Description:FIELD OF DISCLOSURE
[0001] The present disclosure generally relates to a shower system, more specifically, relates to an automated smart shower dispensing system based on internet of things (IOT).
BACKGROUND OF THE DISCLOSURE
[0002] Traditional shower systems require users to manually handle multiple shower products such as shampoo, conditioner, body wash, essential oils, and other liquid-based personal care items. This process is often time-consuming, inefficient, and inconvenient, especially when hands are wet and slippery. Existing solutions, such as bottled dispensers or wall-mounted sensor units, lack intelligent control, multi-liquid dispensing capabilities, and real-time customization to enhance the overall showering experience.
[0003] One of the major drawbacks of current shower dispensers is their lack of multi-product integration and automation. Traditional dispensers are designed to handle only a single liquid at a time, requiring users to manually switch between shampoo, conditioner, and body wash. This leads to excessive product usage, wastage, and inconsistent application, reducing overall efficiency. Even sensor-based dispensers, while touchless, lack intelligent dosage control and fail to provide a customized experience based on individual user preferences.
[0004] Hygiene maintenance remains a significant concern, as soap residue and moisture buildup in traditional dispensers lead to bacterial growth and clogging. Users must frequently clean these dispensers, making them inconvenient for long-term use. Furthermore, existing systems do not integrate real-time monitoring, automated refilling alerts, or AI-based optimization, limiting their adaptability to user needs.
[0005] Another significant limitation is the lack of entertainment and voice control features in traditional showers. Users often rely on external speakers or manual adjustments to play music, make calls, or control shower settings. Without built-in speakers, a microphone, or smart assistant integration, current systems fail to deliver a truly immersive and hands-free experience. Despite advancements in smart home technologies, shower systems do not incorporate IoT-based features, restricting their ability to connect with mobile apps, sync user preferences, or integrate with smart home ecosystems.
[0006] Furthermore, several prior solutions have attempted to address these challenges, but they remain limited in functionality, efficiency, and user experience. Wall-mounted dispensers, while common, still require manual button pressing or sensor activation, adding an extra step to the showering process. Bottled dispensers are prone to inconsistent dosing, soap wastage, and inconvenience due to manual handling. Sensor-based dispensers, although touchless, function independently from the shower system, requiring separate installation and maintenance.
[0007] The present invention introduces a fully automated smart shower dispensing system that overcomes the limitations of prior solutions by integrating artificial intelligence (AI) driven dispensing control, multi-liquid customization, internet of things (IoT) connectivity, entertainment features, and self-cleaning technology, the present invention delivers a fully automated, intelligent, and personalized showering experience. This system enhances hygiene, convenience, and sustainability while addressing the shortcomings of existing solutions, making it a revolutionary addition to modern smart home ecosystems.
[0008] Thus, in light of the above-stated discussion, there exists a need for an automated smart shower dispensing system.
SUMMARY OF THE DISCLOSURE
[0009] The following is a summary description of illustrative embodiments of the invention. It is provided as a preface to assist those skilled in the art to more rapidly assimilate the detailed design discussion which ensues and is not intended in any way to limit the scope of the claims which are appended hereto in order to particularly point out the invention.
[0010] According to illustrative embodiments, the present disclosure focuses on an automated smart shower dispensing system which overcomes the above-mentioned disadvantages or provide the users with a useful or commercial choice.
[0011] An objective of the present disclosure is to develop a smart shower dispensing system that integrates multi-liquid dispensing, AI-driven customization, and IoT connectivity, which overcomes the shortcomings of standard shower facilities that do not employ automation, accuracy, and customization.
[0012] Another objective of the present disclosure is to improve user control over product dispensing so that there is accurate dosage of various shower essentials, providing optimal usage, less waste, and a customized showering experience.
[0013] Yet objective of the present disclosure is to incorporate an intelligent self-cleaning mechanism that avoids soap residue buildup, clogging, and bacterial growth, prevalent in conventional dispensers, and thereby ensures improved hygiene and system life.
[0014] Yet objective of the present disclosure is to embed several shower modes so users can tailor their showers according to specific needs.
[0015] Yet objective of the present disclosure is to incorporate IoT connectivity, with the capability for users to remotely monitor and control shower settings with the ability for real-time control of water flow, temperature, and shower essentials dispensing for greater convenience for the user.
[0016] Yet objective of the present disclosure is to establish a low-liquid level detection and alarm system, in which users will be alerted if shower essentials require a refill, thus preventing surprise shortages and enhancing user satisfaction.
[0017] Yet objective of the present disclosure is to provide an ecologically friendly and sustainable design with reusable cartridges and efficient dispensing algorithms that minimize soap and water waste, serving the cause of environmental protection.
[0018] Yet objective of the present disclosure is to incorporate an integrated speaker and microphone system, enabling users to listen to music, receive calls, or communicate with voice assistants thus improving entertainment and hands-free use while showering.
[0019] Yet objective of the present disclosure is to guarantee compatibility with different liquid formulations, enabling users to dispense a broad variety of personal care products, to guarantee versatility and wide applicability to multiple user preferences.
[0020] In light of the above, in one aspect of the present disclosure, an automated smart shower dispensing system is disclosed herein. The composition comprises a user device having a user interface configured to allow users to select shower modes, adjust dispensing settings, monitor usage, receive notifications, and sync user preferences. The system also includes a dispensing unit housing a plurality of refillable containers configured to store various shower essentials, including but not limited to cleansing agents, conditioning agents, therapeutic additives, and skincare formulations, a dispensing control unit connected to the plurality of refillable containers, configured to regulate the release of shower essentials based on user-selected modes and preferences, a sensor unit configured to monitor the dispensing process, detect the remaining volume in the plurality of refillable containers, and ensure accurate release of shower essentials. The system also includes a showerhead connected to the dispensing unit, configured to receive the dispensed shower essentials from the plurality of refillable containers and integrate it into the water stream for controlled release. The system also includes a self-cleaning nozzle integrated into the showerhead, configured to prevent clogging, bacterial buildup, and residue accumulation of the shower essentials. The system also includes a touch panel positioned externally and connected to the microcontroller, the touch panel configured to manage multiple user profiles and control showering modes, water temperature, pressure and the dispensing control unit for dispensing at least one shower essential or a combination thereof. The system also includes a communication network configured to transmit data between the components of the system. The system also includes a microcontroller functionally connected to the touch panel, the sensor unit, the dispensing unit, and the self-cleaning nozzle via the communication network, the microcontroller configured to process user provided data, wherein the microcontroller further comprises a data input module configures to receive data from the user device, the sensor unit and the touch panel, a data processing module configured to analyze and optimize data received from the user device, the touch panel, and the sensor unit, ensuring accurate adjustment of dispensing ratios, water flow, and shower modes for an optimized user experience, an authentication module configured to verify the identity of the user logged on the touch panel and the user interface installed on the user device, wherein the authentication module is further configured to control access to a plurality of personalized parameters, including showering modes, dispensing preferences, and system settings, a multi-user profile module configured to store, maintain, and switch between multiple user profiles ensuring personalized access to showering modes, dispensing preferences, water temperature and pressure settings, and other user-defined controls, a voice control module configured to process voice commands for hands-free control of the touch panel modes and settings, a temperature module configured to regulate water temperature based on user preferences received through the touch panel, ensuring precise thermal control for a customized showering experience, a water dispensing module configured to regulate water outflow based on user-set preferences received from the touch panel ensuring precise control over temperature, pressure, and mixing ratios with shower essentials, a dispensing control module connected to the dispensing unit, and the sensor unit, configured to control the release of every shower essential according to user preference inputs from the touch panel or the voice control module, allowing accurate mixing with water while reducing wastage, a self-cleaning module controls the self-cleaning nozzle, configured to automatically activate periodic cleaning cycles to prevent clogging and residue formation, a notification module configured to send real-time alerts, updates, and reminders to users on the user device via the user interface, including low refill warnings, maintenance notifications, and system status updates. The system also includes a display screen connected to the user device and the touch panel, configured to display low refill alerts, selected shower modes, real-time water consumption and shower essentials consumption, allowing users to track and maximize their use in order to avoid wastage of water and shower essentials.
[0021] In one embodiment, the cloud database configured to store user shower preferences, usage data, maintenance logs, and performance metrics, enabling personalized recommendations, predictive maintenance, and remote access via a connected user device.
[0022] In one embodiment, the self-cleaning nozzle further configures to prevent clogging and bacterial build up by using an antimicrobial coating, periodic disinfectant flushing, or flushes high-pressure hot water to remove residue of the shower essentials.
[0023] In one embodiment, the touch panel is externally mounted on the bathroom wall and is further configured to be removable and waterproof, wherein the touch panel comprises a sealed casing, capacitive touch technology, and a hydrophobic coating to enhance durability and functionality in wet environments.
[0024] In one embodiment, the touch panel comprises a microphone operably connected to the voice control module for recording voice commands, enabling hands-free operation of shower settings, mode selection, audio playback, and voice-based calling for enhanced convenience and accessibility.
[0025] In one embodiment, the touch panel further comprises a speaker configured to provide audio output for playing music, delivering system notifications, enabling voice feedback, and facilitating hands-free calling, wherein the speaker is connected to the voice control module to ensure seamless communication during shower operation.
[0026] In one embodiment, the communication network is configured to facilitate Wi-Fi and bluetooth communication, enabling remote monitoring, control of shower settings, and synchronization through the user device.
[0027] In one embodiment, the multi-user profile module is further configured to automatically adjust shower settings, dispensing preferences, and water temperature based on the selected user profile.
[0028] In one embodiment, the self-cleaning module is configured to autonomously activate post each shower session, ensuring hygiene maintenance and preventing cross-contamination between shower essentials.
[0029] In light of the above, in another aspect of the present disclosure, a method for an automated smart shower dispensing system is disclosed herein. The method comprises receiving user input for shower preferences, including water temperature, pressure, shower mode, and dispensing preferences, from the user device via the touch panel. The method also includes transmitting the received data between system components via the communication network to synchronize user preferences and operational settings. The method also includes processing the received data by normalizing, filtering, and pre-processing shower settings, dispensing preferences, and user profiles via the data processing module to ensure seamless operation. The method also includes verifying user identity and controlling access to personalized settings and multi-user profiles via the authentication module. The method also includes providing voice-controlled operation by enabling hands-free selection of shower modes, dispensing preferences, and system adjustments via the voice control module. The method also includes regulating water flow and dispensing by adjusting temperature, pressure, and mixing ratios of shower essentials according to the selected mode via the water dispensing module. The method also includes ensuring accurate dispensing of various shower essentials based on user-defined proportions and minimizing wastage via the dispensing control module. The method also includes automating self-cleaning by initiating periodic cleaning cycles to prevent clogging and residue build-up via the self-cleaning module. The method also includes sending real-time alerts, updates, and reminder to users regarding low refill warnings, maintenance notifications, system status update low refill levels, filter replacements, maintenance schedules, and usage insights via the notification module. The method also includes displaying low refill alerts, shower settings, usage pattern of water and shower essentials on the touch panel and the user device via the display screen for easy monitoring and adjustments.
[0030] These and other advantages will be apparent from the present application of the embodiments described herein.
[0031] The preceding is a simplified summary to provide an understanding of some embodiments of the present invention. This summary is neither an extensive nor exhaustive overview of the present invention and its various embodiments. The summary presents selected concepts of the embodiments of the present invention in a simplified form as an introduction to the more detailed description presented below. As will be appreciated, other embodiments of the present invention are possible utilizing, alone or in combination, one or more of the features set forth above or described in detail below.
[0032] These elements, together with the other aspects of the present disclosure and various features are pointed out with particularity in the claims annexed hereto and form a part of the present disclosure. For a better understanding of the present disclosure, its operating advantages, and the specified object attained by its uses, reference should be made to the accompanying drawings and descriptive matter in which there are illustrated exemplary embodiments of the present disclosure.
BRIEF DESCRIPTION OF THE DRAWINGS
[0033] To describe the technical solutions in the embodiments of the present disclosure or in the prior art more clearly, the following briefly describes the accompanying drawings required for describing the embodiments or the prior art. Apparently, the accompanying drawings in the following description merely show some embodiments of the present disclosure, and a person of ordinary skill in the art can derive other implementations from these accompanying drawings without creative efforts. All of the embodiments or the implementations shall fall within the protection scope of the present disclosure.
[0034] The advantages and features of the present disclosure will become better understood with reference to the following detailed description taken in conjunction with the accompanying drawing, in which:
[0035] FIG. 1 illustrates a block diagram of an automated smart shower dispensing system 100 in accordance with an exemplary embodiment of the present disclosure;
[0036] FIG. 2 illustrates a flowchart of a method 200, outlining the sequential steps for an automated smart shower dispensing system 100, in accordance with an exemplary embodiment of the present disclosure.
[0037] Like reference, numerals refer to like parts throughout the description of several views of the drawing.
[0038] The automated smart shower dispensing system 100 is illustrated in the accompanying drawings, which like reference letters indicate corresponding parts in the various figures. It should be noted that the accompanying figure is intended to present illustrations of exemplary embodiments of the present disclosure. This figure is not intended to limit the scope of the present disclosure. It should also be noted that the accompanying figure is not necessarily drawn to scale.
DETAILED DESCRIPTION OF THE DISCLOSURE
[0039] The following is a detailed description of embodiments of the disclosure depicted in the accompanying drawings. The embodiments are in such detail as to communicate the disclosure. However, the amount of detail offered is not intended to limit the anticipated variations of embodiments; on the contrary, the intention is to cover all modifications, equivalents, and alternatives falling within the spirit and scope of the present disclosure.
[0040] In the following description, numerous specific details are set forth in order to provide a thorough understanding of the embodiments of the present disclosure. It may be apparent to one skilled in the art that embodiments of the present disclosure may be practiced without some of these specific details.
[0041] Various terms as used herein are shown below. To the extent a term is used, it should be given the broadest definition persons in the pertinent art have given that term as reflected in printed publications and issued patents at the time of filing.
[0042] The terms “a” and “an” herein do not denote a limitation of quantity, but rather denote the presence of at least one of the referenced items.
[0043] The terms “having”, “comprising”, “including”, and variations thereof signify the presence of a component.
[0044] Referring now to FIG. 1 to FIG. 2 to describe various exemplary embodiments of the present disclosure. FIG. 1 illustrates a block diagram of an automated smart shower dispensing system 100, in accordance with an exemplary embodiment of the present disclosure.
[0045] The system 100 may include a user device 102 having a user interface 104, a dispensing unit 106 housing a plurality of refillable containers 108, a sensor unit 110, a dispensing control unit 112, a showerhead 114 a self-cleaning nozzle 116, a touch panel 118, a communication network 122, a microcontroller 130 and a display screen 126.
[0046] The cloud database 124 configured to store user shower preferences, usage data, maintenance logs, and performance metrics, enabling personalized recommendations, predictive maintenance, and remote access via a connected user device 102. The user shower preferences saved in the cloud database 124 are information on the preferred temperature of water, intensity of dispensing shower essentials, shower time, and mode selection, and through this, the system 100 is able to set the settings automatically based on the determined user profile. The usage data contain data for frequency and length of showers, usage of water and shower amenities, and historical patterns of usage that enable the optimization of use of resources and generate insights to allow sustainable operation. The logs for maintenance contain diagnostic data on systems, error data, histories for components usage, and required routine maintenance schedules that enable the system 100 to be serviced in good time and prevent failures. The performance metrics include real-time system efficiency, operating parameters, and error detection monitoring, enabling proactive identification of faults and system optimization.
[0047] In one embodiment, the cloud database 124 is further configured to machine learn on stored data to recommend personalized suggestions by using machine learning algorithms, where such recommendations include modulating dispensing ratios for optimization, recommending maximum shower times, and determining probable system inefficiencies based on the behaviour of the user and previous usage patterns.
[0048] In another embodiment, the cloud database 124 provides remote access capability so that users can control and monitor the system 100 through the user device 102, with the remote access enabling real-time modification of shower settings, delivering refill alert notifications, and remote troubleshooting, thus increasing user convenience, operational efficiency, and system reliability.
[0049] The user device 102 having a user interface 104 configured to allow users to select shower modes, adjust dispensing settings, monitor usage, receive notifications, and sync user preferences.
[0050] In one embodiment, the user interface 104 is configured using an interactive touchscreen or mobile application, offering an intuitive interface to choose various modes of showers such as water-only mode, soap-infused mode, mixed mode, and customizable mode as per users' choice. The water-only mode enables users to shower without delivering any shower accessories, whereas the soap-infused mode delivers a metered quantity of soap, shampoo, or conditioner automatically. The mixed mode mixes shower essentials and water in predetermined ratios to provide balanced and efficient usage. The custom mode allows one to define customized dispensing ratios and water temperature that can be stored to use whenever needed, and hence provides a personalized shower experience.
[0051] In another embodiment, the user interface 104 is further configured to provide real-time tracking of water usage and shower essentials usage, giving an individualized view of household and personal usage trends. The system 100 tracks and presents consumption statistics, enabling users to monitor their shower activities and make sound choices for water saving and efficient product refilling. The system 100 also employs predictive analytics to determine when shower essentials should be refilled, providing continuous use and preventing wastage.
[0052] In another embodiment, the user device 102 synchronizes user preferences through multi-user profile management, allowing multiple users to create and save personalized shower settings. Each user profile can store preferred water temperature, dispensing ratios, shower duration, and mode preferences, ensuring a tailored and efficient experience. The system 100 automatically detects and applies the relevant settings when a user selects their profile, reducing the need for manual adjustments.
[0053] In another embodiment, the user interface 104 is further configured to display notifications and alerts in relation to system status and user behaviour. Such notifications comprise low-product alerts, maintenance reminders, and system 100 diagnostics warnings. The low shower essentials alert alerts users when showering products are low in stock, reminding them to replenish in time. The maintenance reminders include planned reminders for cleaning up the self-cleaning mechanism or replacing wear-and-tear susceptible parts. The system 100 diagnostic notifications inform users about possible malfunctions, such as unusual water pressure or inconsistencies in temperature, allowing for early debugging.
[0054] The dispensing unit 106 housing the plurality of refillable containers 108, the sensor unit 110 and the dispensing control unit 112.
[0055] The plurality of refillable containers 108 configured to store various shower essentials, including but not limited to cleansing agents, conditioning agents, therapeutic additives, and skincare formulations
[0056] In one embodiment, the plurality of refillable containers 108 are configured to store various shower essentials in liquid, foam or gel form to fit various formulation types like shampoo, body wash, conditioner, exfoliating scrubs, essential oils, and medicated cleansers. Each of the containers has its own dispensing mechanism for metering out each of the essentials to avoid excessive use and provide accurate delivery.
[0057] In another embodiment, the plurality of refillable containers 108 are constructed of durable, non-reactive materials to avoid contamination and degradation of stored shower essentials. The plurality of refillable containers 108 is constructed to be easily removable and refillable so that users can replace or restock the contents without needing complex disassembly. Furthermore, the plurality of refillable containers 108 is equipped with a clear or semi-clear level indicator so that users can track product levels and receive low-refill alerts through the notification module.
[0058] In another embodiment, the plurality of refillable containers 108 are equipped with an automatic self-cleansing mechanism so that inner surfaces have no residue accumulation, microbial, or clogging. The self-cleansing aspect improves hygiene and prolongs the storage life of shower products by keeping different formulations from cross-contaminating.
[0059] In a further embodiment, the plurality of refillable containers 108 may be used to store therapeutic and skincare products, including moisturizers, herbal extracts, essential oils, and medicated treatments for eczema, psoriasis, or acne. The system 100 enables users to choose proprietary formulations designed for their skincare purposes, providing a personalized and effective showering experience.
[0060] The sensor unit 110 configured to monitor the dispensing process, detect the remaining volume in the plurality of refillable containers 108, and ensure accurate release of shower essentials. The sensor unit 110 is in operative communication with the dispensing control unit 112, the user interface 104, and the cloud database 124 for real-time monitoring, automated control, and user notification for optimized dispensing performance. The sensor unit 110 is in functional communication with the dispensing control unit 112 for accurate control of shower essentials dispensing, the display screen 126 connected with the user device 102 and touch panel 118 for displaying real-time status and user notifications, the cloud database 124 for logging data, predictive maintenance, and system optimization.
[0061] In one embodiment, the sensor unit 110 includes liquid level sensors, which continuously track the amount of shower essentials in each plurality of refillable containers 108. The sensor unit 110 interact with the dispensing control unit 112 to manage dispensing depending on availability and avoid dry running. The sensor unit 110 also send data to the user interface 104, triggering low-level alerts for prompt refills. The data is also retained in the cloud database 124 to monitor long-term usage trends and maximize product restocking.
[0062] In yet another embodiment, the sensor unit 110 further comprises flow sensors, which monitor and control the exact amount of shower necessities dispensed during each use. The sensor unit 110 are directly interfaced with the dispensing control unit 112 to provide uniformity in the dispensing of cleansing agents, conditioners, and therapeutic additives so that they are neither overused nor underused. The flow rate information is also transmitted to the user interface 104, enabling users to observe and modify dispensing preferences in real-time.
[0063] In another embodiment, the sensor unit 110 comprises pressure sensors, which monitor internal pressure in the plurality of refillable containers 108 to avoid clogging or unequal flow. The sensor unit 110 interact with the dispensing control unit 112 to dynamically manage flow rates for smooth, efficient dispensing. Any identified anomalies are reported to the user interface 104 to inform users in real time and saved in the cloud database 124 for predictive maintenance.
[0064] The dispensing control unit 112 connected to the plurality of refillable containers 108, configured to regulate the release of various shower essentials based on user-selected modes and preferences. The dispensing control unit 112 manages the release of various shower essentials via automated flow regulation mechanisms, providing accurate dispensing according to preselected user settings. In addition, the dispensing control unit 112 synchronizes with the user interface 104 and cloud database 124 to dynamically adjust dispensing ratios, adapt to user preferences, and provide personalized shower experiences.
[0065] In one embodiment, the dispensing control unit 112 functions using a precision-controlled dispensing mechanism, whereby the right quantity of shower essentials, such as shampoo, conditioner, body wash, or therapeutic additives, is dispensed according to pre-defined user settings. The system 100 avoids overuse or wastage by varying the dispensing ratio based on user preferences stored in the cloud database 124.
[0066] The showerhead 114 connected to the dispensing unit 106, configured to receive the dispensed shower essentials from the plurality of refillable containers 108 and integrate it into the water stream for controlled release. The showerhead 114 also includes flow regulation mechanisms to provide an optimal blend of water and shower essentials, avoiding over-dispensing or under-dispensing. Furthermore, the showerhead 114 is configured to accommodate various shower modes, enabling users to personalize their shower experience in accordance with chosen settings.
[0067] In one embodiment, the showerhead 114 is further configured to have exchangeable nozzle plates in order to achieve customizable spray patterns and coverage zones. This creates improved user satisfaction by being able to offer functionalities such as mist, jet, or rain settings in order to cater to different skin care and cleaning requirements.
[0068] In another embodiment, the showerhead 114 is designed with an adjustable pressure control mechanism, enabling users to adjust the water pressure according to individual preference and skin sensitivity. This feature promotes user comfort by offering a gentle flow for sensitive skin or a high-pressure mode for deep cleansing, ensuring flexibility to various showering requirements.
[0069] The self-cleaning nozzle 116 integrated into the showerhead 114, configured to prevent clogging, bacterial build-up, and residue accumulation of the shower essentials. It has anti-clogging channels and a non-porous, smooth surface that reduces blockage due to soap film build-up, mineral deposits, and skin care products. Additionally, the self-cleaning nozzle 116 has self-purging mechanisms that release occluded particles that get trapped or lodged within the nozzle openings and are cleaned on a periodic basis, ensuring steady water pressure and an even distribution of shower essentials.
[0070] In one embodiment, the self-cleaning nozzle 116 further configures to prevent clogging and bacterial build up by using an antimicrobial coating, periodic disinfectant flushing, or flushes high-pressure hot water to remove residue of the shower essentials. The antimicrobial coating consists of silver nanoparticles, copper-infused polymers, or zinc-based compounds, which actively prevent microbial growth by interfering with bacterial cell membranes and inhibiting biofilm formation. This coating offers long-term hygiene and cleanliness, reducing the risk of contamination and skin infection, especially in high-moisture areas where microbial growth is prevalent. The antimicrobial coating is also combined with self-sterilizing features, where antimicrobial agents are triggered by exposure to moisture or heat, sanitizing the nozzle surface continuously without the need for manual action. Its hydrophobicity also inhibits soap scum, mineral buildup, and shower essential residues from accumulating, allowing a stable water flow and longer life of the self-cleaning nozzle 116.
[0071] In another embodiment, the self-cleaning nozzle 116 is also equipped with a periodic disinfectant flushing mechanism, which periodically dispenses a cleaning solution at predetermined times. This mechanism removes soap scum, mineral deposits, and microbial build-up, keeping the self-cleaning nozzle 116 clean and unobstructed without the need for manual operation.
[0072] In another embodiment, the self-cleaning nozzle 116 is configured to flush high-pressure hot water through its internal channels following every use or at periodic intervals. The high temperature and strong water flow efficiently break down and dislodge soap residues, essential oil deposits, and mineral build-up, sustaining an unbroken and stable spray pattern. This capability also assists in maximizing dispensing efficiency, prolonging the life of the self-cleaning nozzle 116 and minimizing maintenance.
[0073] The touch panel 118 positioned externally and connected to the microcontroller 130, the touch panel configured to manage multiple user profiles and control showering modes, water temperature, pressure and the dispensing control unit 112 for dispensing at least one shower essential or a combination thereof. The touch panel 118 is configured to support multiple user profiles that are displayed on the display screen 126, making it easy for users to choose their profile by a simple touch. When a user selects a profile, the shower settings are adjusted automatically according to pre-programmed preferences such as shower mode, water temperature, water pressure, and dispensing settings. For a new user who logs onto the system, they can customize and save an individual profile for their preferred setting. The touch panel 118 also permits users to manage various showering modes, such as water-only mode, soap-infused mode, mixed mode, and customizable mode, in which the customizable mode provides manual setting of dispensing ratios and water flow. Furthermore, the touch panel 118 is interfaced with the dispensing control unit 112, making it possible for consumers to dispense a single shower essential or a personalized mix from the plurality of refillable containers 108. The dispensing control unit 112 accurately measures and dispenses shower necessities in accordance with consumer preference, making efficient use of them and avoiding wastage.
[0074] In one embodiment, the touch panel 118 is externally mounted on the bathroom wall and is further configured to be removable and waterproof, wherein the touch panel comprises a sealed casing, capacitive touch technology, and a hydrophobic coating to enhance durability and functionality in wet environments. Capacitive touch technology employs conducting sensing technology where touching inputs are perceived through electricity, allowing flawless usability without imposing unduly excessive pressures. The board is given protection by the deposition of a hydrophobic and anti-fog layer, which guards the screen from precipitation droplets influencing touch responses.
[0075] In another embodiment, the touch panel 118 is designed with a hydrophobic and antimicrobial coating to prevent moisture damage, bacterial growth, and residue accumulation, ensuring durability and hygiene in prolonged usage. The hydrophobic coating makes water runoff, avoiding moisture buildup and reducing the likelihood of internal damage or sensor failure with extended exposure to steam and splashes. Moreover, the antimicrobial coating prevents bacterial and fungal growth on the surface, lowering contamination threats and ensuring hygiene, particularly in moist shower conditions. The two-layer protection ensures the touch panel 118 is responsive, clean, and operational, delivering a smooth and enduring user experience.
[0076] In one embodiment, the touch panel 118 comprises a microphone 120 operably connected to the voice control module 140 for recording voice commands, enabling hands-free operation of shower settings, mode selection, audio playback, and voice-based calling for enhanced convenience and accessibility. The microphone 120 captures voice commands, permitting users to set shower settings, choose shower modes, regulate water temperature and pressure, and set dispensing preferences without physically engaging the touch panel 118. Moreover, the voice-based calling feature enables users to answer or make calls without leaving the shower, thus providing uninterrupted communication in the event of an emergency. This feature increases accessibility, particularly for users with mobility issues, by offering a seamless, touch-free control experience.
[0077] In one embodiment, the touch panel 118 further comprises a speaker 128 configured to provide audio output for playing music, delivering system notifications, enabling voice feedback, and facilitating hands-free calling, wherein the speaker 128 is connected to the voice control module 140 to ensure seamless communication during shower operation. The speaker 128 enriches the user experience by permitting music playback, whereby users can listen to their favourite music while showering. Moreover, it has system notifications and voice feedback, so users can obtain real-time notifications about shower settings, water temperature, or shower essentials refill reminders without looking at the display. The hands-free calling feature enables the user to pick up or make calls right inside the shower through the built-in voice control module 140, guaranteeing uninterrupted communication. The speaker 128 and voice control module 140 operate in unison, employing noise-cancelling technology to guarantee clean audio output and recognition even within a high-humidity and running-water environment. Also, the system 100 provides users with the ability to disable or mute the speaker 128 when constant notification alerts become intrusive. This capability provides flexibility in user preference so that a silent shower experience is achieved without unnecessary interruptions while still having manual or visual access to alerts through the display screen 126.
[0078] The communication network 122 configured to transmit data between the components of the system 100. It facilitates data interchange between the user device 102, the touch panel 118, the microcontroller 130, the dispensing control unit 112, the sensor unit 110, the cloud database 124, and the voice control module 140 to provide for efficient synchronization of shower settings, user preferences, and system functioning.
[0079] In one embodiment, the communication network 122 is configured to facilitate Wi-Fi and bluetooth communication, enabling remote monitoring, control of shower settings, and synchronization through the user device 102. The Wi-Fi connectivity provides cloud-based access, enabling users to remotely set shower preferences, get maintenance alerts, and monitor water and essential consumption. The bluetooth feature provides local communication between the touch panel 118 and user device 102 for immediate adjustments independent of the internet, providing offline access. This network also facilitates smooth data logging and synchronization, keeping user profiles, shower modes, and dispensing settings up to date on connected devices.
[0080] The microcontroller 130 functionally connected to the touch panel 118, the sensor unit 112, the dispensing unit 106, and the self-cleaning nozzle 116 via the communication network 122, the microcontroller 130 configured to process user provided data. It takes input from the touch panel 118 for changing shower settings, dispensing options, and self-cleaning processes and also processes information from the sensor unit 110 to track the dispensing process, sense critical levels, and maintain accuracy. The microcontroller 130 drives the dispensing unit 106 for controlling the release of shower essentials according to user-defined modes and triggers the self-cleaning nozzle 116 to execute automatic flushing routines when necessary. In addition, it supports transmission of data through the communication network 122, allowing synchronization with the cloud database 124 for personalized suggestions, remote access via the user device 102, and predictive maintenance notifications, providing improved functionality and convenience to users.
[0081] The microcontroller 130 integrates several specialized modules including a data input module 132, a data processing module 134, an authentication module 136, a multi-user profile module 138, a voice control module 140, a temperature module 142, a water dispensing module 144, a dispensing control module 146, a self-cleaning module 148 and a notification module. It acts as a central repository for gathering user preferences, real-time system information, and environmental conditions. The user device 102 sends user-selected shower settings, such as mode selection, dispensing preferences, temperature control, and pressure control. The sensor unit 112 constantly provides feedback regarding water temperature, pressure levels, and the volume of shower essentials remaining to allow precise system regulation. The touch panel 118 enables users to enter commands directly, adjust profiles, and engage with system settings. By consolidating this information, the data input module 132 facilitates smooth operation, customized adjustments, and real-time system optimization.
[0082] The data processing module 134 configured to analyze and optimize data received from the user device 102, the touch panel 118, and the sensor unit 110, ensuring accurate adjustment of dispensing ratios, water flow, and shower modes for an optimized user experience. The data processing module 134 processes user preferences from the user device 102 to control shower parameters, translates real-time inputs from the touch panel 118 to dynamically modify temperature, pressure, and dispensing settings, and continuously examines feedback from the sensor unit 11 to track water temperature, pressure changes, and remaining shower essentials. The data processing module 134 also allows automatic optimizations in accordance with predetermined algorithms, ensuring the effective operation, the conservation of resources, and a tailored showering experience.
[0083] The authentication module 136 configured to verify the identity of the user logged on the touch panel 118 and the user interface 104 installed on the user device 102, wherein the authentication module 136 is further configured to control access to a plurality of personalized parameters, including showering modes, dispensing preferences, and system settings.
[0084] In one embodiment, the authentication module 136 is implemented with biometric authentication such as fingerprint or passcode, built into the touch panel 118 or made available through the user interface 104 on the user device 102. This provides for only authorized users to access their customized shower settings, providing greater security and convenience by avoiding manual login credentials.
[0085] In another embodiment, the authentication module 136 is configured to enable multi-user authentication, such that several registered users can have multiple individual profiles created and stored. Upon login through the touch panel 118 or the user interface 104, the authentication module 136 authenticates the user and automatically uses their pre-set preference, such as showering modes, dispensing preferences, water temperature, and system settings, providing a smooth and efficient experience.
[0086] In another embodiment, the authentication module 136 is also equipped with voice recognition technology, enabling users to authenticate their identity using distinctive voice commands. This provides hands-free access to personalized settings and adds an extra layer of security, especially useful for users with mobility impairments.
[0087] The multi-user profile module 138 configured to store, maintain, and switch between multiple user profiles ensuring personalized access to showering modes, dispensing preferences, water temperature and pressure settings, and other user-defined controls. The multi-user profile module 138 is designed to store, keep, and switch among various user profiles, providing personalized access to showering modes, dispensing preferences, water temperature and pressure controls, and other user-set controls. The multi-user profile module 138 allows for seamless user identification and preference retrieval, so that each user who is registered can enjoy a personalized showering environment without the requirement for manual settings.
[0088] In one embodiment, the multi-user profile module 138 is further configured to automatically adjust shower settings, dispensing preferences, and water temperature based on the selected user profile. As a user logs in through the touch panel 118 or the user interface 104 of the user device 102, the system 100 picks up the stored preferences and implements them in real time, providing a consistent and optimized showering experience. This removes the necessity for frequent manual setups and improves user convenience, especially in homes with multiple users. Alternatively, the multi-user profile module 138 is coupled with the cloud database 124 which allows users to sync and access their profiles on the system 100.
[0089] In another embodiment, the multi-user profile module 13 is designed to enable guest mode, permitting transient users to build and store short-term duration profiles without clobbering the master users' preferences. This makes it possible for guests to personalize their showering experience without influencing the saved preferences of registered users.
[0090] The voice control module 140 configured to process voice commands for hands-free control of the touch panel 118 modes and settings. The voice control module 140 enables users to turn shower modes on or off, change water pressure and temperature, change dispensing preferences, and switch between user profiles using easy voice commands. The voice control module 140 is combined with speech recognition algorithms to properly interpret user commands, providing responsive and effective functionality. It also provides greater accessibility for users with mobility disabilities or who want a touch-free experience when showering. The voice control module 140 is also configured to filter out background noise and distinguish between commands and ambient sounds, so it can operate without interruption even in humid conditions. The voice control module 140 is operably coupled to the microcontroller 130 and the data processing module 134 to execute commands in real time, offering smooth execution of user commands.
[0091] In one embodiment, the voice control module 140 is provided with natural language processing (NLP) algorithms to improve voice recognition accuracy. This means that the system 100 is capable of interpreting various accents, speech patterns, and multilingual commands, thus ensuring easy operation for users from varied linguistic backgrounds.
[0092] In another embodiment, the voice control module 140 is configured with customizable voice profiles such that every registered user is able to train the system 100 to identify their own voice. This is to deter unauthorized use and to make sure that the shower system only answers to authenticated users, enhancing security and personalization.
[0093] In another embodiment, the voice control module 140 is coupled with machine learning algorithms that evolve and get better over time in response to user interactions. The system 100 may learn popularly used commands, favourite shower modes, and personalized voice commands, enhancing responsiveness and user experience.
[0094] In another embodiment, the voice control module 140 has offline capabilities, allowing users to execute fundamental voice commands like "start shower," "turn temperature up," or "quit dispensing" even without a current internet connection. This allows uninterrupted access to the fundamental functions independent of connectivity status.
[0095] In another embodiment, the voice control module 140 is connected to a smart home ecosystem, enabling users to integrate the shower system with voice assistants like Amazon Alexa, Google Assistant, or Apple Siri. This makes it possible for users to remotely control their shower settings using voice commands within their smart home environment, increasing convenience and automation.
[0096] The temperature module 142 configured to regulate water temperature based on user preferences received through the touch panel 118, ensuring precise thermal control for a customized showering experience. The temperature module 142 is connected in working relation to the microcontroller 130 that handles users' inputs and alters the heating or cooling system as appropriate. This maintains the temperature of the water stable throughout the length of the shower, avoiding the sudden changes that may be painful or result in thermal shock.
[0097] In one embodiment, the temperature module 142 is coupled with the sensor unit 110, which comprises temperature sensors that constantly monitor the water temperature and feedback real-time signals to the microcontroller 130. This permits the system to dynamically adjust heating or cooling depending on variations from the user-specified temperature setting. By constantly keeping an eye on the temperature, the system 100 provides user protection, avoiding excessive heat that can lead to burns or water that is too cold, which can result in discomfort.
[0098] In another embodiment, the temperature module 142 includes a rapid heating system, which uses an instant heating system or a high-tech thermal regulation unit to rapidly attain the required temperature within seconds. This dramatically cuts down the waiting time that is usually the case with traditional water heaters, increasing user convenience and saving water wastage. The system 100 ensures that once the user has chosen a temperature, the water hits and stays at that temperature virtually instantly, giving an effective and hassle-free experience.
[0099] In another embodiment, the temperature module 142 has preset temperature modes like "warm relaxation," "cold refresh," and "therapeutic hot," which are used to achieve particular showering experiences. The preset modes enable users to choose their desired water temperature instantly without having to adjust settings manually every time. The "warm relaxation" mode offers a soothing warm temperature best suited for stress relief, the "cold refresh" mode offers a cool and refreshing experience best suited for hot weather or after exercise, and the "therapeutic hot" mode offers a higher temperature conducive to muscle relaxation and pain alleviation.
[0100] In another embodiment, the temperature module 142 has an energy-efficient mode, which maximizes heating or cooling operations according to real-time environmental conditions and user activity. Through consideration of ambient temperature, shower duration, and past user preferences, the system minimizes unnecessary energy consumption while providing the required thermal comfort. This leads to reduced electricity consumption and encourages sustainability without sacrificing the showering experience.
[0101] In another embodiment, the temperature module 142 is also connected to the multi-user profile module 138, so that every user's temperature preference will be implemented automatically when they choose their profile. When a user signs in to their profile via the touch panel 118, the system 100 would access his or her stored temperature settings and adjust the water to that. It does away with the possibility of manual settings, providing a convenient and tailored shower experience while avoiding temperature shocks from wrong settings.
[0102] The water dispensing module 144 configured to regulate water outflow based on user-set preferences received from the touch panel 118 ensuring precise control over temperature, pressure, and mixing ratios with shower essentials. The module maximizes water efficiency by dynamically controlling flow rates according to chosen shower modes, minimizing unnecessary wastage of water while ensuring an efficient and comfortable showering experience.
[0103] The water dispensing module 144 further configured to have flow rate control mechanisms that restrict excessive discharge of water by adjusting output in accordance with actual user behaviour and pre-set settings. For example, in an eco-mode, the system can automatically cut down water pressure without sacrificing performance, allowing minimal water usage. The water dispensing module 144 also integrates with the sensor unit 110, which constantly measures water temperature and pressure, limiting excessive usage and ensuring uniform conditions. With accurate blending of shower necessities with water, it minimizes overuse of both, promoting sustainability without compromising on an efficient showering experience.
[0104] The dispensing control module 146 connected to the dispensing unit 106, and the sensor unit 110, configured to control the release of every shower essential according to user preference inputs from the touch panel 118 or the voice control module 140, allowing accurate mixing with water while reducing wastage. The dispensing control module 146 accurately controls the amount and flow rate of shower essentials dispensed, releasing only the amount needed according to user preference. The dispensing control module 146 does this by combining with real-time sensor data from the sensor unit 110, which monitors dispensing rates, volume remaining, and user-specified settings. The dispensing control module 146 also reduces excess product consumption by dynamically adjusting dispensing ratios, avoiding over-application of cleansing agents or skincare products.
[0105] In one embodiment, the dispensing control module 146 is further configured to facilitate automated calibration using past usage history, continually improving dispensing precision over time and accommodating varying user requirements.
[0106] In another embodiment, the dispensing control module 146 facilitates intelligent dosing adjustments, whereby the system suggests optimized dispensing parameters as a function of environmental factors like water hardness or temperature to enhance product effectiveness and minimize waste.
[0107] The self-cleaning module 148 controls the self-cleaning nozzle 116, configured to automatically activate periodic cleaning cycles to prevent clogging and residue formation. The self-cleaning module 148 is configured to eliminate deposited shower essentials, mineral residues, and microbial biofilms, while keeping the water flow steady and the level of hygiene up. The self-cleaning module 148 functions based on sensor-driven residue detection from the sensor unit 110 and activates automatic flushing actions like high-pressure water jets, thermal disinfection, or antimicrobial washing. Furthermore, the self-cleaning module 148 automatically turns on after every shower session or at pre-set intervals, minimizing labour involved in manual maintenance. The cleaning frequency and intensity can be set by users through the touch panel 118 or user device 102, which maximizes performance according to usage and water quality. The self-cleaning module 148 is also made for energy and water efficiency, controlling cleaning intensity to avoid excessive water consumption while maintaining effective sanitation, thus enhancing sustainable operation.
[0108] In one embodiment, the self-cleaning module 148 is configured to autonomously activate post each shower session, ensuring hygiene maintenance and preventing cross-contamination between shower essentials.
[0109] The notification module 150 configured to send real-time alerts, updates, and reminders to users on the user device 102 via the user interface 104, including low refill warnings, maintenance notifications, and system status updates. The notification module 150 delivers important information like low refill alerts for shower essentials, maintenance alerts for cleaning cycles, and system status notifications to maintain optimal functioning. The notification module 150 increases user convenience by allowing proactive maintenance, minimizing downtime, and avoiding surprise running out of shower essentials. Alerts can be made user preference-driven to provide timely notification without disturbing interruptions.
[0110] The display screen 126 connected to the user device 102 and the touch panel 118, configured to display low refill alerts, selected shower modes, real-time water consumption and shower essentials consumption, allowing users to track and maximize their use in order to avoid wastage of water and shower essentials. Presenting consumption in a visual form, the display screen 126 allows users to track and manage their shower habits, encouraging effective use and discouraging wasteful use of water and shower essentials. This preserves sustainability while providing a personal and cozy showering experience.
[0111] In one embodiment, the display screen 126 is also provided with a touchscreen facility, enabling users to engage directly with the data being displayed, modify shower parameters, and obtain intuitive suggestions for optimized water and shower essentials usage. The display could also have customizable themes as well as brightness adjustment to improve user experience under varying light conditions.
[0112] In one embodiment, the display screen 126 also features optimized to distinguish between actual touches and drips, providing users with high-security functionality irrespective of humidity levels such as in shower baths. This design allows users to surf through settings, adjust shower parameters, and select user profiles with ease, providing an uninterrupted and friendly experience.
[0113] In one embodiment, the system 100 includes an LED indicator to offer visual notifications of low refill levels of shower amenities. The LED indicator is placed at a convenient location on the dispensing unit 106 or touch panel 118, providing users with instant alerts without having to refer to the user device 102. The indicator is coloured or blinks depending on the severity of the refill need, enabling users to take proper action in time. This aspect increases convenience and accessibility, especially in situations where the user device is not within reach, allowing for unbroken showering experiences.
[0114] FIG. 2 illustrates a flowchart of a method 200, outlining the sequential steps for an automated smart shower dispensing system 100, in accordance with an exemplary embodiment of the present disclosure.
[0115] The method 200 may include, at step 202, receiving user input for shower preferences, including water temperature, pressure, shower mode, and dispensing preferences, from the user device 102 via the touch panel 118. At step 204, transmitting the received data between system components via the communication network 122 to synchronize user preferences and operational settings. At step 206, processing the received data by normalizing, filtering, and pre-processing shower settings, dispensing preferences, and user profiles via the data processing module 134 to ensure seamless operation. At step 208, verifying user identity and controlling access to personalized settings and multi-user profiles via the authentication module 136. At step 210, providing voice-controlled operation by enabling hands-free selection of shower modes, dispensing preferences, and system adjustments via the voice control module 140. At step 212, regulating water flow and dispensing by adjusting temperature, pressure, and mixing ratios of shower essentials according to the selected mode via the water dispensing module 144. At step 214, ensuring accurate dispensing of various shower essentials based on user-defined proportions and minimizing wastage via the dispensing control module 146. At step 216, automating self-cleaning by initiating periodic cleaning cycles to prevent clogging and residue build-up via the self-cleaning module 148. At step 218, sending real-time alerts, updates, and reminder to users regarding low refill warnings, maintenance notifications, system status update low refill levels, filter replacements, maintenance schedules, and usage insights via the notification module 150. At step 220, displaying low refill alerts, shower settings, usage pattern of water and shower essentials on the touch panel 118 and the user device 102 via the display screen 126 for easy monitoring and adjustments.
[0116] In best mode of operation, the system 100 functions by initially authenticating the user via the authentication module 136, which confirms the identity of the user through the touch panel 118 or the user interface 104 on the user device 102. After successful authentication, the multi-user profile module 138 loads the appropriate user profile and, as a default, sets the shower parameters, such as water temperature, pressure, dispensing preferences, and shower mode. The display screen 126 visually displays these settings and enables users to alter them if desired through the touch panel 118 or through voice commands to the voice control module 140, which interprets the input via the microphone 120. After the user has approved the settings, the water dispensing module 144 controls the water flow to provide the best pressure and temperature, and the temperature module 142 continuously checks and regulates the temperature through the sensor unit 110.
[0117] At the same time, the dispensing control module 146 controls the dispensing unit 106 to dispense the chosen shower essentials contained in the refillable containers 108, with accurate mixing with water based on pre-set ratios. If needed, the user can select to mix more than one shower essentials via the touch panel 118. While showering, the sensor unit 110 monitors actual water usage and shower amenities consumption, reporting through the communication network 122 to the data processing module 134, which maximizes system 100 performance through effective dispensing. The notification module 150 sends real-time notifications, such as low refill alerts, maintenance alerts, and system status notifications, that appear on the display screen 126 or are forwarded to the user interface 104 on the user device 102.
[0118] An LED indicator also serves as a visual notification when shower essentials need refilling. Upon completion of the shower session or before using another shower essential the self-cleaning module 148 turns on the self-cleaning nozzle 116 to run an automatic cleaning cycle to avoid clogging and bacterial growth. The cleaning cycle is completed through high-pressure water flushing, thermal disinfection, or antimicrobial washing to maintain hygiene and avoid cross-contamination. The multi-user profile module 138 saves the user's shower preferences, while the data processing module 134 records water and shower essentials usage to maximize future recommendations. Lastly, the system 100 transmits a summary of the shower session, such as water usage and essentials usage statistics, to the user interface 104, allowing users to track their usage and make decisions to reduce wastage.
[0119] While the invention has been described in connection with what is presently considered to be the most practical and various embodiments, it will be understood that the invention is not to be limited to the disclosed embodiments, but on the contrary, is intended to cover various modifications and equivalent arrangements included within the scope of the appended claims.
[0120] A person of ordinary skill in the art may be aware that, in combination with the examples described in the embodiments disclosed in this specification, units and algorithm steps may be implemented by electronic hardware, computer software, or a combination thereof.
[0121] The foregoing descriptions of specific embodiments of the present disclosure have been presented for purposes of illustration and description. They are not intended to be exhaustive or to limit the present disclosure to the precise forms disclosed, and many modifications and variations are possible in light of the above teaching. The embodiments were chosen and described to best explain the principles of the present disclosure and its practical application, and to thereby enable others skilled in the art to best utilize the present disclosure and various embodiments with various modifications as are suited to the particular use contemplated. It is understood that various omissions and substitutions of equivalents are contemplated as circumstances may suggest or render expedient, but such omissions and substitutions are intended to cover the application or implementation without departing from the scope of the present disclosure.
[0122] Disjunctive language such as the phrase “at least one of X, Y, Z,” unless specifically stated otherwise, is otherwise understood with the context as used in general to present that an item, term, etc., may be either X, Y, or Z, or any combination thereof (e.g., X, Y, and/or Z). Thus, such disjunctive language is not generally intended to, and should not, imply that certain embodiments require at least one of X, at least one of Y, or at least one of Z to each be present.
[0123] In a case that no conflict occurs, the embodiments in the present disclosure and the features in the embodiments may be mutually combined. The foregoing descriptions are merely specific implementations of the present disclosure, but are not intended to limit the protection scope of the present disclosure. Any variation or replacement readily figured out by a person skilled in the art within the technical scope disclosed in the present disclosure shall fall within the protection scope of the present disclosure. Therefore, the protection scope of the present disclosure shall be subject to the protection scope of the claims.
, Claims:I/We Claim:
1. An automated smart shower dispensing system (100), the system (100) comprising:
a user device (102) having a user interface (104) configured to allow users to select shower modes, adjust dispensing settings, monitor usage, receive notifications, and sync user preferences;
a dispensing unit (106) housing:
a plurality of refillable containers (108) configured to store various shower essentials, including but not limited to cleansing agents, conditioning agents, therapeutic additives, and skincare formulations;
a sensor unit (110) configured to monitor the dispensing process, detect the remaining volume in the plurality of refillable containers (108), and ensure accurate release of shower essentials;
a dispensing control unit (112) connected to the plurality of refillable containers (108), configured to regulate the release of shower essentials based on user-selected modes and preferences;
a showerhead (114) connected to the dispensing unit (106), configured to receive the dispensed shower essentials from the plurality of refillable containers (108) and integrate it into the water stream for controlled release.
a self-cleaning nozzle (116) integrated into the showerhead (114), configured to prevent clogging, bacterial build-up, and residue accumulation of the shower essentials;
a touch panel (118) positioned externally and connected to the microcontroller (130), the touch panel configured to manage multiple user profiles and control showering modes, water temperature, pressure and the dispensing control unit (112) for dispensing at least one shower essential or a combination thereof;
a communication network (122) configured to transmit data between the components of the system (100);
a microcontroller (130) functionally connected to the touch panel (118), the sensor unit (112), the dispensing unit (106), and the self-cleaning nozzle (116) via the communication network (122), the microcontroller (130) configured to process user provided data, wherein the microcontroller (130) further comprises:
a data input module (132) configures to receive data from the user device (102), the sensor unit (112) and the touch panel (118);
a data processing module (134) configured to analyze and optimize data received from the user device (102), the touch panel (118), and the sensor unit (110), ensuring accurate adjustment of dispensing ratios, water flow, and shower modes for an optimized user experience;
an authentication module (136) configured to verify the identity of the user logged on the touch panel (118) and the user interface (104) installed on the user device (102), wherein the authentication module (136) is further configured to control access to a plurality of personalized parameters, including showering modes, dispensing preferences, and system settings;
a multi-user profile module (138) configured to store, maintain, and switch between multiple user profiles ensuring personalized access to showering modes, dispensing preferences, water temperature and pressure settings, and other user-defined controls;
a voice control module (140) configured to process voice commands for hands-free control of the touch panel (118) modes and settings;
a temperature module (142) configured to regulate water temperature based on user preferences received through the touch panel (118), ensuring precise thermal control for a customized showering experience;
a water dispensing module (144) configured to regulate water outflow based on user-set preferences received from the touch panel (118) ensuring precise control over temperature, pressure, and mixing ratios with shower essentials;
a dispensing control module (146) connected to the dispensing unit (106), and the sensor unit (110), configured to control the release of every shower essential according to user preference inputs from the touch panel (118) or the voice control module (140), allowing accurate mixing with water while reducing wastage;
a self-cleaning module (148) controls the self-cleaning nozzle (116), configured to automatically activate periodic cleaning cycles to prevent clogging and residue formation;
a notification module (150) configured to send real-time alerts, updates, and reminders to users on the user device (102) via the user interface (104), including low refill warnings, maintenance notifications, and system status updates; and
a display screen (126) connected to the user device (102) and the touch panel (118), configured to display low refill alerts, selected shower modes, real-time water consumption and shower essentials consumption, allowing users to track and maximize their use in order to avoid wastage of water and shower essentials.
2. The system (100) of claim 1, where the cloud database (124) configured to store user shower preferences, usage data, maintenance logs, and performance metrics, enabling personalized recommendations, predictive maintenance, and remote access via the user device (102).
3. The system (100) as claimed in claim 1, wherein the self-cleaning nozzle (116) further configures to prevent clogging and bacterial build up by using an antimicrobial coating, periodic disinfectant flushing, or flushes high-pressure hot water to remove residue of the shower essentials.
4. The system (100) as claimed in claim 1, wherein the touch panel (118) is externally mounted on the bathroom wall and is further configured to be removable and waterproof, wherein the touch panel comprises a sealed casing, capacitive touch technology, and a hydrophobic coating to enhance durability and functionality in wet environments.
5. The system (100) as claimed in claim 1, wherein the touch panel (118) comprises a microphone (120) operably connected to the voice control module (140) for recording voice commands, enabling hands-free operation of shower settings, mode selection, audio playback, and voice-based calling for enhanced convenience and accessibility.
6. The system (100) as claimed in claim 1, wherein the touch panel (118) further comprises a speaker (128) configured to provide audio output for playing music, delivering system notifications, enabling voice feedback, and facilitating hands-free calling, wherein the speaker (128) is connected to the voice control module (140) to ensure seamless communication during shower operation.
7. The system (100) as claimed in claim 1, wherein the communication network (122) is configured to facilitate Wi-Fi and bluetooth communication, enabling remote monitoring, control of shower settings, and synchronization through the user device (102).
8. The system (100) as claimed in claim 1, wherein the multi-user profile module (138) is further configured to automatically adjust shower settings, dispensing preferences, and water temperature based on the selected user profile.
9. The system (100) as claimed in claim 1, wherein the self-cleaning module (148) is configured to autonomously activate post each shower session, ensuring hygiene maintenance and preventing cross-contamination between shower essentials.
10. A method (200) for an automated smart shower dispensing system (100), the method (200) comprising:
receiving user input for shower preferences, including water temperature, pressure, shower mode, and dispensing preferences, from the user device (102) via the touch panel (118) (202);
transmitting the received data between system components via the communication network (122) to synchronize user preferences and operational settings (204);
processing the received data by normalizing, filtering, and pre-processing shower settings, dispensing preferences, and user profiles via the data processing module (134) to ensure seamless operation (206);
verifying user identity and controlling access to personalized settings and multi-user profiles via the authentication module (136) (208);
providing voice-controlled operation by enabling hands-free selection of shower modes, dispensing preferences, and system adjustments via the voice control module (140) (210);
regulating water flow and dispensing by adjusting temperature, pressure, and mixing ratios of shower essentials according to the selected mode via the water dispensing module (144) (212);
ensuring accurate dispensing of various shower essentials based on user-defined proportions and minimizing wastage via the dispensing control module (146) (214);
automating self-cleaning by initiating periodic cleaning cycles to prevent clogging and residue build-up via the self-cleaning module (148) (216);
sending real-time alerts, updates, and reminder to users regarding low refill warnings, maintenance notifications, system status update low refill levels, filter replacements, maintenance schedules, and usage insights via the notification module (150) (218); and
displaying low refill alerts, shower settings, usage pattern of water and shower essentials on the touch panel (118) and the user device (102) via the display screen (126) for easy monitoring and adjustments (220).