Completed Pregnancy, Children & Inherited Conditions Digestion, Kidneys & Other Organs

Image-guided intrauterine minimally invasive fetal diagnosis and therapy

In plain English

AI plain-English summary

Surgeons will soon be able to see inside a pregnant woman’s womb at both microscopic and whole-organ scales, in real time, while operating on a fetus. Fetal surgery today is high-risk and technically demanding. Surgeons rely on ultrasound alone, which gives blurry, low-resolution images. This makes it difficult to place instruments precisely or to see the boundary between healthy and diseased tissue. The result is variable outcomes and limited uptake of procedures that could prevent lifelong disability or death. This project builds a single platform that combines optical and ultrasound imaging with robotic instruments. The system will compensate for fetal movement, guide tools to exact locations, and give surgeons a clear view of tissue structure and molecular composition. If successful, it could make fetal surgery safer, more repeatable, and far more common. That matters because congenital malformations account for a third of all paediatric hospital admissions and up to half of the total cost of paediatric hospital treatment. Safer fetal surgery could reduce those numbers dramatically. The project also includes a bioethicist and public engagement from the start, so the technology is designed with real-world clinical and ethical constraints in mind, not added later.

View original technical description
We will build a novel platform to transform the safety and efficacy of fetal surgery. Our vision is to develop new instrumentation and software that will provide unprecedented capabilities for operating in utero, including real-time visualisation of tissues at macroscopic and microscopic spatial scales with molecular contrast together with precise control over placement of medical devices within the surgical field. Advances in prenatal treatment of congenital malformations will have a major impact on clinical practice, potentially targeting a third of all paediatric hospital admissions and up to 50% of the total cost of paediatric hospital treatment. We will develop a surgical system that supports different instruments to operate in synergy with the surgeon facilitating safe and reliable surgical procedures with enhanced repeatability of outcomes. Intelligent processing of optical and ultrasound imaging will drive mechatronic control strategies and improve user training and skill development. Mechatronic research will focus on motion compensation combined with advanced instruments for detailed manipulation. Early and continuing consideration of the ethical aspects of the novel technological capability will be built into the project through advice from a bioethicist and public engagement, maximising the potential for translation of the platform into the clinic during the project and after.

View the original record at the funder ↗

Researchers

Sebastien Ourselin (EPMC Awardee)

Related Research

Grants with similar aims, by meaning.

SMART-Endomicroscopy (Sensing and Mechatronically Assisted Real-Time Endomicroscopy)
Multi-modal Theranostic Endoscope for Intra-operative guidance and Focussed Ultrasound Therapy
Multi-Modality Imaging for Minimally Invasive Surgery
Digital twin guided minimally invasive, intelligent and intuitive surgery (MI-3 Surgery)
An Integrated, Physiologically Based, Multiscale Platform to Humanise Preclinical Assessment of Fetal Drug Exposure and Toxicity During Pregnancy

Original classification

EPSRC/WT Innovative Engineering

Plain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research.