Portable Device and Remote Patient Monitoring System for Estimating Pulmonary Fluid Volume in Heart Failure Patients Using Finger-Touch Bioelectrical Impedance Measurement and AI-Supported Analysis

TR202603976A2Pending Publication Date: 2026-06-22IŞIK TEKİN
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Patent Information

Authority / Receiving Office
TR · TR
Patent Type
Applications
Current Assignee / Owner
IŞIK TEKİN
Filing Date
2026-03-17
Publication Date
2026-06-22

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Abstract

This invention relates to a portable biomedical measurement device and remote patient monitoring system for the early detection of pulmonary fluid accumulation in patients with heart failure. The invention includes a card-shaped device that measures bioelectrical impedance via electrodes that are touched by the user's right and left thumbs. The measured impedance data is processed by an electronic circuit and microcontroller within the device, and pulmonary fluid volume is estimated using artificial intelligence-supported analysis algorithms. The device also enables data sharing via a mobile application through a wireless communication module, allowing for remote monitoring of heart failure patients. This system aims to facilitate the early detection of pulmonary congestion and enable regular monitoring of heart failure patients in their home environment.
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Description

1 TARIFF Finger-Touch Bioelectrical Impedance Measurement and Artificial Resonance Imaging in Heart Failure Patients Portable Device for Estimating Pulmonary Fluid Volume with Intelligence-Assisted Analysis and Remote Patient Monitoring System Technical Area 5 This invention is used in biomedical measuring devices, cardiovascular patient monitoring systems, and digital health. It relates to the field of technologies. More specifically, the invention concerns pulmonary fluid in patients with heart failure. using bioelectrical impedance measurement to determine accumulation at an early stage a portable device and an AI-powered remote system that analyzes the data obtained from that device. It relates to the patient tracking system. 10 State of the Art In patients with heart failure, fluid retention and pulmonary congestion can worsen the disease. This is one of the most important reasons. Today, in order to evaluate the increase in pulmonary fluid... chest X-ray, lung ultrasonography, biochemical markers, and implantable thoracic Impedance sensors are used. However, a significant portion of these methods are suitable for hospital settings. It may require intervention, may be invasive, or may not be suitable for daily patient monitoring. Bioelectrical impedance measurement is a technique used to assess body fluid distribution. This is the method. However, current systems are generally devices in the form of weighing scales or multi-electrode systems. These systems are not portable or practical for daily use. Therefore, early detection of pulmonary fluid changes in patients with heart failure is crucial. There is a need for a new device that can do this, is portable, and easy to use. Purpose of the Invention The aim of this invention is to detect pulmonary fluid accumulation in heart failure patients at an early stage. A portable device that performs finger-contact bioelectrical impedance measurement to determine this. to improve. 25 The invention also enables the analysis of measurement data using AI-powered algorithms and mobile devices. The aim is to enable remote patient monitoring through the application. 2 Detailed Description of the Invention The invention involves a portable biomedical measuring device designed in card form. The device consists of the following components, as shown in Figure 1: 30 1- Finger contact electrodes 2- Electronic circuit that generates alternating current 3- Bioelectrical impedance measurement module 4- Microcontroller and Wireless communication module 5- Internal battery 35 6- Data analysis algorithm The user starts the measurement by touching two fingers to the electrodes on the device. A low level of alternating current is passed through the body via electrodes, and the resulting The bioelectrical impedance value is obtained by measuring electrical resistance. Since the electrical conductivity of body tissues varies depending on the amount of fluid they contain, 40 Measured impedance values ​​can provide information about pulmonary fluid increase. The microcontroller inside the device processes the measured data and creates a dataset. This The data is evaluated by an AI-powered analysis algorithm to analyze pulmonary fluid. Estimates are made about its volume. The device can also connect to a mobile application thanks to its wireless communication module. Mobile 45 The patient's measurement results can be monitored through the application, and healthcare professionals can guide the patient. They can monitor it from a distance. This system is a patient monitoring tool that allows for remote monitoring of heart failure patients. It can be used as a system. Advantages Provided by the Invention 50 • Portable and compact device • Non-invasive measurement method • Ease of use at home • Early detection of pulmonary congestion 3 • AI-powered analysis 55 • Mobile application integration • Remote patient monitoring Description of the Images Figure 1: Portable device of the invention; finger contact electrodes, bioelectrical impedance measurement circuit, microcontroller unit, wireless communication module, internal battery and data analysis 60 This is a schematic view showing the relationship between the algorithm module and the algorithm itself.

Claims

4 REQUESTS 1. Portable device for estimating pulmonary fluid volume in patients with heart failure. It is a biomedical measuring device; • at least two finger contact electrodes that can be touched by the user, • 5 that apply low-level alternating current through the user's body via electrodes a bioelectrical impedance measurement circuit, • a microcontroller that processes the measured impedance data, • a data analysis algorithm that analyzes measurement data, • a wireless communication module that enables the transmission of measurement results to external systems, • an internal power source or battery that powers the device, 10 A portable pulmonary fluid measuring device characterized by its inclusion.

2. The device is as per Claim 1; the said finger contact electrodes are placed on the user's right and left sides. It is characterized by the thumbs being positioned in a way that allows for contact.

3. The device is as per claim 1 or 2; the bioelectrical impedance measurement circuit in question is low. by applying alternating current at different levels to measure the electrical resistance of body tissues 15 It is characterized.

4. The device is as described in Claims 1–3; the measured impedance data is analyzed using an artificial intelligence-assisted data analyzer. by evaluating the pulmonary fluid volume using an algorithm It is characterized.

5. The device is in accordance with claims 1–4 and has a wireless communication module using Bluetooth, Wi-Fi or similar short-circuit technology. It is characterized by including at least one of the distance data communication protocols.

6. The device is in accordance with claims 1–5; measurement results are displayed via a mobile application or remotely to the patient. It is characterized by its ability to be transferred to a monitoring platform.

7. The device in accordance with claims 1–6; the device in question has a portable body structure in the form of a card. It is characterized by having. 25 8. A measurement for estimating pulmonary fluid volume in patients with heart failure. This method is characterized by including the following steps: • The user's right and left thumbs must be placed in contact with the electrodes on the device. • application of low-level alternating current through the body via electrodes, • Measurement of bioelectrical impedance value, 30 • measurement data is processed by a microcontroller, • The obtained data are analyzed in terms of pulmonary fluid volume using a data analysis algorithm. evaluation.

9. The method is in accordance with Claim 8; the data analysis algorithm in question is either artificial intelligence or machine learning. It is characterized by including a learning-based model. 35 10. The method is according to claim 8 or 9; measurement results are transmitted via wireless communication to a This is characterized by the transfer of data to a mobile application or a remote patient monitoring system.