A smart multi-lead dynamic electrocardiogram monitoring system based on a tight-fitting garment

Abstract

The utility model discloses a kind of intelligent multi-lead dynamic electrocardiogram monitoring systems based on tight clothes, including clothing body;Lead layer component: be set on clothing body;Integrated lead interface: for being connected with lead layer component, the human body electrocardiogram signal of lead layer component acquisition is output;Electrocardio acquisition unit: with integrated lead interface movably connected. Lead layer component includes multiple electrocardio electrode module;Electrocardio electrode module includes inside insulating layer;Through hole is set on clothing body, the inside insulating layer is embedded in the inside of through hole;The inside of inside insulating layer is embedded with electrode piece;Lower insulating layer is provided on the upper layer of inside insulating layer;Conductive layer is provided on the upper layer of lower insulating layer;Dynamic adjustment layer is provided on the upper layer of conductive layer;Upper insulating layer is provided on the upper layer of dynamic adjustment layer;Conductive layer has second conductive layer and extends outward;Upper protective layer formed by upper insulating layer extending outward is provided on the upper side of the second conductive layer.

Description

Technical Field

[0001] This utility model belongs to the fields of flexible electronic packaging technology and electrocardiogram monitoring technology, and relates to an intelligent multi-lead dynamic electrocardiogram monitoring system based on a tight-fitting garment. Background Technology

[0002] With the evolution of the times and the development of society, the public's attention to physical health is increasing, placing higher demands on the accuracy and portability of electrocardiogram (ECG) monitoring devices. For individuals requiring long-term ECG monitoring, such as patients with chronic heart disease or those at high risk of heart disease, existing ECG monitoring devices present numerous problems. Traditional ECG monitoring devices primarily use adhesive electrodes attached to the skin to collect ECG signals, but prolonged use leads to significant issues such as poor comfort, skin irritation, and lead tangling. Furthermore, the multiple leads in commercially available ECG monitoring devices can easily cause discomfort and hinder daily activities during use, while the lead positioning accuracy of smart wearable devices is insufficient, failing to provide data that meets clinical standards. Therefore, there is an urgent need for a solution that balances comfort and accuracy, especially for those with long-term ECG monitoring needs. Utility Model Content

[0003] To solve the above problems, the technical solution adopted by this utility model is: an intelligent multi-lead dynamic electrocardiogram monitoring system based on a tight-fitting garment, comprising:

[0004] The garment itself;

[0005] Lead layer assembly: disposed on the garment body, used to collect human electrocardiogram signals;

[0006] Integrated lead interface: used to connect to the lead layer component and output the human electrocardiogram signal collected by the lead layer component;

[0007] ECG acquisition unit: Actively connected to the integrated lead interface.

[0008] Furthermore, the lead layer assembly includes multiple ECG electrode modules;

[0009] The ECG electrode module includes an inner insulating layer;

[0010] A through hole is provided on the garment body, and the inner insulating layer is embedded inside the through hole; an electrode sheet is embedded inside the inner insulating layer;

[0011] A lower insulating layer is provided on the upper layer of the inner insulating layer;

[0012] The lower insulating layer includes a first lower insulating layer, a second lower insulating layer, and a third lower insulating layer;

[0013] The first lower insulating layer is disposed at one end of the second lower insulating layer;

[0014] The third lower insulating layer is disposed at the other end of the second lower insulating layer;

[0015] The first lower insulating layer, the second lower insulating layer, and the third lower insulating layer are integrally connected;

[0016] A conductive layer is provided on the upper layer of the lower insulating layer;

[0017] The conductive layer includes electrodes, wires, and contact portions;

[0018] The electrode is disposed at one end of the wire;

[0019] The contact portion is located at the other end of the wire;

[0020] The electrodes, wires, and contact parts are integrally connected;

[0021] A dynamic adjustment layer is provided on the upper layer of the electrode;

[0022] An upper insulating layer is provided on the upper layer of the dynamic adjustment layer;

[0023] The upper insulating layer includes a first upper insulating layer and a second upper insulating layer; the first upper insulating layer and the second upper insulating layer are integrally connected;

[0024] The second lower insulation layer is disposed on the underside of the conductor;

[0025] The second upper insulating layer is disposed on the upper side of the conductor;

[0026] Furthermore, the electrode positions are set in accordance with the American Heart Association standard: Recommendations for Electrode Positions in Part I of the Recommendations for Standardization and Interpretation of Electrocardiograms.

[0027] Furthermore, the dynamic adjustment layer is made of elastic memory foam.

[0028] Furthermore, the electrodes, contact parts, and wires are made of the same material, which is silver fiber cloth or conductive silicone.

[0029] Furthermore, the inner insulating layer, the upper insulating layer, and the lower insulating layer are made of TPU film or TPE film, which have good electrical insulation properties and mechanical tensile properties.

[0030] Furthermore, the first upper insulating layer, the first lower insulating layer, the electrode, the dynamic adjustment layer, and the inner insulating layer are all circular;

[0031] The diameter of the first upper insulating layer > the diameter of the through hole > the diameter of the first lower insulating layer = the diameter of the electrode ≥ the diameter of the dynamic adjustment layer > the diameter of the inner insulating layer.

[0032] This utility model provides an intelligent multi-lead dynamic electrocardiogram (ECG) monitoring system based on a compression garment. This system is portable, comfortable, high-precision, customizable, and allows for long-term monitoring. The purpose of this application is to replace the lead wires, adhesive electrode pads, and backpack-style dynamic ECG monitoring devices in traditional ECG monitoring systems, thereby achieving a comfortable, portable, and highly accurate dynamic ECG monitoring solution. It has the following advantages:

[0033] Enhancing Wearability: The elastic fabric of the compression garment, combined with pre-set markings, allows users to quickly position and conform the ECG acquisition device to their body, improving ease of wear. This design also prevents the device from slipping or shifting during daily wear, providing users with a more comfortable and reliable ECG monitoring experience.

[0034] Enhanced dynamic signal stability: The elastic memory foam layer dynamically adjusts the pressure of the electrode material on the skin during movement, keeping the fluctuation of contact impedance at a low level.

[0035] Increased resistance to environmental interference: The alternating conductive and insulating structure effectively isolates the signal transmission from environmental interference (such as sweat generated during exercise, collisions, etc.).

[0036] Enhancing long-term wear comfort: Addressing the potential allergic reactions to traditional adhesive electrode pads in certain populations, this invention utilizes conductive materials such as silver fiber fabric and conductive silicone, significantly reducing skin irritation from the electrode area. Furthermore, the alternating conductive and insulating structure of the outer electrode layer exhibits excellent stretch and breathability, ensuring that skin dryness and comfort are maintained even during prolonged use. Attached Figure Description

[0037] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0038] Figure 1 This is a schematic diagram of the overall structure of the ECG monitoring compression garment; where (a) is the outer front layer and (b) is the inner front layer.

[0039] Figure 2(a) is a schematic diagram of the ECG acquisition device and the integrated lead interface; (b) is a schematic diagram of the location of the ECG acquisition unit;

[0040] Figure 3 This is a schematic diagram showing the connection method between the ECG acquisition device and the integrated lead interface;

[0041] Figure 4 This is a schematic diagram of the ECG acquisition unit structure;

[0042] Figure 5 This is a schematic diagram showing the position of the electrodes on the inside of the ECG monitoring compression garment;

[0043] Figure 6 This is a schematic diagram of the lower protective layer extending from the lower insulating layer;

[0044] Figure 7 This is a schematic diagram of the electrodes;

[0045] Figure 8 Schematic diagram of the upper insulating layer;

[0046] Figure 9 This is a schematic diagram of the conductive layer;

[0047] Figure 10 This is a schematic diagram of the upper insulating layer;

[0048] Reference numerals: 0010, lower insulating layer; 0011, electrode position; 0020, clothing body; 0040, through hole; 0050, conductive layer; 0051, electrode; 0052, conductive; 0060, upper insulating layer; 0070, dynamic adjustment layer; 0080, inner insulating layer; 0090, integrated lead interface; 0100, ECG acquisition unit. Detailed Implementation

[0049] It should be noted that, unless otherwise specified, the embodiments and features in the embodiments of the present invention can be combined with each other. The present invention will be described in detail below with reference to the accompanying drawings and embodiments.

[0050] To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. The following description of at least one exemplary embodiment is merely illustrative and is in no way intended to limit the present invention or its application or use. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0051] Figure 1This is a schematic diagram of the overall structure of the ECG monitoring compression garment; where (a) is the outer front layer and (b) is the inner front layer.

[0052] A smart multi-lead dynamic electrocardiogram monitoring system based on a compression garment, comprising:

[0053] Clothing body 0020;

[0054] The 0020 garment itself is made of elastic fabric and is available in a variety of sizes, with customization options to meet the specific needs of different user groups. By scanning the user's 3D data and using a CNC cutting system, the garment's size is personalized, ensuring a perfect fit to the body's physiological curves. This not only improves the accuracy of the electrode placement but also significantly enhances the user's comfort.

[0055] Figure 2 (a) is a schematic diagram of the ECG acquisition device and the integrated lead interface; (b) is a schematic diagram of the location of the ECG acquisition unit;

[0056] Lead layer assembly: disposed on the garment body 0020, used to collect human electrocardiogram signals;

[0057] Integrated lead interface 0090: Used to connect to the lead layer component and output the human electrocardiogram signal collected by the lead layer component;

[0058] ECG acquisition unit 0100: Connected to the integrated lead interface 0090, for monitoring human ECG.

[0059] Figure 3 This is a schematic diagram showing the connection method between the ECG acquisition device and the integrated lead interface;

[0060] Figure 4 This is a schematic diagram of the ECG acquisition unit structure;

[0061] Figure 5 This is a schematic diagram showing the position of the electrodes on the inside of the ECG monitoring compression garment;

[0062] Figure 6 This is a schematic diagram of the lower protective layer extending from the lower insulating layer;

[0063] Figure 7 This is a schematic diagram of the electrodes;

[0064] Figure 8 Schematic diagram of the upper insulating layer;

[0065] Figure 9 This is a schematic diagram of the conductive layer;

[0066] Figure 10 This is a schematic diagram of the upper insulating layer;

[0067] The electrocardiogram acquisition unit 0100 is movably connected to the integrated lead interface 0090;

[0068] The lead layer assembly includes multiple ECG electrode 0051 modules;

[0069] The ECG electrode 0051 module includes an inner insulating layer 0080;

[0070] A through hole 0040 is provided on the garment body 0020, and the inner insulating layer is embedded inside the through hole;

[0071] A lower insulating layer 0010 is provided on the upper layer of the inner insulating layer 0080;

[0072] The lower insulating layer 0010 includes a first lower insulating layer, a second lower insulating layer, and a third lower insulating layer;

[0073] The first lower insulating layer is disposed at one end of the second lower insulating layer;

[0074] The third lower insulating layer is disposed at the other end of the second lower insulating layer;

[0075] The first lower insulating layer, the second lower insulating layer, and the third lower insulating layer are integrally connected;

[0076] A conductive layer 0050 is provided on the upper layer of the lower insulating layer 0010;

[0077] The conductive layer 0050 includes an electrode 0051, a wire 0052, and a contact portion;

[0078] The electrode 0051 is disposed at one end of the wire 0052;

[0079] The contact portion is located at the other end of the wire 0052;

[0080] The electrode 0051, the wire 0052, and the contact portion are integrally connected;

[0081] The electrode 0051 is disposed on the upper side of the first lower insulating layer; the contact portion is disposed on the upper side of the third lower insulating layer;

[0082] A dynamic adjustment layer 0070 is provided on the upper layer of the electrode 0051;

[0083] An upper insulating layer 0060 is provided on the upper layer of the dynamic adjustment layer 0070;

[0084] The upper insulating layer 0060 includes a first upper insulating layer and a second upper insulating layer; the first upper insulating layer and the second upper insulating layer are integrally connected;

[0085] The first upper insulating layer is disposed on the upper side of the electrode 0051;

[0086] The second lower insulation layer is disposed on the underside of the conductor 0052;

[0087] The second upper insulating layer is disposed on the upper side of the conductor 0052;

[0088] Multiple ECG electrode 0051 modules are connected to the integrated lead interface 0090 through wiring layers;

[0089] The lower insulation layer 0010 and the upper insulation layer 0060 are made of flexible insulation materials, ensuring good insulation performance and flexibility.

[0090] The first upper insulating layer, the first lower insulating layer, the electrode 0051, the dynamic adjustment layer, and the inner insulating layer 0080 are all circular.

[0091] The diameter of the first upper insulating layer > the diameter of the through hole 0040 > the diameter of the first lower insulating layer = the diameter of the electrode 0051 ≥ the diameter of the dynamic adjustment layer 0070 > the diameter of the inner insulating layer 0080;

[0092] The conductive 0050 is divided into an electrode 0051 part, a wire part, and a contact part. All of them use conductive materials to collect human electrocardiogram (ECG) signals and transmit them to ECG detection equipment.

[0093] The electrode 0051 is designed as a circle with a radius of 5-7 mm. It contacts the skin through a through hole 0040 with a radius of 4-6 mm cut in the clothing. The inner insulating layer 0080 is made of annular material with an outer radius of 7-9 mm and an inner radius of 4-6 mm. It is fixed to the inside of the tight-fitting garment by a hot pressing process. The insulating material on the inside of the tight-fitting garment has a certain self-adhesive property, which can effectively adhere to the skin, so that the position of the electrode 0051 is relatively fixed and the stable contact between the electrode 0051 and the skin is maintained.

[0094] The position of the electrode 0051 in the through hole 0040 is set according to the recommended electrode positions in Part 1 of the American Heart Association Standard: Recommendations for the Standardization and Interpretation of Electrocardiograms.

[0095] The design of multiple lead electrodes 0051 enables simultaneous acquisition of limb and chest leads, comprehensively covering key ECG monitoring areas and obtaining richer and more comprehensive ECG data. An elastic memory foam is embedded between the conductive layer 0050 material and the upper insulating layer 0060 material of the electrode 0051. This foam dynamically adjusts the contact pressure between the electrode 0051 material and the skin according to human movement, ensuring stable and accurate acquisition of ECG signals under various exercise conditions.

[0096] The integrated lead interface 0090 converges the contact portion of the lead wire 0052 at the chest region, creating a fixed and data transmission interface specifically designed for ECG acquisition equipment. This design significantly reduces interference during signal transmission, thereby improving data transmission stability.

[0097] The detachable ECG acquisition unit 0100 includes a housing, an interface, a screen, and an ECG acquisition circuit module;

[0098] The electrical data acquisition circuit module is located inside the housing;

[0099] An interface is provided on the outer casing, which is connected to the integrated lead interface 0090;

[0100] The other end of the interface is connected to the electrical data acquisition circuit module;

[0101] The interface uses a magnetic interface, and its magnetic properties make it extremely easy to remove the device, bringing great convenience to the user.

[0102] The electrical data acquisition circuit module includes a main control module, a power supply module, a data acquisition module, a screen driver module, and a storage module.

[0103] The main control module uses either an ESP32 or an STM32 chip.

[0104] The chip model used in the acquisition module is ADS1298 or ADS1299;

[0105] The power module uses either the XC6220 or AMS1117 chip.

[0106] The screen driver module uses either the GC9A01 or ST7789 chip.

[0107] The storage module uses either a CSNP64G or MKDV8G chip.

[0108] The acquisition module is used to process the electrocardiogram data transmitted through the magnetic interface;

[0109] The main control module is connected to the power module, the acquisition module, the screen driver module, and the storage module;

[0110] The acquisition module, screen driver module, and storage module are also connected to the power module;

[0111] The main control module drives the acquisition module and data storage module, as well as processes the acquired signals. It integrates machine learning algorithms to perform real-time analysis and processing of the acquired signals. When an abnormality is detected in the measured ECG signal, different data recognition frames are added and sent to the mobile device via Bluetooth. Simultaneously, alarms are triggered on both the ECG acquisition unit screen and the mobile device, enabling remote data transmission and sharing.

[0112] The acquisition module meets the requirements of 12-lead ECG monitoring, featuring high resolution, high sampling rate, and high gain, and is equipped with a right leg drive circuit. This effectively cancels common-mode interference noise generated during the measurement process, significantly improving the accuracy and reliability of ECG signal measurement and ensuring the accuracy of the acquired data. The high-precision analog-to-digital converter chip used in the acquisition module has high resolution and high sampling rate characteristics, and the main control chip has sufficient computing power.

[0113] The storage module boasts a large storage capacity, supporting long-term continuous data storage and providing a solid guarantee for long-term ECG data recording. After long-term measurements are completed, users can export the data from the storage module for analysis by professional physicians.

[0114] After receiving the data from the acquisition module, the main controller performs simple data parsing, distinguishes between the data frame header and multi-channel ECG data, and writes the corresponding data into the storage module.

[0115] The screen driver module can drive the screen to display the current ECG signal or present a custom state, making it convenient for users to understand the working status of the device and their own ECG status in real time.

[0116] The software platform receives data from the ECG acquisition device, allowing users to view current and historical ECG data and obtain preliminary analysis results. The platform supports the creation of multiple family accounts, enabling them to view the user's ECG data in real time. If any abnormalities are detected in the user's ECG data, the platform immediately alerts the user and simultaneously sends notifications to their family accounts, facilitating timely intervention. Furthermore, the platform includes an ECG data download function, allowing users to transfer data to professional physicians for expert diagnostic advice.

[0117] Enhancing the professionalism of ECG data analysis: Ordinary users lack the skills to accurately interpret ECG data. The software platform involved in this invention can perform preliminary ECG data analysis and allow users to download ECG data to seek diagnostic opinions from professional physicians.

[0118] Example 1

[0119] A smart multi-lead dynamic electrocardiogram monitoring system based on a compression garment, comprising:

[0120] Clothing body 0020;

[0121] Lead layer assembly: disposed on the garment body 0020, used for human electrocardiogram signals;

[0122] Integrated lead interface 0090: Used to connect to the lead layer component and output the human electrocardiogram signal collected by the lead layer component;

[0123] ECG acquisition unit 0100: connected to the integrated lead interface 0090, for acquiring human ECG signals;

[0124] The electrocardiogram acquisition unit 0100 is movably connected to the integrated lead interface 0090;

[0125] The lead layer assembly includes multiple ECG electrode modules;

[0126] The ECG electrode module includes an inner insulating layer 0080;

[0127] A through hole 0040 is provided on the garment body 0020, and the inner insulating layer is embedded inside the circular hole;

[0128] A lower insulating layer 0010 is provided on the inner insulating layer 0080;

[0129] The lower insulating layer includes a first lower insulating layer, a second lower insulating layer, and a third lower insulating layer;

[0130] The first lower insulating layer is disposed at one end of the second lower insulating layer;

[0131] The third lower insulating layer is disposed at the other end of the second lower insulating layer;

[0132] The first lower insulating layer, the second lower insulating layer, and the third lower insulating layer are integrally connected;

[0133] A conductive layer 0050 is provided on the lower insulating layer 0010;

[0134] The conductive layer 0050 includes an electrode 0051, a wire 0052, and a contact portion;

[0135] The electrode 0051 is disposed at one end of the wire 0052;

[0136] The contact portion is located at the other end of the wire 0052;

[0137] The electrode 0051, the wire 0052, and the contact portion are integrally connected;

[0138] The electrode 0051 is disposed on the upper side of the first lower insulating layer; the contact portion is disposed on the upper side of the third lower insulating layer;

[0139] A dynamic adjustment layer 0070 is provided on the conductive layer 0050; the dynamic adjustment layer 0070 is made of elastic memory foam.

[0140] An upper insulating layer 0060 is provided on the dynamic adjustment layer 0070.

[0141] The upper insulating layer 0060 includes a first upper insulating layer and a second upper insulating layer; the first upper insulating layer and the second upper insulating layer are integrally connected;

[0142] The first upper insulating layer is disposed on the upper side of the electrode 0051;

[0143] The second lower insulation layer is disposed on the underside of the conductor 0052;

[0144] The second upper insulating layer is disposed on the upper side of the conductor 0052;

[0145] Multiple ECG electrode modules are connected to the integrated lead interface 0090 via wires;

[0146] The lower insulating layer 0010 and the upper insulating layer 0060 are made of flexible insulating materials (such as TPU or TPE film), which ensures good insulation performance and flexibility.

[0147] The conductive layer and the contact part are made of the same material, which is a conductive material (such as silver fiber cloth or conductive silicone) to collect human electrocardiogram (ECG) signals and transmit them to the ECG detection device.

[0148] The fabrication process of the lower insulation layer 0010 is as follows: A hot press with precise temperature control of the contact surface is used to fix the single-sided adhesive-coated lower insulation material to the chest of the compression garment. The relative position of the reserved electrode piece 0051 on the lower insulation layer to the compression garment is based on the position requirements of the ECG acquisition electrode 0051. During the hot pressing process, the temperature, pressure, and time parameters of the hot press must be strictly controlled.

[0149] To ensure that the electrode 0051 portion of the conductive layer can penetrate the tight-fitting garment and come into contact with the skin, an opening of the appropriate size must be precisely cut into the tight-fitting garment at the position of the pre-bonded lower insulating reserved electrode 0051, based on the size of the electrode 0051 portion of the conductive layer 0050.

[0150] Cut the conductive material precisely according to the design drawings. Securely install the conductive layer 0050 on top of the lower insulating layer 0010. The second conductive layer 0052 extending from the conductive layer 0050 should be precisely located at the center of the lower insulating layer 0010, and the electrode 0051 of the conductive layer 0050 should be precisely aligned with the position of the opening of the electrode 0051.

[0151] The fabrication process of the upper insulating layer 0060 is as follows: A 7mm radius elastic memory foam with double-sided adhesive is precisely positioned and placed above the 7mm radius electrode 0051. Then, an appropriate amount of dotted adhesive is applied to the upper insulating layer 0060 material to fix it above the elastic memory foam, ensuring precise alignment between the upper insulating layer 0060 material and the lower insulating layer 0010 material. After laying the four layers of material for electrode 0051 and the three layers of material for wire 0052, a hot press is used for hot pressing to achieve integrated molding of the composite material.

[0152] The manufacturing process of the inner insulating layer 0080 is as follows: The inner insulating layer 0080 of the bodysuit is a ring with an outer diameter of 9mm and an inner diameter of 6mm. The electrode 0051 itself is a circle with a radius of 7mm. The centers of the inner insulating layer 0080 of the bodysuit and the electrode 0051 are aligned and hot-pressed using a hot press to ensure a firm bond.

[0153] Gather all the contact portions of the 0052 wires together at chest level. Then, select an appropriate length of the 0052 wire contact portion and attach the corresponding crimp terminal to the connection point between the contact and the wire. Apply precise and appropriate pressure to the crimp terminal using crimping pliers to ensure a secure and tight connection between the crimp terminal and the contact portion, thereby achieving a stable electrical and mechanical connection.

[0154] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, and not to limit them; although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some or all of the technical features; and these modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of the present invention.

Claims

1. A smart multi-lead dynamic electrocardiogram monitoring system based on a compression garment, characterized in that: include: The garment itself; Lead layer assembly: disposed on the garment body, used to collect human electrocardiogram signals; Integrated lead interface: used to connect to the lead layer component and output the human electrocardiogram signal collected by the lead layer component; ECG acquisition unit: Actively connected to the integrated lead interface.

2. The intelligent multi-lead dynamic electrocardiogram monitoring system based on a compression garment according to claim 1, characterized in that: The lead layer assembly includes multiple ECG electrode modules; The ECG electrode module includes an inner insulating layer; A through hole is provided on the garment body, and the inner insulating layer is embedded inside the through hole; a lower insulating layer is provided on the upper layer of the inner insulating layer; The lower insulating layer includes a first lower insulating layer, a second lower insulating layer, and a third lower insulating layer; The first lower insulating layer is disposed at one end of the second lower insulating layer; The third lower insulating layer is disposed at the other end of the second lower insulating layer; The first lower insulating layer, the second lower insulating layer, and the third lower insulating layer are integrally connected; A conductive layer is provided on the upper layer of the lower insulating layer; The conductive layer includes electrodes, wires, and contact portions; The electrode is disposed at one end of the wire; The contact portion is located at the other end of the wire; The electrodes, wires, and contact parts are integrally connected; A dynamic adjustment layer is provided on the upper layer of the electrode; An upper insulating layer is provided on the upper layer of the dynamic adjustment layer; The upper insulating layer includes a first upper insulating layer and a second upper insulating layer; the first upper insulating layer and the second upper insulating layer are integrally connected; The second lower insulation layer is disposed on the underside of the conductor; The second upper insulation layer is disposed on the upper side of the conductor.

3. The intelligent multi-lead dynamic electrocardiogram monitoring system based on a compression garment according to claim 2, characterized in that: The electrode positions are set in accordance with the American Heart Association standards: Recommendations for Electrode Positions in Part I of the Standards for Standardization and Interpretation of Electrocardiograms.

4. The intelligent multi-lead dynamic electrocardiogram monitoring system based on a compression garment according to claim 1, characterized in that: The dynamic adjustment layer is made of elastic memory foam.

5. The intelligent multi-lead dynamic electrocardiogram monitoring system based on a compression garment according to claim 2, characterized in that: The electrodes, contact parts, and wires are made of the same material, which is either silver fiber cloth or conductive silicone.

6. The intelligent multi-lead dynamic electrocardiogram monitoring system based on a compression garment according to claim 2, characterized in that: The inner insulating layer, upper insulating layer, and lower insulating layer are made of TPU film or TPE film, which have good electrical insulation and mechanical tensile properties.

7. The intelligent multi-lead dynamic electrocardiogram monitoring system based on a compression garment according to claim 2, characterized in that: The first upper insulating layer, the first lower insulating layer, the electrode, the dynamic adjustment layer, and the inner insulating layer are all circular. The diameter of the first upper insulating layer > the diameter of the through hole > the diameter of the first lower insulating layer = the diameter of the electrode ≥ the diameter of the dynamic adjustment layer > the diameter of the inner insulating layer.

Images