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1. Introduction 2. Objective 3. Material property of components 4. CAD model 5. Unfold CAD model for sheet metal operation 6. Base FEA assembly model 7. Load and boundary condition 8. Displacement results for deferent types of element selection 9. Stress results for deferent types of element selection 10. Documents of max value of displacement & stress for deferent types of element selection

assembly verification with deferent types of element with deferent types of assembly technique followed in industry

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it just the fundamental methods and its verification.. the results will be taken to production with more test done in same model with different material and different analysis process which i am not aware of..

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Page 1: assembly verification with deferent types of element with deferent types of assembly technique followed in industry

1. Introduction2. Objective3. Material property of components4. CAD model5. Unfold CAD model for sheet metal operation6. Base FEA assembly model7. Load and boundary condition8. Displacement results for deferent types of

element selection9. Stress results for deferent types of element

selection10. Documents of max value of displacement &

stress for deferent types of element selection11. Conclusion of the presentation

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Verification of FEA results by use of deferent FEA modeling methods with same element pattern and assembly method with same load and boundary condition(inertia relief) .

It is a exercise of use of deferent testing methods and what type of assembly will satisfy it in all respect.

Page 6: assembly verification with deferent types of element with deferent types of assembly technique followed in industry

Material name

Young’s modulus

Shear modulus

Poison's ratio

density

Aluminum alloy

7.00e4 2.632e4 0.33 2.8e-9

steel 2.10e5 8.203e4 0.28 7.83e-9

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Hex model of individual component is the base model

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Mid face of Hex model of individual component

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outer face of Hex model of individual component

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Tet model extracted by splitting of Hex model of individual component

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IMAGES OF AREA HAVING HIGHER DISPLACEMENT VALUE ON LOADING CONDITION

HEX ELEMENT TET ELEMENT

SHELL ELEMENT IN OUTER FACE SHELL ELEMENT IN MID PLAN

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ASSEMBLY ELEMENT TYPE

NODE SHOWING MAX VALUE

VALUE AND RESULT TO BE TAKEN FOR

REVIEW

HEX MODEL 1.73E+00

TET MODEL 7.27E-01  

MID PLANE MODEL 1.81E+00  

OUTER SURFACE MODEL 1.82E+00HIGHER DISPLACEMENT

VALUE

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ASSEMBLY ELEMENT TYPE

element showing max value

VALUE AND RESULT TO BE TAKEN FOR

REVIEW

HEX MODEL 1.66E+02

TET MODEL 1.14E+02  

MID PLANE MODEL 1.89E+02  

OUTER SURFACE MODEL 1.91E+02HIGHER DISPLACEMENT

VALUE

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The objective is achieved by getting different results from assembly by use of deferent modeling methods without change of base pattern of FEA model.

Same assembly has to go for dynamic inertia relief test to gather output results variation.