The GSC's faculty members apply their expertise in genomics, bioinformatics, proteomics, precision medicine, computational biology and software development to advance knowledge of cancer and other diseases, operating as one of nine departments of BC Cancer Research.
Personalized OncoGenomics (POG)
A key research objective for the POG program is to identify and better understand the genomic alterations that drive cancer and its progression and metastasis. The program is providing data-driven genomic explanations for treatment failure, helping to determine which treatments are likely to be ineffective and is identifying potential therapeutic targets for individual cancer patients.
Visit the POG program site to learn more.
The GSC collaborates with and supports research by the wider research community. We have an extensive collection of software packages developed in-house available for download.
Visit our Software Centre to learn more.
The Digital Pathology Project
The rich dataset of annotated pathology slides will be shared with project partners. Using convolutional neural network-based machine learning, the project aims to create an automated tumour identification and mapping tool to enhance and accelerate diagnostics.
The Healthy Aging Study is a collaboration between the Genome Sciences Centre and other leading research groups investigating the individual factors which contribute to healthy aging and resistance to age-related disease.
Colorectal cancer is the second leading cause of cancer-related death in Canada. The goal of this program is to develop novel easy-to-administer tests that identify individuals at the earliest, most curable stages of the disease.
A collaborative project in Dr. Birol’s group is focusing on short proteins called antimicrobial peptides (AMPs), which are produced naturally by various animal and plant species.
We aim to use bioinformatics to investigate the landscape of mutations present in cancer genomes and the early genomic events that give rise to and promote the progression of cancer.
We have undertaken a family-based study to identify genetic factors contributing to lymphoid cancers including lymphoma, leukemia and myeloma.
Cancer immunotherapies using engineered autologous T cells have shown remarkable efficacy against some cancer. Dr. Holt’s team is engineering T cells to selectively deliver modified cytotoxic payloads and pro-drug activators for the purpose of enhanced tumour cell killing and overcoming immune resistance.
A substantial proportion (at least 15 per cent) of the global cancer burden is attributable to known infectious agents. The Holt Lab finds pathogens by their sequence signatures in human tissues using genomic methods, which revealed a strong link between colorectal carcinoma and Fusobacterium nucleatum.
The aim of this project is to understand the mechanisms of Lenalidomide resistance in Myelodysplastic Syndromes (MDS), as well as to potentially provide strategies to overcome or bypass resistance.
We are seeking to identify driver mutations that contribute to some features of Non Hodgkin Lymphomas using data-driven comprehensive methods that allow identification of non-coding mutations relevant to malignancy.
The Sadar lab has identified the N-terminal domain of the androgen receptor as a novel therapeutic target for the development of novel prostate cancer therapeutics.