OLED display screen with vibration feedback function

Abstract

The utility model relates to the technical field of display devices, in particular to an OLED (Organic Light Emitting Diode) display screen with a vibration feedback function, which comprises a vibrator structure, a stator structure and a vibration feedback module connected between the vibrator structure and the stator structure, the vibrator structure comprises a display screen backboard and an OLED display module installed on one side of the display screen backboard, and the stator structure is fixed to a vehicle body. The vibration feedback module is installed on the display screen backboard, a first buffer structure is laid on at least one side face of the display screen backboard, and a second buffer structure is arranged between the vibrator structure and the stator structure. According to the utility model, not only can the stator structure be buffered, but also the vibrator structure can be damped and buffered, so that the stable connection between the vibrator structure and the stator structure can be facilitated, and a stable, mild and comfortable touch feeling can be obtained.

Description

Technical Field

[0001] The utility model relates to the technical field of display devices, and more specifically, to an OLED display screen with a vibration feedback function. Background Art

[0002] Large screens are the development trend of in-vehicle displays. More and more in-vehicle display screens are larger than 10 inches. However, as the screen size increases, its weight and volume will also increase, which is not conducive to lightweighting of the car. Traditional LCD screens are relatively thick, with more layers, including backlight modules, which make LCD screens thicker and heavier. Compared with LCD screens, OLED screens are thin and light, self-luminous, do not require backlight, have better contrast and color gamut, lower power consumption, and shorter response time. OLED screens are increasingly widely used.

[0003] OLED display screens with vibration feedback function are generally divided into a vibrator part and a stator part. The stator part is always fixed on the vehicle body and does not vibrate with the vibration of the vibration part. For example, Chinese patent CN220933469U discloses a touch display screen with vibration feedback function. By using a spring sheet arranged between the display touch module and the fixed component, when the vibration actuator generates vibration feedback, it can only drive the display touch module to vibrate, and the fixed component cannot vibrate accordingly, thereby protecting the safety of the PCBA board located on the rear shell and improving the overall vibration safety of the device. However, in the above scheme, the elastic sheet is used to connect the vibrator part and the stator part. Although it can improve the overall safety of the device, the role of the elastic sheet is to achieve shock absorption of the stator part structure, and the vibrator part is not provided with a corresponding structure to achieve shock absorption and buffering during vibration. In this way, on the one hand, long-term vibration will affect the connection stability of the vibrator part relative to the stator part, and on the other hand, a smooth and gentle touch cannot be obtained, which affects the user's experience. Utility Model Content

[0004] The purpose of the utility model is to overcome the deficiencies in the prior art and to provide an OLED display screen with a vibration feedback function, which not only has a buffering effect on the stator structure, but also has a shock-absorbing and buffering effect on the vibrator structure, which can help to stabilize the connection between the vibrator structure and the stator structure, and can also obtain a smooth, gentle and comfortable touch.

[0005] In order to solve the above technical problems, the technical solution adopted by the utility model is:

[0006] Provided is an OLED display screen with a vibration feedback function, comprising a vibrator structure, a stator structure and a vibration feedback module connected between the vibrator structure and the stator structure, wherein the stator structure is mounted on a vehicle body; the vibrator structure comprises a display screen back plate and an OLED display module mounted on one side of the display screen back plate, and the stator structure is fixed to the vehicle body; the vibration feedback module is mounted on the display screen back plate, and a first buffer structure is flatly provided on at least one side of the display screen back plate, and a second buffer structure is provided between the vibrator structure and the stator structure.

[0007] The utility model has an OLED display screen with a vibration feedback function, and the vibration feedback module is connected between the stator structure and the vibrator structure. Under the action of the vibration feedback module, the OLED display screen has a vibration feedback function. The first buffer structure is used to buffer the force of the OLED display module during vibration, and the second buffer structure realizes shock absorption of the stator structure. The utility model not only has a buffering effect on the stator structure, but also has a shock absorption and buffering effect on the vibrator structure, which can help stabilize the connection between the vibrator structure and the stator structure, and can also obtain a smooth, relaxed and comfortable touch.

[0008] Furthermore, the first buffer structure is a buffer foam, which includes a plurality of buffer units, and the plurality of buffer units are evenly distributed on the side of the display back plate. The buffer foam is arranged in a grid on one or both sides of the display back plate, and is used to buffer the force of the OLED display module during vibration, so that the local vibration touch will not be converted into a large amplitude vibration of the entire OLED display module, thereby facilitating the connection between the vibrator structure and the stator structure to obtain a smooth, gentle and comfortable touch.

[0009] Furthermore, the second buffer structure includes an elastic sheet, and the two free ends of the elastic sheet are respectively connected between the display back plate and the stator structure. The elastic sheet has a shock absorbing effect, and realizes shock absorption of the stator structure by absorbing the vibration force generated by the vibration feedback module of the stator structure connected to the vehicle body.

[0010] Furthermore, the second buffer structure also includes a plurality of shock-absorbing silicone pads, which are evenly arranged on the other side of the display screen back plate, one end of the shock-absorbing silicone pad is fixed to the display screen back plate, and the other end is abutted against the stator structure. The shock-absorbing silicone pad is used to reduce the vibration of the stator structure during vibration. The stator structure is installed on the vehicle body and does not need to vibrate. The elastic sheet and the shock-absorbing silicone pad work together to avoid the stator structure from vibrating when the vibrator structure vibrates, so as to improve the stability of the stator structure installation.

[0011] Furthermore, it also includes a PCBA control card arranged on the other side of the back plate of the display screen, and the vibration feedback module includes a pressure sensor and a vibration actuator, the pressure sensor is arranged in contact with the OLED display module, and the pressure sensor and the vibration actuator are both electrically connected to the PCBA control card. The pressure sensor is used to sense the pressure data of the touch screen, and transmits it to the PCBA control card and the vibration actuator through the communication data line. The PCBA control card issues corresponding control instructions to the vibration actuator according to the pressure data size, driving the vibration structure of the display screen to vibrate.

[0012] Furthermore, the stator structure includes a rear cover and a shielding cover, the shielding cover is installed on the other side of the display back plate and covers the outer periphery of the PCBA control card, the rear cover is provided with an opening for installing the PCBA control card, and the rear cover is fixedly connected to the display back plate. The PCBA control card, the shielding cover and the display back plate are physically connected by screws, and the rear cover is provided with an opening for installing the shielding cover and the PCBA control card. The rear cover and the shielding cover are used to protect the OLED display module, the PCBA control card and the vibration feedback module inside the display, and play the role of waterproof and dustproof, electromagnetic shielding and heat dissipation.

[0013] Furthermore, the OLED display module includes an OLED display panel, an FPC flexible circuit board, and a TFT drive circuit array for controlling the display screen of the OLED panel. The TFT drive circuit array is pasted on the back of the OLED panel, and the FPC flexible circuit board is electrically connected to the PCBA control card and the TFT drive circuit array. The TFT drive circuit array includes a drive chip and a row / column drive circuit for controlling the display screen of the OLED display panel. The FPC flexible circuit board is used for the OLED display module to be electrically connected to the PCBA control card for controlling and processing data of the OLED display module.

[0014] Furthermore, the touch signal obtained by the OLED display module is transmitted to the deserializer chip through the TP_I2C and TP_INT communication protocols, and then transmitted to the serializer chip and the SOC chip. The SOC chip is connected to the display touch control MCU chip for communication through multiple SPI and GPIO interfaces; the display touch control MCU chip is connected to the touch chip for detecting the XY coordinate information generated by touch through the TP_I2C, TP_RST and TP_INT communication protocols, connected to the deserializer chip through the TP_I2C and MAIN_I2C communication protocols, and connected to the OLED display screen module with vibration feedback function through the TP_I2C communication protocol, TCON timing control circuit and TFT_NTC temperature compensation circuit. In addition to communicating between the SOC chip and the OLED display module, the touch data and the video and image data for display are also communicated through the display touch control MCU chip. The internal communication method and data processing, calculation and acquisition methods are simple and orderly, with good stability and easy adjustment.

[0015] Furthermore, the display touch control MCU chip is also connected to the sampling MCU chip through the MCU_INT and MCU_RST communication protocols, and the sampling MCU chip is communicatively connected to the vibration feedback module. The sampling MCU chip is communicatively connected to the vibration feedback module for controlling the vibration feedback function of the display screen.

[0016] Furthermore, the SOC chip is connected to the serializer chip through the eDP interface and the MAIN_I2C communication protocol. The serializer chip converts parallel data into serial data. The serial data is transmitted to the deserializer chip through the LVDS or GMSL high-speed data transmission protocol via the Fakra connector. The deserializer chip converts the received serial data into parallel data, and then transmits it to the OLED display module with vibration feedback function through the eDP interface and the MAIN_I2C communication protocol. The serializer chip converts parallel data into serial data for high-speed transmission.

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

[0018] The OLED display screen with vibration feedback function of the utility model not only has a buffering effect on the stator structure, but also has a shock absorbing and buffering effect on the vibrator structure, which can help stabilize the connection between the vibrator structure and the stator structure, and can also obtain a smooth, gentle and comfortable touch.

[0019] The utility model provides an OLED display screen with a vibration feedback function, and is provided with a plurality of chips including a SOC chip, a display touch control MCU chip, a sampling MCU chip, a deserializer chip, and a serializer chip, so as to realize the control, management and adjustment of real signals, touch signals and vibration signals. The internal communication mode and the data processing, calculation and collection mode are simple and orderly, with good stability and easy adjustment. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 An exploded view of an OLED display with vibration feedback function;

[0021] Figure 2 It is a structural schematic diagram of one side of the back panel of the display screen;

[0022] Figure 3 It is a schematic diagram of the structure of the other side of the back panel of the display screen;

[0023] Figure 4 This is a control principle block diagram of an OLED display with vibration feedback function;

[0024] In the attached figure: 1. touch cover; 2. OCA optical glue; 3. OLED display module; 31. OLED display panel; 32. TFT drive circuit array; 33. FPC flexible circuit board; 4. structural glue; 5. display back panel; 6. vibration feedback module; 61. pressure sensor; 62. communication data line; 63. vibration actuator; 64. elastic sheet; 65. first buffer structure; 66. shock-absorbing silicone pad; 7. back cover; 8. PCBA control card; 81. HSD socket; 82. main socket; 9. shielding cover. DETAILED DESCRIPTION

[0025] The utility model is further described below in conjunction with specific implementation methods. The drawings are only used for exemplary descriptions, and are only schematic diagrams, not actual pictures, and cannot be understood as limitations on this patent; in order to better illustrate the embodiments of the utility model, some parts of the drawings may be omitted, enlarged or reduced, and do not represent the size of the actual product; for those skilled in the art, it is understandable that some well-known structures and their descriptions in the drawings may be omitted.

[0026] The same or similar numbers in the drawings of the embodiments of the present invention correspond to the same or similar parts; in the description of the present invention, it should be understood that if the terms "upper", "lower", "left", "right" and the like indicate directions or positional relationships based on the directions or positional relationships shown in the drawings, it is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific direction, be constructed and operated in a specific direction. Therefore, the terms describing the positional relationship in the drawings are only used for illustrative purposes and cannot be understood as limitations on this patent. For ordinary technicians in this field, the specific meanings of the above terms can be understood according to specific circumstances.

[0027] Embodiment 1

[0028] Provided is an OLED display screen with a vibration feedback function, comprising a vibrator structure, a stator structure, and a vibration feedback module 6 connected between the vibrator structure and the stator structure, wherein the stator structure is mounted on a vehicle body; the vibrator structure comprises a display screen back plate 5 and an OLED display module 3 mounted on one side of the display screen back plate 5, wherein the stator structure is fixed to the vehicle body; the vibration feedback module 6 is mounted on the display screen back plate 5, and a first buffer structure 65 is flatly provided on at least one side of the display screen back plate 5, and a second buffer structure is provided between the vibrator structure and the stator structure, such as Figures 1 to 3 shown.

[0029] When the utility model is implemented, the vibration feedback module 6 is connected between the stator structure and the vibrator structure. Under the action of the vibration feedback module 6, the OLED display screen has a vibration feedback function. The first buffer structure 65 is used to buffer the force of the OLED display module 3 during vibration, and the second buffer structure realizes shock absorption of the stator structure; the first buffer structure 65 and the second buffer structure are combined to not only have a buffering effect on the stator structure, but also have a shock absorption and buffering effect on the vibrator structure, which can help stabilize the connection between the vibrator structure and the stator structure, and can also obtain a smooth, relaxed and comfortable touch.

[0030] Among them, the first buffer structure 65 is a buffer foam, and the buffer foam includes a plurality of buffer units, and the plurality of buffer units are evenly distributed on the side of the display screen back plate 5. The buffer foam is arranged in a grid on one side or both sides of the display screen back plate 5, and is used to buffer the force of the OLED display module 3 during vibration, so that the local vibration touch will not be converted into a large-scale vibration of the entire OLED display module 3, thereby facilitating the connection between the vibrator structure and the stator structure to be stable, and obtaining a smooth, gentle and comfortable touch. In this embodiment, the buffer foam is distributed on two opposite sides of the display screen back plate 5, and is arranged in a grid shape, which can effectively reduce the vibration of the vibrator structure. Specifically, four groups of buffer units are arranged on two opposite sides of the display screen back plate 5, and two of the four groups of buffer units are grouped together, and are respectively arranged on two opposite sides of the display screen back plate 5, so that the buffer units are evenly distributed.

[0031] In addition, the second buffer structure includes an elastic sheet 64, and the two free ends of the elastic sheet 64 are respectively connected between the display screen back plate 5 and the stator structure. The elastic sheet 64 has a shock-absorbing effect, and realizes the shock absorption of the stator structure by absorbing the vibration force generated by the vibration feedback module of the stator structure connected to the vehicle body; in this embodiment, the elastic sheet 64 is also set to four groups, which are respectively located at the four corners of the display screen back plate 5. The second buffer structure also includes a plurality of shock-absorbing silicone pads 66, which are evenly arranged on the other side of the display screen back plate 5, and one end of the shock-absorbing silicone pad 66 is fixed to the display screen back plate 5, and the other end is abutted against the stator structure. The shock-absorbing silicone pad 66 is used to reduce the vibration of the stator structure during vibration. The stator structure is installed on the vehicle body and does not need to vibrate. The elastic sheet 64 and the shock-absorbing silicone pad 66 work together to avoid the stator structure from vibrating when the vibrator structure vibrates, so as to improve the stability of the stator structure installation. In this embodiment, the shock-absorbing silicone pads 66 are distributed on opposite sides of the display back plate 5, and there are two groups of shock-absorbing silicone pads 66, which are respectively installed between two adjacent groups of elastic sheets 64. In the horizontal direction, the distance between the two groups of buffer foams is smaller than the distance between the two groups of elastic sheets 64, and the distance between the two groups of elastic sheets 64 is equal or approximately equal to the distance between the two groups of shock-absorbing silicone. Such an arrangement has a compact structure and can give full play to the buffering and shock-absorbing effects of the first buffer structure 65 and the second buffer structure.

[0032] In this embodiment, a PCBA control card 8 is also included on the other side of the display screen back plate 5. The vibration feedback module 6 includes a pressure sensor 61 and a vibration actuator 63. The pressure sensor 61 is arranged in contact with the OLED display module 3. The pressure sensor 61 and the vibration actuator 63 are both electrically connected to the PCBA control card 8 through a communication data line 62. The pressure sensor 61 is used to sense the pressure data of the touch-pressing screen, which is transmitted to the PCBA control card 8 and the vibration actuator 63 through the communication data line 62. The PCBA control card 8 issues corresponding control instructions to the vibration actuator 63 according to the pressure data, driving the display screen vibrator structure to vibrate. Among them, the vibration actuator 63 can be one of a motor, an eccentric motor, and a piezoelectric ceramic.

[0033] In addition, in this embodiment, the stator structure includes a rear cover 7 and a shielding cover 9, the shielding cover 9 is installed on the other side of the display screen back plate 5 and covers the outer periphery of the PCBA control card 8, the rear cover 7 is provided with an opening for installing the PCBA control card 8, and the rear cover 7 is fixedly connected to the display screen back plate 5. The PCBA control card 8, the shielding cover 9 and the display screen back plate 5 are physically connected by screws, and the rear cover 7 is provided with an opening for installing the shielding cover 9 and the PCBA control card 8. The rear cover 7 and the shielding cover 9 are used to protect the OLED display module 3, the PCBA control card 8 and the vibration feedback module 6 inside the display screen, and play the role of waterproof and dustproof, electromagnetic shielding and heat dissipation. The vibrator structure includes a touch cover plate 1, an OCA optical glue 2, an OLED display module 3, a structural glue 4, and a display screen back plate 5. The OLED display module 3 is glued to the display screen back plate 5 by the structural glue 4, and the touch cover plate 1 is glued to the display screen back plate 5 by the OCA optical glue 2. The touch cover plate 1 is composed of a glass cover plate and a touch module formed by a touch sensor and a circuit thereon. The OLED display module 3 includes an OLED display panel 31, an FPC flexible circuit board 33, and a TFT drive circuit array 32 for controlling the display screen of the OLED panel. The TFT drive circuit array 32 is mounted on the back of the OLED panel, and the FPC flexible circuit board 33 is electrically connected to the PCBA control card 8 and the TFT drive circuit array 32. The TFT drive circuit array 32 includes a drive chip and a row / column drive circuit for controlling the display screen of the OLED display panel 31. The FPC flexible circuit board 33 is used for the OLED display module 3 to be electrically connected to the PCBA control card 8 for controlling and processing data of the OLED display module 3.

[0034] Embodiment 2

[0035] This embodiment is the second embodiment of the OLED display screen with vibration feedback function of the utility model. This embodiment is similar to the first embodiment, except that, in this embodiment, there are four groups of pressure sensors 61, which are respectively located beside the elastic sheet 64, and the pressure sensors 61 are distributed between two adjacent groups of elastic sheets 64; there are two groups of vibration actuators, which are respectively located beside the two groups of shock-absorbing silicone pads 66 and between the two groups of shock-absorbing silicone pads 66. The relative position arrangement of each component fully exerts the buffering effect and shock-absorbing effect of the first buffer structure 65 and the second buffer structure, such as Figure 2 , Figure 3 As shown. The display screen back plate 5 is provided with a plurality of installation ports for installing a pressure sensor 61, a communication data line 62, a vibration actuator 63, an elastic sheet 64, a buffer foam, and a shock-absorbing silicone pad 66, so that a group of pressure sensors 61, communication data lines 62, vibration actuators 63, elastic sheets 64, buffer foam, and shock-absorbing silicone pads 66 are simultaneously distributed on two opposite sides of the display screen back plate 5. In addition, in this embodiment, an exposed HSD socket 81 and a main socket 82 are provided on the PCBA control card 8, which are respectively used for communication connection and power supply of the display screen; the PCBA control card 8 is electrically connected to the vibration feedback module 6 through the communication data line 62, and is electrically connected to the OLED display module through the FPC flexible circuit board 33, and the PCBA control card 8 is fixed to the display screen back plate 5.

[0036] Embodiment 3

[0037] This embodiment is the third embodiment of the OLED display screen with vibration feedback function of the utility model. This embodiment is similar to the first or second embodiment, except that the touch signal obtained by the OLED display module 3 is transmitted to the deserializer chip through the TP_I2C and TP_INT communication protocols, and then transmitted to the serializer chip and the SOC chip. The SOC chip is connected and communicated with the display touch control MCU chip through multiple SPI and GPIO interfaces; the display touch control MCU chip is connected to the touch chip for detecting the XY coordinate information generated by the touch through the TP_I2C, TP_RST and TP_INT communication protocols, connected to the deserializer chip through the TP_I2C and MAIN_I2C communication protocols, and connected to the OLED display screen module with vibration feedback function through the TP_I2C communication protocol, the TCON timing control circuit and the TFT_NTC temperature compensation circuit. Figure 4As shown. In addition to communicating between the SOC chip and the OLED display module 3, the touch data and the video and image data for display also communicate through the display touch control MCU chip. The internal communication method and data processing, calculation and acquisition method are simple and orderly, with good stability and easy adjustment. Among them, TP_INT signal line: touch interrupt signal. The touch chip tells the external controller that there is a new touch event through the TP_INT signal line. TP_RST signal line: used to reset the touch chip. When powered on, it also cooperates with the INT pin to set the device address of I2C communication. TCON timing control circuit: It has the functions of timing control circuit and control register, and converts image data signals and clock signals into control signals and row and column signals that can be recognized by the screen.

[0038] The display touch control MCU chip is also connected to the sampling MCU chip through the MCU_INT and MCU_RST communication protocols, and the sampling MCU chip is connected to the vibration feedback module 6 in communication, wherein the sampling MCU chip is a high-precision MCU sampling chip. The sampling MCU chip is connected to the vibration feedback module 6 in communication, and is used to control the vibration feedback function of the display screen, such as Figure 4 As shown. Specifically, the sampling MCU chip is connected to four pressure sensors 61 through the communication data line, connected to the motor driver chip and the vibration actuator through the VIB_INT signal line, and connected to the power management chip through the PMIC_I2C communication protocol. The pressure sensor 61 is used to sense the pressure data of the touch screen, which is transmitted to the high-precision sampling MCU chip through the communication data line 62 for identification and processing. The high-precision sampling MCU chip sends corresponding control instructions to the motor driver chip according to the size of the pressure data. The vibration actuator performs vibration actions according to the control instructions of the motor driver chip, driving the vibrator part of the screen to vibrate. Among them, the VIB_INT signal line is used for: vibration interrupt signal, and the motor driver chip tells the external controller that there is a new vibration event through the VIB_INT signal line. In this embodiment, the display touch control MCU chip is also connected to the temperature sensor and the PMIC chip (power management chip) for temperature monitoring and power management functions of the OLED display and the SOC chip. In addition, the display touch control MCU chip is also connected to the CAN transceiver for communication and data transmission with other domain controllers in the car.

[0039] The SOC chip is connected to the serializer chip through the eDP interface and the MAIN_I2C communication protocol. The serializer chip converts parallel data into serial data. The serial data is transmitted to the deserializer chip through the LVDS or GMSL high-speed data transmission protocol via the Fakra connector. The deserializer chip converts the received serial data into parallel data, and then transmits it to the OLED display module with vibration feedback function through the eDP interface and the MAIN_I2C communication protocol. Figure 4 The serializer chip converts parallel data into serial data for high-speed transmission.

[0040] The OLED display screen with vibration feedback function of this embodiment is provided with multiple chips including a SOC chip, a display touch control MCU chip, a sampling MCU chip, a deserializer chip, and a serializer chip to realize the control, management and adjustment of real signals, touch signals and vibration signals. The internal communication mode and data processing, calculation and collection mode are simple and orderly, with good stability and easy adjustment.

[0041] In the specific contents of the above-mentioned specific implementation methods, the various technical features can be combined in any non-contradictory manner. In order to make the description concise, not all possible combinations of the above-mentioned technical features are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0042] Obviously, the above embodiments of the utility model are only examples for clearly explaining the utility model, and are not intended to limit the implementation methods of the utility model. For ordinary technicians in the relevant field, other different forms of changes or modifications can be made on the basis of the above description. It is not necessary and impossible to list all the implementation methods here. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the utility model should be included in the protection scope of the claims of the utility model.

Claims

1. An OLED display screen with a vibration feedback function, comprising a vibrator structure, a stator structure and a vibration feedback module (6) connected between the vibrator structure and the stator structure, wherein the stator structure is installed on a vehicle body; characterized in that: The vibrator structure comprises a display screen back panel (5) and an OLED display module (3) installed on one side of the display screen back panel (5); the stator structure is fixed to the vehicle body; the vibration feedback module (6) is installed on the display screen back panel (5), and a first buffer structure (65) is flatly provided on at least one side of the display screen back panel (5); and a second buffer structure is provided between the vibrator structure and the stator structure.

2. The OLED display screen with vibration feedback function according to claim 1, characterized in that: The first buffer structure (65) is a buffer foam, and the buffer foam comprises a plurality of buffer units, and the plurality of buffer units are evenly distributed on the side of the display screen back panel (5).

3. The OLED display screen with vibration feedback function according to claim 1, characterized in that: The second buffer structure comprises an elastic sheet (64), and two free ends of the elastic sheet (64) are respectively connected between the display screen back plate (5) and the stator structure.

4. The OLED display screen with vibration feedback function according to claim 3, characterized in that: The second buffer structure further comprises a plurality of shock-absorbing silicone pads (66), wherein the plurality of shock-absorbing silicone pads (66) are evenly arranged on the other side of the display screen back plate (5), and one end of the shock-absorbing silicone pad (66) is fixed to the display screen back plate (5) and the other end is in contact with the stator structure.

5. The OLED display screen with vibration feedback function according to claim 1, characterized in that: It also includes a PCBA control card (8) arranged on the other side of the display screen back plate (5); the vibration feedback module (6) includes a pressure sensor (61) and a vibration actuator (63); the pressure sensor (61) is arranged in contact with the OLED display module (3); and the pressure sensor (61) and the vibration actuator (63) are both electrically connected to the PCBA control card (8).

6. The OLED display screen with vibration feedback function according to claim 5, characterized in that: The stator structure comprises a rear cover (7) and a shielding cover (9); the shielding cover (9) is mounted on the other side of the display screen back plate (5) and covers the outer periphery of the PCBA control card (8); the rear cover (7) is provided with an opening for mounting the PCBA control card (8), and the rear cover (7) is fixedly connected to the display screen back plate (5).

7. The OLED display screen with vibration feedback function according to claim 5, characterized in that: The OLED display module (3) comprises an OLED display panel (31), an FPC flexible circuit board (33) and a TFT drive circuit array (32) for controlling the display screen of the OLED panel, wherein the TFT drive circuit array (32) is mounted on the back of the OLED panel, and the FPC flexible circuit board (33) is electrically connected to the PCBA control card (8) and the TFT drive circuit array (32).

8. The OLED display screen with vibration feedback function according to any one of claims 1 to 7, characterized in that: The touch signal obtained by the OLED display module (3) is transmitted to the deserializer chip through the TP_I2C and TP_INT communication protocols, and then transmitted to the serializer chip and the SOC chip. The SOC chip is connected and communicated with the display touch control MCU chip through multiple SPI and GPIO interfaces; the display touch control MCU chip is connected to the touch chip for detecting XY coordinate information generated by touch through the TP_I2C, TP_RST and TP_INT communication protocols, connected to the deserializer chip through the TP_I2C and MAIN_I2C communication protocols, and connected to the OLED display screen module with vibration feedback function through the TP_I2C communication protocol, the TCON timing control circuit and the TFT_NTC temperature compensation circuit.

9. The OLED display screen with vibration feedback function according to claim 8, characterized in that: The display touch control MCU chip is also connected to the sampling MCU chip via the MCU_INT and MCU_RST communication protocols, and the sampling MCU chip is communicatively connected to the vibration feedback module (6).

10. The OLED display screen with vibration feedback function according to claim 8, characterized in that: The SOC chip is connected to the serializer chip through the eDP interface and the MAIN_I2C communication protocol. The serializer chip converts parallel data into serial data. The serial data is transmitted to the deserializer chip via the Fakra connector through the LVDS or GMSL high-speed data transmission protocol. The deserializer chip converts the received serial data into parallel data and transmits it to the OLED display module with vibration feedback function through the eDP interface and the MAIN_I2C communication protocol.

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