Description:FIELD OF THE INVENTION

[0001] The present invention relates to a portable workstation device that is developed to assist users in handling, maintaining, and securing electronic devices by means of automated positioning, temperature control, cleaning, and security, enabling efficient operation in various environments without requiring manual intervention.

BACKGROUND OF THE INVENTION

[0002] In today’s fast-paced and mobile working environment, professionals are increasingly dependent on portable electronic gadgets such as laptops, tablets, and related devices for their daily tasks. These gadgets are often used in a wide range of settings, including offices, public spaces, transit locations, and field sites. However, users frequently face difficulties in maintaining ergonomic posture, accessing peripherals, managing thermal output, and ensuring the safety and security of their devices, especially during travel or outdoor use. There is a growing need for portable workstation solutions that not only offer mobility but also support essential functions such as stability, user comfort, hands-free operation, and protection of devices during handling and transport.

[0003] Traditionally, users rely on basic laptop stands, foldable tables, or generic docking stations to carry and use their gadgets while on the move. These solutions do not support hands-free peripheral connection or automated adjustments based on device size or weight. The user is required to manually connect accessories, clean device surfaces, or adjust device orientation, leading to interruptions and reduced productivity. Moreover, existing workstation solutions do not provide any added security and users must separately secure their devices using external locks or software. Transporting such setups across uneven surfaces is difficult due to lack of mobility.

[0004] US7901018B2 discloses a portable workstation, in one embodiment, includes a base unit and a table. The base unit includes one or more vertical support members and a platform extending horizontally from the vertical support member. The platform forms the top of the base unit in an upright position. The table is configured to extend from the top of the base unit and includes a support leg. The table transitions between an extended position and a storage position. When the table is in the extended position, the table provides support to the base unit of the workstation, forming an integrated tripod system. Thus, the base unit may be compact and easily transported in a storage position; however, the platform and the table when extended may provide an ample work surface at a traditional working height. The base unit may include a frame structure and may be transported on wheels or carried like a back pack in certain embodiments.

[0005] US4436353A discloses a portable storage device and table for outdoors activity which unfolds from a trunk-like container into a table, having a front shelf face which foldably lifts from the container providing support for the table surface, and the trunk-like base providing a storage receptacle.

[0006] Conventionally, many devices exist for holding and supporting portable electronic gadgets, such as laptop stands, foldable tables, and docking stations. However, the cited arts have certain limitations pertaining to lack of automation, limited security features, difficulty in adjusting to different device sizes, and poor portability on uneven surfaces. These solutions often require manual setup, do not support hands-free operation, and fail to provide adequate protection for devices during transport.

[0007] In order to overcome the aforementioned drawbacks, there exists a need in the art to develop a versatile and portable workstation that automatically adjusts to different device sizes and weights, along with supporting hands-free usage, providing thermal management, and enabling secured locking of devices, when not in user to improve user convenience and safety.

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 provides a portable workstation to allow user’ safe and stable handling of electronic gadgets during use and transport.

[0010] Another object of the present invention is to develop a device that detects user’s posture and working conditions to automatically adjust itself to provide comfortable positioning of the gadget.

[0011] Another object of the present invention is to develop a device that is capable of monitoring and managing the operational temperature of the gadget during extended use.

[0012] Yet another object of the present invention to develop a device that provides secure access and controlled operation of the workstation by mean of user authentication and remote access methods to maintain the safety of the gadgets.

[0013] The foregoing and other objects, features, and advantages of the present invention will become readily apparent upon further review of the following detailed description of the preferred embodiment as illustrated in the accompanying drawings.

SUMMARY OF THE INVENTION

[0014] The present invention relates to a portable workstation device that is capable of providing an automated means for handling, maintenance, and security of electronic devices, in an efficient, safe, and user-friendly manner by using features that adapt to different environments and user needs, without requiring manual intervention.

[0015] According to an embodiment of the present invention, a portable workstation device, comprises of a housing equipped with a handle for manipulation and control, a slidable platform mounted on a horizontal guide track within the housing, featured with multiple securing modules to position and stabilize the gadget based on dimensions detected by a sensor installed on the platform, a plurality of grippers positioned on the platform and paired with a lifting assembly for gently lifting and opening lid of the gadget, a thermal regulation unit coupled with a thermal sensor, integrated in the platform for monitoring and managing the operational temperature of the gadget, an artificial intelligence-based imaging unit installed on the housing and linked to an inbuilt control unit, a voice-responsive control module located on the housing to interpret and execute vocal commands, a peripheral handling and navigation module installed with the platform, configured to enable hands-free input navigation and automated insertion of peripheral devices into ports of the gadget, a security and access control module disposed within the housing comprises of i) a lock assembly to engage or disengage a locking groove upon complete retraction of the slidable platform, ii) a biometric scanner for local user authentication, iii) a remote access module for control via external computing units, a plurality of extendable rods installed at bottom corners of the housing, each terminating in an omnidirectional wheel, the rods being extendable and retractable via based on user’s height or terrain, and integrated with a suspension unit for shock absorption during movement.

[0016] According to another embodiment of the present invention, the device further includes a plurality of stabilizing plates deployed from each lateral sides of the housing via extendable links, to provide mechanical stability when the platform is in use, the platform includes multiple rotary joints and extendable pins for tilt and elevation adjustment of the platform, in response to user’s posture detected by the imaging unit, the securing modules includes multiple motorized clamps with foam padding and pressure sensors, which are guided by an optical sensor that detects the gadget’s size, based on which the clamps secure or release the gadget while avoiding structural stress or surface damage, the thermal regulation unit comprises thermoelectric cooling plates, heat-conductive copper channels and hear dissipating fins, along with motorized exhaust vents that activates automatically when the thermal sensor detects internal heat beyond a pre-defined threshold, the peripheral handling and navigation module includes a stylus pen mounted on a robotic arm for touchpad navigation and a micro-gripper assembly configured to grasp, align, and insert peripheral devices into the gadget’s ports based on user commands, while using a position sensors, proximity sensors, and a linear actuator, the housing is equipped with an environmental adaption module including a pyrheliometer sensor to detect light intensity and glare, and multiple Ultraviolet reflective panels on motorized hinge joints for deployment to deflect the harmful radiation and reduce screen glare, an automated cleaning assembly is installed on the platform, including a motorized retractable brush and air nozzles for cleaning the gadget’s surface, based on feedback from a dust sensor installed on the platform, a shock absorbing unit is arranged within the housing, which includes multiple electromagnetic springs that are activated upon detection of a fall by a motion sensor coupled with the imaging unit, thereby reducing impact to internal components.

[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 a portable workstation device.

DETAILED DESCRIPTION OF THE INVENTION

[0019] The following description includes the preferred best mode of one embodiment of the present invention. It will be clear from this description of the invention that the invention is not limited to these illustrated embodiments but that the invention also includes a variety of modifications and embodiments thereto. Therefore, the present description should be seen as illustrative and not limiting. While the invention is susceptible to various modifications and alternative constructions, it should be understood, that there is no intention to limit the invention to the specific form disclosed, but, on the contrary, the invention is to cover all modifications, alternative constructions, and equivalents falling within the spirit and scope of the invention as defined in the claims.

[0020] In any embodiment described herein, the open-ended terms "comprising," "comprises,” and the like (which are synonymous with "including," "having” and "characterized by") may be replaced by the respective partially closed phrases "consisting essentially of," consists essentially of," and the like or the respective closed phrases "consisting of," "consists of, the like.

[0021] As used herein, the singular forms “a,” “an,” and “the” designate both the singular and the plural, unless expressly stated to designate the singular only.

[0022] The present invention relates to a versatile and mobile device management. More specifically, the present invention is directed towards a portable workstation device that integrates automation, user interaction, and safety features to support the setup, operation, and protection of electronic gadgets in view of improving convenience, accuracy, and security during device handling and maintenance activities.

[0023] Referring to Figure 1, an isometric view of a portable workstation device is illustrated, comprises of a housing 101 equipped with a handle 102, a slidable platform 103 mounted on a horizontal guide track 104 within the housing, a plurality of grippers 105 positioned on the platform 103 and paired with a lifting assembly 106, an artificial intelligence-based imaging unit 107 installed on the housing, a lock assembly comprises a rotating cam latch 108 and a locking groove 109, a biometric scanner 110, a plurality of extendable rods 111 installed at bottom corners of the housing, each terminating in an omnidirectional wheel 112, a plurality of stabilizing plates 113 deployed from each lateral sides of the housing 101 via extendable links 114.

[0024] Figure 1 further illustrates a voice-responsive control module located on the housing 101 including a microphone 115, each of the extendable rods integrated with a suspension unit 116, a stylus pen 117 mounted on a robotic arm 118 and a micro-gripper assembly 119, an automated cleaning assembly is installed on the platform 103 including a motorized retractable brush 120 and air nozzles 121, a shock absorbing unit having multiple electromagnetic springs 122 arranged within the housing, and securing modules installed on the platform 103 including multiple motorized clamps 123.

[0025] The present invention discloses a housing 101 designed to encase and protect the internal components of the device, providing structural support and durability. The housing 101 is equipped with a handle 102 in view of facilitating easy manipulation and manoeuvrability by users. The handle 102 enhances portability, allowing users to carry, position, and operate the device comfortably and securely in various environments. Its ergonomic design ensures ease of grip and control, reducing user fatigue during transport or operational adjustments.

[0026] To activate the device, a push button installed on the housing 101 associated with the device that is pressed by a user for the activation of the device. The button is typically connected to the device's internal circuitry, allowing the user to activate or deactivate the device through a simple press. Upon pressing of the button, the push force leads to completing of an internal circuit, that in turn sends an electrical signal to an inbuilt control unit linked with the device. The inbuilt control unit receives the signal from button and executes instructions to initiate the working of the device. The inbuilt control unit is pre-fed with a defined set of instructions to further actuate the other components.

[0027] The inbuilt control unit activates an artificial intelligence-based imaging unit 107 installed with the housing 101 to detect the terrain where the user desires to install the housing. The imaging unit 107 includes a camera that captures images of the surroundings to gather comprehensive visual information. The imaging unit 107 is linked with a processor that preprocesses the captured images which involves noise reduction to clean the distortions followed by adjusting brightness, contrast, and color balance to make the images more uniform.

[0028] Then, the feature extraction is done using artificial intelligence protocol to identify and extract key features or patterns from the images to highlight significant elements within the image. Artificial intelligence protocols involve deep learning models that are trained to recognize and classify objects, detect anomalies, or segment images into different regions. At last, the processed images are sent to the control unit that determines the type of terrain.

[0029] Based on the detected of the terrain where the hosing is to be kept, the control unit actuates a plurality of extendable rods 111 installed at bottom corners of the housing 101 to extend/retract to adjust the height of the housing. The extendable rods 111 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 rods 111.

[0030] The pneumatic unit is operated by the control unit, such that the control unit 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 rods 111 and due to applied pressure the rods 111 extends and similarly, the control unit retracts the rods 111 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 rods 111. Thus, the control unit regulates the extension/retraction of the rods 111 to adjust the height of the housing.

[0031] Each of the rods are configured with an omnidirectional wheel 112 to provide ease of relocating the housing 101 in the user-desired area. The omnidirectional wheel 112 are equipped with multiple rollers around their circumference, typically positioned at 90° or 45° angles to the main wheel’s 112 axis. These rollers allow the wheel 112 to move not only forward and backward like a traditional wheel and also sideways, enabling smooth, multi-directional movement.

[0032] The rods are also installed with a suspension unit 116 between the rod and the wheel 112 for shock absorption during movement. The suspension unit 116 absorb shocks and vibrations that occur during movement, especially over uneven surfaces. This unit typically includes flexible components that compress and expand to cushion the impact, reducing stress on the housing 101 and improving overall stability. By dampening jolts and minimizing sudden force transfers, the suspension unit 116 ensures smoother relocation, protects internal components of the housing, and enhances user control and comfort while manoeuvring the structure across various floor conditions.

[0033] Once the housing 101 is installed over the desired area, the control unit activates a slidable platform 103 installed with the housing 101 and mounted on a horizontal guide track 104. The control unit activates a motor that causes the platform 103 to slide horizontally along the track 104. The guide track 104 ensures smooth, straight-line motion while preventing unwanted movement in other directions. This setup allows platform 103 of the housing 101 to extend or shift sideways to allow the user to place the desired gadgets.

[0034] In an embodiment of the present invention, the slidable platform 103 is controlled through an audio-responsive interface. This interface, integrated into the housing, captures vocal instructions issued by the user and transmits them to a control unit. The control unit processes the input and activates the motor to move the platform 103 along the horizontal guide track 104. This embodiment provides hands-free operation, allowing the user to extend or retract the platform 103 using spoken input.

[0035] In another embodiment of the present invention, the slidable platform 103 is operated via a manual control interface positioned on the housing. The interface may include buttons, a touchscreen, or a rotary input device. Upon receiving user input, the control signal is sent to the control unit, which initiates movement of the platform 103 in the desired direction. This provides the user with direct physical control of the platform’s 103 positioning.

[0036] In yet another embodiment of the present invention, the platform 103 is automatically extended or retracted based on signals from a presence detector capable of recognizing the user's position or movement. When user presence is detected near the workstation, the control unit initiates extension of the platform 103. In contrast, if the control unit detects inactivity for a predefined period, it triggers automatic retraction.

[0037] The platform 103 is integrated with an optical sensor, activated by the control unit to detect the gadget’s size. The optical sensor emits light typically infrared and measures the interruption of the light caused by the object. By analysing the distance, shape, or shadow pattern created by the gadget, the sensor determines its dimensions and this information is then sent to the control unit.

[0038] Based on dimensions detected, the control unit actuates multiple securing modules installed on the platform 103 to position and stabilize the gadget. The securing modules includes multiple motorized clamps 123 with foam padding to secure or release the gadget while avoiding structural stress or surface damage. The motorized clamps 123 hold the gadget firmly in place after its dimensions are detected by the optical sensor. Controlled by the central unit, each clamp is powered by a small motor that adjusts its position to match the gadget’s size and shape. Once aligned, the clamps 123 close around the gadget, applying just enough pressure to stabilize it without causing damage. Foam padding on the clamp surfaces provides cushioning, preventing scratches or stress on the gadget while ensuring a secure, vibration-free hold during operation or movement.

[0039] The multiple motorized clamps 123 are integrated with pressure sensors that works by converting the physical force applied by the clamp into an electrical signal that is interpret by the control unit. The sensor uses resistive force sensing, when the clamp presses against the gadget, the pressure sensor’s internal material deforms slightly, changing its electrical resistance or capacitance. This change is measured and translated into a pressure value. The control unit monitors this data in real time to determine if the applied force is appropriate, adjusting the clamp’s motor if necessary to ensure safe and stable securing of the gadget.

[0040] Once the gadget is stabilized over the platform 103, a plurality of grippers 105 positioned on the platform 103 are actuated by the control unit to open the lid of the gadget. The grippers 105 are mechanical arms that interact with the gadget and open the lid of the stabilized gadget. Once the gadget is secured, the control unit activates the grippers 105, guiding them into position using motors or actuators. The grippers 105 are equipped with precision tips or padded ends to grip the lid without causing damage. By applying controlled force and movement, the grippers 105 open the lid based on the gadget's design.

[0041] The grippers 105 are paired with a lifting assembly 106 for gently lifting to assist the grippers 105 for opening lid of the gadget. The lifting assembly 106 works in coordination with the grippers 105 to gently raise the lid of the gadget without causing damage. Once the grippers 105 have securely engaged the lid, the lifting assembly 106 composed of a motorized linear actuator, scissor lift, or pneumatic unit that is activated by the control unit. This applies a smooth, upward force beneath or around the lid area to assist in its opening to lift the lid gradually and evenly, reducing the strain on the grippers 105 and preventing sudden movements.

[0042] In an embodiment of the present invention, the lifting assembly 106 utilizes a linear actuator comprising an electric motor coupled with a screw or belt drive mechanism to produce straight-line motion. When activated by the control unit, the linear actuator extends or retracts smoothly beneath or around the lid of the gadget, applying a controlled upward force. This allows for precise and adjustable lifting, ensuring the lid is opened gradually and evenly to prevent damage to the device or the gripping components.

[0043] In another embodiment of the present invention, the lifting assembly 106 incorporates a scissor lift mechanism consisting of interconnected support arms arranged in a crisscross pattern. Scissor lift comprises a series of crossed metal arms arranged in a scissor pattern connected by hinges 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. 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 103 at the desired height. The scissor arms are locked in place by the pressure from the hydraulic cylinders, which stabilizes the platform 103. To adjust the height or lower the platform 103, 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. Upon activation, the scissor lift elevates the platform 103 or lid in a stable and controlled manner, providing a gentle and uniform opening motion, reducing mechanical stress during the lid-opening process.

[0044] In yet another embodiment of the present invention, the lifting assembly 106 employs a pneumatic unit composed of an air cylinder connected to a compressed air source and controlled by valves. The lifting arrangement is powered by the pneumatic arrangement associated with the device. The extension/retraction works in the same manner as extendable rods described earlier. When the control unit sends a signal, compressed air enters the cylinder, pushing the piston outward and applying a smooth, consistent upward force to the lid.

[0045] The platform 103 is integrated with a thermal sensor for monitoring the operational temperature of the gadget. The thermal sensor functions by continuously monitoring the temperature of the gadget during operation. It detects changes in thermal levels, providing real-time data to the control unit. If the temperature exceeds predefined safety thresholds, the sensor sends an alert, prompting the control unit to pause or adjust the operation to prevent overheating or thermal damage.

[0046] Based on the detected temperature of the gadget, the control unit activates a thermal regulation unit for managing the operational temperature of the gadget. The thermal regulation unit comprises thermoelectric cooling plates, heat-conductive copper channels and hear dissipating fins, along with motorized exhaust vents. When overheating is detected, the control unit activates the thermoelectric cooling plates, which absorb heat and create a temperature difference. The heat is then transferred through heat-conductive copper channels to dissipating fins, which increase surface area for heat dissipation.

[0047] Motorized exhaust vents further expel warm air, enhancing cooling efficiency. The motorized exhaust vents function by actively expelling warm air generated within the thermal regulation unit. Controlled by the control unit, these vents open or close based on temperature readings, allowing hot air to escape from the gadget's interior. This continuous removal of heat helps maintain a stable internal temperature, preventing overheating and thermal damage.

[0048] The voice-responsive control module is located on the housing 101 to allow the user to interpret and execute vocal commands. The module includes a microphone 115 that enables the user to operate key functions through voice commands for insertion of peripheral devices into ports of the gadget. The microphone 115 consists of a diaphragm, typically made of a thin, flexible material such as metal or plastic. When sound waves reach the microphone 115, leads to providing a vibrating movement to the diaphragm. These vibrations are directly proportional to the variations in air pressure caused by the sound waves. The diaphragm is coupled to a coil of wire, as the diaphragm vibrates, the coil moves within a magnetic field, inducing an electric current in the wire. This current is proportional to the amplitude and frequency of the sound waves. The electrical signal generated by the diaphragm-coil is transmitted to an inbuilt control unit associated with the device.

[0049] Based on the input of the user, the control unit commands the artificial intelligence-based imaging unit 107 to detect the exact position and orientation of the laptop’s ports. The artificial intelligence-based imaging unit 107 works in the same manner as described earlier. The platform 103 is installed with a peripheral handling and navigation module, activated by the control unit based on the detected position and orientation of the laptop’s ports. The module enables hands-free input navigation and automated insertion of peripheral devices into ports of the gadget.

[0050] The peripheral handling and navigation module includes a stylus pen 117 mounted on a robotic arm 118 for touchpad navigation. The robotic arm 118 holds the stylus pen 117 serves as an automated input device for touchpad navigation, enhancing precision and functionality. The arm 118 is equipped with miniature motors to move the stylus smoothly and accurately across the touch surface. The arm 118 responds to commands from the device’s control unit, which interprets user inputs or programmed tasks. This enables the stylus to perform detailed actions such as drawing, handwriting, or selecting interface elements with high accuracy, even in complex or delicate operations.

[0051] The module also includes a micro- gripper assembly 119 configured to grasp, align, and insert peripheral devices into the gadget’s ports. The micro- gripper assembly 119 uses miniature, motorized fingers or claws that open, close, and adjust to grasp various peripherals, such as cables or connectors. The gripper assembly 119 aligns the peripheral accurately with the gadget’s ports. Once aligned, the micro-gripper gently inserts the device into the port, ensuring proper connection without manual effort.

[0052] The module monitors the position of the insertion of the peripheral devices via a position sensor, proximity sensor, and a linear actuator. The position sensor functions by detecting the exact location of the peripheral device as it is being inserted into the port. The sensor measures parameters such as displacement or distance, providing real-time feedback to ensure that the device is aligned correctly and progressing along the intended insertion path. This precise positional information helps the control unit to make necessary adjustments to facilitate smooth and accurate insertion.

[0053] The proximity sensor detects the presence of the peripheral device without physical contact, by measuring the distance between the sensor and the object. When the device approaches the port, the proximity sensor signals its presence, allowing the control unit to initiate or adjust the insertion process accordingly. This helps prevent misalignment and ensures that the device is correctly positioned before full insertion.

[0054] The linear actuator is responsible for moving the micro-gripper or the peripheral device along a straight line, applying controlled force during insertion. The actuator converts electrical signals into precise linear motion, enabling smooth and steady advancement of the peripheral into the port. The linear actuator works in coordination with the sensors to control the insertion depth and ensure proper engagement without damage or misfit.

[0055] Upon complete retraction of the slidable platform 103 for secure positioning of the gadget, the housing 101 is configured with a security and access control module to keep the gadget secure when not in use. The control module includes a lock assembly to engage or disengage a locking groove 109. The lock assembly comprises a rotating cam latch 108 that starts with a miniature stepper motor, which engages with the locking groove 109 located on the platform’s 103 base structure.

[0056] The lock assembly functions by using a rotating cam latch 108 controlled by the miniature stepper motor. When locking, the stepper motor rotates the cam latch 108 into a position where it engages with a designated locking groove 109 on the platform’s 103 base structure. This engagement securely holds the platform 103 in place, preventing any movement or removal of the gadget. To unlock, the stepper motor reverses its rotation, moving the cam latch 108 out of the locking groove 109 and disengaging the lock. This assembly allows precise control over the locking and unlocking process, ensuring that the gadget remains securely stored when not in use and easily accessible when needed.

[0057] To access the security module, the user authentication is done via a biometric scanner 110 included with the access control module. The biometric scanner 110 works by capturing unique physical characteristics of the user, such as fingerprints, facial features, or iris patterns, and comparing them to stored reference data. When the user attempts to interact with the device, the biometric scanner 110 scans their feature and generates a digital representation. This data is then processed and matched against the stored template in the device's database. If the scan matches an authorized user's data, the device allows operation, such as activating the hinges to open the plate. If the biometric data does not match, the device denies access, enhancing security by preventing unauthorized use.

[0058] The access control module also allows the authenticated user to access the device remotely via their computing unit. A user interface is installed in a computing unit wirelessly associated with the device, that is accessed by the user to interact with the interface with the device.

[0059] The computing unit is linked with an inbuilt control unit via a communication module to facilitate wireless communication. The communication module facilitates data exchange between computing unit and control unit by encoding and sending information over various channels, such as Wireless Fidelity (Wi-Fi), Bluetooth, or cellular networks. The communication module, such as a Wireless Fidelity (Wi-Fi) module connects to the control unit to wirelessly transfer data to the computing unit, like a smartphone or server, over a Wi-Fi network. The control unit sends the data via the Wi-Fi module to a remote server or cloud service using standard communication protocols (such as HTTP (Hypertext Transfer Protocol) or MQTT (Message Queuing Telemetry Transport)).

[0060] Each of the lateral sides of the housing 101 is configured with a plurality of stabilizing plates 113 with via extendable links 114, actuated by the control unit to provide mechanical stability when the platform 103 is in use. The extendable links 114 are powered by the pneumatic arrangement associated with the device. The extension/retraction works in the same manner as extendable rods described earlier.

[0061] The imaging unit 107 continuously monitors the user’s posture, and based on the detected posture, the control unit actuates multiple rotary joints installed on the platform 103 having extendable pins for tilt and elevation adjustment of the platform 103. The joints work by converting electrical signals into rotational motion, allowing the platform 103 to tilt forward, backward, or side to side, and raise or lower as needed. This coordinated movement ensures the platform 103 aligns optimally with the user’s posture, providing dynamic support and maintaining ergonomic positioning based on real-time posture monitoring. The extendable pins are powered by the pneumatic arrangement associated with the device. The extension/retraction works in the same manner as extendable rods described earlier.

[0062] In addition, there is an environmental adaption module installed with the housing 101 including a pyrheliometer sensor to detect light intensity and glare. The sensor works by using a thermopile or photovoltaic sensor that absorbs incoming light through a narrow field of view, typically with a solar filter, converting the light energy into a small electrical voltage proportional to the light intensity. The sensor continuously monitors environmental lighting conditions and transmits this data to the control unit.

[0063] Based on the detected light intensity and glare, the control unit actuates motorized hinge joints to deploy multiple ultraviolet reflective panels to protect from the harmful radiation and reduce screen glare. The motorized hinge used herein, is a piece of metal that joins two sides or items together and allows it to be opened or closed by revolving along the longitudinal axis whose operation is governed by a DC motor

[0064] The ultraviolet (UV) reflective panels function by reflecting or blocking harmful UV radiation and reducing glare from bright light conditions. When the control unit detects high light intensity or glare via the pyrheliometer sensor, it activates motorized hinge joints to deploy these panels. The panels, coated with reflective materials, reflect UV rays away from the user and the device, minimizing exposure and glare. This dynamic deployment helps protect the user’s eyes and screen visibility, ensuring a comfortable visual environment while maintaining the effectiveness of the device in various lighting conditions.

[0065] To enhance the utility of the device, the control unit activates a dust sensor installed on the platform 103 to detect the presence of dust over the gadget’s surface. The dust sensor detects the presence of dust by monitoring the particles. The dust sensor uses an optical sensing method to detect dust. A photo sensor and an infrared light-emitting diode are optically arranged in the dust sensor. The photo-sensor detects the reflected rays which are bounced off the gadget’s surface. The bounced back rays are processed by the control unit integrated with the dust sensor for determining the dust over the gadget’s surface.

[0066] Based on dust sensor’s feedback, a motorized brush 120 installed on the housing, is activated by the control unit to extend/retract to make contact with the gadget’s surface and rotates to loosen and remove dirt. The brush’s 120 movement helps dislodge dust particles from hard-to-reach areas. Simultaneously, the air nozzles 121 blow a controlled stream of compressed air onto the device, blowing away loosened dust and debris.

[0067] The nozzles 121 sprays air by using electronic controls to manage the flow and dispersion of the air. When activated by the control unit as per detected wrinkles, an electronic valve associated with the nozzles 121 such that regulates the air supply. The actuation of that valve adjusts the pressure and flow rate of air to the nozzles 121 via the conduit. The nozzles 121 itself is designed with precision engineering to atomize the air into a fine mist or controlled stream. Once the cleaning cycle is complete, the brush 120 retracts, and the air nozzles 121 turn off to keep gadgets clean and maintains device performance by preventing dust build-up.

[0068] The control unit activates a motion sensor coupled with the imaging unit 107 to detect any fall conditions. The sensor uses infrared waves to sense motion within its field of view. When a fall or rapid movement occurs, the sensor detects the change and sends a signal to the control unit. The imaging unit 107 then analyse the motion patterns to confirm a fall condition.

[0069] In case any fall conditions are detected, the housing 101 is embedded with a shock absorbing unit within to reduce any impact to internal components. The shock absorbing unit includes multiple electromagnetic springs 122 that are activated by the control unit. When the control unit detects a fall, it activates the electromagnetic springs 122, which generate opposing magnetic forces to absorb and dissipate the energy from the shock. This action reduces the impact transmitted to the internal components, protecting sensitive electronics from damage. The electromagnetic springs 122 provide rapid, controlled cushioning, thereby enhancing durability and maintaining optimal functionality during accidental impacts.

[0070] Moreover, a battery (not shown in figure) is associated with the device to supply power to electrically powered components which are employed herein. The battery is comprised of a pair of electrodes 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.

[0071] The present invention works best in the following manner, where the housing 101 as disclosed in the invention is equipped with the handle 102 for easy maneuverability. Activation is initiated via the control unit that activates the AI-based imaging unit 107, to analyze terrain and determine suitable installation sites by preprocessing images. Based on terrain detection, the control unit actuates pneumatic extendable rods with air cylinders, pistons, and valves to adjust the housing 101 height via the control unit regulation. Each rod, fitted with omnidirectional wheel 112 and shock-absorbing suspension unit 116, facilitates smooth, multi-directional movement across various surfaces. The device features a sliding platform 103 on the horizontal guide track 104, controlled by voice commands via the audio-responsive interface with the microphone 115 or manual controls like buttons or touchscreens to operate automatically based on user presence detection. The platform 103 uses optical sensors to measure attached gadget dimensions, with motorized clamps 123 securing and stabilizing gadgets by adjusting motorized clamps 123 with foam padding, monitored by pressure sensors. grippers 105 and lifting assembly 106 together open the gadget lids gently. Temperature sensors continuously monitor gadget heat levels, activating thermoelectric cooling plates, heat sinks, and motorized exhaust vents for thermal regulation. Voice module, biometric scanner 110, wireless communication, security lock with stepper motor, and environmental sensors (light, dust, motion) further enhance functionality, ensuring safe, adaptive, and intelligent operation across diverse environments.

[0072] 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 portable workstation device, comprising:

a) a housing 101 equipped with a handle 102 for manipulation and control;
b) a slidable platform 103 mounted on a horizontal guide track 104 within the housing, featured with multiple securing modules to position and stabilize the gadget based on dimensions detected by a sensor installed on the platform 103;
c) a plurality of grippers 105 positioned on the platform 103 and paired with a lifting assembly 106 for gently lifting and opening lid of the gadget;
d) a thermal regulation unit coupled with a thermal sensor, integrated in the platform 103 for monitoring and managing the operational temperature of the gadget;
e) an artificial intelligence-based imaging unit 107 installed on the housing 101 and linked to an inbuilt control unit;
f) a voice-responsive control module located on the housing 101 to interpret and execute vocal commands;
g) a peripheral handling and navigation module installed with the platform 103, configured to enable hands-free input navigation and automated insertion of peripheral devices into ports of the gadget; and
h) a security and access control module disposed within the housing, comprising:
i) a lock assembly to engage or disengage a locking groove 109 upon complete retraction of the slidable platform 103;
ii) a biometric scanner 110 for local user authentication;
iii) a remote access module for control via external computing units.

2) The device as claimed in claim 1, wherein the housing 101 as disclosed in the invention further comprises of a plurality of extendable rods installed at bottom corners of the housing, each terminating in an omnidirectional wheel 112, the rods being extendable and retractable via based on user’s height or terrain, and integrated with a suspension unit 116 for shock absorption during movement.

3) The device as claimed in claim 1, wherein a plurality of stabilizing plates 113 deployed from each lateral sides of the housing 101 via extendable links 114, to provide mechanical stability when the platform 103 is in use.

4) The device as claimed in claim 1, wherein the platform 103 includes multiple rotary joints and extendable pins for tilt and elevation adjustment of the platform 103, in response to user’s posture detected by the imaging unit 107.

5) The device as claimed in claim 1, wherein the securing modules includes multiple motorized clamps 123 with foam padding and pressure sensors, which are guided by an optical sensor that detects the gadget’s size, based on which the clamps 123 secure or release the gadget while avoiding structural stress or surface damage.

6) The device as claimed in claim 1, wherein the thermal regulation unit comprises thermoelectric cooling plates, heat-conductive copper channels and hear dissipating fins, along with motorized exhaust vents that activates automatically when the thermal sensor detects internal heat beyond a pre-defined threshold.

7) The device as claimed in claim 1, wherein the peripheral handling and navigation module includes a stylus pen 117 mounted on a robotic arm 118 for touchpad navigation and a micro- gripper assembly 119 configured to grasp, align, and insert peripheral devices into the gadget’s ports based on user commands, while using a position sensor, proximity sensors, and a linear actuator.

8) The device as claimed in claim 1, wherein the housing 101 is equipped with an environmental adaption module including a pyrheliometer sensor to detect light intensity and glare, and multiple Ultraviolet reflective panels on motorized hinge joints for deployment to deflect the harmful radiation and reduce screen glare.

9) The device as claimed in claim 1, wherein an automated cleaning assembly is installed on the platform 103, including a motorized retractable brush 120 and air nozzles 121 for cleaning the gadget’s surface, based on feedback from a dust sensor installed on the platform 103.

10) The device as claimed in claim 1, wherein a shock absorbing unit is arranged within the housing, which includes multiple electromagnetic springs 122 that are activated upon detection of a fall by a motion sensor coupled with the imaging unit 107, thereby reducing impact to internal components.