
This annual event is one of the largest diabetes conferences in the world, and Breakthrough T1D staff, partners, and funded researchers were in attendance to participate, share new data, and stay current on the state of type 1 diabetes (T1D) research and the pathway to cures.
EASD 2025 shared insights into the latest on beta cell replacement therapies, smart insulins, screening and early detection and making clinical trials more diverse and inclusive across the full spectrum of the T1D community.
Updates on beta cell replacement therapies
Insulin producing cells (known as beta cells) are destroyed by the immune system in type 1 diabetes (T1D). Finding ways to replace these cells and have them produce insulin again in someone with T1D is one of the more promising pathways to cures. There were a number of beta cell replacement therapies discussed at EASD, from investigations in their early stages to research trials which involve humans.
Vertex FORWARD trial of zimislecel (previously called VX-880) is currently the most advanced stem-cell derived islet replacement trial. Of the 12 individuals that have reached the one-year mark post-transplant, all have resolved severe hypoglycemic events, reduced HbA1c to 7% or less, and 10 of 12 are off insulin.
Breakthrough T1D’s support for Doug Melton, Ph.D. ( USA)—whose proprietary lab-created beta cells are now being advanced by Vertex—goes back decades, both via research grants and an investment from the T1D Fund: A Breakthrough T1D Venture. We look forward to what data emerges when the Phase 1/2/3 trial is completed in the coming months.
Dr. Maria Nostro, Ph.D. (Toronto, ON), a Breakthrough T1D Canada-funded researcher, also presented on her beta cell replacement protection strategy: macrophages. Macrophages are a type of white blood cell that we have learned are present in the developing pancreas. The idea is that the macrophages can be implanted alongside the beta cells during islet transplant and it will help protect and vascularize the cells. This research is still pre-clinical but represents another “shot on goal” to keep these cells safe.
Adocia (France) presented pre-clinical data on a product called AdoShell. This is an implantable device which contains insulin producing beta cells and does not require immune suppression. The company is acquiring funding to move to their first-in-human trial in 2026.
Allarta (Ontario, Canada), funded by Breakthrough T1D International, also presented pre-clinical data regarding implanted immune-evasive solutions which have the potential to replace insulin for people with T1D. Their unique design has been tested in animal models, with promising initial results. The company has said their products are scalable and there is a clear path to clinical use.
Orizuru Therapeutics (Japan) presented data on their investigational cell therapy composed of human manufactured islets derived from adult cells that were reprogrammed to precursor cells and eventually islets. This is one of the first cell therapies for T1D derived from reprogrammed adult cells, and this therapy is suitable for manufacturing at large scale. Earlier this year, these cells were implanted into a person with T1D as multiple “sheets” in the abdominal wall. Orizuru expects to share results in the coming months.
Early detection and beta cell protection
A significant discussion at EASD was the importance of early detection for T1D. Presenters discussed benefits, harms, and methods of T1D screening; who should be screened and how often; and how to effectively communicate screening results. In Canada, CanScreen T1D is a screening research consortium funded by Breakthrough T1D and CIHR to investigate population-level screening. Benefits of screening, such as prevention of diabetic ketoacidosis (DKA) at diagnosis, time to prepare for diagnosis, early control of hyperglycemia that can reduce the risk of complications, and opportunities to delay progression with approved therapies or experimental therapies in clinical trials.
Disease-modifying therapies are those which alter the course of disease progression, including therapies that are taken in early stage T1D to delay or prevent the onset of T1D. Tzield (teplizumab), which was recently approved by Health Canada is the only regulator-approved biologic that can delay the onset of clinical T1D by an average of two years.
Experimental therapies presented at EASD include:
Anti-thymocyte Globulin (ATG): Results from the MELD-ATG study were presented by Chantal Mathieu, M.D., Ph.D. (Belgium). This therapy, which is routinely used in organ transplants, was investigated at a minimal low-dose in individuals aged 5-25 newly diagnosed with T1D. Participants who received low dose ATG demonstrated clinically significant higher C-peptide levels (an indicator of beta cell function) during the treatment period compared to placebo. This was accompanied by lower HbA1c levels.
Baricitinib: The Australian-run, Breakthrough T1D-funded BANDIT trial reported initial, very promising results last year, and presented updated 2-year results at EASD. In individuals aged 10-30 years newly diagnosed with T1D, Baricitinib (taken orally for 48-weeks) improved C-peptide levels compared to placebo at the 1-year follow up point. When treatment was stopped, C-peptide levels fell and insulin needs increased, demonstrating a progression of T1D without continued treatment. This justifies the need for further studies of longer duration treatment, particularly since the drug is administered orally and well tolerated.
Verapamil: The Ver-a-T1D trial across Europe presented results on the use of verapamil, a commonly used blood pressure medication, for beta cell preservation in newly diagnosed individuals aged 18-44 years. Despite some initial clinical studies that suggested it may protect beta cells, the results of the Ver-a-T1D study showed no significant improvement in C-peptide, insulin dose, or CGM metrics in the verapamil group compared to the placebo group. However, verapamil is still being explored as a high-potential candidate to lower beta cell stress given in combination with immunomodulatory disease-modifying therapies (such as the three listed above) to dampen the autoimmune attack.
Since ATG, baricitinib, and verapamil are already approved for use outside of T1D, they could be cost-effective prevention therapies for early stage T1D.
New oral and smart insulins
New insulins are being developed to that more closely mimic naturally occurring insulin in the body of someone without T1D. These include both oral insulins and faster acting insulins.
Dr. Nicholas Hunt (Australia) presented initial research into the challenging topic of oral insulin. Initial results from the trial in various animal models showed a dose dependent effect which had a low risk of low blood glucose (hypoglycemia). The company is looking to move to phase 1 human trials next year in Australia.
Dr. Matt Webber (USA) presented a topic on fast-acting insulins. He has recently been investigating smart insulins that work faster and are responsive to glucose. These insulins would form ‘depots’ under the skin and would be soluble in the presence of glucose. There would be challenges to use this insulin in T1D, as the insulin has a long duration of up to one week, which would increase the risk of hypoglycemia. With funding from the Type 1 Diabetes Grand Challenge, he will continue research to try and develop a once-a-day insulin for people with T1D, which would allow for greater freedom and flexibility in T1D management.
Improving diversity and inclusion in T1D clinical trials
Data was presented that highlighted the lack of diversity and inclusion in T1D trials globally. Analysis of current research into chronic kidney disease (CKD) in diabetes showed the majority participants were of White-Caucasian background, which is not representative of the current population.
Daniel Newman (UK) a former Breakthrough T1D UK staff member offered his perspective as a Black man living with T1D. He spoke of experiencing diabetes distress and feeling under-represented within T1D research. He amplified that research is for everyone, and how representation matters.
New EASD diabetes distress guidelines launched
Drs. Richard Holt (UK) and Jane Speight (Australia) presented the first-ever EASD guideline on diabetes distress. Three years ago, the EASD board committed to developing clinical practice guidelines in this area, recognizing how much diabetes distress can affect a person living with T1D.
Diabetes distress is defined as a range of emotional responses to living with and managing diabetes. This can include feeling overwhelmed with the burden of managing diabetes; fear and worries about complications or experiencing a severe low; feeling defeated, discouraged, or burned out when you are not meeting your blood glucose targets despite your best efforts to manage them.
It is important to recognize that living with diabetes distress is not the same as clinical depression. Diabetes distress can be a common response to living with a chronic disease. The EASD guideline aims to support primary care providers and other clinicians to better support their patients affected by diabetes distress.
The guideline includes specific recommendations for healthcare professionals on regular assessment and management of diabetes distress in adults with diabetes in clinical practice, including use of validated tools to identify diabetes distress and referring to specialist support where needed. The guideline will help to better standardize care for diabetes distress across diverse healthcare settings. It may also help people with T1D to better advocate for themselves with their healthcare providers.
Breakthrough T1D Canada has long recognized the need for holistic T1D care that includes mental health considerations and a better understanding of diabetes distress and is pleased to see this be highlighted at EASD.
Advances in T1D technology
Diabetes technology companies from across the globe attended EASD, discussing their new technology to make managing T1D easier.
Abbot Laboratories presented new research into their continuous ketone monitor (CKM) which will be integrated into their continuous glucose monitor (CGM) models. Alongside measuring blood glucose, it is important to measure blood ketones for people with T1D. If ketone levels become too high, it can lead to a life-threatening complication called diabetic ketoacidosis (DKA).
This would be a first-of-its-kind device that would enable people with diabetes to continuously monitor glucose and ketones in a single sensor. This device could redefine care for people with diabetes who are at risk for developing DKA. They will be seeking regulatory approval for this device when the clinical trials are completed.
AccuCheck presented data on a predictive CGM model. This means that the CGM can estimate what your blood glucose level will be in the future (up to two hours) and work with an insulin pump to correct your levels. It also has low glucose prediction and a night-time low prediction function. These could help to significantly reduce the risk of hypoglycemia for people using the device.
These devices are not yet approved or on the market in Canada, but we will provide updates as soon as they become available.
The path to fully closed-loop automated insulin delivery systems
Hybrid closed-loop (HCL) or automated insulin delivery (AID) systems use a continuous glucose monitor (CGM paired with an insulin pump to adjust insulin delivery based on real-time glucose levels. These systems still require mealtime and physical activity announcements. These were recommended for all people with T1D in the recently published Diabetes Canada Clinical Practice Guidelines.
While these devices can be transformative for people with T1D, they can still be onerous to use and fully closed-loop systems aren’t widely available for T1D yet.
In this session, Moshe Phillip, M.D., Katrien Benhalima, M.D., Ph.D., and Charlotte Boughton, M.D., Ph.D., explored the benefits of currently available AID systems and fully closed-loop AID systems on the horizon.
- Based on clinical trial data and real-world evidence, hybrid closed-loop systems improve time-in-range (TIR) and reduce HbA1c levels without increasing the risk of hypoglycemia. This translates to better outcomes and quality of life for people with T1D.
- Different AID systems will work better for different people, depending on preferences for blood glucose management. Because there have been limited head-to-head trials comparing two or more AID systems, there is no evidence that any one system is definitively better than another.
- A clinical trial for the CamAPS HX fully closed-loop AID system in the UK increased TIR by 50% compared to 36% in people using standard pump therapy with a CGM—amounting to three additional hours each day of blood glucose in target range. Participants reported improved mood and sleep, less stress, and reduced diabetes burden. Similar improvements in blood glucose and daily life were reported in adolescents.
Next-generation AID systems under investigation include two or more hormones for optimal glycemic control, artificial intelligence, and “digital twin” simulation tools.
Initial clinical studies using fully closed-loop systems with T1D demonstrated significant improvements in blood glucose control and quality of life. In the meantime, hybrid closed-loop systems offer substantial benefits for people with T1D—and there are commercially available systems to choose from based on individual preferences in Canada.
Updates on heart and eye complications
Reducing T1D complications remains a major research focus area, and we fund research studies aimed at reducing eye, kidney and heart complications resulting from T1D.
Data from the LENS trial (UK) was presented, which found that fenofibrate—a generic and affordable cholesterol-lowering medication—can reduce the progression of diabetic retinopathy in people with T1D and type 2 diabetes. A follow-up study in the UK found that fenofibrate is a cost-effective option for diabetic retinopathy, especially for those living with T1D. In conjunction with these studies, the recruiting Breakthrough T1D International-funded Protocol AF trial is further investigating fenofibrate in preventing progression of diabetic retinopathy in people with T1D.
Data from the long-running FinnDiane cohort (Finland) were presented on the relationship between cumulative exposure to glycemia or lipids and heart failure, one of the leading causes of cardiovascular mortality in T1D. The study found that both cumulative glycemic exposure (defined as time spent with HbA1c levels > 7%) and cumulative lipid exposure (LDL, triglycerides, and cholesterol) are independently associated with increased risk for heart failure. The publication highlighting these findings includes a call to action for healthcare providers to help people with T1D minimize high blood glucose levels and lipid exposure, and support and encourage the best diabetes management possible to reduce risk for heart complications.
—
Breakthrough T1D will be represented by Canadian and International staff at the International Society for Pediatric and Adolescent Diabetes 2025 Conference, which will take place November 5-8 in Montreal, Canada. We’ll provide updates from that research conference that targets the younger cohort of people living with T1D.
It’s never been a more exciting time in global T1D research both in projects aimed at improving lives today and those working tirelessly towards cures and our shared goal of a world free from type 1 diabetes.

Dr. Joshua N. Awoke, Associate Fellow of the Higher Education Academy (
My research at UBC will focus on the islet prohormones as biomarkers of T1D prediction, prognosis, and response to immuno- and cell therapy. Firstly, insulin and islet amyloid polypeptide (IAPP) are the key hormones produced by islet beta cells.




Receiving a diagnosis of type 1 diabetes (T1D) for your child can be an overwhelming time for parents. Learning to manage the disease and adjusting to the new normal can bring significant stress to a family. And even when a family has adapted to life with T1D, new stages in school can bring with them additional stressors.
The role models she met with, the relationships she made, and the skills she developed at the Children’s Congress will all stay with her as she continues to advocate for the T1D community in the future.
On May 3, Matt Varey, a longtime volunteer with Breakthrough T1D Canada (formerly JDRF) and current Co-Chair of the Breakthrough T1D International Board, began a 61 day, 7400km+ journey to cycle across Canada. At 61, Matt had recently retired from a long career with RBC and though he has no personal connection to type 1 diabetes, he has become a passionate advocate over the past 20 years for Canadians living with T1D. Matt’s goal was to raise $500,000 and he surpassed it, raising over $535,000 and counting.
And then on the other side of that – I was surprised by how noisy society is. The constant noise of being so close to cars, transport trucks, so close to you all day. You could sense they were coming closer before they did or feel the respect and distance they might give because I was on a bike. You pick up societal noises so much more.







This journey changed me. It made me look at things even more positively. We live in such a remarkable country, which is so kind and so beautiful in its soul. I could only experience that beauty by seeing it replicated over and over – in small towns, in big cities, in bike shops, pastry shops, restaurants, anywhere we went. The circulatory system of this country just pumps decency everywhere. I feel blessed to have experienced it and my gratitude can’t be properly expressed.




















