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SE7130N series 2D barcode scan engines, a computerized image recognition system, bring about a new era of 2D barcode scan engines.
The SE7130N decoder ingeniously blends an advanced chip design & manufacturing, which significantly simplifies application design and delivers superior performance and solid reliability with low power consumption.
The SE7130N support all mainstream 1D and standard 2D barcode symbologies (e.g UPC/EAN, UPC/EAN with supplementals, Bookland EAN, ISSN, UCC Coupon Extended Code, Code128, GS1-128, ISBT 128, Code 39 )as well as (PDF417, MicroPDF417, Composite Codes, Data Matrix, Maxicode, QR Code, Micro QR, Aztec).
The SE7130N has one white LED (5600K) for supplementary lighting, making it possible to scan barcodes even in complete darkness. The illumination can be programmed On or Off.
The SE7130N’s LEDs imaging system is designed to work better with white light, so the engine shows better reading performance on barcodes printed in colour. The user can conduct some tests to determine the proper wavelengths to be used
ESD protection has been taken into account when designing the SE7130N and the engine is shipped in ESD safe packaging. Always exercise care when handling the engine outside its package. Be sure grounding wrist straps and properly grounded work areas are used
The SE7130N must be sufficiently enclosed to prevent dust particles from gathering on the imager and lens. Dust and other external contaminants will eventually degrade the engine’s performance
The following environmental requirements should be met to ensure good performance of the SE7130N:
| Working Temperature | 0℃ to 50℃ |
|---|---|
| Storage Temperature | -40℃ to 70℃ |
| Humidity | 0% ~95% (non-condensing) |
Electronic components in the SE7130N generate heat during their operation. Operating the SE7130N in continuous mode for an extended period may result in an increase in temperature by 20℃ inside the engine. The following precautions should be taken when integrating the SE7130N:
The window should be positioned properly to let the illumination and aiming beams pass through as much as possible and no reflections back into the engine (reflections can degrade the reading performance).
The window should be mounted close to the front of the engine (parallel). The maximum distance is measured from the front of the engine cover to the farthest surface of the window. Avoid unwanted reflections and use thin material for window so as to reach better reading performance. The distance from the front of the engine cover to the furthest surface of the window should not exceed 0.5mm and its better to make the window contact with the engine rubber cover.
If the window is required to be in a tilted position, the above distance requirements should be met and tilt angle should ensure no reflections back into the lens.
Wavelengths of illumination and aiming beams should be taken into consideration when choosing window material and color, to achieve the possible highest spectral transmission and lowest blurriness. It is suggested PMMA or optical glass with spectral transmittance over 90% and blurriness less than 1%. Whether to use an anti-reflection coating or not depends on the material and application needs.
Scratch on the window can greatly reduce the performance of the SE7130N. It is suggested to use abrasion resistant window material or coating.
The window must not block the field of view and should be sized to accommodate the aiming and illumination envelopes shown below.
The SE7130N may show better performance with ambient light. However, high-frequency pulsed light can result in performance degradation.
The SE7130N has LEDs what create the aiming and illumination beams. These LEDs are bright, but testing has been done to demonstrate that the engine is safe for its intended application under normal usage conditions. However, the user should avoid looking into the beam.
SE7130N Engine includes motherboard and Engine camera board assembly. The two components are Integrated in one piece.
The illustrations below show the mechanical mounting dimensions for the SE7130N. The structural design should leave some space between components and provide sufficient space for flat flexible cable
Elements listed in previous sections should also be taken into consideration when integrating the SE7130N.
Do not power up the SE7130N until it is properly connected. Be sure the power is cut off before connecting a flexible cable to or disconnecting a flexible cable from the host interface connector. This could damage the engine.
Unstable power supply or sharp voltage drops may lead to unstable performance of the engine. Do not resupply the power immediately after cutting it off. The interval must be greater than 3 seconds.
To ensure the image quality, a power supply with low ripple noise is needed. Acceptable ripple range (peak-to-peak) : ≤50mV (≤30mV recommended).
Ta = 25℃：
| Parameter | Minimum | Typical | Maximum | Unit |
|---|---|---|---|---|
| VCC | 3.3 | 5 | 5.5 | V |
| VIH | VCC - 0.5 | - | - | V |
| VIL | - | - | 0.5 | V |
| VOH | VCC - 0.3 | - | - | V |
| VOL | - | - | 0.3 | V |
Ta=25℃，VCC=5V
| Parameter | Average | Maximum | Unit |
|---|---|---|---|
| IOP | 150 | 260 | mA |
| IStandby | 40 | - | mA |
The following table lists the pin functions of the 12-pin host interface connector.
| PIN# | Signal Name | I/O | Function |
|---|---|---|---|
| 1 | NC | - | - |
| 2 | VCC | - | Power supply |
| 3 | GND | - | Ground |
| 4 | RX | I | TTL-232 receiving |
| 5 | TX | O | TTL-232 transmission |
| 6 | D- | I/O | USB D- differential data signal |
| 7 | D+ | I/O | USB D+ differential data signal |
| 8 | NC | - | - |
| 9 | BUZ | O | Beeper output. For the information of beeper driver circuit, see the “Control Interfaces” |
| 10 | LED1 | O | Decode LED1 output. For the information of LED driver circuit, see the “Control Interfaces” |
| 11 | LED2 | O | Decode LED2 output. For the information of LED driver circuit, see the “Control Interfaces” section. |
| 12 | TRIG | I | Trigger signal input: Driving this pin low for at least 10ms causes the SE7130N to start a scan and decode |
| PIN | |
|---|---|
| PIN1 | Trigger |
| PIN2 | LED_OUT |
| PIN3 | Beeper OUT |
| PIN4 | USB_D+ |
| PIN5 | USB_D- |
| PIN6 | TXD |
| PIN7 | RXD |
| PIN8 | GND |
| PIN9 | VCC |
The SE7130N’s host interface connector is a 12-pin NONE ZIF socket which can be used to connect a host device (e.g., SE7130N software development board EVK) with a flat flexible cable. The following figures show the position and dimensions of the socket. (unit: mm)
A 12-pin flat flexible cable can be used to connect the SE7130N to OEM equipment or to the SE7130N EVK. The cable design must be consistent with the following specifications shown below. Use reinforcement material for the connectors the cable and reduce cable impedance for reliable connection and stable performance.
The SE7130N can communicate with the host device through either TTL-232 serial port or USB port. It provides 3 communication modes:
TTL-232: This interface is applicable to most system architectures. For those requiring RS-232, a TTL-232 to RS-232 conversion circuit is needed
Driving the TRIG pin (PIN 12) on the host interface connector low for a specified time period causes the SE7130N to start a scan and decode session. The time varies from one scan mode to another. Anti-shake mechanism is used in level trigger mode. Trigger is activated in this mode if the signal from the TRIG pin remains low for at least 10ms.
For those scan modes with a timeout mechanism, the engine can automatically deactivate the trigger when a timeout occurs. After one trigger, the engine gets ready for next trigger only if the signal from the TRIG pin remains high for at least 10ms.
The SE7130N provides a pin (BUZ, PIN 9) on the host interface connector that provides a PWM output to an external driver circuit for generating audible feedback to the user to indicate statuses like power up, good decode or operation mistake. The PWM output is not strong enough to drive a beeper, so a beeper driver circuit is needed.
The following beeper driver circuit is provided for reference.
The SE7130N provides a pin (LED, PIN 10,PIN 11) on the host interface connector that can be used by an external driver circuit to drive an LED to indicate a Good Decode status. When a good decode occurs, the signal from the LED pin turns from a low level into alternation of high and low levels and then back into a low level. This Decode LED output is not strong enough to drive an LED, so an LED driver circuit is needed.
The following decode LED driver circuit is provided for reference.
| Physical Characteristics | |
|---|---|
| Dimensions | 65mmX61.5mmX29mm |
| Weight | 33g |
| Voltage | DC:3.3V~5.5V |
| Current | 90mA (standby); 200mA (Operate mode) |
| Performance Characteristics | |
| Light Source | illumination: 6500K LED |
| Field of View | 72°(H) x 57°(V) |
| Roll / Pitch / Yaw | 360°, ±65°, ±60° |
| Print Contrast | 25% minimum reflective difference |
| Symbology Decode Capability | |
| 1-D |
UPC/EAN, UPC/EAN with supplementals, Bookland EAN, ISSN, UCC Coupon Extended Code, Code128, GS1-128, ISBT 128, Code 39, Code 39 Full ASCII, Trioptic Code 39, Code 32, Code 93, Code11, Matrix 2 of 5, Interleaved 2 of 5, Discrete 2 of 5, Codabar, MSI, Chinese 2 of 5, GS1 DataBar variants, Korean 3 of 5, ISBT Concat |
| 2-D | PDF417, MicroPDF417, Composite Codes,Data Matrix, Maxicode, QR Code, MicroQR, Aztec |
| DOF | 20mil QR:0~100mm ,13mil UPC:5~110mm |
| Minimum Resolution | 3.9 mil Code 39 |
| Interfaces Supported | USB, 232 |
| User Environment | |
| Operating Temperature | 32°to 122°F / 0°to 50°C |
| Storage Temperature | -40°to 158°F / -40°to 70°C |
| Humidity | 0% to 95%, non-condensing |
| Drop/Shock Specifications | Withstands 10Gs 5’ double amp |
| Ambient Light Immunity | 0 -100,000 Lux. |