Novastar XA50 Pro High-end 5G Receiving Card Supports Resolutions up to 1024×512@60Hz For Large Full Color LED Display

Short Description:

The XA50 Pro a high-end 5G receiving card in the new-generation control system COEX series of Xi’an NovaStar Tech Co., Ltd. (hereinafter referred to as NovaStar). For 8bit and 10bit video sources and PWM driver ICs, a single XA50 Pro supports resolutions up to 1024×512@60Hz. For 12bit video sources, a single XA50 Pro supports resolutions up to 620×512@60Hz.


Product Detail

Product Tags

Introduction

The XA50 Pro a high-end 5G receiving card in the new-generation control system COEX series of Xi'an NovaStar Tech Co., Ltd. (hereinafter referred to as NovaStar). For 8bit and 10bit video sources and PWM driver ICs, a single XA50 Pro supports resolutions up to 1024×512@60Hz. For 12bit video sources, a single XA50 Pro supports resolutions up to 620×512@60Hz.
This receiving card supports the exclusive Adaptive Thermal Compensation, Dynamic Booster, Full-Grayscale Calibration, and Image Booster technologies of NovaStar. With other various functions, such as Multi-Mode, Brightness Overdrive, Seam Correction with Mobile Phones, Frame Rate Adaptive 3.0, Shutter Fit, HDR, Pixel Level Brightness and Chroma Calibration, Quick Adjustment of Dark or Bright Lines, Low Latency, 3D, and 90° Image Rotation, this receiving card can greatly improve the brightness, grayscale and color performance from every aspect, offering users an ultimate visual experience with a uniform, smooth and lifelike image. The product supports the usage of NCP files, enabling users to conveniently and swiftly carry out tasks such as displaying content on the cabinets, upgrading firmware, and optimizing image quality.
The XA50 Pro uses DDR3 connectors for communication. It is small, flexible, highly integrated, and therefore convenient for cabinet structure design. It can handle up to 40 groups of parallel RGB data or 64 groups of serial data and also supports LVDS transmission.

Certifications

RoHS, EMC Class A.

Features

Improvements to Display Effect

. Adaptive Thermal Compensation
Dynamically adjust the thermal compensation coefficients of the screen to address the issue of color cast caused by uneven heat dissipation across the screen.
. Dynamic Booster
Real-time analysis and dynamic adjustment are made to each frame to significantly improve the display contrast and image details for better visual experience, and effectively control and lower the display power consumption, extending the service life of the LED screen.
. Full-Grayscale Calibration
Work with NovaStar’s high-precision calibration system and the C3200 scientific grade camera to generate unique calibration coefficients for each grayscale, ensuring uniformity of each grayscale and dramatically improving the image quality.
. Image Booster (Effects depend on driver IC)
- Color Management: Support standard (Rec.709 / DCI-P3 / Rec.2020) and custom color gamuts, enabling more precise colors on the screen.
- Precise Grayscale: Individually correct the 65,536 levels of grayscale (16bit) of the driver IC to fix the display problems at low grayscale conditions, such as brightness spikes, brightness dips, color cast and mottling. This function can also better assist other display technologies, such as 22bit+ and individual gamma adjustment for RGB, allowing for a smoother and uniform image.
- 22bit+: Improve the LED screen grayscale by 64 times to avoid grayscale loss due to low brightness and allow for a smoother image with more details in dark areas.
. Multi-Mode
Apply different modes based on different display scenarios. This ensures that LED screens are able to achieve optimal display quality in various scenarios.
. Brightness Overdrive
Enhance the maximum brightness of the screen by balancing the uniformity, thus increasing the dynamic range and improving image contrast.
. Seam Correction with Mobile Phones
The brightness discrepancies in seams caused by splicing modules or cabinets can be automatically or manually adjusted via mobile phone software, enhancing the overall visual experience. (Requires working with the TU series products)
. Frame Rate Adaptive 3.0
Adjust the receiving card parameters in real time according to the input frame rate, so that the display effect at different frame rates (23 Hz to 240 Hz) is the best.
. Shutter Fit
Automatically adjust the driver IC parameters according to the camera shutter angle to fix problems of black lines, grayscale addition, and grayscale loss during camera shooting in xR scenarios.
. HDR
- Support HDR10 and comply with the SMPTE ST 2084 and SMPTE ST 2086 standards.
- Support HLG.
. Pixel Level Brightness and Chroma Calibration
Work with NovaStar's high-precision calibration system to calibrate the brightness and chroma of each pixel, effectively eliminating differences and enabling high consistency for both brightness and chroma.
. Quick Adjustment of Dark or Bright Lines
The different brightness of seams caused by splicing of modules or cabinets can be corrected to improve the visual experience. The adjustment can be in milliseconds.
. Low Latency
The latency of video source on the receiving card end can be reduced to 1 frame (only when using modules with driver IC with built-in RAM).
. 3D
Work with the controller that supports 3D function to enable 3D output.
. 90° Image Rotation
The display image can be rotated in multiples of 90° (0°/90°/180°/270°).

Improvements to Maintainability

. Calibration Coefficient Management
The calibration coefficients can be uploaded very fast, read back, and saved to hardware.
. Automatic Module Calibration
After a new module with flash memory is installed to replace the old one, the calibration coefficients stored in the flash memory can be automatically uploaded to the receiving card when it is powered on, which ensures unchanged uniform display brightness and chroma.
. Module Flash Management
For modules with flash memory, the information stored in the memory can be managed. The calibration coefficients and module ID can be stored and read back.
. Quick Uploading of Calibration Coefficients
Upload the calibration coefficients quickly to the receiving cards to improve efficiency.
. One-click to Apply Calibration Coefficients in Module Flash
For modules with flash memory, when the Ethernet cable is disconnected, users can hold down the self-test button on the cabinet to upload the calibration coefficients in the memory of the module to the receiving card.
. Mapping 1.1
The cabinets can display the controller number, receiving card number, and Ethernet port information, allowing users to easily obtain the locations and connection topology of receiving cards.
. Temperature and Voltage Monitoring
Real-time monitoring of the temperature and voltage of the receiving card, without the need for other external devices.
. Bit Error Detection
Real-time monitoring of the communication of the Ethernet port on the receiving card. It records the number of error data packets, which helps users identify faults and troubleshoot network communication issues.
. Status Detection of Dual Power Supplies
When two power supplies are used, their working status can be detected.
. LVDS Transmission (dedicated firmware required)
Low-voltage differential signaling (LVDS) transmission is used to reduce the number of data cables from the hub board to module, increasing the transmission distance and improving the signal transmission quality.

Improvements to Reliability

. Dual Card Backup and Status Monitoring
In an application requiring high reliability, two receiving cards can be mounted onto a single hub board for backup. When the primary card fails, the backup card can serve immediately to ensure uninterrupted operation of the display.
The working status of the primary and backup receiving cards can be monitored in real-time.
. Loop Backup
The receiving card and controller form a loop via the primary and backup line connections. When a fault occurs at a location of the lines, the screen can still display the image normally.
. Dual Backup of Configuration Parameters
The receiving card configuration parameters are stored in the application area and factory area of the receiving card at the same time. Users usually use the configuration parameters in the application area. If necessary, users can restore the configuration parameters in the factory area to the application area.
. Dual Program Backup
Two copies of firmware program are stored in the receiving card at the factory to avoid the problem that the receiving card may get stuck abnormally during program update.
. One-click Firmware Program Learning
The cabinet firmware program and configuration file can be copied to other cabinets with one click to help quickly complete cabinet configuration.

Appearance

XA50 Pro

All product pictures shown in this document are for illustration purpose only. Actual product may vary.

Indicators

Indicators Color Status Description
Running indicator Green Flashing once

every 1s

The receiving card is functioning normally. Ethernet cable connection is normal, and video source input is available.

Flashing once

every 3s

Ethernet cable connection is abnormal.
Flashing 3 times

every 0.5s

Ethernet cable connection is normal, but video source input is unavailable.
Flashing once

every 0.2s

The receiving card failed to load the

program in the application area and is now using the backup program.

Flashing 8 times

every 0.5s

A redundancy switchover occurred on the Ethernet port and the loop backup has taken effect.
Power indicator Red Always on The power input is normal.

Dimensions

The board thickness is not greater than 1.5 mm, and the total thickness (board thickness + thickness of components on the top and bottom sides) is not greater than 5.0 mm. Ground connection (GND) is enabled for mounting holes.

XA50 Pro Dimension

Tolerance: ±0.3 Unit: mm

Note:

To make molds or trepan mounting holes, please contact NovaStar for a higher-precision structural drawing.

PINS

LVDS Pins

LVDS PINS
LVDS Pin Definitions
/ GND 1 2 GND /
SerDes signal input (receiving cardoutput) MGTP_TX1_N 3 4 MGTP_TX3_N SerDes signal     input (receiving card output)
MGTP_TX1_P 5 6 MGTP_TX3_P
/ GND 7 8 GND /
SerDes signal output (receiving cardinput) MGTP_RX1_N 9 10 MGTP_RX3_N SerDes signaloutput (receiving card input)
MGTP_RX1_P 11 12 MGTP_RX3_P
/ GND 13 14 GND /
LVDS Pin Definitions
SerDes signal input (receiving cardoutput) MGTP_TX2_N 15 16 MGTP_TX4_N SerDes signal     input (receiving card output)
MGTP_TX2_P 17 18 MGTP_TX4_P
/ GND 19 20 GND /
SerDes signal output (receiving cardinput) MGTP_RX2_N 21 22 MGTP_RX4_N SerDes signaloutput (receiving card input)
MGTP_RX2_P 23 24 MGTP_RX4_P
/ GND 25 26 GND /
PHY configuration clock PHY_MDCLK 27 28 PHY_RST PHY reset
PHY configuration data PHY_MDIO 29 30 MCU_GPIO Reserved
LVDS signal LVDS1.8_1_N 31 32 LVDS1.8_27_N LVDS signal
LVDS1.8_1_P 33 34 LVDS1.8_27_P
LVDS signal LVDS1.8_2_N 35 36 LVDS1.8_28_N LVDS signal
LVDS1.8_2_P 37 38 LVDS1.8_28_P
LVDS signal LVDS1.8_3_N 39 40 LVDS1.8_29_N LVDS signal
LVDS1.8_3_P 41 42 LVDS1.8_29_P
/ GND 43 44 GND /
LVDS signal LVDS1.8_4_N 45 46 LVDS1.8_30_N LVDS signal
LVDS1.8_4_P 47 48 LVDS1.8_30_P
LVDS signal LVDS1.8_5_N 49 50 LVDS1.8_31_N LVDS signal
LVDS1.8_5_P 51 52 LVDS1.8_31_P
LVDS signal LVDS1.8_6_N 53 54 LVDS1.8_32_N LVDS signal
LVDS1.8_6_P 55 56 LVDS1.8_32_P
LVDS signal LVDS1.8_7_N 57 58 LVDS1.8_33_N LVDS signal
LVDS1.8_7_P 59 60 LVDS1.8_33_P
/ GND 61 62 GND /
LVDS Pin Definitions
LVDS signal LVDS1.8_8_N 63 64 LVDS1.8_34_N LVDS signal
LVDS1.8_8_P 65 66 LVDS1.8_34_P
LVDS signal LVDS1.8_9_N 67 68 LVDS1.8_35_N LVDS signal
LVDS1.8_9_P 69 70 LVDS1.8_35_P
Reserved (1.8 V) GPIO1_ 1V8 71 72 GPIO3_1V8 Reserved (1.8 V)
GPIO2_ 1V8 73 74 GPIO4_1V8
LVDS signal LVDS1.8_10_N 75 76 LVDS1.8_36_N LVDS signal
LVDS1.8_10_P 77 78 LVDS1.8_36_P
/ GND 79 80 GND /
LVDS signal LVDS1.8_11_N 81 82 LVDS1.8_37_N LVDS signal
LVDS1.8_11_P 83 84 LVDS1.8_37_P
LVDS signal LVDS1.8_12_N 85 86 LVDS1.8_38_N LVDS signal
LVDS1.8_12_P 87 88 LVDS1.8_38_P
LVDS signal LVDS1.8_13_N 89 90 LVDS1.8_39_N LVDS signal
LVDS1.8_13_P 91 92 LVDS1.8_39_P
LVDS signal LVDS1.8_14_N 93 94 LVDS1.8_40_N LVDS signal
LVDS1.8_14_P 95 96 LVDS1.8_40_P
/ GND 97 98 GND /
LVDS signal LVDS1.8_15_N 99 100 LVDS1.8_41_N LVDS signal
LVDS1.8_15_P 101 102 LVDS1.8_41_P
LVDS signal LVDS1.8_16_N 103 104 LVDS1.8_42_N LVDS signal
LVDS1.8_16_P 105 106 LVDS1.8_42_P
LVDS signal LVDS1.8_17_N 107 108 LVDS1.8_43_N LVDS signal
LVDS1.8_17_P 109 110 LVDS1.8_43_P
LVDS signal LVDS1.8_18_N 111 112 LVDS1.8_44_N LVDS signal
LVDS1.8_18_P 113 114 LVDS1.8_44_P
LVDS Pin Definitions
/ GND 115 116 GND /
LVDS signal LVDS1.8_19_N 117 118 LVDS1.8_45_N LVDS signal
LVDS1.8_19_P 119 120 LVDS1.8_45_P
LVDS signal LVDS1.8_20_N 121 122 LVDS1.8_46_N LVDS signal
LVDS1.8_20_P 123 124 LVDS1.8_46_P
LVDS signal LVDS1.8_21_N 125 126 LVDS1.8_47_N LVDS signal
LVDS1.8_21_P 127 128 LVDS1.8_47_P
LVDS signal LVDS1.8_22_N 129 130 LVDS1.8_48_N LVDS signal
LVDS1.8_22_P 131 132 LVDS1.8_48_P
/ GND 133 134 GND /
LVDS signal LVDS1.8_23_N 135 136 LVDS1.8_49_N LVDS signal
LVDS1.8_23_P 137 138 LVDS1.8_49_P
LVDS signal LVDS1.8_24_N 139 140 LVDS1.8_50_N LVDS signal
LVDS1.8_24_P 141 142 LVDS1.8_50_P
LVDS signal LVDS1.8_25_N 143 144 LVDS1.8_51_N LVDS signal
LVDS1.8_25_P 145 146 LVDS1.8_51_P
LVDS signal LVDS1.8_26_N 147 148 LVDS1.8_52_N LVDS signal
LVDS1.8_26_P 149 150 LVDS1.8_52_P
/ GND 151 152 GND /
Reserved GPIO1 153 154 GPIO2 Reserved
GPIO3 155 156 GPIO4
GPIO5 157 158 GPIO6
GPIO7 159 160 GPIO8
GPIO9 161 162 GPIO10
GPIO11 163 164 GPIO12
GPIO13 165 166 GPIO14
LVDS Pin Definitions
  GPIO15 167 168 GPIO16  
/ GND 169 170 GND /
Reserved GPIO17 171 172 GPIO18 Reserved
GPIO19 173 174 GPIO20
GPIO21 175 176 GPIO22
GPIO23 177 178 GPIO24
GPIO25 179 180 GPIO26
GPIO27 181 182 GPIO28
GPIO29 183 184 GPIO30
GPIO31 185 186 GPIO32
GPIO33 187 188 Input_KEY Test button
Tri-color LED STA_LEDR- 189 190 STA_LEDG- Tri-color LED
STA_LEDB- 191 192 MCU_SDA I2C SDA
ADC detection MCU_ADC1 193 194 MCU_SCL I2C SCL
MCU_ADC2 195 196 GND /
/ NC 197 198 NC /
/ EXT_5V 199 200 EXT_5V /
EXT_5V 201 202 EXT_5V
EXT_5V 203 204 EXT_5V

40 Groups of Parallel RGB Data

40 Groups of Parallel RGB Data
40 Groups of Parallel RGB Data Pin Definitions
/ GND 1 2 GND /
SerDes signal input (receiving card

output)

MGTP_TX1_N 3 4 MGTP_TX3_N SerDes signal input (receiving card

output)

MGTP_TX1_P 5 6 MGTP_TX3_P
/ GND 7 8 GND /
SerDes signal

output (receiving card input)

MGTP_RX1_N 9 10 MGTP_RX3_N SerDes signal

output (receiving card input)

MGTP_RX1_P 11 12 MGTP_RX3_P
/ GND 13 14 GND /
SerDes signal input (receiving card

output)

MGTP_TX2_N 15 16 MGTP_TX4_N SerDes signal input (receiving card

output)

MGTP_TX2_P 17 18 MGTP_TX4_P
40 Groups of Parallel RGB Data Pin Definitions
/ GND 19 20 GND /
SerDes signal

output (receiving card input)

MGTP_RX2_N 21 22 MGTP_RX4_N SerDes signal

output (receiving card input)

MGTP_RX2_P 23 24 MGTP_RX4_P
/ GND 25 26 GND /
PHY configuration clock PHY_MDCLK 27 28 PHY_RST PHY reset
PHY configuration data PHY_MDIO 29 30 MCU_GPIO Reserved
Line decoding

signal

A 31 32 BUFFER_EN 245 driver IC

enable pin

B 33 34 READBACK_EN 245 direction

control signal

C 35 36 RFU1 Reserved
D 37 38 LAT1 Latch signal.
Reserved RFU2 39 40 RFU3 Reserved
Shift clock DCLK1 41 42 GCLK1 Grayscale clock.
/ GND 43 44 GND /
/ R1 45 46 G1 /
B1 47 48 R2
G2 49 50 B2
R3 51 52 G3
B3 53 54 R4
G4 55 56 B4
R5 57 58 G5
B5 59 60 R6
/ GND 61 62 GND /
/ G6 63 64 B6 /
40 Groups of Parallel RGB Data Pin Definitions
  R7 65 66 G7  
B7 67 68 R8
G8 69 70 B8
R9 71 72 G9
B9 73 74 R10
G10 75 76 B10
R11 77 78 G11
/ GND 79 80 GND /
/ B11 81 82 R12 /
G12 83 84 B12
R13 85 86 G13
B13 87 88 R14
G14 89 90 B14
R15 91 92 G15
B15 93 94 R16
G16 95 96 B16
/ GND 97 98 GND /
/ R17 99 100 G17 /
B17 101 102 R18
G18 103 104 B18
R19 105 106 G19
B19 107 108 R20
G20 109 110 B20
R21 111 112 G21
B21 113 114 R22
/ GND 115 116 GND /
40 Groups of Parallel RGB Data Pin Definitions
/ G22 117 118 B22 /
R23 119 120 G23
B23 121 122 R24
G24 123 124 B24
R25 125 126 G25
B25 127 128 R26
G26 129 130 B26
R27 131 132 G27
/ GND 133 134 GND /
/ B27 135 136 R28 /
G28 137 138 B28
R29 139 140 G29
B29 141 142 R30
G30 143 144 B30
R31 145 146 G31
B31 147 148 R32
G32 149 150 B32
/ GND 151 152 GND /
/ R33 153 154 G33 /
B33 155 156 R34
G34 157 158 B34
R35 159 160 G35
B35 161 162 R36
G36 163 164 B36
R37 165 166 G37
B37 167 168 R38
40 Groups of Parallel RGB Data Pin Definitions
/ GND 169 170 GND /
/ G38 171 172 B38 /
R39 173 174 G39
B39 175 176 R40
G40 177 178 B40
Flash control pin CODE1 179 180 SPI_CLK Clock signal of

serial pin

CODE2 181 182 SPI_CS CS signal of serial pin
CODE3 183 184 SPI_MISO Module flash data storage output
CODE4 185 186 SPI_MOSI Module flash data storage input
CODE5 187 188 Input_KEY Test button
Tri-color LED STA_LEDR- 189 190 STA_LEDG- Tri-color LED
STA_LEDB- 191 192 MCU_SDA I2C SDA
ADC detection MCU_ADC1 193 194 MCU_SCL I2C SCL
MCU_ADC2 195 196 GND /
/ NC 197 198 NC /
/ EXT_5V 199 200 EXT_5V /
EXT_5V 201 202 EXT_5V
EXT_5V 203 204 EXT_5V

 

64 Groups of Serial Data

64 Groups of Serial Date
64 Groups of Serial Data Pin Definitions
/ GND 1 2 GND /
SerDes signal input (receiving card

output)

MGTP_TX1_N 3 4 MGTP_TX3_N SerDes signal     input (receiving card output)
MGTP_TX1_P 5 6 MGTP_TX3_P
/ GND 7 8 GND /
SerDes signal output (receiving card

input)

MGTP_RX1_N 9 10 MGTP_RX3_N SerDes signal

output (receiving card input)

MGTP_RX1_P 11 12 MGTP_RX3_P
/ GND 13 14 GND /
SerDes signal input (receiving card

output)

MGTP_TX2_N 15 16 MGTP_TX4_N SerDes signal     input (receiving card output)
MGTP_TX2_P 17 18 MGTP_TX4_P
64 Groups of Serial Data Pin Definitions
/ GND 19 20 GND /
SerDes signal output (receiving card

input)

MGTP_RX2_N 21 22 MGTP_RX4_N SerDes signal

output (receiving card input)

MGTP_RX2_P 23 24 MGTP_RX4_P
/ GND 25 26 GND /
PHY configuration clock PHY_MDCLK 27 28 PHY_RST PHY reset
PHY configuration data PHY_MDIO 29 30 MCU_GPIO Reserved
Line decoding signal A 31 32 BUFFER_EN 245 driver IC

enable pin

B 33 34 READBACK_EN 245 direction

control signal

C 35 36 RFU1 Reserved
D 37 38 LAT1 Latch signal.
Reserved RFU2 39 40 RFU3 Reserved
Shift clock DCLK1 41 42 GCLK1 Grayscale clock.
/ GND 43 44 GND /
/ DATA1 45 46 DATA33 /
DATA2 47 48 DATA34
DATA3 49 50 DATA35
DATA4 51 52 DATA36
DATA5 53 54 DATA37
DATA6 55 56 DATA38
DATA7 57 58 DATA39
DATA8 59 60 DATA40
/ GND 61 62 GND /
/ DATA9 63 64 DATA41 /
64 Groups of Serial Data Pin Definitions
  DATA10 65 66 DATA42  
DATA11 67 68 DATA43
DATA12 69 70 DATA44
DATA13 71 72 DATA45
DATA14 73 74 DATA46
DATA15 75 76 DATA47
DATA16 77 78 DATA48
/ GND 79 80 GND /
/ DATA17 81 82 DATA49 /
DATA18 83 84 DATA50
DATA19 85 86 DATA51
DATA20 87 88 DATA52
DATA21 89 90 DATA53
DATA22 91 92 DATA54
DATA23 93 94 DATA55
DATA24 95 96 DATA56
/ GND 97 98 GND /
/ DATA25 99 100 DATA57 /
DATA26 101 102 DATA58
DATA27 103 104 DATA59
DATA28 105 106 DATA60
DATA29 107 108 DATA61
DATA30 109 110 DATA62
DATA31 111 112 DATA63
DATA32 113 114 DATA64
/ GND 115 116 GND /
64 Groups of Serial Data Pin Definitions
/ NC 117 118 NC /
NC 119 120 NC
NC 121 122 NC
NC 123 124 NC
NC 125 126 NC
NC 127 128 NC
NC 129 130 NC
NC 131 132 NC
/ GND 133 134 GND /
/ NC 135 136 NC /
NC 137 138 NC
NC 139 140 NC
NC 141 142 NC
NC 143 144 NC
NC 145 146 NC
NC 147 148 NC
NC 149 150 NC
/ GND 151 152 GND /
Clock signal of serial pin SPI_CLK 153 154 SPI_MOSI Module flash data storage input
CS signal of serial pin SPI_CS1 155 156 MS_ID Dual card backup identifier signal
Module flash data storage output SPI_MISO1 157 158 MS_DATA Dual card backup connection signal
CS signal of serial pin SPI_CS2 159 160 Power_DET1 Dual power

supply detection signal

Module flash data SPI_MISO2 161 162 Power_DET2
64 Groups of Serial Data Pin Definitions
storage output          
CS signal of serial pin SPI_CS3 163 164 Power_EN Power enable

signal

Module flash data storage output SPI_MISO3 165 166 RFU4 Reserved
CS signal of serial pin SPI_CS4 167 168 RFU5
/ GND 169 170 GND /
Module flash data storage output SPI_MISO4 171 172 LDM_Temp_SS1 Module

temperature

detection chip

selection signal

CS signal of serial pin SPI_CS5 173 174 LDM_Temp_SS2
Module flash data storage output SPI_MISO5 175 176 LDM_Temp_SS3
CS signal of serial pin SPI_CS6 177 178 LDM_Temp_SS4
Module flash data storage output SPI_MISO6 179 180 LDM_Temp_SS5
CS signal of serial pin SPI_CS7 181 182 LDM_Temp_SS6
Module flash data storage output SPI_MISO7 183 184 LDM_Temp_SS7
CS signal of serial pin SPI_CS8 185 186 LDM_Temp_SS8
Module flash data storage output SPI_MISO8 187 188 Input_KEY Test button
Tri-color LED STA_LEDR- 189 190 STA_LEDG- Tri-color LED
STA_LEDB- 191 192 MCU_SDA I2C SDA
ADC detection MCU_ADC1 193 194 MCU_SCL I2C SCL
MCU_ADC2 195 196 GND /
64 Groups of Serial Data Pin Definitions
/ NC 197 198 NC /
/ EXT_5V 199 200 EXT_5V /
EXT_5V 201 202 EXT_5V
EXT_5V 203 204 EXT_5V

 

Specifications

Maximum Resolution 1024×512@60Hz (For 8bit and 10bit video sources)620×512@60Hz (For 12bit video sources)
Electrical Parameters Input voltage DC 3.8 V to 5.5 V
Rated current 1 A
Rated powerconsumption 5 W
OperatingEnvironment Temperature –20°C to +70°C
Humidity 10% RH to 90% RH, non-condensing
Storage Environment Temperature –25°C to +125°C
Humidity 0% RH to 95% RH, non-condensing
PhysicalSpecifications Dimensions 67.6 mm × 35.0 mm × 4.3 mm
Net weight 10.4 gNote: It is the weight of a single receiving card only.
Packing Information Packingspecifications An antistatic bag and anti-collision foam are provided for each receiving card. Eachpacking box contains 40 receiving cards.
Packing boxdimensions 381.0 mm × 123.0 mm × 196.0 mm

Notes:

The amount of current and power consumption may vary depending on various factors such as product settings, usage, and environment.

When using the product, please ensure to use an aluminum heatsink plate with dimensions greater than 250.0 mm × 250.0 mm × 3.0 mm, or other methods that offer equivalent heat   dissipation performance. Additionally, confirm that the material of the cabinet meets the necessary thermal requirements.


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