FLIR GF7x‎ series

User’s manual

FLIR GF7x‎ series

 

1  Disclaimers

1.1  Legal disclaimer

For warranty terms, refer to https://www.flir.com/warranty.

1.2  Export controls

Products described herein may be subject to export regulations.
This document does not contain export-controlled information.

1.3  Patents

This product is protected by patents, design patents, patents pending, or design patents pending. Refer to the FLIR Systems’ patent registry:
https://www.flir.com/patentnotices

1.4  Quality assurance

The Quality Management System under which these products are developed and manufactured has been certified in accordance with the ISO 9001 standard.
FLIR Systems is committed to a policy of continuous development; therefore we reserve the right to make changes and improvements on any of the products without prior notice.

1.5  Third-party licenses

Information about third-party licenses is available in the user interface of the product.

1.6  Usage statistics

FLIR Systems reserves the right to gather anonymous usage statistics to help maintain and improve the quality of our software and services.

1.7  Copyright

© 2023 FLIR Systems, Inc. All rights reserved worldwide. No parts of the software including source code may be reproduced, transmitted, transcribed or translated into any language or computer language in any form or by any means, electronic, magnetic, optical, manual or otherwise, without the prior written permission of FLIR Systems.
The documentation must not, in whole or part, be copied, photocopied, reproduced, translated or transmitted to any electronic medium or machine readable form without prior consent, in writing, from FLIR Systems.
Names and marks appearing on the products herein are either registered trademarks or trademarks of FLIR Systems and/or its subsidiaries. All other trademarks, trade names or company names referenced herein are used for identification only and are the property of their respective owners.

2  Safety information

3  Notice to user

3.1  Online documentation

Our manuals are continuously updated and published online.
To access the FLIR GF7x series user manual and other product documentation, go to http://support.flir.com/resources/42vu.
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To access the manuals for our other products, as well as manuals for our discontinued products, go to https://support.flir.com/resources/app.

3.2  Register your camera

Register your camera to receive an extended warranty and other related benefits.
To register the camera, go to .
To access the registration form, you must log in to your FLIR account or sign up for a new account.
You will also need the serial number of your camera. The serial number is displayed by the registration wizard in the camera.
To start the registration wizard, turn on the camera and select Settings > Device settings > Camera information > Register camera.
To complete the registration, you must enter a verification code into the camera. The code is available in your FLIR account, under My Products.

3.3  Accuracy

For very accurate results, we recommend that you wait 5 minutes after you have started the camera before measuring a temperature.

3.4  Calibration

Gas detection: no re-calibration recommendation. The ability to detect gases is not influenced by the calibration and will not degrade over time.
Temperature measurement: annual re-calibration recommended. Contact your local sales office for instructions on where to send the camera.

3.5  Training

For training resources and courses, go to https://www.flir.com/support-center/training.

3.6  Important note about this manual

FLIR Systems issues generic manuals that cover several cameras within a model line.
This means that this manual may contain descriptions and explanations that do not apply to your particular camera model.

3.7  Note about authoritative versions

The authoritative version of this publication is English. In the event of divergences due to translation errors, the English text has precedence. Any late changes are first implemented in English.

3.8  Disposal of electronic waste

Electrical and electronic equipment (EEE) contains materials, components and substances that may be hazardous and present a risk to human health and the environment when waste electrical and electronic equipment (WEEE) is not handled correctly.
Equipment marked with the below crossed-out wheeled bin is electrical and electronic equipment. The crossed-out wheeled bin symbol indicates that waste electrical and electronic equipment should not be discarded together with unseparated household waste, but must be collected separately.
For this purpose all local authorities have established collection schemes under which residents can dispose waste electrical and electronic equipment at a recycling centre or other collection points, or WEEE will be collected directly from households. More detailed information is available from the technical administration of the relevant local authority.
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4  Customer help

4.1  General

Do not hesitate to contact our Customer Support Center if you experience problems or have any questions.
For customer help, go to http://support.flir.com.

4.2  Submitting a question

To submit a question to the customer help team, you must be a registered user. It only takes a few minutes to register online. If you only want to search the knowledgebase for existing questions and answers, you do not need to be a registered user.
When you want to submit a question, make sure that you have the following information to hand:
  • The camera model.
  • The camera serial number.
  • The communication protocol, or method, between the camera and your device (e.g., SD card reader, HDMI, Ethernet, USB, or FireWire).
  • Device type (PC/Mac/iPhone/iPad/Android device, etc.).
  • Version of any programs from FLIR Systems.
  • Full name, publication number, and revision number of the manual.

4.3  Downloads

On the customer help site you can also download the following, when applicable for the product:
  • Firmware updates for your infrared camera.
  • Program updates for your PC/Mac software.
  • Freeware and evaluation versions of PC/Mac software.
  • User documentation for current, obsolete, and historical products.
  • Mechanical drawings (in *.dxf and *.pdf format).
  • CAD data models (in *.stp format).
  • Application examples.
  • Technical datasheets.

5  Important note about training and applications

5.1  General

Infrared inspection of gas leaks, furnaces, and high-temperature applications—including infrared image and other data acquisition, analysis, diagnosis, prognosis, and reporting—is a highly advanced skill. It requires professional knowledge of thermography and its applications, and is, in some countries, subject to certification and legislation.
Consequently, we strongly recommend that you seek the necessary training before carrying out inspections. Please visit the following site for more information:

6  Introduction

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6.1  FLIR GF77‎

The FLIR GF77 is an uncooled infrared camera that both visualizes gas emissions and measures temperature accurately to diagnose electrical and mechanical faults. The FLIR GF77 features multiple swappable lens options, LR and HR which are spectrally filtered from 7-8.5 and 9.5-12 μm respectively, to visualize gases of interest and are easily interchangeable in the field. You can scan components quickly, focusing on problem areas and finding small leaks that you might miss with a traditional TVA (Toxic Vapor Analyzer) or “sniffer”.
Efficient leak detection and repair (LDAR) will help protect the environment while avoiding product losses and ensuring a safer work environment.
    The FLIR GF77 is ideal for:
  • Industrial plants.
  • Renewable energy producers.
  • Natural gas power plants.
  • Locations along the natural gas supply chain.
  • Liquid natural gas (LNG) terminals and storage.
  • Power and utility industry for SF6 and CH4 gas.
  • Chemical industry for ethylene and other compounds.
  • Food and Agriculture industry for ammonia.
  • First responder market for all above.
  • Temperature measurement inspections for all of the above.

6.1.1  Key features

  • Gas-specific spectral filtering
    Use the LR lens for visualizing CH4, N2O, C3H8, SO2, R-134a, and R-152a.
    Use the HR lens for visualizing SF6, NH3, and C2H4 (ethylene).
  • Combined gas and temperature measuring features
    Perform your gas leak survey as well as thermography inspection using the same lens while also choosing the right temperature range for your environment.
  • One-touch contrast enhancement
    A quick tap on the screen automatically improves the contrast between the gas and the background scene.
  • Accentuated plume movement
    Easily toggle on/off High Sensitivity Mode (HSM) to highlight plume movement for increased gas detectability.
  • Award-winning ergonomic design
    Based on the FLIR T-series platform, the FLIR GF77 offers a 180° rotating optical block, vibrant touchscreen LCD, and eyepiece for ease of use in direct sunlight.
  • Streamlined reporting features
    Organize your findings in the field using the built-in voice annotation, GPS tagging, customizable work folders, and Wi-Fi connections for video streaming or sharing.

6.2  Gas leak example images

This section contains gas leak example images from various applications.
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7  Quick start guide

7.1  Starting the camera for the first time

7.2  Detecting a gas leak

7.3  Measuring a temperature

8  Camera overview

8.1  View from the rear

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8.2  View from the front

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8.3  View from the bottom

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8.4  Lenses

The FLIR GF77 has the following lens options: 25° LR (7.0–8.5 μm), 25° HR (9.5–12 μm), 6° LR (7.0–8.5 μm), and 6° LR (9.5–12 μm). The waveband is printed on the front of the lens and on a colored field inside the lens; red for LR and green for HR.
The 6° lenses cover the digital camera, laser, and camera lamp. For that reason, all functionality that relies on the digital camera, laser, or camera lamp is disabled.

8.5  Laser distance meter and laser pointer

The laser distance meter consists of a laser transmitter and a laser receiver. The laser transmitter also works as a laser pointer.

8.5.1  Laser transmitter and receiver

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8.5.2  Difference in position

This figure shows the difference in position between the laser transmitter and the optical center of the infrared lens. The laser transmitter and the optical axis are parallel.
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8.5.3  Laser warning label

A laser warning label with the following information is attached to the camera:
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8.5.4  Laser rules and regulations

Wavelength: 650 nm. Maximum output power: 1 mW.
This product complies with 21 CFR 1040.10 and 1040.11 except for deviations pursuant to Laser Notice No. 50, dated June 24, 2007.

8.6  Viewfinder and display

By means of a sensor, the camera will register when you look into the viewfinder and then automatically turn off the display. This behavior can be changed by a setting. Select icon (Settings) > Device settings > Display settings > Active display. For more information, see section 23.6 Device settings.

8.7  Screen elements

8.7.1  General

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8.7.2  Menu system

To display the menu system, push the navigation pad or tap the menu system button Graphic.
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8.7.3  Soft buttons

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8.7.4  Status icons and indicators

icon
Battery level
  • Green: above 75%
  • Yellow: up to 75%
  • Red: up to 25%
  • No color: below 15%
icon
The remaining storage capacity of the memory card is below 100 MB.
icon
The GPS is enabled.
If the icon is grey, the camera cannot find a GPS signal.
icon
External infrared window compensation is enabled.
icon
icon
The camera is paired with a FLIR Ignite account.
The camera is paired, but does not have contact with FLIR Ignite (no internet connection).
icon
A Bluetooth headset is connected.
icon
The laser is on.

8.7.5  Swipe-down menu

To open the swipe-down menu, place your finger at the top of the screen and swipe down.
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8.7.6  Image overlay

The camera saves image information such as date, time, and items related to temperature measurements to the image file. This image information can be viewed in the image archive. You can also choose to display selected image information items, and also lens information, as an overlay on the image. All image overlay information displayed on the live image will also be displayed on saved images in the image archive. For more information, see sections section 23.6 Device settings and 10.9 Hiding all overlay.
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8.8  Navigating the menu system

    You can navigate the menu system in two ways:
  • Using your finger or a stylus pen specially designed for capacitive touch usage.
  • Using the navigation pad and the back button icon.
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8.8.1  Navigating using the navigation pad

You navigate the menu system by using the navigation pad and the back button:
  • To display the menu system, push the center of the navigation pad.
  • To navigate in menus, submenus, and dialog boxes, and to change values in dialog boxes, push the navigation pad up/down or left/right.
  • To confirm changes and settings in menus and dialog boxes, push the center of the navigation pad.
  • To leave dialog boxes and to go back in the menu system, push the back button icon.

9  Detecting a gas leak

9.1  General

Full gas detection functionality, including High Sensitivity Mode (HSM) (see section 9.4 Enhancing the image using High Sensitivity Mode (HSM)), is available when the camera is set to Gas detection mode.
You can use the camera to also detect gas in Temperature measurements mode. With this setting, however, High Sensitivity Mode is not available.

9.2  Basic steps to gas detection

  • First adjust the focus. If the camera is out of focus, there is a risk of missing a gas leak.
  • The key to making the gas visible is enhancing the temperature difference between the gas cloud and the background. To obtain optimal contrast, try to find a suitable background by aiming the camera toward the target from different angles.
  • Motion of the gas, e.g., caused by wind, makes the gas cloud easier to see.
  • Using High Sensitivity Mode (HSM) can improve the detection of gas leaks, especially when they are small or low in concentration.
  • The camera automatically adjusts the temperature scale. Use this mode first, but do not hesitate to set the scale manually. By centering on the temperatures around the background of the gas, you can make the gas appear more clearly.
  • Selecting a different color palette can make it easier to see the gas cloud.

9.3  Adjusting the camera focus

It is very important to adjust the focus correctly. If the camera is out of focus, there is risk of missing a gas leak.

9.3.1  Manual focus

You can adjust the focus manually by rotating the focus ring. For more information, see section 21.4.1 Manual focus.

9.3.2  Autofocus

You can autofocus the infrared camera by pushing the Autofocus button. For more information, see section 21.4.2 Autofocus.

9.3.3  Continuous autofocus

The infrared camera can be set up to perform continuous autofocusing. For more information, see section 21.4.3 Continuous autofocus.

9.4  Enhancing the image using High Sensitivity Mode (HSM)

9.4.1  General

High Sensitivity Mode (HSM) is an adjustment method specifically designed for gas detection applications. By enhancing the thermal sensitivity of the camera, HSM can improve the detection of gas leaks, especially when they are small or low in concentration.
One feature of HSM mode is to make motion, such as moving gas, more visible in the image. This is achieved by an image-subtraction video-processing technique. This HSM feature subtracts a percentage of individual pixel signals from frames in the video stream from subsequent frames, thus enhancing the differences between frames, which makes a moving gas cloud stand out more clearly in the resulting images.

9.4.2  Procedure

To enable High Sensitivity Mode (HSM), do the following:

9.5  Adjusting the temperature scale

By default, the camera continuously adjusts the image for the best image presentation. Use this automatic mode first, but do not hesitate to adjust the temperature scale of the infrared image manually. For more information, see section 11 Infrared image adjustment.

To adjust the temperature scale, do the following:

9.6  Changing the color palettes

You can change the color palette that the camera uses to display different temperatures. A different palette can make it easier to see a gas cloud. For more information, see section 12 Color palettes.

To change the color palette, do the following:

9.7  General instrument check

The following general instrument check process ensures that the camera can detect the intended gas compounds with the same sensitivity as when originally manufactured.

10  Measuring temperatures

10.1  General

To measure a temperature, you can use one or more measurement tools, e.g., a spotmeter or a box. For more information, see section 18 Working with measurement tools.
By using color alarms (isotherms), temperature anomalies can easily be discovered in an infrared image. For more information, see section 19 Working with color alarms and isotherms.

10.2  Achieving a good image

A good image depends on several different functions and settings, although some functions and settings affect the image more than others.
These are the functions and settings that you need to experiment with:
  • Adjusting the infrared camera focus.
  • Adjusting the infrared image (automatically or manually).
  • Selecting a suitable temperature range.
  • Selecting a suitable color palette.
  • Changing the measurement parameters.
  • Performing a non-uniformity correction (NUC).
  • In some situations, you may also want to hide the camera overlay for a better view.

10.2.1  To keep in mind

  • A thermal camera has a resolution limit. This depends on the size of the detector, the lens, and the distance to the target. Use the center of the spot tool as a guide to the minimum possible object size, and get closer if necessary. Make sure to stay away from dangerous areas and live electrical components.
  • Be careful when holding the camera perpendicular to the target. Be observant of reflections, especially at low emissivities—you, the camera, or the surroundings may become the main source of reflection.
  • Select a zone of high emissivity, e.g., an area with a matte surface, to perform a measurement.
  • Blank objects, i.e., those with low emissivities, may appear warm or cold in the camera, because they mainly reflect the environment.
  • Avoid direct sunlight on the details that you are inspecting.
  • Various types of faults, e.g., those in a building’s construction, may result in the same type of thermal pattern.
  • Correctly analyzing an infrared image requires professional knowledge about the application.

10.3  Adjusting the camera focus

It is very important to adjust the focus correctly. Incorrect focus adjustment affects how the image modes work. It also affects the temperature measurement.

10.3.1  Manual focus

You can adjust the focus manually by rotating the focus ring. For more information, see section 21.4.1 Manual focus.

10.3.2  Autofocus

You can autofocus the infrared camera by pushing the Autofocus button. For more information, see section 21.4.2 Autofocus.

10.3.3  Continuous autofocus

The infrared camera can be set up to perform continuous autofocusing. For more information, see section 21.4.3 Continuous autofocus.

10.4  Adjusting the temperature scale

By default, the camera continuously adjusts the image for the best image presentation. Use this automatic mode first, but do not hesitate to adjust the temperature scale of the infrared image manually. For more information, see section 11 Infrared image adjustment.

To adjust the temperature scale, do the following:

10.5  Changing the camera temperature range

10.5.1  General

The camera is calibrated for different temperature ranges. Available temperature range options are dependent on the camera model.
For accurate temperature measurements, you must change the Camera temperature range setting to suit the expected temperature of the object you are inspecting.

10.5.2  Procedure

Follow this procedure:

10.6  Changing the color palettes

You can change the color palette that the camera uses to display different temperatures. A different palette can make it easier to analyze an image. For more information, see section 12 Color palettes.

To change the color palette, do the following:

10.7  Changing the measurement parameters

For accurate measurements, it is important to set the measurement parameters:
  • Emissivity.
  • Reflected temperature.
  • Object distance.
  • Atmospheric temperature.
  • Relative humidity.
  • External IR window compensation.
Emissivity is the most important measurement parameter to set correctly. If the Emissivity is set to a low value, the Reflected temperature also becomes important. The parameters Object distance, Atmospheric temperature, and Relative humidity are relevant for longer distances. The External IR window compensation must be activated if a protective window or external lens is used.
You can set the measurement parameters globally. You can also change the Emissivity, Reflected temperature, and Object distance parameters locally for a measurement tool.
For more information, see section 18.5 Changing the measurement parameters.

10.8  Non-uniformity correction (NUC)

10.8.1  General

When the thermal camera displays Calibrating... it is performing what in thermography is called a ”non-uniformity correction” (NUC). An NUC is an image correction carried out by the camera software to compensate for different sensitivities of detector elements and other optical and geometrical disturbances4. For more information, see section 31 About calibration.
An NUC is performed automatically, for example at start-up, when changing a measurement range, or when the environment temperature changes.
You can also perform an NUC manually. This is useful when you have to perform a critical measurement with as little image disturbance as possible. You may, for example, want to perform a manual calibration just before you start recording a video sequence.

10.8.2  Performing an NUC manually

10.9  Hiding all overlay

The camera overlay consists of overlay graphics and image overlay information. The overlay graphics include items such as measurement tool symbols, result tables, and status icons. The image overlay information, which you activate on the Settings menu, provides additional information such as the date, time, and items related to temperature measurements. For more information, see section 8.7.6 Image overlay.
You can hide all camera overlay by touching the soft button icon.

11  Infrared image adjustment

11.1  General

An infrared image can be adjusted automatically or manually.
In automatic mode, the camera continuously adjusts the level and span for the best image presentation, using one of the following color distribution methods:
  • Histogram: The colors are distributed based on the thermal content of the image.
  • Linear: The colors are distributed evenly from the lowest to the highest temperature.
The color distribution method for the automatic mode is configured by a setting. Select icon (Settings) > Device settings > User interface options > Auto adjustment method.
By using the Auto adjustment region feature it is possible to select an area of the image, and then have the colorization of the image adjusted based on the temperatures within that selected area. For more information, see section 11.3 Auto adjustment region.
In manual mode, you can adjust the temperature scale to values close to the temperature of a specific object in the image. This mode lets you center on the temperatures around the background of the gas, to make the gas appear more clearly. When measuring temperatures, manual mode will make it possible to detect anomalies and smaller temperature differences in the part of the image of interest. In manual mode, the colors are distributed evenly from the lowest to the highest temperature (linear color distribution).
In manual mode, you can adjust the image by touching the screen or by using the navigation pad. For more information, see sections 11.4 Manual adjustment by touching the screen and 11.5 Manual adjustment by using the navigation pad.
  • In live mode, touch the soft button icon to switch between automatic and manual image adjustment modes.
  • In preview/edit mode, manual image adjustment mode is active.

11.2  Example

Here are two infrared images of an isolator in a power line. To make it easier to analyze the temperature variations in the isolator, the temperature scale in the right image has been changed to values close to the temperature of the isolator.
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Automatic
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Manual

11.3  Auto adjustment region

When you auto-adjust a thermal image, you adjust it for the best image brightness and contrast. This means that the color information is distributed over the existing temperatures of the image.
In some situations, the image may contain very hot or very cold areas outside your area of interest. In such cases you might want to exclude those areas and use the color information only for the temperatures in your area of interest. You can do so by selecting a smaller auto adjustment region.
Select the auto adjustment region under icon (Settings) > Device settings > User interface options > Auto adjustment region.

11.4  Manual adjustment by touching the screen

11.4.1  General

The touch functionality for manual image adjustments is enabled/disabled by a setting. Select icon (Settings) > Device settings > User interface options > Manual adjustment using touch > On/Off.
When manual image adjustment mode is active, an adjustment wheel is displayed to the right of the temperature scale. (Applicable when the manual adjustment by touch functionality is enabled.)
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Figure 11.1  Manual adjustment mode active

11.4.2  Procedure

11.4.3  Auto-adjusting the image in manual mode

In manual image adjustment mode, you can auto-adjust the image by touching the screen. The image will be auto-adjusted based on the thermal content of the area around the touched point. The top and bottom levels in the temperature scale will be set to the maximum and minimum temperatures in that area. By using the color information only for the relevant temperatures, you will get more details in your area of interest.
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11.4.4  Locking the touch screen

When you have adjusted the image to levels that allow you to study your area of interest, you can lock the touch screen to prevent further unintentional adjustments.
To lock the screen, touch the icon icon to the left of the temperature scale.
To unlock the screen, touch the icon icon to the left of the temperature scale.

11.5  Manual adjustment by using the navigation pad

11.5.1  Manual adjustment modes

There are two different settings for the manual adjustment mode (applicable for the navigation pad only):
  • Level, Span: With this setting, you can manually adjust the level and span by using the navigation pad.
  • Level, Max, Min: With this setting, you can manually adjust the level by using the navigation pad. You can also change the upper and lower temperatures individually.
Select the type of manual image adjustment mode under icon (Settings) > Device settings > User interface options > Manual adjustment mode.

11.5.2  Manual adjustment in Level, Span mode

11.5.3  Manual adjustment in Level, Max, Min mode

12  Color palettes

12.1  General

You can change the color palette that the camera uses to display different temperatures. A different palette can make it easier to see a gas cloud and to analyze an image.
This table explains the different types of color palettes.
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Iron
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Arctic
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Rainbow
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Rainbow high contrast
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White hot
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Black hot
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Lava
 

12.2  Changing the color palettes

13  Image modes

13.1  General

The camera can capture both thermal and visual images at the same time. By choosing the image mode, you select which type of image to display on the screen.
The camera supports the following image modes:
  • Thermal: An infrared image is displayed.
  • Thermal MSX (Multi Spectral Dynamic Imaging): The camera displays an infrared image where the edges of the objects are enhanced with visual image details.
  • Picture in picture: An infrared image frame is displayed on top of the visual image.
  • Digital camera: The visual image captured by the digital camera is displayed.
  • HSM: High Sensitivity Mode (HSM) is an adjustment method specifically designed for gas detection applications. For more information, see section 9.4 Enhancing the image using High Sensitivity Mode (HSM).

13.2  Image examples

This table explains the different types of image modes.

Image mode

Image

Thermal
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Thermal MSX
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Picture in picture
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Digital camera
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13.3  Selecting an image mode

14  Recording modes

14.1  General

    The camera supports the following recording modes:
  • Video: Record and save video clips to the memory card.
  • Single shot: Save images to the memory card.
  • Time-lapse: Program the camera to save images periodically (time-lapse).

14.2  Video recording

14.2.1  General

You can record and save video clips to the memory card.

14.2.2  Procedure

14.3  Single shot

14.3.1  General

You can save images to the memory card.

14.3.2  Procedure

14.4  Time-lapse

14.4.1  General

You can program the camera to save images periodically (time-lapse).

14.4.2  Procedure

15  Working with images

15.1  Saving an image

15.2  Previewing an image

You can preview an image before you save it. This enables you to see if the image contains the information you want before you save it. You can also adjust and edit the image.

To preview an image, do the following:

15.3  Editing an image

You can edit an image in preview mode. You can also edit a saved image in the Gallery, see section 17.3 Editing a saved image.

15.4  Zooming an image

You can zoom an image by using the camera’s digital zoom function. You can do this on live images and on saved images in edit mode.
The digital zoom factor is displayed at the top of the screen.
    To digitally zoom an image, do the following:
  • Zoom in: Touch the screen with two fingers and spread the fingers apart.
  • Zoom out: Touch the screen with two fingers and pinch the fingers together.

15.5  Annotating images

15.5.1  General

You can save additional information with an infrared image by using annotations. Annotations make reporting and post-processing more efficient by providing essential information about the image, e.g., conditions and information about where an image is taken.
Annotations are added to the image file and can be viewed and edited in the camera or in a FLIR Thermography software.
  • You can set the camera to display annotation tools when an image is saved. Select icon (Settings) > Save options & storage > Add annotation after saving.
  • You can also add annotations to a saved image in the image archive.

15.5.2  Adding a note

You can add a text note to the image file. Using this feature, you can annotate images by entering free-form text.

Follow this procedure:

15.5.3  Adding a text comment table

You can save a table with textual information to the image file. This feature is a very efficient way of recording information when you are inspecting a large number of similar objects. The idea behind using a table with textual information is to avoid filling out forms or inspection protocols manually.
The camera ships with an example text comment table template. You can also create your own templates. For more information, see section 15.5.3.1 Creating a text comment table template.

Follow this procedure:

15.5.3.1  Creating a text comment table template

You can create a text comment file manually. You can also create a text comment file using a FLIR Thermography software.
15.5.3.1.1  Manually creating a table template
A text comment file (*.tcf) is an annotation format that is proprietary to FLIR Systems. It defines a table structure that can be used to add text table annotations to FLIR images. You can create text comment files (*.tcf files) and use these files as table templates in the camera.
The camera ships with an example text comment table file: example_text_comment.tcf. The file is stored on the memory card in the subfolder \TextTableTemplates. You can make a copy of the example file and modify it using a text editor such as Microsoft Notepad.
When creating or modifying a text comment file, keep the following rules in mind:
15.5.3.1.1.1  Example mark-up structure
The file format for the text comment table template is *.tcf. This code sample is an example mark-up structure of such a file, and shows how the mark-up appears in a text editor such as Notepad.
<Site>
                                       Company A
                                       Company B
                                       <Location>
                                       Substation A
                                       <Object>
                                       Engine
                                       Vent
                                       Vault
                                       Door
                                       <ObjectID>
                                       A1a1
                                       A1b2
                                       A1c3
                                       <Deviation>
                                       Overload
                                       Moisture
                                       Draft
                                       <Remedy>
                                       Replace
                                       Fix
                                       No action
                                       <Severity>
                                       Critical
                                       Non-critical
                                       <Severity>
                                       
                                    

15.5.4  Adding a voice annotation

A voice annotation is an audio recording that is saved to the infrared image file. The recording can be played back in the camera, and in image analysis and reporting software from FLIR Systems.
The voice annotation is recorded using the built-in microphone. You can also use a Bluetooth-enabled headset. For information on how to pair a headset with the camera, see section 25 Pairing Bluetooth‎ devices.

Follow this procedure:

15.5.5  Adding a sketch

You can add a freehand drawing to an infrared image.

Follow this procedure:

16  Cloud connectivity

FLIR Ignite is a cloud storage service for thermal images. Upload images from your camera and your data will be instantly available across all your devices. With FLIR Ignite you can edit images and create basic reports. You can also share images with colleagues and clients and invite team members to work in the same folder and files.
FLIR Ignite also includes a PC–based application called FLIR Ignite Sync that allows you to sync your image library with your computer. This gives you easy access to images when creating reports in FLIR Thermal Studio or other post-processing software.

16.1  Uploading to FLIR Ignite‎

You can set up the camera to upload images and videos to FLIR Ignite.
If automatic upload is enabled, new images and videos will automatically be uploaded to the FLIR Ignite account. You can also upload images and videos manually from the image archive.
To be able to upload images and videos, you need to connect the camera to the internet and pair the camera with a FLIR Ignite account.

16.2  Connecting to internet

You can connect the camera to the internet via Wi-Fi or Bluetooth.

16.2.1  Connecting to Wi-Fi

You can connect the camera to a Wi-Fi network as part of the initial setup of the camera. You can also connect the camera at any time via the Settings menu.
To connect to Wi-Fi via the Settings menu, do the following:

16.2.2  Connecting via Bluetooth‎

If supported by your mobile phone, you can share the phone’s internet connection with the camera via Bluetooth.

To connect the camera to the internet via your mobile phone, do the following:

16.3  Creating a FLIR Ignite‎ account

To create a FLIR Ignite account, go to https://ignite.flir.com and click Sign up.

16.4  Pairing with FLIR Ignite‎

You can pair the camera as part of the initial setup of the camera. You can also pair the camera at any time via the Settings menu.
To pair the camera via the Settings menu, do the following:

16.5  Automatic upload

You can set up the camera to automatically upload images and videos to your FLIR Ignite account.
When automatic upload is enabled, new images and videos will automatically be uploaded when the camera is connected to the internet and paired with FLIR Ignite.

To enable automatic upload, do the following:

16.6  Manual upload

You can manually upload images, videos, and folders from the image archive when the camera is paired with a FLIR Ignite account and connected to the internet.
You can monitor the upload progress at the top of the image archive.

16.6.1  Uploading an image/video file

16.6.2  Uploading multiple files

16.6.3  Uploading folders

16.7  Accessing FLIR Ignite‎

You can access FLIR Ignite from a browser on your desktop, tablet, or mobile device.
To access FLIR Ignite, go to https://ignite.flir.com .
For more information, refer to the FLIR Ignite user manual.

17  Gallery — video and image archive

17.1  General

When you save a video clip or an image, the camera stores the video/image file in the image archive on the memory card. You can open and play saved video clips in the image archive. You can also open an image and, for example, change the color palette, apply another image mode, and add measurement tools.
In the camera, the image archive is called Gallery. The Gallery can include one or several folders. New video clips and images will be saved to the active folder, at the top of the Gallery. You can create new folders, rename a folder, change the active folder, move files between the folders, and delete folders.

17.1.1  Managing folders via soft button

The soft button icon can be used to open a menu, where you can create new folders and change the active folder.

17.2  Opening image and video files

17.3  Editing a saved image

You can edit a saved image. You can also edit an image in preview mode, see section 15.3 Editing an image.

To edit a saved image, do the following:

17.4  Displaying the image information

The image information consists of date, time, and items related to temperature measurements. When you save an image, the image information is saved in the image file and can be viewed in the image archive (Gallery).

To display the image information, do the following:

17.5  Creating a new folder

17.6  Renaming a folder

You can change the name of the folders in the archive. The active folder cannot be renamed.

To rename a folder, do the following:

17.7  Changing the active folder

New video clips and images are saved to the active folder.

To change the active folder, do the following:

17.8  Moving files between folders

17.9  Uploading files and folders

You can manually upload images, videos, and folders to your FLIR Ignite account when the camera is connected to the internet. For more information, see section 16.6 Manual upload.

17.10  Deleting a folder

You can delete a folder in the archive. The active folder cannot be deleted.

17.11  Deleting a video or image file

You can delete a video or image file from the image archive.

17.12  Deleting multiple files

You can delete multiple video and image files from the image archive.

17.13  Deleting all files

You can delete all video and image files from the memory card.

18  Working with measurement tools

18.1  General

To measure a temperature, you can use one or more measurement tools, e.g., a spotmeter or a box.
Graphic

18.2  Adding/removing measurement tools

Follow this procedure:

18.3  Editing user presets

A user preset is a measurement tool, or a group of measurement tools, with predefined characteristics.

Follow this procedure:

18.4  Moving and resizing a measurement tool

18.4.1  General

You can move and resize a measurement tool.

18.4.2  Moving a spot

Follow this procedure:

18.4.3  Moving and resizing a box or circle tool

Follow this procedure:

18.5  Changing the measurement parameters

18.5.1  General

For accurate measurements, it is important to set the measurement parameters.

18.5.2  Types of parameters

The camera can use these measurement parameters:
  • External IR window compensation, i.e., the temperature of any protective windows, external lenses (e.g., the close-up lens), etc., that are set up between the camera and the object of interest. If no protective window, protective shield, or external lens is used, this value is irrelevant and should be left inactive.
  • Object distance, i.e., the distance between the camera and the object of interest.
  • Atmospheric temperature, i.e., the temperature of the air between the camera and the object of interest.
  • Relative humidity, i.e., the relative humidity of the air between the camera and the object of interest.
  • Reflected temperature, which is used when compensating for the radiation from the surroundings reflected by the object into the camera. This property of the object is called “reflectivity.”
  • Emissivity, i.e., how much radiation an object emits, compared with the radiation of a theoretical reference object at the same temperature (called a “blackbody”). The opposite of emissivity is reflectivity. The emissivity determines how much of the radiation originates from the object as opposed to being reflected by it.
Emissivity is the most important measurement parameter to set correctly. If the Emissivity is set to a low value, the Reflected temperature also becomes important. The parameters Object distance, Atmospheric temperature, and Relative humidity are relevant for longer distances. The External IR window compensation must be activated if a protective window or external lens is used.

18.5.3  Recommended values

If you are unsure about the values, the following are recommended:
Object distance
1.0 m (3.3 ft.)
Atmospheric temperature
20°C (69°F)
Relative humidity
50%
Reflected temperature
20°C (69°F)
Emissivity
0.95

18.5.4  Procedure

You can set the measurement parameters globally. You can also change the Emissivity, Reflected temperature, and Object distance parameters locally for a measurement tool.
Local parameters are normally only effective for a fixed setup, where each measurement tool is set for a specific object of interest. For a general handheld application, the global parameters are usually sufficient.

18.5.4.1  Setting global parameters

Follow this procedure:

18.5.4.2  Changing local parameters

You can change the local parameters for a measurement tool.
A P next to the measurement tool on the screen indicates that local parameters have been activated for the tool.

Follow this procedure:

18.6  Displaying values in the result table

For the box and circle tools, you can set the camera to display the maximum, minimum, average, and area values in the result table.

Follow this procedure:

18.7  Creating and setting up a difference calculation

A difference calculation gives the difference between the values of two known measurement results.

Follow this procedure:

18.8  Setting a measurement alarm

18.8.1  General

You can make the camera trigger an alarm when certain measurement conditions are met.

18.8.2  Types of alarm

You can choose between the following alarm types:
  • Above: Triggers an alarm when the temperature is above the preset alarm temperature.
  • Below: Triggers an alarm when the temperature is below the preset alarm temperature.

18.8.3  Alarm signals

When an alarm is set, the symbol icon is displayed in the result table.
When an alarm is triggered, the value in the result table is displayed in red (above alarm) or blue (below alarm) and the symbol icon (above alarm) or icon(below alarm) is blinking.
You can also set an audible alarm (there will be a “beep” when the alarm is triggered).

18.8.4  Procedure

There are different procedures for setting up an alarm for a spot, for a box or circle, and for a difference calculation.

18.8.4.1  Setting up an alarm for a spot

Follow this procedure:

18.8.4.2  Setting up an alarm for a box or circle

Follow this procedure:

18.8.4.3  Setting up an alarm for a difference calculation

To set up an alarm for a difference calculation, do the following:

19  Working with color alarms and isotherms

19.1  General

Color alarms and isotherms are functions applicable to temperature measurements.
The temperature measurement functionality is enabled by a setting. Select icon ( Settings) > Application options > Gas camera mode > Temperature measurements.

19.2  Color alarms

By using color alarms (isotherms), anomalies can easily be discovered in an infrared image. The isotherm command applies a contrasting color to all pixels with a temperature above, below, or between the set temperature levels. The camera also features isotherm types that are specific to the building trade: condensation and insulation alarms.
You can make the camera trigger the following types of color alarms:
  • Above alarm: This will apply a contrasting color to all pixels with a temperature above the specified temperature level.
  • Below alarm: This will apply a contrasting color to all pixels with a temperature below the specified temperature level.
  • Interval alarm: This will apply a contrasting color to all pixels with a temperature between two specified temperature levels.
  • Condensation alarm: Triggers when the camera detects a surface where the relative humidity exceeds a preset value.
  • Insulation alarm: Triggers when there is an insulation deficiency in a wall.
This table explains the different color alarms (isotherms).
Graphic
Above alarm
Graphic
Below alarm
Graphic
Interval alarm
Graphic
Condensation alarm
Graphic
Insulation alarm
 

19.2.1  Setting up above, below, and interval alarms

19.2.2  Building isotherms

19.2.2.1  About the Condensation alarm

To detect areas with potential moisture problems, you can use the Condensation alarm. You can set the relative humidity above which the isotherm will colorize the image.

19.2.2.2  About the Insulation alarm

The Insulation alarm can detect areas where there may be an insulation deficiency in the building. It will trigger when the insulation level (which is called the thermal index in the camera) falls below a preset value of the energy leakage through a wall.
Different building codes recommend different values for the insulation level, but typical values are 60–80% for new buildings. Refer to your national building code for recommendations.

19.2.2.3  Setting up condensation and insulation alarms

20  Inspection Route‎

20.1  General

FLIR Inspection Route is a solution that streamlines thermal inspections and simplifies data collection and reporting. The solution includes FLIR software and camera support for preparation, inspection, and post-processing.
With the Inspection Route function, the camera guides the operator along a predefined route of inspection points, where images and data are collected in a structured manner. FLIR Inspection Route speeds up post-processing and reporting by ensuring that nothing is missed and that all inspection results are organized right from the start.
The inspection work flow is defined by a Route file, with a high degree of flexibility. It is possible to configure an automated work flow, where the camera automatically sets the status and steps to the next inspection point when an image is saved. The operator can also manually select the status, add comments, and add more images.
The Route file is used as template when starting an inspection in the camera. It is possible to have multiple Route files in camera and the operator can run multiple inspections based on any of the Route files in the camera.
Reference images provide aiming support, increase quality in decision making in the field, and speeds up data collection by defining a baseline for the user based on a set of predefined parameters.

20.1.1  Work flow

20.1.2  FLIR Inspection Route‎ Solution user manual

The FLIR Inspection Route Solution user manual describes how to configure Route files, perform inspections, transfer inspection results, and create inspection reports using a camera with FLIR Inspection Route enabled, the FLIR Thermal Studio application, and the FLIR Ignite cloud service.
To access the FLIR Inspection Route Solution user manual, go to http://support.flir.com/resources/route.

20.1.3  First generation FLIR Inspection Route‎

The first generation of the Inspection Route functionality in the camera was based on an inspection route file in .xml format. The new Inspection Route functionality is based on a Route file in .routex format.
The camera still supports the xml based functionality. However, it is not possible to use a mix of .xml and .routex files on the camera memory card.
If there is an inspection route file (.xml) at the root of the memory card, the camera will start an inspection based on the .xml file when you activate the Inspection Route functionality.

20.1.3.1  User manual

For a description of the xml based FLIR Inspection Route functionality, refer to the user manual for the FLIR Inspection Route Solution, First generation.
To access the user manual, go to http://support.flir.com/resources/route.

20.2  Route file

The Route file specifies the structure, consisting of multiple levels of locations, assets, and inspection points. The Route file also specifies the available statuses and the configuration of the camera behavior and includes any reference images.
You can create the Route files in FLIR Thermal Studio.
The Route files must be placed in a folder named Routes located at the root of the camera memory card.

20.3  Inspection file

You can start a new inspection based on any of the Route files available in the Routes folder on the camera memory card.
During the inspection, the camera stores the inspection results internally. When you pause, finish, upload, or deactivate the Inspection Route function, the camera creates a package — an Inspection file (.route) — that includes all the inspection data (status, comments) and images for each inspection point.
The camera stores the Inspection file (.route) in a folder named Inspections located at the root of the memory card.

20.4  User interface

Graphic
The Inspection Route overlay consists of the following parts:
  • Back arrow
    Tap to go to the previous inspection point.
  • Current point indicator
    • Displays the name of the current inspection point.
    • Displays an image icon if there is an image saved for the inspection point.
    • Displays the status of the inspection point.
  • Next arrow
    Tap to go to the next inspection point.
  • Document icon
    This icon is displayed if there is a description and/or comment available for the inspection point. A description comes from the Route file and can, for example, include instructions or reminders for the inspection point. Comments are text notes added during the inspection. Tap the icon to display the description and/or comment.
  • Reference image

20.4.1  Reference image

You can use the reference image for aiming support. It is possible to switch between the infrared and visual reference image.
When maximized, the reference image covers the entire screen.
With the Overlay functionality enabled, the reference image is transparent and is displayed over the live image.
Graphic

20.4.2  Drop-down menu

To display the drop-down menu, tap the current point indicator.
Graphic
In the drop-down menu it is possible to:
  • Set the status of the current inspection point.
  • View the filenames of images saved for this inspection point.
  • Add comments for the current inspection point.
  • Open the inspection list, see section 20.5.8 Inspection list.

20.5  Perform inspection

This procedure assumes that one or more Route files (.routex) have been created.

20.5.1  General

To perform an inspection, you first have to add one or more Route files to the camera memory card. The Route files must be placed in a folder named Routes located at the root of the camera memory card. See also section 20.2 Route file.
You can start a new inspection based on any of the Route files available on the camera memory card. During the inspection, the camera stores the inspection results internally. When the inspection is completed, the camera creates an Inspection file with the inspection results and stores the file in a folder named Inspections located at the root of the memory card. See also section 20.3 Inspection file.
When uploading the inspection results to FLIR Ignite, the camera uploads the Inspection file (.route) to your FLIR Ignite account. Uploading the Inspection file (.route) does not remove the file from the Inspections folder located at the root of the memory card.

20.5.2  Add the Route file to the memory card

20.5.3  Inspection settings

20.5.3.1  Route file settings

The behavior of the camera during the inspection is controlled via settings in the Route file. It is also possible to define these settings in the camera, see section 20.6 Configuration.
To use the settings from the Route file, select Settings > Routing > Inspection settings > Use Route settings = On.

20.5.3.2  Reference image settings

The camera can be configured to use the settings and parameters from the reference image. For more information, see section 20.7 Use settings and parameters from reference images.
To use the settings and parameters from the reference images, select Settings > Routing > Inspection settings > Reference image > Apply parameters = On.

20.5.4  Start an inspection

20.5.5  Capture inspection data

20.5.6  Save an image

When you take an image, the camera automatically saves the image to the memory card.
You can take and save multiple images of the inspection point.

20.5.7  Inspection images

During the inspection, the camera saves the inspection images to the memory card. While an inspection is ongoing, the images are also available in the image archive.
When you pause, finish, upload, or deactivate the Inspection Route function, the camera adds all inspection images to the Inspection file (.route) and the images are no longer available in the image archive. You can always open an Inspection from the Settings menu and view the images via the Inspection list, see section20.5.8 Inspection list.

20.5.8  Inspection list

In the inspection list, you can see the progress of the inspection and review the inspection point results.
The content of the inspection list is defined by the Route file. The route structure and names come from the file.

20.5.9  Edit inspection point data

You can edit the data for the inspection point displayed by the current point indicator.
To go to another inspection point, use the back or next arrow or select the inspection point from the inspection list, see section 20.5.8 Inspection list.

20.5.9.1  Set the status

20.5.9.2  Delete an image

20.5.9.3  Add a comment

20.5.10  Record a video clip

You can record and save video clips of the inspection point. For more information, see section 14.2 Video recording.

20.5.11  Transfer inspection results

You can upload the inspection results to your FLIR Ignite account or transfer the result files manually using the USB cable or the memory card.

20.5.11.1  Upload results to FLIR Ignite‎

20.5.11.2  Move results manually

20.6  Configuration

The behavior of the camera during the inspection is controlled via settings in the Route file. It is possible to override the Route settings and define the settings in the camera.
To define the camera behavior settings in the camera, do the following:

20.7  Use settings and parameters from reference images

The camera can be configured to use the settings and parameters from the reference images. At each inspection point, the camera will automatically apply the same measurement tools, measurement parameters (e.g. emissivity, reflected temperature, etc.), temperature scale values, and color palette as in the reference image.

21  Handling the camera

21.1  Charging the battery

21.1.1  General

  • Before starting the camera for the first time, charge the battery for 3 hours using the stand-alone battery charger.
  • Select a mains socket that is near the equipment and easily accessible.

21.1.2  Using the stand-alone battery charger to charge the battery

21.1.2.1  Stand-alone battery charger LED indicator

Type of signal

Explanation

The white LED flashes.
The battery is being charged.
The white LED glows continuously.
The battery is fully charged.

21.1.3  Using the USB battery charger to charge the battery

21.1.4  Charging the battery using a USB cable connected to a computer

21.2  Installing and removing the camera battery

21.2.1  Installing the battery

Follow this procedure:

21.2.2  Removing the battery

Follow this procedure:

21.3  Turning on and turning off the camera

  • To turn on the camera, push the on/off button icon.
  • To turn off the camera, push and hold the on/off button icon for more than 0.5 second.

21.4  Adjusting the infrared camera focus

It is very important to adjust the focus correctly. If the camera is out of focus, there is risk of missing a gas leak. Incorrect focus adjustment also affects the temperature measurement and how the image modes work.
You can adjust the camera focus by rotating the focus ring or by pushing the autofocus button. The camera can also be set up to perform continuous autofocusing.

21.4.1  Manual focus

To adjust the focus manually, rotate the focus ring.
Graphic

21.4.2  Autofocus

To autofocus the camera, push the Autofocus button.
Graphic

21.4.2.1  Autofocus method

When autofocusing, the camera can use one of the following focus methods:
  • Contrast: The focus is based on maximizing the image contrast.
  • Laser: The focus is based on a laser distance measurement. The laser is used when the camera is autofocusing.
The focus method is configured by a setting. Select icon (Settings) > Device settings > Focus > Auto focus and then select Contrast or Laser.

21.4.3  Continuous autofocus

The camera can be set up to perform continuous autofocusing.
When the continuous autofocus function is enabled, the camera bases the focus adjustments on continuous laser distance measurements. The laser is continuously on.
    To enable or disable continuous autofocus, do one of the following:
  • Select icon ( Settings) > Device settings > Focus > Continuous autofocus > On or Off.
  • Touch the soft button icon .

21.5  Adjusting the viewfinder’s dioptric correction (sharpness)

Graphic
To adjust the viewfinder’s dioptric correction, look through the viewfinder and rotate the adjustment knob clockwise or counter-clockwise for the best sharpness.

21.6  Adjusting the angle of lens

To adjust the angle, tilt the lens up or down.
Graphic

21.7  A note about ergonomics

To prevent strain-related injuries, it is important that you hold the camera ergonomically correctly. This section gives advice and examples on how to hold the camera.
Graphic
Graphic
Graphic
Graphic
Graphic
Graphic

21.8  Operating the laser distance meter

21.8.1  General

The laser distance meter consists of a laser transmitter and a laser receiver. The laser distance meter determines the distance to a target by measuring the time it takes for a laser pulse to reach the target and return to the laser receiver. This time is converted to a distance, which is displayed on the screen.
The laser transmitter also works as a laser pointer. When the laser is on, you will see a laser dot approximately at the target.

21.8.2  Procedure

To operate the laser, do the following:

21.9  Measuring areas

21.9.1  General

The distance measured by the laser distance meter can be used as the basis for area calculations. A typical application is to estimate the size of a damp stain on a wall.
To measure the area of a surface, you need to lay out a box or circle measurement tool on the screen. The camera calculates the area of the surface enclosed by the box or circle tool. The calculation is an estimate of the surface area, based on the measured distance to the target.
When the laser distance meter is on, you will see a laser dot approximately at the target. The laser distance meter measures the distance to that target. The camera assumes that this distance is valid for the entire box or circle tool.
For successful area measurements, keep the following in mind:
  • Make sure that the box or circle tool is in the center of the image.
  • Adjust the size of the box or circle tool to the size of the target.
  • Hold the camera perpendicular to the target.
  • Avoid targets with many details at different distances from the camera.

21.9.2  Procedure

Follow this procedure:

21.10  Connecting external devices and storage media

You can connect the following external devices and media to the camera:
  • An SD memory card.
  • A computer to move image and video files to and from the camera, using a USB-C to USB-A or a USB-C to USB-C cable.
  • A video monitor or projector, using a USB-C to HDMI adapter.
  • A USB battery charger.
Graphic

21.10.1  Related topics

You can also connect the camera to FLIR Ignite for online storage of images and videos, see section 16 Cloud connectivity .

21.11  Moving files via USB cable

When you save an image or video clip in the image archive of the camera, the file is stored on the memory card.
You can connect the camera to a computer, using a USB-C to USB-A or a USB-C to USB-C cable. Once connected, you can move the image and video files from the memory card to the computer.

21.11.1  Related topics

You can also set up the camera to upload images and videos for storage online, see section 16 Cloud connectivity .

21.12  Programmable buttons

Graphic
There are two individually programmable buttons: one above the screen and one at the bottom of the optics housing.
You can assign different functions to the programmable buttons. You can, for example, use a programmable button to easily switch between two settings you use often. You can also choose to define two different setups for saving and previewing: the usual setup for the Save button (which is defined by the Save options and storage settings, see section 23.5 Save options & storage) and another setup for a programmable button.
The available options for the programmable buttons depend on the Gas camera mode setting (see section 23.2 Application options) and on the lens model.

To assign a function to a programmable button, do the following:

21.12.1  Programmable button options

Available options for the programmable buttons:
  • No action: This is the default setting. Nothing will happen when you push the button.
  • Switch Auto <> Manual temperature scale: Switch between automatic or manual image adjustment mode. For more information, see section 11 Infrared image adjustment.
  • Autofocus: One-shot autofocus of the infrared camera.
  • Continuous autofocus5: Switch between the enabled/disabled continuous autofocus functions.
  • Hide image overlay graphics: Switch between hide/show all overlay graphics and image overlay information. For more information, see section 10.9 Hiding all overlay.
  • Calibrate: Perform a manual NUC. For more information, see section 10.8 Non-uniformity correction (NUC).
  • Auto-adjust the manual temperature scale: Perform an automatic adjustment of the image while remaining in manual image adjustment mode.
  • Switch Thermal <> Digital camera6: Switch between the image modes Thermal and Digital camera. For more information, see section 13 Image modes.
  • Switch Thermal <> Thermal MSX: Switch between the image modes Thermal and Thermal MSX. For more information, see section 13 Image modes.
  • Switch Thermal <> HSM: Switch between the image mode Thermal and the HSM mode. For more information, see sections 13 Image modes and 9.4 Enhancing the image using High Sensitivity Mode (HSM).
  • Switch 1x zoom <> Max zoom: Switch between the digital zoom factor of 1× and maximum zoom.
  • Switch camera flash On <> Off: Switch between the enabled/disabled camera flash functions. For more information, see section 21.13 Using the camera lamp as a flash.
  • Switch single shot <> Video: Switch between the recording modes Single shot and Video.
  • Switch between two latest palettes: Switch between the two last-used color palettes. For more information, see section 12 Color palettes.
  • Switch temperature range: Cycle through the camera temperature ranges. For more information, see section 23.4 Camera temperature range.
  • Switch screen rotation On <> Off: Switch between enabled/disabled screen rotation.
  • Save: Save an image.
  • Save + Prompt for note: Save an image and display the note annotation tool.
  • Save + Prompt for table: Save an image and display the table annotation tool.
  • Save + Prompt for voice annotation: Save an image and display the voice annotation tool.
  • Save + Prompt for sketch: Save an image and display the sketch annotation tool.
  • Save + Select annotation from menu: Save an image and display the annotation tool menu.
  • Preview: Display a preview image.
  • Preview + Prompt for note: Display a preview image and the note annotation tool.
  • Preview + Prompt for table: Display a preview image and the table annotation tool.
  • Preview + Prompt for voice annotation: Display a preview image and the voice annotation tool.
  • Preview + Prompt for sketch: Display a preview image and the sketch annotation tool.
  • Preview + Select annotation from menu: Display a preview image and the annotation tool menu.

21.13  Using the camera lamp as a flash

The camera lamp can be used as a flash for the digital camera. When the flash function is enabled, the camera lamp will flash when an image is saved by pushing the Save button.
You can also turn on the camera lamp to use it as a flashlight.

Follow this procedure:

21.14  Calibrating the compass

It is recommended that the compass is calibrated every time you move the camera to a new location.

Follow this procedure:

21.15  Changing camera lenses

Follow this procedure:

21.16  Neck strap

To attach the neck strap to the camera, use the two attachment points indicated in the figure.
Graphic

21.17  Hand strap

To replace the hand strap, follow this procedure:

22  Cleaning the camera

22.1  Camera housing, cables, and other items

    Use one of these liquids:
  • Warm water
  • A weak detergent solution
    Equipment:
  • A soft cloth

Follow this procedure:

22.2  Infrared lens

    Use one of these liquids:
  • A commercial lens cleaning liquid with more than 30% isopropyl alcohol.
  • 96% ethyl alcohol (C2H5OH).
    Equipment:
  • Cotton wool

Follow this procedure:

22.3  Infrared detector

Even small amounts of dust on the infrared detector can result in major blemishes in the image. To remove any dust from the detector, follow the procedure below.

23  Camera settings

You can change a variety of settings in the camera. You do this on the Settings menu.
The available settings depend on the Gas camera mode setting (see section 23.2 Application options) and on the lens model.
The Settings menu includes the following:
  • FLIR Ignite .
  • Application options.
  • Connections.
  • Camera temperature range.
  • Save options & storage.
  • Device settings.

23.1   FLIR Ignite‎

Select FLIR Ignite and follow the on-screen instructions to sign in to your FLIR Ignite account.
After sign in, the following is displayed:
  • The FLIR Ignite user account that the camera is paired with.
  • The amount of used and available storage space on the FLIR Ignite account.
  • Auto upload switch: Toggle to enable/disable automatic upload of images.
For more information about FLIR Ignite and online storage of images, see section 16 Cloud connectivity .

23.2  Application options

  • Gas camera mode: This submenu includes the following settings:
    • Gas detection: This setting is used to enable full gas detection functionality, including the availability of the HSM mode (see section 9.4 Enhancing the image using High Sensitivity Mode (HSM)).
    • Temperature measurements: This setting is used to enable the temperature measurement functionality.
  • Lens information: Displays information about the lens.

23.3  Connections

  • Wi-Fi: This setting defines Wi-Fi networks. For more information, see section 24 Configuring Wi-Fi.
    • Off: This setting is used to disable Wi-Fi.
    • Share: This setting is used to set up the camera as a wireless access point.
    • Connect to network: This setting is used to connect the camera to a Wi-Fi network.
  • Bluetooth: This setting defines Bluetooth connectivity. For more information, see section 25 Pairing Bluetooth‎ devices.
  • Advanced: This submenu includes the following settings:
    • Global firewall: This setting is used to enable/disable the camera firewall.
    • Trusted connections: List of trusted applications (which can make connections to the camera).

23.4  Camera temperature range

For accurate temperature measurements, you must change the Camera temperature range setting to suit the expected temperature of the object you are inspecting.
Available temperature range options are dependent on the camera model. The unit ( or ) depends on the temperature unit setting, see section 23.6 Device settings.

23.5  Save options & storage

  • Inspection route: This setting is used to activate and configure the Inspection Route function. For more information, see section 20 Inspection Route‎.
  • Preview image before saving: This setting defines if a preview image will be displayed before the image is saved.
  • Add annotation after saving: This setting defines if an annotation tool will be displayed when the image has been saved. Available options are:
    • Save: No annotation tool will be displayed.
    • Save & add note: The note annotation tool will be displayed.
    • Save & add table: The table annotation tool will be displayed.
    • Save & add voice annotation: The voice annotation tool will be displayed.
    • Save & add sketch: The sketch annotation tool will be displayed.
    • Save & add any annotation: The annotation tool menu will be displayed.
  • Image resolution: This setting defines the resolution of the images captured by the camera. Available options are Normal and UltraMax. For more information, see section 27.4 UltraMax.
  • Video compression: This setting defines the storage format for video clips. Available options are:
    • Mpeg (*.mpeg): MPEG recordings cannot be edited after the file has been saved.
    • Radiometric storage (*.csq): A CSQ file supports full radiometry but is only supported by FLIR Systems software. The file does not include any visual image information. With this setting, it is not possible to record video in HSM mode. Also, only the image mode Thermal is supported when recording video.
  • Video frame rate: This setting is used to select the frame rate for video recordings.
  • Video microphone: This setting is used to turn on/off the microphone.
  • Photo as separate JPEG: For the Thermal MSX, Thermal, and Picture in picture image modes, a visual image is always saved in the same JPEG file as the thermal image. Enabling this setting saves an extra low-resolution visual image as a separate JPEG file.
  • Digital camera: This setting is used to turn on/off the digital camera. Turning off the digital camera can for example be required in restricted areas. When the digital camera is off, the images modes Thermal MSX and Picture in picture are disabled.
  • Measure distance: This setting defines if the laser distance meter will be used to measure the distance when an image is saved. With this setting, the Object distance parameter (see section 18.5 Changing the measurement parameters) in the image data is automatically updated with the measured distance when an image is saved. (There is no effect on the Object distance setting in live mode.)
    • File naming format: This setting defines the naming format for new image/video files. The setting has no impact on already saved files in the archive. Available options are:
    • DCF: DCF (Design rule for Camera File system) is a standard that specifies the naming method of image files (and much more). With this setting, the name of a saved image/video file will be FLIRxxxx, where xxxx is an incremental counter. Example: FLIR0001. (When the counter has reached 9999, the file name will change to IR_yyyyy.jpg.)
    • Date prefix: A prefix will be added to the filename, including the date and the text “IR_” for images and “MOV_” for videos. Examples: IR_2015-04-22_0002 and MOV_2015-04-22_0003. The date format will follow the Date & time format setting, see section 23.6 Device settings.
    • Date + time only: The filename will only include the date and time of capture (YYYYMMDDhhmmssfff).
  • Delete all saved files...: This displays a dialog box where you can choose to permanently delete all the saved files (images and videos) from the memory card or to cancel the delete action.

23.6  Device settings

  • Language, time & units: This submenu includes settings for a number of regional parameters:
    • Language.
    • Temperature unit.
    • Distance unit.
    • Time zone.
    • Date & time.
  • Focus: This submenu includes the following settings:
    • Autofocus: When autofocusing, the infrared camera can use one of the following focus methods:
      • Contrast: The focus is based on maximizing the image contrast.
      • Laser: The focus is based on a laser distance measurement. The laser is on when the camera is autofocusing.
    • Continuous autofocus: This setting is used to enable/disable continuous autofocus.
  • Display settings: This submenu includes the following settings:
    • Screen rotation: This setting defines if the orientation of the overlay graphics will change according to how you hold the camera.
    • Image overlay information: This setting specifies what image information, and also lens information, the camera will display as an overlay on the image. For more information, see section 8.7.6 Image overlay. You can select the following information to display:
      • Compass.
      • Date & time.
      • Emissivity.
      • Reflected temperature.
      • Distance.
      • Relative humidity.
      • Atmospheric temperature.
      • Lens information.
    • Active display: This setting defines the behavior of the display and viewfinder.
      • Auto: The display will automatically turn off when you look into the viewfinder.
      • Screen: The display is always on and the viewfinder is always off.
      • Viewfinder: The viewfinder is always on and the display is always off.
    • Screen brightness: This submenu is used to control the brightness of the screen.
      • Auto: Enable/disable automatic adjustment of the screen brightness.
      • Slider: Manual adjustment of the screen brightness.
    • Viewfinder brightness: This setting defines the brightness of the viewfinder.
  • Update: Check for updates and install new firmware versions. The camera must be connected to the internet. See also section 28 Updating the camera.
  • Geolocation: This submenu includes the following settings:
    • GPS: This setting is used to enable/disable the GPS.
    • Compass: This setting is used to enable/disable the compass and to calibrate the compass. For more information, see section 21.14 Calibrating the compass.
  • Lamp & laser: This submenu includes the following settings:
    • Enable lamp & laser: This setting is used to enable the camera lamp and the laser.
    • Enable lamp & laser + Use lamp as flash: This setting is used to enable the flash function. When the flash function is enabled, the camera lamp will flash when an image is saved.
    • Disable all: This setting is used to disable the camera lamp, laser, and flash function.
  • Auto power off: This setting defines how soon the camera is automatically turned off.
  • User interface options: This submenu includes the following settings:
    • Auto adjustment method: This setting is used to select the color distribution method for the automatic image adjustment mode. For more information, see section 11 Infrared image adjustment.
    • Auto adjustment region: This setting is used to set the region used for auto image adjustment. For more information, see section 11 Infrared image adjustment.
    • Manual adjustment using touch: This setting is used to enable/disable the touch functionality for manual image adjustments. For more information, see section 11 Infrared image adjustment.
    • Manual adjustment mode: This setting specifies the type of manual image adjustment mode. Available options are Level, Max, Min and Level, Span. For more information, see section 11 Infrared image adjustment.
    • Emissivity mode: This setting specifies how the measurement parameter emissivity will be entered. Available options are Select values and Select from materials table. For more information, see section 10.7 Changing the measurement parameters.
    • Color theme: This setting is used to select Light or Dark color user interface theme.
  • Volume: The volume slider is used to control the volume of the built-in speaker.
  • Reset options: This submenu includes the following settings:
    • Reset default camera mode...: This setting will affect the image mode, color palette, measurement tools, and measurement parameters. Saved images will not be affected.
    • Reset device settings to factory default...: This setting will affect all camera settings, including regional settings. Saved videos/images will not be affected. The camera will be restarted and you will be prompted to set the regional settings.
    • Reset image counter...: This setting will reset the numbering of the video/image filenames. To prevent files being overwritten, the new counter value will be based on the highest existing filename number in the image archive.
  • Camera information: This submenu displays information about the camera. No changes can be made.
    • Model.
    • Serial number.
    • Part number.
    • Software: The version of the software.
    • FPGA: The version of the FPGA firmware.
    • Storage: The used and free space on the memory card.
    • Lens: The field of view of the lens.
    • Battery: The remaining battery capacity (in percent).
    • Calibration: This submenu displays lens–camera calibration information.
    • Register camera...: This will start the registration wizard. For more information, see section 3.2 Register your camera.
    • Licenses: Open-source license information.
  • Regulatory: Displays regulatory information about the camera. No changes can be made.

24  Configuring Wi-Fi

Depending on your camera configuration, you can connect the camera to a wireless local area network (WLAN) using Wi-Fi, or let the camera provide Wi-Fi access to other devices.
    You can connect the camera in two different ways:
  • Setting up the camera as a wireless access point. This method is primarily used with other devices, e.g., an iPhone or iPad.
  • Connecting the camera to a Wi-Fi network.
The Wi-Fi functionality is managed from the Settings menu. You can also enable/disable Wi-Fi on the swipe-down menu. For more information, see section 8.7.5 Swipe-down menu.

24.1  Setting up a wireless access point

24.2  Connecting the camera to Wi-Fi

25  Pairing Bluetooth‎ devices

You can use the camera with the following Bluetooth devices:
  • METERLiNK devices (FLIR meters).
  • Bluetooth-enabled headsets.
If supported by your mobile phone, you can also share the phone’s internet connection with the camera via Bluetooth.
Before you can use a Bluetooth device with the camera, you need to pair the devices. The Bluetooth functionality is managed from the Settings menu. You can also enable/disable Bluetooth on the swipe-down menu. For more information, see section 8.7.5 Swipe-down menu.

Follow this procedure:

26  Fetching data from external FLIR meters

26.1  General

You can fetch data from some external FLIR meters that support Bluetooth and merge this data into the infrared image. When the camera is connected to a FLIR meter via Bluetooth, the measurement value from the meter is displayed in the result table of the camera. The FLIR meter value is also added to the information saved in the image file.
In preview mode and when editing an image in the archive, you can add more than one value from the same FLIR meter. The last added value is displayed below the previous values. The live value is displayed with a dotted outline.
If the screen display for values is full, it is still possible to add more values from the FLIR meter. Added values are then indicated by a box with a number that counts up each time a new value is added.
To find out whether a FLIR meter is supported by the camera, consult the meter documentation.

26.2  Technical support for external meters

Technical support

Website

26.3  Procedure

Follow this procedure:

26.4  Typical moisture measurement and documentation procedure

26.5  More information

For more information, see the user manuals that are shipped with FLIR meters.

27  About video and image files

27.1  General

When you record a video clip or save an image, the camera stores the video or image file on the memory card.

27.2  File-naming convention

The default naming convention for video and image files is FLIRxxxx, where xxxx is an incremental counter.
It is also possible to save images with a date prefix added to the filename. However, these files may not automatically be detected by third-party applications. For more information, see the setting File naming format in section 23.5 Save options & storage.

27.2.1  Resetting the image counter

To reset the numbering of the video/image filenames, do the following:

27.3  Image files

The camera saves an image file that includes all thermal and visual information. This means that you can open an image file at a later time and, for example, change the color palette, apply another image mode, and add measurement tools.
The image *.jpg file is fully radiometric and saved lossless, which enables full post-processing in image analysis and reporting software from FLIR Systems. There is also a regular *.jpg component (lossy) for convenient viewing in non-FLIR Systems software (e.g., Microsoft Explorer).

27.4  UltraMax

UltraMax is an image enhancement feature that increases the image resolution and lowers the noise, making small objects easier to see and measure. An UltraMax image is twice as wide and high as an ordinary image.
When an UltraMax image is captured by the camera, several ordinary images are saved within the same file. Capturing all the images can take up to 1 second. To fully utilize UltraMax, the images need to be slightly different, which can be accomplished by a minute movement of the camera. You should hold the camera firmly in your hands (do not put it on a tripod), which will make these images vary just a little during the capture. Correct focus, a high-contrast scene, and a non-moving target are other conditions that help to achieve a good-quality UltraMax image.
Some FLIR Thermography software has the ability to process UltraMax images. Other FLIR software will treat the image as a regular image.
To configure the camera for UltraMax, select icon (Settings) > Save options & storage > Image resolution = UltraMax.

28  Updating the camera

To take advantage of our latest camera firmware, it is important that you keep your camera updated.
    There are several ways to update the camera:
  • When the camera is connected to the internet, the camera automatically searches for firmware updates. Via the Settings menu, you can download and install new firmware versions Over-The-Air (OTA) when they become available.
  • Connect the camera to a computer with a USB cable and use the FLIR Camera Updater application to update the camera.
  • Download an update package and update the camera manually. For more information, go to https://support.flir.com.

28.1  Prepare for update Over-The-Air (OTA)

Camera update Over-The-Air (OTA) is a new feature.
If your camera has an earlier firmware version, you must first manually update the camera to the latest version before your camera can be updated Over-The-Air (OTA).
For more information, go to https://support.flir.com.
To see which version is installed on your camera, select Settings > Device settings > Camera information > Software.

28.2  Update the camera Over-The-Air (OTA)

28.3  Update via USB cable with the FLIR Camera Updater‎

The FLIR Camera Updater is a Windows application used to update the camera.
To update your camera, you must log in to your FLIR account or sign up for a new account. You must also register the camera.

28.3.1  Install the FLIR Camera Updater‎

28.3.2  Connect the camera

28.3.3  Update notifications

The FLIR Camera Updater can send notifications if there is a new update available for your previously connected devices.

29  Mechanical drawings

30  Declaration of conformity

The full text of the Declaration of conformity is available at the following internet address: http://support.flir.com/resources/42vu.

31  About calibration

31.1  Introduction

Calibration of a thermal camera is a prerequisite for temperature measurement. The calibration provides the relationship between the input signal and the physical quantity that the user wants to measure. However, despite its widespread and frequent use, the term “calibration” is often misunderstood and misused. Local and national differences as well as translation-related issues create additional confusion.
Unclear terminology can lead to difficulties in communication and erroneous translations, and subsequently to incorrect measurements due to misunderstandings and, in the worst case, even to lawsuits.

31.2  Definition—what is calibration?

The International Bureau of Weights and Measures7 defines calibration8 in the following way:
an operation that, under specified conditions, in a first step, establishes a relation between the quantity values with measurement uncertainties provided by measurement standards and corresponding indications with associated measurement uncertainties and, in a second step, uses this information to establish a relation for obtaining a measurement result from an indication.
The calibration itself may be expressed in different formats: this can be a statement, calibration function, calibration diagram9, calibration curve10, or calibration table.
Often, the first step alone in the above definition is perceived and referred to as being “calibration.” However, this is not (always) sufficient.
Considering the calibration procedure of a thermal camera, the first step establishes the relation between emitted radiation (the quantity value) and the electrical output signal (the indication). This first step of the calibration procedure consists of obtaining a homogeneous (or uniform) response when the camera is placed in front of an extended source of radiation.
As we know the temperature of the reference source emitting the radiation, in the second step the obtained output signal (the indication) can be related to the reference source’s temperature (measurement result). The second step includes drift measurement and compensation.
To be correct, calibration of a thermal camera is, strictly, not expressed through temperature. Thermal cameras are sensitive to infrared radiation: therefore, at first you obtain a radiance correspondence, then a relationship between radiance and temperature. For bolometer cameras used by non-R&D customers, radiance is not expressed: only the temperature is provided.

31.3  Camera calibration at FLIR Systems

Without calibration, an infrared camera would not be able to measure either radiance or temperature. At FLIR Systems, the calibration of uncooled microbolometer cameras with a measurement capability is carried out during both production and service. Cooled cameras with photon detectors are often calibrated by the user with special software. With this type of software, in theory, common handheld uncooled thermal cameras could be calibrated by the user too. However, as this software is not suitable for reporting purposes, most users do not have it. Non-measuring devices that are used for imaging only do not need temperature calibration. Sometimes this is also reflected in camera terminology when talking about infrared or thermal imaging cameras compared with thermography cameras, where the latter are the measuring devices.
The calibration information, no matter if the calibration is done by FLIR Systems or the user, is stored in calibration curves, which are expressed by mathematical functions. As radiation intensity changes with both temperature and the distance between the object and the camera, different curves are generated for different temperature ranges and exchangeable lenses.

31.4  The differences between a calibration performed by a user and that performed directly at FLIR Systems

First, the reference sources that FLIR Systems uses are themselves calibrated and traceable. This means, at each FLIR Systems site performing calibration, that the sources are controlled by an independent national authority. The camera calibration certificate is confirmation of this. It is proof that not only has the calibration been performed by FLIR Systems but that it has also been carried out using calibrated references. Some users own or have access to accredited reference sources, but they are very few in number.
Second, there is a technical difference. When performing a user calibration, the result is often (but not always) not drift compensated. This means that the values do not take into account a possible change in the camera’s output when the camera’s internal temperature varies. This yields a larger uncertainty. Drift compensation uses data obtained in climate-controlled chambers. All FLIR Systems cameras are drift compensated when they are first delivered to the customer and when they are recalibrated by FLIR Systems service departments.

31.5  Calibration, verification and adjustment

A common misconception is to confuse calibration with verification or adjustment. Indeed, calibration is a prerequisite for verification, which provides confirmation that specified requirements are met. Verification provides objective evidence that a given item fulfills specified requirements. To obtain the verification, defined temperatures (emitted radiation) of calibrated and traceable reference sources are measured. The measurement results, including the deviation, are noted in a table. The verification certificate states that these measurement results meet specified requirements. Sometimes, companies or organizations offer and market this verification certificate as a “calibration certificate.”
Proper verification—and by extension calibration and/or recalibration—can only be achieved when a validated protocol is respected. The process is more than placing the camera in front of blackbodies and checking if the camera output (as temperature, for instance) corresponds to the original calibration table. It is often forgotten that a camera is not sensitive to temperature but to radiation. Furthermore, a camera is an imaging system, not just a single sensor. Consequently, if the optical configuration allowing the camera to “collect” radiance is poor or misaligned, then the “verification” (or calibration or recalibration) is worthless.
For instance, one has to ensure that the distance between the blackbody and the camera as well as the diameter of the blackbody cavity are chosen so as to reduce stray radiation and the size-of-source effect.
To summarize: a validated protocol must comply with the physical laws for radiance, and not only those for temperature.
Calibration is also a prerequisite for adjustment, which is the set of operations carried out on a measuring system such that the system provides prescribed indications corresponding to given values of quantities to be measured, typically obtained from measurement standards. Simplified, adjustment is a manipulation that results in instruments that measure correctly within their specifications. In everyday language, the term “calibration” is widely used instead of “adjustment” for measuring devices.

31.6  Non-uniformity correction

When the thermal camera displays ”Calibrating…” it is adjusting for the deviation in response of each individual detector element (pixel). In thermography, this is called a ”non-uniformity correction” (NUC). It is an offset update, and the gain remains unchanged.
The European standard EN 16714-3, Non-destructive Testing—Thermographic Testing—Part 3: Terms and Definitions, defines an NUC as “Image correction carried out by the camera software to compensate for different sensitivities of detector elements and other optical and geometrical disturbances.”
During the NUC (the offset update), a shutter (internal flag) is placed in the optical path, and all the detector elements are exposed to the same amount of radiation originating from the shutter. Therefore, in an ideal situation, they should all give the same output signal. However, each individual element has its own response, so the output is not uniform. This deviation from the ideal result is calculated and used to mathematically perform an image correction, which is essentially a correction of the displayed radiation signal. Some cameras do not have an internal flag. In this case, the offset update must be performed manually using special software and an external uniform source of radiation.
An NUC is performed, for example, at start-up, when changing a measurement range, or when the environment temperature changes. Some cameras also allow the user to trigger it manually. This is useful when you have to perform a critical measurement with as little image disturbance as possible.

31.7  Thermal image adjustment (thermal tuning)

Some people use the term “image calibration” when adjusting the thermal contrast and brightness in the image to enhance specific details. During this operation, the temperature interval is set in such a way that all available colors are used to show only (or mainly) the temperatures in the region of interest. The correct term for this manipulation is “thermal image adjustment” or “thermal tuning”, or, in some languages, “thermal image optimization.” You must be in manual mode to undertake this, otherwise the camera will set the lower and upper limits of the displayed temperature interval automatically to the coldest and hottest temperatures in the scene.

32  About FLIR Systems

FLIR Systems was established in 1978 to pioneer the development of high-performance infrared imaging systems, and is the world leader in the design, manufacture, and marketing of thermal imaging systems for a wide variety of commercial, industrial, and government applications. Today, FLIR Systems embraces five major companies with outstanding achievements in infrared technology since 1958—the Swedish AGEMA Infrared Systems (formerly AGA Infrared Systems), the three United States companies Indigo Systems, FSI, and Inframetrics, and the French company Cedip.
Since 2007, FLIR Systems has acquired several companies with world-leading expertise:
  • NEOS (2019)
  • Endeavor Robotics (2019)
  • Aeryon Labs (2019)
  • Seapilot (2018)
  • Acyclica (2018)
  • Prox Dynamics (2016)
  • Point Grey Research (2016)
  • DVTEL (2015)
  • DigitalOptics micro-optics business (2013)
  • MARSS (2013)
  • Traficon (2012)
  • Aerius Photonics (2011)
  • TackTick Marine Digital Instruments (2011)
  • ICx Technologies (2010)
  • Raymarine (2010)
  • Directed Perception (2009)
  • OmniTech Partners (2009)
  • Salvador Imaging (2009)
  • Ifara Tecnologías (2008)
  • Extech Instruments (2007)
Graphic

Figure 32.1  Patent documents from the early 1960s

FLIR Systems has three manufacturing plants in the United States (Portland, OR, Boston, MA, Santa Barbara, CA) and one in Sweden (Stockholm). Since 2007 there is also a manufacturing plant in Tallinn, Estonia. Direct sales offices in Belgium, Brazil, China, France, Germany, Great Britain, Hong Kong, Italy, Japan, Korea, Sweden, and the USA—together with a worldwide network of agents and distributors—support our international customer base.
FLIR Systems is at the forefront of innovation in the infrared camera industry. We anticipate market demand by constantly improving our existing cameras and developing new ones. The company has set milestones in product design and development such as the introduction of the first battery-operated portable camera for industrial inspections, and the first uncooled infrared camera, to mention just two innovations.
Graphic
Graphic
1969: Thermovision Model 661. The camera weighed approximately 25 kg (55 lb.), the oscilloscope 20 kg (44 lb.), and the tripod 15 kg (33 lb.). The operator also needed a 220 VAC generator set, and a 10 L (2.6 US gallon) jar with liquid nitrogen. To the left of the oscilloscope the Polaroid attachment (6 kg (13 lb.)) can be seen.
2015: FLIR One, an accessory to iPhone and Android mobile phones. Weight: 36 g (1.3 oz.).
FLIR Systems manufactures all vital mechanical and electronic components of the camera systems itself. From detector design and manufacturing, to lenses and system electronics, to final testing and calibration, all production steps are carried out and supervised by our own engineers. The in-depth expertise of these infrared specialists ensures the accuracy and reliability of all vital components that are assembled into your infrared camera.

32.1  More than just an infrared camera

At FLIR Systems we recognize that our job is to go beyond just producing the best infrared camera systems. We are committed to enabling all users of our infrared camera systems to work more productively by providing them with the most powerful camera–software combination. Especially tailored software for predictive maintenance, R & D, and process monitoring is developed in-house. Most software is available in a wide variety of languages.
We support all our infrared cameras with a wide variety of accessories to adapt your equipment to the most demanding infrared applications.

32.2  Sharing our knowledge

Although our cameras are designed to be very user-friendly, there is a lot more to thermography than just knowing how to handle a camera. Therefore, FLIR Systems has founded the Infrared Training Center (ITC), a separate business unit, that provides certified training courses. Attending one of the ITC courses will give you a truly hands-on learning experience.
The staff of the ITC are also there to provide you with any application support you may need in putting infrared theory into practice.

32.3  Supporting our customers

FLIR Systems operates a worldwide service network to keep your camera running at all times. If you discover a problem with your camera, local service centers have all the equipment and expertise to solve it within the shortest possible time. Therefore, there is no need to send your camera to the other side of the world or to talk to someone who does not speak your language.