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Using a USB 3.1 Camera with Intel NUC
This application note provides information on using a USB 3.1 camera in various Intel NUC (next unit of computing) configurations.
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Using Auto Exposure
This document explains the auto exposure function of the camera and how to configure the control properties for the feature.
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Using Cognex VisionPro with GigE Vision Machine Vision Cameras
This application note provides information on how to configure and use GigE Vision cameras with Cognex VisionPro. It guides new and current VisionPro users to understand the basics of GigE Vision, and how GigE Vision cameras support VisionPro controls.
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Using On-Camera Color Correction
This document provides a description of the color correction matrix (CCM) and provides instructions for the user to calculate a custom CCM.
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Using USB3/USB2 Cameras with Cognex VisionPro
This application note provides information on how to configure and use Teledyne FLIR machine vision USB3/USB2 cameras with third-party Cognex VisionPro software.
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Using Linux with USB 3.1
This Application Note explains the components and steps that are necessary to install and configure Linux for use with FlyCapture and USB 3.1. Testing is ongoing. Wherever possible, limitations have been noted; however, as more testing is completed this information may change. All possible configurations may not experience the same results.
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Using Packet and Buffer Size to Adjust Frame Rate on Ladybug
This application note describes how to adjust the frame rate of the Ladybug spherical camera by changing the packet and buffer size.
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Using PPS to Synchronize with External GPS
This application note describes how to configure the Ladybug5+ camera's PPS feature to synchronize timestamps with an external GPS device that provides a PPS output.
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Using Spinnaker on ARM and Embedded Systems
With the release of version 1.5 of the Spinnaker SDK, you can program and operate FLIR USB3 machine vision cameras on an ARM device in a Linux environment. This application note explains the components and steps that are necessary to get started with Spinnaker and ARM as well as the limitations of using Spinnaker on an ARM device. It provides a summary and instructions for streaming FLIR USB3 machine vision cameras using Spinnaker on ARM-based embedded boards. It includes examples of some of the more commonly used embedded boards: ODROID-XU4, and NVIDIA Jetson TX1 and TX2. The benchmark results show that embedded boards are able to support high speed machine vision applications. Note: Testing is ongoing. Wherever possible, limitations have been noted; however, as more testing is completed this information may change. All possible configurations of ARM and cameras may not experience the same results.
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Using the Sequencer Feature
This document provides an overview of the Sequencer function. The sequencer allows you to control the acquisition parameters of an image sequence. This includes defining the camera feature settings as well as when the camera transitions from one sequence to the next. One application of the sequencer is in the creation of high dynamic range images where your image source has dramatically different light and shadow in the same scene. Another application might be to examine multiple pieces of a larger image as separate entities with different exposures. An astronomy application could increase the camera's dynamic range by capturing multiple images with different settings, then adding and averaging them. A scientific application could use a filter wheel in front of the lens and adjust the camera's settings every time the wheel rotates. With sequencer, each image can have its own defined feature set. Blackfly S allows up to 8 sequencer sets.
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Using USB3 Vision Cameras with Matrox Imaging Library
Information on how to configure and use FLIR machine vision USB3 cameras with Matrox Imaging Library.
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Using USB3 Vision Cameras with National Instruments’ Vision Acquisition Software
Information on how to configure and use FLIR machine vision USB3 cameras with National Instruments’ Vision Acquisition Software.