A system for remote monitoring, detecting diseases and providing healthcare services

Abstract

The present invention relates to a system for detecting diseases and providing healthcare services (100). The system (100) comprises of a plurality of handheld devices (102), a database (126) for storing data of patient and a software module (128). The handheld device (102) is configured to measure vital parameter of a patient's body through a plurality of sensors (110), wherein the plurality of sensor (110) includes a temperature sensor (112), a pulse oximeter sensor (114), a pulse sensor (116), a plurality of ECG leads (118), a blood pressure sensor (120). Additionally, the handheld device (102) may be interfaced to the glucometer and haemoglobin meter. The handheld device (102) is further configured to connect the user to a healthcare provider for consultation through a video call. Therefore, the present invention bridge the gap between rural patients and experienced medical professionals, thereby improving healthcare access for those in remote or underserved areas.

Description

A SYSTEM FOR REMOTE MONITORING, DETECTING DISEASES AND PROVIDING HEALTHCARE SERVICESFIELD OF INVENTION

[0001] The present invention relates to a system for providing healthcare facilities. Particularly, the present invention relates to a system for detecting diseases through a handheld device that is remote patient monitoring (RPM) device and eco-system for detection of cardiac emergencies & chronic diseases (Like Hypertension, diabetes, TB, Thyroid , Anaemia & various cardiac diseases ). More particularly, the present invention helps in providing healthcare facilities at the remote level itself on a real time basis and subsequently connecting patients to a healthcare provider, thereby providing an ecosystem of healthcare services accessible in remote locations and in public transportation, such as Railways & Airplanes.BACKGROUND OF THE INVENTION

[0002] Healthcare landscape is a tale of contrasts, with urban centres boasting state-of-the-art medical facilities while rural areas continue to grapple with a myriad of healthcare challenges. Rural areas, faces unique obstacles that hinder access to quality healthcare. One of the most pressing issues in rural areas is the limited availability of healthcare facilities. Many villages lack even the most basic healthcare infrastructure, such as primary health centres (PHCs) and hospitals. This results in residents having to travel long distances to seek medical care, often at great personal and financial cost. Compounding this problem is the severe shortage of healthcare professionals, including doctors, nurses, and paramedical staff. Healthcare workers tend to gravitate towards urban areas due to better career prospects and living conditions, leaving rural populations underserved.

[0003] Even when healthcare facilities exist, they frequently lack essential medical supplies and equipment, which hampers the ability to provide timely and effective care, especially in emergencies or critical medical situations. Additionally, socio-economic factors such as poverty and limited financial resources further exacerbates the challenge, as many individuals cannot afford to pay for healthcare services or medications, and this financial burden can deter them from seeking medical help. Further, poor transportation infrastructure, including roads and public transportation, makes it difficult for rural residents to reach healthcare facilities in a timely manner, especially during emergencies.

[0004] Moreover, in the event of a cardiac emergency or other critical health issue on any running train, immediate assistance is not readily available, patients has to wait in suffering till next junction for any doctor or medical help, this delayed critical time can worsen the prognosis of patients. Additionally, in airplanes, medical emergencies, such as cardiac issues, often lack immediate treatment options, which can be life-threatening for passengers.

[0005] There are several patent applications comprising a system for monitoring and treating a patient. The United States Patent Application US6612985B2discloses a method for monitoring and treating a patient with one or more diagnosed conditions includes a few steps. A current assessment of each of the diagnosed conditions is determined in a treatment processing system. The current assessment is based on objective data and subjective data about each of the diagnosed conditions from the patient who is at a remote location and on one or more assessment guidelines for each of the diagnosed conditions. Next, an existing treatment plan for each of the diagnosed conditions is updated using the treatment processing system. The updated treatment plan is based on the existing treatment plan, the current assessment and on one or more treatment guidelines for each of the diagnosed conditions. The updated treatment plan for each of the diagnosed conditions is then transmitted to the patient for application by the patient at the remote location. However, the cited invention fails to provide a device that is capable of measuring multiple parameters like blood pressure, blood glucose level, heart rate, pulse rate, haemoglobin, and SPO2. Further, the cited invention lacks any facility of providing consultation by the expert healthcare provider.

[0006] The United States Patent Application US20210161442A1 discloses wireless patient monitor comprises a generic activator module having a universal connection port that connects with any one of multiple sensor devices, a battery, and a radio transmitter wirelessly connected to a host device. The generic activator module connects to any one of multiple sensor devices via the universal connection port to provide power from the battery to the sensor device and to receive digital physiological data from the sensor device. The radio transmitter transmits the digital physiological data received from the sensor device to a host device. However, the cited invention does not provide measurement of blood glucose and haemoglobin. Furthermore, there is no provision of treatment of diagnosed diseases.

[0007] Therefore, keeping in view the problems associated with the state of the art there is a need of a system for remote person monitoring, detecting diseases accurately as per the actual medical conditions of patients based on their essential parameters and providing treatment on real time basis that can address the aforementioned problems in more efficient and effective manner.OBJECTIVES OF THE INVENTION

[0008] The primary objective of the present invention is to provide a system for remote person monitoring, detecting diseases, and providing healthcare services.

[0009] Another objective of the present invention is to provide an ecosystem for detecting diseases in remote areas and public transports and providing healthcare consultation with healthcare provider on real time basis by the top consultants of urban areas.

[0010] Another objective of the present invention is to provide a healthcare system that is cost- effective, easy to use, and simple.

[0011] Another objective of the present invention is to eliminate the gap in Healthcare sector by early analysing & treating some of the prevailing diseases such as Diabetes, Hypertension, Tuberculosis, Anaemia, and Cardiac diseases in rural areas.

[0012] Another objective of the present invention is to provide a single device equipped with the comprehensive features necessary to analyse disease and also ecosystem to treat remote patients effectively.

[0013] Another objective of the present invention is to provide promptly analyse and initiate early consultation with healthcare provider of cardiac diseases in railway and plane passengers by consulting specialist consultants, enabling immediate life-saving care during emergencies.

[0014] Another objective of the present invention is to bridge the gap between rural patients and urban specialists and experienced medical professionals, thereby improving healthcare access for those in remote or underserved areas.

[0015] Another objective of the present invention is to provide a device that contributes to cost reduction in healthcare by eliminating the necessity for costly travel. This helps in minimizing healthcare expenses for rural patients, making healthcare more affordable and accessible.BRIEF DESCRIPTION OFDRA WINGS

[0016] The present invention will be better understood after reading the following detailed description of the presently preferred aspects thereof with reference to the appended drawings, in which the features, other aspects and advantages of certain exemplary embodiments of the invention will be more apparent from the accompanying drawing in which:

[0017] Figure 1 illustrates a system for detecting diseases and providing healthcare services.SUMMARY OF THE INVENTION

[0018] The present invention relates to a system for detecting diseases and providing healthcare services. The system comprises of a plurality of handheld device, and a database to store patient’s data. Each of the plurality of handheld device includes a touch screen for enabling a user to interact with the handheld device. The handheld device further comprise of a pair of camera, and a camera scope to capture images of interior of patient’ s body (Ears, eyes, nose, throat & skin). Additionally, the handheld device comprise of a plurality of sensors configured to measure vital parameter of a patient’s body such as temperature, pulse rate, heart rate, blood oxygen level, a blood pressure sensor, and ECG. Moreover, the handheld device is equipped with a communication unit to provide connectivity among the plurality of handheld devices. Further, the handheld device is installed with a software module. The software module comprises of a registration module configured to register an admin and a user on the system using the software module by receiving admin details and user details respectively through the handheld device. The software module further comprises of an input receiving module configured to receive data from the plurality of sensors. The software module further comprises of an analysis module configured to process data received from the input receiving module and provides analysis of disease based on processed data of the plurality of sensors. The system further comprise of a data retrieving module configured to retrieve a list of healthcare providersand information associated with the healthcare providers stored in the database. The software module further comprises of a selection module configured to enable the registered user to select one of the healthcare provider for consultation. Finally, the software module comprises of a communication module configured to establish a video call with the selected healthcare provider for consultation.

[0019] The present invention also provides a method for detecting diseases and providing healthcare services. The method comprising steps of: registering a user and admin on the system using software module by receiving admin details and user details respectively through the handheld device; receiving data from the plurality of sensors; processing received data and providing analysis of disease based on processed data of the plurality of sensors; retrieving a list of healthcare providers and information associated with the healthcare providers stored in a database; enabling the registered user to select one of the healthcare provider for consultation; establishing a video call with the selected healthcare provider, for consultation.DETAILED DESCRIPTION OF THE INVENTION

[0020] The following description describes various features and functions of the disclosed system and method with reference to the accompanying figure. In the figure, similar symbols identify similar components, unless context dictates otherwise. The illustrative aspects described herein are not meant to be limiting. It may be readily understood that certain aspects of the disclosed system and method can be arranged and combined in a wide variety of different configurations, all of which are contemplated herein.

[0021] Accordingly, those of ordinary skill in the art will recognize that various changes and modifications of the embodiments described herein can be made without departing from the scope of the invention. In addition, descriptions of well-known functions and constructions are omitted for clarity and conciseness.

[0022] Features that are described and / or illustrated with respect to one embodiment may be used in the same way or in a similar way in one or more other embodiments and / or in combination with or instead of the features of the other embodiments.

[0023] The terms and words used in the following description and claims are not limited to the bibliographical meanings but are merely used to enable a clear and consistent understanding ofthe invention. Accordingly, it should be apparent to those skilled in the art that the following description of exemplary embodiments of the present invention are provided for illustration purpose only and not for the purpose of limiting the invention.

[0024] It is to be understood that the singular forms “a”, “an”, and “the” include plural referents unless the context clearly dictates otherwise.

[0025] It should be emphasized that the term “comprises / comprising” when used in this specification is taken to specify the presence of stated features, integers, steps, or components but does not preclude the presence or addition of one or more other features, integers, steps, components, or groups thereof. The equations used in the specification are only for computation purpose.

[0026] Accordingly, the present invention relates to a system for providing healthcare facilities. Particularly, the present invention relates to a system for detecting diseases through a handheld device and subsequently connecting patients to a healthcare provider, thereby providing an ecosystem of healthcare services accessible in remote locations and in public transportation, such as Railways & Airplanes.

[0027] In a preferred embodiment of the present invention, a system for detecting diseases and providing healthcare services (100) comprises of a plurality of handheld device (102), and database (126) wirelessly connected to the handheld device (102) for storing data of patients.

[0028] The handheld device (102) is accessed by the patient for checking vital parameter of the body. The handheld device (102) provides a first user interface (102a) to the patients, wherein the first user interface (102a) enable the patient to log in to system (100) through user name and password. Further, the first user interface (102a) allows the patient to measure blood pressure, blood glucose level, pulse rate, heart rate, oxygen saturation level, haemoglobin, ECG, and the like. Additionally, the first user interface (102a) enable the patient to consult with remotely located expert healthcare provider, thereby providing analysis and consultation with healthcare provider for disease.

[0029] Moreover, the handheld device (102) provide second user interface (102b) for healthcare providers. The second user interface (102b) enables the healthcare providers to login into system (100) through user id and password and see the measured vital parameters of patient’s body. The second interface (102b) further allows the healthcare provider to connect with remotely located patient through the video call.

[0030] The second user interface (102b) is accessible by healthcare providers for remote patient monitoring, wherein the second user interface (102b) provides real-time alerts for critical health parameters.

[0031] In an exemplary embodiment, the first user interface (102a) and the second interface may be provided through an operating system installed in the handheld device (102), wherein the operating system may be such as, but not limited to, android, IOS, windows, Linux, and the alike.

[0032] In a preferred embodiment of the present invention, each of the plurality of handheld device (102) comprises of a touchscreen (104), a pair of camera (106) includes a front camera (106a) and a rear camera (106b)located on front and rear side of the handheld device (102) respectively, a camera scope (108) connected to the handheld device (102) through connecting wires, a plurality of sensors (110), a processor (122) integrated on the handheld device (102), a communication unit (124) to provide connectivity among the plurality of handheld devices (102), a plurality of USB ports, and auxiliary ports for connecting the handheld devices (102) with external devices, and a software module (128) installed on the handheld device (102) and operated by the processor (122).

[0033] Moreover, the handheld device (102) comprise of a modular sensor array allowing for the addition of biosensors to detect various medical conditions, wherein the modular array includes sensors for glucose monitoring, haemoglobin and respiratory rate measurement. Furthermore, the handheld device (102) comprises of a sustainable power management system and low power consumption modes to ensure extend duration of working of handheld device (102) operability in remote areas with lack of electricity. The handheld device (102) comprises of capabilities for conducting rapid analysis tests for infectious diseases such as malaria and dengue.

[0034] The touch screen (104) is located on a front side of the handheld device (102). The touch screen (104) enables a user to interact with the handheld device (102). The touch screen (104) is used to enter data into the handheld device (102). Further, the touch screen (104) is configured to display the measured data of sensors (110) on the handheld device (102).

[0035] The front camera (106a) and rear camera (106b) (dual purpose camera) are located on front and rear side of the handheld device (102) respectively. The front camera (106a) is configured to capture video of the user for consultation with a healthcare provider. The rear camera (106b) is configured to scan previous reports of the patient for sharing with remotely located healthcare provider for consultation purpose.

[0036] The handheld device (102) further comprise a camera scope (108) connected to the handheld device (102) through connecting wires. The camera scope (108) is movable camera and installed with a light source so as to provide illumination for examination inside patient’s body. The camera scope (102) enables immediate consultation with healthcare provider for complex diseases such as those affecting the ear, nose, throat, Eye and Skin with precision and efficiency. The camera scope (108) is configured to capture and share high -resolution images of the throat, eye, and ear, facilitating remote teleconsultations.

[0037] The plurality of sensors (110) is connected to the handheld device (102). The plurality of sensors (110) includes a temperature sensor (112) for measurement of temperature of patient’s body, a pulse oximeter sensor (114) for measuring blood oxygen saturation level (SPO2 level), a pulse sensor (116) for measuring pulse rate and heart rate, a plurality of ECG leads (118) for measuring heart activity, and a blood pressure sensor (120) allowing non- invasive blood pressure measurement of the patient. The plurality of sensors (110) are configured to measure vital parameters of patient’s body for analysis of disease and checking whether they are within permissible range or not.

[0038] In an exemplary embodiment, the temperature sensor (112) may be such as, but not limited to, infrared temperature sensor, a mercury temperature sensor, and the alike.

[0039] The communication unit (124) is configured to provide connectivity among the plurality of handheld devices (102) and database (126). The communication unit (124) provides connectivity through any one or combination of, Wi-Fi module, Bluetooth module, Ethernet module, and GSM / GPRS module. Further, the Wi-Fi module, Bluetooth module, Ethernet (FAN) module provides internet connectivity to the handheld device (102). Moreover, the GSM / GPRS module is configured to provide cellular connectivity to the handheld device (102) through a subscriber identity module (SIM).

[0040] In an exemplary embodiment, the handheld device (102) supports SIM of cellular technology such as, but not limited to, 2G, 3G, 4G, and 5G SIM, and the alike.

[0041] The database (126) is connected to the handheld device (102) through a wireless connection. The database (126) is configured to store data related to the patients, healthcare provider, and other users such as admin. The patient’s details stored in the database (126) are selected from a user id, password, name, age, gender, symptoms, past medical reports, and past medication history. Additionally, the healthcare provider details stored in the database (126) are selected from login id, password, name, age, gender, experience, and specialization field of practice, and the like.

[0042] The processor (122) is integrated on the handheld device (102). The processor (122) is configured to execute pre-fed instructions stored on a memory (142) integrated on the handheld device (102). Further, the processor (122) is configured to operate the software module (128) based on pre-fed instructions, wherein the software module (128) are pre-fed instructions installed on the memory (142) of each of the handheld device (102). The processor is connected with a cooler (146) to cool the system (100) and dissipate generated heat while working. Reducing temperature helps in reducing chances of damage of the system (100).

[0043] The software module (128) utilizes advanced encryption standards for data storage and transmission to ensure data integrity and security. Further, the software module (128) provides robust consent management features so as to allow patients to control access to their data. Moreover, the software module (128) enable the handheld device (102)to seamlessly integrates with existing electronic health records (HER) systems, ensuring continuity of care through efficient data sharing and thereby providing interoperability.

[0044] The software module (128) comprises of a registration module (130), an input receiving module (132), an Al based analysis module (134), a data retrieving module (136), a selection module (138), and a communication module (140).

[0045] The registration module (130) is configured to register an admin, a user, and healthcare providers on the system using the software module (128) by receiving admin details, user details, and healthcare provider details respectively through the handheld device (102). The user details are selected from a name, age, gender, symptoms, past medical reports, past medication history. The healthcare provider details are selected from login id, password, name, age, gender, experience, and specialization field, and the like.

[0046] The input receiving module (132) enable the users to login to the system (100) through entering user id and user password. The input receiving module (132) verifies the user name and user password with the database (126). Upon successful authentication, the input receiving module (132) enable user to log in to the system (100). Further, the input receiving module (132) is configured to display separate user interface for patients and healthcare providers i.e. the first user interface (102a) for patients and the second user interface (102b) for healthcare providers. Additionally, the input receiving module (132) is configured to receive data from the plurality of sensors (110) and transmit data to the analysis module (134).

[0047] The Al based analysis module (134) is configured to process data received from the input receiving module (132) and provide analysis of disease based on processing of data of the plurality of sensors (110). The analysis module (134) display the received data of the plurality of sensors (110) on the touch screen (104). The analysis module (134) is further configured to store data received from the plurality of sensors (110) on the database (126) for record purpose. Additionally, the analysis module (134) alerts the user and transmits an alert signal to the data retrieving module (136), upon detecting any of the received parameter of sensor (110) above the safe threshold value.

[0048] Further, the Al based analysis module (134) employs advanced Al algorithms for realtime analysis of data of the plurality of sensors (110), providing predictive analysis and personalised healthcare recommendations. Moreover, the Al based analysis module (134) isconfigured to improve analysis accuracy through machine learning models that are continuously trained on extensive datasets, enabling the early detection of conditions such as diabetes, hypertension, tuberculosis, anaemia, cardiac diseases, and the alike. The Al based analysis module (134) comprises of big data analytics and collaborative care platform functionalities so as to enable multidisciplinary consultation approaches and holistic patient care.

[0049] The data retrieving module (136) is configured to retrieve a list of healthcare providers and information associated with the healthcare providers stored in the database (126), upon receiving the alert signal from the analysis module (134). The data retrieving module (136) is further configured to sort the list of healthcare providers based on experience and ratings. The data retrieving module (136) displays the retrieved list on touch screen (104). The selection module (138) is configured to enable the registered user to select one of the healthcare providers for consultation.

[0050] The communication module (140) is configured to establish a high definition video call with the selected healthcare provider for consultation. The communication module (140) further provides an interface for connecting a Haemoglobin meter and a glucometer to the handheld device (102) through the USB port (144) or auxiliary port (146) so as to enable the handheld device (102) to measure haemoglobin and blood glucose level. Additionally, the communication module (140) enable the healthcare provider to see the data of plurality of sensors (110) and analysis module (134) through the handheld device (102) of healthcare provider. Moreover, the communication module (140) terminate the call upon successful completion of consultation. The communication module (140) is configured to provide automated alerts to emergency services and pre-fed contacts, upon detecting health parameters in unsafe range.

[0051] In an exemplary embodiment, the communication module (140) supports both synchronous and asynchronous telemedicine consultations, such as, but not limited to, realtime video calls, delayed responses through text, audio, video messages, and the alike.

[0052] In an embodiment, the present invention also provides a method for detecting diseases and providing healthcare services, comprises the following steps :-• registering users, healthcare providers and admin on the system (100) using software module (128) by receiving admin details, user details and healthcare providers details respectively through the handheld device (102);• logging into the system (100) by the patient through the first interface (102a) upon successful authentication of user id and password;• measuring of vital parameters of patients body such as blood pressure, heart rate, pulse rate, blood oxygen saturation level, ECG, blood glucose level, and haemoglobin through the plurality of sensors (110);• receiving data from the plurality of sensors (110) by the input receiving module (132);• processing received data and providing analysis of disease based on processing of data of the plurality of sensors (110) by the analysis module (134);• retrieving a list of healthcare providers and information associated with the healthcare providers stored in a database (126) by the data retrieving module (136);• enabling the registered user to select one of the healthcare provider for consultation through the selection module (138);• establishing a video call with the selected healthcare provider, for consultation through the communication module (140);• showing the measured data to the healthcare provider through the second interface (102b) for consultation by the healthcare provider to the patient;• termination of call upon successful completion of consultation;

[0053] The advantages of the present invention are discussed herein:• The present invention provides a healthcare system that is cost-effective, easy to use, and simple.• The present invention eliminates the gap in Healthcare sector by early analysis & treating some of the prevailing diseases such as Diabetes, Hypertension, Tuberculosis, Anaemia, and Cardiac diseases in rural areas.• The present invention provides a single device equipped with the comprehensive features necessary to analyse disease and also ecosystem to treat remote patients effectively.• The present invention provides promptly analysis and initiate early consultation with healthcare provider for cardiac diseases in railway and plane passengers by consulting specialist consultants, enabling immediate life-saving care during emergencies.• The present invention bridges the gap between rural patients and urban specialists and experienced medical professionals, thereby improving healthcare access for those in remote or underserved areas.• The present invention provides a device that contributes to cost reduction in healthcare by eliminating the necessity for costly travel. This helps in minimizing healthcare expenses for rural patients, making healthcare more affordable and accessible.• Patients in rural areas can go to their local village doctor (where this device (102) is installed), the village doctor will connect this device and all the basic parameters required for initial analysis will be recorded and then through video call they can connect to top consultants of URBAN area and hence the rural people are not required to travel so far for most of the critical diseases.• If any cardiac arrest or any kind if emergency arises in running train previously the patients have to wait for hours to reach to any big junction only then medical emergency support can be given to that patient. Also the patient need to get down the train to get the initial analysis done and this will cause delays to other passengers as well. But now with the help of the handheld device (102) ECG and all the other initial analysis can be done on running train and that can be shared with top consultants who will provide the emergency prescription so that consultation with healthcare provider is given without affecting the travel of other passengers.• If any cardiac arrest or any kind if emergency arises in flying plane previously the patients have to take an emergency landing to any new country / city for getting the initial analysis such as ECG, SPO2 etc., which will result in many complications to the patient in an unknown place as well as to other passengers due to delays on account of emergency landing. But now with the help of the handheld device (102) ECG and all the other initial analysis can be done in a flying plane thousands of miles above in the air with the help of Wi-Fi / satellite network available in the plane for emergency purposes and subsequently,reports can be shared with top consultants who will provide the emergency prescription so that consultation with healthcare provider is given without affecting the travel of other passengers.• If any cardiac arrest or any kind if emergency arises while travelling through waterway, previously the patients have to wait till the ship reaches to any port of country for getting the initial analysis such as ECG, SPO2 etc., which will result in many complications to the patient. But now with the help of the handheld device (102) ECG and all the other initial analysis can be done in a ship thousands of miles away from the mainland with the help of satellite network available in the ship for emergency purposes and subsequently, reports can be shared with top consultants who will provide the emergency prescription so that consultation with healthcare provider is given without affecting the travel of other passengers.

[0054] While this invention has been described in connection with what is presently considered to be the most practical and preferred embodiment, it is to be understood that the invention is not limited to the disclosed embodiments, but, on the contrary, is intended to cover various modifications and equivalent arrangements included within the scope of the appended claims.

Claims

CLAIMS:

1. A system (100) for remote monitoring of health parameters and providing healthcare services, comprising:• a plurality of handheld devices (102), comprising: o a touchscreen screen (104); o a pair of camera (106) located on front and rear side of the handheld device (102); o a camera scope (108) connected through wire to the handheld device (102); o a plurality of sensors (110), comprising: a temperature sensor (112); a pulse oximeter sensor (114); a pulse sensor (116); a plurality of ECG leads (118); and a blood pressure sensor (120); o a processor (122) integrated on the handheld device (102); o a communication unit (124) integrated on the handheld device (102) for providing connectivity among the plurality of handheld devices (102); o a software module (128) installed on the handheld device (102), comprising:■ a registration module (130) for registering an admin and a user on the system using the software module (128) by receiving admin details and user details respectively through the handheld device (102);■ an input receiving module (132) for receiving data from the plurality of sensors (110);■ an analysis module (134) for processing the data received from the input receiving module (132) and analyzing diseases based on the processed data of the plurality of sensors (110);■ a data retrieving module ( 136) for retrieving a list of information associated with the healthcare providers stored in a database (126);■ a selection module (138) for enabling the registered user to select one of the healthcare providers for consultation; and■ a communication module (140) for establishing a video call with the selected healthcare provider, for consultation,• the database (126) wirelessly connected to the handheld device (102), for storing details of users.

2. The system (100) as claimed in claim 1, wherein the camera (106) is configured to scan previous reports, if any, for examination by healthcare provider.

3. The system (100) as claimed in claim 1, wherein the camera scope (108) is movable camera and installed with a light source so as to provide illumination for examination inside patient’s body.

4. The system (100) as claimed in claim 1, wherein the handheld device (102) is having a patient user interface (102a), and a healthcare provider user interface (102b).

5. The system (100) as claimed in claim 1, wherein the user login to the system (100) through a user id and password.

6. The system (100) as claimed in claim 1, wherein the user details are selected from a user name, age, gender, symptoms, past medical reports, past medication history.

7. The system (100) as claimed in claim 1, wherein the communication unit (124) provides connectivity through any one or combination of, Wi-Fi module, Bluetooth module, Ethernet module, and GSM / GPRS module.

8. The system (100) as claimed in claim 1, wherein the system (100) comprises a cooler (146) connected to the processor for dissipating heat and cooling the system (100).

9. The system (100) as claimed in claim 1, wherein the system (100) is having an interfacing module (146), for interfacing a Hemoglobin meter and a glucometer for analysis purpose.

10. A method for remote monitoring of health parameters and providing healthcare services using the system as claimed in claim 1, comprising steps:• registering users, healthcare providers and admin on the system (100) using software module (128) by receiving admin details, user details, and healthcare providers details respectively through the handheld device (102);• logging into the system (100) by the patient through the first interface (102a) upon successful authentication of user id and password;• enabling the healthcare providers to login into system (100) through user id and password on the second user interface (102b),• scanning previous reports of the patient for sharing with remotely located healthcare provider using the rear camera (106b);• measuring of vital parameters of patients body such as blood pressure, heart rate, pulse rate, blood oxygen saturation level, ECG, blood glucose level, and haemoglobin through the plurality of sensors (110);• receiving data from the plurality of sensors (110) by the input receiving module (132);• processing received data and providing analysis of disease based on the processed data of the plurality of sensors (110) by the Al based analysis module (134);• alerting the user by the Al based analysis module (134) and transmitting an alert signal to the data retrieving module (136), upon detecting any of the received parameter of sensor (110) above the safe threshold value;• retrieving a list of healthcare providers and information associated with the healthcare providers stored in a database (126) by the data retrieving module (136) upon receiving the alert signal from the analysis module (134);• enabling the registered user to select one of the healthcare provider for consultation through the selection module (138) based on the alert signal;• enabling the healthcare providers to see the measured vital parameters of patient’s body• establishing a video call using the front camera (106a) with the selected healthcare provider for consultation through the communication module (140);• showing the measured data to the healthcare provider through the second interface (102b) for consultation by the healthcare provider to the patient;• providing illumination for examination inside patient’s body using camera scope (108);• providing prescription during video call or after terminating the call upon successful completion of consultation using the communication module (140); andproviding automated alerts to emergency services and pre-fed contacts, upon detecting health parameters in unsafe range using communication module (140).

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