
The TCRT5000 merges an infrared (IR) emitter with a phototransistor, offering a sleek approach for both proximity and reflective sensing. This adaptable component appears in various fields, from guiding line-following robots to detecting objects.
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|
Pin Number |
Pin Name |
Description |
|
1 |
Collector |
The collector of the phototransistor is connected to +5V |
|
2 |
Emitter |
The emitter of the phototransistor is grounded through a
resistor |
|
3 |
Anode |
The Anode of the photodiode is connected to +5V |
|
4 |
Cathode |
The Cathode of a photodiode is grounded through a
resistor |



Technical specifications, characteristics, and parameters of the Vishay Semiconductor Opto Division TCRT5000, along with components that have similar specifications to the TCRT5000L.
|
Type |
Parameter |
|
Factory Lead Time |
32 Weeks |
|
Mount |
Through Hole |
|
Package / Case |
PCB Mount |
|
Collector-Emitter Breakdown Voltage |
70V |
|
Number of Elements |
1 |
|
Packaging |
Tube |
|
Part Status |
Active |
|
Max Operating Temperature |
85°C |
|
Voltage - Rated DC |
1.25V |
|
Output Voltage |
70V |
|
Number of Channels |
1 |
|
Forward Current |
60mA |
|
Collector Emitter Voltage (VCEO) |
70V |
|
Sensing Distance |
0.591 (15mm) |
|
Reverse Breakdown Voltage |
5V |
|
Current - DC Forward (If) (Max) |
60mA |
|
Contact Plating |
Silver, Tin |
|
Mounting Type |
Through Hole |
|
Number of Pins |
4 |
|
Current-Collector (Ic) (Max) |
100mA |
|
Operating Temperature |
-25°C–85°C |
|
Published |
2009 |
|
Moisture Sensitivity Level (MSL) |
1 (Unlimited) |
|
Min Operating Temperature |
-25°C |
|
Max Power Dissipation |
200mW |
|
Output Type |
Phototransistor |
|
Power Dissipation |
200mW |
|
Forward Voltage |
1.25V |
|
Max Collector Current |
100mA |
|
Voltage - Collector Emitter Breakdown (Max) |
70V |
|
Sensing Method |
Reflective |
|
Input Current |
60mA |
The leaded package of the TCRT5000 ensures connections that are both stable and dependable, making it adaptable to various applications. This design allows for versatile system integration, accommodating diverse environments with ease.
With an optimal operating range of 2.5 mm, the TCRT5000 excels in tasks requiring short-range detection. This trait is invaluable in scenarios demanding precise proximity sensing, such as on automated assembly lines where precision impacts both efficiency and safety.
A forward current capacity of 60mA balances robust performance with energy-conscious operation. Others harness this attribute to refine power management in cost-sensitive projects, enhancing both performance and sustainability.
Emitting at a wavelength of 950 nm, this sensor effectively minimizes interference from ambient daylight, allowing reliable function across various lighting scenarios. This feature proves advantageous in outdoor settings or spaces with variable light levels, boosting the sensor's adaptability.
Providing both analog and digital signal outputs, this dual-mode capability expands the sensor's applicability. It seamlessly integrates into systems requiring diverse signal types, catering to a wide range of technological needs and offering design flexibility.
The TCRT5000 featured in shaft encoders transforms rotational position into digital signals, exploiting its reflective properties to deliver precise feedback. This is use in motion control systems where precision is desired by industries like robotics and automated manufacturing. Observations highlight its reliability and performance under pressure, underscoring its role in boosting system efficiency.
Another use is in detecting reflective objects. The TCRT5000, with its thoughtful design, excels in identifying reflective surfaces, playing a role in automation. It contributes to object tracking and quality assurance, frequently utilized in inventory management and sorting systems. Its proficiency in discerning surface differences enhances operational precision.
In devices such as VCRs, the TCRT5000 serves as a reliable limit switch, adept at sensing end-of-motion scenarios. Its application in older technologies demonstrates a rugged dependability. Even in contemporary settings, it remains a go-to choice where compact and reliable limit switches are favored, showcasing the sensor's ongoing relevance.
Thanks to its compact size, the sensor fits seamlessly into tight spaces unsuitable for traditional sensors. This is beneficial for miniaturized electronics and portable devices. Practical applications validate its effectiveness in confined design projects, emphasizing an engineering approach that seeks to optimize functionality within limited space.

Integrating the TCRT5000 with microcontrollers like Arduino or Raspberry Pi opens up opportunities to explore intricate circuitry. This process involves allowing the sensor to detect lines or objects through changes in reflected IR light. Due to its straightforward design, the TCRT5000 is well-suited for educational and practical ventures in robotics and automation. It operates efficiently with microcontrollers using minimal components such as resistors and capacitors. This friendly setup enhances its applicability in scenarios like obstacle detection or path following.
Proper sensor positioning and sensitivity calibration play roles in achieving precise detection, especially under varying light conditions. Experimental approaches and iterative tuning make optimal performance attainable, highlighting the benefit of adjusting configurations to fit specific needs. The core functionality of the TCRT5000 hinges on the reflection of IR light, a concept applied in various fields, from line-following robots to automated sorting systems. By grasping the interaction of IR light with diverse surfaces, detection reliability can be bolstered. Delving into these principles and incorporating the sensor into complex systems unveils a wide array of application possibilities. With careful planning, advancements in automation and efficiency become increasingly evident.

The TCRT5000, developed by Vishay, is a testament to meticulous engineering and a deep sense of duty toward compliance with international standards. Regulations, such as RoHS, seek to protect our surroundings by limiting the use of harmful materials like lead. By following these guidelines, the TCRT5000 doesn't just conform to regulatory policies, it actively participates in reducing environmental damage. This approach resonates with industries striving for eco-friendly production. As environmental criteria grow stricter, companies like Vishay face the ongoing task of adapting with creativity. Embracing forward-looking strategies that anticipate changes in regulations while prioritizing sustainability can distinguish industry leaders.
PCN OSI-837-2015 Rev. 0 23/Apr/2015.pdf
The TCRT5000 finds extensive use in object detection and color differentiation within robotics and automation. Identifying object presence or absence and distinguishing colors. Line-following robots and automated sorting systems. In these applications, its capacity for accurate detection plays a great role.
Connecting the TCRT5000 to an Arduino involves a straightforward setup with minimal components. Using a resistor to filter noise, which boosts signal accuracy. For a smooth integration, ensure alignment and calibration to reduce false triggers, enhancing project reliability.
The TCRT5000 functions by reflecting infrared light off surfaces, with a phototransistor detecting this reflection. Delving into its principles offers a pathway to optimization. Experimenting with various materials and conditions yields practical insights into its benefits and constraints.
With Raspberry Pi, TCRT5000 is often applied in automated vehicles for line-following tasks. Its sensor-triggering ability based on line changes is needed. Through precise mounting and sensor calibration, one can achieve optimal system performance and minimize navigation errors.
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