Introduction
In industrial settings where precision airflow measurement at high temperatures is critical, the Model 6162 High Temperature Anemometer from Applied Physics Corporation stands as an engineering marvel.
This specialized instrument enables accurate measurement of both air velocity and temperature in environments reaching up to 932°F (500°C), making it indispensable for numerous industrial applications where standard measurement tools would fail.
Understanding the Kanomax 6162 Model
| Feature | Detail |
|---|---|
| Model Name | Kanomax 6162 High Temperature Anemometer |
| Temperature Range | Up to 932°F (500°C) |
| Air Velocity Range | Wide range with high accuracy |
| Applications | Industrial furnaces, drying ovens, HVAC systems, and cleanrooms |
| Sensor Type | Heat-resistant probe with thermocouple integration |
| Display Output | Digital readout can be connected to data loggers or PCs |
| Accuracy | High precision measurement even in extreme conditions |
| Durability | Designed to withstand harsh industrial environments |
| Power Supply | AC-powered or battery-supported (model dependent) |
| Portability | Compact and lightweight for field use |
Key Features and Capabilities
Superior Temperature Range and Measurement Accuracy
- Air velocity and temperature simultaneously up to 500°C (932°F).
- Velocity measurements are accurate to ±3% of the reading.
- Temperature measurements are accurate to ±1% of the reading.
- Air velocity ranges from 40 to 9840 fpm (0.2 to 50.0 m/s).
Versatile Probe Options
- Mid-Temperature Probe (Model 0203): Designed for environments up to 200°C (392°F).
- High-Temperature Probe (Model 0204): Engineered for extreme conditions up to 500°C (932°F).
Both probes feature Teflon coating with appropriate heat resistance ratings, ensuring reliable performance even in the most demanding conditions.
Advanced Technology and Usability Features
The 6162 Series incorporates sophisticated technology to ensure accuracy and ease of use:
- Temperature compensation circuitry ensures accurate readings in fluctuating temperatures
- Secondary temperature compensation circuit for quick response time
- Storage capacity of up to 999 measurements
- Graphical display for easy review of historical data
- RS232C interface for data transfer
- Analog output and remote control capabilities
- Smart probe technology that allows easy interchange between different probes.
Critical Industrial Applications
Drying Process Control
- Precise monitoring of airflow applying heat through convection.
- Accurate control of the drying environment to prevent product damage.
- Consistent quality in products like dehydrated foods, pharmaceuticals, and electronic components.
Without proper airflow monitoring, materials can be rendered useless through uneven drying, potentially causing:
- Warping or distortion in manufacturing
- Inconsistent quality in food products
- Compromised integrity in pharmaceutical compounds.
Forming Process Control
For precision manufacturing involving heat-forming processes, the Model 6162 provides:
- Consistent measurement of evenly distributed airflow
- Prevention of warps, cracks, and imperfections in finished products
- Critical data for manufacturing carbon fiber and polymer-based products.
This application is especially crucial in industries where imperfections result in significant manufacturing losses and rejected products.
Exhaust Air Measurement
- Monitoring of gases expelled during combustion or boiling processes
- Adjustment of exhaust systems to prevent equipment damage
- Compliance with environmental regulations by optimizing exhaust flow
- Improved energy efficiency by preventing excessive airflow
- Cleaner combustion through a properly balanced air supply.
Device Performance Testing
- Testing incubators, industrial kilns, and re-flow ovens
- Establishing benchmark performance levels
- Early identification of potential malfunctions
- Quality assurance protocols in high-temperature environments
- Attribution of specific issues to responsible devices or components.
Standards Compliance and Regulatory Applications
- ISO 13579: Energy efficiency testing for industrial furnaces and associated equipment
- NFPA 86: Safety standards for ovens and furnaces.
These capabilities make the 6162 an essential tool for facilities needing to demonstrate regulatory compliance while maintaining operational efficiency.
How Does the Kanomax 6162 Measure Air Velocity?
1. Thermal Anemometer Technology
The Kanomax 6162 uses thermal anemometer technology, which measures the changes in air temperature to determine the air velocity.
2. Heat Transfer Method
The sensor on the probe is heated, and the temperature change due to the air velocity is used to calculate the air speed. The faster the air moves, the greater the heat transfer, indicating higher air velocity.
3. Interchangeable Probes
This model utilizes interchangeable probes, which are optimized for specific conditions like temperature or airflow range. This enhances measurement accuracy.
4. Real-Time Digital Readout
The air velocity data is shown in real-time on a digital display, ensuring accurate measurements of airflow velocity.
5. Wide Velocity Range
The Kanomax 6162 has a wide range for measuring air velocity, covering both low and high velocity readings.
6. Integrated Temperature Measurement
Temperature is also crucial to accurately measuring air velocity. The Kanomax 6162 simultaneously measures temperature, which helps in calculating the air velocity more accurately.
7. Calibrated Sensor
The pre-calibrated sensor ensures precise and accurate readings, even in extreme conditions.
Technical Specifications
Main Unit Specifications
| Specification | Details |
|---|---|
| Analog Output | DC 0 to 1V |
| Interface | RS-232C / Printer |
| Input Function | Remote Start/Stop Function |
| Datalogging Capacity | Stores up to 999 Measurements |
| Power Supply | 6 × 1.5V C Cells or AC Adapter (100 to 240V) |
| Operating Environment | 41–104°F (5–40°C) |
| Storage Environment | 14–122°F (-10 to 50°C), No Condensation |
| Dimensions | 8.7″ × 5.9″ × 3.3″ (220 × 150 × 85 mm) |
| Weight | 3.9 lbs (1.8 kg) |
Probe Specifications
Model 0203 (Mid-Temperature)
- Temperature Range: 32 to 392°F
- Air Velocity Range:
- 32 to 212°F: 40 to 9840 fpm (0.2 to 50.0 m/s)
- 212 to 392°F: 80 to 9840 fpm (0.4 to 50.0 m/s)
- Dimensions/Weight: Ø 11 × 200mm (Ø 0.4″ × 7.8″), 0.4 lbs (200 g).
Model 0204 (High-Temperature)
- Temperature Range: 32 to 932°F
- Air Velocity Range:
- 392 to 572°F: 138 to 9840 fpm (0.7 to 50.0 m/s)
- 572 to 752°F: 197 to 9840 fpm (1.0 to 50.0 m/s)
- Dimensions/Weight: Ø 14 × 1000mm (Ø 0.6″ × 39.4″), 1.1 lbs (500 g).
The Value Proposition: Why Choose the 6162 Series
1. Accuracy in Extreme Environment:
Where standard instruments fail, the 6162 continues to provide reliable measurements.
2. Versatility Across Applications:
From food processing to industrial furnaces, one system covers multiple needs.
3. Regulatory Compliance:
Built specifically to support ISO 13579 and NFPA 86 testing requirements.
4. Data Management:
Comprehensive storage and export capabilities for analysis and documentation.
5. Quality Assurance:
Comes standard with a NIST traceable calibration certificate.
6. Long-Term Reliability:
Robust construction designed for industrial environments.
Conclusion
High Temperature Anemometer 6162 Series is an advanced and reliable device designed to accurately measure air velocity in various industrial environments. This tool is particularly useful in places where temperatures are extremely high. Its durability, accuracy, and easy interface make it an excellent choice for industrial use.
FAQs
1. Up to what temperature can the High Temperature Anemometer 6162 operate?
This anemometer can effectively operate in high temperature environments, from 0°C up to 600°C (depending on the model).
2. How easy is this device to use?
Its user-friendly interface and digital display make it easy to use, even for people who don't have a technical background.
3. Does this anemometer only measure air velocity?
No, some models can also measure airflow and temperature.
4. What material is the sensor made of?
The sensor is made of high-quality heat-resistant materials to provide accurate results even in extreme conditions
5. What is the maintenance process like?
Maintenance is simple – the device provides the best performance with just regular calibration and sensor cleaning.