Glossary | Basler

1080p

1080p is short form term designating a set of HDTV characterized by 1080 horizontal lines resolution and progressive scan.

1080p is short form term designating a set of HDTV characterized by 1080 horizontal lines resolution and progressive scan. In contrast to the 1080i standard, in 1080p the image is not interlaced. The term 1080p in most cases refers as well to the widescreen aspect ratio of 16:9, which implies a horizontal resolution of 1,920 pixels. The supported frame rate can be added to the term, e.g. 1080p24. Sometimes 1080p is referred to as Full HD.

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5x5-Debayering

PGI debayering is a debayering algorithm developed by Basler that works with a 5x5 pixel radius.

Debayering algorithms work by drawing in the color values from neighboring pixels to estimate missing colors. The dimension for this analysis depends on the number of surrounding pixels reviewed for each pixel. A radius of 2x2 neighboring pixels would be denominated as 2x2 environment, a radius of 4x4 pixels would be a 4x4 environment, respectively. The more neighboring pixels are taken into account, the more precise the color rendering in an image becomes, preventing color errors. The PGI debayering algorithm works with a 5x5 environment.

For technical reasons, a 4x4 debayering is used for some sensors / models.

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720p

720p describes the lowest resolution defined in the television standard for High Definition TV.

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ADC | Analog-to-digital converter

An electronic device that converts a voltage to a proportional digital number.

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Analog-to-digital converter

An electronic device that converts a voltage to a proportional digital number.

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AOI | Area of Interest

Area of Interest (AOI) - a portion on the camera's sensor.

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AOI-Level 1

Support of certain resolutions (e.g. CIF, PAL etc.).

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AOI-Level 2

Support of any resolution, configuration via WebInterface only.

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AOI-Level 3

Support of any resolution, configuration via WebInterface or video management software.

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AOI-Level 4

Support of digital pan/tilt by moving an AOI.

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AOI-Level 5

Support of output scaling configuration via video management software.

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API

Application Programming Interface (API) - a set of specifications allowing application software to communicate with the camera.

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Area of Interest (AOI), also known as Region of Interest (ROI)

Defines the sensor's area of detail used to capture the image.

The "Area of Interest (AOI)" is a feature that allows for the image captured by your camera to be restricted to a specific section smaller than the maximum sensor resolution. This is recommended when the key information being sought can be found in a smaller portion of the image. After image capture, only those pixels in the defined area of the sensor array — the AOI — are read out and processed. Benefit: image capture is handled much more quickly than for the sensor's maximum resolution, and data volumes are kept smaller.

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Area Scan Camera

Area Scan cameras contain a rectangular sensor with more than one line of pixels, which are exposed simultaneously.

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Basler design-in sample | design-in sample

Basler design-in samples are early versions of products. They can be used to evaluate a product’s basic performance and consider if it is suitable to be integrated into an application.

Until the series production of the product, the software can change. In rare cases the hardware will also be changed.

Once series products are available, Basler ships only those products.

The number of available design-in samples is limited, so there are no set delivery times.

Basler design-in samples offer a 1-year instead of 3-year warranty.

In some manuals the word “prototype” is used for design-in samples.

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Bayer BG 12 / Bayer GB 12

Data format for transfer of image data for color cameras with 12 bits of data per pixel, embedded in 16 bits.

Both the “Bayer BG 12” and “Bayer GB 12” are formats for transmitting image data. When a color camera is configured for BG 12 / Bayer GB 12 pixel data format, 2-bytes (16 bits) of data per pixel are issued, with 12 effective bits. The brightness information is included in the 12 lowest-value bits, while the 4 highest-value bits are filled with zeros. The pixel data are not processed or interpolated in the Bayer BG12 format, i.e. the raw data is used.

The sequence of data in the Bayer BG12 format orients itself in the process to the alignment of color pixels on the sensor in the form of the Bayer pattern. Within the Bayer pattern, the rows alternate between lines of green and blue pixels and lines of red and green pixels. That means for example in the Bayer BG 12 format that one 12-bit value is transmitted for each blue and green pixel along a row. It is then followed by a 12-bit value for each green and red pixel in the next row, and so on, until all rows of the color sensor have been read out.

The sole difference between the Bayer BG 12 format and Bayer GB 12 format is that the data transferred in the Bayer BG 12 format starts with a blue pixel, while the GB12 format starts with a green one.

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Bayer BG 12 Packed / Bayer BG 12 p

Format for data transmission for color cameras with 12 bits of data per pixel, with 2x12 bits packed into 3 bytes.

The “Bayer BG 12 Packed / Bayer BG 12 p” is a data format for transmitting image data. When a color camera is configured for BG 12 Packed pixel data format, 12 bits of data per pixel are issued. The data for 2 pixels is packed into 3 bytes. This saves 4 bits of bandwidth per pixel compared with the unpacked Bayer BG12 format. In the Bayer BG 12 Packed format, the pixel data is neither processed nor interpolated, meaning the raw data is used.

The sequence of data in the Bayer BG12 Packed format orients itself in the process to the alignment of color pixels on the sensor in the form of the Bayer pattern. Within the Bayer pattern, the rows alternate between lines of green and blue pixels and lines of red and green pixels. That means for example in the BG 12 Packed format that one 12-bit value is transmitted for each green and blue pixel along a row. It is then followed by a 12-bit value for each red and green pixel in the next row, and so on, until all rows of the color sensor have been read out.

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Bayer BG 8 / Bayer GB 8

Data format for transfer of image data for color cameras with 8 bits of data per pixel.

Both the “Bayer BG 8” and “Bayer GB 8” are formats for transmitting image data. When a color camera is configured for the BG 8 / Bayer GB 8 pixel data format, 8 bits of data per pixel are issued. The sequence of data orients itself in the process to the alignment of color pixels on the sensor in the form of the Bayer pattern. Within the Bayer pattern, the rows alternate between lines of green and blue pixels and lines of red and green pixels. That means for example in the Bayer BG8 format that one 8-bit value is transmitted for each blue and green pixel along a row. It is then followed by an 8 bit value for each green and red pixel in the next row, and so on, until all rows of the color sensor have been read out. The pixel data are not processed or interpolated in the process. As such, the Bayer BG8 and GB8 formats are so-called raw data formats.

The sole difference between the Bayer BG 8 format and Bayer GB 8 format is that the data transferred in the Bayer BG 8 format starts with a blue pixel, while the GB8 format starts with a green one.

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Bayer pattern

A regular array of red, green and blue color filters covering a sensor's pixels.

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BCON for LVDS Interface

BCON for LVDS is Basler’s interface for LVDS-based image data transfer.

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Binning

Technique of summarizing several neighboring pixels in the sensor of an industrial camera to a block of pixels with the goal of improving the signal to noise ratio.

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Blooming

An artifact occurring in images that were acquired by a CCD image sensor.

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Camera Link

Camera Link (CL) is a serial communication protocol designed for computer vision applications.

Camera Link is an extremely robust and powerful interface designed for industrial cameras in all performance categories. The bandwidth available with Camera Link can accommodate very small cameras as well as cameras with several megapixel resolution and often several hundred frames per second speed. Camera Link is currently the recommended standard interface for data rates from 100 MB/s to about 800 MB/s.

Because Camera Link was specifically designed for use with industrial cameras, it can handle large amounts of data easily and securely. All components in a Camera Link solution must meet the Camera Link standard.

Carrier Board

The carrier board, also called a base board, carries the system on module (SoM) and enables the adaptation of this module to the individual user needs, e.g. through required connections or interfaces to other modules.

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CCD

A charge-coupled device (CCD) is a device for movement of electrical charge.

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CCD Sensor

Electronic device to convert light (photons) into electronic signals (electrons).

The basic job of CCD and CMOS sensors is to convert light (photons) into electronic signals (electrons). In general, the low noise level, high fill factor, and good signal-to-noise ratio exhibited by CCD sensors result in very high quality images. These characteristics make cameras based on CCD sensors a good fit for machine vision applications. For more information, have a look at our white paper "Small Differences Along the Way from Light to a Signal".

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CCT+

The Basler Camera Configuration Tool Plus (CCT+) is a Windows based tool for configuring Basler cameras that adhere to the Camera Link standard.

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Charge-Coupled Device

A charge-coupled device (CCD) is a device for movement of electrical charge.

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CMOS

Complementary metal-oxide-semiconductor (CMOS) is a technology for constructing integrated circuits.

Complementary metal-oxide-semiconductor (CMOS) is a technology for constructing integrated circuits. CMOS technology is used in microprocessors, microcontrollers, static RAM, and other digital logic circuits. CMOS technology is also used for several analog circuits such as image sensors (CMOS sensor), data converters, and highly integrated transceivers for many types of communication. Frank Wanlass patented CMOS in 1967 (US patent 3,356,858).

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CMOS Sensor

Electronic device to convert light (photons) into electronic signals (electrons).

The basic job of CCD and CMOS (complementary metal oxide semiconductor) sensors is to convert light (photons) into electronic signals (electrons).

CMOS sensors have made a path into machine vision based largely on their advantage in speed (frame rate) and resolution (number of pixels) compared to CCD imagers. Improvements in CMOS technology and demand from high volume users such as the automotive market are making CMOS image sensors more and more attractive for machine vision applications. For more information, have a look at our white paper "Small Differences Along the Way from Light to a Signal".

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C-Mount

A lens mount for screw in lenses.

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CoaXPress | CXP

The CoaXPress (CXP) standard was originally launched by various companies in the industrial image processing sector.

The CoaXPress (CXP) standard was originally launched by various companies in the industrial image processing sector. The goal was to develop a fast data interface that also made it possible to bridge a large data volume across greater distances. The first CoaXPress interfaces were introduced at “Vision”, the leading trade fair for industrial image processing in 2008 in Stuttgart. After three more years of development, CXP 1.0 was officially released as a standard in 2011. Since then, the standard has established itself in industrial image processing. This standard was then developed further, into CoaXPress 2.0. An interface with the CoaXPress 1.0/1.1 standard supports data rates as high as 6.25 Gbps. The transmission speed of the CoaXPress 2.0 standard is twice as high, at up to 12.5 Gbps. This allows for even higher resolutions and frame rates compared to other efficient standards. In contrast to the preceding interface, the new standard only needs half as many cables to transfer the same amount of data.

Thanks to the combined triggering and power supply (power over CXP), only one CoaXPress cable is needed, which can have a maximum cable length of 40 meters – another benefit of this update.

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Cobot

A cobot is a collaborative robot.

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Color-Anti-Aliasing

Color-Anti-Aliasing reduces and corrects color errors and discolorations.

Color errors, especially on sharp edges, are a common side effect of less effective debayering algorithms. They become much more frequent and prominent in sections where an image has high spatial frequencies. These arise for example when the distances between black and white lines are so tight that they are placed in neighboring pixels, or at sharp edges with one light and one dark side. PGI Color-Anti-Aliasing analyzes and corrects discolorations for all potential frequencies below the theoretical limit, the Nyquist frequency.

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Color Creation

An image sensor is only capable of delivering grey values. To obtain color information, each pixel of the sensor is covered by a color filter allowing the pixel to deliver the gray value for the color of its color filter (primary colors). To obtain full color information, color filters of different colors (e.g. red, green, blue) are used. They are assigned to the sensor's pixels in a regular pattern (e.g. forming the Bayer pattern) such that neighboring pixels are covered by color filters of different primary colors. For example, the nearest neighbors of a "green" pixel are "red" and "blue" pixels. The gray values for the primary colors not measured can then be interpolated for each pixel from the gray values delivered by the neighboring pixels. As an alternative to using color filters of different colors on a single sensor, different sensors can be used where each one is covered by a color filter of only one color.

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Color filter

Colored transparent cover for a pixel.

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Color Interpolation

Refers to the method of calculating full color information for a pixel.

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CS-Mount

A lens mount for screw in lenses.

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Day/Night Functionality

Provides clear camera images even in low light.

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Debayering

Ensures that image colors are correct; uses an algorithm to reconstruct the color values of the mosaic created by the color sensor.

A standard image sensor will initially only produce black-and-white images. Color images require the use of a color matrix. The most well-known and frequently used matrix is the Bayer pattern, featured in a process known as Bayering. It involves the composition of a mosaic using the color pixels, although the color values for that mosaic are actually incomplete. To produce a proper color image, those color values are reconstructed using a complicated algorithm. This process is known as demosaicing or, named after the Bayer pattern, debayering.

Debayering can either be performed directly within the camera's firmware or afterward in post-production using the raw data. For industrial applications, debayering via firmware is recommended.

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Deep Learning

Deep Learning describes algorithms in the field of machine learning.

Deep learning refers to so-called artificial neural networks (ANN). In order to process image data, an ANN is structured in different layers. If it consists of more than three layers, it is called "deep". The most common ANNs are Convolutional Neural Networks (CNN), which are based on mathematical convolutional operations.

Deep learning enables many new applications that were previously not possible, such as cell classification in medicine & life sciences. Another example is the increase of precision and robustness in industrial applications.

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Denoising

PGI executes all computational steps needed to process a raw image into a finished color image in parallel instead of sequentially, thus avoiding an excessive amplification of noise.

Noise is an unavoidable part of any image and originates from several sources such as Photon Shot Noise, image sensor noise, or local noise. Typically, there are many calculation steps required between a raw image and a finished color image. Each of these computational steps can reduce, or - in most cases - reinforce the noise. PGI denoising avoids this magnification by executing these operations parallel to one another.

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DirectShow

DirectShow is a standard established by Microsoft for the exchange of data between audio and image sources (such as a digital camera, microphone or files) and programs for Microsoft Windows.

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DNS

Domain Name System

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Dynamic Range

Dynamic Range describes the ratio of the largest signal to the smallest signal (that can be distinguished from noise) in an image.

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Embedded System

Embedded systems are computer systems used for specific tasks, which are generally ‘embedded’ in higher-level products or devices.

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Embedded Vision System

An embedded vision system is an embedded system that also contains camera technology (e.g. camera modules).

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EMVA

The European Machine Vision Association (EMVA) is an association of companies and corporations involved in machine vision and standardization in that field.

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EMVA1288

The EMVA1288 standard describes a unified method to measure, compute, and present the specification parameters for cameras and image sensors used in machine vision applications.

The EMVA1288 standard describes a unified method to measure, compute, and present the specification parameters for cameras and image sensors used in machine vision applications. The EMVA 1288 standard includes a well defined method for measuring most common noise sources. It also includes a mandatory and detailed description of measurement setups, environmental conditions, and test requirements.

A downloadable version of the EMVA 1288 standard is available from the EMVA web site at www.standard1288.org.

Basler is leading the effort to standardize image quality and sensitivity measurement for machine vision cameras and sensors. All measurements done by Basler will be in 100% compliance with the European Machine Vision Association "EMVA 1288" standard. Basler is giving this standard the strongest support.

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Ethernet

Ethernet is a family of computer networking technologies for local area networks (LANs) commercially introduced in 1980.

Ethernet is a family of computer networking technologies for local area networks (LANs) commercially introduced in 1980. Standardized in IEEE 802.3, Ethernet has largely replaced competing wired LAN technologies.

Systems communicating over Ethernet divide a stream of data into individual packets called frames. Each frame contains source and destination addresses and error-checking data so that damaged data can be detected and re-transmitted.

The standards define several wiring and signaling variants. The original 10BASE5 Ethernet used coaxial cable as a shared medium. Later the coaxial cables were replaced by twisted pair and fiber optic links in conjunction with hubs or switches. Data rates were periodically increased from the original 10 megabits per second, to 100 gigabits per second.

Since its commercial release, Ethernet has retained a good degree of compatibility. Features such as the 48-bit MAC address and Ethernet frame format have influenced other networking protocols.

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European Machine Vision Association

The European Machine Vision Association (EMVA) is an association of companies and corporations involved in machine vision and standardization in that field.

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Event Reporting

Allows the camera to report events to make it easier for the PC to control image capture.

"Event Reporting" is a feature used by the camera under certain conditions to produce an event while controlling image capture. A corresponding event report is then sent to the PC.

Events can include "overtriggering," for example. The condition for that event would be that the camera receives a trigger signal to record an image but is not yet ready to capture the image. In this case the camera sends a corresponding event notification to the PC.

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Exposure Active Signal

Digital signal from the camera to control image capture.

The "Exposure Active Signal" is a digital signal issued via the camera's output port to control the image capture.

The Exposure Active Signal is issued (generally speaking: set to "High") once the exposure time for the image capture starts. The signal is deactivated again when the exposure time ends. The Exposure Active Signal can for example be used as the trigger for a flash and is also helpful if used with a system where the camera or the object is moved between two shots. As a measure against motion blur, the signal can be evaluated to avoid movement during exposure.

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Field Programmable Gate Array (FPGA)

An FPGA is a processor in which a logical circuit can be loaded in the hardware.

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Fixed Box Camera

Fixed camera e.g. for video surveillance.

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Fixed Dome Camera

Fixed camera with dome housing.

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Flash Window Signal

Digital signal from the camera to control external illumination.

The “Flash Window Signal” is a digital signal send by the camera to control external light sources. The Flash Window Signals indicates the state of image capture for a camera using a rolling shutter. The signal serves to mark the time window within which a light pulse (such as from a flash device) must be triggered to be effective for capturing the image on the entire sensor.

The signal activates when the time window for the light pulse begins and switches back to inactive when it ends. For a rolling shutter, flash-style lighting can help avoid the rolling shutter effect on moving objects.

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F-Mount

A bayonet type lens mount.

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FPS

Unit of the frame rate.

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Frame Grabber

An electronic device installed in a PC for interfacing to a camera.

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Frame Rate

The number of frames per second that are acquired or transmitted.

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Frames per Second

Unit of the frame rate.

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Frame Start Trigger Delay

Function to delay image capture.

"Frame Start Trigger Delay" is a feature used to control the image capture. Users can deploy this feature to define a time interval by which a camera's image capture is delayed of microseconds. After receipt of the trigger signal by the camera, the camera delays by the defined period before recording the picture. This allows for the image area on a camera recording images of a conveyor belt to be adjusted for better results, instead of trying to adjust the band's existing trigger signal.

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Full HD

A set of HDTV characterized by 1080 horizontal lines resolution and progressive scan.

Full HD or 1080p is a short form term designating a set of HDTV characterized by 1080 horizontal lines resolution and progressive scan. In contrast to the 1080i standard, in 1080p the image is not interlaced. The term 1080p in most cases refers as well to the widescreen aspect ratio of 16:9, which implies a horizontal resolution of 1,920 pixels. The supported frame rate can be added to the term, e.g. 1080p24.

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Full well capacity

This quantity refers to the largest charge that a pixel can hold before an overflow of charge into adjacent pixels within the sensor causes the so-called blooming.

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GenApi

An API for configuring machine vision cameras

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GenICam™

GenICam is a standard of the European Machine Vision Association (EMVA) allowing to control machine vision cameras via a generic programming interface.

GenICam is a standard of the European Machine Vision Association (EMVA) allowing to control machine vision cameras via a generic programming interface independent of the type of interface used for data transmission (e.g. GigE Vision, FireWire, Camera Link, USB), camera type and image format. This approach makes it easy to connect cameras compliant with the GenICam standard without the need for camera-specific configurations.

The core of GenICam is a description of the camera's properties in an XML Descriptor File. Using this file, a translator directly generates an Application Programming Interface called GenAPI or the elements of a Graphical User Interface (GUI). This lets the user easily access the features and functions available on the camera. GenTL, a module of GenICam, provides a unified mechanism for grabbing and streaming images from the camera. The GigE Vision standard requires that cameras with a GigE interface provide the XML Descriptor File. A Descriptor File for Basler’s IEEE 1394 compliant cameras is available as well.

You can find more information about GenICam at www.GenICam.org.

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GenTL

A module of GenICam providing a unified mechanism for grabbing and streaming images from the camera.

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Gigabit Ethernet

Gigabit Ethernet (GigE) defines a tethered protocol for data transfer based on the widespread Ethernet standard.

Gigabit Ethernet (GigE) defines a tethered protocol for data transfer based on the widespread Ethernet standard. Gigabit Ethernet currently offers the widest technological flexibility with regard to bandwidth, cable length, and multi-camera functionality. It allows for up to 100 m length for individual cables, power supply via the data cable (PoE), and a data rate of 1000 Mbit/s. Gigabit Ethernet is the fastest growing interface for digital cameras in the field of industrial image processing. It is a universally applicable digital interface, which for the first time provides the potential to produce cameras that can replace analog devices in almost every application.

In addition to the physical interface defined by the Gigabit Ethernet standard (among others), the especially clear and logical implementation of the GigE Vision Standard supports easy integration in all image processing programs via the use of software “libraries”. Also, because the exchange of GigE Vision compatible cameras can be performed without changing the application software, new investments and follow-up costs can be estimated and well-planned with cameras based on the GigE Vision Standard. It is the right choice for data rates of up to 100 MByte/s and makes complex setups with several cameras very simple.

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GigE Vision

GigE Vision is an interface standard for industrial image processing by digital cameras that originated in the field of machine vision.

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H.264

Standard for video compression.

H.264 is a standard for video compression. H.264 compression has become mainstream and is offered on almost every IP camera and recording server today. H.264 has bridged the large gap between MJPEG (high quality, high bandwidth, and high storage consumption) and MPEG-4 (lower quality, low bandwidth, and low storage consumption). H.264 also has a second “layer” of options known as “profiles”. These profiles offer different codec efficiencies and will affect the overall quality of the transmitted video as well as the bandwidth and storage consumption. Today, different H.264 profiles are available. Only three of these are common in surveillance applications: Baseline profile (BP), Main profile (MP), and High profile (HiP). Each manufacturer must decide which of these profiles will be offered with their cameras.

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HD

The lowest resolution defined in the television standard for High Definition TV.

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High Profile

A specific H.264 profile.

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I2C

I2C stands for Inter-Integrated Circuit.

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ICX618 Replacement Camera

A replacement camera lets you replace an older camera in the system or end application without necessarily requiring further hardware changes or major adaptations in the configuration or imaging geometry.

To make this possible, the sensor size and resolution of the replacement camera must correspond to those of the old camera. Additionally, the replacement camera must generate nearly identical image data in the same imaging conditions as the camera it replaces. Of course, the mechanical interfaces of the replacement camera must also be compatible with those of camera to be replaced.

The Basler ace U camera acA640-121gm is the first 1:1 replacement camera in the market that has the same image properties of cameras with the discontinued Sony CCD sensor ICX618.

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IEEE1394 (FireWire)

FireWire or IEEE1394 is a bus standard for serial data transmission.

Cameras with FireWire or IEEE1394 ports have been on the market since the 90s and are used in many machine vision applications. The FireWire name is actually Apple's trademarked designator for the standard. The cameras were originally outfitted based on IEEE1394a. This standard set a broadband limit of 32 MB/s, enough for smooth transfer of a data volume of roughly 30s images per second at 1 megapixel of resolution. The IEEE1394b current standard works with twice that much bandwidth. Cables and hardware are standardized and widely available. For this reason the use of IEEE1394 interfaces can in many cases reduce system costs.

In the medium term IEEE1394 is expected to lose its importance for the PC market, and compliant hardware will correspondingly become more difficult to find.

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IEEE1588 (PTP)

The Precision Time Protocol (PTP), also known as IEEE 1588, is a network protocol, responsible for the synchronization of clocks on multiple devices within a computer network.

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IIoT – Industrial Internet of Things

The Industrial Internet of Things is the "Internet of Things" in an industrial environment.

IIoT describes interconnected and communicating sensors, instruments or other network devices in industrial applications. Through this network, data can be collected and evaluated, thus increasing productivity. Under the term IIoT, Basler combines all vision-relevant sensors that generate and share information within a factory automation environment. IIoT sensors will support industry 4.0 environments.

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Image Sensor

An electronic device containing a large number of small light sensitive areas (pixels), where photons generate electric charges that are transformed to an electric signal.

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Improved Sharpness

PGI works with an interpolation algorithm that is adapted for the image structure and can thus deliver significantly improved sharpness.

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Industry 4.0

Industry 4.0 is the networking of devices to make factory automation more flexible and efficient. Among other things, this allows several different products to be produced autonomously on the same production line.

In terms of Vision Solutions, this means that camera and PC/embedded boards can actively communicate with other components along the production line. Standards such as OPC UA and Time Sensitive Networks, as well as the appropriate combination of vision hardware (cameras, smart lighting, etc.), image processing software, communication standards and cloud or edge functions are important to ensure smooth operations.

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Interlaced scan

Readout of an image sensor or update of an image frame occurs in an alternating fashion for odd-numbered and even-numbered horizontal lines of pixels.

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Internet Protocol

The Internet Protocol (IP) is the principal communications protocol used for relaying datagrams (packets) across an internetwork using the Internet Protocol Suite.

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Internet Protocol address

Unique address in a network.

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IoT - Internet of Things

The Internet of Things is a set of sensors connected by networks and computer systems. These sensors can monitor states and actions, and thus control actions of connected objects and machines.

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IR-cut filter

An infrared cut filter (IR-cut filter) is used to block light with wavelengths longer than visible light while transmitting visible light.

An infrared cut filter (IR-cut filter) is used to block light with wavelengths longer than visible light while transmitting visible light. IR cut filters can operate by either reflecting or absorbing the light to be blocked. IR cut filters are often used in solid state (CCD or CMOS) video cameras to block infrared light, which otherwise causes a lowering of the contrast due to the high sensitivity of many camera sensors to near-infrared light. IR cut filters for this purpose are mostly operating by reflecting the IR portion of the light.

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Line Scan

Line Scan cameras have a sensor consisting of 1 to 3 pixel lines.

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LVDS

LVDS (Low Voltage Differential Signaling) is an interface standard for high-speed data transfer between electronic elements.

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MIPI Alliance

The MIPI Alliance is an association of mobile communications companies which defines specific interfaces, such as the camera interface MIPI CSI-2.

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MIPI Camera Serial Interface 2 (MIPI CSI-2)

MIPI CSI-2 is a standard that defines a transfer protocol for image data.

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Mono 12

Data format for transfer of monochrome image data with 12 bits of data per pixel, embedded in 16 bits.

The “Mono 12” is a data format for transmission of image data on monochrome cameras. When a monochrome camera is configured for Mono 12 format, 2 bytes (16 bits) of brightness data per pixel are issued, with 12 effective bits. The brightness information is included in the 12 lowest-value bits, while the 4 highest-value bits are filled with zeros.The pixel data are not processed or interpolated in the Mono 12 format, i.e. the raw data is used.

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Mono 12 Packed / Mono 12 p

Format for data transmission for monochrome cameras with 12 bits of data per pixel, with 2x12 bits packed into 3 bytes.

The “Mono 12 Packed / Mono 12 p” is a data format for transmission of image data on monochrome cameras. When a monochrome camera is configured for Mono 12 Packed format, 12 bits of brightness data per pixel are issued. The data for 2 pixels is packed into 3 bytes. This saves 4 bits of bandwidth per pixel compared with the unpacked Mono 12 format. In the Mono 12 Packed format, the pixel data is neither processed nor interpolated, meaning the raw data is used.

The data in the Mono 12 Packed format is output line for line in the sequence of the pixels on the camera.

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Multicast

Multicasting allows an IP camera to simultaneously transmit images to multiple devices attached to the network.

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Multi-Streaming and Multi-Encoding

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OEM

An original equipment manufacturer (OEM) manufactures products or components.

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Original Equipment Manufacturer

An original equipment manufacturer (OEM) manufactures products or components.

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PGI

The PGI Feature Set is an in-camera image optimization developed by Basler.

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PoE | Power over Ethernet

PoE (Power over Ethernet) technology describes a system to pass low voltage electrical power safely, along with data, on Ethernet cabling.

PoE (Power over Ethernet) technology describes a system to pass low voltage electrical power safely, along with data, on Ethernet cabling. The IEEE standard for PoE requires category 5 cable or higher for high power levels, but can operate with category 3 cable for low power levels.[1] Power is supplied in common mode over two or more of the differential pairs of wires found in the Ethernet cables and comes from a power supply within a PoE-enabled networking device such as an Ethernet switch or can be injected into a cable run with a midspan power supply.

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Power over Ethernet

Power over Ethernet (PoE) technology describes a system to pass low voltage electrical power safely, along with data, on Ethernet cabling.

Power over Ethernet (PoE) technology describes a system to pass low voltage electrical power safely, along with data, on Ethernet cabling. The IEEE standard for PoE requires category 5 cable or higher for high power levels, but can operate with category 3 cable for low power levels.[1] Power is supplied in common mode over two or more of the differential pairs of wires found in the Ethernet cables and comes from a power supply within a PoE-enabled networking device such as an Ethernet switch or can be injected into a cable run with a midspan power supply.

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Primary Colors

A set colors from which other colors can be derived.

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PTP

The Precision Time Protocol (PTP), also known as IEEE 1588, is a network protocol, responsible for the synchronization of clocks on multiple devices within a computer network.

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pylon

The Basler pylon Camera Software Suite is a collection of drivers and tools for operating any Basler camera.

The pylon Camera Software Suite is a collection of drivers and tools for operating any Basler camera (IEEE1394, Camera Link, GigE or USB3.0 interface) with a Windows or Linux PC – on x86 or ARM based systems. As it is based on GenICam technology, it offers barrier-free access to the newest camera models and the latest features. Making changes to an existing camera device in your application essentially becomes a plug-and-play process. The included SDK simplifies the creation of applications in various programming languages like C, C++, C#, VB.Net.

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RoHs

Collective term for Directive (European Union) 2002/95/EG and its realization into national right.

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SDK

Software Development Kit

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Sensor

An electronic device containing a large number of small light sensitive areas (pixels), where photons generate electric charges that are transformed to an electric signal.

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Sequencer

Applies a series of pre-defined configuration steps to a series of captured images.

While the camera is in the process of taking a series of images, the configuration of the camera changes based on the sequence sets in between shots. The sequencer function can be used to react to a broad range of specifications and conditions during image capture, such as different lighting situations or areas of interest (AOI).

The preconfiguration of the various image settings allows for significantly improved frame rates.

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Signal-to-Noise Ratio

A measure that compares the level of a desired signal to the level of background noise.

Signal-to-noise ratio (often abbreviated SNR or S/N) is a measure used in science and engineering that compares the level of a desired signal to the level of background noise. It is defined as the ratio of signal power to the noise power. A ratio higher than 1:1 indicates more signal than noise. While SNR is commonly quoted for electrical signals, it can be applied to any form of signal (such as isotope levels in an ice core or biochemical signaling between cells).

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TWAIN (Technology Without An Interesting Name) is a standard defined by a coalition of companies for the exchange of data between image input devices, such as digital cameras (like those from Basler) and programs for Microsoft Windows and Apple Macintosh.

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