ARTICLE
Numerical investigation of static behavior of bolted joints
 
 
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Laboratory of Mechanics, Modelling and Production (LA2MP), National School of Engineers of Sfax, Sfax, Tunisia
CORRESPONDING AUTHOR
Chaima Hammami   

Laboratory of Mechanics, Modelling and Production (LA2MP), National School of Engineers of Sfax, BP1173, 3038, Sfax, Tunisia
Submission date: 2021-12-28
Final revision date: 2022-04-06
Acceptance date: 2022-04-21
Online publication date: 2022-06-12
Publication date: 2022-07-30
 
Journal of Theoretical and Applied Mechanics 2022;60(3):385–394
 
KEYWORDS
TOPICS
ABSTRACT
This paper investigates the static behavior of bolted joints and the extent of its control in the design of assembled structures. An analysis method is thus first developed highlighting stresses distribution in the junction to dimension the functional performance area. A description of the joint characteristics is presented. Numerical simulations, comparing the complete and simplified finite element models relevance, are then carried out. The integration of results of this analysis in the design of multiple bolted joints structures in finally presented. Experiments on a testbed, where a viscoelastic material is introduced in joints interfaces to enhance global damping, validate the approach developed.
 
REFERENCES (27)
1.
Abad J., Franco J.M., Celorrio R., Lezáun L., 2012, Design of experiments and energy dissipation analysis for a contact mechanics 3D model of frictional bolted lap joints, Advances in Engineering Software, 45, 42-53.
 
2.
Balmès E., Leclère J.-M., 2007, Viscoelastic Vibration Toolbox, User’s Guide Etienne Version 1.0.
 
3.
Crocombe A.D., Wang R., Richardson G., Underwood C.I., 2006, Estimating the energy dissipated in a bolted spacecraft at resonance, Computers and Structures, 84, 5-6, 340-350.
 
4.
Gaul L., Becker J., 2010, Damping prediction of structures with bolted joints, Shock and Vibration, 17, 359-371.
 
5.
Giannella V., Sepe R., Citarella R., Armentani E., 2021, FEM modelling approaches of bolt connections for the dynamic analyses of an automotive engine, Applied Science, 11, 4343.
 
6.
Gould H.H., Mikic B.B., 1972, Areas of contact and pressure distribution in bolted joints, Journal of Engineering for Industry, 94, 864-870.
 
7.
Goyder H., Ind P., Brown D., 2013, Measurement of damping due to bolted joints, International Design Engineering Technical Conferences and Computers and Information in Engineering Conference, ASME.
 
8.
Guillot J., 2007, Modélisation et calcul des assemblages vissés. Généralités, Techniques de l’ingenieur, L’expertise technique et scientifique de refrence.
 
9.
Guzas E., Behan K., Davis J., 2015, 3D finite element modeling of single bolt connections under static and dynamic tension loading, Shock and Vibration, 2015, 2, 1-12.
 
10.
Hammami C., Balmes E., Guskov M., 2016, Numerical design and test on an assembled structure of a bolted joint with viscoelastic damping, Mechanical Systems and Signal Processing, 70-71, 714-724.
 
11.
Ibrahim A.M., 2020, On the Effective Finite Element Simplification of Bolted Joints: Static and Modal Analyses, Rochester Institute of Technology.
 
12.
Ireman T., 1998, Three-dimensional stress analysis of bolted single-lap composite joints, Composite Structures, 43, 3, 195-216.
 
13.
Ju S., Fan C., Wu G.H., 2004, Three-dimensional finite elements of steel bolted connections, Engineering Structures, 26, 3, 403-413.
 
14.
Kellermann R., Klein C., 1955, Untersuchungen über den Einfluss der Reibung auf Vorspannung und Anzugsmoment von Schraubenverbindungen, Konstruction, 7, 2, 54-68.
 
15.
Kim J., Yoon J.-C., Kang B.-S., 2007, Finite element analysis and modeling of structure with bolted joints, Applied Mathematical Modelling, 31, 5, 895-911.
 
16.
Lehnhoff T.F., Ko K.I., McKay M.L., 1994,Member stiffness and contact pressure distribution of bolted joints, Journal of Mechanical Design, 116, 550-557.
 
17.
Li P., Li W., Wei P., Wang Q., 2020, Research on finite element analysis and modelling of bolted joint, IOP Conference Series: Materials Science and Engineering, 892, 012084.
 
18.
Liao X., Zhang J., Xu X., Zhang C., 2017, Dynamic response analysis in bolted joint structure with viscoelastic layer and experimental investigations, Journal of Vibroengineering, 19, 1585-1596.
 
19.
Mantelli M.B.H., Milanez F.H., Pereira E.N., Fletcher L.S., 2010, Statistical model for pressure distribution of bolted joints, Journal of Thermophysics and Heat Transfer, 24, 432-437.
 
20.
Marshall M.B., Lewis R., Dwyer-Joyce R., 2006, Characterisation of contact pressure distribution in bolted joints, Strain, 42, 31-43.
 
21.
Montgomery J., 2002, Methods for modeling bolts in the bolted joint, [In:] ANSYS User’s Conference.
 
22.
Naik R.A., Crews J.H., 1986, Stress analysis method for a clearance-fit bolt under bearing loads, AIAA Jpurnal, 24, 1348-1353.
 
23.
Rasmussen J., 1978, A two body contact problem with friction, Euromech Colloquium, 115-120.
 
24.
Reid J.D., Hiser N.R., 2005, Detailed modeling of bolted joints with slippage, Finite Elements in Analysis and Design, 41, 547-562.
 
25.
Rotscher F., 1927, Die Maschinellente, Springer.
 
26.
Wang R., Crocombe A., Richardson G., Underwood C., 2005, Modelling of damping in small satellite structures incorporating bolted joints, Conference on Small Satellites, SSC05-IX-7.
 
27.
Żyliński B., Buczkowski R., 2010, Analysis of bolt joint using the finite element method, Archive of Mechanical Engineering, LVII, 3, 275-292.
 
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