Product
Flashing Control Module

card

Opticks Technology-Flashing control card
Specification
Brand
Basler
Model
V-series FPGA grabber
PC Bus Interface
PCIe 3.0 x4 / x8
Support camera interface
CL/CXP/GIGE/10GE/HSLink
Support camera Type
Mono/Color
max. sync. Camera#
6
max. flash Illumination#
4
Request Quote
INFORMATION

 

Connectivity Supports up to 6 cameras and 4 light sources, making it ideal for large-scale line scan inspection applications.
Efficiency(vs. Traditional Systems) Integrates all lighting effects into a single station, significantly reducing optical hardware costs and maximizing production line space utilization.
Real-Time Control Powered by an FPGA-based strobe control core with a minimum control time unit of 8 nanoseconds, ensuring precise synchronization with commercial line scan cameras.
Integration Services Provides complete matching solutions for strobe controllers and light sources, covering UV, RGB, and NIR wavelengths with ultra-high brightness (up to 3 million lux).
FPGA Preprocessing Supports customized Strobe + FPGA real-time preprocessing, accelerating image processing speeds and effectively reducing CPU load.

 


 

Flash strobe principle description

 

  • Using a single line-scan camera combined with multi-light-source flashing technology, multiple lighting effects can be obtained within a single scan. The principle is based on an FPGA performing real-time synchronized control of each camera’s exposure and the on/off timing of each light source.

 

  • For example, when using two light sources, the camera captures two images at the same encoder position—each triggered by a different light source. By separating odd lines (Light Source A) and even lines (Light Source B), two distinct optical-effect images can be extracted (as shown in the demonstration video below).

 

  • With this method, a single line-scan camera plus multiple light sources can generate various imaging effects in one pass, significantly reducing the cost and space required compared with traditional multi-station configurations. Long-term validation has confirmed that there is no residual brightness interference between these lighting effects.

 

 

 

Detailed Introduction Video:

(CH)https://youtu.be/pPqCQrz50Tk

(EN)https://youtu.be/78lIfiZCy3Q

 

Multispectral Application Case Video:

(CH)https://youtu.be/p9mMIm5yYP0

(EN)https://youtu.be/RqfJSb7cHhE

 

 


 

Application Examples

 

Application Scenario Configuration Inspection Capability
Dimension & Appearance Inspection A: Backlight + B: Front Light Enables the acquisition of both contour images (for dimension) and surface defect images in a single scan.
Multi-Effect Illumination A: Bright-field + B: Dark-field Utilizes both bright and dark field imaging to inspect defects with different characteristics simultaneously.
Polarized Imaging Camera w/ Filter + 4 Sources (A, B, C, D) Captures four 90° polarized angle images in one pass by combining a polarized camera with light sources at different angles.
PCB Inspection A: NIR + B: Visible Light Visible light is used for surface inspection, while NIR transmission images are used to inspect internal PCB traces.
Line Scan HDR Imaging FPGA Pulse Width Control Controls illumination pulse width to capture images at different brightness levels, then performs real-time HDR fusion via FPGA.

 

 


 

 

Applicable Industries

 

 

 


 

 

Related Products