Our partnership with the Centre for Blood Research (CBR) at the University of British Columbia is helping to train the next generation of researchers in transfusion science. This blog post highlights just some of the achievements in education, training or knowledge mobilization accomplished by CBR trainees.   

Canadian Blood Services 2024 Lay Science Writing Competition offered in partnership with the Centre for Blood Research (CBR) provides research trainees an opportunity to exercise and enhance their science communication skills by sharing their research with lay audiences. The competition was open to research trainees in the broad Canadian Blood Services research network – including trainees that are directly funded by Canadian Blood Services, in laboratories that receive funding from Canadian Blood Services, and at the Centre for Blood Research in Vancouver. In this blog, graduate student Mahsa Yazdanbakhsh, author of the third prize-winning entry, provides some behind-the-scenes insights into the preparation of her submission. The full entry text is also shared below.  

Why did you choose to participate in the competition this year?  

I chose to participate in the competition because it gave me a chance to highlight important research in neonatal blood transfusion, specifically focusing on umbilical cord blood (UCB) transfusions for extremely premature newborns. I saw this as an opportunity to show how UCB could improve survival and outcomes for these vulnerable babies. Since I’m involved in this research, I felt it was important to share my insights and the potential benefits this work could bring to neonatal medicine. 

The theme this year was “Connecting science with society”; what did this theme mean to you?  

The theme was particularly meaningful to me because it emphasizes the importance of making scientific discoveries accessible and relevant to the broader public. For me, it’s about bridging the gap between complex research and real-world applications that can improve lives. In our work on umbilical cord blood transfusions for premature infants, the potential benefits go beyond the laboratory—they directly impact vulnerable newborns. This theme reminded me that research is not just about advancing knowledge within the scientific community, but also about ensuring that society understands and benefits from these advancements. By participating in this competition, I aimed to contribute to this connection, demonstrating how science can address critical healthcare challenges and ultimately improve outcomes for neonates. 

Did the writing process help you learn or discover something new about your research?  

Yes, the writing process helped me gain a new perspective on our research. It required me to step back and think about how to explain complex scientific concepts in a way that is clear and relatable to a wider audience. This helped me see my work from a different angle, focusing not just on the technical aspects, but also on the broader impact it could have on neonatal care. Writing about my research also reinforced the importance of effective science communication, reminding me that research isn't just about what happens in the lab, but how it can be applied to make a real difference in society. 

What tips would you share with others who are writing about research for lay audiences?  

When writing about research for lay audiences, I recommend simplifying complex ideas without losing the essence of the work. Break down the concepts into clear and simple language, but ensure key details remain intact. I suggest focusing on why the research matters by connecting it to real-world applications or benefits, helping readers understand its relevance. Avoid jargon whenever possible, and if you need to use technical terms, explain them in an accessible way. I also recommend using relatable examples to make complex concepts easier to grasp. Present the research in an engaging way, perhaps by telling a story or highlighting its human impact. 

Read the prize-winning entry in its entirety below...  

Evaluating umbilical cord blood transfusion efficacy and safety in neonates 

Imagine a small infant who was born prematurely and is having a hard time surviving in the outside world. These extraordinarily early newborns, referred to as ELGANs (Extremely Low Gestational Age Newborns), are born before 28 weeks of pregnancy and must fight a losing battle against anemia, a disorder in which there are insufficient healthy red blood cells in their blood to carry oxygen throughout their bodies. A common strategy used by physicians to win this conflict is blood transfusions. These transfusions now depend on adult donors' blood. This method, while life-saving, has limitations. Adult blood cells might not always meet these delicate babies' unique needs, which could occasionally result in complications and less positive results. But what if there was a more efficient method? 

Umbilical cord blood (UCB) has been proposed as a treatment for anemia in infants in the past. Fetal hemoglobin (HbF), a particular type of hemoglobin that is beneficial at carrying oxygen and protecting cells from harm, is rich in UCB. The fragility of fetal red blood cells and low volumes presented practical challenges that led to a decline in the use of UCB, despite its promising results. However, scientists are now looking again at this overlooked hero. They think that the secret to safer and more efficient treatments for premature babies may lie with UCB. According to recent research, UCB may be able to supply the necessary transfusions, and ongoing clinical trials are examining its advantages over adult blood.    

How to store UCB is a big obstacle when using it. UCB has a shorter life span than adult blood, which can be kept in storage for longer periods of time. Scientists are actively working on new methods to freeze and store UCB so it can be readily available when needed. This process is known as cryopreservation. Our research team has developed a meticulous method to freeze and thaw UCB. This technique, involving the addition and removal of a substance called glycerol, aids in protecting the blood cells during the freezing process. Having demonstrated the effectiveness of this method with adult blood, we are now adapting it for UCB.   

Our research is guided by three primary objectives: optimizing the freezing process, minimizing immune reactions, and assessing survival rates. By refining our freezing and thawing methods, our aim is to ensure that UCB cells remain healthy and functional. Furthermore, we seek to compare how the immune system responds to UCB and adult blood to ascertain the safety and efficacy of UCB transfusions. Lastly, we will evaluate the survival of UCB cells after cryopreservation and thawing, comparing them to adult blood cells. Success in these endeavors could offer a more potent treatment for anemia in premature babies, leading to improved health outcomes and fewer complications, thereby revolutionizing neonatal care and providing these vulnerable recipients with a stronger start in life. 

In conclusion, our research in Dr. Jason Acker's lab on UCB aims to address the critical needs of premature infants by optimizing cryopreservation techniques, understanding immune responses, and comparing the efficacy of UCB to adult blood. The potential benefits of utilizing UCB are immense, and if successful, this work could transform the landscape of neonatal transfusions, offering these vulnerable babies a better chance at a healthy start in life. 

About the author:

Mahsa's research is supported by the Canadian Blood Services Graduate Fellowship Program award. In her work, Mahsa focuses on optimizing blood manufacturing methods and investigating how to improve the efficacy of blood transfusion.  

Canadian Blood Services – Driving world-class innovation  

Through discovery, development and applied research, Canadian Blood Services drives world-class innovation in blood transfusion, cellular therapy and transplantation—bringing clarity and insight to an increasingly complex healthcare future. Our dedicated research team and extended network of partners engage in exploratory and applied research to create new knowledge, inform and enhance best practices, contribute to the development of new services and technologies, and build capacity through training and collaboration. Find out more about our research impact.   

The opinions reflected in this post are those of the author and do not necessarily reflect the opinions of Canadian Blood Services nor do they reflect the views of Health Canada or any other funding agency.  

Dr. John Blake is a research engineer at Canadian Blood Services and a Professor in the Department of Industrial Engineering at Dalhousie University. Based in Halifax, Nova Scotia, Dr. Blake and his trainees use engineering principles and various computer-based optimization techniques to inform large scale decisions at Canadian Blood Services.  

Applying network modelling to biologics  

To some, it may be surprising to learn that there is such opportunity to integrate engineering into the health-care focused setting of Canadian Blood Services. However, as Dr. Blake explains, the same engineering principles that apply to the development and quality assurance of other products also apply to biologics such as blood, stem cells and organs. One of these classic engineering approaches currently applied to improving operations at Canadian Blood Services is network modelling.  

Network modelling is a computer-based method that creates a virtual representation of objects and their relation to each other. The resulting models are particularly useful for maintaining adaptability in the collection of blood donations, as well as the distribution and inventory management strategies that allow Canadian Blood Services to remain a safe and reliable provider of life-saving products. 

Contributing to efficiency and sustainability in Canada’s Lifeline  

For Dr. Blake’s team, modelling is not about the data acquired but rather how they can turn existing data into real life change. Part of this approach is ensuring that Canadian Blood Services is asking the right questions when it comes to allocating resources. For example, Dr. Blake has worked on models to assess how changing stem cell donor recruitment will affect the number of matches for Canadian patients. By modelling things such as recruitment approaches, Dr. Blake’s work assists Canadian Blood Services to consistently identify ways to improve Canada’s Lifeline.

Recently, Dr. Blake has also been applying this method to optimize the number and location of mobile and permanent donor facilities across the nation. This redesign of the donation facility network will address the growing demand for donations by bringing Canadian Blood Services’ facilities closer to the donors. 

“I have waited my entire career for a problem of this type – it is truly a once in a lifetime opportunity.”

Dr. John Blake, Canadian Blood Services Research Engineer

Securing the future of Canada’s Lifeline  

To sustain a safe and effective blood system in Canada for years to come, network modelling and optimization is a never-ending process. This is one of the reasons that Dr. Blake is committed to securing the future of transfusion and transplantation systems by training and mentoring the next generation of engineers. In fact, seeing his former students join Canadian Blood Services and dedicate their talents to improving the future of Canada’s Lifeline is one of Dr. Blake’s proudest achievements.  

One of Dr. Blake’s former students, Matt Nelson, is now an industrial engineer at Canadian Blood Services.  

“In my role, I use systematic thinking to build and run complex models; collect and analyze the required data; produce useful results; and explain these results to non-technical leaders on a regular basis,” Matt says. Recently, Matt contributed to the launch and expansion of pathogen-reduced platelets, a new product that was implemented across Canadian Blood Services production sites starting in 2022. The implementation of pathogen-reduced platelets has provided an additional layer of safety for recipients by reducing the risk of potential transfusion-transmitted pathogens without compromising the quality of the component. Matt credited Dr. Blake in helping him develop the necessary skills he now dedicates to safeguarding Canada’s Lifeline:  

“Dr. Blake was the professor who introduced me to the uses of simulation to understand complex non-linear systems. This type of system is very common in situations that have a lot of variability – like the blood system – and simulation allows for exploration of the response of the system to changes.” 

Matt Nelson, Canadian Blood Services Industrial Engineer

Over the years, Dr. Blake’s ongoing modelling work and mentorship activities have also led to many recognitions and awards, but he is most proud of being recognized as Professor of the Year by Dalhousie Undergraduate students, and with awards for his contributions to the Canadian Operational Research Society. He has even the earned the distinction of being Dalhousie’s first engineer to be awarded grant funding from the tri-council agency, Social Sciences and Humanities Research Council (SSHRC). 

“I am proud to work on projects that have a measurable impact on people’s health and well-being,” Dr. Blake says. “I am forever grateful to Dr. Dana Devine for first giving me the opportunity to serve Canadians in this role at Canadian Blood Services.” 

Canadian Blood Services – Driving world-class innovation

Through discovery, development and applied research, Canadian Blood Services drives world-class innovation in blood transfusion, cellular therapy and transplantation—bringing clarity and insight to an increasingly complex healthcare future. Our dedicated research team and extended network of partners engage in exploratory and applied research to create new knowledge, inform and enhance best practices, contribute to the development of new services and technologies, and build capacity through training and collaboration. Find out more about our research impact.   

The opinions reflected in this post are those of the author and do not necessarily reflect the opinions of Canadian Blood Services nor do they reflect the views of Health Canada or any other funding agency.