Christopher Playfoot

A world where we can 3D bioprint organs on demand is creeping ever closer to clinical reality, thanks to Belgian efforts to standardize the biomaterials necessary. Achieving this will have profound consequences for organ transplants, disease modeling, tissue engineering, personalized medicine, and drug discovery. But bioprinting success depends on multidisciplinary collaborations between material scientists, hardware manufacturers, clinicians, and other partners. Recently, these collaborations have reached the stratosphere, with a project to study cardiovascular aging with a heart-on-a-chip… in space!
Cervical cancer is largely curable if detected early enough and yet it remains a leading cause of death in women globally. Why? Although researchers recently made the biggest improvement in cervical cancer treatment in more than 20 years, cutting the risk of death by over 40%, effective and inclusive screening remains crucial for early detection and treatment. However, recent research from Belgium suggests that certain populations of vulnerable women or those with a migration background are falling through the cervical cancer screening cracks.
Our current food system is responsible for around a third of global greenhouse gas emissions, extensive deforestation, unsustainable water usage, and an unprecedented loss of biodiversity. Currently, the processes used to produce our food represent an obstacle to limiting average global temperature increases to the levels set out in the Paris Agreement. But are these damaging effects of our current food production landscape an unavoidable cost of feeding humanity or can smart investments in sustainable agritech be part of the solution?
Luxembourg may be one of the smallest nations in the world, at just over 2,500 square kilometers and around 670,000 inhabitants, but it packs a punch in the global life sciences ecosystem. With world-class research institutes, startup accelerators, and the country’s growing digital prowess, Luxembourg is attracting global talent and putting digital healthtech solutions front and center. So, how did the Grand Duchy establish and grow its thriving research and startup landscape, and what is the vision for the future?
In our overfed yet undernourished modern society, we must understand how the things we eat contribute to our gut microbiome and overall health. Analyzing how the friendly and not-so-friendly communities of microbes in our gut respond to our daily intake of food, additives, supplements, and pharmaceuticals will help companies formulate more nutritious products while providing us with crucial insights to help us all be healthier for longer.
Could we ever recreate the complexity of the human brain in the lab? Over ten years ago, researchers aimed to do just that by developing a three-dimensional cell culture method to grow the first ever miniaturized versions of the human brain, so-called ‘brain organoids.’ Innovation in this field continues at a rapid pace, with researchers in Luxembourg and around the world refining methods to grow organoids that resemble specific brain regions. These advances can help us understand the effects of Parkinson’s disease on cells while driving the discovery of novel therapeutics beneficial to those in need.
An estimated 50 million people in Europe regularly go for a run, including almost 20% of the Belgian population. While most might not be running marathons at an Olympic pace, the chance of getting injured can feel inevitable to any runner. This fear is justified, as around half of all runners experience at least one injury annually. But what’s driving this unsettling statistic, and how can runners potentially reduce the likelihood of a dreaded injury spell?
For scientists or budding entrepreneurs with the next big idea in sports tech, the road from conceptualization to product can seem perilous, with many pitfalls along the way. To stand a chance at getting your research out of the lab and into the hands of athletes, it’s essential to start off on the right foot. Read on to see how the collaboration of scientists and sports tech development experts is helping this unique ecosystem in Belgium to flourish.
Ultrasound is a powerful technology that helps healthcare professionals take the first images of your child in utero and allows us to look at soft tissue, such as muscles, tendons, and most internal organs. But ultrasound largely requires patients to be static, meaning crucial information is missed about how muscles or organs behave when they’re most strained during exercise. Now, novel advances and innovative designs from the Netherlands and beyond are bringing ultrasound devices into the wearable medtech era, with exciting possibilities to monitor muscles and organs in motion. These technologies are pushing boundaries in both the medical and sports worlds while helping to diagnose patients, to help athletes train, or to shorten their road to recovery.