BING®: wood quality analysis system

Industrial and field analysis equipment Natural resources and territories
How can the mechanical quality of a piece of wood be effectively assessed ? Cirad’Innov offers a fast, portable, non-destructive system for measuring the mechanical properties of wood and wood-based materials.
Dispositif de contrôle non destructif de la qualité mécanique des bois par méthode vibratoire
Dispositif de contrôle non destructif de la qualité mécanique des bois par méthode vibratoire

Device for non-destructive testing of the mechanical quality of wood by vibration method © Loïc Brancheriau, CIRAD

An effective diagnostic tool for detecting wood degradation

BING® analyses the vibrations emitted by a piece of wood after impact, enabling rapid assessment of wood quality and potential degradation. The BING® system is portable and can be used outdoors. It is a valuable quality control tool throughout the entire life cycle of a wooden component. It also contributes to a sound hazard analysis and critical control point approach (HACCP).

Stage Development

TLR9 - Technology Readiness Level

TLR9 - Technology Readiness Level

BING®: a fast and portable wood diagnostic tool

Discover the system’s key advantages :

  • A diagnosis in less than 20 minutes;
  • Reliable results;
  • Suitable for all types of solid materials;
  • Compatible with different vibration sensors;
  • Dual power supply (mains or battery);
  • Portable, enabling in situ inspections across different locations;
  • Requires no laboratory equipment;
  • Offers potential for the development of customised applications.

BING®: a valuable tool for wood industry professionals and inspection or safety services

For wood processing industries

The system enables :

  • Grading of sawn timber;
  • Detection of manufacturing defects;
  • In situ inspection of roundwood or poles.

For internal or external services responsible for assessing the safety and integrity of infrastructure (public infrastructure, etc.)

BING® enhances your expertise in order to :

  • Reduce the risk of damage linked to structural failure of wooden components;
  • Ensure the replacement of defective parts before degradation worsens and leads to higher costs.

How can you benefit from the BING® system ?

The current system, combined with our expertise, enables the development of customised applications tailored to your specific needs.

Training modules are available on request, and our expert team can either provide maintenance services or train your staff in system maintenance.

Contact us at ciradinnov@cirad.fr for a personalised quote.
The research teamThe wood team of the BioWooEB Research Unit specialises in tropical and Mediterranean timber. It supports stakeholders across the wood sector, including forest operators and land managers, primary and secondary processing companies (craft units, SMEs, industrial groups), project owners, project managers, architects, inspection bodies and consulting firms, both in France and in producing countries.

References and intellectual property

Publications

Paradis, Sébastien & Brancheriau, Loïc & Baillères, Henri (2017). Bing: Beam Identification by Non destructive Grading. 10.18167/62696e67.

Loïc Brancheriau et Henri Baillères (2002) " Natural vibration analysis of wooden beams: a theoretical review ", Wood Science and Technology, Springer – Verlag (Ed), Vol. 36, N°4, pp. 347-365

Loïc Brancheriau, Henri Baillères et Christian Sales (2006) "Acoustic resonance of xylophone bars: experimental and analytic approaches of frequency shift phenomenon during the tuning operation of xylophone bars", Wood Science and Technology, Vol. 40, N°2, pp. 94-106.

Loïc Brancheriau (2006) "Influence of cross section dimensions on the Timoshenko’s shear factor – Application to wooden beams in free-free flexural vibration", Annals of Forest Science, Vol. 63, N°3, pp. 319-321.

Loïc Brancheriau, Henri Baillères, Pierre Détienne, Joseph Gril et Richard Kronland (2006) "Key signal and wood anatomy parameters related to the acoustic quality of wood for xylophone-type percussion instruments", Journal of Wood Science (Japan Wood Research Society), Vol. 52, N°3, pp. 270 - 273.

Mitsuko Aramaki, Henri Baillères, Loic Brancheriau, Richard Kronland-Martinet, Solvi Ystad (2007) "Sound quality assessment of wood for xylophone bars", Journal of the Acoustical Society of America, Vol. 121, N°4, pp. 2407–2420.

Traoré B., Brancheriau L., Perré P., Stevanovic T., Diouf P. (2010) “Acoustic quality of vène wood (Pterocarpus erinaceus Poir) for xylophone instruments manufacture in Mali”, Annals of Forest Science, 67(8): 815-821.

Brancheriau L., Kouchade C., Brémaud I. (2010) “Internal friction measurement of tropical species by various acoustic methods”, Journal of Wood Science, 56(5):371–379.

Brancheriau L. (2014) "An alternative solution for the determination of elastic parameters in free-free flexural vibration of a Timoshenko beam", Wood Science and Technology, 48(6):1269-1279.

Barré J.-B., Bourrier F., Brancheriau L., Bertrand D., Rey F. (2018) "Effects of fungal decay on elasticity and damping of small-diameter silver fir logs assessed by the vibrational resonant method", Wood Science and Technology, 52(2):403-420.