Basic & Translational
Science – Bench to Bedside

Research Platform 1

This teams focus is taking scientific discoveries of bone from the laboratory (bench) & turning them into real-world benefits for people (bedside), like new treatments, earlier diagnoses & better quality of life. Scientists call this Basic to Translational Research.

The team is concentrating on:

  • Bone metabolism – how our bones respond and adapt to metabolic and physical stimuli. We will focus on cell signaling, bone remodeling (how old bone is broken down & replaced with new bone), functional adaptation (how bones adapt to mechanical loads), its impact on the quality and quantity of our bones and how it is influenced by lifestyle factors, genetics and disease.

  • How bones interact with muscles, fat, joints, and nerves, and how these connections affect bone health in both common & rare bone conditions, from childhood through older age.

  • Finding better treatments, including new treatment targets and new ways to use and manage drugs that already exist.

    To find new ways to keep bones healthy, scientists study how bones are built, broken down, and repaired. This process is controlled by genes, signals between cells, and how those cells work together. Researchers look for specific parts of this process—like certain molecules or signals—that they can change or target with drugs. The goal is to help the body build more bone, slow down bone loss, or make bones stronger.

    We will focus on the use of new approaches (including novel animal and computer-based models) to test ideas about how bone diseases work & how treatments might help, before moving to human studies.

  • Exploring non-drug approaches—like nutrition, exercise, and lifestyle changes—as they show great promise for improving bone health. Exercise, especially, helps build muscle strength and protect bones. More research is needed to tailor exercise to different bone conditions, make it safer and more effective, and prevent injuries—all to help reduce pain and lower fracture risk.

  • Provide training in advanced technologies, such as medical imaging, to improve bone health diagnosis, monitoring, and treatment. This includes using imaging to assess bone quality, internal structure, and fracture risk, and applying research findings to better understand and identify the causes of bone diseases.

Example: Bone imaging is studied to investigate better ways to predict the risk of breaking a bone (fracture).

Traditional tools like dual-energy X-ray absorptiometry (DXA) scans don’t always capture the full picture, so scientists are turning to more detailed data from computed tomography (CT) scans combined with patient health information.

Advanced computer techniques (machine learning), can find hidden patterns in this data to better identify people at higher risk of fractures.

Here’s how it works in simple terms:

  • When doctors look at a scan, they see shapes, sizes, & textures.
  • Machine learning goes a step further by using computer programs to measure & analyze hundreds of tiny details in those images — things that are too complex for the human eye to notice.
  • These details can help detect disease, predict how it might progress, or show how well a treatment is working.
  • Undertake & support the science that helps move ideas from the lab into real-world treatments – regardless of methodology (the different ways researchers design & carry out studies). It includes everything from basic science (like studying cells or genes) to discovering new ways to prevent or treat diseases.

    No matter the method, each approach plays a vital role in discovering better ways to prevent, understand, and treat disease.

2025 -2026 Focus:

Collaborated with SP1 Training and Mentorship to deliver OsNET’s first summer school “OsteoImaginarium: Bone Imaging Masterclass”, held June 15 -20, 2025 in Calgary, AB. Learn more.

Participate in the World Congress of Biomechanics (WCB) in Vancouver, B.C. July 2026

  • 1
    Conduct a trainee and Early Career Research (ECR) Day before the WCB to build skills, spark collaboration, and prepare emerging researchers to lead innovative, 21st-century science.
  • 2
    Deliver a Special Session on bone health at WCB (submitted to WCB for consideration on September 20, 2025).
  • 3

    Connect with leading biomechanics researchers, practitioners, and innovators from around the world. Build collaborations, exchange ideas, and foster future partnerships.

Leadership Team

Rachel Whyte

Patient Partner

Brent Edwards

University of Calgary

Elizabeth Zimmerman

McGill University