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ROH and Aston University establish international research group to develop novel bone cancer therapy

BHP members the Royal Orthopaedic Hospital NHS Foundation Trust and Aston University have come together with the Brazilian Aeronautics Institute of Technology (ITA) to found Biomedical Technologies for Regenerative Orthopaedics (BioTROCS) – a group aiming to advance research in the development, characterisation, and pre-clinical and clinical evaluation of novel biomaterials for bone regeneration and bone cancer applications.

ITA, Aston University and the Royal Orthopaedic Hospital have already been collaborating for several years to explore the use of gallium in treating bone cancer patients, and the formalisation of this alliance will make it easier for the three organisations to secure funding to further this ground-breaking research.

Dr Lucas Souza, Dubrowsky Regenerative Medicine Laboratory Manager at the Royal Orthopaedic Hospital, commented: “Collaboration is the core principle for groundbreaking research and solving real-world problems requires a multidisciplinary approach. BioTROCS is the officialisation of a long-term international collaboration between Brazil- and UK-based physicists, chemists, biologists and clinical researchers that has already made significant contributions to the advancement of technologies for the treatment of bone disorders such as critical-sized bone defects and bone tumours.

“This new phase represents the first step to establishing a strategic partnership that aims to facilitate the flow of researchers, materials, and data between participating institutions to foster an even richer research environment to accelerate discoveries in the field of biomaterials for bone regeneration and bone cancer.”

The new research group has successfully secured funding to further the group’s development of an injectable paste for use in bone cancer surgeries. The funding includes a PhD scholarship in Brazil, with the student also coming to Aston University for a 12-month placement.

Professor Dr Joao Lopes, Aeronautics Institute of Brazil, added: “The formalisation of the BioTROCS group is a key step in strengthening international scientific cooperation and represents a strategic opportunity to expand our research efforts in cutting-edge therapies for bone regeneration and bone cancer treatment. This partnership between institutions in Brazil and the UK not only enhances the development of novel biomaterials and advanced therapies, but also significantly increases our ability to secure funding from agencies that offer exclusive calls for international collaborative projects. In addition to enabling the exchange of researchers and knowledge, BioTROCS fosters a more dynamic innovation ecosystem that supports the development of high-impact clinical and technological solutions.”

Professor Richard Martin, Aston University, commented: “Aston University and the Royal Orthopaedic Hospital have successfully collaborated for five years in this area of research and the formation of an international research group will help drive forward the use of biomaterials for bone regeneration and bone cancer.

“This area of research has huge potential – for example in September 2024, our tests found that bioactive glasses doped with gallium have a 99% success rate of eliminating cancerous cells and can even regenerate diseased bones. My team at Aston University is looking forward to hosting the new PhD researcher who will help further advance our research.”

Members of the BioTROCS team in Brazil

Trial offers new hope to patients with rare skin cancer

Researchers at BHP founder-members University Hospitals Birmingham have contributed to new findings showing that patients with Cutaneous (skin) T-cell Lymphoma (CTCL) experienced improved overall survival when treated with mogamulizumab, known by its brand name POTELIGEO.

CTCL is a rare type of cancer that begins in the white blood cells and affects the skin, causing rashes and slightly raised or scaly round patches. The most common types are mycosis fungoides and Sézary syndrome, with around 150 people diagnosed in the UK each year.

Individual’s experiences with CTCL can vary wildly – many people experience only a mild form that is not life-threatening and can be managed for years, while a smaller number develop a more serious form. Treatments either target the skin directly, using creams, light therapy, or radiotherapy, or are given as tablets or injections that circulate in the blood and work throughout the body.

POTELIGEO (mogamulizumab) is a prescription medicine given by injection into a vein and is used to treat mycosis fungoides or Sézary syndrome in adults whose disease has returned or who have not responded to at least one other treatment (oral or injectable).

Now in its tenth year, the PROCLIPI Study is the largest international study of its kind, involving 2,547 patients across 19 countries. It collects information on tests, scans, treatments, quality of life, and survival from CTCL patients, with the aim of developing a tool (known as a prognostic index) to predict outcomes for people with the disease.

The latest research confirmed that patients with advanced-stage disease treated with POTELIGEO experienced improved overall survival, with a median overall survival of 64 months compared to 54 months for patients who did not receive the treatment.

Professor Julia Scarisbrick, Consultant Dermatologist at UHB and Chief Investigator, said: “The PROCLIPI Study demonstrates the power of global collaboration in rare diseases. By bringing together data from across the world, we can generate insights that simply wouldn’t be possible in isolation.

“We are proud to coordinate this initiative here in Birmingham in partnership with Prof Kim at Stanford University, California, as we’re working to build rigorous scientific evidence while giving patients and their families a better understanding of what long-term survival looks like.”

Alexandra Mars, a 51-year-old patient at UHB’s Queen Elizabeth Hospital took part in the study, and said: “I have had tumour mycosis fungoides for over 10 years. I was most recently treated with mogamulizumab for two years and had no significant side effects. It appears to have put my disease to sleep, and I have not been on any medication since February. It is amazing to finally be able to have a break from treatment, which is so tiring, and not have to think about this disease.”

Due to the rarity of CTCL and its wide variation in presentation and progression, enrolling patients in clinical trials can be challenging. Despite these difficulties, growing evidence is helping doctors understand which treatments may be most beneficial.

New vaccine trial for head and neck cancer patients

Patients in Birmingham who have advanced head and neck cancers may be eligible to take part in a new clinical trial of a potential cancer vaccine, supported by the NHS Cancer Vaccine Launch Pad (CVLP).

Queen Elizabeth Hospital Birmingham, part of BHP founder-members University Hospitals Birmingham NHS Foundation Trust (UHB), is one of 15 sites across the country aiming to recruit more than 100 patients over the next year.

The investigational cancer vaccine in this latest trial on the platform uses mRNA technology to help the immune system recognise and kill cancer cells which express human papillomavirus (HPV) proteins.

The first head and neck cancer patients in England have received the investigational mRNA cancer vaccine in the clinical trial, known as AHEAD-MERIT (BNT113-01), with more patients to soon be enrolled at their nearest NHS hospital. 

More than 11,000 new head and neck cancer cases are diagnosed in England every year, with cancers typically developing in the mouth, throat or voice box.  

Despite advances in care for patients with head and neck cancer, the advanced form of the disease is difficult to treat and has high rates of recurrence, with two-year survival rates at under 50%.

The investigational cancer vaccine is designed to encode two proteins that are frequently found in head and neck squamous cell cancers associated with human papillomavirus (HPV-16). This is the most common type of head and neck cancer, accounting for 95% of these types of cancers, and the vaccine aims to train the immune system to fight the cancer.

NHS England is partnering with life sciences company BioNTech to help identify potentially eligible patients to refer to NHS hospitals running the clinical trial.

Dr Paul Sanghera, Consultant Oncologist and Principal Investigator of the trial at Queen Elizabeth Hospital Birmingham, said: “This clinical trial marks an important step forward in the search for better treatments for advanced head and neck cancers, which remain a significant challenge in oncology.

“These cancers are notoriously difficult to treat, and access to this investigational vaccine could offer patients a potential new option in their treatment journey. While we are still in the early stages, the hope is that this trial will pave the way for improved outcomes for those living with these challenging conditions.”

Matthew Metcalfe, Hospital Executive Director at Queen Elizabeth Hospital Birmingham, said: “We are incredibly proud to be one of the 15 sites across the country taking part in this important clinical trial. It reflects our ongoing commitment to driving forward research aimed at improving outcomes for patients in Birmingham and beyond, offering new hope to those facing these challenging diagnoses.”

Dr Iain Foulkes, Executive Director of Research and Innovation at Cancer Research UK, said: “It’s great to see more clinical trials of vaccines for head and neck cancer supported by the Cancer Research UK-funded Southampton Clinical Trials Unit.

“Research into personalised cancer treatments is vital. There are over 200 different types of cancer and it’s unlikely there will ever be a single cure that works for everyone. That’s why it’s vital that we support a wide range of research, so that more people can live longer, better lives, free from the fear of cancer.”

More cancer vaccines news from across BHP

New AI tools set to advance early cancer detection and prevention

Birmingham researchers are to play a role in Cancer Research UK’s recently announced £10 million AI detection programme, jointly supported by the National Institute for Health and Care Research (NIHR) and the Engineering and Physical Sciences Research Council (EPSRC) and involving 18 institutions including BHP founder-member the University of Birmingham.

Over the next five years, the Cancer Data-Driven Detection programme will harness vast quantities of data, link datasets and develop new tools to predict cancer risk – ultimately increasing the number of people diagnosed with cancer at its earliest stages.

The programme aims to access and link data from different sources – including health records, genomics, family history, demographics, and behavioural data – to develop advanced statistical models that help scientists accurately predict who is most likely to get cancer. Alongside this, the programme will develop powerful new tools which use AI to analyse the data and calculate an individual’s risk of cancer throughout their lifetime.

Researchers from University of Birmingham will take on specific roles in the programme, alongside approximately 40 others working together collaboratively. Professor Sudha Sundar, gynaecological cancer surgeon and a clinical academic in the University’s Department of Cancer and Genomic Sciences, is advising as a clinical practitioner in the multi-cancer risk prediction area of the work. Dr Ameeta Retzer from the Centre for Evidence and Implementation Science will lead on the cross-cutting Equity, Diversity and Inclusion theme, drawing on her expertise in health inequalities and research equity.

Dr Ameeta Retzer said: “Across the whole programme we will work to embed equality, diversity and inclusion since we know that cancer doesn’t affect everyone equally. It is vital that we ensure our research will benefit everyone, across all communities, equitably and that’s why I look forward to ensuring this strand of work has prominence in all areas of the programme.”

Over the next five years, the funding will build the infrastructure required to access and link these datasets, train new data scientists, create the algorithms behind the risk models and evaluate the algorithms and AI tools to ensure that they are giving accurate and clinically useful information about cancer risk.

The models generated from this research could be used to help people at higher risk of cancer in different ways. For example, the NHS could offer more frequent cancer screening sessions or screening at a younger age to those at higher risk, whilst those at lower risk could be spared unnecessary tests. People identified as higher risk could also be sent for cancer testing faster when they go to their GP with possible cancer signs or symptoms. Individuals at higher risk could also access different ways to prevent cancer.

Professor Sudha Sundar, whose clinical practice is based at BHP member Sandwell and West Birmingham NHS Trust, commented: “With cancer cases on the rise, it is essential that we work to identify and diagnose cancers earlier so that patients can begin treatments soon, which in most cancers vastly improves their quality of life and chances of survival. Screening is one way of identifying cancer sooners. Multi-cancer earlier detection tests represent an exciting progression in the scope of cancer screening programmes and this is part of the Cancer Data-Driven Detection programme that is exciting to explore further.”

The scientific programme will be guided by partnerships with cancer patients, the public, clinical experts and industry, while addressing ethical and legal considerations to ensure that the models and tools work well in practice.

Professor Antonis Antoniou, Director of the Cancer Data Driven Detection programme and Professor of Cancer Risk Prediction at the University of Cambridge, said: “Finding people at the highest risk of developing cancer, including those with vague symptoms, is a major challenge. The UK’s strengths in population-scale data resources, combined with advanced analytical tools like AI, offer tremendous opportunities to link disparate datasets and uncover clues that could lead to earlier detection, diagnosis, and prevention of more cancers.

“The Cancer Data Driven Detection programme will build the partnerships and infrastructure needed to make data-driven cancer early detection, diagnosis and prevention a routine part of frontline healthcare. Ultimately, it could inform public health policy and empower individuals and their healthcare providers to make shared decisions. By understanding individual cancer risks, people can take proactive steps to stop cancer before it gets worse or even begins in the first place.”

Earlier diagnosis of cancer saves lives. Yet according to analysis of NHS figures by Cancer Research UK, only 54.4% of cancers in England are diagnosed at stages one and two, where treatment is more likely to be successful. NHS England has set a target to diagnose 75% of cancers at stages one and two by 2028, and this will only be achieved with research and embracing new technologies to catch cancer earlier.

Professor Lucy Chappell, Chief Scientific Adviser at the Department of Health and Social Care (DHSC) and Chief Executive Officer of the NIHR, commented: “Detecting and diagnosing cancer earlier is key to improved survival and quality of life for patients. By leveraging AI to enable healthcare professionals to identify people at a greater risk of cancer, this initiative could improve the way patients are screened and diagnosed. This programme’s AI-driven insights could lead to more effective treatment and improved survival, helping patients to live longer, healthier lives.”

The Cancer Data Driven Detection programme is jointly supported by Cancer Research UK, the National Institute for Health & Care Research, the Engineering & Physical Sciences Research Council, Health Data Research UK, and Administrative Data Research UK.

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Researchers at the Royal Orthopaedic Hospital secure funding to develop cancer-killing injectable paste for bone tumours

The Dubrowsky Lab at BHP member the Royal Orthopaedic Hospital (ROH) has secured a £110k grant from Orthopaedic Research UK to develop an injectable paste with anticancer and bone regenerative properties.

The project will see researchers at ROH work with BHP members Aston University to produce an injectable paste comprised of gallium-doped bioglass that, if proved effective, could be used to treat patients with primary and metastatic bone cancer.

Dr Lucas Souza, Research Lab Manager at the Dubrowsky Lab and Lead Researcher for this new project, comments: “Advances in treatment of bone cancer have reached a plateau over the past 40 years, in part due to a lack of research studies into treatments and the complexity and challenges that come with treating bone tumours. Innovative and effective therapeutic approaches are needed and this grant from Orthopaedic Research UK provides vital funds for us to continue our research into the use of gallium-doped bioglass in the treatment of bone cancer.”

Gallium is a metallic element that has cancer-killing properties. When combined with bioactive glass the material can kill cancer cells that remain when a tumour is removed and accelerate the regeneration of the bone defect. In addition, the material also prevents bacterial contamination in the surgical site. A recent study led by Aston University in collaboration with the ROH found that bioactive glasses doped with the metal have a 99 percent success rate of eliminating cancerous cells.

The injectable paste is to function as a drug delivery system for localised delivery of anticancer gallium ions (GaBG) and bisphosphonates whilst regenerating bone. The team hypothesise that the GaBG and bisphosphonates will promote rapid bone formation and will prevent cancer re-occurrence by killing residual cancer cells and regulating local osteoclastic activity.

The new therapeutic approach will be particularly useful in reducing cancer re-occurrence, implant site infections and implant failure rates in cases of bone tumours where large resections for complete tumour removal is either not possible, e.g. when tumours are located too close to vital organs, or not recommended, e.g. in the treatment of bone metastases and aggressive benign bone tumours (such as Giant-cell tumour of bone) when the harm inflicted by a large surgical procedure may be greater than its benefits. It could also be used in combination with minimally invasive intralesional therapies such as cryoablation or radiofrequency ablation for optimal management of metastatic bone lesions.

Dr Lucas Souza adds: “The proposed biomaterial has the potential to drastically improve treatment outcomes of bone tumour patients by reducing cancer re-occurrence, implant-site infection rates, and implant failure rates leading to reduced time in hospital beds, less use of antibiotics, and fewer revision surgeries. Taken together, these benefits could improve survival rates, functionality and quality of life of bone cancer patients.”

Dr Lucas Souza will be supported by Professor Adrian Gardner, Director of Research and Development at the Royal Orthopaedic Hospital and Professor of Clinical Orthopaedics at Aston University, as well as Mr Jonathan Stevenson, Orthopaedic Oncology and Arthroplasty Consultant. The project is also supported by collaborators Professor Richard Martin and Dr Eirini Theodosiou from Aston University and Professor Joao Lopes from the Brazilian Aeronautics Institute of Technology.

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Most accurate ultrasound test could detect 96% of ovarian cancers

An ultrasound test that detected 96% of ovarian cancers in postmenopausal women should replace the current standard of care test in the UK, according to a new study by BHP members.

In a paper published in Lancet Oncology, researchers funded by the NIHR and led by Professor Sudha Sundar conducted a head-to-head comparison of all currently-available tests to diagnose ovarian cancer in postmenopausal women, in a high-quality diagnostic test accuracy study.

Of the six diagnostic tests investigated, the IOTA ADNEX model which looks at ultrasound features (how the lump looks on ultrasound) had the best accuracy of all and could detect up to 96% of ovarian cancers.

The ultrasound test outperforms the current standard of care in the UK significantly and so researchers recommend that the IOTA ultrasound ADNEX model should replace the current standard of care test in the UK which identifies 83% of ovarian cancers.

Sudha Sundar, Professor of Gynaecological Cancer at the University of Birmingham and consultant in gynaecological cancer surgery at Sandwell and West Birmingham NHS Trust – both BHP members – said: “This is the first time that a head-to-head study of all available ovarian cancer tests has been done in the same population. Here we studied their use with symptomatic, post-menopausal women who are most at risk of this cancer. Our trial found that the IOTA ADNEX ultrasound protocol had highest sensitivity for detecting ovarian cancer compared to the standard of care and other tests.

“The ultrasound test also performs well when delivered by a trained sonographer who has received specific training, certification and quality assurance, and as the vast majority of ultrasound scans are performed by sonographers it is important that a new standard is able to be delivered by as many clinical professionals as possible.

“We found that the higher sensitivity of the IOTA ADNEX model is likely to lead to some women who don’t have cancer also being flagged up as having a higher risk of cancer. We however did discuss this extensively with patients, cancer charity Target ovarian cancer and NHS experts who all agreed that in postmenopausal women who are at higher risk of ovarian cancer, picking up more women with cancer would benefit women overall.”

Annwen Jones OBE, Chief Executive at Target Ovarian Cancer said: “Early diagnosis of ovarian cancer is vital, and we are pleased to see this research demonstrate that there are more accurate ways of using ultrasound. The faster and earlier ovarian cancer is diagnosed, the easier it is to treat and the more successful the outcomes. Alongside this innovative research, we need to see greater awareness of the symptoms of ovarian cancer so that women know to come forward to their GP for testing and receive the best possible treatment as quickly as possible. It is crucial that new ways of working like this are rolled out as quickly as possible.”

The research team note that the IOTA ADNEX model achieved 96% accuracy when delivered by NHS sonographers who were appropriately trained and received quality assurance. As most scans worldwide are carried out by sonographers rather than gynaecologists, introductory free online resources have been created by the researchers for NHS staff to undergo the specialist ultrasound training to obtain certification and quality assurance.

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