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Assessing neurofeedback in stroke survivors
Researchers are testing whether a specialized form of imaging can help in stroke rehab.
A new study aims to assess the use of functional near-infrared spectroscopy (fNIRS), a type of imaging, to provide neurofeedback during stroke rehabilitation with a goal of eventually improving patient outcomes.
fNIRS is used to detect changes in brain oxygen levels using light. More recently it has also been used to develop brain-computer interfaces (BCIs), which allow patients with brain injuries to control devices like robotic arms with their thoughts.
Dr. Sue Peters, a Scientist at Lawson Health Research Institute and Director of the Neurorehabilitation Physiology Lab at St. Joseph Health Care London’s Parkwood Institute, was one of the recipients of the Spring 2022 Lawson Internal Research Fund (IRF) Awards.
The funds will go towards a new study to assess whether fNIRS can be used to direct neurofeedback in stroke survivors – helping them with rehabilitation.
“Currently, there's no real measure of brain activity that is used in stroke rehabilitation to help make clinical decisions,” says Dr. Peters, who is also a Professor at Western University.
Over 400,000 Canadians live with the effects of a stroke, according to the Heart and Stroke Foundation, and there’s hope that fNIRS could make a big difference by eventually improving movement and independence.
“We're going to use the device in some common tasks that people might do with their arm and determine whether we can use this device reliably and accurately in a stroke-related context,” Dr. Peters explains.
Participants in the study will imagine moving while remaining still. This activates very similar parts of the brain to when people actually move. If done correctly, patients will see a visual cue generated through measurement using fNIRS.
“We know from MRI studies that when I move my right hand, the left side of my brain is activated,” notes Dr. Peters. “We think we can use this concept in stroke rehab.”
Dr. Peters is recruiting 40 people from the community who are at least six months post stroke and 40 healthy adults of all ages. They will first participate in motor assessment with a physiotherapist and then wear an fNIRS cap while thinking about moving their wrist to measure brain activity.
Previously, there were a lack of methods to image the brain during real-life movement.
“The hope is to eventually conduct a clinical trial where we're testing motor interventions to see whether some things are more effective than others at activating the regions of the brain that were impacted by the stroke.”
Dr. Peters believes the study has the potential to have a big impact on the future of rehabilitation for stroke patients, leading to lasting changes in quality of life.
Assessing neurofeedback in stroke survivors
A new study aims to assess the use of functional near-infrared spectroscopy (fNIRS), a type of imaging, to provide neurofeedback during stroke rehabilitation with a goal of eventually improving patient outcomes.
fNIRS is used to detect changes in brain oxygen levels using light. More recently it has also been used to develop brain-computer interfaces (BCIs), which allow patients with brain injuries to control devices like robotic arms with their thoughts.
Dr. Sue Peters, a Scientist at Lawson Health Research Institute and Director of the Neurorehabilitation Physiology Lab at St. Joseph Health Care London’s Parkwood Institute, was one of the recipients of the Spring 2022 Lawson Internal Research Fund (IRF) Awards.
The funds will go towards a new study to assess whether fNIRS can be used to direct neurofeedback in stroke survivors – helping them with rehabilitation.
“Currently, there's no real measure of brain activity that is used in stroke rehabilitation to help make clinical decisions,” says Dr. Peters, who is also a Professor at Western University.
Over 400,000 Canadians live with the effects of a stroke, according to the Heart and Stroke Foundation, and there’s hope that fNIRS could make a big difference by eventually improving movement and independence.
“We're going to use the device in some common tasks that people might do with their arm and determine whether we can use this device reliably and accurately in a stroke-related context,” Dr. Peters explains.
Participants in the study will imagine moving while remaining still. This activates very similar parts of the brain to when people actually move. If done correctly, patients will see a visual cue generated through measurement using fNIRS.
“We know from MRI studies that when I move my right hand, the left side of my brain is activated,” notes Dr. Peters. “We think we can use this concept in stroke rehab.”
Dr. Peters is recruiting 40 people from the community who are at least six months post stroke and 40 healthy adults of all ages. They will first participate in motor assessment with a physiotherapist and then wear an fNIRS cap while thinking about moving their wrist to measure brain activity.
Previously, there were a lack of methods to image the brain during real-life movement.
“The hope is to eventually conduct a clinical trial where we're testing motor interventions to see whether some things are more effective than others at activating the regions of the brain that were impacted by the stroke.”
Dr. Peters believes the study has the potential to have a big impact on the future of rehabilitation for stroke patients, leading to lasting changes in quality of life.
Communications Consultant & External Relations
Lawson Health Research Institute
T: 519-685-8500 ext. ext. 64059
C: 226-919-4748
@email
Benchmarking the evaluation process for living kidney donation to improve outcomes
LONDON, ONTARIO - Living kidney donation rates have remained stagnant over the last decade, and many potential living donors find the evaluation process to be lengthy and difficult to navigate. Researchers from Lawson Health Research Institute and Western University have published results identifying indicators to monitor and improve the performance of transplant centres in how efficiently they evaluate individuals interested in becoming living kidney donors. The findings appear in the current issue of CJASN.
In 2019, there were 219 living donor kidney transplants in Ontario. There are several advantages to kidney transplantation from a living donor compared to deceased. However, many living donor candidates drop out of the evaluation process for a variety of reasons.
“From speaking with living donors, we know that some people find the evaluation process frustrating and cumbersome,” says Dr. Amit Garg, Professor at Western’s Schulich School of Medicine & Dentistry and Scientist at Lawson. “To ensure living donation is safe for both the donor and the recipient, a thorough evaluation is needed looking at medical, physical and psychosocial considerations.” Dr. Garg is also Director of the Living Kidney Donor Program at London Health Sciences Centre (LHSC).
Marian Reich started the journey of living kidney donation 11 years ago, giving the gift of life to her sister-in-law, Susan. “The evaluation process took one full year to complete, and in that time Susan lost the option of a pre-emptive transplant and started dialysis. I wasn’t fully aware that I had to be the driver of the process, and how to do that.”
Reich believes living donor evaluation should be consistent across the country, with a clearer process outlined for potential living donors and recipients. “Research studies like this one bring forth best practice and evidence-based information that includes the perspective of those with lived experiences.”
The research team, which included Patient Partners such as Reich who co-authored the paper, surveyed 77 participants who were kidney transplant recipients and recipient candidates, living kidney donors and donor candidates, or health care providers and administrators.
Out-of-pocket cost incurred by donors is one of the most significant barriers to donation. Another challenge is the lack of reliable information about the expectations and requirements of the donation process. For example, the time commitment, nature of the testing and reasons for the tests performed.
The evaluation process takes on average 10 months to complete, requiring multiple visits to the transplant centre. The intended recipient’s health may deteriorate during this wait to the point they may no longer receive a transplant. “By improving the efficiency of the process, more living donor candidates could complete the evaluation and more transplants performed,” adds Dr. Garg.
The study found a diverse set of quality indicators to measure the evaluation process, focusing on efficiency and safety to improve patient outcomes. They also identified a single measure tracking the costs of living donor evaluation from a health system perspective to assist with planning and budgeting.
“This is an important first step towards system monitoring, benchmarking and accountability in living kidney donor evaluation,” explains Dr. Steven Habbous, co-lead investigator and PhD graduate with Lawson and Western’s Schulich School of Medicine & Dentistry. “In other areas of the health care system, there are reported metrics that hospitals and funders use to compare performance between similar hospitals and track changes over time. We need to measure what we value, and value what we measure.”
The team will present the data to the Canadian National Living Kidney Donation Advisory Committee to help develop national guidelines. Potential improvement strategies are to evaluate multiple living donor candidates concurrently for the same recipient or offer some aspects of the evaluation virtually.
The study was funded by the Can-SOLVE CKD Network, a Canada-wide initiative to enhance kidney disease research and care in partnership with patients. The Ontario-based team led by Dr. Garg is one of 18 Can-SOLVE CKD research groups across the country investigating issues such as earlier diagnosis, better treatments, and innovative care – all based on priorities identified by patients.
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Downloadable Media
Click image for larger version
Dr. Amit Garg, study co-lead investigator, Professor at Western’s Schulich School of Medicine & Dentistry, and Scientist at Lawson. Dr. Garg is also Director of the Living Kidney Donor Program at LHSC.
Dr. Steven Habbous, study co-lead investigator and PhD graduate with Lawson and Western’s Schulich School of Medicine & Dentistry
Marian Reich, study co-author, Patient Partner and living kidney donor
Lawson Health Research Institute is one of Canada’s top hospital-based research institutes, tackling the most pressing challenges in health care. As the research institute of London Health Sciences Centre and St. Joseph’s Health Care London, our innovation happens where care is delivered. Lawson research teams are at the leading-edge of science with the goal of improving health and the delivery of care for patients. Working in partnership with Western University, our researchers are encouraged to pursue their curiosity, collaborate often and share their discoveries widely. Research conducted through Lawson makes a difference in the lives of patients, families and communities around the world. To learn more, visit www.lawsonresearch.ca.
The Schulich School of Medicine & Dentistry at Western University is one of Canada’s preeminent medical and dental schools. Established in 1881, it was one of the founding schools of Western University and is known for being the birthplace of family medicine in Canada. For more than 130 years, the School has demonstrated a commitment to academic excellence and a passion for scientific discovery.
Senior Media Relations Consultant
Communications & Public Engagement
T: 519-685-8500 ext. 73502
Celine.zadorsky@lhsc.on.ca
Bridging the gap from discovery to patient care
The following column was provided to Hospital News by Dr. David Hill, scientific director, Lawson Health Research Institute.
Dedicated health researchers across the country are working every day to make discoveries that improve patient outcomes and support a higher quality of life. Our research hospitals have a mandate to develop and test new treatments, technologies and procedures that address our most pressing health challenges.
There is a cycle of health innovation that is supposed to happen – scientific discoveries are made, they transition to clinical trials and then are adopted as an improved standard of care. This is followed by evaluations of the new method and moving along to the next cycle of refinements and improvements. But the reality in Canada is that gaps, in some cases chasms, disrupt the creation and adoption of evidence-based health innovations.
This starts with discovery. The research funding climate in Canada continues to be extremely difficult. Despite the Federal Government outlining substantial new investments in discovery research in Budget 2018 much of that money will not be available to researchers until 2020 and beyond, and the Canadian Institutes of Health Research (CIHR) continues to be limited by a low funding rate of around 14 per cent. Funding for large, definitive clinical trials is especially difficult to support with public funds. Too many good ideas are left unfunded, and in that environment researchers can feel it’s wiser to propose incremental and ‘safe’ science that avoids controversy and the risk of losing support for experienced research teams built up over many years.
Yet researchers are persistent and manage to secure funding from a range of smaller agencies. Unfortunately, many of these do not fund the indirect costs of research necessary to cover administration, infrastructure, equipment maintenance and upgrades, and the investigator’s salaries. Indirect costs are estimated to be approximately 40 per cent on top of direct study costs. In research hospitals these costs generally fall on the institutions to find funding outside of the provincial government budget that covers the costs of hospital care. This is a negative spiral whereby the more successful a hospital becomes in attracting research funds, the bigger the gap in finding the resources to support that research.
When innovative solutions to health care problems are delivered, backed by solid evidence, adoption into our hospital-based care is often far from rapid. Currently, in most provinces, there is no funding mechanism to translate health innovation to the ‘real world’ setting of our front-line care. Yet, such a mechanism is crucial to the translation of science. Clinical trials are carefully designed with strict protocols and criteria for a highly specific population of patients. Innovations that work in a clinical trial do not always work in the real world where patient populations and settings are much more complex.
Following a clinical trial, innovation needs to be tested at the point of care. Without funding to do this, research innovation hits a roadblock. Scientists are left waiting and hoping that one day their provincial government might look to incorporating their innovations into the health system funding schedule. Meanwhile, their work may be used to inform health care improvements in other nations.
An example can be found in medical imaging research. Canadian scientists, including those at Lawson Health Research Institute, are leaders in the development of positron emission tomography (PET) biomarkers to improve diagnosis and understanding of disease using PET scans. PET biomarkers are successfully created and then validated in clinical trials across our nation, but there is little funding to translate them back in a timely fashion to patient care in our hospitals. While countries like the US and Europe readily adopt these innovations, Canada lags behind.
This gap was addressed in a report to the Federal government by the Advisory Panel on Healthcare Innovation entitled “Unleashing Innovation: Excellent Healthcare for Canada” and published in 2015. The panel recommended the formation of a Healthcare Innovation Agency of Canada open to hospitals and other care providers in order to evaluate health innovations in the real-world setting of our health system. Scientists would apply by putting forward evidence from their research, including that collected from clinical trials. They would then design a new translational study to test their innovation at the point of care, with the goal of building evidence for presentation to provincial government.
Will everything tested at the point of care succeed? No; some things will fail in the real world. This is why such a fund is so important. It will show whether or not an innovation truly benefits patients and if it’s ready for wider adoption. If successful, the evidence will highlight the right time to bring innovations into the mainstream standard of care. By bridging this gap in the system, we can improve patient care and ensure a timely return on the investment in science.
Dr. David Hill is scientific director at Lawson Health Research Institute, the research institute of London Health Sciences Centre and St. Joseph’s Health Care London.
Can type 2 diabetes go into remission?
For Wayne Kristoff, the possibility of getting off all medication for his type 2 diabetes was so intriguing he jumped at a chance to participate in an innovative trial in London. The REMIT study aims to induce remission of the condition – an exciting new concept being tested by researchers at Lawson Health Research Institute.
Kristoff was diagnosed in June 2014, which was difficult but not unexpected because there is a history of the illness in his family. He had to work his way up to taking four pills a day for his diabetes, which came with significant side effects. “If there was a way to get off medication, I wanted to be part of it,” says the 68 year-old.
He met the study criteria and was enrolled in February 2016. The results, so far, have been life changing for the Londoner. Since May 2016 Kristoff (right) has been off all medication, his blood sugar levels are good, and he has more energy and feels better than he has in years. He’s also lost 30 pounds thanks to the support offered by the research team.
“I remember well where I was and what I was doing when I received the call telling me that I could stop taking all of my diabetic medication,” adds Kristoff.
A second REMIT trial is now being launched, providing another opportunity for individuals with type 2 diabetes to take part. The trial challenges traditional type 2 diabetes treatment by testing an aggressive approach in recently diagnosed patients. St. Joseph’s Hospital in London is one of seven Canadian sites taking part in the landmark REMIT study. Being led by the Population Health Research Institute (PHRI), a joint institute of McMaster University and Hamilton Health Sciences, the trial follows a PHRI pilot study of early aggressive treatment that resulted in up to 40 per cent of 83 patients with type 2 diabetes going into remission and not needing any diabetes treatment for at least three months.
When Lawson launched the initial trial in December 2015, it generated a surge of interest with more than 200 people with type 2 diabetes asking to participate.
“The idea of remission in type 2 diabetes is obviously captivating to both patients and clinicians,” says Lawson researcher and endocrinologist Dr. Irene Hramiak, Chief of the Centre for Diabetes, Endocrinology and Metabolism at St. Joseph’s. “This overwhelming interest in the REMIT trial tells me that patients want solutions that will optimize care and reduce the complications associated with this disease.”
The standard treatment for people diagnosed with type 2 diabetes is to start on a single medication, which is then followed by the addition of more drugs and insulin as the disease progresses, explains Dr. Hramiak. In the REMIT study, patients undergo an experimental intensive treatment - two diabetes oral medications plus insulin at bedtime - for three months to see if remission can be induced and how long patients can go without any medication.
“By being proactive with aggressive treatment early on, the theory is that we may slow the progression of the disease,” says Dr. Hramiak. “We are attempting to actually change the disease and induce remission, which is a significant departure from the current approach.”
Those who would like more information about the trial can call 519 646-6100 ext. 65373.
Canadian researchers will test a promising new fecal microbiota treatment on patients to cure advanced melanoma
The Canadian Cancer Society (CCS) is uniting with a team of 12 researchers and collaborators to lead one of the world’s largest randomized controlled clinical trials using fecal microbiota transplantation (FMT) to improve the effectiveness of the standard of care for advanced melanoma. This phase II trial is made possible by investments of $1 million each from CCS and the Weston Family Foundation and will be overseen by the Canadian Cancer Trials Group.
An estimated 11,300 Canadians are expected to be diagnosed with melanoma in 2024. The current standard of care for patients with advanced melanoma is a type of immunotherapy called immune checkpoint blockade (ICB) and while it plays an important role in treatment, more than half of patients will still experience disease progression and unfortunately die of the disease. Finding a path to make this treatment effective for more people would have enormous impact on patient care and significantly improve the odds of surviving advanced melanoma.
The funding from CCS and the Weston Family Foundation supports all translational research and part of the trial costs (study ME17). The study is being co-led by researchers from Université de Montréal's affiliated hospital research centre (CRCHUM) and Lawson Health Research Institute, alongside collaborators and close to 130 patients with advanced melanoma who will be recruited throughout Canada to participate in this study.
The phase II trial builds on previous research that also received funding support from CCS. Those studies showed the safety and therapeutic potential of using healthy donors’ stool to influence a patient’s gut microbiota and make treatment for advanced melanoma more effective. The study will administer fecal microbiota transplants using specially-prepared oral capsules produced and pioneered at Lawson Health Research Institute, which have been a game changer in patient acceptance and ease of use.
For the past five years, the Weston Family Foundation has supported Canadian researchers working to leverage the microbiome to improve cancer diagnostics, therapy and patient care.
The biggest and most critical issues related to cancer, such as improving treatment effectiveness for people living with melanoma, are issues that require collaboration. From researchers to clinical trial leaders, to academic and scientific institutions, to caring funders and generous donors, it takes a society to transform cancer. To support cancer research and clinical trials, visit cancer.ca.
Quotes
“What saved me was trusting the scientists who knew what they were doing and the promising results of the clinical trial. To someone who is diagnosed, I would say that if you are offered this treatment, it may sound strange, but it is to help you. Thank you to the partners and the CRCHUM team for their support and for the treatments that went wonderfully well and saved my life." - Louise-Hélène Giroux, diagnosed in 2021 with stage 4 melanoma, first patient in the phase I clinical trial in Quebec to try FMT treatment
“Because of the generosity of our donors, we are able to invest in world-leading cancer research and clinical trials like this trial focused on advanced melanoma. In 2020, together with the Lotte and John Hecht Memorial Foundation, we committed nearly $1.5M into this research through an Impact Grant. Today, we are joining with the Weston Family Foundation to double down on our original investment through this clinical trial because we believe this work will transform the future of melanoma, saving lives and bringing hope to thousands of people facing the disease every year in this country.” – Dr. Stuart Edmonds, Executive Vice President, Mission, Research and Advocacy, Canadian Cancer Society
“The Weston Family Foundation is thrilled to support this pioneering research into the role of the microbiome in the fight against cancer, which has real potential to transform treatments and care for this devastating disease. It's a bold step forward in our mission to invest in innovation that delivers measurable impacts to the well-being of Canadians. Working alongside forward-thinking researchers and partners like the Canadian Cancer Society will make way for advancements that help to bring hope to patients and families affected by melanoma.” – Garfield Mitchell, Chair, Weston Family Foundation
“We are aiming to safely change the patient’s gut microbiota to improve the benefit of immunotherapy in several cancers, including melanoma. This experimental treatment consists of transplanting stool from healthy donors using a Health Canada-approved process - known as fecal microbiota transplantation (FMT). With this investment, we can pursue our randomized trial, with the goal of improving the lives of patients with advanced melanoma. We are optimistic that we will see promising results.” – Dr. Arielle Elkrief, principal investigator, Clinician-Scientist, Université de Montréal-affiliated hospital research centre (CRCHUM)
“Our early research has shown the safety of combining FMT with immunotherapy and that it may improve outcomes for patients with melanoma. Through this new trial, we hope to demonstrate that the combination is more effective than immunotherapy alone. A positive result would lead to a phase III trial with the potential to make FMT with immunotherapy the new standard of care.” - Dr. John Lenehan, Medical Oncologist at the Verspeeten Family Cancer Centre at London Health Sciences Centre and Associate Scientist at Lawson Health Research Institute, Co-chair of ME17 trial
The researchers and collaborators
The phase II clinical trial, known as the ME17 Fecal microbiota transplantation (FMT) in combination with immune checkpoint blockade in patients with advanced melanoma: A randomized phase II trial, involves several highly collaborative experts who will be working with the Canadian Cancer Trials Group (CCTG) who will administer the trial nationally. For the translational research associated with the trial, the project team includes:
Co-Principal Investigators:
Dr. Janet Dancey, Medical Oncologist and Professor, Queen’s University, Director of the Canadian Cancer Trials Group
Dr. Arielle Elkrief, Clinician-Scientist and Assistant Professor, Université de Montréal-affiliated hospital research centre (CRCHUM)
Dr. John Lenehan, Medical Oncologist at LHSC’s Verspeeten Family Cancer Centre, Associate Scientist, Lawson Health Research Institute
Dr. Bertrand Routy, Clinician-Scientist and Associate Professor, Université de Montréal-affiliated hospital research centre (CRCHUM)
Dr. Saman Maleki, Scientist, Lawson Health Research Institute, London Health Sciences Centre's (LHSC) Verspeeten Family Cancer Centre and Ontario Institute of Cancer Research (OICR)
Dr. Michael Silverman, Scientist, Lawson Health Research Institute, Medical Director of the Infectious Disease Care Program at St. Joseph’s Health Care London
Collaborators:
Dr. Seema Parvathy, Lawson Health Research Institute
Dr. Marcus Butler, Leader of the CCTG Melanoma Disease Site Committee, Princess Margaret Cancer Center
Dr. Rahima Jamal, hemato-oncologist, researcher and medical director at the Unit for Innovative Therapies (Phase I-II Unit), Université de Montréal-affiliated hospital research centre (CRCHUM)
Dr. Ian Watson, Associate Professor and Co-chair CCTG Melanoma Disease Committee, McGill University
Dr. Bingshu Chen, Professor, Queen’s University
Dr. Meriem Messaoudene, Research Associate, Université de Montréal-affiliated hospital research centre (CRCHUM)
About the Canadian Cancer Society
The Canadian Cancer Society works tirelessly to save and improve lives. We raise funds to fuel the brightest minds in cancer research. We provide a compassionate support system for all those affected by cancer, across Canada and for all types of cancer. Together with patients, supporters, donors and volunteers, we work to create a healthier future for everyone. Because to take on cancer, it takes all of us. It takes a society. Help us make a difference. Call 1-888-939-3333 or visit cancer.ca today.
About the Weston Family Foundation
At the Weston Family Foundation (formerly The W. Garfield Weston Foundation), more than 60 years of philanthropy have taught us that there’s a relationship between healthy landscapes and healthy people. That’s why we champion world-class health research and innovation with the same passion that we support initiatives to protect and restore biodiversity on our unique landscapes. We take a collaborative approach to philanthropy, working alongside forward-thinking partners to advance Canada and create lasting impacts. We aspire to do more than provide funding; we want to enable others to find transformational ways to improve the well-being of Canadians.
Canadian team first in world to treat COVID-19 with specialized dialysis
LONDON, ON - As part of a randomized controlled trial, a team from Lawson Health Research Institute is the first in the world to treat a patient with COVID-19 using a modified dialysis device. The device gently removes a patient’s blood, modifies white blood cells and returns them to fight hyperinflammation. It is being tested with critically ill patients at London Health Sciences Centre (LHSC).
Evidence suggests that COVID-19 causes a heightened immune response, termed a ‘cytokine storm,’ in the most severely ill patients. Treatment options to address this hyperinflammatory state are currently limited and there are concerns about global drug shortages.
“Working in the intensive care unit (ICU), I was aware that more treatment options were needed in the fight against COVID-19,” says Dr. Chris McIntyre, lead researcher, Lawson Scientist and LHSC Nephrologist. “This led to the idea of treating a patient’s blood outside of the body. We could reprogram white blood cells associated with inflammation to alter the immune response.”
The research uses a modified version of a standard dialyzer called an extracorporeal leukocyte modifying device. It gently removes blood in a much slower circuit than standard dialysis. Through a process using specific levels of biochemical components, it targets and transforms white blood cells associated with inflammation before releasing them back into circulation. The hope is that these ‘reprogrammed’ cells will now fight hyperinflammation - rather than promoting it - in affected organs like the lungs.
The clinical trial will include up to 40 critically ill patients with COVID-19 at LHSC’s Victoria Hospital and University Hospital. Research participants will be randomized to receive either standard supportive care or standard supportive care in combination with this novel treatment. The research team will compare patient outcomes to determine if the treatment is effective.
“The ultimate goal is to improve patient survival and lessen their dependency on oxygen and ventilation,” explains Dr. McIntyre. “If effective, it’s possible that this treatment could be combined with other therapies. For example, this could be used to modulate inflammatory consequences while an antiviral drug is used to reduce the viral load.”
Led by Lawson’s Kidney Clinical Research Unit, this new trial was accelerated from initial conception to treatment of the first patient in only 40 days. It represents an important research collaboration with a multidisciplinary team. The trial is leveraging insights gained from another local study led by Dr. Douglas Fraser which is analyzing blood samples from COVID-19 patients at LHSC to better understand the cytokine storm.
“We’re identifying which cytokines or biomarkers are important to the hyperinflammatory response seen in COVID-19 patients,” says Dr. Fraser, Scientist at Lawson and Paediatric Critical Care Physician at LHSC. “With the knowledge we’re gaining, we can study a patient’s blood to determine whether this extracorporeal treatment is making a difference.”
If successful, the treatment also has potential to be used with other conditions like sepsis.
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DOWNLOADABLE MEDIA
This modified dialysis device gently removes a patient’s blood, 'reprograms' white blood cells and returns them to fight hyperinflammation.
Dr. Chris McIntyre, Scientist at Lawson Health Research Institute, is the first in the world to treat a patient with COVID-19 using a modified dialysis device.
Lawson Health Research Institute is one of Canada’s top hospital-based research institutes, tackling the most pressing challenges in health care. As the research institute of London Health Sciences Centre and St. Joseph’s Health Care London, our innovation happens where care is delivered. Lawson research teams are at the leading-edge of science with the goal of improving health and the delivery of care for patients. Working in partnership with Western University, our researchers are encouraged to pursue their curiosity, collaborate often and share their discoveries widely. Research conducted through Lawson makes a difference in the lives of patients, families and communities around the world. To learn more, visit www.lawsonresearch.ca.
Senior Media Relations Consultant
Communications & Public Engagement
T: 519-685-8500 ext. 73502
Celine.zadorsky@lhsc.on.ca