Description:FIELD OF THE INVENTION

[0001] The present invention relates to a health monitoring device for early detection and management of respiratory infections that is capable of monitoring the health of the user for detecting and managing the respiratory infections and releasing the therapeutic warm steam for respiratory relief. The present invention is also capable of monitoring time and generating reminders aligned with preset schedules thereby ensuring users adhere to medication routines while preventing skipped doses.

BACKGROUND OF THE INVENTION

[0002] Early detection and management of respiratory infections are critical for timely intervention, improved health outcomes, and cost-effective care. Identifying infections promptly allows for targeted treatments, slowing disease progression and reducing severe complications like respiratory failure or sepsis. Proactive measures, such as rapid diagnostic tools and routine monitoring, enhance lung function, minimize unnecessary antibiotic use, and curb transmission through early isolation. For high-risk groups, including the elderly and immunocompromised, early action prevents rapid health deterioration, while interventions like steam therapy offer immediate symptom relief. Overall, prioritizing early detection reduces healthcare burdens, safeguards vulnerable populations, and strengthens community health resilience.

[0003] Traditional health monitoring for early detection and management of respiratory infections relies on clinical evaluation, medical history, and physical examination, often using stethoscopes to assess lung sounds and respiratory rates. Laboratory methods include sputum tests, throat or nasal swabs, blood tests, and chest X-rays to identify pathogens and assess severity. Viral and bacterial cultures, immunofluorescence assays, and serological tests are also used, but these approaches are time-consuming, require trained personnel, and lack rapid turnaround. Traditional methods for detecting and managing respiratory infections have several drawbacks. They are often time-consuming, with viral and bacterial cultures taking days or even weeks for results, delaying treatment. Many techniques require skilled personnel, specialized equipment, and strict laboratory conditions, limiting accessibility and increasing costs. Sensitivity is low for certain pathogens, risking false negatives, and some viruses resist culturing.

[0004] US8591430B2 discloses a respiratory monitoring system. A measuring system is provided that includes, (i) an adherent device configured to be coupled to a patient, the adherent device including a plurality of sensors that monitor respiratory status, at least one of the sensors configured to monitor the patient's respiration, and (ii) a wireless communication device coupled to the plurality of sensors and configured to transfer patient data directly or indirectly from the plurality of sensors to a remote monitoring system. A remote monitoring system is coupled to the wireless communication device.

[0005] US20110092779A1 discloses Devices, systems and methods are disclosed which relate to remotely monitoring the health of an individual. The individual wears a health monitoring device, with an attached strap, capable of sensing characteristics of the individual. These characteristics may include voice level and tone, movements, blood pressure, temperature, etc. The device allows individuals to constantly monitor their health without having to physically visit a doctor or other health care professional. Wireless communication, for instance with an Internet Protocol Television (IPTV) set-top box, allows measurements to be made and evaluated by a ‘computerized’ healthcare service provider. For a more accurate evaluation, measurements are sent over the INTERNET to a service. The device communicates with services in order to diagnose the individual based upon the characteristics.

[0006] Conventionally, many devices have been developed for monitoring the health of the user for detecting and managing the respiratory infections but they lack in monitoring time and generating reminders aligned with preset schedules for ensuring users adhere to medication routines while preventing skipped doses. Additionally, they do not offer the capability to detect the user’s mouth area for collecting sputum during coughing or sneezing for identifying early signs of respiratory infections, raise awareness, and enable timely treatment.

[0007] In order to overcome the aforementioned drawbacks, there exists a need in the existing art to develop a device that requires to be capable of monitoring time and generating reminders aligned with preset medication schedules to ensure adherence and prevent missed doses. Additionally, the device must detect the user’s mouth area to collect sputum during coughing or sneezing, enabling early identification of respiratory infections to enhance awareness and facilitate timely treatment.

OBJECTS OF THE INVENTION

[0008] The principal object of the present invention is to overcome the disadvantages of the prior art.

[0009] An object of the present invention is to develop a device that is capable of monitoring the health of the user for detecting and managing the respiratory infections and releasing the therapeutic warm steam for respiratory relief, enhancing the user’s comfort.

[0010] Another object of the present invention is to develop a device that is capable of monitoring time and generating reminders aligned with preset schedules, ensuring users adhere to medication routines while preventing skipped doses.

[0011] Yet another object of the present invention is to develop a device that is capable of detecting the user’s mouth area for collecting sputum during coughing or sneezing for identifying early signs of respiratory infections to enhance awareness and enable timely treatment.

[0012] The foregoing and other objects, features, and advantages of the present invention will become readily apparent upon further review of the following detailed description of the preferred embodiment as illustrated in the accompanying drawings.

SUMMARY OF THE INVENTION

[0013] The present invention relates to a health monitoring device for early detection and management of respiratory infections that is capable of detecting the user’s mouth area for collecting sputum during coughing or sneezing for identifying early signs of respiratory infections to enhance awareness and enable timely treatment.

[0014] According to an embodiment of the present invention, a health monitoring device for early detection and management of respiratory infections is disclosed comprising of a wearable body developed to be worn by a user over chest and torso portion, a pair of straps are attached with the body for securing the body around torso portion of the user, multiple pressure sensors installed on the body and straps for detecting pressure applied by the body and straps on the chest and torso portion, a pair of motorized rollers provided on lateral sides of the body and coiled with the straps for rotating on its axis to properly fit the body and straps in order to secure the body on the torso portion of user, a user-interface inbuilt in a computing unit accessed by a caretaker of the user to input personal and medical information of the user as input into a user profile of the user created in database integrated with the microcontroller, a health monitoring module is integrated with inner portion of the body for early detection and continuous monitoring of respiratory infections in user along with allowing the caretaker to remotely track vital health parameters of the user, a hemi-spherical shaped member attached with body via an extendable link that is actuated by the microcontroller upon detecting early signs of respiratory infections to position the member in proximity to user’s mouth portion for sputum collection during a coughing or sneezing event, a sensing module is integrated within the member to detect presence of respiratory infections associated pathogen and monitor microbial growth, pH level variations, and colorimetric changes within the mucus sample.

[0015] According to another embodiment of the present invention, the device disclosed herein employs plurality of iris diaphragms positioned on interior frontal and rear surfaces of the body configured to selectively release therapeutic warm steam for respiratory relief, one humidifier is integrated within the body and coupled with an integrated temperature sensor is connected to the iris diaphragms to emit temperature-controlled steam, a medicine storage chamber embedded within the body to hold one or more doses of prescribed medications including antibiotics, antipyretics, or analgesics, a real time clock is integrated with the microcontroller for monitoring and maintaining a real time track, a speaker integrated on the body to produce audio reminder for the user to intake the user’s medicine, a rubber casing is arranged around a peripheral edge of the member to prevent escape of mucus and ensure a sealed environment for sample analysis, an artificial intelligence-based imaging unit is installed on the body and paired with a processor to capture multiple images of surroundings to detect mouth portion of the user and a battery is associated with the device for supplying power to electrical and electronically operated components.

[0016] While the invention has been described and shown with particular reference to the preferred embodiment, it will be apparent that variations might be possible that would fall within the scope of the present invention.

BRIEF DESCRIPTION OF THE DRAWINGS

[0017] These and other features, aspects, and advantages of the present invention will become better understood with regard to the following description, appended claims, and accompanying drawings where:
Figure 1 illustrates an isometric view of a health monitoring device for early detection and management of respiratory infections.

DETAILED DESCRIPTION OF THE INVENTION

[0018] The following description includes the preferred best mode of one embodiment of the present invention. It will be clear from this description of the invention that the invention is not limited to these illustrated embodiments but that the invention also includes a variety of modifications and embodiments thereto. Therefore, the present description should be seen as illustrative and not limiting. While the invention is susceptible to various modifications and alternative constructions, it should be understood, that there is no intention to limit the invention to the specific form disclosed, but, on the contrary, the invention is to cover all modifications, alternative constructions, and equivalents falling within the spirit and scope of the invention as defined in the claims.

[0019] In any embodiment described herein, the open-ended terms "comprising," "comprises,” and the like (which are synonymous with "including," "having” and "characterized by") may be replaced by the respective partially closed phrases "consisting essentially of," consists essentially of," and the like or the respective closed phrases "consisting of," "consists of, the like.

[0020] As used herein, the singular forms “a,” “an,” and “the” designate both the singular and the plural, unless expressly stated to designate the singular only.

[0021] The present invention relates to a health monitoring device for early detection and management of respiratory infections that is capable of monitoring time and generating reminders aligned with preset schedules, ensuring users adhere to medication routines while preventing skipped doses.

[0022] Referring to Figure 1, an isometric view of a health monitoring device for early detection and management of respiratory infections is illustrated, comprising a wearable body 101 developed to be worn by a user, a pair of straps 102 are attached with the body 101, a pair of motorized rollers 103 provided on lateral sides of the body 101 and coiled with the straps 102, a hemi-spherical shaped member 104 attached with body 101 via an extendable link 105, plurality of iris diaphragms 106, one humidifier 107 is integrated within the body 101, a medicine storage chamber 108 embedded within the body 101, a speaker 109 integrated on the body 101, an artificial intelligence-based imaging unit 110 is installed on the body 101.

[0023] The device disclosed herein employs a wearable body 101. This body 101 developed to be worn by a user over chest and torso portion. A pair of straps 102 are attached with the body 101 for securing the body 101 around torso portion of the user. The straps 102 are used for maintaining a proper fit of the wearable body 101 into the user’s body around the torso portion.

[0024] For activating the device, the user needs to press a push button which is arranged on the body 101 which in turn activates all the related components for performing the desired task. After pressing the button, a closed electrical circuit is formed and current starts to flow that powers an inbuilt microcontroller to allow all the linked components to perform their respective task upon actuation.

[0025] For detecting pressure applied by the body 101 and straps 102 on the chest and torso portion, multiple pressure sensors are configured with the body 101 and straps 102. The pressure sensor operates by converting the mechanical force exerted by the user’s body and torso into electrical signals. Typically, these sensors contain a flexible diaphragm that deforms proportionally when pressure is applied by the body 101 or straps 102. This deformation alters the physical properties, such as resistance of the sensor’s internal elements. In a strain gauge-based sensor, the deformation changes the resistance in a Wheatstone bridge circuit, generating a small electrical signal proportional to the applied pressure. This signal is then amplified, filtered, and converted into a format suitable for monitoring and analysis, allowing to continuously track how much force is being applied to specific areas of the chest and torso.

[0026] Based on the detected pressure, the microcontroller actuates a pair of motorized rollers 103 provided on lateral sides of the body 101 and coiled with the straps 102 for rotating on the axis to properly fit the body 101 and straps 102 in order to secure the body 101 on the torso portion of user. The motorized rollers 103 operate by receiving signals from the microcontroller, which processes pressure sensor data to determine optimal tension. When activated, the rollers 103 rotate along their axis, either coiling or uncoiling the attached straps 102. This movement adjusts the strap 102 length dynamically, tightening or loosening the body’s fit around the torso to maintain secure placement while minimizing excessive pressure. The rollers 103 likely employ compact motors with precise torque control, ensuring smooth adjustments without abrupt movements.

[0027] A user-interface inbuilt in a computing unit that is accessed by a caretaker of the user to input personal and medical information of the user as input into a user profile of the user, created in database integrated with the microcontroller. The user input commands through the keyboard of the computing unit that is transmitted to the microcontroller through a communication module. The communication module includes, but not limited to Wi-Fi (Wireless Fidelity) module, Bluetooth module, GSM (Global System for Mobile Communication) module. The Wi-Fi module contains transmitters and receivers that use radio frequency signals to transmit data wirelessly to the microcontroller. The wireless module typically includes components such as antennas, amplifiers, and processors to facilitate communication and further connected to networks such as Wi-Fi, Bluetooth, or cellular networks, allowing devices to exchange information over short or long distances.

[0028] For early detection and continuous monitoring of respiratory infections in user, a health monitoring module is integrated with inner portion of the body 101. The health monitoring module comprises of a Fiber Bragg Grating (FBG) sensor for detecting body temperature and blood pressure, a pulse oximeter for monitoring oxygen saturation levels, a respiratory rate sensor for analyzing breathing patterns, impedance pneumography units for evaluating lung air movement, and an acoustic sensor for detecting breath sound anomalies.

[0029] The Fiber Bragg Grating (FBG) sensor measures body temperature by detecting shifts in the wavelength of light reflected from periodic gratings inscribed within an optical fiber. As the temperature changes, the fiber expands or contracts, altering the grating period and the effective refractive index, which results in a measurable shift in the Bragg wavelength. This shift is highly linear and precise, allowing the FBG sensor to provide accurate, real-time temperature readings. For blood pressure monitoring, the FBG sensor detects the minute mechanical strains caused by arterial pulsations beneath the skin.

[0030] When blood pressure fluctuates, it induces small deformations in the tissue where the FBG is embedded. These mechanical strains change the spacing of the fiber’s Bragg gratings, leading to corresponding shifts in the reflected wavelength. By analyzing these dynamic wavelength changes, the systolic and diastolic blood pressure values is inferred. The FBG’s high sensitivity to strain, immunity to electromagnetic interference, and capability for real-time, non-invasive measurement make it an effective tool for continuous blood pressure monitoring in wearable applications.

[0031] The pulse oximeter is a non-invasive optical sensor that measures oxygen saturation (SpO₂) in the blood by emitting light at two different wavelengths, typically red and infrared, through a vascular area such as a fingertip. The device detects the differential absorption of these wavelengths by oxygenated and deoxygenated hemoglobin. By analyzing the ratio of absorbed light, the pulse oximeter calculates the percentage of oxygen saturation and also provides pulse rate information. The respiratory rate sensor in a wearable health module typically uses piezoelectric, strain gauge, or optical technologies to detect the expansion and contraction of the chest during breathing. The sensor continuously tracks these mechanical changes, allowing to analyze breathing patterns, detect irregularities, and calculate breaths per minute for respiratory health assessment.

[0032] The Impedance pneumography units evaluate lung air movement by measuring the electrical impedance across the chest. As the user breathes, the volume of air in the lungs changes, altering the electrical resistance between electrodes placed on the skin. The device applies a small, safe alternating current and records the resulting voltage changes, which correspond to the respiratory cycle. This technique provides continuous, non-invasive monitoring of tidal volume, respiratory rate, and can help detect apneas or other breathing disorders.

[0033] The acoustic sensor in the health monitoring module detects breath sound anomalies by capturing and analyzing the sounds produced during respiration. Placed on the chest or near the airway, the sensor records audio signals that are then processed to identify normal breath sounds as well as abnormal patterns such as wheezing, crackles, or stridor. Advanced algorithms can distinguish between different types of respiratory sounds, aiding in the early detection of conditions like asthma, pneumonia, or airway obstructions. This non-invasive approach enhances diagnostic capability for respiratory health monitoring. This allows the caretaker to remotely track the vital health parameters of the user.

[0034] Upon detecting early signs of respiratory infections, a hemi-spherical shaped member 104 that is attached with body 101 via an extendable link 105 is actuated by the microcontroller. The member 104 is positioned in proximity to user’s mouth portion for sputum collection during a coughing or sneezing event. The extendible link 105 operates using a telescopic method that allows the link 105 to change length dynamically while maintaining structural integrity. The link 105 typically consists of interlocking segments that slide within each other. This link 105 utilizes the pneumatic unit for the operation. The pneumatic unit for extension and retraction operates using compressed air to drive a piston inside a cylinder. When air is supplied to one side of the piston, it creates pressure that pushes the piston rod outward, causing extension. To retract, air is supplied to the opposite side while the initial chamber is vented, pulling the piston rod back.

[0035] For preventing the escape of mucus and ensuring a sealed environment for sample analysis, a rubber casing is arranged around a peripheral edge of the member 104. A sensing module is configured within the member 104 to detect presence of respiratory infections associated pathogen and monitor microbial growth, pH level variations and colorimetric changes within the mucus sample. The sensing module comprises of a biosensor, at least one optical sensor and at least one fluorescence sensor. The biosensor in the sensing module detects respiratory infection-associated pathogens and monitors microbial growth using a biological recognition element, such as antibodies, that binds specifically to target pathogens within the mucus sample. This interaction generates a measurable signal through a transducer, translating molecular binding events into quantifiable data. The electrochemical biosensor detects impedance changes upon pathogen binding.

[0036] The optical sensor detects colorimetric changes and pH variations by analyzing light absorption of the mucus sample. Equipped with a light source and photodetector, it quantifies shifts in color intensity caused by microbial activity or biochemical reactions, providing real-time insights into the sample’s chemical environment. The fluorescence sensor employs fluorescent dyes or markers that emit specific wavelengths of light upon excitation when bound to pathogens or reactive microbial byproducts. By capturing and quantifying this emitted light, the sensor achieves high sensitivity in detecting low-concentration targets, enabling multiplexed analysis for comprehensive monitoring of respiratory infections and associated biochemical changes.

[0037] The microcontroller analyzes the collected data from the health monitoring module and sending module to generate a comprehensive respiratory infections severity score, further transmitting the severity score to the computing unit for real-time assessment and generate alerts for proper medication. Plurality of iris diaphragms 106 are positioned on interior frontal and rear surfaces of the body 101, configured to selectively release therapeutic warm steam for respiratory relief. The iris diaphragm 106 operates using a series of interlinked, overlapping blades that open and close in a circular motion. The motor in the iris diaphragm 106 drives a mechanical linkage that synchronously moves the blades apart, creating an opening to selectively release therapeutic warm steam for respiratory relief.

[0038] At least one humidifier 107 is integrated within the body 101 and coupled with an integrated temperature sensor that is connected to the iris diaphragms 106, which is adapted to emit temperature-controlled steam. The temperature sensor detects the temperature of the steam by measuring the heat emitted from the steam and converting the heat into an electrical signal. The thermistor changes the resistance based on temperature variations. The sensor continuously monitors the temperature changes and transmits the data to the microcontroller, allowing for real-time tracking of the temperature of the steam and emitting the temperature-controlled steam. A medicine storage chamber 108 is embedded within the body 101 to hold one or more doses of prescribed medications including antibiotics, antipyretics, or analgesics.

[0039] For monitoring and maintaining a real time track, a real time clock is integrated with the microcontroller. The real time clock (RTC) integrated with the microcontroller acts as a dedicated timekeeping assistance, maintaining accurate tracking of time. The RTC typically uses a crystal oscillator as its time base, allowing to increment internal registers that store time and date information. Even when the main device is powered off, the RTC continues to operate using a small backup battery, ensuring uninterrupted timekeeping. The microcontroller communicates with the RTC via serial protocols, reading or setting time and date values as needed for real-time monitoring and event logging.

[0040] In case the monitored time matches with a pre-fed time scheduled for medicine intake for the user, the microcontroller actuates a speaker 109 that is mounted on the body 101 to produce audio reminder for the user to intake the user’s medicine. The speaker 109 works by converting the electrical signal into the audio signal. The speaker 109 consists of a cone known as a diaphragm attached to a coil-shaped wire placed between two magnets. When the electric signal is passed through the voice coil, a varying magnetic field is generated by the coil that interacts with the magnet causing the diaphragm to move back and forth. The movement of the diaphragm pushes and pulls air creating sound waves just like the electrical signal received and used to notify the user to intake the medicine.

[0041] An artificial intelligence-based imaging unit 110 is installed on the body 101 and paired with a processor to capture multiple images of surroundings to detect mouth portion of the user. The imaging unit 110 comprises of an image capturing arrangement including a set of lenses that captures multiple images in vicinity of the body 101, and the captured images are stored within a memory of the imaging unit 110 in form of an optical data. The imaging unit 110 also comprises of the processor that is integrated with artificial intelligence protocols, such that the processor processes the optical data and extracts the required data from the captured images. The extracted data is further converted into digital pulses and bits and are further transmitted to the microcontroller. The microcontroller processes the received data and detects the mouth portion of the user. Accordingly, the microcontroller regulates actuation of the link 105 to position the member 104 in proximity to user’s mouth portion.

[0042] For supplying power to electrical and electronically operated components, a battery is associated with the device. The battery powers electrical and electronic components by converting stored chemical energy into electrical energy. The battery’s terminals provide a voltage difference, allowing current to flow through circuits that supplies consistent energy to actuate and operate components like motors, sensors and microcontrollers, ensuring seamless functionality.

[0043] The present invention works best in the following manner, where the wearable body 101 is worn by the user over chest and torso portion. The pair of straps 102 is for securing the body 101 around torso portion of the user. Multiple pressure sensors for detecting pressure applied by the body 101 and straps 102 on the chest and torso portion. The pair of motorized rollers 103 is coiled with the straps 102 for rotating on the axis to properly fit the body 101 and straps 102 in order to secure the body 101 on the torso portion of user. The user-interface is inbuilt in the computing unit accessed by the caretaker of the user to input personal and medical information of the user as input into the user profile of the user created in database integrated with the microcontroller. The health monitoring module is for early detection and continuous monitoring of respiratory infections in user along with allowing the caretaker to remotely track vital health parameters of the user. The health monitoring module comprises of the Fiber Bragg Grating (FBG) sensor for detecting body temperature and blood pressure, the pulse oximeter for monitoring oxygen saturation levels, the respiratory rate sensor for analyzing breathing patterns, impedance pneumography units for evaluating lung air movement, and the acoustic sensor for detecting breath sound anomalies. The hemi-spherical shaped member 104 is attached with body 101 via the extendable link 105 that is actuated by the microcontroller upon detecting early signs of respiratory infections to position the member 104 in proximity to user’s mouth portion for sputum collection during the coughing or sneezing event.

[0044] In continuation, the sensing module detects the presence of respiratory infections associated the pathogen and monitors microbial growth, pH level variations, and colorimetric changes within the mucus sample. The microcontroller analyzes the collected data from the health monitoring module and sending module to generate the comprehensive respiratory infections severity score further transmitting the severity score to the computing unit for real-time assessment and generate alerts for proper medication. The rubber casing to prevent escape of mucus and ensure the sealed environment for sample analysis. The sensing module comprises of the biosensor, at least one optical sensor and at least one fluorescence sensor. The plurality of iris diaphragms 106 to selectively release therapeutic warm steam for respiratory relief where at least one humidifier 107 is integrated within the body 101 and coupled with the integrated temperature sensor is connected to the iris diaphragms 106 to emit temperature-controlled steam. The medicine storage chamber 108 to hold one or more doses of prescribed medications including antibiotics, antipyretics, or analgesics where the real time clock is integrated with the microcontroller for monitoring and maintaining a real time track and in case the monitored time matches with a pre-fed time scheduled for medicine intake for the user. The speaker 109 to produce audio reminder for the user to intake the user’s medicine. The artificial intelligence-based imaging unit 110 to detect the mouth portion of the user and accordingly the microcontroller regulates actuation of the link 105 to position the member 104 in proximity to user’s mouth portion.

[0045] Although the field of the invention has been described herein with limited reference to specific embodiments, this description is not meant to be construed in a limiting sense. Various modifications of the disclosed embodiments, as well as alternate embodiments of the invention, will become apparent to persons skilled in the art upon reference to the description of the invention. , Claims:1) A health monitoring device for early detection and management of respiratory infections, comprising:

i) a wearable body 101 is developed to be worn by a user over chest and torso portion, wherein a pair of straps 102 are attached with said body 101 for securing said body 101 around torso portion of said user;
ii) multiple pressure sensors are installed on said body 101 and straps 102 for detecting pressure applied by said body 101 and straps 102 on said chest and torso portion, respectively, wherein based on said detected pressure, an inbuilt microcontroller actuates a pair of motorized rollers 103 provided on lateral sides of said body 101 and coiled with said straps 102 for rotating on its axis to properly fit said body 101 and straps 102 in order to secure said body 101 on said torso portion of user;
iii) a user-interface is inbuilt in a computing unit accessed by a caretaker of said user to input personal and medical information of said user as input into a user profile of said user, created in database integrated with said microcontroller, wherein a health monitoring module is integrated with inner portion of the body 101 for early detection and continuous monitoring of respiratory infections in user, along with allowing said caretaker to remotely track vital health parameters of said user;
iv) a hemi-spherical shaped member 104 is attached with body 101 via an extendable link 105 that is actuated by said microcontroller upon detecting early signs of respiratory infections to position said member 104 in proximity to user’s mouth portion for sputum collection during a coughing or sneezing event, wherein a sensing module is integrated within said member 104 to detect presence of respiratory infections associated pathogen and monitor microbial growth, pH level variations, and colorimetric changes within the mucus sample;
v) said microcontroller analyzes the collected data from the health monitoring module and sending module to generate a comprehensive respiratory infections severity score, further transmitting the severity score to said computing unit for real-time assessment and generate alerts for proper medication;
vi) plurality of iris diaphragms 106 positioned on interior frontal and rear surfaces of the body 101, is configured to selectively release therapeutic warm steam for respiratory relief, wherein at least one humidifier 107 is integrated within the body 101 and coupled with an integrated temperature sensor is connected to the iris diaphragms 106, adapted to emit temperature-controlled steam; and
vii) a medicine storage chamber 108 is embedded within the body 101 to hold one or more doses of prescribed medications including antibiotics, antipyretics, or analgesics, wherein a real time clock is integrated with said microcontroller for monitoring and maintaining a real time track and in case said monitored time matches with a pre-fed time scheduled for medicine intake for said user, said microcontroller actuates a speaker 109 integrated on said body 101 to produce audio reminder for said user to intake said user’s medicine.

2) The device as claimed in claim 1, wherein said health monitoring module comprises of a Fiber Bragg Grating (FBG) sensor for detecting body temperature and blood pressure, a pulse oximeter for monitoring oxygen saturation levels, a respiratory rate sensor for analyzing breathing patterns, impedance pneumography units for evaluating lung air movement, and an acoustic sensor for detecting breath sound anomalies.

3) The device as claimed in claim 1, wherein a rubber casing is arranged around a peripheral edge of the member 104 to prevent escape of mucus and ensure a sealed environment for sample analysis.

4) The device as claimed in claim 1, wherein said sensing module comprises of a biosensor, atleast one optical sensor and atleast one fluorescence sensor.

5) The device as claimed in claim 1, wherein an artificial intelligence-based imaging unit 110 is installed on the body 101 and paired with a processor to capture multiple images of surroundings, respectively, to detect mouth portion of said user, and accordingly said microcontroller regulates actuation of the link 105 to position said member 104 in proximity to user’s mouth portion.

6) The device as claimed in claim 1, wherein a battery is associated with said device for supplying power to electrical and electronically operated components associated with said device.