Description
The IP67 combined with a metal monocoque housing enables this sensor to operate reliably in dusty, humid, and vibrating environments. Equipped with a high-sensitivity probe and minimal blind zone, it simplifies installation and setup. Integrated reverse polarity and transient overvoltage protection reduce operational risks. It reliably detects various materials including metal, glass, and liquids, meeting diverse application needs.
Specification
| Model | ATO-SR65F30-6000 |
| Measuring Range | 500~6000mm |
| Blind Zone | 0~500mm |
| Standard Test Plate | 300×300mm |
| Beam Angle | 25° |
| Repeatability | 0.10% |
| Operating Voltage | 10~30V DC |
| Temperature Drift | 0.05%/℃ (Built-in Temperature Compensation) |
| Linearity | <1% |
| Protection Grade | IP67 |
| Resolution | 0.1% of Measuring Range (0.5 mm min) |
| Response Time | 195ms |
| Electromagnetic Compatibility | GB/T17626.2-2006/GB/T17626.4-2008 |
| Power Consumption | 20mA |
| Protection Circuit | Reverse Polarity Protection, Transient Overvoltage Protection |
| Operating Temperature | -20℃~+80℃ |
| Storage Temperature | -40℃~+80℃ |
| Housing Material | Nickel-plated Copper (Custom Stainless Steel Housing Available) |
| Cable Length | 2m |
| Weight | 200g |
Features
- Long-Range and High Precision: Supports up to 6m detection distance, combined with a high-sensitivity probe and high-precision sensing chip, delivering stable and reliable distance measurements.
- Stable with Temperature Compensation: Built-in temperature compensation effectively reduces the impact of environmental temperature changes, ensuring consistent and accurate readings.
- Wide Range and Strong Adaptability: Unaffected by object color, transparency, lighting, dust, or fog, capable of reliable detection across diverse conditions.
- IP67 Durable Design: Integrated stainless steel housing offers corrosion resistance and waterproof, dustproof protection, with a high-quality heat-resistant ABS probe tip, ideal for long-term use in harsh industrial environments.
- Safe and Reliable: Equipped with reverse polarity and transient overvoltage protection circuits, minimizing electrical risks during installation and operation, and enhancing overall system safety.
Dimension
Wiring Diagram
Tips: How do ultrasonic sensors measure distance?
Ultrasonic sensors rely on high-frequency sound waves to achieve precise distance measurement. During operation, the sensor first emits ultrasonic pulses toward the detection direction. When the sound waves encounter the target object during propagation, they reflect back as echoes and are received by the sensor. The sensor then calculates the actual distance by precisely measuring the time difference between the emitted and received echoes. Translated with DeepL.com (free version). To improve accuracy, many ultrasonic sensors incorporate temperature compensation, as the speed of sound varies with ambient temperature.The sensor then calculates the distance by measuring the time it takes for the echo to return. Since the speed of sound in air is known, the distance is determined using the formula:
Distance = (Speed of Sound × Echo Time) ÷ 2
Because this method does not rely on light, ultrasonic sensors can reliably measure distance regardless of object color, transparency, or lighting conditions, making them well-suited for industrial automation, level measurement, obstacle detection, and positioning applications.
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