To Next PageTo Next PageHow to fix FLIR Thermal camera when LCD displays no image?
If the LCD or viewfinder on your FLIR Thermal camera displays no image, try the following: * Ensure the camera is switched on by pressing the ON/OFF button. * Check the remote control cable connection. * Make sure a charged battery is inserted, or charge the existing one. * If using a power supply, verify all cable connections are secure.
Why is the infrared image blurry on my FLIR Thermal camera?
If your FLIR Thermal camera's LCD or viewfinder shows a blurry infrared image, try focusing the camera by pressing and holding the A button. If that doesn't work, adjust the ocular diopter using the adjustment knob on the viewfinder's bottom side.
How to improve poor image quality on FLIR Thermal camera?
If the LCD/viewfinder of your FLIR Thermal camera displays an image of poor quality, you may need to adjust the level, span or range. You can also try autoadjusting the camera or changing the palette.
What to do if visual image is blurry on FLIR Thermal camera?
If the LCD or viewfinder on your FLIR Thermal camera shows a blurry visual image, focus the visual camera by rotating the focus ring.
Why is the image on my FLIR Thermal camera LCD so dim?
If the LCD or viewfinder of your FLIR Thermal camera displays an image with low illumination, adjust the LCD illumination settings.
What to do if no image appears on external video monitor when connecting FLIR Thermal camera?
If your FLIR Thermal camera isn't displaying an image on an external video monitor, first ensure the video cable is properly connected to both the camera and the monitor. Also, verify that the video format (PAL or NTSC) is compatible with your monitor; if they differ, change the video format on the camera.
How to fix 'not enough space' issue on FLIR Thermal camera?
If you can't store any more images on your FLIR Thermal camera, it might be because the internal flash memory or the CompactFlash card is full. Download the images to your computer using ThermaCAM™QuickView or replace the card with an empty one.
General| Temperature Range | -20°C to +350°C (-4°F to +662°F) |
|---|---|
| Image Frequency | 9 Hz |
| Display | 3.5 in. color LCD |
| Weight | 0.88 kg (1.94 lb.) |
| Focus | Manual |
| Spectral Range | 8 - 14 µm |
| Digital Camera | No |
| Laser Pointer | No |
| Image Storage | SD card |
| Thermal Sensitivity | < 0.1°C at +30°C (+86°F) |
| Thermal Sensitivity/NETD | < 0.1°C at +30°C (+86°F) |
| Accuracy | ±2°C or ±2% of reading |
| Detector Type | Uncooled microbolometer |
| Battery Type | Li-Ion |
| Operating Temperature | -15°C to +50°C (+5°F to +122°F) |
| Storage Temperature | -40°C to +70°C (-40°F to +158°F) |
Information about FLIR Systems' history and achievements in the IR industry.
Visuals showcasing FLIR Systems' development and manufacturing processes.
Feedback channel for reporting errors and suggesting improvements for the manual.
Identification and explanation of the camera's front connectors.
Identification and explanation of the camera's rear connectors.
Notes on manual applicability and country-specific electrical regulations.
Overview of thermography as an inspection technique for electrical installations.
Guidance on setting up the camera for accurate temperature measurement.
Structure and considerations for creating professional thermographic inspection reports.
Identification and analysis of common hot spot causes in electrical systems.
Factors affecting measurement accuracy, such as wind, rain, and object distance.
Tips for effective camera use, including temperature compensation and emissivity.
Step-by-step instructions for powering the camera on and off.
Procedures for capturing, managing, and organizing thermal images.
How to add and adjust measurement tools like isotherms for analysis.
Adjusting image brightness, contrast, and temperature range.
Configuring camera settings for language, units, date, and time.
Guidance on mounting lenses, focusing, zoom, and battery management.
Identification of the main physical components of the camera.
Explanation of each button's function and operation on the camera keypad.
Details on how the autofocus feature works and its limitations.
Information displayed on the camera's status LCD screen.
Functionality and usage guidelines for the integrated laser pointer.
Explanation of elements displayed on the camera screen like result tables and status bars.
How to navigate through the camera's menu system using the joystick.
Accessing and managing image files and folders via the file menu.
Features for analyzing thermal images, including spots and isotherms.
Options for adjusting image display, such as freeze/live, range, and palette.
Camera configuration settings for image, save, power, and local options.
Instructions for charging the camera's battery internally.
How to use the external battery charger and interpret LED indicators.
Crucial safety precautions for handling and charging camera batteries.
Proper procedure for connecting and disconnecting LEMO connectors on camera cables.
Guidelines for cleaning the camera body, cables, and accessories.
Instructions and precautions for cleaning camera lenses.
Key specifications related to the camera's image capture capabilities.
Details on the camera's focal plane array (FPA) detector.
Information on the built-in viewfinder and its display capabilities.
Information on available temperature measurement ranges.
Parameters used for correcting thermal measurements, such as emissivity.
Technical specifications for the Laser LocatIR feature.
Electrical specifications including battery type, AC operation, and voltage.
Operating and storage conditions, humidity, shock, and vibration resistance.
Camera and battery weight, and dimensions for different camera types.
Details on computer interfaces, power input, CVBS, and storage media.
Pinout configurations for various camera connectors.
Tables detailing fields of view for various lenses and distances.
Basic principles of infrared camera measurements and required parameters.
Methods for determining the emissivity of a material for accurate readings.
Compensating for radiation reflected by the object's surface.
How object distance affects measurements due to atmospheric absorption.
Compensating for atmospheric transmittance based on relative humidity.
Additional parameters for measurement compensation like atmospheric temperature.
Introduction to infrared radiation and the principles of thermography.
Explanation of the electromagnetic spectrum and the infrared band.
Principles of blackbody radiation including Planck's, Wien's, and Stefan-Boltzmann's laws.
Analysis of emissivity for semi-transparent materials and opaque surfaces.
Schematic representation and derivation of the thermographic measurement formula.
List of sources for emissivity data used in the tables.
Guidance on using the provided emissivity values, caution advised.
Compilation of emissivity data for various materials and conditions.
