Doctor of Philosophy in Genome Science and Technology (PhD)
The Genome Science and Technology graduate program is a trans-disciplinary program that combines genomic research with leading-edge technology development in genome sciences for students pursing an M.Sc. or Ph.D. This program is intended to accommodate the diverse background of students and the broad nature of genomic research in human, animal, plant, microbes, and viruses.
- Generate a culture of innovation and discovery by exposing trainees at all levels to important and timely scientific problems being addressed using emerging technologies.
- Enable researchers to effectively work at the nexus of biology, engineering, and physical sciences by providing a unified training program including joint seminars, cross-disciplinary rotations, and hands-on training in new technology and methodology.
- Provide enriching professional development programs to assist the transition of trainees into both the academic and industrial workforces.
- Foster close interactions, collaborations, and intellectual exchange with other laboratories nationally and internationally.
Our goal is to be among the top 10 graduate programs in genome sciences & technology in North America.
What makes the program unique?
The Ph.D. program in Genome Science and Technology (GSAT) incorporates an innovative rotation program that allows students to access multiple highly skilled research faculty during their graduate program. These rotation opportunities allow student to learn the latest advances in genomic sciences and high through-put technologies. Rotations also allow valuable relationships to form for future collaborative opportunities.
The GSAT program has collaborative associations with both the Centre for High Through-put Technology and the Michael Smith Laboratories. Faculty members associated with the program have diverse backgrounds in genomics and proteomics, bio-engineering, systems biology, chemical biology,device and instrumentation development, and engineering.
Systems biology, Genomics and proteomics, Chemical biology, Bioengineering, Device and instrumentation development, Computational biology
GSAT faculty are spread throughout the UBC campus, with most occupying the Michael Smith Laboratories building. A small number of GSAT faculty may reside off-campus at the BC Cancer Research Centre or hospital research labs and Institutions.
Students who are selected for the GSAT rotation scholarship will not need to secure a supervisor before they are enrolled in the program. All other students must secure a supervisor before they can be admitted into the program. As well, they must meet the minimum admission requirements set out by Graduate and Post-doctoral Studies at UBC.
CV, Official transcripts, three letters of reference, Official English exam scores (if required)
TOEFL (ibT) Overall Score Requirement
IELTS Overall Score Requirement
Supervisor commitment required prior to application?
Prior degree requirements
Applicants must have a Life-Sciences degree, with significant experience in a quantitative science OR a Computer Science/Math/Engineering/Physics degree with significant experience in Life Sciences. Although work experience may be taken into consideration if the degree is outside these areas.
Deadline to submit online application. No changes can be made to the application after submission.Transcript Deadline
Deadline to upload scans of official transcripts through the applicant portal in support of a submitted application. Information for accessing the applicant portal will be provided after submitting an online application for admission.Referee Deadline
Deadline for the referees identified in the application for admission to submit references. See Letters of Reference for more information.
May 2019 Intake
Application Open Date03 July 2018
September 2019 Intake
Application Open Date24 September 2018
All students accepted by a faculty member and enrolled in the program will be paid a minimum stipend of $22,000/year. Students who have been selected for the GSAT rotation scholarships will also have their tuition paid for the first two years of study.
Tuition / Program Costs
|Fees||Canadian Citizen / Permanent Resident / Refugee / Diplomat||International|
|Installments per year||3||3|
|Tuition per installment||$1,632.61||$2,868.22|
|Tuition per year||$4,897.83||$8,604.66|
|Int. Tuition Award (ITA) per year (if eligible)||$3,200.00 (-)|
|Other Fees and Costs|
|Student Fees (yearly)||$930.14 (approx.)|
|Costs of living (yearly)||starting at $16,884.10 (check cost calculator)|
All fees for the year are subject to adjustment and UBC reserves the right to change any fees without notice at any time, including tuition and student fees. In case of a discrepancy between this webpage and the UBC Calendar, the UBC Calendar entry will be held to be correct.
This list shows faculty members with full supervisory privileges who are affiliated with this program. It is not a comprehensive list of all potential supervisors as faculty from other programs or faculty members without full supervisory privileges can request approvals to supervise graduate students in this program.
Adams, Keith (Molecular evolution, genome evolution, and gene expression)
Andersen, Raymond (Chemicals produced by marine organisms)
Aparicio, Samuel (Breast cancer, genome sequencing )
Birol, Inanc (bioinformatics, computational biology, genomics, transcriptome analysis, next generation sequencing, cancer, Bioinformatics, sequence assembly, transcriptomics, gene regulation networks, high throughput informatics for big data)
Bohlmann, Jorg (plant biochemistry, forestry genomics, forest health, conifers, poplar, bark beetle, mountain pine beetle, natural products, secondary metabolites, terpenes, floral scent, grapevine, Conifer genomics Forest health genomics Mountain pine beetle, fungus, pine interactions and genomics Chemical ecology of conifer, insect interactions)
Bouchard-Cote, Alexandre (machine/statistical learning; mathematical side of the subject as well as in applications in linguistics and biology)
Brown, Carolyn Janet (Epigenetic control of gene expression, X-chromosome inactivation, Long non-coding RNAs, XIST RNA, Genes escaping X-chromosome inactivation, DNA methylation)
Brumer, Harry (enzymes, polysaccharides, carbohydrates, biomass, cellulose, plant cell walls, microbiota)
Collins, Colin (translational genomics where mathematics, genomics, computer science, and clinical science converge in diagnostics and therapeutics)
Conibear, Elizabeth (Protein Palmitoylation, Vesicle Trafficking)
Cote, Helene (HIV Infection, blood research, infectious diseases)
Cullis, Pieter (Molecular biology for therapeutic purposes, lipids, immunological drugs)
Eltis, Lindsay (Bacterial catabolism of steroids and lignin, Mycobacterium tuberculosis, biocatalyst development)
Farrer, Matthew (Parkinson's disease, Dementia, Epilepsy)
Finlay, B Brett (Infectious agents, bacteria, microbial infections and how humans react to it)
Foster, Leonard (honey bees, host-pathogen interactions, antigen presentation, systems biology)
Friedman, Jan Marshall (Application of whole genome sequencing to diagnose genetic disease, Clinical genomics, Neurofibromatosis, Birth defects epidemiology)
Gsponer, Joerg (Protein-DNA, protein-RNA and protein-protein interactions)
Hallam, Steven (methanogenesis, methane oxidation, methyl coenzyme M reductase, metagenomics, environmental microbiology, genomics, proteomics, microbial ecology, systems biology, archaea, energy, bioinformatics, Microbial communities, construction and interpretation of environmental genomic libraries, generation of computational tools and workflows for taxonomic and functional binning, population genome assembly, and comparative community analysis, development and functional screens to interrogate environmental genomic libraries for bioactive small molecules and biocatalysis)
Hancock, Robert E (Cationic Antimicrobial Peptides, Host Defence Peptides and Innate Immunity, Functional Genomics of Pseudomonas aeruginosa, Regulation of Antibiotic Resistance, Array Data, Self-promoted uptake hypothesis)
Haney, Cara (genetic and metabolic factors that regulate assembly of host-associated microbial communities ()
Hansen, Carl (Single-Cell Analysis, Molecular Diagnostics, genomics)
Haynes, Charles (Protein purification, recombinant proteins, molecular thermodynamics, biocompatible polymers)
Hieter, Philip (Molecular biology of eukaryotic chromosome transmission )
Hirst, Martin (Epigenomics)
Recent Doctoral Citations
- Dr. Zachary Byron Armstrong
"Dr. Armstrong investigated the presence of plant carbohydrate degrading genes present in terrestrial, aquatic, engineered and host associated environments using functional metagenomic methods. This revealed novel genes and previously uncharacterized modes of degradation and enabled the development of new synthetic tools." (November 2018)
- Dr. Florian Heinkel
"Dr. Heinkel investigated a novel biophysical mechanism of membrane protein clustering in the pathogen causing tuberculosis. His work helps to understand the physiology of these clinically important bacteria and might lead to a route for therapeutics against the disease." (November 2018)
- Dr. Cecilia Perez-Borrajero
"In order to produce the proteins needed for cellular processes, the genetic information encoded in our DNA must be carefully read by molecules called transcription factors. Dr. Perez-Borrajero investigated how two of these molecules carry out their functions. Her findings help explain the different mechanisms used to interpret our genetic information correctly." (May 2018)
- Dr. Christopher Robert Roach
"Dr. Roach explored specialized metabolite biosynthesis in two non-model plant systems. In the flower, Crocosmia, he explored the biosynthetic genes of a new potential diabetes therapeutic. In the tree, Sitka spruce, he explored the inherent plasticity and evolution of a family of terpene synthases associated with defense against pests." (May 2018)
- Dr. Michael Andrew VanInsberghe
"Dr. VanInsberghe developed microfluidic methods to measure the expression of microRNAs, an important class of regulatory molecule, in single cells. He subsequently applied this technology to measure microRNA expression in the blood development system, helping to refine the model for how these cells create the different blood cell types." (May 2018)