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Month: July 2024

Fitness app could transform care of rheumatoid arthritis patients

Researchers at BHP members Sandwell and West Birmingham NHS Trust and the University of Birmingham aim to transform the care of rheumatoid arthritis (RA) patients by developing an app which links to the Fitbit – a popular activity tracker.

The rheumatology medical team and researchers are leading the groundbreaking clinical trial to create the app which they hope will ease the pain of patients suffering from the crippling disease and provide extra support.

It’s called MISSION-RA which stands for MovIng to Support Sustained Improvement of Outcomes iN Rheumatoid Arthritis.

Sally Fenton, Chief Investigator for the study, said: “The app will be specifically designed for and by people with RA.

“This will be done in two ways. Firstly, a series of interviews, co-design studies and workshops will be carried out to develop the app. Then, artificial intelligence will be used within the app to provide personalised support for people living with RA, based on symptoms such as pain, fatigue and mobility. It is expected the app will be available to download for free so it can be used on a Fitbit in the future.”

RA leads to inflammation of the joints and surrounding tissues which causes flare ups – this is when symptoms become worse. One of the ways to help ease these episodes of pain can be through exercise, physiotherapy and occupational therapy.

Dr Sangeetha Baskar, Clinical Specialty Lead for Rheumatology and Principal Investigator for MISSION-RA explained: “Rheumatoid arthritis is an extremely painful, tiring, psychological and physically debilitating disease. Patients face countless challenges while doing basic daily activities such as dressing, cooking and walking and often become dependent on family members to perform some of their daily tasks. Through this innovative study and the mobile app, we are hoping to help patients increase their physical activity tailored for them and improve their quality of life.”

The first patient from the Trust has already been recruited into the study.

Ana Duarte, Clinical Research Practitioner (CRP) and also Associate Principal Investigator, said: “Overall, the MISSION-RA study has overcome our initial expectations. Patients are very keen and have enjoyed their experience so far. This has also been a great opportunity for the study staff which has led to progression in their careers. Most importantly, this we hope will place SWB’s R&D department and rheumatology team as international leaders in healthcare AI and machine learning.”

MISSION-RA is being delivered in partnership with the National Institute for Health and Care Research (NIHR) and National Rheumatoid Arthritis Society (NRAS).

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Researchers at the Royal Orthopaedic Hospital and Aston University explore novel bone cancer therapy

Lucas Souza, Research Laboratory Manager for the Dubrowsky Regenerative Medicine Laboratory at the Royal Orthopaedic Hospital (pictured), is partnered with Professor Richard Martin, director of the Advanced Materials Research Centre at Aston University to explore a new way to treat bone cancer.

As bone cancer researchers, we are seeking to tackle the problem of bone tumours across all fronts. We are currently exploring how the metal element gallium could be used to support the treatment of bone tumours due to its cancer-killing properties.

Bone tumours can be either primary (originated in the bone tissue) or secondary (originated in another tissue and metastasise to bone tissue). We have already proved in a previous study that primary bone cancer cells are four times more sensitive to gallium than normal cells. In that study we wanted to understand if doping bioactive glasses, used in orthopaedic and dental surgeries for its bone forming properties, with gallium would support positive outcomes for bone cancer patients. We were able to show that the use of gallium embedded in bioactive glasses is an excellent strategy to support bone repair whilst selectively killing bone cancer cells which can potentially culminate with better treatment outcomes and reduced cancer recurrence rates.

The next phase of this study is exploring the use of gallium against bone metastases – cancer that originated in another tissue before spreading to bone. The ultimate goal is to prove whether cells from bone metastases also have greater sensitivity to gallium so it could be used as an adjuvant medicine to control metastatic growth in the treatment of other types of cancer that usually metastasise to bone, such as breast, lung, and prostate cancer.

If successful, we will combine the gallium-doped bioactive glass powder with biodegradable polymers to make a minimally invasive injective gel that surgeons can use to treat both primary and secondary bone tumours. This gel will have the potential to reduce cancer recurrence and implant failure rates, leading to reduced time in hospital beds, reduced use of antibiotics, fewer revision surgeries, and increased survival rates.

It is also hoped that this innovation could be used to improve outcomes for patients with vertebral metastases and other types of primary bone tumours where surgery and radiation is less effective due to their proximity to the spinal cord.

The safety and effectiveness of these biomaterials will need to be tested further, but the initial results are really promising. Treatments for a bone cancer diagnosis remain very limited and there’s still much we don’t understand. Research like this is vital to support in the development of new drugs and new methodologies for treatment options.

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