An intelligent instant camera with a reward function and a method of using the same

Abstract

The present application relates to the technical field of instant camera, and discloses an intelligent ai instant camera with a reward function and a use method thereof, which comprises an upper shell, a screen gland, a main PCB, a camera, a microphone, a loudspeaker, a screen and a printing module. The present application controls the locking and unlocking states of the state machine through the main PCB, logically locks the printing module after the camera collects original image data and the cloud server returns bilingual label data, guides the user to input audio data stream through the microphone, compares the acoustic characteristics of the audio data stream by the main PCB, and unlocks and activates the printing module hot transfer output after the pronunciation scoring meets the preset condition. The main PCB extracts the pronunciation score and encapsulates it as task completion signaling to upload to the cloud server for structured storage and issue a reward notification to the mobile terminal. The internal hardware is physically buffered and shielded by a sponge to improve signal acquisition quality and establish control and feedback closed loop.

Description

Technical Field

[0001] This invention relates to the field of instant camera technology, specifically to an intelligent AI instant camera with reward function and its usage method. Background Technology

[0002] Existing instant cameras possess basic image acquisition and physical printing functions. However, in interactive learning applications, these devices lack the ability to semantically analyze image content and integrate with voice interaction. Users only receive a photograph after taking a picture, failing to establish a logical control loop with learning attributes between image acquisition and physical printing. Furthermore, existing devices lack pronunciation evaluation modules and state machine control mechanisms, making it impossible to logically bind voice reading tasks to the hardware unlocking action of the printing module. This results in limited device functionality and a lack of interactive incentive mechanisms.

[0003] In standalone operation, the existing equipment lacks an internal network communication link with the cloud server and mobile terminals. This prevents the uploading of learning trajectory data, recognition content, and pronunciation scores generated during operation to the cloud for structured storage. Furthermore, it cannot send notifications containing detailed data to external mobile terminals, hindering information retention and synchronization. Limited by its compact internal space, the image acquisition, display, and audio transceiver modules are prone to electromagnetic crosstalk and mechanical resonance noise during operation. Additionally, the internal hardware lacks buffering and shielding structures for the optical lenses. Environmental noise and light interference during operation reduce the signal-to-noise ratio of image and audio data streams, impacting the accuracy of subsequent model recognition and acoustic feature comparison.

[0004] Therefore, this invention proposes an intelligent AI instant camera with reward function and its usage method to overcome the shortcomings of the prior art. Summary of the Invention

[0005] The technical problem solved by this invention is that existing instant cameras lack semantic parsing capabilities and interactive feedback guidance mechanisms for the target image being captured. They are unable to build a logical closed loop with learning attributes between the image capture action and the printing action, resulting in the device being unable to form a data flow channel for cognitive and pronunciation practice.

[0006] To address the problems existing in the prior art, the present invention provides the following technical solution: The first aspect of the present invention provides an intelligent AI instant camera with reward function, including an upper shell, which provides physical protection and structural support for the optical acquisition components and consumable outlet at the front of the camera. A lower shell is installed on the rear side of the upper shell. The lower shell and the upper shell are fastened to the internal studs by edge buckles to form a system cavity, which is used to protect the internal core circuit and power supply module from external moisture intrusion and electromagnetic interference.

[0007] A camera cover is installed on the front right side of the upper shell. The camera cover is made of glass or optical acrylic material. The camera cover is used to protect the internal lens assembly from physical scratches and dust intrusion and to ensure the transmission of optical signals. A paper roll cover is installed on the front left side of the upper shell. The paper roll cover, together with the internal sealing strip, is used to seal the consumables compartment to prevent thermal consumables from getting damp and failing. A screen cover is installed in the middle of the upper shell. The screen cover serves as the internal mid-frame skeleton to physically isolate the electromagnetic crosstalk between the front acquisition component and the rear display component and to serve as the mounting base for each core module. A printing module is installed on the front side of the middle of the screen cover. The printing module integrates a thermal print head and a paper feed stepper motor. The printing module is used to perform image and bilingual label output tasks after receiving the main control unlock command.

[0008] The left side of the printing module is equipped with a printing roll paper, which serves as the consumable carrier for output. The printing roll paper is installed in the cavity inside the left end of the screen cover. The right front end of the screen cover is equipped with a battery. The battery is connected to the system through a power management circuit. The battery provides power for the whole machine's image acquisition, computing interaction, radio frequency communication, and thermal motor drive, and has overcharge and over-discharge protection logic.

[0009] The main PCB board is mounted on the front of the battery. The main PCB board integrates a microprocessor and a wireless communication module and has multiple data bus interfaces. As the central hub for the computing power control and data flow of the whole machine, the main PCB board is responsible for processing image recognition requests, voice interaction logic, and transition control of the printing state machine. The camera sponge is installed on the front of the middle of the main PCB board with adhesive backing. The camera sponge fills the physical gap between the main PCB board and the lens, which plays a role in physical buffering and blocking stray light, and improves the signal-to-noise ratio of image acquisition quality.

[0010] A camera is mounted on the front of the camera foam. The camera is connected to the image signal processing interface of the main PCB board via a ribbon cable. The camera responds to trigger commands to collect raw visual data of the target object, providing an image input source for subsequent semantic recognition. A camera mounting bracket is mounted on the front of the camera. The camera mounting bracket uses limiting holes and screw locking structure to ensure the optical imaging axis is centered and stable, and to prevent deflection displacement caused by hand shaking, which would lead to a decrease in recognition rate. A sub-board for the camera button is mounted on the top right end of the screen cover. The sub-board for the camera button is used to receive physical deformation and convert the physical deformation into a low-level trigger interrupt signal to be transmitted to the main PCB board. The camera button is mounted on the top of the sub-board for the camera button, which serves as the physical interaction entry point for initiating the closed-loop process of image acquisition and recognition.

[0011] The top, bottom, and right ends of the main PCB board are all fitted with soft rubber button sleeves. These sleeves cover the edges of each individual button, providing dustproof sealing and isolation. They also utilize elastic deformation characteristics to improve the mechanical damping feel of the pressing operation and prevent accidental touches. Button 1 is installed on the right side of the main PCB board. Button 1 is used to assist in system settings or logical confirmation of the interface. A scroll wheel is installed on the top of button 1. The rotation axis of the scroll wheel is linked with an encoder to provide continuous pulse encoding signals. The main PCB board calculates the number of pulse edges per unit time to realize digital zoom control of the device screen or scroll selection of the interface. The scroll wheel is installed on the rear right side of the main PCB board.

[0012] Button 2 is installed on the top rear side of the main PCB board. Button 2 is used to assist in triggering specific business processes. A sponge is installed in the middle of the rear side of the screen cover. The sponge is used to provide back support for the rear display module, shock absorption, buffer drop stress, and acoustic isolation between internal components. The screen is installed behind the sponge. The screen uses a color LCD display panel. The screen is used to render the video stream of the front preview in real time and visualize the recognition results, bilingual vocabulary, and progress status of the reading task sent from the cloud. The screen cover is installed behind the screen. The screen cover serves as the outermost physical protection of the interactive interface.

[0013] A card slot plate is installed in the middle of the left end of the screen cover. The card slot plate is electrically connected to the main PCB board through a flexible ribbon cable. The card slot plate is used to mount local storage media to cache unprocessed image and audio data and to provide cellular network identity recognition to establish a data communication link between the device and the cloud server and terminal program. A speaker is installed at the bottom of the card slot plate. The speaker integrates an audio power amplifier driver to convert electrical signals into sound waves. The speaker is used to issue interactive commands and play synthesized standard pronunciation. The speaker is fixedly connected to the screen cover and a sound amplification cavity is reserved.

[0014] A microphone is installed at the top rear of the screen cover. The microphone is responsible for capturing the audio stream of the user during the reading process and converting it into an analog electrical signal. This signal is then sent to the analog-to-digital converter module on the main PCB board for sampling, noise reduction, and voice feature comparison. The microphone is connected to the front top of the sponge to reduce mechanical resonance noise. A soft rubber cover is installed on the left side of the lower shell. The soft rubber cover is inserted into the shell opening through an embedded rib to physically seal the data and network interface area.

[0015] A second aspect of this invention provides a method for using an intelligent AI instant camera with a reward function, the specific steps of which are as follows: The user uses the scroll wheel to zoom in and out of the screen. The main PCB board adjusts the cropping and interpolation parameters of the image sensor according to the pulse signal of the scroll wheel to achieve digital zoom. When the user points at the target object and presses the shutter button, a hardware interrupt is generated. The main PCB board responds to the interrupt, drives the camera to acquire the raw image data, and temporarily stores the raw image data in the local memory. Subsequently, the main PCB board compresses and packages the raw image data, and reports the raw image data to the cloud server through the wireless network channel established by the card slot board for semantic segmentation and target recognition. The cloud server identifies the target and sends the associated bilingual tag data back to the local machine. The main PCB board parses the bilingual tag data and renders it on the screen layer.

[0016] After the bilingual label data is returned, the main PCB board triggers a state machine action, resetting the print authorization flag in the system memory to a locked state. This locks the power supply and data path access permissions of the print module from the logic layer, preventing the print module from outputting. The main PCB board extracts the pronunciation parameters from the returned bilingual label data and calls the speaker to issue a voice reading command, guiding the user to read the target words aloud. The sound waves generated by the user's voice are converted into an audio data stream by the microphone, and the audio data stream is cyclically written into the audio buffer by the main PCB board.

[0017] The main PCB board performs edge-side preprocessing for noise reduction and voice separation on the audio data stream acquired in the audio buffer. It uses a frequency domain bandpass filtering algorithm to remove background noise and extract the voice, then extracts the acoustic features of the voice track and compares these features with the standard acoustic model of the target vocabulary for pronunciation accuracy and time-domain waveform. If the matching degree scored by the algorithm is lower than the system's preset threshold or the number of successful attempts does not reach the set task limit, the main PCB board displays a retry animation on the screen and emits a retry prompt tone through the speaker. The state machine continues to maintain the locked state of printing permissions.

[0018] Once the main PCB board determines that the scores of consecutive voice feature comparisons meet the preset criteria, it triggers a state machine transition, setting the print authorization flag to the unlocked state to confirm task completion. The main PCB board then releases the logic lock on the print bus and performs bitmap rasterization processing based on the recognized image pixel grayscale and the superimposed bilingual tags. This generates heating drive pulses and stepper motor timing signals with corresponding duty cycles, which are sent to the print module. The print module is then activated and scans line by line, thermally transferring the image with the corresponding bilingual learning tags onto the print roll.

[0019] While the printing module is activated for output, the main PCB board extracts the physical address of the currently operating device, the recognized content, the pronunciation score, and the timestamp, encapsulates this information to generate a task completion signal, and uploads it to the cloud server via network protocol. Upon receiving the signal, the cloud server structures the behavioral data and writes it into the corresponding user profile and learning trajectory database. It then triggers a callback interface on the cloud server side to send a reward notification containing growth points and learning details to the bound mobile terminal. This completes the data loop from physical input, algorithm interaction, edge feedback to cloud-based incentives.

[0020] This invention provides an intelligent AI instant camera with a reward function and its usage method. It has the following beneficial effects: 1. This invention controls the locking and unlocking states of the state machine through the main PCB board. After the camera collects the original image data and the cloud server returns the bilingual label data, the printing module is locked from the logic layer. The user is guided to obtain the reading instruction through the speaker and input the audio data stream through the microphone for acoustic feature comparison. After the pronunciation score meets the preset standard, the lock is released and the printing module is activated for thermal transfer output, establishing a forced learning feedback closed loop from image acquisition to voice evaluation to physical reward.

[0021] 2. This invention establishes a wireless network channel through the card slot board to realize data communication between the device and the cloud server. While activating the output of the printing module, the main PCB board extracts the device's physical address, recognition content and pronunciation score, encapsulates them into a task completion signal and uploads it to the cloud server. The cloud server writes the behavioral data into the database in a structured manner and triggers a callback interface to send a reward notification to the bound mobile terminal, thereby realizing the cloud recording and synchronization of learning trajectory data with the terminal.

[0022] 3. This invention physically isolates the electromagnetic crosstalk between the front acquisition component and the rear display component by pressing the screen cover, and installs a camera sponge between the main PCB board and the camera for physical buffering and stray light shielding. At the same time, a sponge is installed on the back side of the screen to provide back support and shock absorption and acoustic isolation between components, thereby reducing mechanical resonance noise of the hardware structure and improving the acquisition quality of raw visual data and audio stream. Attached Figure Description

[0023] Figure 1 This is a perspective view of the present invention; Figure 2 This is a side view of the present invention; Figure 3 This is a diagram illustrating the internal structure of the present invention; Figure 4 This is a diagram showing the lower shell of the present invention; Figure 5 This is a diagram illustrating the camera used in this invention. Figure 6 This is a diagram illustrating the speaker of the present invention.

[0024] The components are as follows: 1. Top shell; 2. Bottom shell; 3. Camera cover; 4. Paper roll cover; 5. Photo button; 6. Button 1; 7. Button 2; 8. Scroll wheel; 9. Printing paper roll; 10. Soft rubber cover; 11. Printing module; 12. Camera mounting bracket; 13. Screen cover; 14. Main PCB board; 15. Camera; 16. Soft rubber button sleeve; 17. Photo button sub-board; 18. Camera foam; 19. Battery; 20. Foam; 21. Screen; 22. Screen cover; 23. Microphone; 24. Speaker; 25. TF / SIM card slot board. Detailed Implementation

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

[0026] Please see Figure 1-6 This invention provides an intelligent AI instant camera with reward function and its usage method, including an upper shell 1. The upper shell 1 is used to provide physical protection and structural support for the optical acquisition components and consumable outlet at the front of the camera. The upper shell 1 is made of a polymer injection molding material with a certain impact resistance. A lower shell 2 is installed on the rear side of the upper shell 1. The lower shell 2 and the upper shell 1 are fastened to the internal studs through edge buckles to form a closed system cavity with structural rigidity, so as to protect the internal core circuit and power supply module from external moisture intrusion and electromagnetic interference.

[0027] A camera cover 3 is installed on the front right side of the upper shell 1. The camera cover 3 is made of high light transmittance glass or optical acrylic material to protect the internal lens assembly from physical scratches and dust intrusion, while ensuring the lossless transmission of high-frequency optical signals. A roll paper cover 4 is installed on the front left side of the upper shell 1. The roll paper cover 4, together with the internal sealing strip, is used to seal the consumables compartment to achieve internal moisture and dust prevention and prevent thermal consumables from becoming damp and failing. A screen cover 13 is installed in the middle of the upper shell 1. The screen cover 13 serves as the internal mid-frame skeleton to physically isolate the electromagnetic crosstalk between the front acquisition component and the rear display component, and serves as a rigid mounting base for each core module. A printing module 11 is installed on the front side of the middle of the screen cover 13. The printing module 11 integrates a thermal print head and a paper feed stepper motor, which is used to perform the physical thermal output task of images and bilingual labels after receiving the main control unlock command.

[0028] Printing roll paper 9 is installed on the left side of the printing module 11. Printing roll paper 9 serves as a consumable carrier for physical output. Printing roll paper 9 is installed in a specific cavity inside the left end of the screen cover 13. Printing roll paper 9 can be replaced by removing the roll paper cover 4. Battery 19 is installed on the front right side of the screen cover 13. Battery 19 is connected to the system through a power management circuit. It is used to provide independent power for the whole machine's image acquisition, AI computing power interaction, radio frequency communication and thermal motor drive, and has overcharge and over-discharge protection logic.

[0029] The main PCB board 14 is mounted on the front side of the battery 19. The main PCB board 14 integrates a microprocessor and a wireless communication module, and includes multiple high-speed and low-speed data bus interfaces. As the computing power control and data flow hub of the whole machine, it is responsible for processing image recognition requests, voice interaction logic, and transition control of the printing state machine. The camera sponge 18 is mounted on the front side of the middle of the main PCB board 14 with adhesive backing. The camera sponge 18 fills the physical gap between the PCB board and the lens, playing the role of physical buffering and stray light shielding, and improving the signal-to-noise ratio of image acquisition quality.

[0030] A camera 15 is mounted on the front of the camera sponge 18. The camera 15 is connected to the image signal processing interface of the main PCB board 14 via an FPC cable. It responds to trigger commands to collect the original visual data of the target object, providing a high frame rate image input source for subsequent cloud-based AI semantic recognition. A camera mounting bracket 12 is mounted on the front of the camera 15. The camera mounting bracket 12 ensures the centering and stability of the optical imaging axis through a limiting hole and screw locking structure, preventing excessive deflection displacement caused by hand shaking, which would lead to a decrease in AI recognition rate. A camera button sub-board 17 is mounted on the top right end of the screen cover 13. The camera button sub-board 17 is used to receive physical deformation and convert it into a low-level triggered interrupt signal to be transmitted to the main controller. A camera button 5 is mounted on the top of the camera button sub-board 17. The camera button 5 serves as the primary physical interaction entry point for the user to initiate the closed-loop process of image acquisition and AI recognition.

[0031] The top, bottom, and right ends of the main PCB board 14 are all fitted with soft rubber button sleeves 16. The soft rubber button sleeves 16 wrap around the edges of each individual button, providing dustproof sealing and isolation, and using elastic deformation characteristics to improve the mechanical damping feel of the pressing operation and prevent accidental touch. The right side of the main PCB board 14 is fitted with button 6, which is used to assist in system settings or UI interface logic confirmation. The top of button 6 is fitted with a scroll wheel 8. The rotation axis of the scroll wheel 8 is linked with an optical or mechanical encoder to provide continuous pulse encoding signals. The main controller calculates the number of pulse edges per unit time to achieve smooth digital zoom control of the device screen or fast scrolling selection of the interface. The scroll wheel 8 is installed on the rear right side of the main PCB board 14.

[0032] A second button 7 is installed on the top rear side of the main PCB board 14. The second button 7 is used to assist in triggering specific business processes such as history retrieval. A sponge 20 is installed in the middle of the rear side of the screen cover 13. The sponge 20 is used to provide back support and shock absorption for the rear display module, buffer drop stress, and provide acoustic isolation between internal components. A screen 21 is installed on the rear side of the sponge 20. The screen 21 uses a color LCD display panel to render the video stream of the front preview screen in real time and visualize the AI ​​recognition results, bilingual vocabulary, and progress status of the reading task sent from the cloud. A screen cover 22 is installed on the rear side of the screen 21. The screen cover 22 serves as the outermost physical protection of the interactive interface and can be treated with an anti-fingerprint coating.

[0033] A TF / SIM card slot board 25 is installed in the middle of the left end of the screen cover 13. The TF / SIM card slot board 25 is electrically connected to the main PCB board 14 through a flexible ribbon cable. It is used to mount local storage media to cache unprocessed image and audio data, and to provide 4G / 5G cellular network identity recognition. It also establishes a data flywheel communication link between the terminal device and the cloud-based smart body and the parent-side mini-program. A speaker 24 is installed at the bottom of the TF / SIM card slot board 25. The speaker 24 integrates an audio power amplifier driver to convert electrical signals into sound waves for issuing interactive commands and playing AI-synthesized standard pronunciation. The speaker 24 is fixedly connected to the screen cover 13 and has a reserved sound amplification cavity.

[0034] A microphone 23 is installed on the top rear side of the screen cover 13. The microphone 23 is a high-sensitivity omnidirectional micro microphone, which is responsible for capturing the audio stream of the user during the reading process and converting it into an analog electrical signal for sampling, noise reduction and voice feature comparison by the main control ADC module. The microphone 23 is connected to the front top of the sponge 20 to reduce mechanical resonance noise. A soft rubber cover 10 is installed on the left side of the lower shell 2. The soft rubber cover 10 is inserted into the shell opening through the embedded rib to physically seal the data and network interface area. Opening the soft rubber cover 10 allows for quick replacement of the card in the TF / SIM card slot 25.

[0035] Based on the aforementioned hardware and logic architecture, the main PCB board 14 of this invention reconstructs the traditional instant-on-demand mode into an excitation state machine that proceeds from recognition to reading, then to unlocking, and finally to printing. This invention also provides a method for using an intelligent AI instant camera with a reward function, the specific steps of which are as follows: S10: The user operates the scroll wheel 8 to zoom the screen. The main PCB board 14 dynamically adjusts the cropping and interpolation parameters of the image sensor according to the pulse signal of the scroll wheel 8 to achieve digital zoom. The user presses the shutter button 5 to shoot the target object, generating a hardware interrupt. The main PCB board 14 responds to the interrupt and drives the camera 15 to acquire high-resolution raw image data and temporarily stores the data in the local memory. Then, the main PCB board 14 compresses and packages the image and reports it to the cloud server for AI semantic segmentation and target recognition through the wireless network channel established by the TF / SIM card slot board 25. For example, the server identifies the target as a dinosaur toy through a deep learning model, classifies it as a Tyrannosaurus Rex, and sends the associated bilingual tag data (such as Chinese and English text and layout coordinates) back to the local machine. The main PCB board 14 parses the data and renders it on the UI layer of the screen 21.

[0036] S20: After the recognition result is returned, the main PCB board 14 triggers a state machine action, resetting the print authorization flag in the system memory to a locked state, thereby locking the power supply and data path working permissions of the printing module 11 from the logic layer and preventing physical output. At the same time, the main PCB board 14 extracts the pronunciation parameters from the returned data, calls the speaker 24 to issue a voice reading instruction, and guides the user to read the target words, such as reading them three times in succession. The sound waves generated by the user's voice are converted into audio data streams in real time by the microphone 23 and are cyclically written into the audio buffer by the main PCB board 14.

[0037] S30: The main PCB board 14 performs end-side preprocessing noise reduction and voice separation on the audio data stream acquired in the audio buffer. It uses a frequency domain bandpass filtering algorithm to remove background noise and extract pure human voice. Then, it extracts acoustic features such as the Mel frequency cepstral coefficients of the human voice track and compares the pronunciation accuracy and time-domain waveform with the standard acoustic model of the target vocabulary. If the matching degree of the algorithm score is lower than the system's preset threshold or the number of valid successful attempts does not reach the set task limit, the main PCB board 14 displays a retry animation on the screen 21 and emits an encouraging retry prompt tone through the speaker 24. The state machine continues to maintain the locked state of the printing permission.

[0038] S40: When the main PCB board 14 determines that the scores of the continuous voice feature comparison results all meet the preset qualification conditions, it triggers a state machine transition, sets the printing authorization flag to the unlocked state, and confirms the task completion. The main PCB board 14 releases the logic lock on the printing bus, and performs bitmap rasterization processing based on the grayscale of the recognized image pixels and the superimposed bilingual tags, generating heating drive pulses and stepper motor timing signals with corresponding duty cycles and sending them to the printing module 11. The printing module 11 is activated and scans line by line to thermally transfer the image with the corresponding bilingual learning tags onto the printing roll paper 9, realizing the physical reward mechanism.

[0039] S50: While activating the printing module 11 for physical output, the main PCB board 14 simultaneously extracts the MAC address of the currently operating device, the recognized content, the pronunciation score, and the timestamp, encapsulates and generates a task completion signal, and uploads it to the cloud server via TCP / IP protocol. After receiving the signal, the server structures the behavior data and writes it into the corresponding user profile and learning trajectory database, and triggers the server-side Webhook callback interface to send a reward notification containing growth points and learning details to the bound parent's mobile terminal, such as a WeChat mini-program. This completes the data flywheel closed loop from physical input, algorithm interaction, edge feedback to cloud-based digital incentives.

Claims

1. A smart AI instant camera with a reward function, characterized in that, include: An upper shell (1) and a lower shell (2), wherein the lower shell (2) is mounted on the rear side of the upper shell (1); A screen cover (13) is installed in the middle of the upper shell (1); A printing module (11) is installed on the front side of the middle part of the screen cover (13); The main PCB board (14) is installed inside the upper shell (1); A camera (15) is mounted on the front side of the middle part of the main PCB board (14); Screen (21), the screen (21) is mounted on the rear side of the screen cover (13); A speaker (24) is attached to the screen cover (13); Microphone (23), which is installed on the top rear side of the screen cover (13).

2. The intelligent AI instant camera with reward function according to claim 1, characterized in that, include: Camera cover (3), the camera cover (3) is installed on the front right end of the upper shell (1); A camera mounting bracket (12) is installed on the front side of the camera (15); Camera sponge (18) is installed between the main PCB board (14) and the camera (15).

3. A smart AI instant camera with reward function according to claim 2, characterized in that, include: A camera button sub-board (17) is installed on the top right end of the screen cover (13); A camera button (5) is installed on the top of the camera button sub-plate (17).

4. A smart AI instant camera with reward function according to claim 3, characterized in that, include: Button 1 (6) is installed on the right side of the main PCB board (14); A roller (8) is mounted on top of the button (6) and on the right rear side of the main PCB board (14); Button 2 (7) is installed on the top rear side of the main PCB board (14).

5. A smart AI instant camera with reward function according to claim 4, characterized in that, include: Soft rubber button sleeve (16) is installed on the top, bottom and right ends of the main PCB board (14).

6. A smart AI instant camera with reward function according to claim 5, characterized in that, include: Sponge (20), said sponge (20) is installed in the middle of the rear side of said screen cover (13), and said screen (21) is installed on the rear side of said sponge (20); A screen cover (22) is mounted on the rear side of the screen (21).

7. A smart AI instant camera with reward function according to claim 6, characterized in that, include: A toilet paper roll cover (4) is installed on the front left side of the upper shell (1); Printing roll (9) is installed inside the left end of the screen cover (13) and on the left side of the printing module (11).

8. A smart AI instant camera with reward function according to claim 7, characterized in that, include: Battery (19) is mounted on the front right side of the screen cover (13) and on the rear side of the main PCB board (14).

9. A smart AI instant camera with reward function according to claim 8, characterized in that, include: TF / SIM card slot plate (25), the TF / SIM card slot plate (25) is installed in the middle of the left end of the screen cover (13), and the speaker (24) is installed at the bottom of the TF / SIM card slot plate (25); A soft rubber cover (10) is installed on the left end of the lower shell (2).

10. A method of using an intelligent AI instant camera with a reward function, characterized in that, Based on a smart AI instant camera with reward function as described in any one of claims 1-9, the implementation includes the following steps: Based on the user's operation of the scroll wheel (8) and pressing the shutter button (5), the main PCB board (14) drives the camera (15) to acquire the original image data. The main PCB board (14) reports the original image data to the cloud server through the TF / SIM card slot board (25) to generate bilingual tag data through AI semantic segmentation and target recognition, and then transmits the bilingual tag data back to the screen (21) for rendering. Based on the bilingual tag data rendered on the screen (21), the main PCB board (14) locks the working permission of the printing module (11), the main PCB board (14) calls the speaker (24) to issue a voice reading instruction, and the microphone (23) converts the sound wave into an audio data stream in real time; Based on the main PCB board (14), the audio data stream is preprocessed on the end side for noise reduction and human voice separation. The main PCB board (14) performs speech feature extraction and pronunciation accuracy comparison to generate matching results. After the matching result meets the preset standard, the main PCB board (14) unlocks the printing module (11), and the main PCB board (14) sends a drive pulse to the printing module (11). The printing module (11) is activated and outputs the image with the bilingual label data onto the printing roll paper (9). Based on the main PCB board (14), the drive pulse is sent, the main PCB board (14) generates a task completion signal and uploads it to the cloud server, and the cloud server sends a growth reward notification to the bound parent mobile terminal.

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