Results of the 2025 Research Training Awards Master’s Level Competition

Principal Investigator

Institution

Supervisor

Short Summary

Problem

Some cancers become resistant to treatments that block their ability to repair DNA damage. People whose cancers develop this resistance need new treatment options that can effectively target and kill cancer cells. 

Solution

Impact

Learning more about the proteins that control DNA damage repair could suggest ways to prevent cancer treatment resistance. It could also reveal weaknesses that can be targeted with new treatments, creating more options for people whose cancer no longer responds to existing therapies. 

Principal Investigators

Adejoke Adekanmbi 

Institution

University of Calgary

Supervisor

Short Summary

Black women have lower breast cancer screening rates and higher rates of aggressive breast cancer than other women, leading to poorer outcomes. Adejoke Adekanmbi is studying the barriers that prevent immigrant Black women in Alberta from getting screened and working with communities, healthcare providers and policymakers to make screening more accessible and welcoming.

Problem

Screening is instrumental for the early detection of breast cancer, which significantly improves outcomes. But immigrant Black women in Canada face barriers that lead to lower screening rates, higher rates of aggressive cancers and worse overall outcomes. 

Solution

Adejoke Adekanmbi will work with immigrant Black women in Alberta, breast cancer survivors, community leaders and healthcare professionals to learn about how they understand and experience screening. She aims to develop ways of making screening programs more accessible and welcoming for this population. 

Impact

Improving screening rates among immigrant Black women could lead to earlier cancer detection, less invasive treatment and better outcomes for these women. Treatment also requires fewer resources when cancer is detected early, reducing the burden on healthcare systems. 

Principal Investigator

Christian Kassa

Institution

University of Windsor

Supervisor

Short Summary

NEPC is a type of aggressive prostate cancer that is hard to detect and does not respond well to existing treatments. Christian Kassa will study an important cellular process that changes how NEPC cells behave and makes them more aggressive. He will then study if CDK inhibitors can be an effective way of treatment for NEPC, and if using liquid biopsies can help detect NEPC in patients.

Problem

Neuroendocrine prostate cancer (NEPC) is a type of prostate cancer that is aggressive and difficult to treat and detect. Because the cellular processes in this cancer are not well understood, we currently don’t have much knowledge about how to detect this cancer and how different treatments might work against it or how effective they might be.

Solution

Christian Kassa will study a cellular process that helps NEPC cells survive and resist treatment and detection. He will look at how drugs called CDK inhibitors affect NEPC cells and metastasis to see whether they might be an effective treatment option. Christian will also help develop a non-invasive way to detect NEPC tumors in patients by studying liquid biopsy samples.

Impact

At the moment, there’s no standard way of treatment and detection for NEPC. If this research shows that CDK inhibitors can kill NEPC cells and shrink tumours, it will suggest a new approach to treating these cancers that could improve outcomes for people with NEPC. Also, discovering better ways to detect NEPC earlier could help doctors respond faster and improve patient care.

Principal Investigator

Johnathon Lucas

Institution

University of Manitoba

Supervisor

Short Summary

Many children and adults who are treated for T-cell leukemia see their cancer return after chemotherapy. A protein called STAT5 can help cancer cells survive treatment, but the drugs that currently target it are too toxic to be given to people with leukemia. Johnathon Lucas is looking at the processes STAT5 controls with the goal of finding new ways to treat T-cell leukemia.

Problem

T-cell leukemia is an aggressive cancer that often comes back after chemotherapy. Sometimes, a protein called STAT5 helps leukemia cells survive treatment so that the cancer can return – but the drugs that target STAT5 are too toxic for use in people with leukemia, so alternative treatments are needed. 

Solution

Johnathon Lucas will look at which cellular processes STAT5 controls and what else is involved in these processes. Understanding these processes could reveal new and less toxic therapies to treat T-cell leukemia. 

Impact

T-cell leukemia comes back after treatment in 1 in 5 children and 3 in 5 adults. More than half of T-cell leukemia cases involve cell processes that STAT5 controls. Finding ways to target STAT5-controlled cell processes could lead to new treatments that improve outcomes for people with these leukemias.