Project: Integrated silicon photonics for Cardiovascular Disease monitoring
2020-01-01 – 2024-12-31
- Abstract
The rationale for Medtronic and partners to propose the InSiDe project is the unmet need of the medical community for reliable, non-invasive, cheap and easy-to-use tools able to identify and characterize different stages of cardiovascular diseases. Solving this need ensures the early adoption of the appropriate therapies, dramatically reduces healthcare costs and importantly, improves patient outcome. In fact, monitoring arterial stiffness by measurement of the aortic pulse wave velocity has been demonstrated to be a crucial need for the management of hypertensive patients and it is recommended in the European Society of Cardiology Guidelines. In addition, the early identification of arterial stenosis and cardiac contraction abnormalities can be used to drive earlier therapy adoption and to improve patient’ response in cardiac (valvular) disease. Building on the realizations of the successful CARDIS (H2020-ICT-644798) project, the objective of InSiDe is to accelerate access to a new diagnostic device, based on silicon photonics technology, able to monitor cardiovascular diseases and to prove its efficacy in driving a timely therapy institution and its related follow-up.
We will:
-Develop an efficient miniaturized laser Doppler interferometer supported by a manufacturable package with integrated imaging optics and by electronics for control of the laser interferometer with onboard near-real time signal processing capability.
-Develop algorithms for translation of the interferometer signals to beat-to-beat measurement results relevant for monitoring and diagnosis of selected cardiovascular parameters.
-Prove the device efficacy in multiple clinical feasibility studies inside and outside the consortium.
-Outline a path to industrialization and manufacturability. In this way InSiDe will realize a low-cost handheld, robust diagnostic tool, manufacturable in high-volumes. The diagnostic tool gives immediate results for physician’ interpretation.
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- Journal Article
- A1
- open access
Heart-carotid pulse-wave velocity via laser-Doppler vibrometry as a biomarker for arterial stiffening : a feasibility study
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- Conference Paper
- C3
- open access
Heart-carotid pulse-wave velocity via laser-doppler vibrometry : feasibility and a deep-learning based approach
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- Conference Paper
- C3
- open access
Heart-carotid pulse-wave velocity via laser-doppler vibrometry as a biomarker for arterial stiffening : a feasibility study
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- Journal Article
- A1
- open access
Clinical validation of carotid-femoral pulse wave velocity measurement using a multi-beam laser vibrometer : the CARDIS study
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- Conference Paper
- C3
- open access
InSiDe : cardiovascular disease screening
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- Conference Paper
- C3
- open access
Feasibility of laser-doppler-vibrometry to measure cardiac signals for heart-carotid pulse-wave velocity estimation
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Laser Doppler vibrometry sensors implemented in a silicon photonic integrated circuit for measuring cardiovascular signals on bare skin
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- Journal Article
- A1
- open access
A compensation method for nonlinearity errors in optical interferometry
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- Conference Paper
- C3
- open access
Measuring carotid-femoral pulse-wave velocity with real-time laser-doppler vibrometry
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- Conference Paper
- P1
- open access
Enhancing multichannel laser-doppler vibrometry signals with application to (carotid-femoral) pulse transit time estimation