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SMART to develop world’s first wearable ultrasound imaging system

Massachusetts Institute of Technology’s (MIT) research enterprise in Singapore, has launched a new collaborative research project, Wearable Imaging for Transforming Elderly Care (WITEC). The Singapore-MIT Alliance for Research & Technology (SMART) says WITEC marks a pioneering effort in wearable tec

SMART to develop world’s first wearable ultrasound imaging system
Published: | 3 min read

Massachusetts Institute of Technology’s (MIT) research enterprise in Singapore, has launched a new collaborative research project, Wearable Imaging for Transforming Elderly Care (WITEC).

The Singapore-MIT Alliance for Research & Technology (SMART) says WITEC marks a pioneering effort in wearable technology, medical imaging, research and materials science. It is Singapore’s first centre dedicated to foundational research and development of the world’s first wearable ultrasound imaging system capable of 48-hour intermittent cardiovascular imaging for continuous and real-time monitoring and diagnosis of chronic conditions such as hypertension and heart failure.

This multi-million dollar, multi-year initiative, supported by the National Research Foundation (NRF) Singapore under its Campus for Research Excellence and Technological Enterprise (CREATE) programme, brings together top researchers and expertise from MIT, Nanyang Technological University (NTU Singapore) and the National University of Singapore (NUS).

Tan Tock Seng Hospital (TTSH) is WITEC’s clinical collaborator and will conduct patient trials to validate long-term heart imaging for chronic cardiovascular disease management.

“Addressing society’s most pressing challenges requires innovative, interdisciplinary thinking. Building on SMART’s long legacy in Singapore as a hub for research and innovation, WITEC will harness interdisciplinary expertise – from MIT and leading institutions in Singapore – to advance transformative research that creates real-world impact and benefits Singapore, the US and societies all over. This is the kind of collaborative research that not only pushes the boundaries of knowledge, but also redefines what is possible for the future of healthcare,” said Bruce Tidor, Chief Executive Officer and Director (Interim), SMART.

To support this work, WITEC’s laboratory is equipped with advanced tools, including Southeast Asia’s first Nanoscribe Quantum X sub-micrometre 3D printer and the latest Verasonics Vantage NXT 256 ultrasonic imaging system, which is the first unit of its kind in Singapore.

WITEC’s 3D printer can achieve sub‑micrometre resolution, allowing components to be fabricated at the level of single cells or tissue structures. With this capability, WITEC researchers can prototype bioadhesive materials and device interfaces with high levels of accuracy, essential to ensuring skin‑safe adhesion and stable, long‑term imaging quality.

Verasonics ultrasonic imaging system allows for more complex beamforming, higher‑resolution image capture, and integration with AI‑based diagnostic models, opening the door to long‑duration, real‑time cardiovascular imaging not possible with standard hospital equipment.

Traditional ultrasound systems, though clinically powerful, are bulky, operator-dependent, can only be deployed episodically within the hospitals, and are limited to snapshots in time, making them unsuitable for long-term, everyday use.

WITEC says it aims to bridge this gap with its wearable ultrasound imaging system that uses bioadhesive technology to enable up to 48 hours of uninterrupted imaging. Combined with AI-enhanced diagnostics, the innovation is aimed at supporting early detection, home-based pre-diagnosis and continuous monitoring of chronic diseases.

Beyond improving patient outcomes, the organisations behind the innovation say it could help ease labour shortages by freeing up ultrasound operators, nurses and doctors to focus on more complex care, while reducing demand for hospital beds and resources.

“We’re extremely proud to bring together an exceptional team of researchers from Singapore and the US to pioneer core technologies that will make wearable ultrasound imaging a reality. This endeavour combines deep expertise in materials science, data science, AI diagnostics, biomedical engineering and clinical medicine. Our phased approach will accelerate translation into a fully wearable platform that reshapes how chronic diseases are monitored, diagnosed and managed,” said Prof Xuanhe Zhao, Co-Lead Principal Investigator, WITEC.

“Chronic diseases present significant challenges for patients, families, and healthcare systems, and with aging populations such as Singapore, those challenges will only grow without new solutions. Our research into a wearable ultrasound imaging system aims to transform daily care for those living with cardiovascular and other chronic conditions – providing clinicians with richer, continuous insights to guide treatment, while giving patients greater confidence and control over their own health. WITEC’s pioneering work marks an important step towards shifting care from episodic, hospital-based interventions to more proactive, everyday management in the community,” said Prof Joseph Sung, Co‑Lead Principal Investigator, WITEC.

Led by Dr Violet Hoon, Senior Consultant at TTSH, the clinical trials are expected to commence in early 2026 to validate long-term heart monitoring in the management of chronic cardiovascular disease.

Through innovations in bioadhesive couplants, nanostructured metamaterials and ultrasonic transducers, over the next three years, WITEC says it aims to develop a cart-based bioadhesive ultrasound (BAUS) system capable of continuous, real-time monitoring and personalised diagnosis of medical conditions. In future stages, WITEC says it aims to develop a fully integrated portable BAUS platform capable of 48-hour intermittent imaging.

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