Description:FIELD OF THE INVENTION

[0001] The present invention relates to an interactive medicine dispenser system that is capable of managing and dispensing medications, monitoring user health conditions, analyzing emotional and physical states, providing personalized healthcare recommendations, and facilitating timely interventions through automated decision-making and remote communication capabilities.

BACKGROUND OF THE INVENTION

[0002] Managing medication, especially for individuals with chronic illnesses, elderly patients, or those with cognitive impairments, complex and prone to errors. Users often struggle with remembering dosage schedules, identifying the correct medication, and understanding side effects or interactions, leading to skipped doses or incorrect intake. Additionally, limited access to healthcare professionals, especially in remote or underserved areas, hinders timely medical advice. Emotional and mental health challenges, like stress or depression, go unnoticed without regular monitoring. Conventional dispensers lack adaptability, personalized feedback, and integration with health monitoring tools. Therefore, there is a pressing need for an interactive medicine dispenser that automates medication management, monitors user health in real time, and supports timely interventions to enhance treatment adherence and overall well-being.

[0003] Traditional medication management systems, such as pill organizers, alarm-based dispensers, or manual dosage charts, are widely used to help patients manage their prescriptions. However, these systems lack real-time health monitoring and personalization. Most do not account for changes in the user’s physical or emotional condition, cannot detect missed doses automatically, and offer no way to confirm if the correct medication was taken. They also provide no integration with medical databases or remote healthcare access. For visually impaired or physically challenged users, handling small pills or reading instructions are difficult. Moreover, these systems do not track medicine expiry or offer reminders for doctor consultations, making them ineffective for users with complex or evolving medical needs.

[0004] WO2013025520A2 discloses about a system and method for dispensing medication and a dispensing apparatus that comprises a plurality of compartments in an array within a housing, the compartments having respective lids, each of the lids being movable from a closed position to an open position, the respective lids each having a latch that secures the lid in a locked configuration in the closed position. The apparatus has an actuator mechanism that selectively unlocks the latch of each of the lids at a predetermined time so as to place the unlocked lid in an unlocked configuration that enables the lid to be moved to the open position. The compartments of the medication dispenser each receive a removable cup therein that is accessible when a respective of the lids associated therewith is in the open position. Other features, such as communication and messaging and/or audible/visual displays can also be provided in a system with or without the above-described locking mechanism.

[0005] US20130110283A1 discloses about a pill dispensing system that includes pill packages that can be used to dispense pills manually or with a dispenser system to provide enhanced functionality. The packages can be provided with information relating to the packaged pills or to the use of the packaged pills. By reading the information from the package, the dispenser system can know what is in the package, when it is to be taken and can understand and track inventory. The dispenser system provides reminders of when the pills should be taken. The dispenser system may have the ability to key a specific electronic device, such as a cell phone, to a specific user and the dispenser system may require the electronic device to be within proximity of the dispenser system before dispensing pills for that user.

[0006] Conventionally, many systems are available in market for medication dispensing, including basic pill organizers and programmable dispensers; however, they often lack real-time health monitoring, emotional assessment, integration with medical databases, and remote connectivity, limiting their effectiveness in ensuring personalized and responsive patient care.

[0007] In order to overcome the aforementioned drawbacks, there exists a need in the art to develop a system that is capable of automating medication management, monitoring real-time health parameters, assessing emotional well-being, and providing personalized medical support through integrated technologies and remote healthcare connectivity.

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 system that is capable of ensuring timely and accurate dispensing of medication by analyzing user’s health status, medical history, and scheduled dosage requirements.

[0010] Another object of the present invention is to develop a system that is capable of monitoring emotional and physical health indicators, interpret user responses, and deliver real-time support or guidance to improve overall health management and well-being.

[0011] Another object of the present invention is to develop a system that is capable of detecting early signs of medical emergencies or worsening conditions and automatically initiate appropriate action, including alerting healthcare professionals or recommending immediate medical attention.

[0012] Yet, another object of the present invention is to develop a system that is capable of enhancing medication safety by tracking drug details, identifying nearing expiry dates, and sending alerts to the user for proper medicine usage and timely replenishment.

[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 an interactive medicine dispenser system that is capable of monitoring user health, evaluating emotional and physical conditions, dispensing medications accurately based on real-time data, providing personalized health guidance, and facilitating timely medical interventions to improve overall patient care and safety.

[0015] According to an embodiment of the present invention, an interactive medicine dispenser system is comprising, a cuboidal structure mounted on Omni-directional wheels with telescopic rods, the cuboidal structure divided into multiple section for storing multiple types of medicines, each section adapted with two sliding lids to dispense a type of medicine through a dispensing gate, a small utensil placed on the platform for dispensing liquid medicines, a spray mounted on a telescopic arm and integrated on the cuboidal structure to spray pain-relieving medicine on a body area of a user, a medicine retrieval module, the medicine retrieval module includes first supporting rod and a second supporting rod, distal ends of the first and second supporting rods are integrated on the vertical walls of the cuboidal structure, each supporting rod includes ball-and-socket joints integrated in the middle portion of the supporting rods, a barcode/QR code scanner integrated with the cuboidal structure to scan each medicine strip for retrieving expiry dates of each medicine, if a medicine is nearing its expiration date, the system promptly notifies the user by sending an alert to their smartphone, an artificial intelligence (AI)-powered camera analyze facial expressions, body movements, and posture of the user, a fingerprint scanner integrated with a medical database; to track each user’s medical history, an IoT module enabling interaction with doctors for online consultations, a display is positioned on the front of the system to provide and receive information related to medications like details about the prescribed medicine, its dosage, and timing, a health parameter measuring platform is placed on the side portion of the cuboidal structure.

[0016] According to another embodiment of the present invention, the present system is further comprising, an expandable sitting/lying platform is positioned at the front bottom section of the cuboidal structure, offering comfortable support for users during treatment or health parameter checks, a microphone with integrated advanced voice recognition, enabling users to give verbal commands for dispensing medicine, a weather sensor communicatively coupled to an online database for gathering information from various sources to monitor and track the spread of diseases, a processing module for system functioning, a proximal end of one of the first supporting rod is adapted with a clipper to pick up a medicine strip from the dispensing gate and a proximal end of the second supporting rod is integrated with a scissor to precisely cut the required portion of the medicine strip, the measurement platform is equipped with bioimpedance sensors configured to assess critical health parameters, such as heart rate, blood pressure, body composition, and hydration levels of the user, the expandable sitting or lying platform is equipped with a sliding mechanism that incorporates multiple vertical and horizontal rods, along with a motorized slider to enable precise adjustments to the platform, allowing the platform to transition between sitting and lying positions, the platform is covered with soft cushion padding, the AI Camera is integrated with a thermal imaging sensor to detect concealed injuries, such as internal bruising or swelling, which are not visible to the naked eye.

[0017] While the invention has been described and shown with particular reference to the preferred embodiment, it will be apparent that variations might be possible that would fall within the scope of the present invention.

BRIEF DESCRIPTION OF THE DRAWINGS

[0018] These and other features, aspects, and advantages of the present invention will become better understood with regard to the following description, appended claims, and accompanying drawings where:
Figure 1 illustrates an isometric view of an interactive medicine dispenser system.

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 an interactive medicine dispenser system that automates medication management, monitoring user health proactively, and providing personalized health insights. The present system autonomously dispenses medications, detects emergencies, and offers remote medical consultations, enhancing overall well-being with its integrated functionalities.

[0023] Referring to Figure 1, an isometric view of an interactive medicine dispenser system is illustrated, comprising a cuboidal structure 101 mounted on Omni-directional wheels 102 with telescopic rods 103, the cuboidal structure 101 divided into multiple section, each section adapted with sliding lids 104, a small utensil 105 placed on the platform, a spray 106 mounted on a telescopic arm 107 and integrated on the cuboidal structure 101, a medicine retrieval module 108 includes first supporting rod 108a and a second supporting rod 108b, distal ends of the first and second supporting rods 108a,108b are integrated on the vertical walls of the cuboidal structure 101, each supporting rod includes ball-and-socket joints 108c integrated in the middle portion, a barcode/QR code scanner 109 integrated with the cuboidal structure 101, an artificial intelligence (AI)-powered camera 110 mounted on the structure 101, a fingerprint scanner 111 integrated with the structure 101, a display 112 is positioned on the front of the structure 101, a health parameter measuring platform 113 is placed on the side portion of the cuboidal structure 101, an expandable sitting/lying platform 114 is positioned at the front bottom section of the cuboidal structure 101, a microphone 115 with integrated with the structure 101, a proximal end of one of the first supporting rod 108a is adapted with a clipper 116 and a proximal end of the second supporting rod 108b is integrated with a scissor 117, the expandable sitting or lying platform 114 is equipped with a sliding mechanism that incorporates multiple vertical and horizontal rods 118, along with a motorized slider 119.

[0024] The system disclosed herein includes a cuboidal structure 101 developed to be positioned on a flat surface. The structure 101 is cuboidal in shape and incorporates all necessary components of the system for dispensing, monitoring, analyzing, and managing medication and user health data.

[0025] A display 112 is strategically positioned on the front face of the cuboidal structure 101 to serve as the main interactive interface for the user. This display 112, commonly referred to as a touchscreen, comprises multiple integrated layers designed to provide both visual output and touch input capabilities. The outermost layer consists of a liquid-crystal display (LCD) panel responsible for rendering clear and vibrant visual information, including medication details, health alerts, and system prompts.

[0026] Beneath the LCD panel lies a transparent touch sensor, fabricated from materials such as indium tin oxide (ITO), which is arranged in a grid of rows and columns to accurately detect the location of a user’s touch. When the user makes contact with the display 112 surface, the touch point acts as a conductor, causing a change in the electrical signals at that intersection. These changes are detected by the touch sensor and relayed to a dedicated controller.

[0027] The controller processes the raw touch data, filtering out noise and interference, and determines the exact coordinates of the touch event. This touch location data is then forwarded to a microcontroller associated with the system, which acts as a processing module to interpret the input and execute the corresponding programmed instructions. This enables the processing module to respond promptly to user commands, such as selecting medication options or navigating menus like details about the prescribed medicine, its dosage, and timing, while also offering personalized health recommendations such as dietary suggestions or general guidelines related to the user's condition.

[0028] Upon activation of the system, the display 112 automatically presents a welcome message that invites the user to begin interaction with the system. This intuitive user interface enhances accessibility and guides the user through medication management and other health monitoring functions seamlessly.

[0029] A fingerprint scanner 111 is integrated into the cuboidal structure 101 to enable biometric authentication of the user. The scanner 111 comprises a sensor module, an analog-to-digital converter, a signal processor, and a matching protocol unit. When the user places their finger on the scanner 111 surface, the sensor—either optical, capacitive, or ultrasonic—captures the unique pattern of ridges and valleys present in the fingerprint. This raw image or signal is then converted into digital data through the analog-to-digital converter. The signal processor enhances the image quality by removing noise and extracting distinctive features such as ridge endings, bifurcations, and minutiae points. These extracted features are then compared against pre-stored fingerprint templates in a database linked with the processing module using a secure matching protocol encrypted with the processing module. Upon successful authentication, the processing module communicates with a secure medical database, retrieving the user’s comprehensive health records. This includes prior prescriptions, diagnosed medical conditions, and historical data reflecting the user’s physical and emotional health states. The retrieved data is used by the processing module to generate personalized medical guidance and determine the appropriate type and dosage of medication tailored to the user's specific medical needs.

[0030] Upon successful fingerprint recognition, the processing module accesses a secure medical database to retrieve the user’s comprehensive medical history, including prior prescriptions, diagnosed conditions, and records of physical and emotional health states. Based on the retrieved data, the processing module generates personalized medical recommendations and determines the appropriate type and dosage of medication tailored to the user’s specific health requirements.

[0031] An expandable sitting or lying platform 114 is positioned at the lower front section of the cuboidal structure 101, designed to provide comfortable support for the user during medical treatments or health parameter assessments. The expandable sitting or lying platform 114 is equipped with a sliding mechanism comprising multiple vertical and horizontal rods 118, along with a motorized slider 119 that enables precise adjustment of the platform’s position. This allows smooth transition between sitting and lying configurations to enhance user comfort.

[0032] The motorized slider 119 powered by an electric motor coupled with a lead screw or belt drive arrangement. Activation of the motor results in the linear motion of the slider 119 along the guiding rods 118, allowing precise extension or retraction of the platform 114. This capability enables the platform 114 to transition seamlessly between sitting and lying positions, thereby catering to the user’s comfort and specific medical requirements.

[0033] The motorized slider 119 ensures controlled, quiet, and stable operation, significantly reducing manual effort and enhancing overall safety during adjustments. The platform 114 surface is cushioned with soft padding material, providing additional comfort by alleviating pressure points during extended use.

[0034] Furthermore, integrated position sensors, such as linear potentiometers, Hall effect sensors, or optical encoders, continuously monitor the platform’s location, delivering real-time feedback to the processing module. This feedback loop ensures accurate positioning and reliable operation, thereby supporting effective medication administration and physiological monitoring.

[0035] A health parameter measuring platform 113 is placed on the side portion of the cuboidal structure 101 and is equipped with bioimpedance sensors designed to monitor critical health parameters, including heart rate, blood pressure, body composition, and hydration levels of the user. The bioimpedance sensors operate by passing a small, safe electrical current through the user’s body and measuring the resistance (impedance) encountered as the current travels through different tissues. The platform 113 contains electrodes that make contact with the user’s skin to deliver this current and detect the resulting voltage signals. Since various body tissues—such as muscle, fat, blood, and fluids—have distinct electrical properties, the measured impedance values allow the system to estimate critical health parameters. For instance, fluctuations in impedance are used to determine heart rate by detecting blood flow changes, while specific protocols analyze impedance patterns to estimate blood pressure, body composition (including fat and muscle mass), and hydration levels. The sensor data is transmitted to the processing module, where signal processing and calibration protocols filter noise and interpret the readings. This real-time analysis enables continuous monitoring of the user’s physiological state, allowing the processing module to identify critical health conditions and promptly trigger appropriate actions, such as dispensing medication, thereby ensuring timely and accurate treatment.

[0036] An artificial intelligence (AI)-powered camera 110 equipped with protocols analyzes the user’s facial expressions, body movements, and posture. The camera 110 comprises an image capturing module, including a set of lenses that capture multiple images of the user and their surroundings. These captured images are stored within the camera’s memory as optical data. The imaging unit also includes a processor integrated with AI (artificial intelligence) protocols and facial recognition protocols. This processing involves essential image processing steps such as noise reduction to enhance image clarity, feature extraction to identify relevant characteristics of the user’s face and body (e.g., shape, color, size), and segmentation techniques to isolate the user from the background. The extracted and processed data is then converted into digital signals and transmitted to the processing module. The processing module processes the received data to detect specific physical indicators such as changes in facial expression, posture variations, or abnormal movements, enabling the processing module to evaluate the user’s physical condition accurately.

[0037] The camera 110 is also integrated with a thermal imaging sensor to detect concealed injuries, such as internal bruising or swelling, that are not visible to the naked eye. The thermal imaging sensor works by capturing infrared radiation naturally emitted from the surface of the human body. Areas affected by internal injury often emit slightly higher levels of heat due to increased blood flow and localized inflammation. The thermal sensor, consisting of an array of microbolometers or other infrared-sensitive detectors, collects this radiation and generates a thermal map, representing temperature variations across the user’s body. This data is processed by an onboard thermal imaging processor and then analyzed alongside visual data from the camera 110 using AI protocols. The processing module applies pattern recognition techniques to identify abnormal heat signatures that correspond to possible injuries. Upon detecting such anomalies, the processing unit provides the user with appropriate medical guidance—such as applying cold packs, elevating the injured area, or consulting a healthcare professional on the display 112.

[0038] In an embodiment of the present invention, the system is equipped with an emotional monitoring and response module designed to assess and support the user's psychological well-being. The processing module prompts the user with a series of carefully structured multiple-choice questions displayed on the display 112. These questions are intended to evaluate the user's emotional state, mood fluctuations, and stress levels.

[0039] While the user interacts with the questionnaire, the camera 110 continuously monitors and analyzes their facial expressions in real time. Using machine learning (ML) protocols and emotion recognition protocols, the processing module identifies subtle facial cues—such as micro-expressions and inconsistencies between verbal and non-verbal responses—allowing it to detect possible discrepancies between expressed and actual emotions. Based on the combined analysis of the user responses and facial data, the processing module interprets the user’s psychological state and determines whether any intervention is required.

[0040] If the evaluation indicates elevated stress or emotional imbalance, the processing unit automatically initiates the appropriate response. This includes dispensing a recommended medication tailored to the user's emotional or stress condition, in accordance with their personalized medical profile stored in the database.

[0041] In addition to the interactive questionnaire, the system offers a private, voice-activated journaling feature via an integrated microphone 115. This allows users to verbally express their thoughts and feelings in a confidential setting. The microphone 115 contains a small diaphragm connected to a moving coil. When sound waves of the user hit the diaphragm, the coil vibrates. This causes the coil to move back and forth in the magnet's field, generating an electrical current. The signal of which are sent to the processing module for processing. The spoken input is analyzed using natural language processing (NLP) and sentiment analysis to detect emotional patterns, word usage, tone, and psychological trends over time.

[0042] Moreover, the microphone 115 enables hands-free operation, particularly benefiting individuals with disabilities or situations where manual interaction is difficult or impractical. If the microphone 115 in conjunction with the processing module, detects prolonged periods of social isolation or significant drops in communication frequency, the processing unit is configured to gently prompt the user to reach out to trusted friends or family members, or to suggest engaging in community activities. These subtle nudges encourage social interaction and help support the user’s mental well-being.

[0043] Upon detecting potential signs of mental health concerns—such as depression or prolonged stress—the processing module securely shares the analysis with a designated healthcare provider, ensuring continuity of care.

[0044] To support emotional regulation, the processing module is further configured to recommend and guide the user through pre-programmed therapeutic routines. These includes mindfulness exercises, guided breathing techniques, or calming audio content, which are delivered through the display 112 and audio output interface. This integrated approach promotes mental wellness and helps users manage emotional distress in real-time. For example, when signs of elevated stress are detected—such as tense facial expressions, rapid speech, or changes in posture—the processing module display a calming visual scene on the screen, play soothing background music, and instruct the user through a guided breathing exercise to help them relax and regain emotional balance.

[0045] In an embodiment of the present invention, the audio output interface is preferably a speaker installed on the structure 101 to produce calming audio content. The speaker works by converting the electrical signal into the audio signal. The speaker consists of a cone known as a diaphragm attached to a coil-shaped wire placed between two magnets. When the electric signal is passed through the voice coil, a varying magnetic field is generated by the coil that interacts with the magnet causing the diaphragm to move back and forth. The movement of the diaphragm pushes and pulls air creating sound waves just like the electrical signal received and used to reproduce audio content, such as guided breathing instructions, mindfulness sessions, or calming sounds, as intended by the processing module to promote relaxation and emotional wellness in the user.

[0046] The processing module operates by continuously collecting and integrating data from various sources, such as health monitoring sensors, AI-powered camera 110 inputs, voice recordings from the microphone 115, responses from interactive questionnaires, and external databases including medical history and environmental data, to assess the user’s health comprehensively. The processing module gathers vital signs such as heart rate and blood pressure from embedded sensors, while the AI-powered camera 110 monitors facial expressions, body posture, and emotional state. Additionally, the processing module collects user responses to multiple-choice questionnaires and optional voice journaling to gain psychological insights. Environmental data, including weather conditions and information on disease outbreaks, is retrieved from an online database to provide context for the user’s health status. Using artificial intelligence, the module correlates these diverse inputs—physiological, psychological, and environmental—to form a holistic evaluation of the user’s condition. Machine learning protocols further analyze questionnaire responses and voice data to detect emotional distress or unusual patterns. Based on this comprehensive analysis, the processing module determines whether the user’s condition is normal or abnormal. If normal, the processing module continues with scheduled medication dispensing. If abnormal, indicating an emergency or emotional distress, the processing module automatically dispenses appropriate medication or contacts a healthcare professional via IoT module for further assistance. Through this continuous monitoring and adaptive response, the processing module ensures timely and personalized medical support for the user.

[0047] The IOT (Internet of Things) module includes but is not limited to a Bluetooth, Wi-Fi (Wireless Fidelity) module which is capable of establishing a wireless network between the processing module and the doctors for online consultations. The IOT module used herein is preferably a Wi-Fi module that is a hardware component that enables the processing module to connect wirelessly with the computing unit. The Wi-Fi module works by utilizing radio waves to transmit and receive data over short distances. The core functionality relies on the IEEE 802.11 standards, which define the protocols for wireless local area networking (WLAN). Once connected, the module allows the processing module to send and receive data through data packets.

[0048] The processing module constantly monitors the user’s health data and emotional state through integrated sensors and AI analysis. When the evaluation indicates that the user’s condition is within normal parameters—meaning no signs of distress, emergencies, or irregularities—the processing module refers to the pre-programmed medication schedule stored in its memory. At the designated times, the processing module sends commands to the dispensing arrangement to release the prescribed dosage of medication.

[0049] The cuboidal structure 101 is divided into multiple compartments for storing various types of medicines. Each compartment is equipped with sliding lids 104 that facilitate dispensing the medicine. The sliding lids 104 operate as controlled access points to each medicine compartment within the cuboidal structure 101. Each compartment is fitted with two sliding lids 104 that move along guided tracks to open and close the dispensing gate. When the processing module receives a command to dispense a specific medicine, an actuator or motor activates, causing the sliding lids 104 to shift smoothly and align to open the dispensing gate. This controlled opening allows the medicine—such as tablets, capsules, or strips—to be released in a measured quantity. Once the required dosage is dispensed, the sliding lids 104 automatically close to secure the compartment, preventing contamination or accidental spillage.

[0050] A barcode or QR code scanner 109 is integrated into the cuboidal structure 101 to scan each medicine strip and retrieve essential information, including the expiry date of the medicine. The barcode or QR code scanner 109 functions as an optical recognition un designed to read encoded information printed on each medicine strip. The scanner 109 comprises a light source, preferably an LED or laser, which illuminates the barcode or QR code on the medicine packaging. A sensor, such as a photodiode or camera module, captures the reflected light patterns from the code. This captured optical data is converted into electrical signals, which are then processed by a decoding module within the scanner 109. The decoding module interprets the patterns and extracts the encoded information, including details such as the medicine’s name, batch number, and expiry date. Once decoded, this data is transmitted to the processing module, which stores and monitors the expiry dates. The processing module regularly checks these dates, and if a medicine is approaching expiration, the processing module triggers an alert notification sent directly to the computing unit (user’s smartphone) wirelessly. This automated scanning and monitoring process ensures accurate tracking of medicine validity and enhances patient safety by preventing the use of expired drugs.

[0051] A medicine retrieval module 108 comprising first supporting rod 108a and a second supporting rod 108b, each mounted at their distal ends to the vertical walls of the cuboidal structure 101. The rods 108a,108b feature ball-and-socket joints 108c at their midsections to allow flexible movement.

[0052] The first supporting rod 108a is designed to securely grip medicine strips using a clipper 116 attached at its distal end. This rod is mounted on the cuboidal structure 101 and includes a ball-and-socket joints 108c at its midpoint, allowing flexible and precise movement in multiple directions. The clipper 116 operates like a mechanical gripper with two opposing jaws that open and close to grasp objects. Controlled by a small motor or servo actuator linked to the processing module, the clipper 116 opens to position around the medicine strip and then closes firmly to hold the medicine without damaging the medication. The processing unit coordinates the rod’s movements and the clipper’s operation to retrieve the correct medicine strip from the dispensing gate and hold the medicine steadily for further processing or delivery.

[0053] The second supporting rod 108b is equipped with a scissor 117 at its distal end, designed to accurately cut medicine strips to the prescribed dosage. Like the first rod, the second rod features a ball-and-socket joints 108c at its midpoint, providing flexible and precise movement in multiple directions. The scissor 117 consists of two sharp blades that open and close via a motorized actuator controlled by the processing module. When the medicine strip is securely held by the first supporting rod’s clipper 116, the second rod maneuvers into position using its flexible joints 108c to align the scissor 117 with the exact cutting point on the strip. The processing module sends signals to the actuator to close the blades, slicing the strip cleanly at the specified dosage length. This coordinated operation ensures that the medicine is dispensed in accurate doses, enhancing safety and effectiveness for the user.

[0054] A small utensil 105, such as a calibrated cup or spoon, is placed on a platform installed with the cuboidal structure 101 specifically to facilitate the accurate and hygienic administration of liquid medicines. When a liquid medicine is to be dispensed, the processing module sends a command to a motorized pump or controlled valve connected to a liquid medicine reservoir stored inside the cuboidal structure 101. This pump carefully measures and releases the prescribed volume of liquid into the utensil 105 placed on the platform. The imaging unit detect its presence and confirm correct placement before dispensing begins. Once the liquid medicine is delivered into the utensil 105, the processing module issues an audio via the speaker or visual alert on the display 112 to notify the user that the medicine is ready for intake.

[0055] A spray 106 mounted on a telescopic arm 107—integrated into the cuboidal structure 101—is designed to apply pain-relieving medication to specific areas of the user’s body, as detected via the thermal imaging sensor. The telescopic arm 107 is linked to a pneumatic unit that includes an air compressor, air cylinders, air valves, and a piston, which work in coordination to control the extension and retraction of the arm 107. This pneumatic unit is controlled by the processing module. Upon receiving a command, the processing module actuates a valve, allowing compressed air from the compressor to flow into the air cylinder. The pressure from the compressed air acts upon the piston, causing the arm 107 to extend. Since the piston is mechanically connected to the telescopic arm 107, this movement results in the controlled extension of the arm 107 toward the targeted body area. When retraction is required, the processing module deactivates the valve, stopping the airflow and allowing the piston to return to its original position, thereby retracting the telescopic arm 107. This enables the system to precisely control the positioning of the spray 106, ensuring that pain-relief medication is applied accurately and efficiently to the affected area.

[0056] Once in position, the spray 106 nozzle dispenses a fine mist of pain-relieving medication. The spray is released through a small pump or pressurized canister controlled by an electronic actuator, ensuring a consistent and accurate dosage. After application, the processing module signals the valve to close, releasing pressure and retracting the piston, which pulls the telescopic arm 107 back into its resting position.

[0057] When the user interacts with the system, the display 112 presents detailed data including the name of the prescribed medicine, the recommended dosage, timing for intake, and any associated side effects or precautions. In addition to medication instructions, the display 112 also offers personalized health advice and dietary suggestions tailored to the user's medical profile and condition. The system actively monitors the expiry dates of stored medicines using integrated barcode or QR code scanners 109. If any medication is approaching its expiration date, the system automatically generates a notification alert, ensuring the user is promptly informed and take appropriate action.

[0058] A weather sensor installed within the structure 101 and connected to an online database collects information from multiple sources to monitor and track the spread of diseases. The weather sensor, communicatively connected to the online database, continuously gathers environmental data such as temperature, humidity, air quality, and other relevant weather parameters from various sources. This real-time data is transmitted to the processing module, which employs the online weather database to analyze patterns associated with common illnesses that tend to have seasonal outbreaks, such as flu or respiratory infections. By monitoring these environmental factors and comparing them with the user’s real-time health data—collected through integrated sensors—the processing module identifies correlations between weather conditions and the onset of disease symptoms. If the user exhibits symptoms consistent with a particular illness linked to current environmental patterns, the processing module promptly alerts the user, recommending consultation with a medical specialist for further diagnosis and treatment. Additionally, the processing module provides personalized precautionary advice on the display 112 to help the user prevent the spread of the disease to others, thereby enhancing both individual and public health safety.

[0059] In an embodiment of the present invention, the weather sensor functions by continuously monitoring environmental parameters such as temperature, humidity, air pressure, and air quality. The weather sensor typically comprises components like a thermistor for temperature, a hygrometer for humidity, a barometric pressure sensor, and gas sensors to detect pollutants or allergens. The thermistor measures temperature by detecting changes in electrical resistance as ambient temperature fluctuates—resistance decreases with rising temperature in Negative Temperature Coefficient (NTC) thermistors. The hygrometer monitors humidity levels using capacitive or resistive elements that change their electrical properties based on the moisture content in the air. The barometric pressure sensor measures atmospheric pressure by detecting changes in the force exerted on a diaphragm, which then converts into an electrical signal indicating pressure variations—useful for forecasting weather conditions. The Gas sensors, such as metal-oxide semiconductor sensors, identify airborne pollutants or allergens (like CO₂, NO₂, or volatile organic compounds) by detecting chemical reactions on a sensitive surface that alter conductivity. These sensor outputs are continuously collected and digitized by a microcontroller, which then sends the data to the processing module. The module compares current readings with patterns stored in the online environmental database. If environmental conditions align with patterns linked to common or seasonal illnesses, the system notifies the user and suggests preventative measures or medical consultation. This proactive monitoring aids in health management based on surrounding environmental conditions.

[0060] Multiple Omni-directional wheels 102 are installed beneath the structure 101 with telescopic rods 103 to facilitate smooth, multi-directional movement and height adjustment of the structure 101. The Omni-directional wheels 102 allow the cuboidal structure 101 to maneuver seamlessly in any direction—forward, backward, sideways, and rotationally—without repositioning. Each wheel consists of a central hub surrounded by multiple angled rollers that enable lateral movement. These wheels 102 are powered by individual electric motors connected to a motor controller, which receives directional commands from the processing module. This setup provides precise movement control, allowing the structure 101 to navigate confined spaces or align accurately for user interaction.

[0061] The extension/retraction of the telescopic rods 103 is regulated by the processing module by in the same manner as the telescopic arm 107, by employing the pneumatic unit, for adjusting vertically, enhancing accessibility and user comfort during medication dispensing, health assessments, or treatments across different physical positions.

[0062] The present invention works best in the following manner, where the cuboidal structure 101 mounted on the Omni-directional wheels 102 with telescopic rods 103 and is divided into multiple sections for storing various types of medicines. Each section includes two sliding lids 104 to dispense the specific medicine through the dispensing gate. The structure 101 incorporates the spray 106 mounted on the telescopic arm 107 for delivering pain-relieving medication, the small utensil 105 for dispensing liquid medicines, and the medicine retrieval module 108 comprising the first and second supporting rods 108a,108b with ball-and-socket joints 108c, where the first rod is equipped with the clipper 116 and the second with the scissor 117 to pick and cut the medicine strip to the prescribed dosage. The display 112 positioned on the front panel provides medicine details, dosage, timing, and personalized health recommendations. The AI-powered camera 110 integrated with facial recognition protocols and thermal imaging sensor evaluates the user’s posture, expressions, and physical condition, while the microphone 115 enables voice journaling and emotional state analysis. The fingerprint scanner 111 retrieves user-specific data from the medical database to personalize treatment. The barcode/QR code scanner 109 detects expiry dates of medicines and sends smartphone alerts. The bioimpedance sensors on the health measuring platform 113 monitor heart rate, blood pressure, body composition, and hydration levels to trigger timely medication. The expandable sitting/lying platform 114 includes vertical and horizontal rods 118 with motorized slider 119 and cushioned support for user comfort. The weather sensor connected to the online database assesses environmental health risks and correlates with user data to suggest medical intervention. The IoT module ensures doctor communication in emergencies, with the processing module managing all data and system operations.

[0063] 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) An interactive medicine dispenser system comprising:

a) a cuboidal structure 101 mounted on omni-directional wheels 102 with telescopic rods 103, the cuboidal structure 101 divided into multiple section for storing multiple types of medicines, each section adapted with sliding lids 104 to dispense a type of medicine, a small utensil 105 placed on the platform for dispensing liquid medicines, a spray 106 mounted on a telescopic arm 107 and integrated on the cuboidal structure 101 to spray pain-relieving medicine on a body area of a user;
b) a medicine retrieval module 108, the medicine retrieval module 108 includes first supporting rod 108a and a second supporting rod 108b, distal ends of the first and second supporting rods 108a,108b are integrated on the vertical walls of the cuboidal structure 101, each supporting rod includes ball-and-socket joints 108c integrated in the middle portion of the supporting rods 108a,108b;
c) a barcode/QR code scanner 109 integrated with the cuboidal structure 101 to scan each medicine strip for retrieving expiry dates of each medicine, if a medicine is nearing its expiration date, the system promptly notifies the user by sending an alert to their smartphone.
d) an artificial intelligence (AI)-powered camera 110 with advanced protocols to analyze facial expressions, body movements, and posture of the user, by assessing these visual warnings, the system evaluates the user’s physical condition and provides useful insights about their health;
e) a fingerprint scanner 111 integrated with a medical database; to track each user’s medical history, if user scans their fingerprint, the system retrieves the user’s health records, allows the system to offer personalized advice tailored to the user’s specific medical needs, using the medical history, the system determines the appropriate dosage of medication for the user;
f) an IoT module equipped with the system for enabling interaction with doctors for online consultations, the system is configured to analyze critical health conditions of the user and on detection of an emergency condition, the system automatically contacts a doctor;
g) a display 112 is positioned on the front of the system to provide and receive information related to medications like details about the prescribed medicine, its dosage, and timing, while also offering personalized health recommendations such as dietary suggestions or general guidelines related to the user's condition;
h) a health parameter measuring platform 113 is placed on the side portion of the cuboidal structure 101, the platform 113 is embedded with health monitoring sensors to sense health parameters such as heart rate, blood pressure and on determination of unstable health parameter the system analyses the data and dispenses the appropriate medicine based on the user's health condition;
i) an expandable sitting/lying platform 114 is positioned at the front bottom section of the cuboidal structure 101, offering comfortable support for users during treatment or health parameter checks;
j) a microphone 115 with integrated advanced voice recognition, enabling users to give verbal commands for dispensing medicine based on their specific saved data, such as the type of medicine, dosage, and timing;
k) a weather sensor communicatively coupled to an online database for gathering information from various sources to monitor and track the spread of diseases; and
l) a processing module.

2) The system as claimed in claim 1, wherein a proximal end of one of the first supporting rod 108a is adapted with a clipper 116 to pick up a medicine strip from the dispensing gate and the proximal end of the second supporting rod 108b is integrated with a scissor 117 to precisely cut the required portion of the medicine strip according to the prescribed dosage for the patient.

3) The system as claimed in claim 1, wherein the system prompts the user with a series of multiple-choice questions on the display 112, carefully to evaluate the user's emotional state and stress levels, the system processes user’s response by employing machine learning (ML) protocols to interpret their psychological well-being, simultaneously the AI camera 110 analyses the user's facial expressions as they respond to each question to capture subtle changes to identify discrepancies in reported emotions and based on the comprehensive evaluation, the system determine the appropriate course of action, if the evaluation detects a need, the system automatically dispense the recommended medication tailored to the detected emotional or stress state.

4) The system as claimed in claim 1, wherein the system offers a private, voice-activated journaling feature using the integrated microphone 115 that enables users to express thoughts and feelings, an AI module analyses word choice and sentiment over time to identify long-term emotional trends and on detection of signs of depression shares this evaluation with a designated healthcare provider and the system is configured to suggest and guide the user through pre-programmed mindfulness exercises, guided breathing techniques, or calming audio landscapes delivered to the user through the display 112 and an audio output.

5) The system as claimed in claim 1, wherein the measurement platform 113 is equipped with bioimpedance sensors configured to assess critical health parameters, such as heart rate, blood pressure, body composition, and hydration levels of the user, upon detection of a critical health situation by the sensors in conjunction with the processing module, the system automatically trigger the cuboidal structure 101 to dispense the appropriate medication, ensuring that treatment is timely and accurate.

6) The system as claimed in claim 1, wherein the expandable sitting or lying platform 114 is equipped with a sliding mechanism that incorporates multiple vertical and horizontal rods 118, along with a motorized slider 119 to enable precise adjustments to the platform 114, allowing it to transition between sitting and lying positions, to enhance comfort for the user, the platform 114 is covered with soft cushion padding.

7) The system as claimed in claim 1, wherein the microphone 115 enables users for hands-free operation for individuals with disabilities or in situations where manual operation may be difficult or impractical, if the microphone 115 in conjunction with the processing module detects prolonged periods of social isolation or significant drops in communication frequency, the system is configured to gently prompt the user to reach out to trusted friends or family members, or suggest engaging in community activities, providing nudges for social interaction.

8) The system as claimed in claim 1, wherein the fingerprint scanner 111 integrated with a medical database enables to track each user’s medical history, if user scans their fingerprint, the system retrieves the user’s health records, the system is configured to offer personalized advice tailored to the user’s specific medical needs, using the medical history, the system determines the appropriate dosage of medication for the user.

9) The system as claimed in claim 1, wherein the system employing the online weather database is configured to analyze patterns and symptoms related to common illnesses that have seasonal outbreaks, the system monitors environmental factors, comparing them with the user’s real-time health data, if the user is depicting symptoms that match a particular disease, the system alerts the user and recommend visiting a specialist for further diagnosis and treatment and also advise precautions to the user to prevent the spread of the disease to others.

10) The system as claimed in claim 1, wherein the AI camera 110 is integrated with a thermal imaging sensor to detect concealed injuries, such as internal bruising or swelling, which are not visible to the naked eye and based on this data the system guides the user on the appropriate medical actions, such as applying cold packs, elevating the injured area, or seeking additional medical care.