DESC:SYSTEM AND METHOD FOR DETECTING HEALTH PARAMETERS AND HEALTH STATUS OF SUBJECT

TECHNICAL FIELD
[0001] The proposed invention relates to health monitoring, and more particularly to, a system and method for detecting health parameters and health status of a subject.
BACKGROUND
[0002] In general, detection of a health status, particularly, cardiac health status of a subject is important for early detection of heart diseases, since symptoms of the heart diseases are very sporadic in early stages. Sometimes the symptoms of some heart diseases in the subject may not be discovered by timely performing electrocardiogram (10 second ECG) measurements in hospitals.

[0003] In the prior art, various devices such as, Holter monitors, wearable devices/patches, or the like, are used to detect health parameters of the subject. Herein, the health parameters identify the cardiac health status of the subject.

[0004] The Holter monitors involve pasting measurement electrodes on a skin of the subject for a plurality of days. Due to which, the subject may feel uncomfortable and may not engage in normal activities, hence cannot be worn for multiple days. The wearable device/patch is applied to the skin of the subject with an adhesive. The wearable device/patch features multiple layers and embedded electronics to collect health data of the subject. However, the wearable device/patch is prone to detach from the skin of the subject easily, depending on climate conditions in region where the subject is using the wearable device/patch. Specifically in tropical and equatorial regions where the subject sweats frequently, the wearable device/patch can start peeling off easily from the skin of the subject. The reason for this is that the wearable device/patch is waterproof and hence therefore does not let off the sweat collected underneath it.

[0005] Further, as the Holter monitors and the wearable device/patch is required to be worn by the subject for the plurality of days, they may collect large size of health data of the subject, which is very time consuming to transfer it to an external entity and require physical connection. While in some wearable devices/patch with wireless mechanisms, the subject has to be involved in transferring the health data from them to the wireless device and hence to the external entity/server.

[0006] Thus, the above-described devices are not suitable for the subject to wear long term and also for the efficient detection of the health parameters of the subject.
SUMMARY
[0007] Consequently, the proposed disclosure provides a system and method for detecting health parameters and health status of a subject.

[0008] According to a first aspect of the present invention, disclosed is a system for detecting health parameters and health status of a subject. The system comprises a wearable device-patch arranged to be in contact with the subject to capture health data of the subject. The wearable device-patch comprises of one or more reusable electronic components comprising one or more layers and a disposable patch comprising an electrode layer and one or more supporting layers facilitating wearability of the wearable device-patch. The system further comprises a wireless device arranged to receive the health data of the subject from the wearable device-patch, one or more servers arranged to receive the health data and information about the wearable device-patch from at least one of the wearable device-patch and the wireless device. The one or more servers are arranged to analyze the health data to generate health information. The system further comprises an electronic device having a dashboard application arranged to receive and display at least one of: the health information, a status of the wearable device-patch, a status of the health data through at least one of the wireless device and the one or more severs and alerts that indicate reception of noisy signals from the wearable device-patch, information about the wearable device-patch detaching from the subject, a low battery status of the wearable device-patch, non-reception of the health data from the wearable device-patch, non-reception of data from the wireless device.
[0009] According to another aspect of the present invention, disclosed is a method implemented in a system for detecting health parameters and health status of a subject. The method comprises of capturing, through a wearable device-patch, health data of the subject. The device-patch is arranged to be in contact with the subject. The method further comprises receiving through a wireless device, the health data of the subject from the wearable device-patch, receiving through one or more servers, the health data from at least one of the wearable device patch and the wireless device. The one or more servers are arranged for analysing the health data to generating health information. The method further comprises receiving and displaying, through an electronic device having a dashboard application, at least one of: the health information, a status of the wearable device-patch and a status of the health data through at least one of the wireless device and the one or more severs.
[0010] According to yet another aspect of the present invention, disclosed is a wearable device-patch for detecting health parameters. The wearable device-patch comprises of a device housing to house one or more electronics components, a disposable patch comprising an electrode layer and one or more supporting layers, a waterproof layer provided above the skin layer arranged between the skin layer and a Printed Circuit Board (PCB) layer of the disposable patch. The wearable device-patch further comprises a battery compartment arranged above the PCB to provide housing for a battery, and a battery to give power supply to the wearable device-patch, a holding layer comprising a foam tape to hold the wearable device-patch, a glue layer for the device housing is provided with a second release liner to be released to stick the device housing after the re-usable electronics are inserted into the device housing.

BRIEF DESCRIPTION OF THE DRAWINGS
[0011] For a more complete understanding of the present invention and its features and advantages, reference is now made to the following description, taken in conjunction with the accompanying drawings, in which:

[0012] FIG. 1 discloses an example system for detecting health parameters, according to an embodiment disclosed herein;

[0013] FIG. 2 discloses components/parts of a wearable device-patch, namely a reusable-electronics and a disposable patch configured in the system, according to an embodiment disclosed herein;

[0014] FIG. 3 discloses layers/components of the re-usable electronics of the wearable device-patch, according to an embodiment disclosed herein;

[0015] FIG. 4 discloses layers of the disposable patch of the wearable device-patch, conFIG.d in the system, according to an embodiment disclosed herein;

[0016] FIG. 5 discloses layers/components of an additional electrode in the wearable device-patch, according to an embodiment disclosed herein;

[0017] FIG. 6 discloses an example dashboard application providing status of the wearable device-patch and the status of the health data being transferred for continuous monitoring, according to an embodiment disclosed herein;

[0018] FIG. 7 discloses an example dashboard application related to cardiac health status of a subject, generated for health assessment, according to an embodiment disclosed herein;

[0019] FIG.s 8A, 8B, and 8C disclose example illustrations of performing various actions on a dashboard application providing information related to cardiac health status of a subject for reporting, according to an embodiment disclosed herein; and

[0020] FIG. 9 is a flowchart illustrating steps of a method performed for detecting health parameters, according to an embodiment disclosed herein.

DETAILED DESCRIPTION
[0021] The embodiments herein and the various features and advantageous details thereof are explained more fully with reference to the non-limiting embodiments that are illustrated in the accompanying drawings and detailed in the following description. Descriptions of well-known components and processing techniques are omitted so as to not unnecessarily obscure the embodiments herein. The examples used herein are intended merely to facilitate an understanding of ways in which the embodiments herein may be practiced and to further enable those of skill in the art to practice the embodiments herein. Accordingly, the examples should not be construed as limiting the scope of the embodiments herein.

[0022] Embodiments herein disclose a system comprising a wearable device-patch, a wireless device, and a server. The wearable device-patch captures health data of a subject and transfers the captured health data to the wireless device. The wireless device-patch transfers the health data received from the wearable device-patch to the server for detection of health parameters of the subject.

[0023] FIG. 1 discloses an example system 1000 for detecting health parameters and health status of a subject. In an example, the subject is patient or a user.

[0024] The system 1000 comprises a wearable device-patch 900, a wireless device 400, a server 800 and a dashboard application 700. The wearable device-patch 900 may communicate with the wireless device 400 through a communication network (not shown). Similarly, the wireless device 400 may communicate with the server 800 through the communication network. In an example, the communication network comprises a wireless network, a wired network, or a combination thereof. More specifically, the communication network may be implemented as one of the different types of networks, such as intranet, Local Area Network, LAN, Wireless Personal Area Network, WPAN, Wireless Local Area Network, WLAN, wide area network, WAN, Bluetooth, the Internet, and the like. The communication network may either be a dedicated network or a shared network. The shared network represents an association of the different types of networks that use a variety of protocols, for example, MQ Telemetry Transport (MQTT), Extensible Messaging and Presence Protocol (XMPP), Hypertext Transfer Protocol (HTTP), Transmission Control Protocol/Internet Protocol, (TCP/IP), Wireless Application Protocol (WAP), and the like, to communicate with one another. Further, the communication network may include a variety of network devices, including routers, bridges, servers, computing devices, storage devices, and the like.

[0025] In an embodiment, details of the system 1000 will now be explained. Referring to FIG. 2, the wearable device-patch 900 of the system 1000 is arranged to be in contact with the subject to capture health data of the subject. The wearable device-patch 900 comprises of one or more reusable electronic components 950 comprising one or more layers 951, 952, 953 and a disposable patch 960 comprising an electrode layer (not shown in FIG.s) and one or more supporting layers facilitating wearability of the wearable device-patch.
[0026] The system 1000 comprises a wireless device 400 arranged to receive the health data of the subject from the wearable device-patch 900 and the one or more servers 800 are arranged to receive the health data and information about the wearable device-patch 900 from at least one of the wearable device-patch 900 and the wireless device 400. The one or more servers 800 are arranged to analyze the health data to generate health information.
[0027] The system 1000 comprises an electronic device (now shown in FIG.s) having the dashboard application 700. The dashboard application 700 is arranged to receive and display at least one of: the health information, a status of the wearable device-patch 900, a status of the health data through at least one of the wireless device 400 and the one or more severs 800 and alerts that indicate reception of noisy signals from the wearable device-patch 900, information about the wearable device-patch 900 detaching from the subject, a low battery status of the wearable device-patch 900, non-reception of the health data from the wearable device-patch 900, non-reception of data from the wireless device 400.
[0028] The wearable device-patch 900 (also be referred to as cardiac monitoring patch, cardiac monitoring apparatus, or the like) referred herein is attachable to a skin (for example, at a chest region) of the subject.
[0029] In an example, the electronic device comprises a smartphone, a tablet, a laptop, a desktop or similar device.

[0030] As depicted in FIG. 2, the wearable device-patch 900 is a light wearable patch made of re-usable electronics 950 and disposable patch 960. The wearable device-patch 900 further comprises an additional electrode 970.

[0031] The re-usable electronics 950 of the wearable device-patch 900 is depicted in FIG. 3. As depicted in FIG. 3, the re-usable electronics 950 comprises a top plastic layer 951, an electronics layer 952, and a bottom plastic layer 953.

[0032] The disposable patch 960 is made up of supporting layers designed for long-term wearability and high mobility under diaphoretic conditions. The layers of the disposable patch 960 is described in detail in conjunction with FIG. 4.

[0033] Referring back to FIG. 1, the wearable device-patch 900 is configured to capture health data from the subject and communicate the captured health data of the subject to the wireless device 400. The health data herein refers to cardiac data. In an example, the cardiac data may comprise electrocardiogram (ECG) signals indicating one or more of: P wave, QRS complex and T wave.

[0034] The wireless device 400 referred herein may be a computing device associated with the wearable device-patch 900 of the subject. Examples of the wireless device 400 may include, but is not limited to, a smart phone, a tablet, a phablet, or, the like.

[0035] The wireless device 400 is configured to receive the health data of the subject from the wearable device-patch 900. The wireless device 400 is further configured to transmit the received health data of the subject to the server 800.

[0036] The server 800 may correspond to computing devices or electronic devices. It may be understood that the server 800 may also be implemented in a variety of computing systems such as a laptop computer, a desktop computer, a notebook, a workstation, a mainframe computer, a network server, a cloud-based computing environment, or a smart phone, and the like. It may be understood that the server 800 may correspond to a variety of portable computing devices such as, a laptop computer, a desktop computer, a notebook, a smart phone, a tablet, a phablet, and the like.

[0037] The server 800 is configured to detect the health parameters of the subject. In embodiments disclosed herein, the health parameters identify a cardiac health status of the subject. The server 800 comprises at least one processor, a memory, a user interface (not shown in FIG.s). The server 800 further includes a communication unit.

[0038] The at least one processor may be implemented as one or more microprocessors, microcomputers, microcontrollers, digital signal processors, central processing units, state machines, logic circuitries, and/or any devices that manipulate signals based on operational instructions. Among other capabilities, the at least one processor may be configured to fetch and execute computer-readable instructions stored in the memory.

[0039] The user interface may include a variety of software and hardware interfaces, for example, a web interface, a graphical user interface, a command line interface, and the like. The user interface may allow an administrator to interact with the server 800. The user interface can facilitate multiple communications within a wide variety of networks and protocol types, including wired networks, for example, LAN, cable, etc., and wireless networks, such as WLAN, cellular, or satellite. The user interface may include one or more ports for connecting a number of devices to one another or to another server.

[0040] The memory, amongst other things, serves as a repository for storing data processed, received, and generated by the processor. The memory may include any computer-readable medium or computer program product known in the art including, for example, volatile memory, such as Static Random-Access Memory (SRAM) and Dynamic Random-Access Memory (DRAM), and/or non-volatile memory, such as Read Only Memory (ROM), Erasable Programmable ROM (EPROM), Electrically Erasable and Programmable ROM (EEPROM), flash memories, hard disks, optical disks, and magnetic tapes.

[0041] The server 800 may also comprise database that may include a repository for storing the health data of the subjects, information about (for example, identities (IDs), location, or the like) the wearable device-patch 900, or the like.

[0042] The server 800 may also comprise a communication unit for enabling communication of the server 800 with the wireless device 400 through the communication network.

[0043] The server 800 is configured to receive the health data of the subject from the wireless device 400, which is associated with the wearable device-patch 900 of the subject. The server 800 is further configured to detect the health parameters of the subject from the received health data. Detecting the health parameters herein involves auto-detection of heartbeats and Arrhythmia. Alternatively, detecting the health parameters herein may involve detecting atrioventricular blocks, atrial fibrillation, ischemic conditions, or the like through Hybrid Mathematical and Logical algorithms along with Machine Learning (ML) model and Artificial Intelligence (AI) algorithms.

[0044] More particularly, the server 800 identifies the heartbeats of the patients from the received health/cardiac data, analyses all the heartbeats for beat level fiducial points and performs beat-to-beat rhythm analysis for all possible anomalies within a beat and beat-to-beat rhythms problem for example, for every 16 seconds.

[0045] The server 800 is also configured to provide an access to centrally monitored dashboard application 700 for end-to-end test management and for full disclosure analysis by doctors, healthcare personnel, or the like. The doctors, healthcare personnel, or the like may access the dashboard application to analyse the health parameters of the subject. Thus, information about the cardiac health of the one or more subjects may be reported with highest affordability and within less turnaround time. The report showing health assessment may be generated in real-time.

[0046] The server 800 is also configured for raising alarms centrally for any interruptions such as noisy signals, wearable device-patch coming off from the region of the subject, low battery, non-reception of the cardiac data (i.e., when the wearable device-patch 900 is disconnected from the server 800), or the like. Thus, assuring test outcome under toughest conditions. In addition, due to monitoring of the wearable device-patch 900, the re-usable electronics in the wearable device-patch 900 may be removed and attached into a new wearable patch to continue the cardiac data capture for longer duration than originally planned.

[0047] Thus, embodiments herein provide an automated and connected workflow for the server 800 for uninterrupted capture of the cardiac data from the wearable device-patch 900 through the wireless device 400 being used by the subject and for seamless detection of the cardiac health status of the subject by managing load and interruptions.

[0048] Embodiments herein also provide uninterrupted experience for detecting and exploratory analysis for full disclosure cardiac data/ECG without any manual interventions from technicians to doctors. Therefore, the doctors may get preview to look through before and after conditions with real-time inputs online, which further results in proactive diagnosis and intervention aiding early detection of anomalies/health risks.

[0049] FIG. 4 discloses layers of the disposable patch 960 of the wearable device-patch 900. In accordance with embodiments disclosed herein, the wearable device-patch 900 is a lightweight cardiac monitoring patch made of the re-usable electronics 950 and the disposable patch 960 with electrode layer 904 and supporting layers designed for long-term wearability and high mobility under diaphoretic conditions for auto-detection of heartbeats and Arrhythmia.

[0050] The disposable patch 960 of the wearable device-patch 900 comprises a skin layer release liner 902, an electrode gel 901a, an electrode gel ring 901b, a skin layer 901, a breathable waterproof layer 903, a waterproof polyester layer with adhesive layer 903a, a flexible PCB layer 904, a foam layer 906, a battery compartment 905, a device housing 910, a glue layer for the device housing 907, a release liner for the device housing 909, and the re-usable electronics device 950.

[0051] The skin layer (also be referred to as sink layer) 901 is arranged to be in contact with a skin of the subject. The skin layer 901 may be made from non-woven polyester and provided with an adhesive sticking onto the skin/body of the subject.

[0052] Further, the skin layer 901 is a breathable strong and wicking layer with a wing. The wing may also be protected by breathable waterproof layer an ultra-thin polyurethane layer designed for breathability and protecting the skin layer from excessive water. Thus, with the proposed design, the skin layer 901 wings out of the wearable device-patch 900 to allow evaporation of sweat, hence, the skin layer 901 operates as a sink or a wick (for example, capillary).

[0053] The skin layer 901 may comprise ECG gel 901a and gel holding rings 901b for the ECG gel 901a. The skin layer release liner 902 is arranged below the skin layer 901.

[0054] The waterproof layer 903a is a non-breathable polyester waterproof layer arranged between the skin layer 901 and the PCB 904. The waterproof layer 903a prevents sweat and water from coming up to the layers above the waterproof layer 903a. The waterproof layer 903a may comprise a wing 903, which is an ultra-thin polyurethane layer to prevent water and chemicals (for example, soap) from getting into the skin layer 901, while the subject is bathing or coming in contact with rain.

[0055] The flexible PCB 904 (also be referred to as electronics layer) is arranged above the waterproof layer 903. The PCB 904 is configured to enable the reusable electronics/reusable electronics device/electrode 950 to capture the cardiac data of the subject continuously (for example, for all the 24 hours across all the seven days (24X7). The disposable patch 960 comprises a connector 904b to attach the reusable electronics 950.

[0056] The reusable electronics device 950 comprises a local/device storage to store the capture the health data/cardiac data of the subject for a pre-defined number of days, for example, up to 3 days.

[0057] The reusable electronics device 950 also comprises a communication unit to transfer the captured cardiac data of the subject to the server 800 through the wireless device 400. In an example, the cardiac data may be transferred to the server 800 through the wireless device in small packets instead of sharing in large chunks to enable seamless transmission of data. In an example, the communication unit transfers the cardiac data of the subject to the server 800 continuously through the wireless device. In another example, the communication unit transfers the cardiac data of the subject to the wireless device 400 at periodic intervals, for example, for every 40 seconds from there to the server 800. Further, in case if the wireless device 400 fails to establish the connection with the server 800, the captured cardiac data may be stored and appropriately transferred to the server 800 after the connection is re-established between the server 800 and the wireless device 400. Thus, resulting in fool-proof or reliable data collection. In addition, the captured/collected cardiac data from the wearable device-patch 900 may be transferred to the server 800 through the wireless device without involving any manual intervention.

[0058] The battery compartment 905 is arranged above the PCB 904 to provide housing for battery 904a to give power supply to the wearable device-patch 900 to operate.

[0059] The main holding layer/foam layer 906 comprises a foam tape.

[0060] The water proof polyester layer 903a, is layered with adhesive on both ends and is configured to bond the skin layer 901, the PCB 904, and the above layers 905-906 of the PCB 904, thereby, preventing water reaching the device housing and battery compartment.. The water proof polyester layer 903a along with the skin layer 901 and the waterproof layer 903 allows the subject to wear the wearable device-patch 900 for a pre-defined number of days, for example, at least 5 days even in tropical weather or conditions involving diaphoresis.

[0061] The re-usable electronics device 950 is configured to capture the cardiac data of the subject. The glue layer for the device housing 907 is provided with the second release liner 909 to be released to stick the device housing after the re-usable electronics 950 is inserted into it.

[0062] Thus, the proposed design of the wearable device-patch 900 provides unique device housing by enabling electronics reuse and facilitating easy insertion, removal and re-use of the re-usable electronics 950 into the disposable patch 960. Decoupling of the re-usable electronics 950 from the disposable patch 960, make it possible to use the re-usable electronics 950 into a new disposable patch 960. For example, the wearable device-patch 900 may be re-used across different kinds of subjects/patients and extended for tests beyond prescribed days for the same subject. The wearable device-patch 900 may be designed for self-application by the subject (i.e., user/patient).

[0063] FIG. 5 discloses layers/components of the extended/additional electrode 970 in the wearable device-patch 900. The electrode 970 comprises a skin layer release liner 911, an electrode gel 912a, an electrode gel ring 912b, a skin layer 913, a breathable waterproof layer 914, a waterproof polyester layer 915, a flexible PCB Layer 916, an electrode-housing layer 917, and a foam layer 918.

[0064] FIG. 6 discloses an example dashboard application providing status of the wearable device-patch and the status of the health data being transferred for continuous monitoring.

[0065] The server 800 may provide data for an exemplary dashboard application as depicted in FIG. 6. The dashboard provides information about at least one of, but is not limited to, identities (IDs) of each wearable device-patch 900, name of the subjects associated with each wearable device-patch 900, contact numbers of the subjects, data and time about wearability of each wearable device-patch 900 by the subjects, a status of each wearable device-patch 900, information about each wireless device 400 to which the wearable device-patch 900 is connected, a location information associated with the wearable device-patch 900, or the like.

[0066] FIG. 7 discloses an example dashboard application related to cardiac health status of a subject, generated for health assessment.

[0067] The server 800 may provide the health data like ECG to doctor/healthcare personnel for assessment through the dashboard application. As depicted in FIG. 7, the dashboard application provides information about ECG of the subject and other relevant events. Thus with the provided dashboard, the doctor may view ECG, select or unselect leads to view, adjust zoom, gain, and speed, of the like. The doctor may also be provided with onscreen tools to measure ECG signal level and time intervals.

[0068] FIG.s 8A, 8B, and 8C disclose example illustrations of performing various actions on a dashboard application 700 providing information related to a cardiac health status of the subject for reporting.

[0069] Consider an example scenario, wherein the server 800 provides access for the doctor to the dashboard application after receiving the cardiac data of the subject from the wearable device-patch 900 through the wireless device 400, wherein the dashboard application provides ECG data of the subject. In such a scenario, as depicted in FIG. 8A, the doctor may view trends associated with the ECG data, for example, HR and Max RR Trend. The doctor may also review and set min and MAX HR. In addition, the doctor may also review and finalize “Sleep” and “Awake” intervals.

[0070] Further, the doctor may also review shapes or different morphologies of heartbeats from the ECG data, and unmark or reclassify individual or groups of heartbeats, as depicted in FIG. 8B.

[0071] In addition, the doctor may also view analytics associated with the ECG data of the subject, as depicted in FIG. 8C. For example, the analytics may provide information about at least one of, but is not limited to, heartbeat statistics, Arrhythmia Trends, RR histogram, Trends of Max QT and QTc, Min, Max, and Avg HR, or the like.

[0072] FIG. 9 is a flowchart illustrating method steps of a method 9000 performed for detection of the health parameters identifying the cardiac health status of the subject. The method 9000 may be implemented in the system 1000.

[0073] At step 9002, the method 900 comprises capturing, through the wearable device-patch 900, health data of the subject when the wearable device-patch 900 is in contact with the subject.
[0074] At step 9004, the method 9000 provides receiving, through the wireless device 400, the health data of the subject from the wearable device-patch 900 and at step 9006, the method 9000 provides receiving, through the one or more servers 800, the health data from at least one of the wearable device patch 900 and the wireless device 400. The health data is analyzed for generating health information.
[0075] At step 9008, the method 9000 provides receiving and displaying, through the electronic device having the dashboard application 700, at least one of: the health information, the status of the wearable device-patch 900 and the status of the health data through at least one of the wireless devices 400 and the one or more severs 800.
[0076] Details of the method 9000 are similar to details of the system 1000 and hence are not repeated for the sake of brevity.
[0077] Embodiments herein provide the system comprising the wearable device-patch, the wireless device for the wearable device-patch, and the server. Each wearable device-patch is made of re-usable electronics and disposable patch for auto-detection of heartbeats and Arrhythmia. The server collects health data of the subject and detects the cardiac health status of the subject based on the collected health data.

[0078] Embodiments herein provide the system of data capture, buffered local storage and cloud analysis with no data loss, despite connectivity constraints with automated transfer of data from local to the server for continuous beat-to-beat analysis, anomaly vs noise detection, and cumulative reporting at near real-time.

[0079] Embodiments herein further provide an uninterrupted workflow from data capture to near real-time reporting with automated central monitoring of test failures.

[0080] Although this disclosure has been described in terms of certain embodiments, alterations and permutations of the embodiments will be apparent to those skilled in the art. Accordingly, the above description of the embodiments does not constrain this disclosure. Other changes, substitutions, and alterations are possible without departing from the spirit and scope of this disclosure.
,CLAIMS:WE CLAIM:

1. A system (1000) for detecting health parameters and health status of a subject, the system (1000) comprising:
a wearable device-patch (900) arranged to be in contact with the subject to capture health data of the subject, the wearable device-patch (900) comprising:
one or more reusable electronic components (950) comprising one or more layers (951, 952, 953); and
a disposable patch (960) comprising an electrode layer (904) and one or more supporting layers facilitating wearability of the wearable device-patch (900);
a wireless device (400) arranged to receive the health data of the subject from the wearable device-patch (900);
one or more servers (800) arranged to receive the health data and information about the wearable device-patch (900) from at least one of the wearable device-patch (900) and the wireless device (400), wherein the one or more servers (800) are arranged to analyze the health data to generate health information; and
an electronic device having a dashboard application (700), wherein the dashboard application (700) is arranged to receive and display at least one of: the health information, a status of the wearable device-patch (900), a status of the health data through at least one of the wireless device (400) and the one or more severs (800) and alerts that indicate reception of noisy signals from the wearable device-patch (900), information about the wearable device-patch (900) detaching from the subject, a low battery status of the wearable device-patch (900), non-reception of the health data from the wearable device-patch (900), non-reception of data from the wireless device (400).
2. The system (1000) as claimed in claim 1, wherein the wearable device-patch (900) comprises:
a device housing (910) to house the one or more electronics components (950);
the disposable patch (960) comprising the electrode layer (904) and the one or more supporting layers;
an additional electrode to provide signal to the one or more electronic components (950);
a waterproof layer (903) arranged as a wing structure above the skinlayer to prevent liquids from entering the patch;
a waterproof layer (903a) provided above the skin layer (901), wherein the waterproof layer (903a) is arranged between the skin layer (901) and a Printed Circuit Board (PCB) layer (904) of the disposable patch (960);
a battery compartment (905) arranged above the PCB (904) to provide housing for a battery (904a), and the battery (904a) to give power supply to the electronic device (950);
a holding layer (906) comprising a foam tape to hold the wearable device-patch (900); and
a glue layer (907) for the device housing (910) is provided with a second release liner (909) to be released to stick the device housing (910), to waterproof the re-usable electronics (950) inserted into the disposable patch (960), allowing reuse.
3. The system (1000) as claimed in claim 2, wherein the one or more electronics components (950) comprises of re-usable electronic components (950) attached through a connector (904b), wherein the one or more layers (951, 952, 953) comprises a top plastic layer (951), an electronics layer (952), and a bottom plastic layer (953), and wherein the re-usable electronic components (950) comprise a communication unit to transfer the captured health data of the subject to the one or more servers (800) through the wireless device 400.

4. The system (1000) as claimed in claim 1, wherein the one or more supporting layers of the disposable patch (960) comprises:
a skin layer release liner (902); and
a skin layer (901) arranged to be in contact with a skin of the subject, wherein the skin layer (901) comprises an electrode gel (901a) and an electrode gel ring (901b) for holding the electrode gel (901a), and wherein the skin layer (901) extends out of the disposable patch (960) and comprises a wing structure allowing the wearable device-patch (900) to remove sweat of the subject by the process of wicking;
5. The system (1000) as claimed in claim 2, wherein the waterproof layer (903) comprises a waterproof polyester layer with adhesive layer on both end of the waterproof polyester layer, wherein the waterproof layer (903) comprises a wing structure made of polyurethane layer for preventing the flow of liquid into the skin layer (901), wherein the waterproof layer (903a) prevents the flow of liquids from the skin layer to the PCB layer (904)

6. The system (1000) as claimed in claim 1, wherein the one or more servers (800) is arranged to:
generate one or more alerts indicating at least one of a reception of noisy signals from the wearable device-patch (900),
an alert about detachment of the wearable device-patch (900) from the subject,
a low battery status of the wearable device-patch (900), and
an alert about non-reception of the health parameters from the wearable device-patch (900) or the wireless device (400), wherein the one or more alerts are transmitted to the electronic device via the dashboard application (700),wherein the one or more alerts are displayed on the dashboard application (700).

7. The system (1000) as claimed in claim 1, wherein the one or more servers (800) comprise:
a repository for storing each of: the health data of the subject, information about the wearable device-patch (900),
wherein the health data comprises cardiac data comprising electrocardiogram (ECG) signals indicating one or more of: P wave, QRS complex and T wave.
wherein the information about the wearable device-patch (900) comprises an identity (ID) of the wearable device-patch (900), name of the subject associated with each wearable device-patch (900), contact number of the subject, date and time about wearability of each wearable device-patch (900) by the subject, a status of each wearable device-patch (900), information about each wireless device (400) to which the wearable device-patch (900) is connected, and a location information associated with the wearable device-patch (900); and
a communication unit for enabling the communication of the one or more servers (800) with each of the wireless device (400) and the electronic device having the dashboard application (700).

8. A method (9000) implemented in a system (1000) for detecting health parameters and health status of a subject, the method (9000) comprising:
capturing (902), through a wearable device-patch (900), health data of the subject, wherein wearable device-patch (900) is arranged to be in contact with the subject;
receiving (904), through a wireless device (400), the health data of the subject from the wearable device-patch (900);
receiving (906), through one or more servers (800), the health data from at least one of the wearable device patch (900) and the wireless device (400), wherein the health data is analyzed for generating health information; and
receiving and displaying (908), through an electronic device having a dashboard application (700), at least one of: the health information, a status of the wearable device-patch (900) and a status of the health data through at least one of the wireless device and the one or more severs.

9. The method as claimed in claim 8, comprising:
generating, through one or more servers (800), one or more alerts indicating at least one of a reception of noisy signals from the wearable device-patch (900);
generating an alert about detachment of the wearable device-patch (900) from the subject,
generating a low battery status of the wearable device-patch (900), and
generating an alert about non-reception of the health parameters from the wearable device-patch (900), wherein the one or more alerts are transmitted to the electronic device via the dashboard application (700),
wherein the one or more alerts are displayed on the dashboard application (700).
10. The method (9000) as claimed in claim 8, comprising:
storing, in a repository, each of: the health data of the subject, information about the wearable device-patch (900),
wherein the health data comprises cardiac data comprising electrocardiogram (ECG) signals indicating one or more of: P wave, QRS complex and T wave,
wherein the information about the wearable device-patch (900) comprises an identity (ID) of the wearable device-patch (900), name of the subject associated with each wearable device-patch (900), contact number of the subject, date and time about wearability of each wearable device-patch (900) by the subject, a status of each wearable device-patch (900), information about each wireless device (400) to which the wearable device-patch (900) is connected, and a location information associated with the wearable device-patch 900.
11. A wearable device-patch (900) for detecting health parameters, comprising:
a device housing (910) to house one or more electronics components (950);
a disposable patch (960) comprising an electrode layer (904) and one or more supporting layers;
a waterproof layer (903) provided above the skin layer (901), wherein the waterproof layer (903) is arranged between the skin layer (901) and a Printed Circuit Board (PCB) layer (904) of the disposable patch (960);
a battery compartment arranged above the PCB (904) to provide housing for a battery (904a), and a battery (904a) to give power supply to the wearable device-patch (900);
a holding layer comprising a foam tape to hold the wearable device-patch (900);
a glue layer (907) for the device housing is provided with a second release liner (909) to be released to stick the device housing (910) after the re-usable electronics (950) are inserted into the device housing (910).

12. The wearable device-patch (900) as claimed in claim 11, wherein the one or more electronics components (950) comprises of re-usable electronic components (950), wherein the re-usable electronic components (950) comprises a top plastic layer (951), an electronics layer (952), and a bottom plastic layer (953), and wherein the re-usable electronic components (950) comprise a communication unit to transfer the captured health data of the subject to the one or more servers (800) through the wireless device 400.
13. The wearable device-patch (900) as claimed in claim 11, wherein the one or more supporting layers of the disposable patch (960) comprises:
a skin layer release liner (902); and
a skin layer (901) arranged to be in contact with a skin of the subject, wherein the skin layer (901) comprises an electrode gel (901a) and an electrode gel ring (901b) for holding the electrode gel (901a), and wherein the skin layer (901) comprises a wing structure allowing the wearable device-patch (900) to remove sweat of the subject by the process of wicking;
14. The wearable device-patch (900) as claimed in claim 11, wherein the waterproof layer (903) comprises a waterproof polyester layer with adhesive layer, wherein the waterproof layer (903) comprises a wing structure made of polyurethane layer for preventing the flow of liquid into the skin layer (901).

Dated this the 04th day of October, 2023

EDWIN (IN/PA - 4402)
OF S&H PARTNERS
AGENT FOR THE APPLICANT