Features
“We need a biobank that is representative of the population”: Inside Europe’s first women’s health research tissue bank
Femtech World meets Dr Natalie Kenny, CEO of the BioGrad Group, and the woman behind Europe’s first female-focused research tissue bank.
Europe’s first Research Tissue Bank focused on women’s health is helping to bridge the gender health gap with the promise of new therapies and more representative scientific studies.
Located in the women’s health building at BioGrad’s 10,000 square foot facility in Liverpool, UK, floor to ceiling windows allow for a clear view through the diagnostic laboratories and into the biobank where hundreds of thousands of tissue samples are stored, waiting for their moment to contribute to science.
Specialising in laboratory testing, BioGrad is the company behind Europe’s first Research Tissue Bank, focused on women. It has been described as a ‘gateway to revolutionising women’s health’, which it aims to do by making it easier for scientists to study and advance therapies for conditions that impact women.
BioGrad was founded by Dr Natalie Kenny in 2014. After spending several years as a scientist in the Amazon, Kenny is now a leading specialist in cell therapies and a multi-award-winning entrepreneur.
BioGrad Diagnostics was first-to-market with mass Covid testing in 2020, while BioGrad Education has 800 academic partners across 21 countries, training and up-skilling more PhD level scientists than any other organisation in the UK.

Dr Natalie Kenny, CEO, BioGrad
The drugs don’t work
It was through these research partnerships that Kenny noticed a trend in the clinical trials coming across her desk.
“In a lot of the studies, the drugs weren’t working on women,” she says.
“Higher fatality, higher toxicity and lower life expectancy” were seen among women in “almost every drug”. Why? Because they were only being tested in men.
“We talk about the gender health gap, and the fact that research isn’t done in women, but it’s more than that, it’s a whole range of things,” Kenny says.
“In the UK up until last year, it wasn’t compulsory for medical schools to teach women’s physiology. Even now, women are generally considered by science to be small men, so we give them a drug designed for a man at a different dose.”
Working in drug discovery at Pfizer until 2010, Kenny saw firsthand how women of child-bearing age were excluded from human clinical trials. Even cellular research was predominantly conducted in male cells, due to a lack of women’s samples in the lab. The result of this is that the drugs and therapies that end up in development are less effective on women in the real world.
One study in 2019 looked at 20 clinical trials on immunotherapies in 11,000 participants and found that in 19 of those trials, men lived for twice as long after the therapy than women.
“They don’t have samples for women, or certain diseases are considered male diseases, not because women don’t get them, but because women don’t survive them, because the drugs don’t work,” Kenny continues.
“We’ve got all these ‘amazing therapies’ that come in on the market that can cure cancer and so on. They do, but they work better for men.”

Female scientists conducting research on samples. Photo supplied by Biograd.
A biobank representative of the population
Having bootstrapped the company from the beginning, with no investors or shareholders “to answer to”, Kenny has been able to invest the profits back into the business to fund the critical research which is being overlooked elsewhere.
Outside of cancer, only around two per cent of public health research funding goes to female reproductive health. Meanwhile, only 1.9 per cent of all venture capital funding goes to women-led companies and femtech companies represent only one per cent of total health tech funding.
The BioGrad biobank, which banked half a million samples the first year, is Kenny’s way of taking matters into her own hands.
“What was really critical for me was if I’m going to develop cell therapies, I need to make sure I’ve got women’s samples and that they are going to work for women,” she explains.
“We’re creating a diverse network, and this isn’t just white women. Black and Asian women are hardly represented in clinical trials at all. For me, it was really important that if I wanted to reach my end goal of creating a therapy that actually works for people, we need to create a biobank that is representative of the population.”
Through the biobank, BioGrad is conducting research into treatments for women’s health conditions such as PCOS, menopause, and certain cancers through the collection of menstrual blood samples. This includes potential diagnostic tools, as well as new treatments for endometriosis, based on promising in vivo research into stem cell therapies.
“We know there’s a huge need for an endometriosis test and it’s something that I think we’re perfectly placed to do,” says Kenny.
“We’ve got the biobank, we’ve got the donors and we’ve got all the diagnostic services. That’s something I can get to market.”

Female scientists observing liquid nitrogen. Photo supplied by Biograd.
New therapies within the next 10-15 years
Meanwhile, the Research Tissue Bank, its own entity, has already established partnerships with leading academic institutions and scientists, enabling them to include women’s samples in their studies.
According to Kenny, some of the first requests have been from those investigating therapies for Parkinson’s, Alzheimer’s and other neurodegenerative diseases, where current treatments are known to be less effective in women.
The site has full ethics approval, which can be conferred onto its partners to bypass lengthy applications to ethics boards, reduce costs and speed up the clinical pathway to allow women to access these treatments sooner.
“It makes it so much cheaper and faster for the NHS and universities to be able to access these samples that previously they haven’t been able to,” Kenny says.
While the process of getting a drug from concept to market is still a lengthy one, Kenny is confident that the UK will see an improvement in available therapies emerging within the next 10-15 years.
In order to get there, BioGrad will soon be looking for women across the country to donate samples including menstrual blood, umbilical cord blood and tissue, peripheral blood, urine, saliva, nose and throat swabs, vaginal swabs, rectal or stoma swabs and breast milk, either through at-home collection kits or through BioGrad’s partner clinics.

A nurse taking a blood sample at the Biograd site: Photo supplied by Biograd.
“Women deserve to know where their data is”
Kenny has partnered with Pregnancy Plus founder and app developer, Amber Vodegal, to create an app which allows donors to track what happens to their sample, without hosting any of their private data.
“Transparency in the science that you’re doing is absolutely case critical if you want to engage people in your research,” says Kenny.
“I thought it was really important that women knew what was happening with their samples. They deserve to know where that data is.”
The samples will all be stored on site at the BioGrad laboratory in Liverpool, with a process for notifying women if one of their samples is to be used in a clinical trial. They will also be informed of the condition, or area of research, and supplied with a copy of the research paper once it’s published. Donors also have the option to request their samples are destroyed at any point.
With over 160 data points to collect from each donor, BioGrad is currently working with two maternity hospitals, including Arrowe Park Hospital, to build up samples gradually, with a view to expanding nationwide over the next two years.
“We are streamlining our processes before we get thousands of samples a day coming in, but we are looking to ramp up quite substantially in the next six to 12 months,” Kenny adds.
“We’d be able to do a lot more if there was more funding for women’s health.”

Dr Sherin Pojar, Head of Scientific Operations at BioGrad, and Dr Natalie Kenny, CEO, BioGrad, with team of female scientists. Photo supplied by Biograd.
Features
The hidden cost of “business as usual” in gynecologic surgery
A Common Surgery with Outsized Consequences
Hysterectomy and myomectomy are among the most frequently performed surgeries worldwide.
Minimally invasive and robotic approaches have delivered clear benefits at the point of care, including shorter hospital stays, faster recovery, and fewer complications.
To remove the uterus or fibroids through small incisions, surgeons use a technique known as morcellation, in which tissue is cut into smaller pieces for extraction during surgery.
However, when tissue is cut without containment, those short-term gains can be offset by downstream harm.
The risks fall into three interconnected categories:
- dissemination of undiagnosed malignancy
- spread of benign tissue, including endometriosis and parasitic fibroids
- legal and financial exposure linked to off-label device use
Crucially, these costs often surface years after the original procedure and rarely where the original cost savings were realized.
Cancer Dissemination: A Known and Preventable Risk
The risk of occult uterine malignancy in women undergoing surgery for presumed benign fibroids is well documented.
The U.S. Food and Drug Administration has estimated this risk at approximately 1 in 350 women, prompting repeated safety communications recommending tissue containment during morcellation.
When morcellation is performed without containment, undiagnosed cancer will be dispersed throughout the abdominal cavity, effectively upstaging disease from localised to disseminated.
The clinical implications are profound, and so are the economic consequences.
Treatment costs for early-stage uterine cancer typically range from $40,000 to $60,000. Once disease becomes disseminated, costs can exceed $150,000 to $300,000, excluding indirect costs such as lost productivity, long-term disability, and caregiver burden.
Beyond treatment expenses, litigation related to morcellation-associated cancer spread has resulted in multi-million-dollar settlements, particularly during the power morcellation litigation wave of the mid-2010s. Several cases explicitly tied disease progression to tissue dissemination during surgery.
From a system perspective, a single preventable dissemination event can negate the cost savings of hundreds of minimally invasive procedures.
Benign Tissue Seeding: The Long Tail of Surgical Cost
Cancer is not the only concern.
Uncontained morcellation has also been associated with the spread of benign tissue, including parasitic fibroids and iatrogenic endometriosis, conditions that may present years after the index surgery.
Endometriosis alone represents one of the most expensive chronic gynecologic conditions. Multiple health economic studies estimate annual per-patient costs of $12,000 to $16,000, with lifetime costs exceeding $100,000, driven by repeat surgeries, chronic pain management, hormonal therapy, and fertility interventions.
While the financial impact may surface years later, downstream harm is increasingly traced back to the index procedure, including the choice between FDA-cleared containment and off-label alternatives used during tissue extraction.
Off-Label Use and the Quiet Accumulation of Liability
One of the least visible, but most consequential, dimensions of morcellation risk lies in off-label device use.
Many tissue bags currently used during morcellation are not FDA-cleared for prevention of tissue spillage during organ cutting and removal. While off-label use is common in medicine, it carries distinct legal and financial implications when complications occur.
Risk management guidance from MedPro Group, one of the largest medical malpractice insurers in the United States, has repeatedly warned that off-label use increases professional liability exposure in three key ways:
1. Burden of justification
When an FDA-cleared alternative exists, the legal burden shifts to the surgeon to prove that off-label use met the standard of care.
2. Informed consent vulnerability
Standard consent language may be insufficient for off-label device use, increasing exposure to failure-to-warn claims if complications arise.
3. Changed liability dynamics
Off-label use alters traditional liability dynamics, increasing scrutiny on clinical decision-making at the hospital and surgeon level.
Legal scholarship published in Clinical Orthopaedics and Related Research has echoed these concerns, noting that courts increasingly allow off-label status to be considered in malpractice cases, particularly when patient harm occurs and safer alternatives were available.
Recent U.S. court decisions have further reinforced that while off-label use is generally permitted, it is not immune from civil liability and, in rare but serious circumstances, criminal consequences when tied to demonstrable patient harm.
FDA Guidance Exists, Adoption Lags Behind
Regulatory expectations around morcellation are no longer ambiguous. The FDA has consistently called for tissue containment during tissue cutting to mitigate the risks of cancer and tissue dissemination.
Yet real-world adoption remains inconsistent.
A 2025 survey reported by News-Medical found widespread gaps in safe tissue containment during laparoscopic gynecologic surgery.
Respondents cited variability in training, institutional protocols, and access to FDA-cleared containment systems. Many surgeons reported reliance on improvised or non-cleared solutions despite growing awareness of regulatory and legal risk.
The result is a widening gap between guidance and practice, one that is increasingly visible to regulators, insurers, and hospital leadership.
Who Ultimately Pays?
The economic impact of uncontained morcellation does not fall on a single stakeholder.
- Hospitals face litigation exposure, rising malpractice premiums, re-operations, and reputational risk.
- Surgeons shoulder personal liability, heightened scrutiny around informed consent, and evolving standards of care.
- Payers absorb downstream oncology costs, chronic disease management, and repeat interventions.
- Patients bear the heaviest burden, including preventable morbidity, fertility loss, financial toxicity, and erosion of trust.
Taken together, these costs far exceed the price of prevention.
From Clinical Risk to Market Response
This growing recognition of risk has begun to reshape the market.
Before regulatory scrutiny intensified, power morcellation was widely adopted because it saved time, reduced operating room burden, and supported high procedural throughput.
It represented a multi-billion-dollar global market, supported by major surgical device manufacturers and deeply embedded in minimally invasive gynecologic practice.
The withdrawal of power morcellation from many hospitals did not eliminate the clinical need for efficient tissue extraction. Instead, it created a prolonged gap between surgical efficiency and acceptable risk.
That gap is now beginning to close.
With the emergence of FDA-cleared tissue containment systems designed specifically for morcellation, hospitals are reassessing whether power morcellation can be responsibly reintroduced in a manner aligned with regulatory guidance, patient safety, and liability mitigation.
This has significant implications for operating room efficiency, surgeon ergonomics, and system-wide cost management.
One example is Ark Surgical, a U.S.-focused surgical technology company advancing safety-first approaches to tissue extraction.
Its double-wall, airbag-like LapBox containment chamber was developed to support FDA-aligned morcellation while integrating into existing laparoscopic workflows, an increasingly important consideration as hospitals evaluate not just procedural efficiency, but long-term risk exposure.
Ark Surgical is currently in an active investment round, reflecting broader investor interest in technologies that address regulatory-driven risk while unlocking previously constrained markets.
More broadly, capital is flowing toward solutions that make it possible to restore clinical efficiency without reintroducing legacy risk.
The Cost Question Is No Longer “If,” but “When”
Healthcare systems already absorb the cost of uncontained morcellation through litigation, chronic disease management, repeat interventions, and loss of trust.
What has changed is visibility.
As clinical data, regulatory expectations, and market solutions converge, the question is no longer whether containment matters, but whether healthcare systems can afford to continue treating it as optional.
Features
Innovation cuts ovarian cancer risk by nearly 80%
A surgical procedure developed in Canada reduces the risk of the most common and deadly form of ovarian cancer by nearly 80 per cent.
The strategy, known as opportunistic salpingectomy (OS), removes the fallopian tubes during routine gynaecological surgery such as hysterectomy (womb removal) or tubal ligation (having one’s tubes tied).
The study analysed population health data for more than 85,000 people who had gynaecological surgeries in British Columbia between 2008 and 2020, comparing rates of serous ovarian cancer with those who had similar operations without the procedure.
Researchers at the University of British Columbia found that people who had opportunistic salpingectomy were 78 per cent less likely to develop serous ovarian cancer, the most common and deadly subtype.
In the rare cases where ovarian cancer occurred after the procedure, those cancers were found to be less biologically aggressive.
Co-senior author Gillian Hanley is an associate professor of obstetrics and gynaecology at the University of British Columbia.
She said: “This study clearly demonstrates that removing the fallopian tubes as an add-on during routine surgery can help prevent the most lethal type of ovarian cancer,.
“It shows how this relatively simple change in surgical practice can have a profound and life-saving impact.”
British Columbia became the first jurisdiction in the world to offer opportunistic salpingectomy in 2010, after researchers discovered that most ovarian cancers originate in the fallopian tubes rather than the ovaries.
The procedure leaves the ovaries in place, preserving hormone production so side effects are minimal.
The approach was initially developed by Dianne Miller, an associate professor emerita at the University of British Columbia and gynaecological oncologist with Vancouver Coastal Health and BC Cancer.
“If there is one thing better than curing cancer it’s never getting the cancer in the first place,” said Miller.
Since its introduction in British Columbia in 2010, opportunistic salpingectomy has been widely adopted, with approximately 80 per cent of hysterectomies and tubal ligation procedures in the province now including fallopian tube removal.
Professional medical organisations in 24 countries now recommend the procedure as an ovarian cancer prevention strategy, including the Society of Obstetrics and Gynaecology of Canada, which issued guidance in 2015.
“This is the culmination of more than a decade of work that started here in B.C.,” said co-senior author David Huntsman, professor of pathology and laboratory medicine and obstetrics and gynaecology at the University of British Columbia.
“The impact of OS that we report is even greater than we expected.”
British Columbia recently became the first province to expand opportunistic salpingectomy to routine surgeries performed by general and urological surgeons through a project supported by the Government of British Columbia and Doctors of BC.
Features
AI mammography leads to fewer advanced breast cancers, study finds
AI mammography finds more cancers at screening and cuts diagnoses between screens by 12 per cent, a major trial has found.
The study involving over 100,000 Swedish women is described as the first randomised controlled trial investigating the use of AI in a national breast cancer screening programme.
Women who underwent AI-supported screening were less likely to be diagnosed with more aggressive and advanced breast cancer in the two years following, compared with standard mammography read by two radiologists.
The research was led by Lund University in Sweden.
Lead author Dr Kristina Lång said: “Our study is the first randomised controlled trial investigating the use of AI in breast cancer screening and the largest to date looking at AI use in cancer screening in general.
“It finds that AI-supported screening improves the early detection of clinically relevant breast cancers which led to fewer aggressive or advanced cancers diagnosed in between screenings.
“Widely rolling out AI-supported mammography in breast cancer screening programmes could help reduce workload pressures amongst radiologists, as well as helping to detect more cancers at an early stage, including those with aggressive subtypes.
“However, introducing AI in healthcare must be done cautiously, using tested AI tools and with continuous monitoring in place to ensure we have good data on how AI influences different regional and national screening programmes and how that might vary over time.”
Between April 2021 and December 2022, women who were part of mammography screening at four sites in Sweden were randomly assigned to either AI-supported screening or standard double reading by radiologists without AI.
In the AI-supported group, a specialist system analysed the mammograms and triaged low-risk cases to single reading and high-risk cases to double reading performed by radiologists. AI was also used to highlight suspicious findings in the image.
During the two-year follow-up, there were 1.55 interval cancers per 1,000 women in the AI-supported group, compared with 1.76 per 1,000 women in the control group.
Interval cancers are those diagnosed after a negative screen and before the next scheduled appointment, and are often more aggressive than cancers detected during routine screening.
Additionally, there were 16 per cent fewer invasive cancers, 21 per cent fewer large cancers, and 27 per cent fewer aggressive sub-type cancers in the AI group. The rate of false positives was similar for both groups.
Jessie Gommers is first author and PhD student at Radboud University Medical Centre in the Netherlands, said:
Gommers said: “Our study does not support replacing healthcare professionals with AI as the AI-supported mammography screening still requires at least one human radiologist to perform the screen reading, but with support from AI.
“However, our results potentially justify using AI to ease the substantial pressure on radiologists’ workloads, enabling these experts to focus on other clinical tasks, which might shorten the waiting times for patients.
Dr Lång added: “Further studies on future screening rounds with this group of women and cost-effectiveness will help us understand the long-term benefits and risks of using AI-supported mammography screening.
“If they continue to suggest favourable outcomes for AI-supported mammography screening compared with standard screening, there could be a strong case for using AI in widespread mammography screening, especially as we face staff shortages.”
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