Skip to content

JDRF-CIHR Partnership to Defeat Diabetes Grants Announced

In November 2021, to mark November’s National Diabetes Awareness Month, JDRF announced a new investment of $7 million to support four Canadian research teams as part of the JDRF-CIHR Partnership to Defeat Diabetes. The new research will help to accelerate development of stem cell-based therapies for T1D, improve pediatric diabetes research and quality improvement across Canada and expand our understanding of variation in human islet function in health and disease.

The four new partnered grants were awarded through CIHR’s Team Grants in Diabetes Mechanisms and Translational Solutions funding opportunity, which provided an overall investment of $20M to 10 research projects. Diabetes Canada, Kidney Foundation of Canada, and the FRQS also contributed funds as part of this competition, and we are collectively working together to improve health outcomes for Canadians with diabetes.

The research impact of this partnership is maximized as government funds are matched by donor dollars.

The JDRF-CIHR Partnership to Defeat Diabetes is one of the six pillars of JDRF’s $100 Million Campaign to Accelerate.

Designing stem cell-derived islets for diabetes therapy

Dr. Timothy Kieffer (University of British Columbia), Nominated Principal Investigator, along with his team: Nika Shakiba, (University of British Columbia),Dr. Elizabeth Rideout, (University of British Columbia; CIHR Sex and Gender Science), Dr. Corinne Hoesli, (McGill University) and Dr. Christopher Moraes (McGill University).

People with T1D lack the islet cells that release insulin. Scientists at the University of Alberta previously made breakthrough improvements in transplanting clusters of insulin-producing islet cells. The procedure is quick, and many transplant recipients can reduce or even eliminate insulin injections. Unfortunately, the only current source of islets for transplant is recently deceased donors, and only a tiny fraction of those in need can receive the procedure.

Over the past several years, there have been remarkable breakthroughs in unravelling the process by which islet cells develop naturally in the body. As a result, it is now possible to replicate many steps of this process in the laboratory with cultured stem cells, culminating in insulin-producing cells. Dr. Kieffer and his team are aiming to significantly improve upon the manufacturing of the islet cells to obtain more robust insulin delivery, with a focus on generating an optimized process to mass-produce stem cell-derived islet cells that will form the basis for new clinical trials in people with T1D.

A first-in-human trial of autologous induced pluripotent stem cells (ipsc)-derived islets: Developing a personalized diabetes therapy

Dr. James Shapiro, (University of Alberta), Nominated Principal Investigator, along with his team: Dr. Timothy Kieffer, (University of British Columbia), Dr. Gregory Korbutt, (University of Alberta),Dr. Patrick MacDonald, (University of Alberta), Dr. Andrew Pepper, (University of Alberta), Dr. Blaire Anderson, (University of Alberta), Dr. Anna Lam, (University of Alberta),Dr. Peter Senior, (University of Alberta), and Dr. Khaled Dajani, (University of Alberta).

In type 1 diabetes (T1D), beta cells are destroyed by one’s own immune system. In type 2 diabetes (T2D), the body becomes more resistant to insulin, increasing the demand and eventually leading to beta cell damage. Dr. Shapiro and his team will develop a stem cell-based therapy to replace or supplement damaged beta cells in people with different types of diabetes.

In the new grant, the team proposes to manufacture new beta-like cells from patients’ own blood cells so that they will be accepted by the immune system and no or minimal immunosuppressive drugs are needed. In this project, they will conduct a first-in-human trial to implant these cells under the patients’ skin and evaluate their safety and preliminary efficacy.

Being able to transplant an unlimited supply of self-derived islet cells without immunosuppressive drugs is a novel approach to treat multiple forms of diabetes.

A deep phenotyping network for understanding human islet variation in health and diabetes

Dr. Patrick MacDonald (University of Alberta), Nominated Principal Investigator, along with his team: Dr. James D. Johnson, (University of British Columbia) Dr. Jennifer Bruin, (Carleton University) and Dr. Jianguo (Jeff) Xia, (McGill University).

Insulin is the primary hormone responsible for controlling blood sugar levels. It is produced by the pancreatic islets of Langerhans, rises after a meal to promote energy storage, and falls during fasting to allow energy mobilization. The levels of insulin in the blood vary tremendously amongst people. Nutrition, age, sex, genetics, and environmental exposures are all important factors likely to impact insulin levels. However, the underlying mechanisms by which these factors affect islet insulin production at the cellular level are not clear.

This team seeks to understand the variability in human islet function in relation to genetic and environmental impacts on diabetes risk and to identify mechanisms of islet dysfunction in diabetes. To do this they will take advantage of extensive data on the molecular, cellular, and physiological function of islets from human organ donors. They will also produce tools and resources so that other researchers can explore this data to answer their own questions about islet dysfunction in diabetes.

Building CAPACIty for pediatric diabetes research and quality improvement across Canada

Dr. Shazhan Amed (BC Children’s Hospital), Nominated Principal Investigator, along with her team: Dr. Meranda Nakhla, (Montreal Children’s Hospital; McGill University),Dr. Julia von Oettingen, (Montreal Children’s Hospital; McGill University) and Dr. Ian Zenlea, (Trillium Health Partners; University of Toronto).

Although there have been many advances in diabetes care since insulin was discovered, youth with diabetes continue to have a higher risk of other health problems, a lower quality of life, and a shorter life span than their peers without diabetes. This health gap is likely in part due to suboptimal access to and delivery of their diabetes care, which is worse in disadvantaged populations across Canada. This project will develop strategies to address these gaps.

The CAnadian PediAtric Diabetes ConsortIum (CAPACIty) is a network of 15 childhood diabetes centres from across Canada. They are partnering with patients/families and health care professionals to jointly design and develop a Canada-wide childhood diabetes registry and research platform. The registry will enable them to improve diabetes care and health outcomes for Canadian youth through comparison of diabetes care quality and outcomes between Canadian diabetes centres, quality improvement initiatives, patient-informed research initiatives across Canada, and successful advocacy work.

They anticipate that the CAPACIty registry will not only lead to better health outcomes but also serve as a powerful tool for governments and decision-makers to implement policy decisions that are driven by this data.

Lastly, the patient advisory board will ensure better representation of youth with diabetes and their parents among provincial and national associations that advocate for people living with diabetes.

As we celebrate the centenary of the discovery of insulin, a groundbreaking achievement that saved millions of lives, we recognize the need to continue investing in research that will move us beyond insulin treatment towards a cure. These new grants are an important step in that direction.

Previous Page

Accelerating Research: Overview

Contact

Address

JDRF National Support Office

235 Yorkland Blvd. Suite 600

Toronto ON, M2J 4Y8

Phone

TF: 1.877.287.3533

TEL: 647.789.2000

FAX: 416.491.2111

Web

jdrf.ca

©2022 JDRF Impact Report 2021. Report by floating-point.

Charitable Registration # 11897 6604 RR0001