Imaging system and method based on static and rotation of rotating object

Abstract

The invention discloses an imaging system and method based on stationary and rotating of a rotating object, and relates to the technical field of image display, and the imaging system comprises a state monitoring unit, an image forming unit and an application APP. The state monitoring unit comprises a sensor, a controller, a power supply, a socket, a vibration energy collecting module, a capacitor block, a frame fusion processing module, a dynamic frame speed adjusting module, a light source frequency module and a light source control module; the controller is responsible for distinguishing the states of the wheels, judging the current states of the wheels and adjusting the OLED display method according to the current states, when the wheels are static, processed pictures are directly put and displayed on the OLED display screen, and when the wheels rotate, the frame fusion processing module utilizes the image processing technology to carry out image processing on the images, so that the images are displayed on the OLED display screen. According to the method, continuous image frames are fused together, a seamless persistence effect is created, the difference between front and back frames is analyzed, and image changes are smoothly transited through gradual change, dissolution or other image fusion technologies.

Description

Technical Field

[0001] The present invention belongs to the field of image display technology, and in particular relates to an imaging system and method based on the stillness and rotation of a rotating object. Background Art

[0002] At present, OLED (organic light-emitting diode) display technology is widely used in various display devices due to its advantages such as self-luminescence, high contrast, ultra-thinness, and wide viewing angle. However, OLED display systems are mostly static displays, that is, the display content remains unchanged after the device is turned on, or is only switched by manual operation of the user, and cannot automatically adjust the display content according to user preferences or object status. When facing high-speed rotating objects, traditional OLEDs often have blurred or distorted images and cannot clearly show the details of the objects. This is mainly because the traditional system cannot synchronously capture the image information of the rotating object at different times, resulting in superposition or blurring of the final image. Therefore, we propose an imaging system and method based on the stillness and rotation of rotating objects. Summary of the invention

[0003] The purpose of the present invention is to provide an imaging system and method based on the stillness and rotation of a rotating object. The controller is responsible for distinguishing the state of the wheel and determining the current state of the wheel, thereby solving the problem that traditional OLEDs often have blurred or distorted images and cannot clearly display the details of the object when facing high-speed rotating objects.

[0004] In order to solve the above technical problems, the present invention is achieved through the following technical solutions:

[0005] The present invention is an imaging system and method based on the stationary and rotating state of a rotating object, comprising a state monitoring unit, an image forming unit and an application APP;

[0006] The state monitoring unit includes a sensor, a controller, a power supply, a socket, a vibration energy collection module, a capacitor block, a frame fusion processing module, a dynamic frame rate adjustment module, a light source frequency module and a light source control module; the sensor is unidirectionally connected to the controller; the controller is unidirectionally connected to the capacitor block and the power supply respectively; the power supply is unidirectionally connected to the socket; the vibration energy collection module is unidirectionally connected to the capacitor block; the capacitor block is unidirectionally connected to the frame fusion processing module; the frame fusion processing module is unidirectionally connected to the dynamic frame rate adjustment module; the dynamic frame rate adjustment module is unidirectionally connected to the light source frequency module; the power supply and the light source frequency module are unidirectionally connected to the light source control module respectively; the sensor is responsible for Monitor the current state of the wheel, monitor and identify in real time whether the wheel is rotating or stationary; the controller is responsible for distinguishing the state of the wheel. When the wheel is rotating, the sensor outputs a high level; when the wheel stops, it outputs a low level, and the output signal of the sensor is connected to the control end of the controller. When the sensor outputs a high level, the switch is disconnected, and the OLED is powered by the capacitor block; when the sensor outputs a low level, the switch is closed, and the OLED is powered by the main power supply, thereby achieving switching between power supply and self-power supply; the socket is responsible for connecting the power supply and providing power output, thereby charging the power supply; the power supply is responsible for providing a stable power supply, this supply It ensures that the LED can get proper energy support in various working modes, thereby improving the efficiency of power utilization; the vibration energy collection module is responsible for using the piezoelectric effect to convert the vibration energy generated by the rotation of the wheel into electrical energy, so as to recycle it for subsequent use; the capacitor block is responsible for storing the electricity generated by the vibration energy collection module and using it when the wheel rotates, so as to achieve the effect of recycling; the frame fusion processing module is responsible for using image processing technology to fuse continuous image frames together to create a seamless visual persistence effect. It analyzes the difference between the previous and next frames, and smoothly transitions the image changes through gradient, dissolution or other image fusion technologies; The dynamic frame rate adjustment module is responsible for adapting to the visual persistence effect under different rotation speeds. The system can dynamically adjust the frame rate of the OLED, monitor the rotation speed of the wheel in real time through the sensor, and adjust the frame rate accordingly to ensure that a stable visual persistence effect can be produced at different rotation speeds; the light source frequency module is responsible for adjusting the lighting conditions as needed to enhance the visual persistence phenomenon; this can be achieved by adjusting the frequency of the ambient light flashing to synchronize it with the rotation speed of the wheel; the light source control module is responsible for accurately adjusting the brightness of the light source. At night or in low light conditions, the brightness of the light source needs to be increased to obtain a clear image; in a strong light environment, the brightness needs to be reduced to avoid overexposure.

[0007] As a preferred technical solution, the image forming unit includes an imaging module, an image acquisition module, an image processing module, an image enhancement, data compression, color difference, color correction, an image stabilization module, an image display module and a communication module; the light source control module is unidirectionally connected to the imaging module; the imaging module is unidirectionally connected to the image acquisition module; the image acquisition module is unidirectionally connected to the image processing module; the image processing module is unidirectionally connected to image enhancement, data compression, color difference and color correction respectively; the image enhancement, data compression, color difference and color correction are unidirectionally connected to the image stabilization module respectively; the image stabilization module is unidirectionally connected to the image display module; the image display module is unidirectionally connected to the communication module; the application APP includes a human-computer interaction interface, an intuitive control display, an operation display preview, a user management, an operation log, a software update and a storage module; the communication module is connected to the human-computer interaction interface by Bluetooth; the human-computer interaction interface is unidirectionally connected to the intuitive control display, the operation display preview, the user management, the operation log, the software update and the storage module respectively; the human-computer interaction interface is unidirectionally connected to the imaging module.

[0008] As a preferred technical solution, the imaging module is responsible for receiving uploaded images or video information that need to be displayed; the image collection module is responsible for collecting and logically processing the uploaded images or video information; the image processing module is responsible for preliminary preprocessing of the collected images or video information and parsing them into PNG format; the image enhancement is responsible for improving image quality to make the image more suitable for further analysis and processing. Common image enhancement techniques include contrast enhancement, noise removal, sharpening, etc. Through these techniques, the visual effect of the image can be improved and important details in the image can be highlighted; the data compression is responsible for compressing the uploaded image data. Since images usually contain a large amount of data, direct storage and transmission will cause great pressure on system resources. Data compression can reduce the required storage space and transmission bandwidth while ensuring image quality. Common compression algorithms include JPEG, PNG, etc., which use redundant information in the image for compression; the color difference is responsible for color interpolation in order to obtain the complete color information of each pixel during the image acquisition process; the color correction is responsible for adjusting the image so that it presents consistent color on different devices. Gamma correction and white balance are two common color correction methods. Gamma correction is mainly used to correct the nonlinear response of display devices, while white balance is used to eliminate color deviations under different lighting conditions. Through these correction methods, the color performance of the image will be closer to the real world; the image stabilization module is responsible for using optical image stabilization technology, combined with image content analysis, to achieve real-time correction of dynamic blur. For rotating objects, a prediction algorithm is used to predict the position of the next frame of the image and perform real-time compensation; the image display module is responsible for projecting the processed image so that it can be displayed on the OLED display; the communication module is responsible for connecting with the application APP via Bluetooth, thereby realizing data transmission and communication between the system and the network, ensuring effective data transmission and system interconnection.

[0009] As a preferred technical solution, the human-computer interaction interface is responsible for providing the user with an interactive interface, allowing the user to interact with the system, perform settings and operations; the module is designed with an intuitive graphical user interface, and the user can operate through a touch screen or physical buttons, so that the user can understand the current wheel display status; the intuitive control display is responsible for enabling the user to easily set and adjust the parameters of the visual persistence effect, which includes adjusting the image clarity, brightness, contrast, and selecting different visual persistence modes; the operation display preview is responsible for displaying the image that the user is about to switch to on the interactive interface, so that the user can observe and preview it, which is convenient for the user to make decisions; the user management is responsible for ensuring that only authorized users can access the system and data, which is usually achieved through user names and passwords, fingerprint recognition, facial recognition, etc., giving users different permissions, including access to system functions, reading and modifying data and delete operations, thereby ensuring the security and convenience of the user's account; the operation log is responsible for recording the activities of users inside or outside the system, including login, logout, data query, modification, and deletion operations; the software update is responsible for establishing an easy-to-operate software update mechanism, including automatic detection and update, one-click update operation, update log record, version compatibility and rollback functions, to ensure that the system can be upgraded to the latest version in a timely manner, which can not only improve the performance and stability of the system, but also introduce new functions and improve existing functions; the storage module is responsible for storing the collected image data, processed image data and other related data on appropriate storage media, such as hard disks, solid-state drives, and memory cards. When users consult, the stored data is organized and managed, and detailed metadata tags are attached to each piece of data, including collection time, location, event type, etc. These tags provide a convenient way to search and identify data. Through tags, users can quickly filter out qualified data. In order to improve the retrieval speed, the storage module will automatically create indexes for the stored data. These indexes will be created based on key information such as file names, tags, content descriptions, etc., to ensure that the required content can be quickly located in massive data.

[0010] The present invention has the following beneficial effects:

[0011] The present invention uses a controller to distinguish the state of the wheel, determine the current state of the wheel, and adjust the OLED display method according to the current state. When the wheel is stationary, the processed picture is directly projected to be displayed on the OLED display screen. When the wheel rotates, the frame fusion processing module uses image processing technology to fuse continuous image frames together to create a seamless visual persistence effect. It analyzes the difference between the previous and next frames, and smoothly transitions the image changes through gradient, dissolution or other image fusion technologies. According to the visual persistence effect at different rotation speeds, the system can dynamically adjust the frame rate of the OLED, monitor the rotation speed of the wheel in real time through the sensor, and adjust the frame rate accordingly to ensure that a stable visual persistence effect can be produced at different rotation speeds, so that the wheel can display images when it is in different states.

[0012] The present invention performs different power supply adjustments according to wheel displays in different states. When the wheel rotates, the sensor outputs a high level; when the wheel stops, it outputs a low level. The output signal of the sensor is connected to the control end of the controller. When the sensor outputs a high level, the switch is disconnected, and the OLED is powered by the capacitor block; when the sensor outputs a low level, the switch is closed, and the OLED is powered by the main power supply, thereby achieving switching between power supply and self-power supply.

[0013] The present invention provides an interactive interface for users by setting a human-computer interaction interface, allowing users to interact with the system, perform settings and operations; the module is designed with an intuitive graphical user interface (GUI), and users can operate through a touch screen or physical buttons, so that users can understand the current wheel display status and can easily set and adjust visual persistence effect parameters, including adjusting image clarity, brightness, contrast, etc., and selecting different visual persistence modes, and displaying the image that the user is about to switch on the interactive interface, so that users can observe and preview, which is convenient for users to make decisions;

[0014] Of course, any product implementing the present invention does not necessarily need to achieve all of the advantages described above at the same time. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for describing the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

[0016] Figure 1 The present invention provides an imaging system and method based on the stationary and rotating state of a rotating object. DETAILED DESCRIPTION

[0017] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0018] See also Figure 1 As shown, the present invention is an imaging system and method based on the stationary and rotating state of a rotating object, including a state monitoring unit, an image forming unit and an application APP;

[0019] The state monitoring unit includes a sensor, a controller, a power supply, a socket, a vibration energy collection module, a capacitor block, a frame fusion processing module, a dynamic frame rate adjustment module, a light source frequency module and a light source control module; the sensor is unidirectionally connected to the controller; the controller is unidirectionally connected to the capacitor block and the power supply respectively; the power supply is unidirectionally connected to the socket; the vibration energy collection module is unidirectionally connected to the capacitor block; the capacitor block is unidirectionally connected to the frame fusion processing module; the frame fusion processing module is unidirectionally connected to the dynamic frame rate adjustment module; the dynamic frame rate adjustment module is unidirectionally connected to the light source frequency module; the power supply and the light source frequency module are unidirectionally connected to the light source control module respectively; the sensor is responsible for monitoring the current wheel state The controller is responsible for distinguishing the state of the wheel. When the wheel is rotating, the sensor outputs a high level; when the wheel stops, it outputs a low level. The output signal of the sensor is connected to the control end of the controller. When the sensor outputs a high level, the switch is disconnected and the OLED is powered by the capacitor block; when the sensor outputs a low level, the switch is closed and the OLED is powered by the main power supply, thereby switching between power supply and self-power supply. The socket is responsible for connecting the power supply and providing power output to charge the power supply. The power supply is responsible for providing a stable power supply, which ensures that the LED Appropriate energy support can be obtained in various working modes, thereby improving the efficiency of power utilization; the vibration energy collection module is responsible for converting the vibration energy generated by the rotation of the wheel into electrical energy by using the piezoelectric effect, so as to recycle it for subsequent use; the capacitor block is responsible for storing the electricity generated by the vibration energy collection module and using it when the wheel rotates, so as to achieve the effect of recycling; the frame fusion processing module is responsible for using image processing technology to fuse continuous image frames together to create a seamless visual persistence effect. It analyzes the difference between the previous and next frames and smoothly transitions the image changes through gradient, dissolution or other image fusion technologies; the dynamic frame rate adjustment module is responsible for adapting to the visual persistence effect at different rotation speeds. The system can dynamically adjust the frame rate of the OLED, monitor the rotation speed of the wheel in real time through the sensor, and adjust the frame rate accordingly to ensure that a stable visual persistence effect can be produced at different rotation speeds; the light source frequency module is responsible for adjusting the lighting conditions as needed to enhance the visual persistence phenomenon; this can be achieved by adjusting the frequency of the ambient light flashing to synchronize it with the rotation speed of the wheel; the light source control module is responsible for accurately adjusting the brightness of the light source. At night or in low light conditions, the light source brightness needs to be increased to obtain a clear image; while in a strong light environment, the brightness needs to be reduced to avoid overexposure.

[0020] The image forming unit includes an imaging module, an image acquisition module, an image processing module, an image enhancement module, a data compression module, a color difference module, a color correction module, an image stabilization module, an image display module and a communication module; the light source control module is unidirectionally connected to the imaging module; the imaging module is unidirectionally connected to the image acquisition module; the image acquisition module is unidirectionally connected to the image processing module; the image processing module is unidirectionally connected to the image enhancement, data compression, color difference and color correction modules respectively; the image enhancement, data compression, color difference and color correction modules are unidirectionally connected to the image stabilization module respectively; the image stabilization module is unidirectionally connected to the image display module; the image display module is unidirectionally connected to the communication module; the application APP includes a human-computer interaction interface, an intuitive control display, an operation display preview, a user management, an operation log, a software update and a storage module; the communication module is connected to the human-computer interaction interface via Bluetooth; the human-computer interaction interface is unidirectionally connected to the intuitive control display, the operation display preview, the user management, the operation log, the software update and the storage module respectively; the human-computer interaction interface is unidirectionally connected to the imaging module.

[0021] The imaging module is responsible for receiving the uploaded image or video information that needs to be displayed; the image collection module is responsible for collecting and logically processing the uploaded image or video information; the image processing module is responsible for preliminary preprocessing of the collected image or video information and parsing it into PNG format; image enhancement is responsible for improving image quality to make the image more suitable for further analysis and processing. Common image enhancement techniques include contrast enhancement, noise removal, sharpening, etc. Through these techniques, the visual effect of the image can be improved and the important details in the image can be highlighted; data compression is responsible for compressing the uploaded image data. Since images usually contain a large amount of data, direct storage and transmission will cause great pressure on system resources. Data compression can reduce the required storage space and transmission bandwidth while ensuring image quality. Common compression algorithms include JPEG, PNG, etc., which use redundant information in the image for compression; color difference is responsible for color interpolation in order to obtain the complete color information of each pixel during image acquisition; color correction is responsible for adjusting the image so that it presents consistent colors on different devices. Gamma correction and white balance are two common color correction methods. Gamma correction is mainly used to correct the nonlinear response of display devices, while white balance is used to eliminate color deviations under different lighting conditions. Through these correction methods, the color performance of the image will be closer to the real world; the image stabilization module is responsible for using optical image stabilization technology, combined with image content analysis, to achieve real-time correction of dynamic blur. For rotating objects, a prediction algorithm is used to predict the position of the next frame of the image and perform real-time compensation; the image display module is responsible for projecting the processed image so that it can be displayed on the OLED display; the communication module is responsible for connecting with the application APP via Bluetooth, thereby realizing data transmission and communication between the system and the network, ensuring the effective transmission of data and the interconnection of the system.

[0022] The human-computer interaction interface is responsible for providing users with an interactive interface, allowing users to interact with the system, set up and operate; the module is designed with an intuitive graphical user interface, and users can operate through the touch screen or physical buttons, so that users can understand the current wheel display status; the intuitive control display is responsible for enabling users to easily set and adjust the parameters of the visual persistence effect, which includes adjusting image clarity, brightness, contrast, and selecting different visual persistence modes; the operation display preview is responsible for displaying the image that the user is about to switch to on the interactive interface, so that users can observe and preview it, which is convenient for users to make decisions; user management is responsible for ensuring that only authorized users can access the system and data, which is usually achieved through user names and passwords, fingerprint recognition, facial recognition, etc., giving users different permissions, including access to system functions, reading, modifying and deleting data, etc. Permission control ensures the security and convenience of user accounts; operation logs are responsible for recording the activities of users inside or outside the system, including login, logout, data query, modification, and deletion operations; software updates are responsible for establishing an easy-to-operate software update mechanism, including automatic update detection, one-click update operations, update log records, and version compatibility and rollback functions to ensure that the system can be upgraded to the latest version in a timely manner, which can not only improve the performance and stability of the system, but also introduce new functions and improve existing functions; the storage module is responsible for storing the collected image data, processed image data, and other related data on appropriate storage media, such as hard disks, solid-state drives, and memory cards. When users consult, the stored data is organized and managed, and detailed metadata tags are attached to each piece of data, including collection time, location, event type, etc. These tags provide a convenient way to search and identify data. Through tags, users can quickly filter out qualified data. In order to improve the retrieval speed, the storage module will automatically create indexes for the stored data. These indexes will be created based on key information such as file names, tags, and content descriptions to ensure that the required content can be quickly located in massive data.

[0023] A specific application of this embodiment is: the current state of the wheel is detected by the sensor, and different imaging modes are performed on the OLED screen. The controller distinguishes the state of the wheel. When the wheel rotates, the sensor outputs a high level; when the wheel stops, it outputs a low level, and the output signal of the sensor is connected to the control end of the controller. When the sensor outputs a high level, the switch is disconnected, and the OLED is powered by the capacitor block; when the sensor outputs a low level, the switch is closed, and the OLED is powered by the main power supply, thereby achieving switching between power supply and self-power supply. When the wheel is stationary, the OLED screen is directly imaged. When the wheel rotates, the imaging mode is achieved through the frame fusion processing module, the dynamic frame rate adjustment module and the light source frequency module to achieve the effect of visual persistence, so that it can also be displayed in the rotating wheel, and the image to be imaged is optimized to enhance the visual effect of the picture to be presented. When the user needs to change the imaging picture of the OLED screen, he only needs to use the APP to operate in the human-computer interaction interface to switch different pictures in real time, so that it is convenient for the user to understand the current wheel display state, so that the user can easily set and adjust the visual persistence effect parameters.

[0024] It is worth noting that in the above system embodiment, the various units included are only divided according to functional logic, but are not limited to the above division, as long as the corresponding functions can be achieved; in addition, the specific names of the functional units are only for the convenience of distinguishing each other, and are not used to limit the scope of protection of the present invention.

[0025] In addition, those skilled in the art can understand that all or part of the steps in the above-mentioned embodiments can be completed by instructing related hardware through a program, and the corresponding program can be stored in a computer-readable storage medium.

[0026] The preferred embodiments of the present invention disclosed above are only used to help illustrate the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to the specific implementation methods described. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. An imaging system and method based on the stationary and rotating state of a rotating object, comprising a state monitoring unit, an image forming unit and an application APP; characterized in that: The state monitoring unit includes a sensor, a controller, a power supply, a socket, a vibration energy collection module, a capacitor block, a frame fusion processing module, a dynamic frame rate adjustment module, a light source frequency module and a light source control module; the sensor is unidirectionally connected to the controller; the controller is unidirectionally connected to the capacitor block and the power supply respectively; the power supply is unidirectionally connected to the socket; the vibration energy collection module is unidirectionally connected to the capacitor block; the capacitor block is unidirectionally connected to the frame fusion processing module; the frame fusion processing module is unidirectionally connected to the dynamic frame rate adjustment module; The dynamic frame rate adjustment module is unidirectionally connected to the light source frequency module; the power supply and light source frequency module are unidirectionally connected to the light source control module respectively; the sensor is responsible for monitoring the current wheel status, real-time monitoring and identifying whether the wheel is rotating or in a stationary state; The controller is responsible for distinguishing the state of the wheel. When the wheel rotates, the sensor outputs a high level; when the wheel stops, it outputs a low level. The output signal of the sensor is connected to the control end of the controller. When the sensor outputs a high level, the switch is disconnected, and the OLED is powered by the capacitor block; when the sensor outputs a low level, the switch is closed, and the OLED is powered by the main power supply, thereby achieving switching between power supply and self-power supply. The socket is responsible for connecting to a power source and providing power output, thereby charging the power source; The power supply is responsible for providing a stable power supply, which ensures that the LED can get appropriate energy support in various working modes, thereby improving the power utilization efficiency; The vibration energy collection module is responsible for converting the vibration energy generated by the rotation of the wheel into electrical energy by utilizing the piezoelectric effect, so as to recycle it for subsequent use; The capacitor block is responsible for storing the electricity generated by the vibration energy collection module and using it when the wheel rotates, thereby achieving a recycling effect; The frame fusion processing module is responsible for fusing continuous image frames together using image processing technology to create a seamless visual persistence effect. It analyzes the difference between the previous and next frames and smoothly transitions the image changes through gradient, dissolution or other image fusion technologies. The dynamic frame rate adjustment module is responsible for adapting to the visual persistence effect at different rotation speeds. The system can dynamically adjust the frame rate of the OLED, monitor the wheel speed in real time through the sensor, and adjust the frame rate accordingly to ensure that a stable visual persistence effect can be produced at different rotation speeds; The light source frequency module is responsible for adjusting the lighting conditions as needed to enhance the persistence of vision phenomenon; this can be achieved by adjusting the frequency of the ambient light flashing to synchronize it with the rotation speed of the wheel; The light source control module is responsible for accurately adjusting the brightness of the light source. At night or in low light conditions, the brightness of the light source needs to be increased to obtain a clear image; while in a strong light environment, the brightness needs to be reduced to avoid overexposure.

2. The imaging system and method based on the stationary and rotating state of a rotating object according to claim 1, characterized in that: The image forming unit includes an imaging module, an image acquisition module, an image processing module, an image enhancement module, a data compression module, a color difference module, a color correction module, an image stabilization module, an image display module and a communication module; the light source control module is unidirectionally connected to the imaging module; the imaging module is unidirectionally connected to the image acquisition module; the image acquisition module is unidirectionally connected to the image processing module; the image processing module is unidirectionally connected to the image enhancement module, the data compression module, the color difference module and the color correction module; the image enhancement module, the data compression module, the color difference module and the color correction module are unidirectionally connected to the image stabilization module; the image stabilization module is unidirectionally connected to the image display module; the image display module is unidirectionally connected to the communication module; The application APP includes a human-computer interaction interface, an intuitive control display, an operation display preview, a user management, an operation log, a software update and a storage module; the communication module is connected to the human-computer interaction interface via Bluetooth; the human-computer interaction interface is unidirectionally connected to the intuitive control display, the operation display preview, the user management, the operation log, the software update and the storage module respectively; the human-computer interaction interface is unidirectionally connected to the imaging module.

3. The imaging system and method based on the stationary and rotating objects according to claim 2, characterized in that: The imaging module is responsible for receiving uploaded image or video information that needs to be displayed; The image collection module is responsible for collecting uploaded image or video information and performing logical processing; The image processing module is responsible for pre-processing the collected image or video information and parsing it into PNG format; The image enhancement is responsible for improving the image quality and making the image more suitable for further analysis and processing. Common image enhancement techniques include contrast enhancement, noise removal, sharpening, etc. Through these techniques, the visual effect of the image can be improved and the important details in the image can be highlighted; The data compression is responsible for compressing the uploaded image data. Since images usually contain a large amount of data, direct storage and transmission will cause great pressure on system resources. Data compression can reduce the required storage space and transmission bandwidth while ensuring image quality. Common compression algorithms include JPEG, PNG, etc., which use redundant information in the image for compression; The color difference is responsible for color interpolation in order to obtain the complete color information of each pixel during the image acquisition process; The color correction is responsible for adjusting the image so that it presents consistent colors on different devices. Gamma correction and white balance are two common color correction methods. Gamma correction is mainly used to correct the nonlinear response of the display device, while white balance is used to eliminate color deviation under different lighting conditions. Through these correction methods, the color performance of the image will be closer to the real world; The image stabilization module is responsible for using optical image stabilization technology in combination with image content analysis to achieve real-time correction of dynamic blur. For rotating objects, a prediction algorithm is used to predict the position of the next frame of the image and perform real-time compensation. The image display module is responsible for projecting the processed image so that it can be displayed on the OLED display screen; The communication module is responsible for connecting with the application APP via Bluetooth, thereby realizing data transmission and communication between the system and the network, ensuring the effective transmission of data and the interconnection of the system.

4. The imaging system and method based on the stationary and rotating objects according to claim 3, characterized in that: The human-computer interaction interface is responsible for providing the user with an interactive interface, allowing the user to interact with the system, set up and operate; the module is designed with an intuitive graphical user interface, and the user can operate through the touch screen or physical buttons, so that the user can understand the current wheel display status; The intuitive control display is responsible for enabling the user to easily set and adjust the persistence of vision effect parameters, including adjusting image clarity, brightness, contrast, and selecting different persistence of vision modes; The operation display preview is responsible for displaying the image that the user is about to switch to on the interactive interface, so that the user can observe and preview it, which is convenient for the user to make a decision; The user management is responsible for ensuring that only authorized users can access the system and data. This is usually achieved through usernames and passwords, fingerprint recognition, facial recognition, etc., giving users different permissions, including permission control for access to system functions, reading, modifying and deleting data, etc., thereby ensuring user account security and convenience; The operation log is responsible for recording the activities of internal or external users of the system, including login, logout, data query, modification, and deletion operations; The software update is responsible for establishing an easy-to-operate software update mechanism, including automatic update detection, one-click update operation, update log recording, and version compatibility and rollback functions, to ensure that the system can be upgraded to the latest version in a timely manner, which can not only improve the performance and stability of the system, but also introduce new functions and improve existing functions; The storage module is responsible for storing the collected image data, processed image data and other related data on appropriate storage media, such as hard disks, solid-state drives, and memory cards. When users consult, the stored data is organized and managed, and detailed metadata tags are attached to each piece of data, including the collection time, location, event type, etc. These tags provide a convenient way to search and identify data. Through tags, users can quickly filter out data that meets the conditions. In order to improve the retrieval speed, the storage module will automatically create indexes for the stored data. These indexes will be created based on key information such as file names, tags, content descriptions, etc., to ensure that the required content can be quickly located in massive data.

Images