Description:FIELD OF THE INVENTION

[0001] The present invention relates to a weather response protection assistive device for enhanced comfort that is capable of enhancing comfort that automatically adjusts to environmental and user-specific conditions, thereby providing optimal fit, support, and protection from weather elements, temperature fluctuations, and discomfort by detecting changes in body dimensions, sweat, muscle strain, and external factors, while ensuring comfort and safety in real-time.

BACKGROUND OF THE INVENTION

[0002] Weather protection is required to ensure user comfort, safety, and well-being in changing environmental conditions. Exposure to rain, extreme temperatures, wind, dust, and harmful UV rays leads to discomfort or health issues. Responsive protection helps maintain ideal body conditions, prevents exposure-related problems, and enhances overall user experience in outdoor settings. Problems associated with weather response protection include delayed or inaccurate detection of environmental changes, lack of adaptability to individual user needs, limited protection against multiple weather elements simultaneously, and discomfort caused by bulky or non-breathable materials. Inefficient response means lead to user discomfort, reduced effectiveness, and increased risk of exposure-related issues.

[0003] Traditionally, weather protection devices for users include umbrellas, raincoats, jackets, hats, and gloves. While these offer basic protection from rain, cold, or UV rays, they lack automation and adaptability to dynamic environmental changes. Users must manually adjust or wear layers, which inconvenient and inefficient. These devices do not automatically respond to temperature fluctuations, wind, or other weather factors in real-time. In terms of automation, they fail to provide personalized comfort, leading to potential discomfort or exposure. Additionally, they do not offer integrated solutions to protect against multiple weather conditions simultaneously, making them less effective in varying outdoor environments.

[0004] US9783979B2 discloses about the invention relates to a weatherproofing arrangement having a textile sheet material which forms a screen against the effects of weather, in particular against solar radiation and/or rain, and has warp threads and weft threads connected to one another in the manner of latticework. In order to achieve particular protective functions, it is proposed for the warp threads and weft threads to bound elongate-rectangular latticework openings, wherein the length of these openings is at least 10 times the width thereof, and wherein the width of the openings is from between 0.1 and 0.001 mm.

[0005] US5251336A discloses about a head protector for inclement weather includes a hood having a facial port and a neck portion surrounding a neck channel. A dickey is attached to the outside of the hood at the neck portion to also surround the neck channel, and a collar is attached to the outside of the neck portion between the hood and the dickey. A face shield having a mesh panel is attached to the hood across the facial port to cover the nose and mouth of the user. Also included is a flap which is releasably attachable to the hood to cover the face shield. A drawstring is attached to the outer periphery of the collar for cinching the collar around the neck of the user.

[0006] Conventionally, many devices have been developed to protect users from various weather conditions. These devices typically include umbrellas, raincoats, jackets, and hats designed to shield against rain, cold, wind, or UV rays. However, existing solutions lack real-time adaptability to changing environmental factors and fail to provide personalized comfort adjustments. Most traditional weather protection devices do not automatically respond to temperature shifts, wind intensity, or other weather elements, requiring manual intervention from the user. Additionally, they do not consider the user's body dimensions or preferences, limiting their effectiveness in providing optimal protection and comfort across different weather conditions.

[0007] In order to overcome the aforementioned drawbacks, there exists a need in the art to develop a device that not only protects users from weather conditions but also adapts to their specific needs. The proposed invention aims to enhance user comfort and safety by automatically responding to environmental changes, such as temperature, wind, and rain, while also offering personalized protection. This device will continuously analyze weather factors and user preferences, providing real-time interventions such as adjustable fit, cooling or heating mechanisms, and protective coverings to ensure optimal comfort and defense against harsh weather conditions.

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 detecting user's body dimensions and automatically adapts to improve comfort and prevent discomfort.

[0010] Another object of the present invention is to develop a device that is capable of regulating user's body temperature by detecting sweat and activating cooling to maintain a comfortable environment.

[0011] Another object of the present invention is to develop a device that automatically adjusts to protect user from environmental factors like rain, cold, wind, dust, and UV rays for ensuring enhanced safety and comfort.

[0012] Yet, another object of the present invention is to develop a device that is capable of ensuring user remains comfortable and protected by continuously monitoring and responding to changes in local weather and environmental conditions.

[0013] 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

[0014] The present invention relates to a weather response protection assistive device for enhanced comfort that enhance user comfort by responding to weather conditions. This device is capable of detecting the user's body dimensions and automatically adjusting to optimize comfort, preventing discomfort. Additionally, regulate the user's body temperature by sensing sweat and activating a cooling means to maintain a comfortable environment.

[0015] According to an embodiment of the present invention, a weather response protection assistive device for enhanced comfort, comprising, a wearable body configured to be worn by a user around chest portion of the user and body is made from a series of flexible sections interconnected to constitute the body, each the section, a plurality of expandable curved plates, each integrated with a motorized hinge joint for adapting to the user’s body, in real-time to provide optimal fit, support and comfort for the user, an artificial intelligence-based imaging unit mounted on the body and paired with a processor for capturing and processing multiple images in vicinity of the body, respectively to determine body dimensions of the user, a microcontroller is linked with the imaging unit for processing the body dimensions, a plurality of touch sensors mounted on inner side of the body for detecting contact of the user with the user’s body, an inflatable member equipped within a first layer of each of the sections, for getting inflated to prevent any collision that induce discomfort to the user, a sweat biosensor installed on the inner sides of each of the sections for capturing sweat presence causing moisture on the user’s body, a plurality of motorized iris lids located along outer periphery of each of the sections, for getting opened/closed to facilitate airflow and maintain a comfortable temperature for the user, a Peltier unit installed on the inner side to provide optimum cooling effect for regulating the user’s body temperature, a hydrophobic flexible fabric layered at upper side of the body and secured via electromagnetic strips to disengage and allow the fabric to unfold and cover the user’s body, to protect the user from the precipitation and ensuring the user remains dry and protected wet weather conditions, a rain sensor is installed on the body for detecting presence of precipitation, an odor sensor mounted on the body for detecting unpleasant odor, a pair of electronically controlled nozzle installed on lateral sides of the body to spray an optimum amount of aromatic liquid around the user, for combating the unpleasant smell.

[0016] According to another embodiment of the present invention, the proposed device further comprising, a motorized roller coiled with a thermal sheet, installed around collar portion of the body to rotate for unwrapping the thermal sheet to provide warmth in response to cold and windy weather conditions, a temperature sensor coupled with a wind sensor, is installed on the body for monitoring temperature and wind intensity in surroundings of the user, a series of curved extendable rods installed along the collar portion, and layered with an thermal cloth to extend for forming a curved hood-like structure to protect the user from the cold and windy weather conditions, an expandable shield arranged laterally on ends of the extendable rods, to get deployed in front of the user’s face, for preventing the user from dust, airborne particles and particulate matter that are detected by a dust sensor and air quality sensor, an EMG (electromyography) sensor is mounted on the body for detecting muscle strains in the user’s body, a GPS (Global Positioning Device) module integrated in the body to detect the user’s current geographical location, a thermochromic sheet is integrated onto outer side of the body, for changing color of the body, in response to ambient temperature changes and user preferences, also acting as a reflector to protect the user from harmful UV rays and a battery is associated with the device for powering up electrical and electronically operated components associated with the device.

[0017] 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

[0018] 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 weather response protection assistive device for enhanced comfort.
Figure 2 illustrates an internal view of the proposed device.
Figure 3 illustrates a sectional view of the proposed device.

DETAILED DESCRIPTION OF THE INVENTION

[0019] 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.

[0020] 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.

[0021] 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.

[0022] The present invention relates to a weather response protection assistive device for enhanced comfort that enhance comfort by automatically adjusting to protect the user from environmental factors such as rain, cold, wind, dust, and UV rays, ensuring both safety and comfort. The device also continuously monitors and responds to changes in local weather and environmental conditions, ensuring that the user remains comfortable and protected at all times.

[0023] Referring to figure 1 and 2, an isometric view of a weather response protection assistive device for enhanced comfort and an internal view are illustrated, respectively, comprising a wearable body 101 configured to be worn by a user, an artificial intelligence-based imaging unit 102 mounted on the body 101, a Peltier unit 103 installed on the inner side, a pair of electronically controlled nozzle 104 installed on lateral sides of the body 101, a motorized roller 105 coiled with a thermal sheet 106, installed around collar portion of the body 101, a series of curved extendable rods 107 installed along the collar portion, and layered with an thermal cloth 108, an expandable shield 109 arranged laterally on ends of the extendable rods 107 and a thermochromic sheet 110 is integrated onto outer side of the body 101, a series of flexible sections 201 interconnected to constitute the body 101, a plurality of expandable curved plates 202, each integrated with a motorized hinge joint 203, a plurality of motorized iris lids 204 is located along outer periphery of each of the sections 201.

[0024] The device disclosed herein comprises a wearable body 101 specifically developed to be worn around the chest region of a user. The main body 101 of the device is constructed from a series of interconnected, flexible sections 201 that collectively form a continuous and adaptable structure. Each individual segment is engineered to conform to the natural contours and movements of the user’s body.

[0025] In a preferred embodiment of the present invention, the user must activate the device by pressing a push button, installed on the body 101. The push button is accessed by the user to press for activating the device. When the user presses the push button, the electrical circuit is completed, which in response turns the device on. The push button is integrated with an actuator and a spring, which are automatically activated when pressed. They work together to move the internal contact, completing the circuit and allowing electrical current to flow, thereby activating the device.

[0026] When the push button is pressed, the button sends a signal (usually a change in voltage or current) to an inbuilt microcontroller associated with the device to either power up or shut down the microcontroller. Conversely, releasing the button allows the spring to return to its original position, breaking the circuit and sending the signal to deactivate the device. The microcontroller is pre-fed to detect this signal and respond accordingly. The microcontroller used herein is pre-fed using artificial intelligence and machine learning protocols to coordinate the working of the device. Further, the microcontroller then activates an artificial intelligence-based imaging unit 102 installed on the body 101 to capture multiple images in proximity of the body 101 for determining body dimensions of the user.

[0027] The imaging unit 102 comprises of an image capturing module including a set of lenses that captures multiple images in proximity of the body 101, and the captured images are stored within memory of the imaging unit 102 in form of an optical data. The imaging unit 102 also comprises of a processor that is encrypted 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 determines dimensions of the user’s body.

[0028] A series of extendable curved plates 202, each coupled with a motorized hinge joint 203, are strategically arranged along the body 101 of the device. Post detection of the dimensions of the user’s body via the imaging unit 102, the microcontroller synchronously actuates the motorized hinge joint 203 and the extendable curved plates 202 to adapt to the user's body in real-time, thereby ensuring optimal fit, support, and comfort.

[0029] The motorized hinge joint 203 comprises a pair of leaf members affixed to the surfaces of the curved plates 202. These leaf members are interconnected via a cylindrical member integrated with a shaft, which is coupled to a DC (Direct Current) motor. The motor facilitates bidirectional movement of the shaft: clockwise rotation opens the hinge, while counterclockwise rotation closes it. This actuation mechanism enables precise movement of the plates 202 in response to the user's body dimensions, as processed by the microcontroller.

[0030] Once the plates 202 have been adjusted according to the user’s body, the microcontroller continues to actively regulate the plates 202 in real time for continuous adaptation and enhanced comfort. The extension and retraction of the curved plates 202 are pneumatically controlled, utilizing a pneumatic unit that includes an air compressor, air cylinders, air valves, and pistons. Upon command from the microcontroller, the valve opens to allow compressed air from the compressor to flow into the air cylinder. The resulting pressure acts on the piston, pushing it forward and causing the attached plates 202 to extend. To retract the plates 202, the microcontroller signals the valve to close, relieving the pressure and allowing the piston to return to its original position. This real-time pneumatic regulation enables dynamic adjustment of the body 101 to maintain a secure, comfortable, and supportive fit tailored to the user’s body shape and movement.

[0031] After the body 101 has been successfully adjusted to conform to the user’s body shape, the microcontroller activates a set of touch sensors positioned on the inner surface of the body 101 to detect contact between the body 101 and the user's body. The touch sensor operates by detecting changes in electrical resistance when pressure is applied. Each touch sensor comprises two flexible, conductive layers separated by a small insulating gap. Upon contact with the user’s body, the top conductive layer is pressed against the bottom layer, resulting in a measurable change in resistance at the point of contact. This change is detected and transmitted to the microcontroller, which interprets the signal to confirm proper contact between the body 101 and the user's body.

[0032] Upon detecting contact between the user’s body and the device body 101, the microcontroller activates an air compressor linked to an inflatable member 303 embedded within the first layer of each sections 201. These member 303 inflate to provide cushioning and prevent any collisions or pressure points that could cause discomfort. The air compressor functions by drawing in ambient air and compressing the air to increase pressure. The compressor comprises an impeller driven by a motor, both controlled by the microcontroller. The motor's mechanical energy enables the impeller to intake and direct high-speed compressed air into the inflatable member 303. Each inflatable member 303 is formed by multiple laminated thin polymeric films, which expand when filled with compressed air for creating a soft, cushioned surface that enhances the user comfort.

[0033] Once the user is comfortably snug in the device, the microcontroller activates a sweat biosensor embedded on the inner surface of each sections 201 to detect sweat and moisture on the user’s skin. The sensor works by monitoring moisture levels through a sensing layer made from moisture-sensitive materials like hydrogels, polymers, or nanomaterials. As sweat is released, it alters the electrical properties of the sensing layer, such as conductivity or capacitance. This change is detected by embedded electrodes, converted into an electrical signal, and processed by the microcontroller, allowing real-time tracking of hydration, thermal comfort, and physiological responses.

[0034] Once sweat is detected via the sweat biosensor, the microcontroller activates a series of motorized iris lids 204 positioned along the outer periphery of each sections 201 to facilitate airflow and maintain a comfortable temperature for the user. The iris lids 204 function using a motor connected to an iris mechanism, which consists of overlapping, hinged blades that move in a circular motion. When activated, the motor drives a gear that adjusts the blades, controlling the aperture size. This regulates airflow, ensuring optimal ventilation. The microcontroller dynamically monitors and adjusts the aperture to maintain consistent airflow for providing precise temperature control for the user. To enhance airflow and regulate the user's body temperature, the microcontroller simultaneously activates a Peltier unit 103 positioned on the inner side to deliver optimal cooling effects.

[0035] The Peltier unit 103 is composed of two semiconductor plates, known as Peltier plates, arranged in series and sandwiched between two ceramic plates. When an electric current passes through the unit, one side absorbs heat from its surroundings, while the opposite side releases heat, creating an effective cooling effect to maintain optimal temperature regulation for the user.

[0036] A rain sensor is integrated into the body 101 and activated by the microcontroller to detect precipitation. The sensor includes a rain-board module designed to sense the presence of rain. Using conductive materials or optical sensors, the rain sensor detects water droplets. In a typical capacitive or resistive rain sensor, the surface is equipped with electrodes that form an electrical circuit. When raindrops land on the sensor, they alter the electrical properties (such as capacitance or resistance) by bridging the electrodes. This change is then detected by the microcontroller.

[0037] Referring to figure 3, a sectional view of a section of the proposed device is illustrated, comprising a hydrophobic flexible fabric 301 layered at upper side of the body 101 and secured via electromagnetic strips 302, an inflatable member 303 equipped within a first layer of each of the sections 201.

[0038] After processing the changes detected received from the rain sensor, the microcontroller activates a set of electromagnetic strips 302 configured with the hydrophobic flexible fabric 301 on the upper side of the body 101 to cause the fabric 301 to unfold and disengage. The electromagnetic strips 302 work by utilizing electromagnets to create a controlled force that engage or disengage materials. The strips 302 consist of coils of wire through which an electric current flows, generating a magnetic field. When the current is activated, the magnetic field attracts or repels ferromagnetic materials embedded in the fabric 301, causing the fabric 301 to either engage or disengage from its folded state. In this case, when the microcontroller activates the electromagnetic strips 302, the generated magnetic field causes the fabric 301 to unfold and cover the user’s body. The strips 302 ensure precise control over the fabric’s 301 deployment based on the rain sensor’s input and ensuring the user remains dry and protected wet weather conditions.

[0039] An odor sensor is integrated into the body 101 and activated by the microcontroller to detect unpleasant odors. Often referred to as an electronic nose, the sensor identifies specific odor molecules. In this case, the odor sensor is a surface acoustic wave (SAW) sensor, which uses acoustic waves that travel along the surface of a piezoelectric substrate. When the target odor molecules interact with the surface, they alter the properties of the acoustic waves, resulting in changes in frequency and velocity. The microcontroller measures these changes to identify the presence and intensity of the odor.

[0040] Once the presence of an unpleasant odor is detected, the microcontroller activates a pair of electronically controlled nozzle 104 located on the lateral sides of the body 101 to spray an optimal amount of aromatic liquid around the user for neutralizing the unpleasant odor. The nozzle 104 operates by using electrical energy to regulate the flow of the aromatic solution in a controlled pattern. This is achieved by converting the pressure energy of the fluid into kinetic energy, increasing the velocity of the liquid. Upon activation by the microcontroller, the electric motor or pump pressurizes the aromatic liquid, allowing it to be sprayed forcefully, creating a refreshing environment for the user.

[0041] A temperature sensor, coupled with a wind sensor, is installed on the body 101 to monitor the temperature and wind intensity in the user’s surroundings. The temperature sensor is composed of a metal material that generates an electrical voltage or changes in resistance when exposed to temperature variations. The sensor works by measuring the voltage across the diode terminals. The resistance of the diode is detected and converted into readable values to determine the surrounding temperature. This temperature data is then converted into an electrical signal, which is sent to the microcontroller for processing.

[0042] The wind sensor monitors wind intensity by detecting changes in air pressure caused by the wind. The sensor consists of a diaphragm or pressure-sensitive element that responds to pressure fluctuations. As the wind blows, it creates differences in pressure on either side of the diaphragm. These variations are measured and converted into an electrical signal, which is processed by the microcontroller.

[0043] The microcontroller collaboratively processes data received from the temperature and wind sensors to assess the surrounding temperature and wind intensity. The microcontroller then compares the detected values with a predefined threshold stored in a database linked to the microcontroller. In case the detected intensity falls below the threshold, the microcontroller activates a motorized roller 105 wrapped with a thermal sheet 106, located around the collar portion of the body 101 to rotate to unwrap the thermal sheet 106, providing warmth in response to cold and windy weather conditions.

[0044] The motorized roller 105 is powered by a motor connected to a cylindrical roller via a shaft. When activated by the microcontroller, the motor generates rotational motion, which is transferred to the roller, causing it to turn. This rotation unrolls the thermal sheet 106 for providing warmth in response to cold and windy weather conditions. Simultaneously, the microcontroller activates a series of curved extendable rods 107 positioned along the collar portion, each covered with thermal cloth 108 to extend to form a curved, hood-like structure for providing protection for the user against cold and windy weather conditions.

[0045] The extension and retraction of the curved extendable rods 107 are controlled by the microcontroller in the same manner as the expandable curved plates 202 described earlier, using the pneumatic unit. This process allows the rods 107 to form the curved, hood-like structure, providing protection for the user against cold and windy weather conditions.

[0046] Once the curved, hood-like structure is formed, the microcontroller activates a dust sensor and an air quality sensor arranged on the rods 107 to detect dust, airborne particles, and particulate matter in the surrounding environment. The dust sensor operates on an optical sensing method, consisting of a photo sensor and an infrared light-emitting diode (IR LED). The IR LED emits infrared rays around the user, and the photo sensor receives the reflected rays. The microcontroller processes the reflected rays to detect the presence of dust in the surrounding area.

[0047] The air quality sensor detects dust, airborne particles, and particulate matter in the surrounding environment using light scattering or light absorption methods. In light scattering sensors, a laser or LED emits light, and particles in the air scatter the light. The sensor detects the scattered light, which is proportional to the concentration of particles. In light absorption sensors, particles absorb light, and the reduction in light intensity is measured. The microcontroller processes this data.

[0048] The microcontroller collaboratively processes data received from the dust and air quality sensor to assess the presence of the dust, airborne particles and particulate matter. In case the dust, airborne particles and particulate matter are detected, the microcontroller actuates an expandable shield 109 arranged laterally at the ends of the extendable rods 107 to deploy in front of the user’s face. This shield 109 protects the user from dust, airborne particles, and particulate matter detected by the dust and air quality sensors, thus offering enhanced protection.

[0049] The extension and retraction of the expandable shield 109 are controlled by the microcontroller in the same manner as the expandable curved plates 202 described earlier, using the pneumatic unit, for protects the user from dust, airborne particles, and particulate matter.

[0050] An EMG (electromyography) sensor is arranged on the body 101 and is activated by the microcontroller to detect muscle strains in the user’s body. The Electromyography (EMG) sensor detects electrical activity generated by muscles when they contract. The sensor works by placing electrodes on the skin's surface or inserting fine needles into muscles. These electrodes measure the electrical signals (action potentials) produced by muscle fibers during contraction. The sensor amplifies and processes these signals, which are then analyzed to assess muscle activity. When a muscle strain occurs, the intensity and frequency of the electrical signals change, indicating overexertion or injury. EMG sensors are commonly used in medical diagnostics, physical therapy, and sports science to monitor muscle function and detect abnormalities. Based on the detected muscle strains, the microcontroller adjusts the operation of the inflatable component to ensure the user's comfort is maintained.

[0051] A GPS (Global Positioning System) module is embedded in the body 101 and activated by the microcontroller to detect the user's current geographical location. The GPS module relies on a satellite-based navigation system, where satellites orbit the Earth and transmit real-time location data. These signals travel at the speed of light and are received by the GPS module, which calculates the distance to each satellite based on the time it takes for the signals to arrive. The GPS module connects to at least four satellites and calculates the distances between them. Using trilateration, the module determines the exact position of the user and retrieves real-time location coordinates. Based on this information, the microcontroller adjusts the operation of relevant components to adapt to local weather conditions.

[0052] A thermochromic sheet 110 is installed on the outer surface of the body 101 and activated by the microcontroller to change the body’s 101 color in response to ambient temperature changes and user preferences. The sheet 110 also serves as a reflector to protect the user from harmful UV rays. It contains temperature-sensitive materials, such as liquid crystals or special pigments, which alter their molecular structure when exposed to heat. As the surrounding temperature fluctuates, these materials undergo a reversible color shift, adapting to the user's preferences or providing thermal comfort. When the body 101 temperature or environmental conditions rise, the thermochromic sheet 110 changes to a darker color, helping to absorb or reflect heat. Additionally, the sheet 110 incorporates UV-blocking compounds that absorb or reflect harmful ultraviolet radiation, safeguarding the user from sun exposure while adjusting its color for both comfort and protection.

[0053] Lastly, a battery (not shown in figure) is associated with the device to supply power to electrically powered components which are employed herein. The battery is comprised of a pair of electrode named as a cathode and an anode. The battery uses a chemical reaction of oxidation/reduction to do work on charge and produce a voltage between their anode and cathode and thus produces electrical energy that is used to do work in the device.

[0054] The present invention work best in the following manner, where the wearable body 101, developed to be worn around the chest of the user that consists of the flexible interconnected sections 201. Each sections 201 houses the expandable curved plates 202 with motorized hinge joints 203. The imaging unit 102, paired with the processor captures and processes images of the user’s body to determine body dimensions for enabling the microcontroller to synchronize the activation of the plates 202 and hinge joints 203 for the real-time, optimal fit, support, and comfort. The body 101 is equipped with the touch sensors on the inner side to detect user contact, activating the inflatable member 303 within the sections 201 to prevent discomfort from collisions. The sweat biosensor detecting moisture and triggers the opening and closing of motorized iris lids 204 to regulate airflow and temperature as detected by the temperature and wind sensor while the Peltier unit 103 provides cooling. The hydrophobic fabric 301 secured with the electromagnetic strips 302 unfolds in response to the rain sensor to protect the user from precipitation. The odor sensor activates electronically controlled nozzle 104 that release aromatic liquid to combat unpleasant smells. The motorized roller with the thermal sheet 106 is deployed when the temperature drops for offering warmth. Additionally, the extendable rods 107 layered with thermal cloth 108 form the hood and deploy the shield 109 to protect the user from wind, cold, dust, and particulate matter. The EMG sensor detects muscle strains for allowing the microcontroller to adjust the inflatable member 303 for comfort. The GPS module detects the user’s location for enabling the microcontroller to adjust components based on local weather. Lastly, the thermochromic sheet 110 changes color with temperature for providing comfort and UV protection.

[0055] 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 weather response protection assistive device for enhanced comfort, comprising:

i) a wearable body 101 is configured to be worn by a user around chest portion of said user, wherein said body 101 is made from a series of flexible sections 201 interconnected to constitute said body 101, each said sections 201;
ii) a plurality of expandable curved plates 202, each integrated with a motorized hinge joint 203, wherein an artificial intelligence-based imaging unit 102 is mounted on said body 101 and is paired with a processor for capturing and processing multiple images in vicinity of said body 101, respectively to determine body dimensions of said user, wherein a microcontroller is linked with said imaging unit 102 for processing said body 101 dimensions to synchronously activates said plate and hinge joints 203 are for adapting to said user’s body, in real-time to provide optimal fit, support and comfort for said user;
iii) a plurality of touch sensors is mounted on inner side of said body 101 for detecting contact of said user with said user’s body, wherein said microcontroller processes said contact detection to activate an inflatable member 303 equipped within a first layer of each of said sections 201, for getting inflated to prevent any collision that induce discomfort to said user, thereby ensuring said user remains comfortably snug in said body 101;
iv) a sweat biosensor is installed on said inner sides of each of said sections 201 for capturing sweat presence causing moisture on said user’s body, wherein upon detection of sweat, said microcontroller activates a plurality of motorized iris lids 204 located along outer periphery of each of said sections 201, for getting opened / closed to facilitate airflow and maintain a comfortable temperature for said user, followed by synchronized activation of a Peltier unit 103 installed on said inner side to provide optimum cooling effect for regulating said user’s body temperature;
v) a hydrophobic flexible fabric 301 is layered at upper side of said body 101 and secured via electromagnetic strips 302, wherein a rain sensor is installed on said body 101 for detecting presence of precipitation, based on which said microcontroller actuates said strips 302 to disengage and allow said fabric 301 to unfold and cover said user’s body, to protect said user from said precipitation and ensuring said user remains dry and protected under wet weather conditions;
vi) an odour sensor is mounted on said body 101 for detecting unpleasant odor, based on which said microcontroller actuates a pair of electronically controlled nozzle 104 installed on lateral sides of said body 101 to spray an optimum amount of aromatic liquid around said user, for combating said unpleasant smell, thus maintaining a fresh environment around said user;
vii) a motorized roller 105 is coiled with a thermal sheet 106, installed around collar portion of said body 101, wherein a temperature sensor coupled with a wind sensor, is installed on said body 101 for monitoring temperature and wind intensity in surroundings of said user, and in case said monitored temperature recedes a threshold, said microcontroller actuates said roller 105 to rotate for unwrapping said thermal sheet 106 to provide warmth in response to cold and windy weather conditions; and
viii) a series of curved extendable rods 107 are installed along said collar portion, and layered with an thermal cloth 108, wherein based on said detected temperature and wind intensity, said microcontroller activates said rods 107 to extend for forming a curved hood-like structure to protect said user from said cold and windy weather conditions and regulate temperature, followed by actuation of an expandable shield 109 arranged laterally on ends of said extendable rods 107, to get deployed in front of said user’s face, for preventing said user from dust, airborne particles and particulate matter that are detected by a dust sensor and air quality sensor, thereby providing enhanced protection to said user.

2) The device as claimed in claim 1, wherein an EMG (electromyography) sensor is mounted on said body 101 for detecting muscle strains in said user’s body, and based on said detected muscle strains, said microcontroller regulates operation of said inflatable member 303 to maintain comfort of said user.

3) The device as claimed in claim 1, wherein a GPS (Global Positioning Device) module is integrated in said body 101 to detect said user’s current geographical location, based on which said microcontroller regulates operation of necessary components to adjust to local weather conditions.

4) The device as claimed in claim 1, wherein a thermochromic sheet 110 is integrated onto outer side of said body 101, for changing color of said body 101, in response to ambient temperature changes and user preferences, and also acting as a reflector to protect said user from harmful UV rays.

5) The device as claimed in claim 1, wherein a battery is associated with said device for powering up electrical and electronically operated components associated with said device.