Intelligent wash basin system based on medium-free holographic interaction

Abstract

The utility model discloses a kind of intelligent wash basin systems based on mediumless holographic interaction in the technical field of bathroom equipment, including main module, main module includes basin body, the bottom of basin body is connected transparent plate, and water guide assembly is provided at the edge of transparent plate, and transparent plate is used for light and shadow penetration, and water guide assembly is used to water flow edge flow guide.The utility model is connected with the transparent plate of light penetration in the bottom of basin body, and holographic imaging module is connected in the bottom of transparent plate, gesture of user is identified by sensing interaction module, the water faucet installed on basin body is opened to control water flow, water body is flowed into basin body, user is washed hand, while holographic imaging module is opened when water flow is opened, holographic imaging module mediumless projection holographic image and are projected in basin body by transparent plate, form the three-dimensional image visible to naked eye in the internal space of basin body, and then information intelligent interaction is realized in washing and grooming appliance.

Description

Technical Field

[0001] This utility model relates to the field of bathroom equipment technology, specifically an intelligent handwashing basin system based on media-free holographic interaction. Background Technology

[0002] Bathroom fixtures, as an indispensable part of modern home life, meet people's daily cleaning and personal hygiene needs. Traditional bathroom fixtures mainly include basic facilities such as washbasins, toilets, showers, and bathtubs. As a key component of bathroom fixtures, the design of washbasins is gradually becoming more user-friendly and intelligent. Traditional washbasins are mostly made of materials such as ceramic or marble, and come in various shapes and sizes. Their core function is to provide users with a convenient hand-cleaning experience.

[0003] Existing washbasins have limited functions, serving only for washing and drainage, lacking intelligent interaction, resulting in low resource utilization efficiency and poor usability. Utility Model Content

[0004] The purpose of this invention is to provide an intelligent handwashing basin system based on media-free holographic interaction to solve the aforementioned problems of lack of intelligent interaction and low resource utilization efficiency.

[0005] To achieve the above objectives, this utility model provides the following technical solution:

[0006] A smart handwashing basin system based on medium-free holographic interaction includes a main module, the main module including a basin body, the bottom of the basin body being connected to a transparent plate, the edge of the transparent plate being provided with a water guiding component, the transparent plate being used for light and shadow penetration, and the water guiding component being used for guiding water flow at the edge;

[0007] A holographic imaging module is connected to the bottom of a transparent plate and is used to project holographic images through the transparent plate without a medium.

[0008] A sensing interaction module is embedded in the basin and electrically connected to a holographic imaging module. The sensing interaction module is used to recognize user gestures to control water flow and activate the holographic imaging module to project holographic images.

[0009] As a further embodiment of this utility model: the cross-section of the transparent plate is trapezoidal, the small end face of the transparent plate is located inside the basin, and the other large end face of the transparent plate is located outside the basin.

[0010] As a further embodiment of this utility model: the water guiding component includes a water guiding groove and water guiding holes. The small end face edge of the transparent plate is connected to an inclined and radial water guiding groove. The inclined tail end of the water guiding groove is connected to multiple water guiding holes. The water guiding groove is guided by the edge of the water flow, and the water guiding holes are used for the discharge of the guided water flow.

[0011] As a further embodiment of this utility model: the holographic imaging module includes an optical waveguide plate and a display component. The optical waveguide plate is connected to the large end face of the transparent plate, and an inclined display component is installed at the bottom end of the optical waveguide plate. The display component is used to project holographic images, and the optical waveguide plate is used to enhance the holographic images.

[0012] As a further embodiment of this invention: the sensing interaction module is embedded in the side wall of the basin so that the sensing interaction module can recognize the user's gestures and avoid contact with the water flow.

[0013] As a further embodiment of this utility model: the sensing interaction module includes a sensing module, a projection module and a monitoring module. The sensing module, the projection module and the monitoring module are all electrically connected to the display device. The sensing module integrates an infrared sensor. The infrared sensor is used for user gesture control of water flow and activation of the display device to project holographic images.

[0014] The projection module is connected to a cloud database, and the projection module is used to input holographic image data from the cloud database into the display device;

[0015] The monitoring module includes a flow sensor and a temperature sensor. The flow sensor monitors the water flow rate to obtain flow data, and the temperature sensor monitors the water temperature to obtain temperature data. The flow data and temperature data are input to a display device, and the display device projects a holographic image to display the flow data and temperature data.

[0016] As a further embodiment of this utility model: the sensing module further includes a gesture recognition unit, which is electrically connected to the optical micromirror array. The gesture recognition unit is used to recognize user gestures and generate recognition data. The recognition data is input into the optical micromirror array so that the user gestures interact with the holographic image projected by the optical micromirror array.

[0017] Compared with the prior art, the beneficial effects of this utility model are:

[0018] 1. In this utility model, a light-transmitting transparent plate is connected to the bottom of the basin, and a holographic imaging module is connected to the bottom of the transparent plate. The sensing and interaction module recognizes the user's gestures, turns on the faucet installed on the basin to control the water flow, and allows the user to wash their hands. At the same time, the holographic imaging module is activated when the water flow is turned on. The holographic imaging module projects a holographic image without a medium and projects it into the basin through the transparent plate, forming a three-dimensional image visible to the naked eye in the internal space of the basin. This enables intelligent information interaction within the washing utensils, and the holographic image is projected into the basin without a medium, eliminating the need for traditional projection media, avoiding the space occupied by traditional playback screens, improving resource utilization efficiency, and providing a good user experience.

[0019] 2. In this utility model, the radial water guide channels ensure that the water flow can be smoothly guided from the small end face of the transparent plate to the inner edge of the basin, so that the water flow can flow along the predetermined path, avoiding the water flow to concentrate at the upper part of the transparent plate, avoiding obstruction of the holographic projection imaging area, and ensuring the user's viewing effect. Multiple water guide holes ensure that the water flow can be discharged quickly and evenly, avoiding water accumulation inside the basin, resulting in good performance. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the overall three-dimensional structure of this utility model;

[0021] Figure 2 This is a side view schematic diagram of the connection structure of this utility model;

[0022] Figure 3 For the present utility model Figure 2 Schematic diagram of the cross-sectional structure at point AA;

[0023] Figure 4 This is a schematic diagram of the connection structure of the display component of this utility model.

[0024] In the diagram: 1. Main module; 11. Basin; 12. Transparent plate; 13. Water channel; 14. Water channel hole; 2. Holographic imaging module; 21. Optical waveguide plate; 22. Display component; 3. Sensor interaction module. Detailed Implementation

[0025] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0026] Example:

[0027] Please see Figures 1-4 In this embodiment of the present invention, an intelligent handwashing basin system based on medium-free holographic interaction includes a main module 1, a holographic imaging module 2 and a sensing interaction module 3. The main module 1 includes a basin 11, the bottom of which is connected to a transparent plate 12. A water guiding component is provided on the edge of the transparent plate 12. The transparent plate 12 is used for light and shadow penetration, and the water guiding component is used for water flow edge guidance.

[0028] Holographic imaging module 2 is connected to the bottom of transparent plate 12. Holographic imaging module 2 is used to project holographic images through transparent plate 12 without a medium.

[0029] The sensing interaction module 3 is embedded in the basin 11. The sensing interaction module 3 is electrically connected to the holographic imaging module 2. The sensing interaction module 3 is used to recognize the user's gestures to control the water flow and to turn on the holographic imaging module 2 to project holographic images.

[0030] Specifically, this invention connects a light-transmitting transparent plate 12 to the bottom of the basin 11, and a holographic imaging module 2 is connected to the bottom of the transparent plate 12. The sensing and interaction module 3 recognizes the user's gestures, turns on the faucet installed on the basin 11 to control the water flow, allowing water to flow into the basin 11 for the user to wash their hands. At the same time, the holographic imaging module 2 is activated when the water flow is turned on. The holographic imaging module 2 projects a holographic image without a medium and projects it into the basin 11 through the transparent plate 12, forming a three-dimensional image visible to the naked eye in the internal space of the basin 11. This enables intelligent information interaction within the washing utensils, and achieves holographic image projection without a medium within the basin 11, eliminating the need for traditional projection media, avoiding the space occupied by traditional playback screens, improving resource utilization efficiency, and providing a good user experience.

[0031] Furthermore, holographic images can project different images in different scenarios. In commercial scenarios, they can be used to display advertisements; in home scenarios, they can be used to display weather, schedule reminders, or play family photo albums; in educational scenarios, they can be used to display teaching materials or interactive teaching content, making learning more vivid and interesting; in medical scenarios, they can be used to display health tips, medication instructions, or rehabilitation training guidance, providing personalized medical assistance; in addition, in entertainment scenarios, holographic images can display game scenes, music videos, or movie scenes, bringing users an immersive entertainment experience. The diverse holographic image projection methods have a wide range of applications.

[0032] Preferred, such as Figure 1 and Figure 3 As shown, the cross-section of the transparent plate 12 is trapezoidal, with the smaller end face of the transparent plate 12 located inside the basin 11 and the other larger end face of the transparent plate 12 located outside the basin 11.

[0033] Specifically, the trapezoidal cross-section of the transparent plate 12 allows the holographic image projected from the outside of the basin 11 to be refracted by the transparent plate 12 and presented more clearly inside the basin 11. At the same time, the trapezoidal cross-section of the transparent plate 12 increases the viewing angle of the holographic image when viewed from above, thus improving the user's viewing experience.

[0034] Furthermore, the transparent plate 12 is made of acrylic or tempered glass, which has high light transmittance and scratch resistance, ensuring the projection effect of the holographic image and extending the service life of the transparent plate 12.

[0035] Preferred, such as Figure 1 and Figure 3 As shown, the water guiding assembly includes a water guiding groove 13 and water guiding holes 14. The small end face edge of the transparent plate 12 is connected to the inclined and radial water guiding groove 13. The inclined tail end of the water guiding groove 13 is connected to multiple water guiding holes 14. The water guiding groove 13 is guided by the edge of the water flow, and the water guiding holes 14 are used for the discharge of the guided water flow.

[0036] Specifically, the radial water guide channels 13 ensure that the water flow can be smoothly guided from the small end face of the transparent plate 12 to the inner edge of the basin 11, so that the water flow can flow along the predetermined path, avoiding the water flow to concentrate at the upper end of the transparent plate 12, avoiding obstruction of the holographic projection imaging area, and ensuring the user's viewing effect. Multiple water guide holes 14 ensure that the water flow can be discharged quickly and evenly, avoiding water accumulation inside the basin 11, resulting in good use effect.

[0037] Preferred, such as Figure 3 and Figure 4 As shown, the holographic imaging module 2 includes an optical waveguide plate 21 and a display element 22. The optical waveguide plate 21 is connected to the large end face of the transparent plate 12. The tilted display element 22 is installed at the bottom of the optical waveguide plate 21. Generally, the display element 22 can be an electronic screen or a projection lamp. The display element 22 is used to project the image to be displayed, and the optical waveguide plate 21 is used to generate a holographic image and project the holographic image. It should be noted that the holographic image can be viewed with the naked eye without a guiding medium, so it can be regarded as a medium-free holographic image. At the same time, the setting position of the display element 22 can be adjusted according to the requirements. That is, the display element 22 can be tilted or horizontally set, which is not limited here. The optical waveguide plate 21 can be the microchannel matrix optical waveguide plate mentioned in patent application number 2022100600772, or other optical waveguide plates that can perform medium-free holographic imaging, which is not limited here.

[0038] Specifically, the holographic imaging module 2 includes an optical waveguide plate 21 and a display element 22, wherein the display element 22 is signal-connected to the sensing interaction module 3 and is used to generate an image according to the instructions of the sensing interaction module 3; 111 can be a display screen, monitor, or other display device or equipment that can generate light source images; the optical waveguide plate 21 is used to perform light processing on the image to generate a medium-free holographic image; the optical waveguide plate 21 can be other optical elements or devices that can float and image, and the display element 22 realizes the dynamic changes of the holographic image, bringing users an immersive visual experience.

[0039] Preferred, such as Figure 1 As shown, the sensing interaction module 3 is embedded in the side wall of the basin 11 so that the sensing interaction module 3 can recognize the user's gestures and avoid contact with the water flow.

[0040] Specifically, the sensing interaction module 3 is embedded in the side wall of the basin 11 to ensure stable operation when the hands are being rinsed by water, without being disturbed by the water flow. The sensing interaction module 3 installed on the side wall of the basin 11 can face the user's hand and accurately recognize the user's gestures, thus improving recognition accuracy.

[0041] Preferably (not shown), the sensing interaction module 3 includes a sensing module, a dispensing module and a monitoring module. The sensing module, the dispensing module and the monitoring module are all electrically connected to the display 22. The sensing module integrates an infrared sensor, which is used by the user to control the water flow with gestures and turn on the display 22 to project a holographic image.

[0042] The projection module connects to a cloud database and is used to input holographic image data from the cloud database into the display device 22.

[0043] The monitoring module includes a flow sensor and a temperature sensor. The flow sensor monitors the water flow rate to obtain flow data, and the temperature sensor monitors the water temperature to obtain temperature data. The flow data and temperature data are input into the display unit 22, and the display unit 22 projects a holographic image to display the flow data and temperature data.

[0044] Specifically, the sensing module can capture user gestures in real time through an infrared sensor, convert the gesture signals into control commands, control the water flow, and trigger the display 22 to start the holographic image projection function.

[0045] The delivery module is tightly integrated with the cloud database, which manages advertising content and supports dynamic updates, greatly enriching the user experience.

[0046] The monitoring module fully utilizes the functions of the flow sensor and temperature sensor to monitor the water flow status in all aspects. The flow data can reflect the water resource usage and help users plan their water use rationally. The temperature data can display the water temperature in real time, allowing users to know the current water temperature. This real-time monitoring data is displayed in an intuitive holographic image form through the display device 22, allowing users to understand the water flow status at a glance.

[0047] Furthermore, the monitoring module provides real-time water consumption data through flow data. When the actual water consumption exceeds the preset water consumption, it generates water-saving suggestions and displays them through holographic images, effectively encouraging users to take water-saving actions, jointly protect the Earth's water resources, and promote the popularization of green lifestyles.

[0048] Preferably (not shown), the sensing module also includes a gesture recognition unit, which is electrically connected to the optical micromirror array. The gesture recognition unit is used to recognize the user's gesture and generate recognition data. The recognition data is input into the optical micromirror array so that the user's gesture interacts with the holographic image projected by the optical micromirror array.

[0049] Specifically, the gesture recognition unit accurately recognizes various subtle movements of the user's gestures, such as swiping, clicking, and rotating. The gesture recognition unit is electrically connected to the display device, and the recognition data is transmitted and processed in real time, enabling the holographic image to respond quickly to the user's gestures and achieve a smooth interactive experience.

[0050] Furthermore, when placing advertisements in commercial settings, push notifications of nearby merchant offers allow users to not only easily browse various promotional information but also engage in precise interactions based on their personal interests through gestures. For example, a simple swipe of the finger allows users to view details of different merchant offers, while clicking a preset gesture directly leads to an ad link for more in-depth information about the offers. In addition, receiving electronic coupons through preset gestures simplifies the process and increases user engagement and enjoyment.

[0051] Furthermore, the sensing interaction module 3 also includes an effect module, which is used for advertising performance tracking. By using the camera or WiFi module integrated in the effect module to count the frequency of user interactions, it generates a campaign performance report, thereby helping advertisers accurately evaluate the effectiveness of their advertising campaigns, optimize their advertising strategies, and provide key indicators such as ad impressions, user interaction rates, and conversion rates. This provides advertisers with a scientific basis for decision-making and maximizes advertising benefits.

[0052] The above description is only a preferred embodiment of the present utility model, but the protection scope of the present utility model is not limited thereto. Any equivalent substitutions or changes made by those skilled in the art within the technical scope disclosed in the present utility model, based on the technical solution and the inventive concept of the present utility model, should be included within the protection scope of the present utility model.

Claims

1. A smart washbasin system based on media-free holographic interaction, comprising a main module, the main module including a basin body, characterized in that: The bottom of the basin is connected to a transparent plate, and a water guiding component is provided on the edge of the transparent plate. The transparent plate is used for light and shadow to pass through, and the water guiding component is used to guide the water flow at the edge. A holographic imaging module is connected to the bottom of a transparent plate and is used to project holographic images through the transparent plate without a medium. A sensing interaction module is embedded in the basin and electrically connected to a holographic imaging module. The sensing interaction module is used to recognize user gestures to control water flow and activate the holographic imaging module to project holographic images.

2. The intelligent handwashing basin system based on media-free holographic interaction according to claim 1, characterized in that: The transparent plate has a trapezoidal cross-section, with the smaller end face of the transparent plate located inside the basin and the other larger end face of the transparent plate located outside the basin.

3. The intelligent handwashing basin system based on media-free holographic interaction according to claim 2, characterized in that: The water guiding component includes a water guiding channel and water guiding holes. The small end face edge of the transparent plate is connected to an inclined and radial water guiding channel. The inclined tail end of the water guiding channel is connected to multiple water guiding holes. The water guiding channel is guided by the edge of the water flow, and the water guiding holes are used for the discharge of the guided water flow.

4. The intelligent handwashing basin system based on media-free holographic interaction according to claim 3, characterized in that: The holographic imaging module includes an optical waveguide plate and a display component. The optical waveguide plate is connected to the large end face of the transparent plate, and an inclined display component is installed at the bottom end of the optical waveguide plate. The display component is used to project holographic images, and the optical waveguide plate is used to enhance the holographic images.

5. The intelligent handwashing basin system based on media-free holographic interaction according to claim 4, characterized in that: The sensor interaction module is embedded in the side wall of the basin so that it can recognize the user's gestures and avoid contact with the water flow.

6. The intelligent handwashing basin system based on media-free holographic interaction according to claim 5, characterized in that: The sensing interaction module includes a sensing module, a projection module, and a monitoring module. The sensing module, projection module, and monitoring module are all electrically connected to the display device. The sensing module integrates an infrared sensor, which is used by the user to control the water flow with gestures and turn on the display device to project a holographic image. The projection module is connected to a cloud database, and the projection module is used to input holographic image data from the cloud database into the display device; The monitoring module includes a flow sensor and a temperature sensor. The flow sensor monitors the water flow rate to obtain flow data, and the temperature sensor monitors the water temperature to obtain temperature data. The flow data and temperature data are input to a display device, and the display device projects a holographic image to display the flow data and temperature data.

7. The intelligent handwashing basin system based on media-free holographic interaction according to claim 6, characterized in that: The sensing module also includes a gesture recognition unit, which is electrically connected to the optical micromirror array. The gesture recognition unit is used to recognize user gestures and generate recognition data. The recognition data is input to the optical micromirror array so that the user gestures interact with the holographic image projected by the optical micromirror array.

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