive investigation of cell-type specificity of 3D genome conformation patterns is still lacking. Recently, single-cell methods allow us to examine cell-type heterogeneity and profiling chromosome architecture at the single-cell level has been achieved using chromosome confirmation capture (Hi-C). However, unbiased and robust computational methods are urgently needed to study cell type-specific chromosome structural patterns and accurately identify local enhancer-promoter interactions at single-cell level.
Biomedical Engineering
Artificial Intelligence | Machine learning | Genetic diseases | Rare diseases | Bioinformatics
Resources: We have access to 3D genome organization data from more than 50 samples. We have also local high performance computing systems in BioMedical Machine Learning Lab.
The skills required for project(s): Scripting experience in Python, R, or MATLAB.
What skills will you gain during your degree: Machine learning and data analytics techniques, Bioinformatics, Systems Biology.
One publication