Simulation of FEA_ES00187

Similar documents
Stress analysis of deflection analysis flexure and obif Vertical Load orientation

Functional Simulation of Harmonic Drive with S.M.A. Wave Generator

Project. First Saved Monday, June 27, 2011 Last Saved Wednesday, June 29, 2011 Product Version 13.0 Release

Using Thermal Boundary Conditions in SOLIDWORKS Simulation to Simulate a Press Fit Connection

Lecture 15 Strain and stress in beams

ME 582 Advanced Materials Science. Chapter 2 Macromechanical Analysis of a Lamina (Part 2)

EE C247B / ME C218 INTRODUCTION TO MEMS DESIGN SPRING 2014 C. Nguyen PROBLEM SET #4

ANSYS Mechanical Basic Structural Nonlinearities

Leaf Spring (Material, Contact, geometric nonlinearity)

DISPENSA FEM in MSC. Nastran

Finite Element Analysis of PVC window profile &aluminium window profile with and without thermal break

Vibration Analysis. with SOLIDWORKS Simulation 2018 SDC. Paul M. Kurowski. Better Textbooks. Lower Prices.

A PAPER ON DESIGN AND ANALYSIS OF PRESSURE VESSEL

Stress Analysis Report

Mechanical Engineering Ph.D. Preliminary Qualifying Examination Solid Mechanics February 25, 2002

MAE 322 Machine Design Lecture 2. Dr. Hodge Jenkins Mercer University

Static Failure (pg 206)

Practice Final Examination. Please initial the statement below to show that you have read it

Failure surface according to maximum principal stress theory

EQUIVALENT FRACTURE ENERGY CONCEPT FOR DYNAMIC RESPONSE ANALYSIS OF PROTOTYPE RC GIRDERS

Example-3. Title. Description. Cylindrical Hole in an Infinite Mohr-Coulomb Medium

Modelling the behaviour of plastics for design under impact

University of Sheffield The development of finite elements for 3D structural analysis in fire

STRUCTURAL ANALYSIS OF A WESTFALL 2800 MIXER, BETA = 0.8 GFS R1. By Kimbal A. Hall, PE. Submitted to: WESTFALL MANUFACTURING COMPANY

202 Index. failure, 26 field equation, 122 force, 1

Finite Element Solutions for Geotechnical Engineering

The Frictional Regime

OPTIMAL DESIGN OF CLUTCH PLATE BASED ON HEAT AND STRUCTURAL PARAMETERS USING CFD AND FEA

1 332 Laboratories 1. 2 Computational Exercises 1 FEA of a Cantilever Beam... 1 Experimental Laboratory: Tensile Testing of Materials...

Module-4. Mechanical Properties of Metals

Stresses Analysis of Petroleum Pipe Finite Element under Internal Pressure

Final Project: Indentation Simulation Mohak Patel ENGN-2340 Fall 13

MECHANICS OF MATERIALS

Structural Metals Lab 1.2. Torsion Testing of Structural Metals. Standards ASTM E143: Shear Modulus at Room Temperature

Load Cell Design Using COMSOL Multiphysics

1.3 Working temperature T 200,0 1.4 Working environment. F... Guided seating. Light service. Cold formed springs. Music wire ASTM A228

EE C247B / ME C218 INTRODUCTION TO MEMS DESIGN SPRING 2016 C. NGUYEN PROBLEM SET #4

7.6 Stress in symmetrical elastic beam transmitting both shear force and bending moment

TABLE OF CONTENTS. Mechanics of Composite Materials, Second Edition Autar K Kaw University of South Florida, Tampa, USA

EMEA. Liudmila Feoktistova Engineer Atomenergoproekt

Lecture 8. Stress Strain in Multi-dimension

Analysis of Planar Truss

MECHANICS OF MATERIALS

Modelling and numerical simulation of the wrinkling evolution for thermo-mechanical loading cases

Tolerance Ring Improvement for Reducing Metal Scratch

Use Hooke s Law (as it applies in the uniaxial direction),

Numerical modelling of induced tensile stresses in rock in response to impact loading

SEMM Mechanics PhD Preliminary Exam Spring Consider a two-dimensional rigid motion, whose displacement field is given by

Enhancing Prediction Accuracy In Sift Theory

Initial Stress Calculations

This guide is made for non-experienced FEA users. It provides basic knowledge needed to start your fatigue calculations quickly.

Solution: T, A1, A2, A3, L1, L2, L3, E1, E2, E3, P are known Five equations in five unknowns, F1, F2, F3, ua and va

This procedure covers the determination of the moment of inertia about the neutral axis.

The Design of Polyurethane Parts: Using Closed Solutions and Finite Element Analysis to Obtain Optimal Results

Shock Wave Propagation due to Methane-Air Mixture Explosion and Effect on a Concrete Enclosure

Plasticity R. Chandramouli Associate Dean-Research SASTRA University, Thanjavur

STRUCTURAL ANALYSIS OF THE LIFTING DEVICE DETECTOR SUPPORTS FOR THE LHCb VERTEX LOCATOR (VELO)

EE C247B ME C218 Introduction to MEMS Design Spring 2017

Tensor Transformations and the Maximum Shear Stress. (Draft 1, 1/28/07)

Stress and Displacement Analysis of a Rectangular Plate with Central Elliptical Hole

ENG1001 Engineering Design 1

ABSTRACT INTRODUCTION

Finite Element Analysis of Bicycle Crank

External Pressure... Thermal Expansion in un-restrained pipeline... The critical (buckling) pressure is calculated as follows:

Figure 1: Throwing arm dimensions

BioMechanics and BioMaterials Lab (BME 541) Experiment #5 Mechanical Prosperities of Biomaterials Tensile Test

Module 2: Thermal Stresses in a 1D Beam Fixed at Both Ends

Final Design Project: Biodiesel Settling Tank Analysis

IMPACT RESPONSE ANALYSIS OF LARGE SCALE RC GIRDER WITH SAND CUSHION

2002 Pavement Design

Failure from static loading

five Mechanics of Materials 1 ARCHITECTURAL STRUCTURES: FORM, BEHAVIOR, AND DESIGN DR. ANNE NICHOLS SUMMER 2017 lecture

Stress Analysis of a Compressor Vane-Spring

FEA CODE WITH MATLAB. Finite Element Analysis of an Arch ME 5657 FINITE ELEMENT METHOD. Submitted by: ALPAY BURAK DEMIRYUREK

MEMS Project 2 Assignment. Design of a Shaft to Transmit Torque Between Two Pulleys

COURSE TITLE : APPLIED MECHANICS & STRENGTH OF MATERIALS COURSE CODE : 4017 COURSE CATEGORY : A PERIODS/WEEK : 6 PERIODS/ SEMESTER : 108 CREDITS : 5

Finite Element Solutions for Geotechnical Engineering

UNIVERSITY OF SASKATCHEWAN ME MECHANICS OF MATERIALS I FINAL EXAM DECEMBER 13, 2008 Professor A. Dolovich

Technical Specifications

Mechanical Design in Optical Engineering. For a prismatic bar of length L in tension by axial forces P we have determined:

Non-linear and time-dependent material models in Mentat & MARC. Tutorial with Background and Exercises

DYNAMIC ANALYSIS OF PILES IN SAND BASED ON SOIL-PILE INTERACTION

14. LS-DYNA Forum 2016

Finite-Element Analysis of Stress Concentration in ASTM D 638 Tension Specimens

Inventor 2019 lancering

Technical Specifications

PStress R Pulley Stress Analysis Software Users Manual*

Mars Ascent Vehicle Hybrid Motor Structural Analysis

Mechanically Advantageous Wheelchair

General elastic beam with an elastic foundation

2D Liquefaction Analysis for Bridge Abutment

Effect Of The In-Situ Stress Field On Casing Failure *

Chapter 12. Static Equilibrium and Elasticity

Finite Element Modeling of an Aluminum Tricycle Frame

University of Pretoria Department of Mechanical & Aeronautical Engineering MOW 227, 2 nd Semester 2014

Chapter 5. Vibration Analysis. Workbench - Mechanical Introduction ANSYS, Inc. Proprietary 2009 ANSYS, Inc. All rights reserved.

Global Effect of Mirror Mounted on Aluminum with Adhesive

Arberi Ferraj. Wentworth Institute of Technology. Design of Machine Elements MECH 420

INTRODUCTION TO THE EXPLICIT FINITE ELEMENT METHOD FOR NONLINEAR TRANSIENT DYNAMICS

1 Slope Stability for a Cohesive and Frictional Soil

Transcription:

Simulation of FEA_ES00187 Date: 6. februar 2017 Designer: Study name: FEA-ES00187 Analysis type: Static Description Glass protection with glass anchor ES00187 Height 1100 mm Load 500N / m - a straight line to the top edge. Table of Contents Description... 1 Study Properties... 2 Units... 2 Material Properties... 3 Loads and Fixtures... 5 Contact Information... 6 Mesh information... 7 Resultant Forces... 8 Study Results... 9 Conclusion... 12 Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 1

Study Properties Study name Analysis type Mesh type Thermal Effect: Thermal option Zero strain temperature Include fluid pressure effects from SOLIDWORKS Flow Simulation Solver type Inplane Effect: Soft Spring: Inertial Relief: Incompatible bonding options Large displacement Compute free body forces Friction Use Adaptive Method: Result folder FEA-ES00187 Static Solid Mesh On Include temperature loads 298 Kelvin FFEPlus Automatic On SOLIDWORKS document (C:\Firma_Pro\PROJEKTER\EasySteel\ES00187) Units Unit system: Length/Displacement Temperature Angular velocity Pressure/Stress SI (MKS) mm Kelvin Rad/sec N/m^2 Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 2

Material Properties Model Reference Properties Components Name: PVB Model type: Linear Elastic Isotropic Default failure Unknown criterion: Tensile strength: 4e+007 N/m^2 Elastic modulus: 2.41e+009 N/m^2 Poisson's ratio: 0.3897 Mass density: 1260 kg/m^3 Shear modulus: 8.622e+008 N/m^2 Extrude2)(ES00187-1/ES00187-Plast-1), Extrude2)(ES00187-2/ES00187-Plast-1) Curve Data:N/A Curve Data:N/A Curve Data:N/A Name: 1.4462 (X2CrNiMoN22-5-3) Model type: Linear Elastic Isotropic Default failure Max von Mises Stress criterion: Yield strength: 6.5e+008 N/m^2 Tensile strength: 8.5e+008 N/m^2 Elastic modulus: 2e+011 N/m^2 Poisson's ratio: 0.28 Mass density: 7800 kg/m^3 Shear modulus: 7.9e+010 N/m^2 Thermal expansion 1.1e-005 /Kelvin coefficient: Name: 1.0601 (C60) Model type: Linear Elastic Isotropic Default failure Max von Mises Stress criterion: Yield strength: 6.6e+008 N/m^2 Tensile strength: 8.5e+008 N/m^2 Elastic modulus: 2.1e+011 N/m^2 Poisson's ratio: 0.28 Mass density: 7800 kg/m^3 Shear modulus: 7.9e+010 N/m^2 Thermal expansion 1.1e-005 /Kelvin coefficient: Extrude3)(ES00187-1/ES00187_Holder-1), SolidBody 1(Fillet8)(ES00187-1/ES00187_fod-1), Extrude3)(ES00187-2/ES00187_Holder-1), SolidBody 1(Fillet8)(ES00187-2/ES00187_fod-1) Extrude1)(ES00187-1/M8x30-1), Extrude1)(ES00187-1/M8x30-2), Extrude1)(ES00187-2/M8x30-1), Extrude1)(ES00187-2/M8x30-2) Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 3

Curve Data:N/A Name: H-Glass Model type: Linear Elastic Isotropic Default failure Unknown criterion: Tensile strength: 1.4e+010 N/m^2 Compressive 5e+008 N/m^2 strength: Elastic modulus: 6.8935e+011 N/m^2 Poisson's ratio: 0.23 Mass density: 2457 kg/m^3 Shear modulus: 2.80022e+010 N/m^2 Thermal expansion 9e-006 /Kelvin coefficient: SolidBody 1(Split Line1)(Glas 1100x1035_2-1) Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 4

Loads and Fixtures Fixture name Fixture Image Fixture Details Entities: Type: 8 face(s) Fixed Geometry Fixed-1 Resultant Forces Components X Y Z Resultant Reaction force(n) 499.965-0.0722427 0.0962219 499.965 Reaction Moment(N.m) 0 0 0 0 Load name Load Image Load Details Entities: 1 face(s) Type: Apply normal force Value: 500 N Force-1 Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 5

Contact Information Contact Contact Image Contact Properties Type: Bonded Components: 1 component(s) Options: Compatible mesh Global Contact Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 6

Mesh information Mesh type Mesher Used: Jacobian points Maximum element size Minimum element size Mesh Quality Remesh failed parts with incompatible mesh Solid Mesh Curvature based mesh 16 Points 0 mm 0 mm High Mesh information - Details Total Nodes 274357 Total Elements 163594 Maximum Aspect Ratio 68.812 % of elements with Aspect Ratio < 3 98.1 % of elements with Aspect Ratio > 10 0.0483 % of distorted elements(jacobian) 0 Time to complete mesh(hh;mm;ss): 00:00:29 Computer name: JIMMY-PC Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 7

Resultant Forces Reaction forces Selection set Units Sum X Sum Y Sum Z Resultant Entire Model N 499.965-0.0722427 0.0962219 499.965 Reaction Moments Selection set Units Sum X Sum Y Sum Z Resultant Entire Model N.m 0 0 0 0 Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 8

Study Results Name Type Min Max Stress1 VON: von Mises Stress 1361.29 N/m^2 1.54262e+008 N/m^2 Node: 60572 Node: 14892 FEA_ES00187-FEA-ES00187-Stress Name Type Min Max Displacement1 URES: Resultant Displacement 0 mm 5.73733 mm Node: 4264 Node: 33190 Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 9

FEA_ES00187-FEA-ES00187-Displacement Name Type Min Max Strain1 ESTRN: Equivalent Strain 1.83297e-008 Element: 16467 0.00239028 Element: 6685 Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 10

FEA_ES00187-FEA-ES00187-Strain Name Type Min Max Factor of Safety1 Automatic 2.6389 Node: 294 8.82384e+008 Node: 102299 Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 11

FEA_ES00187-FEA-ES00187-Factor of Safety Conclusion Glass protection is loaded in a line at 500N / m in height of 1100 mm. Glass protection consisting of glass anchor ES00188 fitted with 14 mm tempered glass. FEA shows a Factor of Safety for glass anchor of 4.2 and the glass of 2.6 This is OK And a maximum deflection of 57 mm. Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 12

Analyzed with SOLIDWORKS Simulation Simulation of FEA_ES00187 13