Description:FIELD OF THE INVENTION

[0001] The present invention relates to a multi-mode neck therapy assistive device that offers customized neck support by adjusting the device to the user's neck dimensions for ensuring optimal fit, alignment, and stability. Additionally, the proposed device adapts to individual needs for addressing areas of injury or discomfort, preventing unnecessary pressure, and enhancing overall comfort during use.

BACKGROUND OF THE INVENTION

[0002] Neck pain is one of the most prevalent musculoskeletal complaints, affecting millions of people worldwide due to factors like poor posture, long periods of sitting, stress, accidents, or degenerative diseases. Traditional treatments often involve physical therapy, medication, heat or cold packs, and manual massage, which provide temporary relief but often fail to address the root causes or offer long-term, sustained support. The lack of individualized care in many existing therapies has left a gap for patients who require personalized, adaptive treatment that not only targets the pain but also provides dynamic, ongoing relief as their condition fluctuates.

[0003] Conventional methods for managing neck pain typically rely on passive treatments like foam or memory foam pillows, which provide basic support but lack the ability to adjust to the user’s specific needs. These passive devices often fail to distribute pressure evenly, which lead to additional discomfort, particularly during extended use. Other methods, such as hot and cold compresses, offer temporary relief but do not provide targeted, continuous treatment. Moreover, traditional therapeutic devices do not account for variations in posture, activity levels, or the user’s unique body mechanics. Furthermore, the reliance on manual, human-driven adjustments, like massage or physical therapy, often limits the consistency and availability of care, particularly for individuals with busy schedules or limited access to healthcare professionals. These drawbacks highlight the need for a more, personalized, and self-regulating therapy that adapts to the user’s body, offers continuous support, and provides a comprehensive approach to neck pain management.

[0004] US8613690B1 discloses about an invention that has a neck therapy device adapted to exercise a user's neck is described. The neck therapy device includes a headpiece on which resides a plurality of loops, and through which a strap extends. The strap is typically elastic. The headpiece includes a band portion adapted to encircle a user's head like a headband, extending across the user's forehead and back of head. A user typically grasps ends of the strap in order to modulate neck movement.

[0005] US5441479A discloses abut an invention that has a cervical traction device comprises: a body including a shoulder portion, a head portion and a bellows which extends substantially across the width and height of the body between and connected to the head portion and to the shoulder portion and acting against and between substantially the full inner end surface of the head portion and the full inner end surface of the shoulder portion. The bellows, the shoulder portion and the head portion have aligned U-shaped openings therein adapted to receive a patient's neck. A hand operated air pump is connected to the bellows for pumping air into the bellows and for relieving or pumping air out of the bellows.

[0006] Conventionally, many methods are available for providing neck therapy to users. However, the cited invention lacks providing long-term, effective solutions that adapt to the user's specific needs. Many traditional treatments are either static, offering only temporary relief, or are not personalized to the individual’s unique anatomical and medical profile. These methods do not adjust dynamically to changing conditions such as posture, activity level, or varying pain intensities, limiting their ability to address the root causes of discomfort.

[0007] In order to overcome the aforementioned drawbacks, there exists a need in the art to develop a device that requires to be capable of providing continuous, personalized, and adaptive neck therapy. Such a device also needs to be able to adjust to the user's specific physical dimensions and therapeutic needs, offering real-time pain relief and support. Additionally, the developed device should be capable of responding to environmental factors, such as sweat or posture changes, to optimize comfort and effectiveness.

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 providing personalized support and comfort for users by adjusting the fit of the device based on the individual dimensions of their neck for ensuring optimal alignment and stability.

[0010] Another object of the present invention is to develop a device that is capable of detecting and managing neck injuries by automatically adjusting the device to prevent undue pressure on injured areas, thereby promoting healing while offering secure and comfortable support.

[0011] Another object of the present invention is to develop a device that is capable of enhancing breathability and comfort by regulating airflow based on sweat detection in view of ensuring that the user experiences a more comfortable and breathable environment during use.

[0012] Another object of the present invention is to develop a device that is capable of delivering personalized therapeutic treatment based on the user’s medical history, including past injuries and health conditions for ensuring effective pain management through targeted therapy.

[0013] Another object of the present invention is to develop a device that is capable of providing customized pain relief by therapy that stimulates endorphin release, thereby targeting specific pain points in the neck and reducing discomfort.

[0014] Another object of the present invention is to develop a device that is capable of promoting muscle relaxation and improve blood circulation by different therapies which are customized to the user’s specific pain levels or muscle stiffness, thus aiding in recovery and reducing tension.

[0015] Yet another object of the present invention is to develop a device that is capable of providing heat therapy for muscle tension relief, ensuring safe, consistent heating and uniform heat distribution to help alleviate muscle stiffness and improve overall neck flexibility, particularly for users with chronic pain.

[0016] 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

[0017] The present invention relates to a multi-mode neck therapy assistive device that provides personalized therapeutic relief through a variety of modalities which are customized to the user’s specific pain, muscle stiffness, or injury as informed by the user’s medical history and real-time activity patterns, ensuring effective and precise treatment.

[0018] According to an embodiment of the present invention, a multi-mode neck therapy assistive device, comprising a cylindrical wearable frame made of vertically arranged pneumatic rods, positioned between rings, and covered in stretchable fabric. A semi-circular plate supports the user's chin to stabilize the neck and AI-based imaging unit and processor to capture and analyze images of the user’s neck, determining dimensions for a custom fit. An inbuilt microcontroller adjusts the frame size using inflatable members, which provide a secure grip and comfort while detecting neck injuries via the imaging unit. The frame features iris apertures to regulate airflow based on sweat detection through a galvanic skin response (GSR) sensor, ensuring breathability and comfort. Detachable electrodes allow for transcutaneous electrical nerve stimulation (TENS) therapy, while a vibrating unit provides adjustable frequencies to relieve pain and stiffness. A medicine dispensing chamber, activated via voice command, delivers targeted relief gels to specific areas, and heating pads with a thermostat provide heat therapy to reduce muscle tension. The device also includes an AI camera module mounted on an extendable pole for environmental hazard detection, pressure sensors to adjust the cushion pads for comfort, and a battery to power the components.

[0019] 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

[0020] 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 multi-mode neck therapy assistive device; and
Figure 2 illustrates an inner view of the proposed device.

DETAILED DESCRIPTION OF THE INVENTION

[0021] 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.

[0022] 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.

[0023] 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.

[0024] The present invention relates to a multi-mode neck therapy assistive device that improve the user’s comfort by automatically adjusting the fit of the device based on environmental factors such as sweat detection, promoting breathability and ensuring a comfortable experience and offers heat therapy to alleviate muscle tension and enhance flexibility, particularly for individuals with chronic neck pain.

[0025] Referring to Figure 1 and 2, an isometric view of a multi-mode neck therapy assistive device and an inner view of the proposed device are illustrated, respectively, comprising a cylindrical wearable frame 101 constructed with vertically arranged pneumatic rods 201, a pair of rings 102, covered with a stretchable fabric 103, a semi-circular plate 104 is installed at upper front portion, an artificial intelligence-based imaging unit 202 installed in the frame 101, plurality of inflatable members 105 arranged on inner sides of the frame 101, plurality of iris apertures 106 assembled on outer portion of the frame 101, plurality of small electrodes 203 detachably attached to inner periphery of the frame 101, a vibrating unit 204 installed on a semi-circular slider 205 positioned inside the frame 101, a medicine dispensing chamber 206 integrated into the frame 101, connected to multiple nozzles 207, a microphone 208 integrated in the frame 101, plurality of heating pads 209 arranged along inner surface of the frame 101, a AI camera module 107 is mounted on an extendable pole 108 and a speaker 109 installed on the frame 101.

[0026] The device disclosed herein includes a cylindrical wearable frame 101 developed to be comfortably worn around the neck portion of the user. The frame 101 is constructed with vertically arranged pneumatic rods 201 that are positioned in a circular manner. These rods 201 are placed between a pair of rings 102, which help maintain their structure and ensure the proper positioning of the pneumatic rods 201 around the user's neck. The structure adapts to the user’s neck while ensuring comfort and stability. The frame 101 is also covered with a stretchable fabric 103, which ensures that the device fits snugly against the user’s neck while providing a comfortable feel against the skin. The elasticity of the fabric 103 also helps in maintaining the frame's shape while accommodating different neck sizes and contours. The fabric's stretchability allows the frame 101 to expand or contract as needed, especially when the pneumatic rods 201 are activated, which enables the device to adapt to various neck dimensions for ensuring optimal fit and comfort.

[0027] At the upper front portion of the cylindrical frame 101, a semi-circular plate 104 is installed to support the user’s chin. This plate 104 acts as a stabilization feature that helps align and stabilize the neck. When worn, the plate 104 provides additional support to the chin for helping to keep the neck in a stable, neutral position. This is particularly important in ensuring that the user’s neck does not experience strain or discomfort from improper positioning. The semi-circular shape of the plate 104 is specifically developed to conform to the natural curvature of the chin and the front of the neck, allowing it to provide ergonomic support. By supporting the chin, the plate 104 helps in reducing the amount of stress placed on the neck muscles, preventing the head from tilting forward or backward, which lead to discomfort or injury over time. This also ensures that the neck is held in a more neutral position, which is beneficial for users who suffer from neck pain, stiffness, or other related conditions.

[0028] An artificial intelligence-based imaging unit 202 is integrated into the wearable frame 101 for ensuring that the device provides a customized, snug fit for each user, based on the unique dimensions of their neck. Positioned within the frame 101, the imaging unit 202 is responsible for capturing multiple images of the user's neck region. These images are then processed using AI (Artificial Intelligence) protocol that analyze the shape, size, and contours of the user’s neck to determine precise measurements.

[0029] The imaging unit 202 utilizes high-resolution camera paired with imaging technologies, to create a comprehensive, 3D map of the user's neck. The AI processes this data in real-time, recognizing features such as the width, circumference, and curvature of the neck. The imaging unit 202 detect the position of the user's neck relative to the surrounding frame 101 for ensuring that the frame 101 align optimally for therapeutic efficacy and comfort. Once the imaging unit 202 captures and processes these detailed images, the data is transmitted to an inbuilt microcontroller that acts as the central processing unit of the device. The microcontroller then uses the processed image data to determine the exact dimensions of the user's neck and calculates the optimal adjustments needed for a perfect fit by taking into account the specific measurements of the neck’s circumference, height, and width, and then activates the pneumatic rods 201 embedded in the cylindrical frame 101. These rods 201 are adjustable and extend/retract by pneumatic unit and are used to modify the size of the frame 101, expanding or contracting to accommodate the user's individual neck shape.

[0030] The AI imaging unit 202 continually adapts the fit, even during use, by periodically re-capturing images of the neck to monitor any subtle changes, such as shifts in posture or swelling. If there are any significant changes in the neck's size or shape due to user movement, the microcontroller dynamically adjusts the frame 101 again to maintain a secure and personalized fit. This ensures that the device provides consistent support throughout its use, minimizing the risk of strain or discomfort.

[0031] Plurality of inflatable members 105 are arranged along the inner sides of the frame 101 to provide a dynamic, adjustable grip around the user’s neck, offering both support and comfort during use. The inflatable member ensures that the frame 101 maintains a secure fit while simultaneously adapting to the user’s neck shape and any variations in pressure or tension caused by external factors, such as movement or the user’s specific therapeutic needs. These inflatable members 105 work in conjunction with pneumatic rods 201 and AI-based imaging unit 202 to create a customized and personalized fit for the user.

[0032] The inflatable members 105 are composed of air bladders that are integrated into the inner perimeter of the frame 101. These bladders inflated or deflated based on the user’s neck dimensions, ensuring that the device fits securely but not too tightly. The air pressure inside these bladders is adjusted to create a soft but firm grip around the neck, providing an even distribution of pressure to support the head and neck, while also maintaining the device’s overall comfort. This adjustable pressure allows the device to offer just the right amount of support for various situations, such as reducing neck strain or holding the neck in a more ergonomic position during therapeutic treatments.

[0033] As the imaging unit 202 continuously captures and processes images of the user’s neck, the imaging unit 202 is capable of detecting potential injuries, bruises, swelling, or areas of the neck that are inflamed or sensitive. This include areas where the user has experienced prior trauma, or where the muscles are tense or stiff due to overuse or strain. Once the imaging unit 202 identifies an injury or sensitive area, the data is transmitted to the microcontroller, which then interprets this information. The microcontroller is pre-fed to recognize the specific location and nature of the injury based on the processed images and make informed decisions about how to adjust the inflation of the inflatable members 105 surrounding that area. Specifically, the microcontroller regulates the inflation of the air bladders to create a hollow space around the detected injury, thus reducing the amount of pressure applied to that particular region.

[0034] By creating this hollow space around the injured area, the device prevents unnecessary discomfort or exacerbation of the injury. This is especially beneficial for individuals with neck pain, muscle strain, or soft tissue injuries such as sprains or contusions. This allows the device to customize the pressure distribution according to the user's unique needs, ensuring that sensitive or injured areas are not subjected to additional force that hinder healing or cause further irritation. For example, if the imaging unit 202 detects inflammation or a tender spot on the side or back of the neck, the microcontroller triggers the inflatable members 105 on the opposite side of the injury to inflate slightly more, while simultaneously deflating or reducing the pressure in the area where the injury is located.

[0035] Plurality of iris apertures 106 are assembled on the outer portion of the frame 101 to regulate the airflow around the user's neck, ensuring that the device remains comfortable, breathable, and conducive to prolonged wear. The iris apertures 106 function similarly to the adjustable pupil in an eye, expanding and contracting based on specific environmental or physiological conditions. This adaptive airflow is crucial in ensuring that the user’s neck area remains dry and cool, reducing discomfort that arise due to excessive sweating during extended use of the device.

[0036] The iris apertures 106 are placed along the outer surface of the wearable frame 101, where they are positioned to control the flow of air in the areas most susceptible to sweating. These apertures 106 are equipped with a mechanism that allows them to open and close automatically based on real-time feedback which helps ensure that the user’s neck area remains well-ventilated, even during periods of intense physical activity, heat, or during therapeutic sessions where the device is worn for extended periods.

[0037] The functionality of these iris apertures 106 is intricately tied to the galvanic skin response (GSR) sensor embedded in the frame 101. The GSR sensor is a biosensor that measures the user’s skin conductance which is directly related to sweat production. The amount of sweat on the skin varies depending on the user’s emotional state, physical exertion, and external temperature, all of which cause discomfort if left unaddressed. The GSR sensor detects even slight increases in sweat production, which signals that the body is becoming overheated or that the user is under stress or physical strain.

[0038] Upon detecting excessive sweating through the GSR sensor, the microcontroller processes the information from the sensor, determining whether the sweating level is significant enough to warrant a response from the device. If it detects that the sweat level exceeds a predefined threshold, the microcontroller actuates the iris apertures 106, causing them to open slightly. This action increases the airflow around the neck area, which helps to evaporate the sweat and cool down the skin, improving comfort by maintaining a more consistent body temperature. The increased airflow also helps reduce moisture buildup, which otherwise lead to skin irritation, rashes, or an unpleasant sensation of dampness.

[0039] In addition to regulating airflow through the iris apertures 106, the microcontroller simultaneously adjusts the size of the frame 101 to optimize the overall fit and enhance breathability. If the GSR sensor detects excessive sweat, the microcontroller slightly loosens the frame 101, reducing pressure around the neck area and promoting better airflow. Conversely, if the microcontroller detects minimal sweating, it tightens the frame 101 slightly to ensure that the neck remains adequately supported.

[0040] Multiple small electrodes 203 are detachably attached to the inner periphery of the wearable frame 101 that aids in enabling Transcutaneous Electrical Nerve Stimulation (TENS) therapy, which is a well-established non-invasive technique used to alleviate pain and promote muscle relaxation. The electrodes 203 are placed on the inner surface of the frame 101, in direct contact with the user's neck, so that they deliver targeted electrical impulses to the nerve endings in the area of discomfort or injury. The detachable nature of these electrodes 203 allows for easy replacement, maintenance, and customization based on the user’s specific therapeutic needs.

[0041] The electrodes 203 are controlled by microcontroller, which is responsible for retrieving and processing relevant medical data from the user’s personal medical records stored in a linked database. This database either be stored locally or accessed remotely via secure cloud storage, and contains detailed information about the user’s health history, past injuries, and ongoing conditions. The microcontroller interfaces with this database to customize the therapy to the user’s specific needs, ensuring that the electrical impulses delivered by the electrodes 203 are calibrated for maximum therapeutic benefit. By evaluating a user’s medical records, the microcontroller adjusts the intensity, frequency, duration, and placement of the electrical stimulation, depending on the individual’s health condition and the nature of their neck pain.

[0042] The TENS therapy provides pain relief by stimulating the release of endorphins, the body’s natural painkillers. When electrical pulses are applied through the electrodes 203, they disrupt the transmission of pain signals to the brain, offering immediate and targeted relief from acute or chronic pain. TENS therapy helps to increase blood flow, reduce inflammation, and promote muscle relaxation, which is particularly beneficial for individuals with neck pain resulting from muscle tension, stiffness, or injury. The microcontroller to modulate the electrical stimulation parameters according to the user’s personalized therapeutic profile ensures that the therapy is not only effective but also safe and comfortable.

[0043] For example, the device adjusts the intensity of the stimulation based on whether the user is experiencing mild discomfort or significant pain, ensuring that the electrical pulses are strong enough to offer relief without causing additional discomfort or irritation. The frequency of the pulses is fine-tuned to address specific types of pain, such as sharp, stabbing pain or dull, chronic aching. In this way, the therapy becomes personalized to the user’s condition and their pain tolerance.

[0044] In addition to providing pain relief, the device integrates an activity tracking and analysis. As the device continuously monitors the user’s daily activities, the microcontroller records patterns of movement, strain, or discomfort that the user experiences throughout the day. This real-time monitoring enables the device to adjust the therapy modes based on the user's level of physical exertion or strain. For example, if the device detects that the user has been engaged in activities that put stress on the neck, such as prolonged sitting or lifting, the microcontroller automatically increases the intensity of the TENS therapy to provide more substantial pain relief. Conversely, if the device detects that the user has not been active or is in a relaxed state, the intensity is reduced to maintain comfort.

[0045] This activity-based feedback loop is particularly beneficial for individuals with chronic neck pain or degenerative conditions, as it enables the device to offer on-demand relief when the user needs it most, without requiring them to manually adjust the settings. The ability to analyze activity patterns ensures that the therapy is responsive to the user’s lifestyle and daily demands. If, for example, the user consistently experiences discomfort after physical exertion, the device anticipates these episodes and initiate therapeutic measures preemptively to mitigate pain before it becomes severe.

[0046] The integration of medical record data with the therapy functions also allows for the potential of long-term monitoring and progress tracking. As the user continues to use the device, their response to various therapy parameters is stored and analyzed over time, allowing healthcare providers to adjust treatment plans or recommend new therapeutic approaches based on longitudinal data.

[0047] A vibrating unit 204 is installed on a semi-circular slider 205 within the frame 101 to provide therapeutic vibration therapy aimed at alleviating muscle stiffness, pain, and promoting blood circulation in the neck area, where tension and discomfort often manifest due to poor posture, repetitive strain, or injury. The vibrating unit 204 is carefully developed to ensure that this is customized based on the user’s specific needs and customized to address the intensity and type of neck pain or stiffness that the individual is experiencing. The semi-circular slider 205 provides a dynamic motion, allowing the vibrating unit 204 to move or oscillate gently across the neck, focusing on areas that require more attention or targeted therapy. This oscillation is controlled by the microcontroller which uses data from various inputs, such as the user’s health condition, the severity of pain, or stiffness levels, to adjust the vibration’s frequency and intensity, ensuring the therapy is personalized and effective.

[0048] The ability to adjust vibration frequencies and intensities is crucial in ensuring the therapy is suited to the user’s specific needs. Different pain and stiffness conditions in the neck require different vibration patterns to be effective. For example, low-frequency vibrations are typically used to promote deep muscle relaxation and alleviate chronic stiffness, while high-frequency vibrations are effective for reducing acute pain and stimulating blood flow. The device allows the user to switch between these settings based on the level of discomfort being experienced or the nature of the condition. By adjusting the intensity, the device varies the power of the vibrations to accommodate a wide range of needs such as mild for general relaxation or higher for more severe muscle tension.

[0049] This semi-circular motion mimics a gentle massaging effect, where the vibrating unit 204 moves from one side of the neck to the other, addressing key points where stiffness, tension, or pain is concentrated. The oscillation ensures that the vibration therapy reaches multiple muscle groups across the neck area, especially around the cervical spine, trapezius muscles, and the suboccipital region such as areas commonly affected by muscle tightness or strain.

[0050] The vibrating unit 204 is actuated by the microcontroller, which moves the slider 205 back and forth over the neck area, adjusting its position depending on where relief is most needed. This oscillation is typically slow and rhythmic to avoid creating any discomfort or irritation. This is calibrated in such a way that it mimics the effect of a manual massage, with the vibration frequency and intensity regulated to ensure that the muscles are gently stimulated. This movement is developed to loosen up the muscles, reduce the buildup of lactic acid, and relieve any muscle knots that are contributing to the discomfort or stiffness.

[0051] The vibration unit is sometimes harsh or uncomfortable if applied directly to the skin, especially on sensitive areas such as the neck. To address this, the vibrating unit 204 is encased in a soft cushioned layer, which serves multiple purposes. First, the cushioned layer helps to distribute the pressure evenly across the neck, ensuring that the vibrations are applied in a manner that is both comfortable and effective. This cushion also protects the user’s skin from direct contact with the mechanical parts of the unit, reducing the potential for irritation or discomfort caused by friction. The cushioned layer also adds a layer of comfort by softening the overall feel of the vibration therapy. This is important for users who have sensitive skin or who are prone to experiencing discomfort from more aggressive massage techniques. The cushion ensures that the vibrations are delivered with just the right amount of softness and gentleness, making the therapy feel more like a soothing massage rather than a mechanical process.

[0052] A medicine dispensing chamber 206 is installed within the frame 101 for delivering targeted pain relief and treatment to specific areas of the user’s neck that are affected by discomfort, stiffness, or injury. This combines convenience, precision, and therapeutic efficacy by providing a means for the user to receive localized medication directly where they are needed, without the need for manual application or external assistance. This is particularly beneficial in scenarios where immediate, on-the-spot relief is required, or when the user find it difficult to reach or apply treatments to certain parts of their neck.

[0053] The chamber 206 is developed to store therapeutic gels, pain relief lotions, or other forms of topical treatments that are commonly used for managing neck pain, such as anti-inflammatory gels, muscle relaxants, or heating creams. The chamber 206 is positioned within the frame 101, ensuring that this is conveniently accessed by the internal dispensing without interfering with the comfort or functionality of the device. The chamber 206 is connected to multiple nozzles 207 arranged around the frame 101, which are specifically developed to deliver the medication to particular areas of the user’s neck. These nozzles 207 are typically distributed in a manner that allows them to target key zones of the neck, such as the cervical spine, trapezius muscles, or suboccipital region, the area’s most prone to tension, pain, and stiffness. Each nozzle is linked to a precise dispensing method that release the gel or cream in a controlled and measured manner, ensuring that the right amount of product is delivered exactly where it is needed.

[0054] The frame 101 is equipped with a microphone 208 which allows users to interact with the device through voice commands that enhances the hands-free operation of the device, allowing users to issue specific instructions to the device without needing to physically manipulate controls or buttons. For example, when the user experiences neck pain in a particular region or notices tension in a specific part of their neck, they use a speech command such as "dispense gel on left side of neck" or "apply relief cream on lower neck area." The speech recognition, powered by the embedded processor, interprets the voice input and sends the appropriate commands to the microcontroller, which in turn activates the corresponding nozzle that delivers the therapeutic gel or cream to the specified location. This immediate response ensures that the user’s discomfort is addressed swiftly and conveniently, without the need for any manual intervention.

[0055] Once the user provides a command, the microcontroller processes this input by cross-referencing the speech command with the operational database. This then then identifies the specific location where the therapeutic product needs to be dispensed. The microcontroller controls the activation of the nozzles 207 by coordinating with the medicine dispensing chamber 206 to release the correct amount of gel or cream. The precision with which the device operates ensures that the user receives accurate and consistent application of the product, avoiding both under-application and over-application. The dispensing process itself is facilitated by a vessel that holds the therapeutic product, which is connected to the nozzles 207 via a series of channels. The vessel is typically a sealed container that maintains the integrity and freshness of the gel or cream inside. This is carefully developed to prevent leakage and contamination while ensuring easy and smooth dispensing when activated. The microcontroller monitors the amount of gel dispensed to ensure proper dosage for each application, delivering relief without waste or inefficiency.

[0056] In addition to controlling the nozzles 207, the microcontroller is equipped with the ability to adjust the flow rate of the gel or cream, depending on the user’s needs. For example, if the user requests a larger amount of product to be applied (such as for a particularly painful or large area), the microcontroller regulate the flow accordingly, ensuring that the user’s request is met. Alternatively, if the user only requires a small amount for a minor discomfort, the microcontroller reduce the dispensing flow to provide just the right amount of relief.

[0057] The benefit of immediate, localized relief is twofold as this offers instant comfort to the user by addressing pain or discomfort quickly, without having to wait for a professional to apply the treatment or rely on other external methods. The ability to deliver targeted treatment also improve the efficacy of the therapeutic products, ensuring that the active ingredients work in a focused manner to reduce inflammation, promote muscle relaxation, or alleviate pain, as needed.

[0058] Multiple heating pads 209 are arranged along the inner surface of the frame 101, with careful attention to the anatomy of the neck region. The neck is composed of muscles that easily become tense due to various factors such as poor posture, stress, prolonged sitting, or muscle overuse. By positioning the heating pads 209 along the inner surface of the frame 101, the device targets these key muscle groups that are most susceptible to discomfort and stiffness. These areas include the upper trapezius, cervical spine, suboccipital region, and levator scapulae, which are frequently affected by muscle tension and pain. Each heating pad ensures that they conform to the natural contours of the user’s neck. This arrangement allows for direct heat application to the muscle groups in need, enhancing the therapeutic effects by allowing the heat to penetrate deep into the muscles. Heat is particularly effective for relaxing tight muscles, improving flexibility, and increasing blood flow, all of which contribute to relieving pain and discomfort.

[0059] The material used in the heating pads 209 is developed to distribute heat evenly, ensuring that there are no hot spots or areas of excessive warmth, which cause discomfort or skin irritation. The pads 209 are lightweight and flexible, ensuring that the user does not feel weighed down or restricted while using the device. The heating pads 209 are also thin enough to be comfortable for prolonged wear, without causing excessive bulk that interfere with the device’s other functionalities. The activation of the heating pads 209 is controlled by the microcontroller, which is linked to an integrated thermostat and temperature sensors embedded within the frame 101. These work together to ensure that the heating pads 209 operate at a consistent temperature while avoiding overheating, which cause harm or discomfort to the user. The thermostat is responsible for maintaining the desired temperature set by the user into the device based on their therapeutic needs. The microcontroller constantly monitors the output of the heating pads 209 through the temperature sensors, adjusting the heat levels to ensure that the device operates within the safe range for optimal therapeutic effect.

[0060] In addition to regulating the overall temperature of the heating pads 209, the microcontroller ensures that the device maintains a consistent level of heat across the entire neck area. This is particularly important because uneven heating lead to ineffective treatment or discomfort. The temperature sensors provide real-time feedback to the microcontroller, which increase or decrease the heat output to ensure the pads 209 remain within the therapeutic temperature range, usually between 104°F and 113°F (40°C - 45°C), the typical range recommended for safe and effective heat therapy. This regulation helps to prevent skin burns or excessive heat buildup, making the device safe for prolonged use.

[0061] To further enhance the effectiveness of the heat therapy, the heating pads 209 are equipped with a mechanism for synchronized inflation. This mechanism works in conjunction with the pneumatic rods 201 and inflatable members 105. When activated, the heating pads 209 are not only heated but also inflated to provide a uniform distribution of heat across the user's neck. The inflation process helps to ensure that the heat is applied evenly to all muscle groups, particularly in areas where tension tends to build up, such as around the shoulders, upper back, and upper trapezius. The synchronized inflation serves multiple purposes. First, this ensures that the heating pads 209 conform closely to the contours of the neck and upper back, creating direct contact with the skin and muscles. This improves the effectiveness of the heat therapy, as heat is most beneficial when it directly penetrates the muscle tissue. Second, inflation helps to distribute the heat uniformly across the affected areas, ensuring that no section of the neck is too hot or too cold, which result in uneven therapeutic effects. By providing a cushioned layer of inflation, the pads 209 also enhance comfort, ensuring that the user does not experience any discomfort from the pressure of the pads 209.

[0062] An AI camera module 107 mounted on an extendable pole 108 serves a dual function of enhancing situational awareness and providing a layer of safety monitoring for the user. This module 107 is developed to detect and analyze the environment around the user in real-time, utilizing computer vision and AI protocol to identify potential hazards or obstacles that pose a risk to the user’s safety. These hazards include objects in the user’s path, obstacles that cause tripping, or sudden changes in environmental conditions, such as approaching vehicles or people, which is dangerous if the user is unaware. The camera continuously captures video data and sends it to the processor in the device, where AI protocols process the images to recognize specific dangers. The camera’s ability to detect these hazards is augmented by its extendable design, which allows it to be positioned at an optimal height or angle for capturing a broader view of the environment, enabling real-time hazard detection from various perspectives.

[0063] Once a potential hazard is identified, the microcontroller triggers an appropriate response by activating a speaker 109 integrated into the frame 101. This speaker 109 delivers auditory feedback or corrective instructions to the user, alerting them to the detected danger and providing guidance on how to avoid it, such as asking them to step aside, slow down, or change direction. For example, if the AI camera detects a person walking too close or an object in the user's path, this notifies the user to adjust their movements or position. In parallel, the video feed from the camera is streamed wirelessly to a computing unit connected to the microcontroller, providing the user or a caregiver with enhanced situational awareness. This stream allows the user to see their surroundings in real time and receive an augmented view of their environment, which is particularly useful for individuals with limited vision or mobility.

[0064] Multiple pressure sensors are incorporated into the outer portion of the frame 101 to detect areas under pressure when the user utilizes the device in a neck pillow mode. These sensors are placed along the outer surface of the frame 101 to monitor the distribution of pressure across the user's neck and surrounding areas, especially during periods when the device is providing rest or support while the user is reclining or lying down. The sensors work by continuously measuring the level of force exerted on specific parts of the user's neck and shoulder area, which help identify areas where the pressure might be too high, leading to discomfort or potential muscle strain. The data gathered from these sensors is then sent to the microcontroller for further analysis, enabling the device to respond in real-time to any discomfort or misalignment that arise.

[0065] Once the pressure data is processed, the microcontroller uses this information to adjust cushion pads accordingly, ensuring that the frame 101 maintains an optimal fit and pressure distribution. The microcontroller regulates the inflation of the cushion pads, inflating or deflating them to either relieve excess pressure or provide additional support where necessary. This dynamic adjustment guarantees that the device offers personalized comfort to the user, making sure that no particular area of the neck or shoulders receives excessive pressure for too long.

[0066] 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 electrodes 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.

[0067] The present invention works best in the following manner, where the user upon wearing the cylindrical frame 101, the AI-based imaging unit 202 captures multiple images of the user's neck and processes them via paired processor to determine the user's neck dimensions. The microcontroller then activates the pneumatic rods 201 to adjust the frame’s size for a snug fit. Inflatable members 105 inside the frame 101 are inflated to provide secure neck support, with specific areas receiving more inflation if injuries are detected by the imaging unit 202, creating hollow space to avoid pressure on the injury. Simultaneously, the galvanic skin response (GSR) sensor detects excessive sweat, prompting the microcontroller to regulate airflow by adjusting the frame’s tightness for enhanced comfort. Small electrodes 203, pre-fed with the user’s medical history stored in a linked database, deliver personalized TENS therapy for pain relief. The vibrating unit 204 inside the frame 101 adjusts frequency and intensity to alleviate muscle stiffness, while the medicine dispensing chamber 206, activated by voice command through built-in microphone 208, delivers relief gels to targeted areas. Heating pads 209 provide therapeutic heat for muscle relaxation, with temperature and inflation adjustments ensuring even distribution.

[0068] 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 multi-mode neck therapy assistive device, comprising:
i) a cylindrical wearable frame 101 constructed with vertically arranged pneumatic rods 201 in a circular fashion, positioned between a pair of rings 102, and covered with a stretchable fabric 103, developed to be worn on a neck portion of a user, wherein a semi-circular plate 104 is installed at upper front portion for supporting said user’s chin and stabilize said neck, as per requirement;
ii) an artificial intelligence-based imaging unit 202 installed in said frame 101 and paired with a processor for capturing and processing multiple images of said user’s neck portion, respectively to determine dimensions of said user’s neck portion, based on which an inbuilt microcontroller activates said rods 201 to adjust size of said frame 101 for providing a snug and personalized fit for said user to ensure optimal comfort and support;
iii) plurality of inflatable members 105 arranged on inner sides of said frame 101 for inflating to provide a secured grip around said user’s neck, for offering support and comfort, wherein said imaging unit 202 detects any injuries present on said user’s neck, based on which said microcontroller regulates inflation of specific members 105 to create a hollow space around said injured area, thus preventing unnecessary pressure on said detected injury;
iv) plurality of iris apertures 106 assembled on outer portion of said frame 101 to regulate airflow with ability to open and close, based on detection of excessive sweat via a galvanic skin response (GSR) sensor embedded in said frame 101, wherein said microcontroller simultaneously adjusts size of said frame 101, to slightly loosen/tighten said frame 101, based on said sweat detection, thereby ensuring better breathability and comfort;
v) plurality of small electrodes 203 detachably attached to inner periphery of said frame 101, wherein said microcontroller retrieves said user’s medical records stored on a database linked with said microcontroller, to evaluate therapy parameters for said user personalized to said user’s medical records, including past injuries and health conditions based on which said microcontroller actuates said electrodes 203 for delivering transcutaneous electrical nerve stimulation (TENS) therapy, which stimulates endorphin release to reduce pain, for precisely targeting and modulating pain relief in said user’s neck, in accordance to said personalized therapeutic profile of said user;
vi) a vibrating unit 204 installed on a semi-circular slider 205 positioned inside said frame 101, wherein based on said evaluated therapy, said microcontroller actuates said slider 205 for oscillating said vibrating unit 204 over said neck portion, to alleviate muscle stiffness and promote blood circulation, wherein said vibrating unit 204 is covered with a cushioned layer for ensuring a comfortable vibrating therapy to said user’s neck;
vii) a medicine dispensing chamber 206 integrated into said frame 101, connected to multiple nozzles 207 that dispenses relief gels directly onto specific areas of said user’s neck, with user input via a speech command through a microphone 208 integrated in said frame 101, based on which said microcontroller actuates a corresponding nozzle to spray said gels stored in a vessel configured with said nozzle, onto said user-provided location to deliver targeted relief, thereby enabling immediate localized treatment of pain or injury; and
viii) plurality of heating pads 209 arranged along inner surface of said frame 101, for providing heat therapy to said user’s neck muscles, wherein said heating pads 209 are activated to alleviate muscle tensions, reduce stiffness and promote blood circulation, with temperature regulation provided by an integrated thermostat and temperature sensor to ensure safe and consistent heating, followed by synchronized inflation of said pads 209 to ensure said user’s neck receives uniform heat, thereby promoting relaxation and reliving neck muscle tension for individuals with reduced neck flexibility and chronic pain.

2) The device as claimed in claim 1, wherein an AI camera module 107 is mounted on an extendable pole 108, for detecting potential hazards in said user’s environment, based on which said microcontroller actuates a speaker 109 installed on said frame 101 to provide corrective action to said user, and said captured videos are continuously streamed on a computing unit wirelessly linked with said microcontroller for enhanced situational awareness of said user.

3) The device as claimed in claim 1, wherein plurality of pressure sensors is arranged on outer portion of said frame 101 for detecting areas under pressure during said user utilizes said frame 101 as a neck pillow, based on which said microcontroller regulates inflation of said cushion pads, accordingly to ensure provide optimal comfort and support for said user.

4) The device as claimed in claim 1, wherein said vibrating unit 204 is further configured to provide adjustable vibration frequencies and intensities, allowing said microcontroller to customize said therapy based on said user’s specific neck pain or stiffness levels.

5) The device as claimed in claim 1, wherein said database is further configured to store and analyse said user’s activity patterns, and to adjust therapy modes based on detected strain or discomfort caused by said user’s daily activities.

6) The device as claimed in claim 1, wherein a battery is configured with said device for providing a continuous power supply to electronically powered components associated with said device.