• Simulation of shot peening

LASMIS, IRT, M2P, ENSAM

Donato Gallitelli, Vincent Boyer, Maxime Gelineau, Yann Colaitis, Emmanuelle Rouhaud, et al.. Simulation of shot peening: From process parameters to residual stress fields in a structure. Comptes Rendus Mécanique, Elsevier Masson, 2016, 344 (4-5), pp.355-374.

LASMIS UTT Troyes

Badreddine et al.  Impact velocity and distribution in ultrasonic shot peening. ICSP-11. 2011. South Bend, USA. pp99-104.

LASMIS UTT Troyes

Gallitelli, D . From process parameters to residual stress field: complete ultrasonic shot peening simulation. ICSP-12. 2014. Goslar, Germany. pp.365-369.

LASMIS, UTT, Troyes – SONATS

Badreddline, J . A model for ultrasonic shot peening: optimization of chamber design in an industrial context. ICSP-12. 2014. Goslar, Germany. pp.370-375.

FRAUNHOFER IWM

Schubnell, J. et al. Numerical Simulation of Shot Dynamics and the Material Surface Condition of IN718 After Ultrasonic Shot Peening. ICSP-13. 2017. Montreal, Quebec, Canada. pp.550-554.

ICD, LASMIS – SONATS

Badreddine. J, CAD based model of ultrasonic shot peening for complex industrial parts, Advances in Engineering Softwatre, Elsevier, 2014, v76, pp 31-52

• Shot peening

SONATS

Duchazeaubeneix. JM. Stressonic Shot Peening (Ultrasonic process). ICSP-7. 1999.  Warslaw, Poland. pp.444-452.

TOYO SEIKO – SONATS

Hattori, K. Watanabe, Y. Handa, M. Duchazeaubeneix, JM.  Searching for the Most Suitable Condition and the Suggestion of Each Application in Ultrasonic Shot Peening. ICSP-8. 2002. Garmisch-Partenkirchen, Germany. pp-16-20.

TOYO SEIKO – SONATS

Watanabe, Y et al.  The Effect of Frozen Ultrasonic Shot Peening Treatment on Two Way Characteristic at Shape Memory Alloy. ICSP-11. 2011. South Bend, USA. pp.365-370.

Université de Lorraine 

Novelli, M. et al. Stress-assisted versus strain-induced martensites formed by cryogenic ultrasonic shot peening in austenitic stainless steels. ICSP-13. 2017. Montreal, Quebec, Canada. pp.509-515.

Université de Technologies de Troyes

Morançais. A, Effet du grenaillage sur la durée de vie des aubes monocristallines de turbine, Thèse de doctorat en Matériaux, Mécanique, Optique et Nanotechnologie, École doctorale Sciences pour l’ingénieur, Troyes,  2016

Indian Institute of Technology (Banaras Hindu University)

Rai. P. K et al, Effect of Ultrasonic Shot Peening on Microstructure and Mechanical Properties of High-Nitrogen Austenitic Stainless Steel, Journal of Materials Engineering and Performance, Issue 11, 2014, V23, pp 4055-4064

• Improve fatigue resistance

TOYO SEIKO – GIFU UNIVERSITY – SONATS

Watanabe et al.  Effect of Ultrasonic Shot Peening on Fatigue Strength of High Strength Steel. ICSP-8. 2002. Garmisch-Partenkirchen, Germany.  pp.16-20.

AVION SOLUTIONS

McClurg, K et al. Residual Compressive Stress Benefits on Core Aerospace Materials Using Ultrasonic Shot Peening. ICSP-13. 2017. Montreal, Quebec, Canada. pp.323-327.

IITBHU

Chattopadhyay. K et al, Effect of surface nanostructure on tensile and low cycle fatigue behavior of Al 2014 alloy, IOP Coference Series : Materials Science and Engineering, 2014

Department of Mechanical, Aichi Institute of Technology 

Takeda. K et al, Enhancement of Fatigue Life in TiNi Shape Memory Alloy by Ultrasonic Shot Peening, 2015

Département Génie des Matériaux ENIS

Elleuch. K et al, On fretting of XC38 steel: surface treatments effect, Tribology – Materials, surfaces and interfaces, Issue 1: Special issue on Fretting Damage, 2008, V2, pp33-38

Indian Institute of Technology

Pandey. V et al, Role of ultrasonic shot peening on low cycle fatigue behavior of 7075 aluminium alloy, International journal of fatigue, Elsevier, 2017, v103, pp 426-435.  

• Nanocrystallisation

Banaras Hindu University

Kumar. S et al, Effect of surface nanostructure on tensile behavior of superalloy IN718, Materials and Design (1980-2015), Elsevier, 2014, v62, pp76-82.  

Université de Lorraine, Laboratoire d’étude des Microstructures et des Mécaniques des Matériaux 

Youssef. S, Thermomechanical surface treatments of austenitic stainless steels and their effects on subsequent nitriding during “Duplex” treatments, Thèse de doctorat en sciences des matériaux,Université de Lorraine, 2014 

• Nanocrystallisation and effects on fatigue

Indian Institute of Technology (Banara Hindu University)

Kumar. S, Effect of surface nanostructure on tensile behavior of superalloy IN718, 7th International Conference on Creep, Fatigue and Creep – Fatigue Interaction (Cf-7), 2016, Tamil Nadu, India, pp 398-403.  

Banaras Hindu University

Pandey. V et al, Effect of surface Nanostructuring on LCF behavior of aluminum alloy 2014, Materials Science and Engineering: A, Elsevier, 2015, v647, pp 201-211.  

• Shot peening on ceramics

Institute of Electronic Materials Technology (Poland)

H. Tomaszewski et al, Shot Peening – A New Method for Improving Mechanical Properties of Structural Ceramics, Key Engineering Materials,  2006, Vols. 317-318, pp. 277-280

Institute of Electronic Materials Technology (Poland)

H. Tomaszewski et al, Modification of alumina ceramics properties by Stressonic® shotpeening , Materials Science Forum,  2005, Vols. 490-491, pp. 509-514

Institute of Electronic Materials Technology (Poland)

Tomaszewski. H et al, Shot Peening in Structural Ceramics, Ceramics Materials, 2010, issue 62, V3, pp 266-271

CHALMERS University

POJA. S-H, Performance of high-frequency mechanical treatment for bridge application, Thèse de doctorat en Ingénierie Civil et Cnvironnemental, Chalmers university of Technology, Gothenberg, Suède, 2017

SONATS – Institut de soudure

Lefevre. P et al, Fatigue Life Enhancement of Welded Structures using Ultrasonic Needle Peening, Issue 1, SONATS, Carquefou, France, 2014

University West – VOLVO Group Truck Technology

Harati. E et al, Effect of high frequency mechanical impact treatment on fatigue strength of welded 1300 MPa yield strength steel, International journal of fatigue, Elsevier, 2016, v92 p1, pp 96-106

ARCELOR MITTAL

Duchet. M et al, FATIGUE BEHAVIOUR OF ARC WELDED ASSEMBLIES: PATHS OF IMPROVEMENT, Fatigue Design 2011, 2011, Senlis, France

CHALMERS University

POJA. S-H et al, Experimental study of transverse attachment joints with 40 and 60 mm thick main plates, improved by high-frequency mechanical impact treatment (HFMI), Engineering structures, Elsevier, 2018, v15, pp 251-266

University of Waterloo

Ghahemani. K  et al, High cycle fatigue behaviour of impact treated welds under variable amplitude loading conditions, International journal of fatigue, Elsevier, 2015, v81, pp 128-142

University West

Harati. E et al, Effect of HFMI treatment procedure on weld toe geometry and fatigue properties of high strength steel welds, Procedia structural integrity, Elsevier, 2012, v2, pp 3483-3490

CETIM

Peyrac. C,  Fatigue strength improvement of hifh strength welded structures by hammer peening treatment, IIIW – DOC XIII-2576-15, 2015

DCN Propulsion

Bousseau. M, Milot. T,  Fatigue life improvment of welded structures by ultrasonic needle peening compared to TIG Dressing, XIII-2125-06, 2016

University of Waterloo

Ranjan. R et al,  Testing and fracture mechanics analysis of strength effects on the fatigue behviour of HFMI treated welds, Welding in the world, 2016, v60, issue 5,  pp987-999

CETIM

Lefebvre. F et al, Understanding the mechanisms for fatigue life improvement and repair of welded structures, XIII 2644-16, 2016

FRAUNHOFER IWM

Foehrenbach. J et al, Fatigue life calculation of high frequency mechanical impact (HFMI) treated welded joints by means of numerical process simlation and critical plane approaches, XIII-2637-16, 2015

KTH

Khurshid. M et al, Residual stress state induced by high frequency mechanical impact treatment in different steel grades – Numerical and experimental study, International Journal of Mechanical Sciences, Elsevier,  2017, v103, pp 33-42

Department of Civil Engineering Gifu University 

Kinoshita. K et al, Effects of ultrasonic peening on fatigue strength of out-of-plane gusset joints, International Journal of Steel Structures, Elsevier, 2014, V14, Issue 4, pp 769–776

Welding in the world

Schnubnell. J et al, Strain-based critical plane approach to predict the fatigue life of high frequency mechanical impact (HFMI)-treated welded joints depending on the material condition, Weld World, 2017,

Michelle. E. Haggett. Systematic review of UIT parameters on residual stresses of sensitized AA5456 and field based residual stress measurements for predicting and mitigating stress corrosion cracking. Thèse de master. Monterey Califonia : Naval Postgraduate School, 1 vol.

V. Singh et al., “Surface Property Enhancement of UNS N07718 and G41400 by Ultrasonic Impact Treatment”, Materials Science Forum, Vols. 783-786, pp. 2863-2868, 2014

SONATS

Frappier. R, Bordiec. Y, Non-destructive testing of the residual stress profile after shot peening by multifrequency-eddy-current analysis, ICSP-13, Montréal, Québec, Canada, 2017, pp 248-253

SONATS

Holden. T et al, A Practical Method for Measuring Residual Stress Distribution by XRD after Needle or Hammer Peening: Application to a Simple, Materials Science Forum, 2017, V905, pp 91-100

JEUMONT INDUSTRIE

Le Calvar. M, Jacob. P, Application industrielle de la diffraction sur pièces en acier inoxydable austénitique à taille de grain importante, J. Phys. IV France, 2000, V10, N°PR10, pp 10-154

MESSIER-BUGATTI

Villard. C et al, Techniques de mesures de contraintes résiduelles. Contribution à l’étude de l’amélioration de la tenue en fatigue d’alliages d’aluminium utilisés en aéronautique, J. Phys. IV France, 1996, N°C4, pp 4-249