High-end Cameras

Ultra-fast Data Transfer

High-resolution detectors and high frame rates generate large amounts of data. With the 10 Gigabit Ethernet interface, this data can be transferred quickly, reliably and without loss.

Remote-controlled Focussing of the Thermal Image

Interchangeable standard lenses in the ImageIR® series can be equipped with a motor focus unit. This enables precise, remote-controlled and fast focussing via the operating software.

Guaranteed Flexibility and Measurement Accuracy

Due to this innovative feature, the cameras' measurement accuracy remains unchanged even when integration times or measurement ranges are altered. This will save users both time and money.

Behind the function is a fast-rotating MicroScan wheel, which is integrated into the camera. It ensures that four different individual exposures are taken per wheel revolution, which are offset laterally by half a pixel each. In this way, thermography achieves a new quality due to thermal images providing a quadrupled spatial resolution.

Measurement of High Temperatures & Spectral Ranges

Up to two individually combinable wheels equipped with filters and apertures allow the camera sensitivity to be adjusted to the specific requirements of demanding measurement tasks.

Customised Configuration and Retrofitting

Due to their modular design, the cameras in the ImageIR® series can be adapted to user requirements and retrofitted or converted if measurement requirements change.

Sharp Imaging of all Objects in the Frame

The innovative Multifocus function ensures that the quality of the images is completely independent of the depth of field of the lenses used or the distance of the test objects from the camera.

Display of Large Temperature Ranges Simultaneously

The HDR function enables thermograms with different integration times and filters to be created in quick succession and combined into a single image with large temperature differences.

Fast Measurements in Defined Subsections

Capture very fast temperature and motion sequences in full, half, quarter and sub modes, as well as in sub image formats defined by click-and-drag, using high frame rates.

Additive manufacturing has developed rapidly from its original field of prototype manufacturing, becoming a complete production technology for use on an industrial scale. Precise monitoring of machinery, equipment, materials and – above all – temperatures is of vital importance in this regard.

The energy efficiency of electronic components is becoming increasingly important in numerous fields of application. And that is not all: in our electronic and high-tech age, the demand is for even faster active components, higher power densities of miniaturised systems as well as absolute reliability. Along with this, there is the request for environmentally conscious resource procurement and the requirement that the increase in performance of modules should run parallel to lower energy consumption.

Lasers are extremely versatile tools in industry and manufacturing technology. Due to their flexibility, they serve as a key technology for implementing the goals of industry 4.0. Although laser cutting and welding are nowadays regarded as turnkey technologies, the majority of laser applications, for example joining of hybrid materials, 3D printing or ultra-short pulse processing, still require considerable research and development.

Many new systems operate at very high laser intensity levels and consequently require close control of thermal processes. This is achieved by the use of infrared thermography which is both contact-less and provides imagery.

Wood pellets as an alternative and high-quality fuel have become increasingly important in recent years. Their local origin from sustainable cultivation in the region has given WUN Bioenergie GmbH the opportunity to respond to market demand as an environmentally friendly supplier of raw materials. However, like other fuels, stored wood pellets need to be secured and monitored around the clock to prevent causes of devastating damage in the event of a fire, for example. Robust and reliable thermography solutions are a suitable tool for plant protection here.

Technical systems and devices are often subject to the influence of thermal energy or heat up due to internal processes. Their efficiency and service life can be increased, for example, by optimised thermal management. The installed active components are usually optimised extensively for this purpose. Passive components, on the other hand, are often neglected in this respect.

Microelectromechanical systems (MEMS) offer a wide range of possible applications in the field of nanotechnology. Everyday examples are the position recognition of mobile phones and the use in airbags, digital cameras or pacemakers. Other applications can be found above all in the field of miniaturised medical diagnostics. Growing demands on miniaturisation affect both the system solutions required for this and the sensors and control elements to be developed.

Today, thermographic damage and function analysis of electronic components is an established test method in electrical engineering. This method is also used for research purposes at the Institute for Electrical Systems and Energy Logistics at BTU Cottbus-Senftenberg. In this context, Prof. Dr. Ralph Schacht is intensively involved with the material and system characterisation as well as the non-destructive failure analysis of printed circuit boards, electronic components, microelectronics as well as composite systems of packaging and interconnection technology.

The combination of measuring results from the digital image correlation (ARAMIS, DIC) and temperature measuring data from infrared cameras enables the simultaneous analysis of the thermal and mechanical behavior of test specimens in the materials and components testing field.

How do solid materials change structurally? The engineers Prof. Stefan Seelecke and Marvin Schmidt from Saarland University investigate this fundamental question in materials research. Both consider this topic with the help of micro-thermography. Their cutting‐edge basic research ensures that we will have even more energy‐efficient electric devices to use at home in future.

Due to the decreasing number of suitable locations for wind turbines and the increasing push towards renewable energy sources, new activities have been introduced to improve the efficiency of rotor blades for wind turbines.

Non-destructive testing methods are becoming increasingly more important in the industry. One reason is that they cost much less than other test methods. As a very elegant method, the active heat flow thermography method is now firmly established as a powerful method of non-contact and non-destructive testing of products of different manufacturing technologies.

Stress changes during tensile testing provide information about material properties of metals such as tensile strength. With the help of thermographic cameras metallic solid bodies can be tested for such stress changes.

What will the energy supply of the future look like? The Max Planck Institute for Plasma Physics (IPP) in Greifswald is dealing with this question.

At the same time that the performance of electronic components is being driven ever higher the demand for thermal management at ever smaller scales is also occurring.

Today gas and steam turbine power plants by the SIEMENS AG are more than ever complex high-tech products. Heavily stressed parts like the turbine blades are tested with the latest measurement techniques for example with infrared thermography.

Mechanically stressed car components like tires are a continuous issue for quality inspection and related R&D improvements. At Bridgestone Corporation in Hofu (Yamaguchi prefecture in South-Western Japan) new test procedures for off-the-road tires for construction and mining vehicles (OR tires) had to be developed to meet the literally growing scale of performance concerning the carrying capacity.

Geological field research on Earth provides easily accessible material, but this has been significantly altered by the Earth's history. Unadulterated samples from the early days of the solar system can therefore only be obtained in space, where minor planets have preserved them for billions of years. Japanese researchers have been able to use microscopic active thermography to prove that the minor planet Ryugu contains such original material.