Indoor light source simulation equipment based on environmental art design

Abstract

The embodiment of the utility model provides indoor light source simulation equipment based on environmental art design, and the equipment comprises a filter lens wheel which is used for accommodating filter lenses with different colors and color temperatures, and is provided with an embedded seat, a filter lens seat, and a positioning pin hole; the filter lens seat is of a quick insertion structure, and the quick insertion structure comprises a sliding buckle mechanism with a spring support and a positioning pin matched with the positioning pin hole; the light emitting end of the light source emitter is arranged opposite to the filter lens wheel; the reflecting and focusing lens group is arranged on one side, far away from the light source emitter, of the filter lens wheel and is axially aligned and connected with the filter lens wheel; the rotating shaft supports the filter lens wheel and drives the filter lens wheel to rotate through a servo motor; according to the scheme of the embodiment of the invention, different ambient light colors and temperatures can be conveniently switched.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of lighting engineering, in particular to an indoor light source simulation device based on environmental art design. BACKGROUND

[0002] The indoor light source simulation device based on environmental art design is a device specially designed for creating a unique space atmosphere. It helps users create diverse visual and emotional experiences in indoor environments by accurately simulating natural light and other specific environmental light. The device not only simulates the effects of natural light under different time and weather conditions, but also adjusts the color and temperature of the light source according to specific application requirements to adapt to different scene needs. However, one problem with this device is how to conveniently switch different environmental light colors and temperatures. Under current technology, this process often requires complex operations or settings, affecting the convenience and smoothness of user experience, making it difficult for users to quickly switch or personalize the light environment. SUMMARY

[0003] Therefore, the present disclosure provides an indoor light source simulation device based on environmental art design to at least partially solve the problems in the prior art.

[0004] The indoor light source simulation device based on environmental art design comprises:

[0005] A filter wheel for accommodating a plurality of filters of different colors and color temperatures, wherein the filter wheel has an embedded seat, a filter seat, and a positioning pin hole;

[0006] The filter seat is a quick plug structure, which includes a sliding buckle mechanism with spring support and a positioning pin matched with the positioning pin hole;

[0007] A light source emitter, the light emitting end of which is opposite to the filter wheel installation;

[0008] A reflective focusing lens group is provided on the side of the filter wheel away from the light source emitter and is connected axially with the filter wheel;

[0009] A rotating shaft supports the filter wheel and drives the filter wheel to rotate through a servo motor;

[0010] In one specific embodiment, the embedded seat is magnetically fixed with the filter seat.

[0011] In one specific embodiment, a magnet plate is embedded in the embedded seat, and a soft magnetic strip is provided at the joint between the filter seat and the embedded seat to generate a magnetic attraction effect.

[0012] In one specific embodiment, a micro sensor is arranged in the positioning pin hole to detect whether the filter is correctly positioned.

[0013] In one specific embodiment, the servo motor comprises an encoder.

[0014] In one specific embodiment, the light source emitter and the filter wheel are arranged on a bearing plate, the bearing plate is rotationally connected with a bearing frame, one side of the bearing frame is provided with an adjusting motor, and an output shaft of the adjusting motor is connected with the bearing plate to drive the bearing plate to rotate relative to the bearing frame.

[0015] In one specific embodiment, a front lens is arranged in front of the reflection focusing lens group.

[0016] In one specific embodiment, a ring-shaped indicator light belt is arranged outside the filter wheel.

[0017] The indoor light source simulation device based on environmental art design provided by the embodiments of the present disclosure comprises a filter wheel for accommodating filters of different colors and color temperatures, wherein the filter wheel has an embedding seat, a filter seat and a positioning pin hole; the filter seat is a quick insertion structure, the quick insertion structure comprises a sliding buckle mechanism with spring support and a positioning pin matched with the positioning pin hole; a light source emitter is arranged opposite to the filter wheel; a reflection focusing lens group is arranged on a side of the filter wheel away from the light source emitter and is axially aligned and connected with the filter wheel; a rotating shaft supports the filter wheel and drives the filter wheel to rotate through a servo motor; through the scheme of the embodiments of the present disclosure, how to conveniently switch different environmental light colors and temperatures can be solved. BRIEF DESCRIPTION OF DRAWINGS

[0018] In order to more clearly illustrate the technical solutions of the example embodiments of the present disclosure, the drawings needed in the embodiments will be briefly introduced as follows, and it should be understood that the following drawings only show some embodiments of the present disclosure, and therefore should not be regarded as a limitation on the scope, and for those skilled in the art, other related drawings can also be obtained without creative labor on the basis of these drawings.

[0019] Figure 1 is a structural schematic view of the indoor light source simulation device based on environmental art design according to the present disclosure;

[0020] Figure 2 is an exploded schematic view of the filter wheel, the light source emitter, the reflection focusing lens group and the front lens in the indoor light source simulation device based on environmental art design according to the present disclosure;

[0021] Figure 3 is the internal explosion schematic view of the filter lens seat in the indoor light source simulation equipment based on environmental art design;

[0022] Figure 4 is the back view of the filter lens wheel in the indoor light source simulation equipment based on environmental art design.

[0023] In the figure: 1, filter lens wheel; 11, embedded seat; 12, filter lens seat; 13, positioning pin hole; 14, micro sensor; 15, encoder; 2, light source emitter; 21, bearing plate; 22, front lens; 23, bearing frame; 24, indicator light strip; 25, adjusting motor; 3, reflecting focusing lens group; 4, rotating shaft; 41, servo motor DETAILED DESCRIPTION

[0024] In order to make the purpose, technical scheme and advantages of the embodiments of the present disclosure more clear and clear, the embodiments of the present disclosure are further described in detail below, and the illustrative embodiments of the present disclosure and their descriptions are only used to explain the embodiments of the present disclosure, and not as a limitation of the embodiments of the present disclosure.

[0025] As shown in Figure 1 and Figure 2 , the indoor light source simulation equipment based on environmental art design of the present application comprises a filter lens wheel 1, a light source emitter 2, a reflecting focusing lens group 3 and a rotating shaft 4. The components are connected through precise design and assembly to ensure that the equipment can effectively simulate the color and temperature of various different environmental light, and ensure the convenience and efficiency of replacing the filter lens and adjusting the lighting effect.

[0026] The filter lens wheel 1 is used to accommodate a variety of different color and color temperature filter lenses. The wheel has an embedded seat 11, which can firmly fix various filter lenses to ensure that the optical properties do not change with vibration. The detachable filter lens seat 12 provides a convenient way for users to quickly replace the filter lens as needed, and the quick positioning pin hole 13 ensures that the filter lens can be quickly aligned and fixed during installation. On the technical level, these components can be formed by precise molds and the application of high-weather-resistant materials to ensure structural stability, thereby effectively preventing the distortion of the effect caused by the deviation of the filter lens position during use.

[0027] The light source emitter 2 is responsible for generating uniform and high-intensity light. The emitter is placed in the center of the system, with the light-emitting surface facing the filter lens wheel 1, so that each beam of light passing through is uniformly distributed and fully filtered. In terms of specific technical details, the light source can choose high-quality LED or laser modules, which are matched with built-in cooling and heat dissipation components to ensure stable performance under long-term operation.

[0028] The reflection focusing lens group 3 is installed at the end opposite to the filter wheel 1, arranged strictly coaxially with the former along the axial direction, and has the ability to reorient and focus the light passing through the filter into a parallel light beam. In this way, the irradiation range can be accurately controlled, and the desired visual effect can be created in the limited area. For example, by using a curved mirror lens group and an automatic adjustment mechanism, the angle and intensity of the light can be optimized.

[0029] The rotating shaft 4 carries the entire filter wheel 1 and its motion control. The rotating shaft 4 is precisely driven by a built-in servo motor 41. The servo motor 41 accurately selects the required type of filter switching according to the preset conditions or external input signals. In order to ensure the reliability and accuracy of long-term use, the rotating shaft 4 system selects an industrial-grade servo motor 41 with low wear, silent operation and self-locking mechanism, and uses synchronous belts or gear sets as transmission components. This makes the smooth transition and accurate positioning between filters easy to manage and efficient.

[0030] The device solves the problem of inconvenient switching of different environmental light in traditional light source simulation equipment by carefully setting up the interaction of the above-mentioned key parts: the filter installation is simple and fast by using the design of embedded seat 11 and quick positioning pin, which greatly facilitates the operation; the servo motor 41 is matched with an intelligent control system, which can complete the conversion task of a specific type or color of filter instantly according to the set parameters; combined with the above advantages and efficient mechanical layout, the present application not only improves the flexibility and response efficiency of operation, but also realizes high-quality light change mode output.

[0031] As shown in Figure 2 In one embodiment, the embedded seat 11 of the indoor light source simulation equipment based on environmental art design of the present application adopts a magnetic attraction fixing method to cooperate with the filter seat 12, ensuring the stability of the filter during use. Through the magnetic attraction method, the fixation between the embedded seat 11 and the filter seat 12 is more convenient, reducing the additional operation steps required by traditional mechanical locking. This improvement not only improves the installation efficiency, but also ensures the reliability during long-term use. In practical application, whether it is to quickly replace different types of filters or to maintain and adjust during long-term use, the magnetic attraction fixing mechanism can bring great convenience to users.

[0032] Specifically, the embedded seat 11 is located on one side inside the filter wheel 1, and its main function is to provide stable support after the filter is installed. The filter seat 12 is located on the outer surface of the filter wheel 1, matched with filters of various colors and color temperatures, forming a relatively sealed and stable working environment. The combined part is designed with corresponding magnetic materials to ensure that the embedded seat 11 and the filter seat 12 have reliable suction force. Due to the use of invisible but firm connection form, the whole system appearance is simple and smooth, and does not affect the flexibility and functionality of the filter seat 12 itself.

[0033] As Figure 2 shown, in one embodiment, a magnet plate is embedded in the embedding seat 11 of the present application, and a soft magnetic strip is arranged at the joint between the embedding seat 11 and the filter seat 12. Such a structure not only meets the requirements of high-strength fixation, but also allows the filter seat 12 to be easily removed by gently pushing a specific part during disassembly, facilitating daily maintenance and cleaning.

[0034] As Figure 3 shown, in one embodiment, the filter seat 12 of the indoor light source simulation device based on environmental art design of the present application adopts a quick plug structure design. This special quick plug structure allows the operator to quickly complete the insertion and removal of the filter in a few seconds, greatly improving the convenience and efficiency of use. Unlike traditional operation methods that require complex assembly tools and techniques, the present embodiment achieves a more efficient component replacement scheme through optimized mechanical structure design.

[0035] The filter seat 12 is located between the filter wheel 1 and the reflecting focusing lens group 3 and is tightly matched with the filter wheel 1. The filter seat 12 not only provides a safe and stable mounting platform, but also ensures that different types of filters can be accurately positioned and securely installed in the correct position. The specific design of the quick plug structure adopts a combination of spring fasteners and positioning pins. One end of the filter seat 12 is designed with a sliding buckle mechanism with spring support, and the other end is equipped with one or more manually set small holes as matching interfaces to embed the corresponding positioning pins. In this way, the mechanical coupling accuracy and firmness are ensured while the optical performance is not affected.

[0036] For example, during actual installation, the user only needs to gently push the filter to be installed into the seat body, and the built-in spring will automatically pop up and lock into position, thereby completing the entire clamping action. When the current filter needs to be unloaded or replaced, it only needs to press the side switch to release the locking state and remove the filter. The whole process is simple, fast and easy to operate. Such an efficient design not only improves work efficiency but also reduces the possibility of human error.

[0037] As Figure 3As shown, in one embodiment, a miniature sensor 14 is provided within the quick-positioning pin hole 13 of an indoor light source simulation device based on environmental art design. This miniature sensor 14 can detect in real time whether the filter is correctly aligned during the rapid replacement of the filter wheel 1, thereby ensuring that the filter can be accurately installed and function properly. This mechanism greatly improves the assembly efficiency and accuracy of the filter, providing a more convenient and efficient user experience for operators of the light source simulation device. The introduction of this miniature sensor 14 optimizes the overall performance of the device and reduces the probability of potential errors caused by inaccurate filter alignment, ensuring precise control of the color and color temperature characteristics after light emission.

[0038] The miniature sensor 14 is located inside the quick-positioning pin hole 13 in the filter wheel 1. Specifically, to ensure detection accuracy, the miniature sensor 14 is fixed in a stable position within the pin hole, with its detection end facing the direction of the filter mount 12. This structural layout helps the sensor quickly sense when the filter enters or leaves the pin hole and informs the operating interface of the current filter alignment status via a feedback system. Furthermore, to achieve high efficiency and long-term stable operation, the miniature sensor 14 communicates with the main control system wirelessly to avoid complex wiring and enhance system reliability. For example, during actual assembly, once the filter contacts the quick-positioning pin hole 13, the sensor immediately triggers a corresponding confirmation mechanism, performing data verification and calibration via the control module to complete the precise alignment task.

[0039] like Figure 2 and Figure 4 As shown, in one embodiment, the servo motor 41 of an indoor light source simulation device based on environmental art design of this application includes an encoder 15 for feeding back the current position to the control system and precisely adjusting the angle of the filter wheel 1. This structure makes the selection of the filter more automated and accurately positions it to the desired target filter position. The encoder 15 is tightly integrated with the servo motor 41, and by monitoring the motor rotation in real time and feeding the data back to the control system, precise control of the rotation angle of the filter wheel 1 is achieved.

[0040] The encoder 15 works by sensing the rotational state of the output shaft of the servo motor 41 in real time and feeding back the position information to the control system in the form of electrical signals. In this control system, the coordinate parameters of each set of filters are preset. When a specific filter is needed, the control system sends corresponding pulse signals to the servo motor 41 drive unit to control the rotation amount and direction according to pre-programmed instructions. Therefore, the encoder 15's role is not merely to monitor and report the current position; more importantly, it ensures the accuracy of the position after each rotation and guarantees the smoothness of filter switching.

[0041] For example, the device can realize reliable information transmission between the control system and the servo motor 41 through the RS-485 interface or other standard communication interface, so as to ensure that the encoder 15 can accurately convey the current position data and realize high-precision closed-loop control in the angle adjustment process through the PID algorithm. In addition, appropriate protocol type and communication baud rate can be selected according to different application scenarios to ensure the stability and compatibility of the entire system. Specifically, the position where the encoder 15 is installed is usually located inside the servo motor 41 or a fixed support near the motor connection, so as to ensure that the mechanical connection between the two is fast and reliable, and at the same time does not interfere with the motion characteristics of the motor itself or increase unnecessary friction loss.

[0042] As shown in Figure 1 In one embodiment, the indoor light source simulation device based on environmental art design of the present application is characterized in that the light source emitter 2 and the filter wheel 1 are arranged on a set of bearing plates 21. The set of bearing plates 21 are rotatably assembled on a bearing frame 23, so that the dynamic adjustment function of the light source angle is realized through the adjustment motor 25 mounted in the bearing frame 23.

[0043] Specifically, the bearing plate 21 constitutes the core platform of installation and support. The bearing plate 21 is used to install the important components of the light distribution system, i.e. the light source emitter 2 and the filter wheel 1. In order to freely change the projection angle of light, the bearing plate 21 is not fixed but arranged in a flexible rotating manner inside the bearing frame 23. The bearing frame 23 serves as the support base of the rotating structure, which is configured as an open or closed bracket frame. Under the support of such configuration, the bearing plate 21 together with the devices thereon can realize the angle change within a predetermined range. In addition, the adjustment motor 25 is used for the rotating system of the bearing plate 21-bearing frame 23, which drives the related transmission elements provided in the bearing frame 23, and then precisely adjusts the orientation of the entire light distribution system. For example, when the motor is started, the power is transmitted to the bearing plate 21 through the belt or gear transmission, so that the plate can be twisted by a certain number of degrees in the clockwise or counterclockwise direction around the specified axis.

[0044] As shown in Figure 2 In one embodiment, the indoor light source simulation device based on environmental art design of the present application adds a front lens 22 in front of the reflection focusing lens group 3 to preliminarily correct the shape of the light beam after the filter. The front lens 22 is installed between the reflection focusing lens group 3 and the filter wheel 1, which optimizes the propagation path of the light to improve the light intensity uniformity of the entire system. Specifically, the lens can pretreat the dispersed light after filtering to make it more consistent with the design requirements of the subsequent light path, so as to ensure that the light finally irradiated into the specified area has more consistent quality.

[0045] The front lens 22 is made of high-quality optical glass with precise curved surface processing to ensure ideal refraction characteristics of light. The relative position between the front lens 22 and the reflecting focusing lens group 3 is carefully adjusted to ensure that the light can be accurately transmitted from one component to the next. This configuration not only improves the speed of color conversion, but also provides better performance in color effects, especially in applications that require rapid color change. For example, with the help of the front lens 22, the filtered light can achieve stable and accurate color change in a shorter time without relying on long light path correction or complex algorithm compensation.

[0046] For example, the front lens 22 is fixed on a specific bracket in front of the reflecting focusing lens group 3. The front lens 22 and the reflecting focusing lens group 3 are connected through a precise mechanical structure and can be adjusted in a small range of position through a fine adjustment device to ensure the best light transmission effect.

[0047] As shown in Figure 3 In one embodiment, the indoor light source simulation device based on environmental art design of the present application is characterized in that a ring-shaped indicator light strip 24 is installed outside the filter wheel 1 to visually display the currently used filter and provide maintenance reminders. The ring-shaped indicator light strip 24 is arranged around the outer periphery of the filter wheel 1 to ensure that each filter corresponds to a clear light indication. When a specific filter enters the working state, the corresponding indicator light source will emit light. At the same time, when it is detected that a certain filter needs to be updated or maintained, the light at the corresponding position on the ring-shaped indicator light strip 24 will flash to remind the user.

[0048] The circuit design of the ring-shaped indicator light strip 24 closely cooperates with the built-in sensor system. Through real-time monitoring of the rotation angle of the filter wheel 1 and the service life of the filter by the sensor, once the specified threshold trigger condition is monitored, the LED light strip in the corresponding area is driven to light up or flash through the corresponding control module, realizing intelligent state display and reminding function, effectively improving the convenience and efficiency of equipment management and maintenance.

[0049] For example, in the process of implementation, a series of program logic can be set in the control system to determine when to light up which part of the LED and whether to start the flashing reminder mechanism. When the servo motor 41 rotates to drive the filter wheel 1 to switch to a new filter for work, the relevant program segment is activated and queries the corresponding relationship table stored in the storage medium in advance; then send instructions to the designated circuit to make the corresponding LED power on, and if there is a filter aging or cleaning situation, a periodic pulse signal is sent at the same time to make the LED at the corresponding position flash. In this way, not only can the state change of the internal components of the device be accurately reflected, but also great convenience and friendly experience are brought to the user's operation.

[0050] In actual operation, when the device is in use, the servo motor 41 can drive the filter wheel 1 to rotate, thereby selecting the required type of filter. The light source emitter 2 provides a uniform and stable strong light source, and projects the light directly opposite the filter wheel 1. After the light passes through the selected filter, its color and brightness characteristics will change accordingly to simulate different environmental light source effects. Then, the reflection focusing lens group 3 will reorient and focus the light beam to form a parallel light beam to illuminate the designated area. The user can quickly replace the filter to optimize the switching effect of different environmental light color and temperature. The entire process is supported and ensures the stable rotation of the filter wheel 1 by the rotating shaft 4, thereby ensuring the accuracy of light adjustment and the stability of lighting effect.

[0051] The above specific embodiments further illustrate the purpose, technical solutions and beneficial effects of the embodiments of the present disclosure. It should be understood that the above description is only a specific embodiment of the present disclosure and is not intended to limit the protection scope of the present disclosure. Any modification, equivalent replacement, improvement, etc. within the spirit and principles of the embodiments of the present disclosure should be included in the protection scope of the embodiments of the present disclosure.

Claims

1. An indoor light source simulation device based on environmental art design, characterized in that, include: A filter wheel (1) is used to accommodate filters of various colors and color temperatures. The filter wheel has an insert (11), a filter holder (12), and a positioning pin hole (13). The filter mount (12) is a quick-connect structure, which includes a sliding snap mechanism with spring support and a positioning pin that matches the positioning pin hole (13). A light source emitter (2) is installed with its light-emitting end facing the filter wheel (1); A reflective focusing lens group (3) is disposed on the side of the filter wheel (1) away from the light source emitter (2) and is axially aligned and connected to the filter wheel (1); The rotating shaft (4) supports the filter wheel (1) and drives the filter wheel (1) to rotate via the servo motor (41).

2. The indoor light source simulation device based on environmental art design according to claim 1, characterized in that: The embedding base (11) is magnetically fixed to the filter base (12).

3. The indoor light source simulation device based on environmental art design according to claim 2, characterized in that: A magnet plate is embedded in the embedding seat (11), and a soft magnetic strip is provided at the junction of the filter seat (12) and the embedding seat (11) to generate a magnetic attraction effect.

4. The indoor light source simulation device based on environmental art design according to claim 1, characterized in that: The positioning pin hole (13) is equipped with a miniature sensor (14) to detect whether the filter is correctly aligned.

5. The indoor light source simulation device based on environmental art design according to claim 1, characterized in that: The servo motor (41) includes an encoder (15).

6. The indoor light source simulation device based on environmental art design according to claim 1, characterized in that: The light source emitter (2) and the filter wheel are mounted on the support plate (21). The support plate (21) is rotatably connected to the support frame (23). An adjustment motor (25) is provided on one side of the support frame (23), and the output shaft of the adjustment motor (25) is connected to the support plate (21) to drive the support plate (21) to rotate relative to the support frame (23).

7. The indoor light source simulation device based on environmental art design according to claim 1, characterized in that: A front lens (22) is provided in front of the reflecting focusing lens group (3).

8. The indoor light source simulation device based on environmental art design according to claim 1, characterized in that: The filter wheel (1) is provided with a ring-shaped indicator light strip (24) on its outer side.

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