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This project has received funding from the European Union’s Horizon 2020 research and innovation pro- gramme under grant agreement No 636494. This project is endorsed by the European Aeronutics Science Network http://combondt.eu Coordinated by: AGI - Germany AGI - France Design by EASN-TIS © IFAM Fraunhofer © IFAM Fraunhofer © GMI Aero Quality Assurance Concepts for Adhesive Bonding of Aircraft Composite Structures by Extended NDT ComBoNDT project meets the European Aviation Safety Agency (EASA) certification requirements for structural bonding. The extended non-destructive techniques used in ComBoNDT aim at establishing reproducible and reliable NDT tools to ensure the reliable strength of joint structures. The overall objective of ComBoNDT is to develop a quality assurance concept for adhesive bonding of load-critical CFRP primary aircraft structures, which is applicable within the whole life cycle of the aircraft to overcome the current limitations regarding certification of composites. Inspection of Adherent Surfaces (Manufacturing & Repair) Assessment of Bondline Quality (Manufacturing & Repair) Mechanical Testing Characterization of the effect of multiple contamination scenarios (production and repair) on the fracture toughness of adhesively bonded CFRP plates, introduction of the centrifuge test. • Optimization of the Laser Induced Breakdown Spectroscopy. Increment of efficiency, automation via robotic arms (LIBS). • Improvement of accuracy and results’ reliability of the Optically Stimulated Electron Emission (OSEE). • Introduction of new techniques of signal process- ing for increasing the detectability of the Full-Field-Vibrometer. • Industrialization of the equipment – amelioration of the accuracy of the E-NOSE technique. • Adaption and improvement of the Aerosol-Wet- ting-Test BoND Tispect. • Automation of the inspection-Adaption of robotic arms for performing FTIR Spectroscopy. • Development and amelioration of the Symmetri- cal Laser Shock-Wave Adhesion testing platfrom. • Enhancement of the Electromechanical Impend- ence technique’s applicability, cost and equipment downsizing. • Implementation and adaption of new ultrasonic analysis techniques. • Development of commercial and portable equip- ment based on Magnetostrictive Sensors. • Identification of defects in the bond line with the use of X-Ray CT. Achievements and Innovations

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Consortium Partners

This project has received funding from the European Union’s Horizon 2020 research and innovation pro-gramme under grant agreement No 636494.

This project is endorsed by the European Aeronutics Science Network

http://combondt.eu

Coordinated by:

AGI - Germany AGI - France

Design by EASN-TIS

© IFAM Fraunhofer

© IFAM Fraunhofer © GMI Aero

Quality Assurance Conceptsfor Adhesive Bondingof Aircraft Composite

Structures by Extended NDTComBoNDT project meets the European Aviation Safety Agency (EASA) certi�cation requirements for structural bonding. The extended non-destructive techniques used in ComBoNDT aim at establishing reproducible and reliable NDT tools to ensure the reliable strength of joint structures.

The overall objective of ComBoNDT is to develop a quality assurance concept for adhesive bonding of load-critical CFRP primary aircraft structures, which is applicable within the whole life cycle of the aircraft to overcome the current limitations regarding certi�cation of composites.

Inspection of Adherent Surfaces (Manufacturing & Repair)

Assessment of Bondline Quality (Manufacturing & Repair)

Mechanical TestingCharacterization of the e�ect of multiple contamination scenarios (production and repair) on

the fracture toughness of adhesively bonded CFRP plates, introduction of the centrifuge test.

• Optimization of the Laser Induced Breakdown

Spectroscopy. Increment of e�ciency, automation

via robotic arms (LIBS).

• Improvement of accuracy and results’ reliability of

the Optically Stimulated Electron Emission (OSEE).

• Introduction of new techniques of signal process-

ing for increasing the detectability of the

Full-Field-Vibrometer.

• Industrialization of the equipment – amelioration

of the accuracy of the E-NOSE technique.

• Adaption and improvement of the Aerosol-Wet-

ting-Test BoND Tispect.

• Automation of the inspection-Adaption of robotic

arms for performing FTIR Spectroscopy.

• Development and amelioration of the Symmetri-

cal Laser Shock-Wave Adhesion testing platfrom.

• Enhancement of the Electromechanical Impend-

ence technique’s applicability, cost and equipment

downsizing.

• Implementation and adaption of new ultrasonic

analysis techniques.

• Development of commercial and portable equip-

ment based on Magnetostrictive Sensors.

• Identification of defects in the bond line with the

use of X-Ray CT.

Achievements and Innovations