Description:FIELD OF THE INVENTION

[0001] The present invention relates to a cushioning and massaging device that actively monitoring body movements, muscle tension, breathing patterns. The present invention is more specifically related to improve quality of sleep and other physiological signals to optimize the user’s sleep environment, thus offer a dynamic, personalized approach to managing sleep-related issues such as muscle strain, poor posture, and sleep disorders.

BACKGROUND OF THE INVENTION

[0002] When we sleep or relax at bed, our body goes through different positions that sometimes lead to discomfort or even pain, especially in areas like the neck and shoulders. Many people struggle to find a pillow that offers the right support throughout the night. A common issue is waking up with sore muscles or stiffness from poor sleeping posture, which affect how well we rest. Most pillows are just designed for basic comfort, but they don’t adjust to your body’s needs in real-time. People often rely on simple solutions like adjusting their pillow, using hot or cold packs, or trying different sleeping positions. However, these methods don’t always help with muscle strain or discomfort during sleep. The lack of personalized support during sleep means that people continue to experience poor sleep quality and discomfort, without a way to actively address it while they rest. This creates a gap that needs to be filled for better overall sleep health.

[0003] Traditionally, foam pillows were used by peoples as these provides better support than traditional feather pillows. Around the same time, orthopaedic pillows were also used, as these offers increased firmness and contouring to support the spine's natural alignment. These were designed specifically to reduce neck pain and improve sleep posture. However, some people find memory foam too firm, while others may feel it is too soft, making quite challenging to cater to all users’ preferences. Also, orthopaedic pillows are designed for support, many users find them uncomfortable due to their firmness or unusual shapes.

[0004] US3757364A discloses about an invention that includes a two-level dual firmness pillow construction which intrinsically affords effective support for maintaining optimum head and neck posture while sleeping on the back or either side of the body and which reduces to a minimum the liklihood of muscle spasms, stiffness or pain about the head, neck and shoulders, or decreased blood circulation as a result of sleeping or reclinin.

[0005] US5012539A discloses about an invention that includes an inflatable multi-purpose medical support pillow for supporting a body member, or a portion of the body. One side of the pillow is deeply grooved to cradle an extremity, and the other side is slightly grooved for trunk support. The pillow is an inflatable triangle member including a body anchor member attached to the lower end of the pillow. A pillow slip can engage over the pillow.

[0006] Conventionally, many pillows have been developed that are capable of improving the quality of sleep. However, these devices are incapable of providing personalized therapeutic elements, such as soothing scents, temperature regulation, and pain relief, depending on the user’s specific needs. Additionally, these existing pillows also lack the ability to analyze physiological parameters such as muscle stress, breathing patterns, and sleep cycles which affects their sleep health and quality.

[0007] In order to overcome the aforementioned drawbacks, there exists a need in the art to develop a pillow that allows for the personalized delivery of therapeutic elements, such as soothing scents, temperature regulation, and pain relief, depending on the user’s specific needs. In addition, the developed pillow also analyzes physiological parameters such as muscle stress, breathing patterns, and sleep cycles, in view of providing the user with insights into their sleep health and quality.

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 pillow that continuously monitors and adjusts the user’s body position in real time to promote optimal sleep posture and reduce discomfort.

[0010] An object of the present invention is to an advanced pillow system that actively monitoring body movements, muscle tension, breathing patterns and is used by user while relaxation or placing pillow over the back.

[0011] Another object of the present invention is to develop a pillow that enhance the user’s sleep quality by detecting and addressing muscle tension, pressure points, and posture-related issues, thereby ensuring that the user maintains an ergonomic position throughout the night.

[0012] Yet another object of the present invention is to develop a pillow that ensure safety and well-being by alerting healthcare professionals or caretakers in case of abnormal sleep-related issues, such as breathing irregularities or excessive muscle strain.

[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 cushioning and massaging device that facilitate the maintenance of ideal sleeping posture by constantly observing and adjusting the individual’s body alignment during rest, thereby ensuring comfort and minimizing physical strain.

[0015] According to an embodiment of the present invention, a cushioning and massaging device comprises of, an inflatable body resembling shape of a pillow and fabricated with a layer of fur for providing comfortable experience to a user while the user uses the body while sleeping or sitting or at relaxation state, the body features indentations along edges, designed to cradle shoulder portion of the user, an artificial intelligence-based imaging unit installed on the body and paired with an IR (Infrared) sensor (not shown) embedded with the body to monitor user’s body movements in real-time during sleep, an EMG (Electromyography) sensor (not shown) integrated with the body to measure pain level and confirm whether pain or discomfort is present, plurality of vibrating units installed on the body in a grid-like structure to provide haptic feedback to the user prompting the user to change positions during sleep, ensuring the user maintains a posture that minimizes muscle discomfort and promotes pain relief, plurality of pressure sensors integrated within the body to monitor and record pressure distribution and user’s sleep posture, in view of determining areas of high pressure, indicative of muscle discomfort or strain, particularly in neck and shoulder regions, the pressure sensors works in conjunction with the EMG (electromyography) sensor to evaluate muscle stress and identify the stressed muscle areas, and accordingly the microcontroller (not shown) regulates actuation of soft inflating motorized caster balls installed on outer surface of the body to gently adjust user’s sleeping position and align with an ideal ergonomic posture, the caster balls are arranged in specific patterns that align with key acupressure points on user’s body, configured to apply targeted pressure to pressure points to alleviate muscle tension, reduce pain, and promote relaxation, a Peltier unit (not shown) is integrated with the body, coupled with a temperature sensor embedded on the body, to provide heating and cooling therapy via a silicon pouch present inside the body, and multiple iris lids integrated on the body to release pain relief ointment stored in a vessel provided inside the body.

[0016] According to another embodiment of the present invention, the proposed pillow further comprises of, a sensing module integrated with upper surface of the body to monitor and detect chest wall movement during respiratory motion and brain wave activity of the user while sleeping, a microphone integrated with the body to monitor any unusual sounds produced by the user during sleep, the microcontroller upon detecting unusual sounds indicative of a sleep disorder or breathing irregularities, an alert is directed to an authorized healthcare provider via a connected computing unit, allowing to review data in real time and decide whether further inspection or intervention is required, a FBG (Fiber Bragg Grating) sensor (not shown) embedded with the body to continuously monitor vital parameters and body metrics of the user in real-time, in case of detection of abnormalities an immediate alerts is provided on a computing unit accessed by a concerned caretaker of the user, an electronic nozzle attached with a chamber stored with a soothing scent and configured at the body, for continuously dispensing the soothing scent to create a calming atmosphere and help the user relax and fall asleep more easily, the body is equipped with multiple air pouches strategically placed along surface, if breathing pattern of user is found to be irregular or indicative of potential issues, such as sleep apnea, the air pouches are inflated by an inflating unit provided on the body, inflating and deflating in response to detected irregularities, helping the user to maintain proper respiratory function, and a battery (not shown) is associated with the pillow for powering up electrical and electronically operated components associated with the pillow.

[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 a perspective view of a cushioning and massaging 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 cushioning and massaging device that enable real-time adjustments to the user's position, in view of ensuring proper alignment throughout sleep and alleviating discomfort by actively addressing posture-related issues.

[0023] Referring to Figure 1, a perspective view of a cushioning and massaging device is illustrated, comprising an inflatable body 101 resembling shape of a pillow and fabricated with a layer of fur, an artificial intelligence-based imaging unit 102 installed on the body 101, plurality of vibrating units 103 installed on the body 101, plurality of soft inflating motorized caster balls 104 installed on outer surface of the body 101, a microphone 105 integrated with the body 101, an electronic nozzle 106 attached with a chamber 107, iris lids 108 integrated on the body 101 and attach with a vessel 109 provided inside the body 101, the body 101 is equipped with multiple air pouches 110.

[0024] The pillow disclosed herein comprising an inflatable body 101 that is developed to resemble the shape of a pillow, with a soft layer of fur applied to its surface, ensuring a comfortable and soothing experience for the user while sleeping or sitting or at relaxation state. To enhance support, the body 101 incorporates indentations along its edges, specifically tailored to cradle the user's shoulder region. These indentations provide targeted support to the shoulder area, helping to maintain proper alignment and alleviate discomfort during sleep or rest. The ergonomic design of the body 101 ensures a restful position by conforming to the user’s natural contours, promoting relaxation and minimizing strain.

[0025] An artificial intelligence-based imaging unit 102 is embedded within the body 101, working in conjunction with an integrated infrared (IR) sensor. This unit is responsible for monitoring the user’s body movements in real-time during sleep, capturing images and analyzing the user’s positioning and activity. The IR sensor functions to detect the user’s body movements, and the imaging unit 102 processes this data using artificial intelligence protocols. The microcontroller analyzes these movements, to detect potential issues such as poor posture or discomfort, ensuring the user maintains an optimal sleeping position throughout the night.

[0026] The imaging unit 102 disclosed herein comprises of an image capturing arrangement including a set of lenses that captures multiple images of the surroundings 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 the processor which processes the captured images.

[0027] This pre-processing involves tasks such as noise reduction, image stabilization, or color correction. The processed data is fed into AI protocols for analysis which utilizes machine learning techniques, such as deep learning neural networks, to extract meaningful information from the visual data which are processed by the microcontroller to monitor user’s body movements in real-time during sleep.

[0028] The infrared (IR) sensor detects the user’s body movements by emitting infrared light and measuring the reflected light from the user's body. As the user moves, the sensor detects changes in the intensity or direction of the reflected infrared light, converting these variations into electrical signals. The sensor continuously monitors these movements and transmits the data to the microcontroller, which processes the information in real-time.

[0029] The microcontroller herein continuously monitors the user’s posture. Upon detecting any suboptimal posture, the microcontroller activates an integrated Electromyography (EMG) sensor to assess the user’s muscle activity and determine the presence of pain or discomfort. The EMG sensor measures the electrical signals generated by muscle contractions, providing real-time data regarding muscle stress and potential discomfort. The microcontroller processes this information to evaluate the severity of the discomfort, confirming whether pain is present and initiating corrective actions to adjust the user's posture for improved comfort and well-being.

[0030] The EMG sensor when activated by the microcontroller monitors the electrical activity of muscles, converting these signals into data that is transmitted to the microcontroller. The microcontroller analyzes the data to determine if there is any abnormal muscle activity, such as excessive strain or discomfort.

[0031] A plurality of vibrating units 103 arranged in a grid-like structure, each of which is actuated by the inbuilt microcontroller. These vibrating units 103 are designed to provide haptic feedback to the user during sleep. Upon detecting a suboptimal posture or muscle discomfort, the microcontroller activates the appropriate vibrating units 103 to deliver subtle vibrations. These vibrations prompt the user to change their position, ensuring the user maintains an optimal posture that minimizes muscle discomfort and promotes pain relief. This provides real-time, non-invasive guidance to improve sleep posture and enhance overall sleep quality.

[0032] The vibrating units 103 consist of small motors or actuators embedded within the body 101 in a grid-like arrangement. The microcontroller sends signals to the specific vibrating units 103 based on detected posture irregularities. When activated, these units generate vibrations that are felt by the user, prompting them to adjust their sleeping position. The vibrations are calibrated in intensity and frequency to ensure they are comfortable yet effective in signalling the user to move. The microcontroller continuously monitors the user’s position and applies vibrations accordingly to encourage an ergonomic and pain-relieving posture during sleep.

[0033] The body 101 is equipped with a plurality of pressure sensors integrated within its structure to continuously monitor and record the distribution of pressure across the user’s body during sleep. These sensors are designed to detect areas of high pressure, particularly in the neck and shoulder regions, which may indicate muscle discomfort, strain, or poor posture. The data gathered by the pressure sensors is analyzed by the microcontroller to assess the user’s sleep posture.

[0034] The pressure sensors embedded within the body 101 consist of sensitive materials that detect variations in pressure when the user’s body makes contact with the surface. These sensors convert pressure changes into electrical signals, which are transmitted to the microcontroller. The microcontroller processes the data, identifying areas of high pressure, particularly around the neck and shoulder areas, that could indicate muscle strain or discomfort.

[0035] The pressure sensors and the integrated Electromyography (EMG) sensor work together to assess muscle stress and identify areas of muscle strain. Upon detecting muscle discomfort or strain, the microcontroller uses the data from both sensors to regulate the actuation of motorized caster balls 104 installed on the outer surface of the body 101. These caster balls 104 are arranged in specific patterns that align with key acupressure points on the user’s body. By applying targeted pressure to these acupressure points, the caster balls 104 help alleviate muscle tension, reduce pain, and promote relaxation, thereby improving the user’s sleep posture and comfort.

[0036] The motorized caster balls 104 are mounted on the outer surface of the body 101, and each ball 104 is connected to a small motor. These motors are controlled by the microcontroller based on data received from the pressure sensors and EMG sensors. When the pressure sensors detect high-pressure points on the user’s body, or when the EMG sensor identifies muscle strain, the microcontroller activates the motors. The motors then adjust the position of the caster balls 104, either inflating them or moving them in predetermined patterns aligned with acupressure points. This movement applies targeted pressure to relieve muscle tension and optimize posture.

[0037] The body 101 is integrated with a Peltier unit, which is coupled with a temperature sensor embedded within the structure of the body 101. The Peltier unit is designed to provide both heating and cooling therapy to the user through a silicon pouch located inside the body 101. The temperature sensor continuously monitors the user’s body temperature and provides real-time data to the microcontroller. Based on this data, the microcontroller adjusts the operation of the Peltier unit, activating it to either cool or heat the silicon pouch. This regulated temperature control aims to enhance user comfort by providing therapeutic thermal support, promoting relaxation, and addressing discomfort during rest.

[0038] The temperature sensor comprises crucial components such as an infrared sensor, an optical arrangement, and a detector. It functions on the principle of detecting infrared radiation emitted by the user’s body. When the temperature exceeds absolute zero, it emits infrared radiation. The sensor captures this radiation using its optical arrangement, directing it onto a detector. Common detectors, like thermopiles or pyroelectric sensors, then convert the received infrared energy into an electrical signal. This signal undergoes processing by electronic components, translating it into a temperature reading of the user’s body temperature.

[0039] The Peltier unit consists of two semiconductor plates, known as Peltier plates, connected in series and sandwiched between two ceramic plates. When an electric current is applied to the Peltier unit, one side of the unit absorbs heat from its surroundings, while the other side releases heat, thereby provide both heating and cooling therapy to the user through the silicon pouch.

[0040] The body 101 is equipped with multiple iris lids 108, which are integrated into the structure and are controlled by the microcontroller. The iris lids 108 are connected to a vessel 109 containing pain relief ointment stored within the body 101. The microcontroller continuously monitors data collected from the EMG sensors and pressure sensors to assess the user’s muscle stress or inflammation levels. Upon detecting signs of muscle discomfort or strain, the microcontroller activates the iris lids 108, causing them to open and release the pain relief ointment. This process occurs only when the microcontroller identifies a need for therapeutic intervention, ensuring that the ointment is dispensed in response to detected muscle stress or inflammation for targeted relief.

[0041] A sensing module integrated into the upper surface of the body 101, which includes Electroencephalogram (EEG) sensors and an accelerometer. These sensors work together to monitor and detect the user’s chest wall movement during respiratory motion and brain wave activity while the user is sleeping. The EEG sensors measure the electrical activity of the user’s brain, while the accelerometer tracks movement to assess respiratory patterns and sleep posture. The data collected by these sensors is processed by the microcontroller, which uses this information to provide insights into the user’s sleep quality and health.

[0042] The EEG sensors detect electrical activity in the user's brain by measuring fluctuations in voltage generated by neurons during sleep. The sensors are strategically placed on the upper surface of the body 101 to capture brainwave patterns. The electrical signals are transmitted to the microcontroller, which analyzes the frequency, amplitude, and type of brainwaves to determine the sleep stages and quality. Any abnormalities or disruptions in brainwave activity indicative of sleep disorders, such as interruptions in deep sleep, are detected and recorded for further analysis.

[0043] The accelerometer continuously monitors the user’s chest wall movement during sleep, detecting any shifts or irregularities in respiratory motion. The accelerometer measures the acceleration and movement of the body, converting these physical changes into electrical signals. These signals are transmitted to the microcontroller, which analyzes the data to assess the user's breathing patterns, such as the depth and regularity of respiration. Irregularities, such as pauses or shallow breaths, are identified, and the microcontroller processes this data to help evaluate sleep health and any potential issues related to respiratory function.

[0044] The microcontroller integrated within the body 101 combines the physiological parameters obtained from the Electroencephalogram (EEG) sensors and the accelerometer to generate a comprehensive analysis of the user's sleep patterns. By processing the data, the microcontroller assesses critical factors such as the duration and quality of deep sleep, as well as identifying potential disruptions or irregularities in sleep stages. This data is transmitted to a connected computing unit, accessible by the user. Through this interface, the user receives detailed insights into their sleep health, specifically the amount of time spent in restorative sleep, allowing them to track and make informed adjustments to their sleep habits to improve overall sleep quality.

[0045] The body 101 incorporates a microphone 105 that monitor any unusual sounds produced by the user during sleep. The microphone 105 continuously captures sound signals, which are analyzed by the microcontroller to detect irregularities, such as those indicative of a sleep disorder or breathing abnormalities. Upon identifying such irregularities, the microcontroller triggers an alert, which is transmitted to an authorized healthcare provider via a connected computing unit. This enables real-time data review by the healthcare provider, allowing them to assess the situation and determine whether further examination or intervention is necessary to address the user's condition.

[0046] The microphone 105 continuously captures ambient sound waves within the user’s sleep environment. These sound signals are converted into electrical signals and transmitted to the microcontroller for processing. The microcontroller compares the detected sounds against predefined patterns indicative of sleep disorders or breathing irregularities. If unusual sounds, such as snoring, gasping, or irregular breathing, are identified, the microcontroller sends an alert through the computing unit to an authorized healthcare provider, enabling them to review the data in real time and assess whether further action is required.

[0047] The body 101 is equipped with an embedded Fiber Bragg Grating (FBG) sensor, that continuously monitor the vital parameters and body metrics of the user in real-time. The FBG sensor operates by sending light through a fibre optic cable that has a series of periodic reflective elements embedded along its length. As the body’s vital parameters change, such as strain or pressure, the grating’s reflection spectrum shifts. These shifts are detected by the sensor and transmitted to the microcontroller for analysis. The microcontroller interprets the data to assess the user’s vital signs, including heart rate and respiratory patterns. If any abnormalities are detected, the sensor triggers the microcontroller to send real-time alerts to the computing unit accessed by a concerned caretaker of the user.

[0048] An electronic nozzle 106 attached to a chamber 107 that is installed at side potion of the body 101 and containing a soothing scent. The chamber 107 is configured to release the scent continuously during use. The microcontroller, upon activation, regulates the electronic nozzle 106 to dispense the soothing scent in a controlled and consistent manner. This function is intended to create a calming atmosphere, thereby assisting the user in relaxing and facilitating the process of falling asleep more easily. The continuous release of the scent is designed to promote a more comfortable and restful sleep environment without requiring user intervention.

[0049] The electronic nozzle 106 works by utilizing electrical energy to automize the flow of soothing scent in a controlled flow pattern by converting the pressure energy of a fluid into kinetic energy. Upon actuation of nozzle 106 by the microcontroller, the electric motor or the pump pressurizes the incoming soothing scent, increasing its pressure significantly. High pressure enables the soothing scent to be sprayed out with a high force, thus continuously dispensing the soothing scent to create a calming atmosphere and help the user relax and fall asleep more easily.

[0050] The body 101 is integrated with multiple strategically positioned air pouches 110 along its surface. These pouches 110 are designed to monitor the user’s breathing pattern continuously. Upon detection of irregularities or abnormalities indicative of potential respiratory issues, such as sleep apnea, the air pouches 110 are activated by an inflating unit embedded within the body 101. This unit inflates and deflates the air pouches 110 in response to the irregularities in the breathing pattern, thereby aiding in maintaining the user’s proper respiratory function and contributing to the overall improvement of the sleep experience.

[0051] The inflating unit operates by receiving signals from the microcontroller, which monitors the user’s position and posture. Upon detecting an irregularity in the user’s body position, the microcontroller activates the inflating unit. The inflating unit consists of a motorized pump connected to the air pouches 110 within the body 101. The pump inflates the air pouches 110 by drawing air from a storage chamber 107, causing the pouches 110 to expand. Once the microcontroller determines that the user’s posture has been corrected or stabilized, the inflating unit deflates the pouches 110 by releasing the air, ensuring the user’s position is comfortably adjusted for optimal rest.

[0052] In an embodiment of the present invention the integrated EMG (Electromyography) sensor, identifies and analyzes muscle activity in specific areas affected by rotator cuff injuries. The EMG sensor detects electrical signals from the muscles, enabling the identification of muscle groups such as the rotator cuff tear section, including the scapula, sternoclavicular head, and sternocostal head. Additionally, the sensor is used to detect muscle activity in the rear section of the neck, specifically targeting muscles like the trapezius, splenius capitis, rhomboid minor, and rhomboid major. The data collected from these muscle groups is processed by the microcontroller to assess stress or strain levels, helping identify areas that may require therapeutic intervention.

[0053] In another embodiment of the present invention the vibration units integrated within the body 101 are designed to act based on the specific needs of each user. The actuation of these units follows a rhythmic pattern that is intended to provide soothing, pain-relieving vibrations. The microcontroller dynamically interacts with the data collected from the EMG sensor, which continuously monitors muscle activation levels. Based on the muscle activity detected by the EMG sensor, the microcontroller adjusts the intensity of the vibrations emitted by the vibrating units 103. This dynamic adjustment ensures that the vibration pattern and intensity are tailored to the user’s muscle condition, promoting effective relief and comfort in real-time.

[0054] In another embodiment of the present invention in the event that the user's head inadvertently moves into the pillow area, this movement will be detected by the integrated IR sensor and the imaging unit 102. Upon detection, the microcontroller will automatically deactivate the piezoelectric unit to prevent any discomfort or disruption. The microcontroller will then trigger the speaker unit to provide voice instructions to the user, guiding them to adjust their position on the pillow for optimal comfort. Once the user adopts the correct posture, the microcontroller will resume normal operation, ensuring continuous, uninterrupted functionality and comfort during use.

[0055] Moreover, a battery is associated with the device for powering up electrical and electronically operated components associated with the device and supplying a voltage to the components. The battery used herein is preferably a Lithium-ion battery which is a rechargeable unit that demands power supply after getting drained. The battery stores the electric current derived from an external source in the form of chemical energy, which when required by the electronic component of the device, derives the required power from the battery for proper functioning of the device.

[0056] In an embodiment the present invention works in the best manner, where the inflatable body 101 resembling shape of the pillow and fabricated with the layer of fur for providing comfortable experience to the user while the user uses the body 101 while sleeping or sitting or at relaxation state. The body 101 features indentations along edges, designed to cradle shoulder portion of the user. The artificial intelligence-based imaging unit 102 paired with the IR (Infrared) sensor monitor user’s body movements in real-time during sleep. In the event if the microcontroller detects any suboptimal posture, activates the EMG (Electromyography) sensor measure pain level and confirm whether pain or discomfort is present. Synchronously, plurality of vibrating units 103 provides haptic feedback to the user prompting the user to change positions during sleep, ensuring the user maintains the posture that minimizes muscle discomfort and promotes pain relief. Simultaneously, plurality of pressure sensors monitors and record pressure distribution and user’s sleep posture in view of determining areas of high pressure, indicative of muscle discomfort or strain, particularly in neck and shoulder regions. The pressure sensors work in conjunction with the EMG (electromyography) sensor to evaluate muscle stress and identify the stressed muscle areas. And the microcontroller regulates actuation of soft inflating motorized caster balls 104 that gently adjust user’s sleeping position and align with the ideal ergonomic posture. The caster balls 104 are arranged in specific patterns that align with key acupressure points on user’s body, configured to apply targeted pressure to pressure points to alleviate muscle tension, reduce pain, and promote relaxation. The Peltier unit coupled with the temperature sensor provide heating and cooling therapy via the silicon pouch present inside the body 101. Plurality of iris lids 108 release pain relief ointment stored in the vessel 109 only in case the microcontroller based on data collected from the EMG sensors, pressure sensors detect muscle stress or inflammation in user.

[0057] In continuation, the sensing module integrated with upper surface of the body 101 to monitor and detect chest wall movement during respiratory motion and brain wave activity of the user while sleeping. Further the microphone 105 monitors any unusual sounds produced by the user during sleep. Upon detecting unusual sounds indicative of the sleep disorder or breathing irregularities alert is directed to the authorized healthcare provider via the connected computing unit for allowing to review data in real time and decide whether further inspection or intervention is required. The FBG (Fiber Bragg Grating) sensor continuously monitor vital parameters and body metrics of the user in real-time. In case of detection of abnormalities, the microcontroller sends immediate alerts on the computing unit accessed by the concerned caretaker of the user. The electronic nozzle 106 attached with the chamber 107 stored with the soothing scent continuously dispenses the soothing scent to create the calming atmosphere and help the user relax and fall asleep more easily. Furthermore, the body 101 is equipped with multiple air pouches 110 strategically placed along surface. And If breathing pattern of user is found to be irregular or indicative of potential issues, such as sleep apnea, the air pouches 110 are inflated and deflated by inflating unit in response to detected irregularities, helping the user to maintain proper respiratory function.

[0058] 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 cushioning and massaging device, comprising:

i) an inflatable body 101 resembling shape of a pillow and fabricated with a layer of fur for providing comfortable experience to a user while said user uses said body 101 during resting/ relaxation, wherein said body 101 features indentations along edges, designed to cradle shoulder portion of said user;
ii) an artificial intelligence-based imaging unit 102 installed on said body 101 and paired with an IR (Infrared) sensor embedded with said body 101 to monitor user’s body movements in real-time during sleep, wherein an inbuilt microcontroller upon detecting any suboptimal posture, activates an EMG (Electromyography) sensor integrated with said body 101 to measure pain level and confirm whether pain or discomfort is present;
iii) plurality of vibrating units 103 installed on said body 101 in a grid-like structure that is actuated by said microcontroller to provide haptic feedback to said user prompting said user to change positions during sleep, ensuring said user maintains a posture that minimizes muscle discomfort and promotes pain relief;
iv) plurality of pressure sensors integrated within said body 101 to monitor and record pressure distribution and user’s sleep posture, in view of determining areas of high pressure, indicative of muscle discomfort or strain, particularly in neck and shoulder regions, wherein said pressure sensors works in conjunction with said EMG (electromyography) sensor to evaluate muscle stress and identify the stressed muscle areas, and accordingly said microcontroller regulates actuation of soft inflating motorized caster balls 104 installed on outer surface of said body 101 to gently adjust user’s sleeping position and align with an ideal ergonomic posture;
v) a sensing module integrated with upper surface of said body 101 to monitor and detect chest wall movement during respiratory motion and brain wave activity of said user while sleeping, wherein said microcontroller combines both physiological parameters to estimate a comprehensive sleep analysis, and said microcontroller uses this data to provide insights into user’s sleep health, particularly focusing on amount of time spent in deep sleep, over a computing unit accessed by said user, allowing said user to track sleep quality and make necessary adjustments to improve sleep habits;
vi) a microphone 105 integrated with said body 101 to monitor any unusual sounds produced by said user during sleep, wherein said microcontroller upon detecting unusual sounds indicative of a sleep disorder or breathing irregularities, an alert is directed to an authorized healthcare provider via a connected computing unit, allowing to review data in real time and decide whether further inspection or intervention is required; and
vii) a FBG (Fiber Bragg Grating) sensor embedded with said body 101 to continuously monitor vital parameters and body metrics of said user in real-time, wherein in case of detection of abnormalities said microcontroller sends immediate alerts on a computing unit accessed by a concerned caretaker of said user.

2) The device as claimed in claim 1, wherein an electronic nozzle 106 is attached with a chamber 107 stored with a soothing scent and configured at said body 101, that is activated by said microcontroller for continuously dispensing said soothing scent to create a calming atmosphere and help said user relax and fall asleep more easily.

3) The device as claimed in claim 1, wherein said caster balls 104 are arranged in specific patterns that align with key acupressure points on user’s body, configured to apply targeted pressure to pressure points to alleviate muscle tension, reduce pain, and promote relaxation.

4) The device as claimed in claim 1, wherein a Peltier unit is integrated with said body 101, coupled with a temperature sensor embedded on said body 101, to provide heating and cooling therapy via a silicon pouch present inside said body 101.

5) The device as claimed in claim 1, wherein multiple iris lids 108 are integrated on said body 101 that is actuated by said microcontroller to release pain relief ointment stored in a vessel 109 provided inside said body 101, only in case said microcontroller based on data collected from said EMG sensors, pressure sensors detects muscle stress or inflammation in user.

6) The device as claimed in claim 1, wherein said body 101 is equipped with multiple air pouches 110 which are strategically placed along surface, wherein if breathing pattern of user is found to be irregular or indicative of potential issues, such as sleep apnea, said air pouches 110 are inflated by an inflating unit provided on said body 101, inflating and deflating in response to detected irregularities, helping said user to maintain proper respiratory function.

7) 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 .

8) The device as claimed in claim 1 wherein said inflatable body 101 is supporting the user while sleeping or sitting or at relaxation state.