AccuMEMS GT14S

The main difference between our Handheld, Pocket, and Plug-in Series is the product design and usage experience. All of them use infrared thermal sensors, but they are integrated into different form factors to meet different application needs.

• Handheld Series: Designed for professional inspection and field applications, offering a comfortable grip and convenient operation.
  
• Pocket Series: Compact and portable, ideal for users who need a lightweight thermal camera that can be carried anywhere.
  
• Plug-in Series: Designed to work with smartphones, providing a simple and flexible thermal imaging solution.
  

The choice mainly depends on your preferred form factor, working environment, and application scenario. Each series provides reliable thermal imaging performance with different levels of portability and convenience.

Thermal imaging cameras can detect temperature differences on the surface of objects, making them useful in many professional and daily applications.

Common applications include:

• Electrical inspection: Detect overheating components, loose connections, and abnormal heat patterns.
  
• HVAC inspection: Check air conditioning systems, heating systems, insulation performance, and energy loss.
  
• Home inspection: Identify insulation problems, air leakage, moisture issues, and abnormal temperature areas.
  
• Automotive diagnostics: Detect engine overheating, battery temperature differences, and mechanical issues.
  
• Electronics inspection: Analyze heat distribution of circuit boards and electronic components.
  
• DIY projects: Assist with home maintenance, renovation, and troubleshooting.
  

The actual detection capability depends on the thermal sensor resolution, temperature accuracy, and your specific application requirements.

Yes, thermal imaging can assist in detecting potential water leak areas.

Water leakage often causes temperature changes on surrounding surfaces due to evaporation, moisture accumulation, or differences in thermal conductivity. A thermal camera can visualize these temperature variations and help locate areas that require further inspection.

Please note that thermal cameras detect temperature differences caused by moisture, not the water itself. For accurate diagnosis, additional inspection methods may sometimes be required.

Yes. Thermal cameras can help identify air leakage around windows, doors, and building structures.

When outside air enters through gaps or poor insulation areas, it creates temperature differences on the surface. These abnormal temperature patterns can be captured by a thermal imaging camera, helping you locate potential leakage points.

No. Thermal imagers cannot penetrate walls or floors like X-ray machines. They can only detect heat emitted from the surface of an object. However, in certain cases, the thermal imager can detect anomalies inside walls or floors, such as water pipe leakage or heat loss due to poor insulation. This is because the thermal imager can capture the heat conducted to the surface of the wall or floor. If the pipe has no contact with the wall or ground, the temperature cannot be conducted, and the thermal imager cannot detect it.

Principle

The temperature distribution on the thermal
image is based on the color of the image. The temperature range in the picture
affects the image effect.

Method

1. When the actual temperature difference of the target in the image is
higher than 10 °C or 20 °C, the thermal effect is most obvious, which helps to
highlight the subtle temperature difference.

2. When the temperature difference of the target in the image is small,
you can manually adjust the temperature range of the whole picture to increase
the contrast of the target.

3. It is recommended that the distance between the imager and the
target should be within 2 meters (about 6.56 feet). Adjust the distance to
ensure clear focus, especially for small targets.

4. Enable Picture-In-Picture or Fusion Pattern to add visual details
(if applicable).

5. Select an appropriate pallet for the scene to get an image with high
contrast.

The temperature accuracy depends on the specific model, measurement distance, environmental conditions, and surface characteristics.

For best results:

• Keep an appropriate distance from the target.
  
• Avoid measuring through reflective surfaces.
  
• Adjust emissivity settings when necessary.
  
• Consider environmental factors such as airflow and surrounding temperature.

Tips

1. Pour crushed ice and water into the cup, and turn on the imager.

2. Mix the solution and let it stand for a few minutes.

3. Set the imager's emissivity to 0.95 and adjust the distance.

4. Point the imager at the solution to measure its temperature. To get
the best effect, please measure the temperature of water surface and avoid
measuring cup wall. The reading should be close to the freezing point (0 °C /
32 °F) and within the precision range.

Yes.

Different materials have different emissivity values, which affect how infrared radiation is emitted and measured.

For more accurate temperature measurements, the emissivity setting may need to be adjusted depending on the surface material. Materials such as metal, plastic, glass, and painted surfaces may require different settings for optimal results.