Time: 2024-09-18 11:14:10
Industrial cameras are a crucial element of machine vision systems. Typical applications include automatic imaging-based inspection, process control, robot guidance, surveillance, microscopy, motion analysis, mapping, document digitizing, as well as medical imaging. Data collected by cameras are usually processed by a computer, with or without artificial intelligence.
Camera systems are based on a CMOS imager, a processing SoC or FPGA, and interfaces to transfer images to the "outside world." Depending on the application, imagers of different resolutions and frame rates are chosen. CMOS image sensors exist in different sizes. In general, the larger the sensor size, the better the dynamic range and signal-to-noise (SNR) ratio.
An SoC or FPGA processes the data collected by the image sensor. Typical processing includes creating usable still images or a video stream from the raw sensor data and compressing them for transmission. More advanced processing such as pattern recognition can be performed either in-camera, or in a central computer.
Various interfaces to connect cameras to other elements of a machine vision system exist. The most common are Ethernet, USB, GMSL (Analog Devices), V3-Link and FPD-Link (Texas Instruments). Wi-Fi or proprietary wireless interfaces can also be used.

Typical CMOS imagers require a fixed frequency clock between 6 MHz and 72 MHz. As a general rule, the higher the sensor data rate, the higher the clock frequency. The data rate mainly depends on three characteristics:
As digital devices, SoCs and FPGAs can be easily clocked with a single-ended oscillator in the 10 to 40 MHz range such as the SiT1603. An optional 32.768 kHz oscillator can be added if real-time-clock timekeeping is needed. A low-power oscillator such as the SiT1811, consuming only 6 μA, enables accurate time keeping in standby mode.
Interface clocking depends on the chipset; in general:
Type | Prodcuct | Frequency | Key Features | Key Values |
MHz | 1 to 110 MHz | • -40°C to +85°C | • High reliability | |
1 to 26 MHz | • -40°C to +85°C | • High reliability | ||
Differential | 1 to 220 MHz | • Low jitter 0.23 ps RMS1 | • High reliability | |
32.768 kHz | SIT1811 | 32.768 kHz | • ±20, ±50 ppm stability | • Meets demanding jitter |
32.768 kHz | 32.768 kHz | • ±5, ±10, ±20 ppm stability | • Low power |
Time: 2024-09-18 11:14:10
Industrial cameras are a crucial element of machine vision systems. Typical applications include automatic imaging-based inspection, process control, robot guidance, surveillance, microscopy, motion analysis, mapping, document digitizing, as well as medical imaging. Data collected by cameras are usually processed by a computer, with or without artificial intelligence.
Camera systems are based on a CMOS imager, a processing SoC or FPGA, and interfaces to transfer images to the "outside world." Depending on the application, imagers of different resolutions and frame rates are chosen. CMOS image sensors exist in different sizes. In general, the larger the sensor size, the better the dynamic range and signal-to-noise (SNR) ratio.
An SoC or FPGA processes the data collected by the image sensor. Typical processing includes creating usable still images or a video stream from the raw sensor data and compressing them for transmission. More advanced processing such as pattern recognition can be performed either in-camera, or in a central computer.
Various interfaces to connect cameras to other elements of a machine vision system exist. The most common are Ethernet, USB, GMSL (Analog Devices), V3-Link and FPD-Link (Texas Instruments). Wi-Fi or proprietary wireless interfaces can also be used.

Typical CMOS imagers require a fixed frequency clock between 6 MHz and 72 MHz. As a general rule, the higher the sensor data rate, the higher the clock frequency. The data rate mainly depends on three characteristics:
As digital devices, SoCs and FPGAs can be easily clocked with a single-ended oscillator in the 10 to 40 MHz range such as the SiT1603. An optional 32.768 kHz oscillator can be added if real-time-clock timekeeping is needed. A low-power oscillator such as the SiT1811, consuming only 6 μA, enables accurate time keeping in standby mode.
Interface clocking depends on the chipset; in general:
Type | Prodcuct | Frequency | Key Features | Key Values |
MHz | 1 to 110 MHz | • -40°C to +85°C | • High reliability | |
1 to 26 MHz | • -40°C to +85°C | • High reliability | ||
Differential | 1 to 220 MHz | • Low jitter 0.23 ps RMS1 | • High reliability | |
32.768 kHz | SIT1811 | 32.768 kHz | • ±20, ±50 ppm stability | • Meets demanding jitter |
32.768 kHz | 32.768 kHz | • ±5, ±10, ±20 ppm stability | • Low power |
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