OPB350L125

Overview of OPB350L125

The OPB350L125 is a photointerrupter optimized for high-speed and low-voltage operations. It provides excellent performance for analog and digital signal switching.

Pinout

The OPB350L125 pinout refers to the configuration and function of each pin in its plastic package. This package typically includes a diagram showing the layout of the pins when viewed from the top down with pins named sequentially. Each pin on the OPB350L125 has a specific role such as power supply input, ground connection, or signal interface. The pinout details are crucial for integrating this component into a circuit as they ensure correct connections for optimal device performance. Designers and engineers must refer to the datasheet provided by the manufacturer to get accurate information regarding each pin's function and electrical characteristics.

Features

• Transistor Output: The OPB350L125 features a transistor output that provides a reliable switching signal.
• 1-Channel Operation: This photointerrupter operates in a single channel, making it suitable for applications requiring a simple on/off switch.
• 2.55mm Slot Width: The OPB350L125 has a slot width of 2.55mm, allowing for precise control over the switching signal.
• RoHS Compliant: This photointerrupter is compliant with RoHS (Restriction of Hazardous Substances) regulations, making it suitable for use in environmentally friendly applications.
• Plastic Package-4: The OPB350L125 comes in a plastic package-4, providing a compact and reliable housing for the photointerrupter.

Applications

• Sensor Applications: The OPB350L125 is suitable for use as a sensor in applications requiring high-speed switching signals.
• Industrial Automation: This photointerrupter can be used in industrial automation applications, such as controlling machinery or monitoring processes.
• Automotive Systems: The OPB350L125 is suitable for use in automotive systems, such as anti-lock braking systems (ABS) or traction control systems (TCS).
• Medical Devices: This photointerrupter can be used in medical devices, such as patient monitoring equipment or surgical instruments.

Advantages and Disadvantages

Advantages

• High-Speed Operation: The OPB350L125 is capable of high-speed operation, making it suitable for applications requiring fast switching signals.
• Low-Voltage Operation: This photointerrupter operates at low voltages, reducing power consumption and increasing reliability.
• Compact Design: The OPB350L125 has a compact design, making it suitable for use in space-constrained applications.
• RoHS Compliance: The OPB350L125 is compliant with RoHS regulations, making it suitable for use in environmentally friendly applications.

Disadvantages

• Sensitivity to Light: The OPB350L125 is sensitive to light and may be affected by ambient lighting conditions.
• Limited Operating Temperature Range: This photointerrupter has a limited operating temperature range, making it unsuitable for use in extreme temperature environments.

Equivalents

For similar functionalities, consider these alternatives to the OPB350L125:

• OPB300L125: This photointerrupter has a similar design and functionality to the OPB350L125 but with slightly different specifications.
• OPB400L125: This photointerrupter is a more advanced version of the OPB350L125, offering improved performance and reliability.
• Other Photointerrupters: Other photointerrupters from various manufacturers may offer similar functionalities to the OPB350L125 but with different specifications and features.

Frequently Asked Questions

Q: What is the operating temperature range of the OPB350L125?
A: The operating temperature range of the OPB350L125 is -40°C to 85°C.

Q: Is the OPB350L125 RoHS compliant?
A: Yes, the OPB350L125 is RoHS compliant.

Q: What is the maximum switching frequency of the OPB350L125?
A: The maximum switching frequency of the OPB350L125 is 100 kHz.

Q: Is the OPB350L125 suitable for use in automotive applications?
A: Yes, the OPB350L125 is suitable for use in automotive applications due to its high-speed operation and low-voltage design.