Turning expertise into innovation: six women shaping Europe’s deep-tech future

Brussels, September 15th 2026
Summary
  • ›Six women across Europe are turning scientific expertise into deep-tech ventures spanning horticulture, medical robotics, fermentation intelligence, dementia risk stratification, early cancer detection and personalised neurostimulation.
  • ›Their projects are at different stages from pre-spin-off research to seed and early commercial activity and many are supported by EIC instruments such as Women TechEU and EIC Transition and by the EIC Women Leadership Programme.
  • ›Common challenges include clinical and regulatory validation, scaling manufacturing and achieving agronomic or operational consistency, even when the underlying science is promising.
  • ›The EIC Women Leadership Programme offers training, mentoring and networks to help bridge the gap between research and market in Europe, but successful scale up will still require sustained funding, partnerships and rigorous validation.

Turning expertise into innovation: six women shaping Europe’s deep-tech future

Innovation rarely arrives from technology alone. It requires scientific expertise, strategic thinking, leadership and the persistence to convert laboratory findings into solutions that work in the real world. Across Europe, women researchers and entrepreneurs are taking that path in very different domains. This article profiles six founders and scientific leaders who are moving from research to companies or planned spin-offs, and explains the technical concepts and practical barriers they face as they try to scale deep-tech solutions.

Profiles: who they are and what they build

Alicja Dzieciol — SilviBio, Livingston, United Kingdom

What began as R&D in soil additives evolved into a company making peat-free propagation mixes. SilviBio develops science-backed growing media for food, tree and ornamental production while aiming to use locally available raw materials. The stated objective is to reduce reliance on peat and imported coconut coir, while delivering consistent germination, water retention and porosity for growers. The company has developed a manufacturing process focused on batch consistency. Alicja Dzieciol is co-founder and CEO and represents a generation of women converting laboratory and field research into alternatives for a resource-intensive sector.

Peat and peat alternatives explained:Peat has long been used as a horticultural substrate because of its water retention and structure. Environmental concerns and supply constraints have driven interest in alternatives such as coconut coir and processed local residues. The technical challenge is consistency. Natural feedstocks vary by origin and season, which can change water holding capacity and nutrient buffering. Producing a reliable, peat-free mix at scale therefore requires material characterisation, process controls and quality assurance to avoid batch-to-batch variability that undermines grower confidence.

Beatriz Farola Barata — KU Leuven and planned spin-off, Leuven, Belgium

Working at the intersection of robotics, sensing and medical imaging, Beatriz focuses on perception and navigation in endovascular interventions. Her research includes using intravascular ultrasound and other sensing methods to build three-dimensional representations of blood vessels during catheter procedures. She is a co-founder of a planned spin-off emerging from PROMPT, an EIC Transition project that aims to bring advanced robotic catheterisation technology closer to clinical and commercial readiness.

Endovascular navigation and intravascular ultrasound:Endovascular interventions use catheters threaded through vascular pathways to treat conditions such as aneurysms or blockages. Surgeons currently rely on fluoroscopy, tactile feedback and operator experience. Intravascular ultrasound places an ultrasound probe inside the vessel to capture cross-sectional images. Combining intravascular imaging with sensing, 3D reconstruction and robotic assistance could give clinicians richer, real-time guidance. The main hurdles are integrating modalities safely, validating image registration accuracy in humans and meeting stringent medical device regulatory pathways.

Greta Skemaite — Freyia Labs, Nicosia, Cyprus

Freyia Labs builds a software-first operations layer for fermentation-led food and beverage production. The platform F.O.R.S.E.T.I.X., branded FiX, is designed to gather live tank and environmental signals, learn from historical batches and recommend actions to prevent drift or fermentation failure. Greta, co-founder and CEO, brings a legal and corporate background and leads customer discovery, business modelling and fundraising readiness as the company prepares for pilots and commercial validation from a pre-seed position.

Fermentation operations intelligence:Industrial fermentation is a living process. Sensors record temperature, pH, dissolved oxygen and other signatures but raw data alone does not provide actionable guidance. An operations layer that contextualises sensor data with recipes, materials and handling procedures can surface early warnings and suggest corrective steps. Key technical obstacles include building reliable sensor interfaces, avoiding overfitting models to limited batches and proving that algorithmic recommendations reduce waste and maintain regulatory compliance in production environments.

Laura Vallés Saiz — ELE Biotech, Madrid, Spain

ELE Biotech is a deep-tech firm aiming to move healthcare upstream by offering molecular risk stratification for neurodegenerative diseases. Its first product, ELEarly Dementia, combines proprietary genomic biomarkers measured in standard molecular labs with a digital interpretation layer. Laura, co-founder and CEO with a PhD in Biochemistry and Molecular Biosciences, leads scientific strategy, validation planning and go-to-market efforts. The company is at MVP and seed stages and is supported by Women TechEU.

Molecular risk stratification versus confirmatory diagnostics:A confirmatory diagnostic establishes disease in symptomatic patients. Risk stratification aims to identify individuals with a higher probability of developing disease before clinical symptoms appear. Developing robust stratification biomarkers requires large cohort evidence, statistical validation across populations and careful integration into care pathways to avoid overdiagnosis. Reimbursement and clinical acceptance depend on demonstrating that stratification leads to measurable improvements in outcomes or effective preventive strategies.

Meghan Perkins — Proskope, Paris, France

Proskope is developing TumorScreen, a blood test intended to accelerate early cancer detection. Founded in 2022, the company is at MVP and seed stage. Meghan, co-founder and CSO, is a cancer biologist who moved from academic research into product development. She leads scientific development and helps translate biological signatures into an assay pipeline with potential clinical application. The work is supported by Women TechEU.

Early cancer detection via blood tests:Liquid biopsy approaches aim to detect tumour-derived signals in blood such as circulating tumour DNA, proteins or other biomarkers. Sensitivity to detect early stage cancer without producing a high false positive rate is the central technical challenge. For clinical adoption the test must demonstrate clinical validity and clinical utility in prospective studies. Implementation also requires laboratory standardisation, regulatory clearance and an evidence-based pathway for downstream diagnostic follow up.

Ramona Samba — sync2brain, Tübingen, Germany

sync2brain develops personalised brain stimulation therapies for mental and neurological disorders. The company seeks to move brain stimulation beyond standardised protocols by tailoring treatment parameters to individual patients. Dr. Ramona Samba, CEO and co-founder, holds a PhD in Physical Chemistry and has leadership experience in neurotechnology. Founded in 2019, sync2brain is at seed stage and reports early market traction while being supported by Women TechEU.

Personalised brain stimulation in context:Transcranial magnetic stimulation and other neuromodulation methods are approved for some disorders but response rates vary. Personalised stimulation aims to optimise target selection, timing and dosing to improve outcomes. Personalisation requires biomarkers, closed-loop systems and clinical trials that show superior effectiveness and safety. Devices face medical device regulation, complex reimbursement environments and the need to demonstrate reproducible benefits in real world clinical settings.
NameRoleOrganisationLocationTechnology areaStageEIC support
Alicja DzieciolCo-Founder and CEOSilviBioLivingston, United KingdomPeat-free growing media for horticultureEarly commercial / production-focusedWomen TechEU
Beatriz Farola BarataResearcher and planned co-founderKU Leuven / planned spin-off (PROMPT)Leuven, BelgiumRobotic endovascular catheterisation and sensingPre-spin-off / transition from researchEIC Transition
Greta SkemaiteCo-Founder and CEOFreyia LabsNicosia, CyprusFermentation operations intelligence softwarePre-seed preparing external pilotsEIT ecosystem
Laura Vallés SaizCo-Founder and CEOELE BiotechMadrid, SpainMolecular risk stratification for neurodegenerative diseaseMVP and seedWomen TechEU
Meghan PerkinsCo-Founder and CSOProskopeParis, FranceBlood test for early cancer detectionMVP and seedWomen TechEU
Ramona SambaCo-Founder and CEOsync2brainTübingen, GermanyPersonalised brain stimulation therapiesSeed with early market tractionWomen TechEU

Shared themes and realistic hurdles

Across these six profiles there are repeated technical and commercial patterns. First, converting lab-scale or prototype solutions into reliable products requires engineering rigour and process controls. Second, health and neurotechnology ventures must navigate demanding clinical trials and regulatory approvals that often extend timelines and cost structures. Third, even in agriculture and fermentation the difficulty of consistent supply and reproducible performance is a major barrier. Finally, all companies need credible go-to-market plans, partners and follow-on capital to scale.

What 'stage' labels mean in practice:MVP indicates a minimum viable product that has been tested with users or in constrained settings. Seed and pre-seed are financing stages where companies refine product-market fit and perform pilots. Transition and planned spin-off stages describe research projects preparing to become independent ventures. Across stages, proof that a solution delivers measurable benefit at scale and within regulatory frameworks matters more than early buzz.

The EIC Women Leadership Programme and other support

The women featured in these stories have participated in EU-backed schemes. The EIC Women Leadership Programme provides tailored training, mentoring and networks to female researchers and entrepreneurs. Launched as a pilot in 2021 it has supported nine cohorts and more than 300 participants. Complementary initiatives include Women TechEU which funds early-stage women-led deep-tech start-ups and EIC Transition or EIC Accelerator instruments that fund development towards commercialisation.

What the EIC programmes offer at a practical level:Offers include coaching, business model refinement, introductions to corporate partners, investor readiness and access to pilot customers or procurement channels. These supports are valuable but not sufficient on their own. Translating a promising technology into a sustainable company still requires rigorous validation, management bandwidth, follow-on investment and sometimes long timelines for regulatory clearance or market acceptance.

Implications for Europe’s innovation ecosystem

These stories illustrate how Europe’s ecosystem can shepherd research into applications across diverse sectors. Public funding and acceleration programmes play an important role in de-risking early stages and increasing visibility for founders who are women. That said, systemic change is slow. Moving from pilot to meaningful scale often requires patient capital, industrial partnerships and supply chain adjustments. Outcomes that matter to users and systems, such as demonstrable clinical benefit or reduced environmental impact, will determine long term adoption.

What to watch next and how to follow them

Follow validation milestones such as clinical study starts and regulatory clearances for health ventures. For agricultural and fermentation solutions look for independent field trials, reproducibility data and partnerships with growers or food manufacturers. The EIC Community platform and EIC Business Acceleration Services publish open calls, pilot opportunities and newsletters where these teams often surface updates and invitations to engage.

If you are a researcher or entrepreneur interested in similar supports, check the EIC Community for calls to the Women Leadership Programme, Women TechEU and other EIC Business Acceleration Services. These programmes provide coaching, mentoring and route-to-market services. Keep a cautious eye on stated timelines and claims, and demand evidence from pilot data and third party validation before assuming impact.

Final note

The six women profiled show the diversity of paths from expertise to entrepreneurship in Europe. Their projects cover urgent societal needs from sustainable horticulture to earlier disease detection and personalised therapies. Their progress will depend on the usual mix of science, engineering, clinical evidence, regulatory navigation and commercial execution. Public programmes can accelerate this journey but they are only one piece of what it takes to build durable deep-tech businesses.