In the free online event “Thermography in Aerospace Engineering”, you will learn more about the wide range of possible applications of thermography for research and development in aerospace engineering and for the investigation of friction processes. Our experts will demonstrate how temperature distributions and their temporal trends can be captured, analyzed and used for effective testing.
Online Event (Language: English)
“Thermography in Aerospace Engineering”
Date: Wednesday, September 23, 2026
Time: 10:00 AM – 12:00 PM (CEST)
Language: English
Price: free of charge
Registration at:
https://register.gotowebinar.com/register/1920049022827628896?source=PR-PBen
Every object sent into the atmosphere and beyond must first be tested for stability and functionality. Thermography offers a wide range of possibilities for analyzing how materials and components behave under the demanding conditions of flight or in space. Contactless, two-dimensional temperature measurement enables, for example, the localization of material defects under mechanical stress or hot spots on electronic components during actual operation, the analysis of flow processes on airfoils or turbines, and the evaluation of the heat resistance of ceramic materials.
Thermography can provide answers to a wide range of questions in aerospace engineering. However, the broad spectrum of associated measurement and testing tasks requires thermal imaging cameras of various performance classes, appropriate measurement methods, and specific expertise to achieve optimal results. Cameras designed for spectral thermography, for example, can be used in engine development, for the detection of combustion gases, or for the development and investigation of special ceramic coatings.
Active thermography offers numerous possibilities for non-destructive testing, ranging from fundamental investigations of asteroid samples returned to Earth by space probes to quality control of fiber-reinforced materials. With the help of micro thermography, thermal microactuators for nanotechnology can be analyzed, and electronic components can be optimized with regard to their thermal management.
High-speed thermography enables even the fastest processes to be captured in detail, such as the thermal stress on the outer skin of missiles during re-entry into the atmosphere or on braking systems during aircraft landing.
In the online event, our experts will explain in detail the capabilities of innovative thermography cameras for investigating the many different questions in aerospace engineering.
Online Event (Language: English)
“Thermography in Aerospace Engineering”
Date: Wednesday, September 23, 2026
Time: 10:00 AM – 12:00 PM (CEST)
Language: English
Price: free of charge
Registration at:
https://register.gotowebinar.com/register/1920049022827628896?source=PR-PBen
Every object sent into the atmosphere and beyond must first be tested for stability and functionality. Thermography offers a wide range of possibilities for analyzing how materials and components behave under the demanding conditions of flight or in space. Contactless, two-dimensional temperature measurement enables, for example, the localization of material defects under mechanical stress or hot spots on electronic components during actual operation, the analysis of flow processes on airfoils or turbines, and the evaluation of the heat resistance of ceramic materials.
Thermography can provide answers to a wide range of questions in aerospace engineering. However, the broad spectrum of associated measurement and testing tasks requires thermal imaging cameras of various performance classes, appropriate measurement methods, and specific expertise to achieve optimal results. Cameras designed for spectral thermography, for example, can be used in engine development, for the detection of combustion gases, or for the development and investigation of special ceramic coatings.
Active thermography offers numerous possibilities for non-destructive testing, ranging from fundamental investigations of asteroid samples returned to Earth by space probes to quality control of fiber-reinforced materials. With the help of micro thermography, thermal microactuators for nanotechnology can be analyzed, and electronic components can be optimized with regard to their thermal management.
High-speed thermography enables even the fastest processes to be captured in detail, such as the thermal stress on the outer skin of missiles during re-entry into the atmosphere or on braking systems during aircraft landing.
In the online event, our experts will explain in detail the capabilities of innovative thermography cameras for investigating the many different questions in aerospace engineering.
