Description:FIELD OF THE INVENTION

[0001] The present invention relates to a voice operated device for adaptable cooling that automatically detects the presence and location of users within an enclosed area and directs airflow accordingly. In addition, the device disclosed in the present invention improves overall efficiency by minimizing energy use and ensuring that cool air is delivered to the most needed area, thereby enhancing comfort for the users present.

BACKGROUND OF THE INVENTION

[0002] In modern indoor environments, especially in shared or dynamic spaces, there is a growing need for a device that offer adaptable and user-specific airflow management. Traditional cooling devices often lack responsiveness and require manual adjustments, making them inconvenient during activities such as meetings, exercise, or relaxation. Users frequently face challenges like uneven air distribution, delayed response to comfort needs, and inability to personalize cooling based on user presence or preference. Moreover, users with mobility issues or those in larger enclosed areas suffer difficulties to access and operate conventional cooling controls. An automated device eliminates the need for physical interaction, allowing hands-free operation while dynamically adjusting airflow direction and intensity based on real-time detection of user location and commands.

[0003] Several cooling devices available today offer basic automation features such as remote control operation, preset timers, and sensor-based temperature regulation. Some cooling devices include mobile app integration and limited voice control through third-party assistants. However, these devices often fall short in adaptability and personalization. They typically lack real-time user tracking, targeted airflow control, and automated maintenance features. Users still need to manually adjust settings or replace cooling assembly, which is inconvenient and time-consuming. Furthermore, these devices do not actively monitor water quality or detect contamination, which affect hygiene and performance. As a result, existing solutions fail to provide a fully automated, user-centric, and maintenance-aware cooling experience in dynamic indoor environments.

[0004] US20180143672A1 discloses an enclosure for use with a portable electronic device. The enclosure comprises a plurality of connected walls defining surfaces of the enclosure for receiving the electronic device. Power for the electronics components of the enclosure is supplied from an on-board power source (battery) and from an external power source via a port. A thermoelectric cooler, operating in conjunction with a gel pack, cools the electronic device. A first surface of the gel pack is disposed in contact with or proximate the thermoelectric cooler and a second surface of the gel pack is in contact with or proximate the electronic device.

[0005] CN101584097B is used for cooling the rechargeable portable device accommodated by the docking station. The cooling system includes a docking station with an optional pneumatic cooling unit and an enclosure. The cooling unit maintains the temperature of the first fin surface below the ambient temperature and maintains the temperature of the second fin surface above said first fin surface temperature. The housing is used to accommodate a rechargeable portable device. The housing charges the portable device and positions the portable device such that when the portable device is charging, the first heat sink surface of the docking station and the heat sink of the portable device. There is thermal contact between them.

[0006] Conventionally, many devices are available in the market for cooling. However, the citied invention lacks to provide easy mobility from one place to another. While cooling a targeted area is essential, the available devices lacks to provide automated adjustments based on the area that require cooling.

[0007] In order to overcome the aforementioned drawbacks, there exists a need in the existing art to develop a device that should be capable of providing an easy means of mobility to translate the device from one place to another. The developed device should not only cover the area that is required to be cooling, but should also automatically adapt based on the surrounding conditions in order to enhance the cooling efficiency.

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 enable automated detection of users in an enclosed area and direct airflow specifically towards them to improve cooling efficiency.

[0010] Another object of the present invention is to develop a device that maintain consistent cooling performance by automatically replacing damaged cooling arrangements without requiring manual intervention.

[0011] Yet another object of the present invention is to develop a device that ensure safe and effective operation by monitoring water quality, water levels, and detecting contamination or insect presence in the water.

[0012] 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

[0013] The present invention relates to a voice operated device for adaptable cooling that ensures consistent cooling performance by detecting damaged cooling arrangement and replacing them automatically. Additionally, the device disclosed herein eliminates the need for manual intervention, reduces maintenance efforts, and maintains optimal airflow and cooling efficiency over time.

[0014] According to an embodiment of the present invention, a voice operated device for adaptable cooling comprises of a housing configured with a plurality of rods for supporting the housing on a ground surface of an enclosure, each free-end of the rods are installed with a wheel, a plurality of microphones mounted on exterior of the body an artificial intelligence-based imaging unit mounted on the housing and paired with a processor for capturing and processing multiple images in vicinity of the housing respectively, to monitor the surroundings for detecting presence of users in the enclosure, the imaging unit is configured to analyze facial expressions of the user, to detect discomfort experienced by the user, a fan unit installed within the housing, incorporated with multiple curved flaps attached to a central shaft, a chamber stored with water is linked to a pump, configured within the housing, for drawing and pouring water from the chamber onto multiple cooling pads arranged on inner sides of the housing, a servo motor linked with the shaft, to rotate for inducing a controlled rotational movement to the shaft, a plurality of louvers installed at the front side of housing, in a cross-linked manner, wherein each of the louvers are attached with a four-bar linkage assembly, to provide controlled movement to the louvers for adjusting inclination of the louvers, an optical sensor installed in the housing for monitoring conditions of the cooling pads to detect damaged portions.

[0015] According to another embodiment of the present invention, the device further comprises of a pair of motorized clamps attached on a container mounted above the chamber, for gripping ends of the damaged cooling pad, a motorized slider integrated in between the clamp and container to translate the clamps, for pulling the damaged pads, a rotating disc mounted on ceiling portion of the housing, having a plurality of slits designed to store multiple new cooling pads, to rotate for aligning the new cooling pad with side from where the damaged pad is removed, a Scott Russel arrangement installed in between the ceiling portion and disc, to slightly orient ends of the new cooling pad to align with the slots, a pair of motorized grippers suspended from the edges of ceiling portion, via a motorized sliding unit, for gripping the ends and translate for pulling the new cooling pad from the slits, a sensing module installed in the chamber for monitoring the stored water to detect water levels, contamination and insect presence in the water and a temperature sensor coupled with a humidity sensor, is installed on the housing for monitoring temperature and humidity in surroundings of the housing.

[0016] 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

[0017] 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 voice operated device for adaptable cooling.
Figure 2 illustrates an internal view of a voice operated device for adaptable cooling.

DETAILED DESCRIPTION OF THE INVENTION

[0018] 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.

[0019] 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.

[0020] 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.

[0021] The present invention relates to a voice operated device for adaptable cooling that ensures safe and effective operation by continuously monitoring water quality, water levels, and detecting any contamination or presence of insects in the stored water, which helps in maintaining hygiene, preventing health risks, and providing timely alerts for necessary maintenance or water replacement, thereby supporting reliable and safe cooling performance.

[0022] Referring to Figure 1 of a voice operated device for adaptable cooling is illustrated, comprising a housing 101 configured with a plurality of rods 102 for supporting the housing 101 on a ground surface, each free-end of the rods 102 are installed with a wheel 103, a plurality of microphones 104 mounted on exterior of the body, an artificial intelligence-based imaging unit 105 mounted on the housing 101, a fan unit 106 is installed within the housing 101, incorporated with multiple curved flaps 107 attached to a central shaft 108, a chamber 109 stored with water, a plurality of louvers 110 installed at the front side of housing 101, each of the louvers 110 are attached with a four-bar linkage assembly 111.

[0023] Referring to Figure 2, an internal view of a voice operated device for adaptable cooling is illustrated, a water pump 201 is linked to the chamber 109, configured within the housing 101, multiple cooling pads 202 are arranged on inner sides of the housing 101, a pair of motorized clamps 203 attached on a container 204 mounted above the chamber 109, a motorized slider 205 is integrated in between the clamp 203 and container 204, a rotating disc 206 mounted on ceiling portion of the housing 101 a plurality of slits 207, a Scott Russel arrangement 208 installed in between the ceiling portion and disc 206 and a pair of motorized grippers 209 suspended from the edges of ceiling portion via a motorized sliding unit 210.

[0024] The device disclosed in the present invention comprises of a housing 101 developed to support the housing 101 on a ground surface in an enclosure using multiple rods 102 attached to the base portion of the housing 101. Each rod is equipped a wheel 103 fixed at the free end of the rod, allowing the housing 101 to move smoothly across the surface. These wheels 103 offer mobility and ease of transportation, enabling the user to reposition or relocate the housing 101 without lifting the housing 101.

[0025] To activate the device, the user manually presses a push button which is installed on the housing 101. Upon pressing the button, the circuits within the device gets close, allowing electric current to flow. The push button has an outer casing and an inner mechanism, including a spring and metal contacts. When the button is pressed, the spring-loaded mechanism inside is pushes down on. In the default state, the internal contacts are apart, so the circuit is open and no electricity flows. Pressing the button makes the contacts touch each other, closing the circuit and allowing electricity to flow, which activates an inbuilt microcontroller that regulates the further options of the device.

[0026] The microcontroller then activates a plurality of microphones 104 mounted on exterior of the housing 101 that captures voice commands from multiple users regarding targeted area requiring cooling. When the user speaks to give voice commands, the given commands are first captures by the microphone. These sound waves from the captured voice commands hit the diaphragm which vibrates back and forth in response to sound waves. The back and forth movement of the diaphragm is then transferred to a capacitor connected to the microphone that converts the vibrations into an electrical signal that mirrors the pattern of the sound waves. The electrical signal is sent to the microcontroller for further processing.

[0027] Based on the input commands received by the user through the microphone, the microcontroller activates an artificial intelligence-based imaging unit 105 mounted on the housing 101 to monitor the surroundings for detecting presence of users in the enclosure. The imaging unit 105 comprises of an image capturing arrangement including a set of lenses that captures multiple images of the enclosure, and the captured images are stored within a memory of the imaging unit 105 in form of an optical data. The imaging unit 105 also comprises of the processor that is integrated with artificial intelligence protocols, such that the processor processes the optical data and extracts the required data from the captured images. The extracted data is further converted into digital pulses and bits and are further transmitted to the microcontroller. The microcontroller processes the received data and evaluate the presence of the users within the enclosure.

[0028] Upon detecting the presence of user in the enclosure, the microcontroller activates a pump 201 linked with a chamber 109 arranged on the bottom portion of the housing 101, to draw water from the chamber 109 and pour over multiple cooling pads 202 arranged on inner sides of the housing 101. The chamber 109 herein comprises of an inlet that is accessed by the user to refill the chamber 109 with water when required. The pump 201 works by converting mechanical energy into hydraulic energy to move water from the chamber 109 onto the cooling pads 202. The pump 201 consists of a motor that drives an impeller, a rotating component inside the pump 201. As the impeller spins, it creates suction that draws water from the chamber 109 into the pump 201 and pushes the drawn water out through the outlet over the cooling pads 202.

[0029] A sensing module installed in the chamber 109 is activated by the microcontroller along with the pump 201 to monitor the water level, contamination level and presence of insects in the water that is stored in the chamber 109. The sensing module includes but is not limited to a turbidity sensor, a pH sensor, a level sensor and an infrared sensor. The turbidity sensor measures the cloudiness of the water by detecting suspended particles that scatter light. The turbidity sensor includes a light source, usually an LED, that shines a beam into the water. When the light hits particles in the water, the light is scattered in different directions. A photodetector, typically placed at a 90-degree angle to the light source, measures the amount of scattered light. The turbidity sensor converts the detected light into an electrical signal, which is processed by a controller to determine turbidity levels, often shown in Nephelometric Turbidity Units (NTU). Higher turbidity results in more scattered light.

[0030] The pH sensor measures the acidity or alkalinity of a solution by detecting the concentration of hydrogen ions. The pH sensor typically consists of a glass electrode that is sensitive to hydrogen ions and a reference electrode that provides a constant voltage. When the pH sensor comes in contact with the water of the chamber 109, the hydrogen ions interact with the glass membrane of the measuring electrode, creating a voltage difference compared to the reference electrode. This voltage is proportional to the pH level of the solution. The sensor sends this signal to the microcontroller or pH meter, which processes it and displays the corresponding pH value.

[0031] The infrared sensor detects the presence of insects by sensing changes in infrared radiation within the detection range of the infrared sensor. The infrared sensor contains a pyroelectric material that responds to infrared energy emitted by the insect. A lens focuses the infrared radiation onto the infrared sensor, which remains stable in a static environment. When radiation approaches the infrared sensor, the heat from the insect alters the infrared levels, generating an electrical signal. The infrared sensor processes the generated electrical signal using a passive infrared detection to confirm the presence of the insect in the water of the chamber 109. The confirmed presence of the insect is then sent to the microcontroller for further processing.

[0032] The level sensor operates by using a buoyant float that rises and falls with the water level in the chamber 109. The float is attached to an arm that moves vertically as the water level changes. The movement of the arm either directly triggers a mechanical switch or activates a magnetic sensor, such as a reed switch or Hall-effect sensor, depending on the design. The change in sensor state generates an electrical signal, which is sent to the microcontroller that indicates the water level in the chamber 109.

[0033] Based on the detected water level and condition of water in the chamber 109, the microcontroller sends a wireless signal to a user interface installed on a computing device, such as a smartphone or computer regarding necessary actions, such as when maintenance is required or when water needs to be replaced. This interface is wirelessly connected to the microcontroller through a communication module. The communication module mentioned herein includes, but not limited to Wi-Fi (Wireless Fidelity) module, Bluetooth module, GSM (Global System for Mobile Communication) module. The communication module used in the device is preferably the Wi-Fi module. The Wi-Fi module enables wireless communication by transmitting and receiving data over radio frequencies using IEEE 802.11 protocols. It connects to a network via an access point, converting digital data into radio signals. The module processes TCP/IP protocols for data exchange, interfaces with microcontrollers through UART/SPI, and ensures encrypted communication using WPA/WPA2 security standards for secure and efficient wireless connectivity.

[0034] In synchronization with the pump 201, the microcontroller actuates a servo motor linked with a central shaft 108, providing rotational motion to a fan unit 106 installed within the housing 101, incorporated with multiple curved flaps 107 that are attached to the central shaft 108, to draw warm air from the outside through a plurality of air vents placed on the rear and side of the housing 101. The servo motor operates through a closed-loop control unit that allows precise control of angular position. The servo motor consists of a motor, control circuit, gear assembly, and a position sensor (usually a potentiometer or encoder). The control circuit receives a command signal, typically in the form of a PWM (Pulse Width Modulation) signal, indicating the desired position of the shaft 108. The position sensor continuously monitors the actual position of the shaft 108 and sends feedback to the control circuit. In case, there is a difference between the current and desired position, the control circuit adjusts the motor’s rotation accordingly. This feedback loop continues until the loop is opened through the feedback. The drawn air is then directed through the cooling pads 202 that evaporates the moisture from the cooling pads 202, and produce cool air that is then transferred within the housing 101 and then released to the enclosure.

[0035] In accordance to the targeted area for cooling as detected by the imaging unit 105, a plurality of four-bar linkage assembly 111 arranged on the front portion of the housing 101 is actuated by the microcontroller to position a louver associated with each of four-bar linkage assembly 111, in a manner that cooled air is directed towards the targeted area. The four-bar linkage assembly 111 consists of four interconnected links: a fixed frame, a crank connected to a motor, a coupler, and a rocker connected to the louvers 110. When the motor rotates the crank, the coupler transfers this motion to the rocker, causing the rocker to oscillate. The oscillation of the rocker moves the louvers 110 to the required position, helping to distribute cool air towards the targeted area. Thus, the targeted area receives an optimal air distribution.

[0036] Additionally, the imaging unit 105 is configured to detect the facial expression of the user within the enclosure. In case, any discomfort is detected, the microcontroller regulates the operation of the of the four bar linkage assembly 111 to adjust the airflow.

[0037] In addition to operating the fan unit 106, the microcontroller also activates an optical sensor mounted within the housing 101 to detect any damage present in the cooling pads 202. The optical sensor works by detecting changes in light to determine the presence of damage in the cooling pads 202. The optical sensor typically includes a light source, like an LED, and a light detector, such as a photodiode. The light is either reflected from or interrupted by cooling pads 202. The optical sensor measures how much light is received and converts it into an electrical signal. The converted electrical signal is then processed to detect changes, such as surface damage on the cooling pads 202. In case, the light pattern changes due to damage, the sensor triggers a signal to the microcontroller for further action.

[0038] Based on the signal received by the optical sensor, the microcontroller actuates a pair of motorized clamps 203 installed on a container 204 that is mounted above the chamber 109 in order to securely grip the damaged cooling pad. The motorized clamps 203 contain an end effector and several segments that are attached together by motorized joints also referred to as axes. Each joints of the segments contains a step motor that rotates and allows the clamps 203 to complete a specific motion in translating the equipped end effector. The end effector further comprises of a pair of jaws hinged with each other by means of a bi-directional step motor. On actuation the step motor rotates and enables the opening/closing of the jaws of the effector for releasing/gripping the cooling pad.

[0039] As the cooling pad is securely gripped by the clamps 203, a motorized slider 205 arranged in between the clamp 203 and container 204 is actuated by the microcontroller for translating the clamps 203 away from the pads 202 in order to pull out the damaged pad from the slot. The motorized slider 205 is installed between the container 204 and the clamp 203 consist of a sliding rail and a motorized slidable member connected to the sliding rail. The motorized slidable member is attached to the clamp 203 and sliding rail on both sides to make the clamp 203 slide. The slidable member is attached to a motor which provides movement to the member in a bi-directional manner, in view of transferring the damaged cooling pad into the container 204.

[0040] Upon removing and storing the damaged in the container 204, the microcontroller a rotating disc 206 with plurality of slits 207 to hold multiple new cooling pads 202 is mounted on the ceiling of the housing 101, to rotate the disc 206 in view of aligning the new cooling pad with the sided from where the damaged pad is removed. The disc 206 is attached with a DC (Direct Current) motor that is actuated by the microcontroller to rotate the disc 206 in the required manner. The DC motor converts electrical energy into mechanical energy using direct current. The DC motor operates based on the principle of electromagnetic induction. The motor consists of key components: a rotor (armature), a stator with permanent magnets or electromagnets, a commutator, and brushes. When current flows through the armature winding, a magnetic field is generated that interacts with the magnetic field of the stator. The interaction of the magnetic fields creates a torque that causes the rotor to rotate. The commutator, in conjunction with the brushes, reverses the current direction in the armature windings periodically, ensuring continuous rotation of the disc 206 in the required direction.

[0041] As the new cooling pad is aligned with the side where the new pad is to be inserted, a Scott Russel arrangement 208 installed in between the ceiling portion and disc 206 is actuated by the microcontroller for aligning the ends of the new pad with the slots. In the Scott Russell arrangement 208, the input rod is driven by a motor, typically connected through a crank. When the motor is activated, it rotates and produces linear motion of the input rod along a straight horizontal or vertical axis. This rod is connected to a linkage bar that is also attached to a fixed pivot point. As the motor moves the input rod, the linkage bar transfers this motion and guides the output point that is attached to the disc 206, along a perpendicular path. The motion of the disc 206 along the perpendicular path aligns the new pad with the slots.

[0042] Upon aligning the new pad with the slots, the microcontroller actuates a pair of motorized grippers 209 installed over the edges of ceiling portion of the housing 101 to securely grip the ends of the new pad in order to insert the new pad in the slots. The motorized grippers 209 use actuators to open and close gripper 209 jaws to allow the gripper 209 to hold the free ends of the new pad. The gripper is connected to a motor that generates motion which is transmitted to the linkages to move the gripper 209 in the required manner.

[0043] After securing the free ends of the new pad, the microcontroller actuates a sliding unit 210 arranged between the grippers 209 and the ceiling portion of the housing 101. the sliding unit 210 is actuated to gradually translate the gripper 209 away from the disc 206 for pulling the new pad from the slits 207 of the disc 206 in order to insert the pad into the slot. The sliding unit 210 herein works similar to motorized slider 205 as mentioned above.

[0044] In synchronization of the cooling of the targeted area, the microcontroller activates a temperature sensor coupled with a humidity sensor, installed on the housing 101 to monitor the temperature and humidity of the enclosure. The temperature sensor operates by using a temperature-sensitive element, such as Resistance Temperature Detector (RTD), which changes its electrical resistance with temperature variations. As the temperature rises or falls, the resistance of the element changes accordingly. This change in resistance is converted into an electrical signal by the sensor's circuitry, which then processes the signal to determine the temperature.

[0045] The humidity sensor measures humidity by using a hygroscopic conductive material, often a polymer, whose electrical resistance changes with moisture absorption. As humidity levels increase, the conductive material absorbs moisture, causing its resistance to decrease. The sensor measures these changes in resistance and converts them into an electrical signal that represents the relative humidity. The final signal is then sent to the microcontroller.

[0046] The determined humidity and temperature of the enclosure is compared with a pre-saved value saved in a databased. In case, the determined value exceeds/recedes the pre-saved value, the microcontroller regulates operation of the pump 201 to draw an optimum amount of water and pour over the cooling pads 202 in order to ensure the comfortable surroundings within the enclosure for the user.

[0047] The microcontroller is programmed with multiple machine learning protocols that analyze data from various sensors to identify patterns indicating potential equipment failures. The machine learning protocol in the microcontroller works by first collecting real-time data from various sensors monitoring the motor, fan, and water pump 201. This data includes parameters like temperature, current, speed, and flow rate. The machine learning protocol preprocesses and analyzes this data to extract meaningful patterns. A pre-trained machine learning module embedded in the microcontroller compares the live data with normal operating conditions. In case, any deviation or abnormal pattern is detected, such as overheating, irregular speed, or reduced flow, the model predicts a potential failure. The microcontroller then sends a wireless alert to a user interface, notifying the user about the specific issue and suggesting maintenance actions. This proactive approach helps prevent breakdowns and ensures timely maintenance of the equipment.

[0048] 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.

[0049] The present invention, works best in the following manner, where the housing 101 is supported by multiple rods 102 with wheels 103, enabling mobility across surfaces. Activation begins with the push button that closes the internal circuit to power the microcontroller. The microphones 104 is mounted on the housing 101 capture voice commands, which are processed to activate the artificial intelligence-based imaging unit 105 that detects user presence in the enclosure. Based on detection, the pump 201 draws water from the chamber 109 and distributes the drawn water over cooling pads 202. The sensing module, including the turbidity sensor, pH sensor, infrared sensor, and level sensor, monitors water quality and level. The sensing module sends wireless alerts to the user interface through the Wi-Fi module. Simultaneously, the servo motor rotates the central shaft 108 to run the fan unit 106, drawing warm air through vents and passing the drawn air over wet cooling pads 202 for evaporation and cooling. The four-bar linkage assembly 111 adjusts louvers 110 to direct airflow towards the detected user, with facial expression detection enabling airflow regulation. The optical sensor detects damage in cooling pads 202, prompting the motorized clamps 203 and slider 205 to remove and store the damaged pad, while the DC motor rotates the disc 206 holding new pads. The Scott Russell arrangement 208 aligns the new pad with the slot, and the motorized grippers 209 with a sliding unit 210 insert the pad in the slot. The temperature and humidity sensors maintain optimal cooling, while machine learning protocols predict component failures and trigger proactive alerts.

[0050] 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 voice operated device for adaptable cooling, comprising:

i) a housing 101 configured with a plurality of rods 102 for supporting said housing 101 on a ground surface of an enclosure, wherein each free-end of said rods 102 are installed with a wheel 103 that provides mobility to said housing 101 over said ground surface;

ii) a plurality of microphones 104 mounted on exterior of said body, dedicated towards capturing voice commands from multiple users in surroundings, wherein a microcontroller is linked with said microphones 104, for processing said signals to activate an artificial intelligence-based imaging unit 105 mounted on said housing 101 and paired with a processor for capturing and processing multiple images in vicinity of said housing 101, respectively, to monitor said surroundings for detecting presence of users in said enclosure, based on which said microcontroller identifies a targeted area for cooling;

iii) a fan unit 106 installed within said housing 101, incorporated with multiple curved flaps 107 attached to a central shaft 108, wherein a chamber 109 stored with water is linked to a water pump 201, configured within said housing 101, for drawing and pouring water from said chamber 109 onto multiple cooling pads 202 arranged on inner sides of said housing 101, within slots, to moisten said pads 202;

iv) a servo motor linked with said shaft 108, to rotate for inducing a controlled rotational movement to said shaft 108, which in turn rotates said flaps 107 at an optimum speed, to extract warm air from outside through multiple air vents arranged on lateral and back sides of said housing 101, which is passed through said moist pads 202, to evaporate moisture of said pads 202, to generate cool air that is translated inside said housing 101, and further expelled outwards said housing 101;

v) a plurality of louvers 110 installed at said front side of housing 101, in a cross-linked manner, wherein each of said louvers 110 are attached with a four-bar linkage assembly 111 that is activated by said microcontroller, in accordance to said targeted area, said microcontroller activates said four-bar linkage assembly 111 to provide controlled movement to said louvers 110 for adjusting inclination of said louvers 110, in view of regulating air flow towards said present users, thereby ensuring optimal air distribution across said targeted area;

vi) an optical sensor installed in said housing 101 for monitoring conditions of said cooling pads 202, wherein said monitored conditions are processed by said microcontroller to detect damaged portions, based on which said microcontroller actuates a pair of motorized clamps 203 attached on a container 204 mounted above said chamber 109, for gripping ends of said damaged cooling pad, followed by activation of a motorized slider 205 integrated in between said clamp 203 and container 204 to translate said clamps 203, for pulling said damaged pads 202 from said slots, in view of storing said damaged pads 202 within said container 204;

vii) a rotating disc 206 mounted on ceiling portion of said housing 101, having a plurality of slits 207 designed to store multiple new cooling pads 202, wherein soon as removal of said damaged pads 202, said microcontroller actuates said disc 206 to rotate for aligning said new cooling pad with side from where said damaged pad is removed, followed by activation of a Scott Russel arrangement 208 installed in between said ceiling portion and disc 206, to slightly orient ends of said new cooling pad to align with said slots;

viii) a pair of motorized grippers 209 suspended from said edges of ceiling portion, via a motorized sliding unit 210, wherein upon successful alignment of said new cooling pad, said microcontroller synchronously actuates said motorized grippers 209 and sliding unit 210 for gripping said ends and translate for pulling said new cooling pad from said slits 207, to insert into said slot, in view of installing said cooling pads 202 for effective cooling; and

ix) a sensing module installed in said chamber 109 for monitoring said stored water to detect water levels, contamination and insect presence in said water, based on which said microcontroller generates a wireless notification to a user interface installed in a computing unit wirelessly associated with said microcontroller, that is accessed by a user, for receiving real-time recommendations regarding requirement of maintenance or water replacement.

2) The device as claimed in claim 1, wherein said sensing module includes but is not limited to a turbidity sensor, a pH sensor, a level sensor and an infrared sensor.

3) The device as claimed in claim 1, wherein said microcontroller is equipped with multiple machine learning protocols for predicting potential equipment failures and sends proactive maintenance alerts to said user for issues such as motor overheating, fan malfunction, or water pump 201 failure.

4) The device as claimed in claim 1, wherein a temperature sensor coupled with a humidity sensor, is installed on said housing 101 for monitoring temperature and humidity in surroundings of said housing 101, based on which said microcontroller regulates operation of said pump 201 to draw an optimal water for cooling said pads 202, thereby ensuring comfort of said users.

5) The device as claimed in claim 1, wherein said imaging unit 105 is configured to analyze facial expressions of said user, to detect discomfort, based on which said microcontroller regulates operation of said bar linkage assembly 111 to adjust direction of said airflow via said louvers 110.

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