Wearable technology is rapidly evolving, and at Sciospec, we’re excited to see our instruments playing a crucial role in cutting-edge research. Our unique and flexible technology is at the forefront of bioimpedance innovation empowering researchers with versatile platform to push the boundaries of medical innovation.
This article highlights groundbreaking research, “A Wearable Smart Ring for Measuring Bioimpedance in the Palmar Digital Arteries,” demonstrating a smart ring capable of non-invasively monitoring vascular health. This study utilizes bioimpedance measurements in the palmar digital arteries (finger arteries), leveraging the Sciospec EIT32 system for high-precision data acquisition.Thanks to innovative PEDOT-coated electrodes and high-resolution impedance analysis, this study paves the way for more advanced, real-time health tracking solutions.
Ha, G.-B., Boyadzhiev, A., Zhang, H., Sanchez, B. A Wearable Smart Ring for Measuring Bioimpedance in the Palmar Digital Arteries. ResearchGate (2024). http://bit.ly/4hVyEa6
Measuring bioimpedance in the palmar digital arteries provides critical insights into vascular health, blood flow, and circulatory function. This innovative approach offers several advantages:
By integrating advanced bioimpedance sensing with a wearable smart ring, this research paves the way for real-time vascular health monitoring in an accessible and non-invasive manner.
Curious to learn more about bioimpedance research ? Check out our detailed FAQ section.
Bioimpedance measurement is at the heart of this innovation, and Sciospec proud to be a leading provider of cutting-edge, adaptable solutions that enables such breakthroughs. Bioimpedance analysis offers a non-invasive method to assess body composition, fluid distribution, and tissue health by measuring the electrical impedance of biological tissues. Accurate impedance measurements are essential for understanding the electrical properties of tissues, which reflect their physiological state.
In this research, the Sciospec EIT32 system, a highly specialized tool, played a critical role in enabling precise bioimpedance analysis, ensuring reliable data collection and interpretation.
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The researchers aimed to capture subtle, spatially-dependent variations in bioimpedance within the palmar digital arteries to detect pulsatile changes related to blood flow. This is where the Sciospec EIT32, with its multi-channel capabilities, became essential. The EIT32 has the capability to perform Electrical Impedance Tomography (EIT), a technique that creates a cross-sectional image of the electrical conductivity distribution within the finger. While this specific study didn’t create a full tomographic image, the data acquired could be used in future research to generate detailed spatial maps of bioimpedance.
Sciospec’s commitment to providing a flexible and adaptable product platform empowers researchers to explore novel applications of bioimpedance with confidence.
Learn more about our bioimpedance solutions and how they can empower your research and clinical applications.
The Sciospec EIT32 system is a trusted solution for advanced impedance measurement, recognized for its precision, adaptability, and ability to drive innovation in bioimpedance research. Its ultra-fast measurement speeds and exceptional accuracy made it an ideal choice for Digital Artery Monitoring and other biomedical applications. It offers a range of features designed to enhance your research capabilities:
Partner with Sciospec to push the boundaries of EIT technology in your research and explore the advantages of the EIT32 system to elevate your work.
Our experts are ready to help you understanding how this technology works and how you can apply and integrate it into your work. Get in touch today to get a personalized consultation to enhance your work with our advanced solutions
BioZ is an abbreviation for Bioimpedance. Bioimpedance is a non-invasive technique that measures the electrical impedance of biological tissues. It involves injecting a small, alternating electrical current into the body and measuring the resulting voltage. The impedance (resistance to the flow of electrical current) changes depending on the tissue composition, fluid distribution, and cell structure. This provides valuable information about the physiological state of the tissue.
PEDOT (poly(3,4-ethylenedioxythiophene)) is a conductive polymer used to coat the electrodes in the smart ring sensor. It’s crucial because it significantly reduces the contact impedance between the electrodes and the skin. Lower contact impedance leads to more accurate and reliable bioimpedance measurements, as it minimizes signal distortion. The University of Utah study found that PEDOT-coated electrodes had a lower impedance and phase distortion compared to untreated electrodes.
The smart ring works by injecting a small, alternating electrical current into the finger and measuring the resulting voltage. Changes in blood flow and vascular health alter the electrical impedance of the tissue. For example, the ring can detect pulsatile bioimpedance changes related to arterial expansion and contraction with each heartbeat. By analyzing these impedance variations, the ring can provide insights into vascular function.
While still in the research and development phase, a bioimpedance smart ring holds promise for detecting conditions related to cardiovascular health, such as:
The accuracy of the smart ring is an ongoing area of research. The University of Utah study demonstrated the feasibility of detecting pulsatile bioimpedance changes. However, further studies are needed to compare its accuracy against established methods like blood pressure cuffs, ECG, or more invasive vascular assessments. Factors influencing accuracy include electrode design, signal processing techniques, and individual physiological variations.
💡The Sciospec EIT32 system, used in the study, provides highly precise bioimpedance measurements, which are critical for validating the accuracy of the smart ring.
Data analysis typically involves signal processing techniques to extract relevant information from the bioimpedance measurements, such as heart rate variability, pulse wave analysis, or other vascular parameters. Data protection is a crucial consideration, and manufacturers must adhere to privacy regulations to ensure user data is securely stored and transmitted. Encryption, secure cloud storage, and anonymization techniques are commonly employed to protect sensitive health information.
The smart ring Bioimpedance study represents a significant step forward in wearable health monitoring technology. By combining innovative sensor design with advanced bioimpedance measurement techniques, researchers are paving the way for a future where personalized and proactive healthcare is readily accessible.
At Sciospec, we are committed to empowering researchers with cutting-edge impedance solutions. Whether you’re developing wearable stress monitors, refining EDA research, or advancing biofeedback therapies, our technology can help.
We invite you to delve deeper into the world of bioimpedance and discover how Sciospec technology can revolutionize your approach to health monitoring.
🚀 Get in touch with Sciospec today to explore how our impedance solutions can power your research. Contact us now.
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#Innovation #Sciospec #ImpedanceTomography #Bioimpedance #SmartRing #WearableSensor #PalmarDigitalArteries
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