Description:FIELD OF THE INVENTION

[0001] The present invention relates to an air conditioning management and maintenance assistive device that is developed to assist in maintaining air conditioners and optimizing their functioning by means of automatically adjusting airflow, temperature, and cleanliness based on user preferences and inner environmental conditions, in view of providing enhanced comfort and air quality in a smart, efficient manner.

BACKGROUND OF THE INVENTION

[0002] In modern homes and workplaces, air conditioning devices play a key role in providing a comfortable indoor environment. These devices help regulate temperature and airflow to suit different weather conditions and user needs. As the demand for personalized comfort increases, there is a growing need for smarter and more responsive air conditioning management that automatically adjust themselves based on various inner environmental and personal factors.

[0003] Traditionally, air conditioning devices are manually operated using remote controls or wall-mounted panels. Users must adjust the temperature, fan speed, and direction of airflow on their own. These adjustments are often based on guesswork rather than actual data about room conditions or occupant preferences. In some cases, programmable thermostats are used, but they usually follow fixed schedules and cannot respond in real-time to changing conditions or multiple users in a space. Maintenance of these devices, including filter cleaning and checking for issues, is also mostly done manually or on a routine basis without accurate condition monitoring.

[0004] These traditional methods have several drawbacks. Manual adjustments that lead to discomfort, especially when users forget to change settings or are unaware of the best settings for their comfort. Static schedules do not adapt to changing weather or occupancy patterns. In addition, poor maintenance caused by infrequent checks leads to reduce the performance and lifespan of the air conditioning device. Dust buildup on filters and airflow blades occurs that also lead to poor air quality and inefficient operation. These limitations highlight the need for an improved approach to managing and maintaining air conditioning devices.

[0005] US9696056B1 discloses the HVAC condition based maintenance system and method provides for a system to reduce operating costs by replacing existing time based scheduled maintenance with an on-condition based maintenance system and method for continuous monitoring and acquiring condition based data from an operating HVAC system, transmitting data to a remote server for storage, analysis and trending, recognizing operational performance reductions based on the comparison of current trending to historical data, and for triggering notification of failures and corrective action based on routine, impending and immediate problem recognition. Additionally, the acquired data is used to derive actual heat load characteristic of the building, identify HVAC system deficiencies, building deficiencies and installation issues and load imbalance of multi-unit systems providing direction for system improvements.

[0006] US20240280283A1 discloses a system includes: an abnormality detection device; a group of databases; a maintenance management device; and a maintenance assistance device. The abnormality detection device is configured to detect at least one abnormality cause from operation data of at least one air conditioning system by using a trained model. The group of databases includes a database in which identification information about each of the at least one abnormality cause or each of the at least one air conditioning system is associated with specific information about a maintenance task required to eliminate the abnormality cause. The maintenance management device is configured to manage a maintenance task for each of the at least one air conditioning system. The maintenance assistance device is configured to transmit, to the maintenance management device, maintenance information determined using specific information associated, in the group of databases, with an abnormality cause detected by the abnormality detection device.

[0007] Conventionally, many devices are available are available for maintaining and managing air conditioning device. However, the cited inventions exhibit certain limitations such as limited user adaptability, lack of real-time response to individual comfort needs, and minimal integration of intelligent cleaning mechanisms. They often rely on centralized control or static data, offering limited customization for multiple users. Moreover, existing devices do not efficiently manage airflow redirection or incorporate automated odor control and cleaning functions, reducing overall effectiveness in diverse and dynamic environments.

[0001] In order to overcome the aforementioned drawbacks, there exists a need in the art to develop a device that intelligently manage and maintain air conditioning devices with minimal user intervention. The device is capable of adjusting cooling settings based on real-time occupant behavior, temperature, and inner environmental conditions. The device is also enable automated airflow redirection, detect and neutralize odors, and perform self-cleaning functions.

OBJECTS OF THE INVENTION

[0002] The principal object of the present invention is to overcome the disadvantages of the prior art.

[0003] An object of the present invention is to develop a device that is capable of automatically maintaining an air conditioner in view of ensuring proper cleaning in view of enhancing the air conditioner’s functioning the need for manual input.

[0004] Another object of the present invention is to develop a device that is capable of creating a balanced indoor environment by detecting room and user’s body temperature, and accordingly maintain consistent and personalized temperature for comfort.

[0005] Another object of the present invention is to develop a device that is capable of reducing discomfort from direct cold airflow by means of proper air circulation, thereby reducing the chances of cold-related discomfort.

[0006] Yet another object of the present invention is to develop a device that effectively detects and removes dust from air conditioner, thereby improving air quality and extend the lifespan of the AC unit, providing automated maintenance.

[0007] 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

[0008] The present invention relates to an air conditioning management and maintenance assistive device that improves comfort and air quality by automatically managing airflow, temperature, and cleaning tasks and also adapts to occupant behaviour and inner environmental changes, thus ensuring a more personalized and effective cooling experience.

[0009] According to an embodiment of the present invention, an air conditioning management and maintenance assistive device is disclosed comprises of a body designed to be placed on the ground within an enclosed space, equipped with motorized wheels for movement of a rotatable artificial intelligence-based imaging unit, along with a motion sensor, which is integrated into the body to monitor and analyze occupant activities in real-time. Based on this input, a microcontroller dynamically adjusts the cooling and airflow intensity of the pre-installed air conditioning unit for optimal comfort, a non-contact temperature sensor is also embedded in the body to track both the occupant's body temperature and the ambient temperature in the room, a motorized slider connected to an airflow-restricting plate via a scissor mechanism is mounted on the body, an odor sensor is installed to detect unpleasant smells in the environment, in response, the microcontroller activates a rotatable nozzle, connected to a scent chamber filled with floral solution, to release a pleasant aroma, a dust sensor works in coordination with the imaging unit to identify dirt on the airflow blades of the AC unit, a flap equipped with bristles is mounted at the apex of the body through an L-shaped extendable rod to scrub the blades, synchronizing this action with the wheels’ movement for efficient cleaning.

[0010] According to another embodiment of the present invention, it further relates to the microcontroller which further manages AC settings such as fan speed and cooling intensity based on inputs from the temperature sensor, the ambient lighting detected by an onboard LDR (Light Dependent Resistor), and seasonal data accessed via a GPS-integrated weather database, that also retrieve user-specific comfort settings and predicted arrival times from a connected user profile database, a robotic arm-mounted air sprayer is aligned with the AC filter to apply pressurized air, removing accumulated dust, finally, an infrared temperature sensor and flow meter embedded in the housing measure the temperature and speed of discharged air, if these readings deviate from predefined values, the microcontroller triggers a service alert, notifying the owner through a linked computing device, lastly a battery is associated with the device for supplying power to electrical and electronically operated components associated with the device.

[0011] 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

[0012] 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 air conditioning management and maintenance assistive device.

DETAILED DESCRIPTION OF THE INVENTION

[0013] 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.

[0014] 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.

[0015] 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.

[0016] The present invention relates to an air conditioning management and maintenance assistive device that is capable of automatically enhancing the functionality of air conditioners by continuously monitoring and adjusting settings based on real-time monitored parameters, in view of ensuring optimal comfort, cleanliness, and energy efficiency in indoor environments.

[0017] Referring to Figure 1, an isometric view of an air conditioning management and maintenance assistive device is illustrated, comprising a body 101 integrated with multiple motorized wheels 102, a rotatable artificial intelligence-based imaging unit 103 installed on the body, a motorized slider 104 mounted on the body 101 and connected to a movable airflow-restricting plate 105 via a motorized scissor arrangement 106, a rotatable electronic nozzle 107 107 is attached with a chamber 108 configured at body, a flap 109 is installed with an apex portion of the body 101 via a L-shaped extendable rod 110 and equipped with plurality of bristles 111, plurality of motorized hinges 112 are integrated with the flap 109, and an air sprayer 113 is mounted with the body 101 via a robotic link 114.

[0018] The present device includes a body 101 developed to be positioned inside an enclosure on a ground surface for providing assistance in air conditioning management and maintenance. A user is required to access and presses a push button arranged on the housing to activate the device for associated processes of the device. The push button when pressed by the user, closes an electrical circuit and allows currents to flow for powering an associated microcontroller of the device for operating of all the linked components for performing their respective functions upon actuation.

[0019] Upon activation of the device, the microcontroller sends as signal to activate multiple motorized wheels 102 integrated on bottom portion of the body 101 for traversing the body 101 inside the enclosure. The motorized omnidirectional wheel 102 facilitates smooth and controlled movement across the surface. Each wheel 102 is mounted on a swiveling axle, allowing for free rotation, which enables the user to navigate easily around obstacles and uneven surface. The wheel’s shaft is connected to a motor, activated by the microcontroller that receives electrical power from a power source and convert into mechanical energy by the motor, that provides rotation to the shaft, causing the wheels 102 to spin.

[0020] Upon positioning of the body 101 in the require area, the microcontroller activates a rotatable artificial intelligence-based imaging unit 103 installed on the body 101 to work in conjunction with an on-board motion sensor to monitor and analyse occupant(s) activities in real-time. The rotatable artificial intelligence-based imaging unit 103 works by capturing real-time visual data through a camera that rotate to cover a wider field of view. Once the microcontroller activates the unit, it begins scanning the area. The rotation is powered by a motor, allowing the unit to adjust its angle and follow movement in the space. The motion sensor used herein is a PIR (Passive Infrared) sensor that detects the presence or movement of occupant(s). When motion is detected, the imaging unit 103 captures image sequences and sends them to the AI processor, that have programmed trained protocols to recognize and analyse human activities, such as sitting, standing, walking, or lying down. The processed data is then sent back to the microcontroller, which uses the information to detect occupant behaviour.

[0021] Based on detected activities, the microcontroller adjusts the cooling and air flow intensity of air conditioning (AC) unit pre-installed inside the enclosure for optimal comfort. The microcontroller is wirelessly linked with the AC's control unit to control the functioning. The communication module, such as a Wireless Fidelity (Wi-Fi) module connects to the microcontroller to wirelessly transfer data to the computing unit, like a smartphone or server, over a Wi-Fi network. The microcontroller sends the data via the Wi-Fi module to a remote server or cloud service using standard communication protocols (such as HTTP or MQTT) to adjusts the cooling and air flow intensity.

[0022] The device includes a non-contact temperature sensor embedded on the body, activated by the microcontroller to monitor body 101 temperature of the occupant(s) and ambient room temperature. The non-contact temperature sensor used herein is an infrared (IR) radiation to that detects the infrared radiation emitted by the occupant's skin and the surrounding environment. This allows the sensor to measure the body 101 temperature of the occupant without needing to physically touch them, as well as the ambient room temperature. The sensor works by capturing the emitted infrared radiation and converting it into an electrical signal. The microcontroller then processes this signal, comparing the body 101 temperature with the ambient temperature to assess if adjustments are necessary.

[0023] Based on the detected temperature, the microcontroller actuates a motorized scissor arrangement 106 to position a movable airflow-restricting plate 105 towards a location corresponding to occupant whose temperature exceeds a threshold value in view of blocking or redirecting airflow. Scissor arrangement 106 comprises a series of crossed metal arms arranged in a scissor pattern connected together that allow them to fold and unfold. When the lift is in its lowest position, the scissor arms are fully compressed. The hydraulic cylinders are retracted. The hydraulic pump begins to move hydraulic fluid from the reservoir to the hydraulic cylinders. The fluid enters the cylinders under high pressure, causing the pistons inside the cylinders to extend.

[0024] As the hydraulic cylinders extend, they push against the scissor arms causing them to open and rise. At this point, the hydraulic fluid continues to apply pressure to keep the platform at the desired height. The scissor arms are locked in place by the pressure from the hydraulic cylinders, which stabilizes the platform. To adjust the height or lower the platform, the hydraulic pump activates a release valve. This allows hydraulic fluid to flow back into the reservoir, reducing pressure in the cylinders. As the hydraulic pressure decreases, the cylinders retract, causing the scissor arms to fold back together and returning the lift to its initial position or lower position to reach the air conditioner.

[0025] The scissor arrangement 106 is installed on the body 101 via motorized slider 104 mounted on the body 101 that provides movement to the arrangement 106 to reposition the plate 105 towards the location for blocking or redirecting airflow from the air conditioning unit away from the occupant. The motorized slider 104 works by using a small electric motor connected to a linear actuator or a rack and pinion mechanism that moves the scissor arrangement 106 along a fixed path on the body.

[0026] When the microcontroller sends a signal, the motor activates and rotates, converting rotational motion into linear motion, which causes the slider 104 to move forward or backward along a rail. This movement repositions the plate 105 attached to the scissor mechanism, allowing it to block or redirect the airflow from the air conditioning unit as needed, improving comfort for the occupant.

[0027] The device monitors odors in the environment via an odor sensor integrated on the body, activated by the microcontroller. The odor sensor integrated on the body 101 works by detecting specific gases or volatile organic compounds (VOCs) present in the air that are commonly associated with unpleasant smells. The sensor draws in air and analyses it using a chemical sensing element, such as a metal oxide semiconductor that reacts with the target gases, causing a change in its electrical resistance. The sensor then converts this change into an electrical signal, which is sent to the microcontroller that processes this data to determine the presence and intensity of odor.

[0028] In case any such odors are detected, the microcontroller actuates a rotatable electronic nozzle 107 attached with a chamber 108 stored with a floral scent solution and configured at body. The nozzle 107 continuously dispenses the floral scent solution into the surrounding environment, thereby creating a relaxing ambient environment. The rotatable electronic nozzle 107 works by using a small motorized mechanism controlled by the microcontroller to rotate and direct the release of the floral scent solution stored in a connected chamber 108. The nozzle 107 contains an atomizer that draws the scent solution from the chamber 108 and disperses it as a fine mist or vapor into the surrounding air. The rotation feature allows the nozzle 107 to evenly distribute the scent across a wider area, creating a calming and pleasant environment around the user.

[0029] The body 101 is further installed with a dust sensor that works in sync with the imaging unit 103 to detect presence of dust/ dirt over airflow blades of the AC unit. The dust sensor detects the presence of dust or dirt particles in the air around the airflow blades of the air conditioning (AC) unit. It operates by emitting a light signal, typically using infrared or laser light, towards the surface where dust is likely to accumulate. When dust or dirt particles come into contact with the sensor, they scatter or absorb the light emitted by the sensor. The sensor then detects the change in the light signal (such as the amount of light reflected back or scattered) and sends this information to the microcontroller. The microcontroller processes this data to determine if there is an accumulation of dust or dirt over the airflow blades.

[0030] In case the dust/dirt is detected, the microcontroller actuates a L-shaped extendable rod 110 installed with an apex portion of the body 101 to position a flap 109 attached to the rod 110 and equipped with plurality of bristles 111. The extendable rod 110 is powered by a pneumatic unit that includes an air compressor, air cylinder, air valves and piston which works in collaboration to aid in extension and retraction of the rod.

[0031] The pneumatic unit is operated by the microcontroller, such that the microcontroller actuates valve to allow passage of compressed air from the compressor within the cylinder from one end, the compressed air further develops pressure against the piston and results in pushing and extending the piston. The piston is connected with the rod 110 and due to applied pressure the rod 110 extends and similarly, the microcontroller retracts the rod 110 by pushing compressed air via the other end of the cylinder, by opening the corresponding valve resulting in retraction of the piston, and the retraction of the rod. In such manner, the microcontroller regulates the extension/retraction of the rod.

[0032] As the rod 110 positions the flap 109, the microcontroller actuates the flap 109 to rotate for scrubbing the airflow blades via the bristles 111 in synchronization with actuation of the wheels 102for manoeuvring the body 101 and facilitate proper cleaning of the airflow blades. Once the flap 109 is properly positioned, the microcontroller activates a motor that rotates the flap 109 and brings the bristles 111 into contact with the airflow blades. The bristles 111 then scrub or clean the airflow blades, removing dust, dirt, or other debris that may have accumulated. Simultaneously, the microcontroller also controls wheels 102that allow the body 101 of the device to maneuver, likely moving the device into the correct position for effective cleaning. The wheels 102 facilitate movement, ensuring that the device to reach the necessary areas of the AC unit.

[0033] The flap 109 is integrated with plurality of motorized hinges 112, actuated by the microcontroller to bend and adapt to contour of the airflow blades for thorough cleaning. The hinge 112 comprises of two parts, one part of the hinge 112 has a cylindrical shape, while the other part has a corresponding groove to fit the first part over it. This configuration allows the hinge 112 to move around a fixed axis. The hinge 112 is powered by a motor to provide a rotational force that is transmitted through a gear that to the hinge 112. The transmission mechanism converts the motor’s rotational force into movement of the hinge 112 which allows the flap 109 to adapt to contour of the airflow blades.

[0034] Further, an LDR (Light Dependent Resistor) integrated into the cuboidal body, is activated by the microcontroller to monitor occupant temperature, room temperature, and real-time lighting data. The Light Dependent Resistor (LDR) detects light intensity in the surrounding environment. As the amount of light changes, the LDR’s resistance adjusts accordingly with decreasing/increasing light. The data from the LDR is sent to the microcontroller that processes this data and makes necessary adjustments. Based on the detected conditions, the microcontroller selectively control air conditioning settings, including cooling intensity and fan speed.

[0035] The microcontroller is connected to a user profile database, and retrieves personalized airflow preferences and anticipated arrival times stored therein. The microcontroller is linked to a user profile database, which stores personalized airflow preferences and anticipated arrival times of the user. This allows the device to provide a customized environment based on individual preferences. The user profile contains information such as the user's preferred temperature, airflow intensity, and other comfort-related settings. These preferences are saved in the database and could be retrieved by the microcontroller whenever needed.

[0036] Upon detecting an identified user via facial recognition module integrated with the imaging unit 103, and based on historical comfort preferences, the microcontroller actuates the plate 105 to redirect airflow away from the user. The imaging unit 103 captures a live image of the user’s face in the environment. The captured image is processed to detect key facial features such as the eyes, nose, mouth, and overall face shape. The module compares the detected facial features with the stored facial data in the user profile database, where the unique facial characteristics of registered users are saved. If the facial features match one of the stored profiles, the module identifies the user. The module then retrieves the user’s personalized preferences for airflow, temperature, or other environmental settings based on this identification.

[0037] The microcontroller is also integrated with a weather database integrated with GPS (Global Positioning System) module to track current season. The GPS module continuously tracks the real-time geographic location of the device, providing precise coordinates (latitude and longitude). The coordinates from the GPS module are sent to the microcontroller, which uses them to identify the user’s current location.

[0038] Once the location is identified, the microcontroller connects to the weather database (via the internet or cloud service) to retrieve current weather conditions for the user’s specific geographic area. This database includes information such as temperature, humidity, wind speed, and season. Based on the retrieved weather data, the microcontroller to determine the current season by analyzing factors such as temperature and weather patterns for that location. Based on the detected season, microcontroller adjust the temperature settings of AC unit based on inner environmental changes, such as summer or winter conditions.

[0039] The body 101 is mounted with an air sprayer 113 via a robotic link 114 to align the sprayer 113 with the air conditioner unit’s filter. The robotic link 114 consists of multiple flexible segments, connected by joints that allow relative motion. The arrangement 106 of these segments and joints to move and position the sprayer 113. Upon positioning, the sprayer 113 is activated by the microcontroller to apply pressurized air to dislodge dust accumulated on AC unit’s filter. The sprayer 113 is equipped with a mechanism (such as a valve or nozzle 107) that controls the release of pressurized air. Once activated, the pressurized air is discharged through the nozzle 107 and directed towards the air conditioner filter. The force of the air dislodges any dust or debris that is accumulated on the filter’s surface.

[0040] In addition to the advanced features of the device, an IR (infrared) temperature sensor and a flow meter is integrated with the body, to measure the temperature and speed of air discharged from the AC unit. The IR (infrared) temperature sensor and flow meter integrated with the body 101 work together to monitor the performance of the air conditioning (AC) unit by measuring the temperature and speed of the discharged air, with both components activated and regulated by the microcontroller. The IR temperature sensor operates by detecting the infrared radiation emitted from the air being discharged. The sensor captures the radiation to determine the temperature of the air without making physical contact.

[0041] Simultaneously, the flow meter measures the speed or velocity of the airflow coming from the AC unit. This is typically done using a small turbine or ultrasonic method, where the flowing air either rotates a wheel 102 or affects the time it takes for ultrasonic waves to travel. The collected data from both sensors is transmitted to the microcontroller, which processes it to assess cooling efficiency and detect anomalies, ensuring optimal air distribution.

[0042] The microcontroller compares the measured parameters with user-defined values to detect deviation and generate a service alert on a concerned owner’s computing unit when needed. The microcontroller is wirelessly connected to a user interface inbuilt in a computing unit to provide service alert. The user interacts with the interface through a touch screen, keyboard, or other input methods available on the computing unit.

[0043] Moreover, a battery 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 known as a cathode and an anode. A voltage is generated between the anode and cathode via oxidation/reduction and thus produces the electrical energy to provide to the device.

[0044] The present invention works best in the following manner, where the body 101 is developed to be positioned inside an enclosure on a ground surface, and is integrated with multiple motorized wheels 102 allowing smooth movement inside the enclosure. It then gives powers the rotatable artificial intelligence-based imaging unit 103 and the PIR (Passive Infrared) motion sensor to track real-time occupant activities. Based on this data, the microcontroller wirelessly communicates with the AC’s control unit via the Wi-Fi module, adjusting airflow and cooling intensity. The non-contact IR temperature sensor monitors body 101 and ambient temperature, while the motorized scissor lift, is actuated hydraulically and mounted via the motorized slider 104, repositions the movable airflow-restricting plate 105 to direct airflow appropriately. The dust sensor detects dirt on AC blades, prompting the microcontroller to activate the pneumatic unit that extends the L-shaped rod 110 with the bristled flap 109 for cleaning. The flap’s 109 motorized hinges 112 adapt to blade contours, and the cleaning is synchronized with wheel 102 movement. The odor sensor activates the rotatable electronic nozzle 107 to spray the floral mist for odor neutralization. Additional components include the LDR, the IR temperature sensor, and the flow meter for inner environmental monitoring. The facial recognition module identifies users and retrieves personalized preferences from the user profile database. Location-specific climate/ environment adjustments are made via the GPS module linked to the weather database. The device also includes the air sprayer 113 with the robotic link 114 for filter cleaning. All data is processed by the microcontroller, which sends alerts via the user interface when maintenance is required.

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

i) a body 101 developed to be positioned inside an enclosure on a ground surface, wherein a bottom portion of said body 101 is integrated with multiple motorized wheels 102 for traversing said body 101 inside said enclosure;
ii) a rotatable artificial intelligence-based imaging unit 103 installed on said body 101 and body 101 that works in conjunction with an on-board motion sensor to monitor and analyze occupant(s) activities in real-time, wherein based on which an inbuilt microcontroller adjusts the cooling and air flow intensity of air conditioning (AC) unit pre-installed inside said enclosure for optimal comfort;
iii) a non-contact temperature sensor embedded on said body 101 to monitor body 101 temperature of said occupant(s) and ambient room temperature;
iv) a motorized slider 104 mounted on said body 101 and connected to a movable airflow-restricting plate 105 via a motorized scissor arrangement 106, wherein said microcontroller actuates said slider 104 and scissor arrangement 106 to reposition said plate 105 towards a location corresponding to occupant whose temperature exceeds a threshold value, thereby blocking or redirecting airflow from said air conditioning unit away from said occupant;
v) an odor sensor disposed on said body 101 and configured to detect undesirable odors in the environment, wherein a rotatable electronic nozzle 107 is attached with a chamber 108 stored with a floral scent solution and configured at body, that is activated by said microcontroller for continuously dispensing said floral scent solution into the surrounding environment, thereby creating a relaxing ambient environment; and
vi) a dust sensor installed on said body 101 and synced with said imaging unit 103 to detect presence of dust / dirt over airflow blades of said AC unit, wherein a flap 109 is installed with an apex portion of said body 101 via a L-shaped extendable rod 110 and equipped with plurality of bristles 111, said microcontroller actuates said rod 110 to extend, followed by actuation of said flap 109 to rotate for scrubbing said airflow blades via said bristles 111 in synchronization with actuation of said wheels 102 for maneuvering said body 101 and facilitate proper cleaning of said airflow blades.

2) The device as claimed in claim 1, wherein said microcontroller is further configured to selectively control air conditioning settings, including cooling intensity and fan speed, based on a combination of occupant temperature, room temperature, and real-time lighting data captured by an LDR (Light Dependent Resistor) integrated into said cuboidal body.

3) The device as claimed in claim 1, wherein said microcontroller is connected to a user profile database, and said microcontroller retrieves personalized airflow preferences and anticipated arrival times stored therein, and upon detecting an identified user via facial recognition module integrated with said imaging unit 103, said microcontroller actuates said plate 105 to redirect airflow away from said user based on historical comfort preferences.

4) The device as claimed in claim 1, wherein said microcontroller is integrated with a weather database integrated with GPS (Global Positioning System) module to track current season, and said microcontroller adjust the temperature settings of AC unit based on inner environmental changes, such as summer or winter conditions.

5) The device as claimed in claim 1, wherein plurality of motorized hinges 112 is integrated with said flap 109, configured to enable said flap 109 to bend and adapt to contour of said airflow blades for thorough cleaning.

6) The device as claimed in claim 1, wherein an air sprayer 113 is mounted with said body 101 via a robotic link 114 and aligned with said air conditioner unit’s filter, said air sprayer 113 being configured to apply pressurized air to dislodge dust accumulated on AC unit’s filter.

7) The device as claimed in claim 1, wherein an IR (infrared) temperature sensor and a flow meter are integrated with said body, configured to measure the temperature and speed of air discharged from said AC unit, and said microcontroller compares said measured parameters with user-defined values to detect deviation and generate a service alert on a concerned owner’s computing unit when needed.

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