1) A finite element analysis was conducted on a segment tool used in a CNC press using SolidWorks Simulation.
2) The segment tool was fixed on the upper end and a force of 120,000 N was applied on the bottom end to simulate the pressing force.
3) The results found maximum von Mises stresses of 221.7 MPa, maximum displacements of 0.537 mm, and maximum equivalent strains of 0.000833, indicating the tool will withstand the intended forces without failing.
The document summarizes the results of a static simulation analysis conducted on a new wind turbine profile model with shear webs. The maximum von Mises stress was found to be 3.11583e+007 N/m^2 and the maximum resultant displacement was 4916.33 mm. Introducing shear webs reduced the resultant displacement by 10% compared to a model without shear webs, providing reinforcement against flexural loads. However, further analytical validation of the study results is required.
The document summarizes the results of a static simulation analysis conducted on a new wind turbine profile model with shear webs. The maximum von Mises stress was found to be 3.11583e+007 N/m^2 and the maximum resultant displacement was 4916.33 mm. Introducing shear webs reduced the resultant displacement by 10% compared to a model without shear webs, providing reinforcement against flexural loads. However, further analytical validation of the study results is required.
This document summarizes the results of a static simulation analysis performed on Part1. A pressure load of 10 N/m^2 was applied to one face, while another face was fixed. The maximum von Mises stress was 19.6618 N/m^2 and occurred at node 126. The maximum displacement was 8.69172e-010 mm at node 123. The simulation used linear elastic material properties for AISI 1020 steel with a mesh of 7331 elements. In conclusion, the static simulation was performed to analyze stresses and displacements in Part1 under the given loading conditions.
The document summarizes the results of a natural frequency simulation performed on a model. The simulation determined the first two natural frequencies to be 3375.2 Hz and 3396.42 Hz. The model consisted of three solid bodies made of AISI 1020 steel, which were fully constrained at one end. A mesh of over 17,000 nodes and 10,000 elements was generated for the frequency study. Displacement plots for the first two modes showed the maximum deflections.
The document summarizes the results of a static simulation analysis conducted on a new wind turbine profile model with shear webs. The maximum von Mises stress was found to be 3.11583e+007 N/m^2 and the maximum resultant displacement was 4916.33 mm. Introducing shear webs to the model reduced the resultant displacement by 10% compared to a model without shear webs, demonstrating their reinforcing effect against flexural loads. Further analytical validation of the study results is required.
This document summarizes a static simulation analysis of a modified lug wrench conducted in SOLIDWORKS Simulation. The analysis modeled the wrench as a solid body made of alloy steel and applied 35 lbf forces to opposite faces. It generated a mesh of the model and reported on stresses, displacements, and strains in the wrench under the applied loads, with maximum Von Mises stress of 8510 psi and maximum displacement of 0.009808 in. The analysis concluded the static simulation of the modified lug wrench.
Simulation study report of a bracket on SOLIDWORKS software. In this study we can see in a certain load how a bracket will behave. From this study we can see that in which load this bracket will be failed.
A torsional analysis was performed on a final design using SOLIDWORKS Simulation. The analysis found a maximum shear stress of 2.37478e+008 N/m^2, maximum resultant displacement of 5.33638 mm, and a minimum factor of safety of 1.55804. The results and conclusions of the torsional analysis are summarized.
A static simulation analysis was performed on a final design to evaluate stress, displacement, and factor of safety. The analysis found maximum shear stress of 2.60655e+008 N/m^2, resultant displacement of 7.23501 mm, and minimum safety factor of 1.4195. The results and conclusions of the simulation are presented.
A static front impact simulation was performed on a final design. The simulation results show maximum shear stress of 2.14288e+008 N/m^2 and maximum resultant displacement of 1.18805 mm. The minimum factor of safety was 1.72665.
Ankit Sain submitted a project report on the design and analysis of a C-clamp. The report includes modeling of the 3D frame and components in Solidworks, 2D drawings, results from motion analysis and finite element analysis simulations, and references. The FEA analysis found that the C-clamp can withstand a maximum load of 30kN and has a factor of safety of 1 at this load. At a 7kN load, the factor of safety is 3.3. Increasing the fillet radius could further increase the clamp's load capacity.
A dynamometer was found to create 300 Watts of heat from friction every second. Thermal studies showed the resulting temperatures of the dynamometer over variable increments of time.
new profile_52.3m_three points_unsplitted-Nonlinear with epoxy-1Vishnu R
This document summarizes the results of a nonlinear dynamic simulation of a 52.3m beam profile. The maximum von Mises stress was 2.06e8 N/m^2. The maximum displacement was 7162.71 mm. The maximum velocity was 730.022 mm/s and the maximum acceleration was 12.1129 mm/s^2. In conclusion, the results were consistent with an earlier static analysis for the 10 second simulation with 0.1 second time steps.
NON LINEAR ANALYSIS OF A HAWT BLADE USING LARGE DEFLECTION CRITERIAVishnu R
This document summarizes the results of a nonlinear dynamic simulation of a 52.3m beam profile. The maximum von Mises stress was 2.06e8 N/m^2. The maximum displacement was 7162.71 mm. The maximum velocity was 730.022 mm/s and the maximum acceleration was 12.1129 mm/s^2. In conclusion, the results were consistent with an earlier static analysis for the 10 second simulation with 0.1 second time steps.
The document summarizes a static analysis of a galvanizer quench platform made of carbon steel. Key details include:
- Loads include the weights of tanks, feed tank, and catwalk supports.
- Maximum von Mises stress of 27,036 psi is under the yield strength of 36,259 psi for ASTM A36 steel.
- Maximum displacement of 0.0164 inches and equivalent strain of 0.00031 are within acceptable limits.
- Factor of safety is above 1 for all nodes, indicating the design is sufficient for supporting the given loads and stresses.
This document is a test report for a water flow sensor. It provides information on the applicant, test item description, test standards, test procedures, test results and other details. The water flow sensor was tested according to IEC/EN 61010-1 for safety requirements for electrical equipment. The testing was performed by Shenzhen ZCT Technology Co., Ltd. and the test item was found to meet the requirements of the standard.
This document provides a test report for a security door to assess compliance with IEC 60950-1 safety standards. Testing was conducted from December 2-10, 2015 at a testing laboratory in Shenzhen, China. The sample tested was a security door from Shenzhen Xinyuantong Electronics Co. Various safety tests were performed and the sample was found to comply with requirements.
STRESS LIFE BASED FATIGUE ANALYSIS ON AUTOMOTIVE CONNECTING RODVishnu R
This document summarizes the setup and results of a static structural analysis and fatigue analysis performed on a connecting rod model (A4). The model includes the geometry, mesh, materials, loads, and boundary conditions. The static structural analysis calculates stress, strain, and deformation results. Two fatigue analyses are then performed to calculate fatigue life, safety factors, and damage based on the static results and a load history file. Charts of fatigue sensitivity and rainflow/damage matrices are presented.
This document discusses optimizing the quality characteristics of 3D printers using Six Sigma methodology. Key parameters that influence 3D print quality like infill percentage, extruder speed, temperature settings, and number of layers were identified. Taguchi design of experiments was used to determine the optimal settings for infill percentage, number of shells, layer height, and extruder temperature that maximize tensile strength. Confirmation runs showed improvements in process capability. SPC charts will be used for quality control of the optimized 3D printing process.
This document discusses optimizing the design of 3D printed ABS columns through variation of hexagonal infill percentage and orientation to minimize material usage. Finite element analysis was conducted on columns with different infill percentages and angles. Experimental validation and sensitivity analysis were also planned. The recommended column design was found to be 11% hexagonal infill oriented at 0 degrees, which had a maximum stress of 15.76 MPa while minimizing material usage at 27.88 mg.
This document summarizes the results of a static simulation analysis performed on Part1. A pressure load of 10 N/m^2 was applied to one face, while another face was fixed. The maximum von Mises stress was 19.6618 N/m^2 and occurred at node 126. The maximum displacement was 8.69172e-010 mm at node 123. The simulation used linear elastic material properties for AISI 1020 steel with a mesh of 7331 elements. In conclusion, the static simulation was performed to analyze stresses and displacements in Part1 under the given loading conditions.
The document summarizes the results of a natural frequency simulation performed on a model. The simulation determined the first two natural frequencies to be 3375.2 Hz and 3396.42 Hz. The model consisted of three solid bodies made of AISI 1020 steel, which were fully constrained at one end. A mesh of over 17,000 nodes and 10,000 elements was generated for the frequency study. Displacement plots for the first two modes showed the maximum deflections.
The document summarizes the results of a static simulation analysis conducted on a new wind turbine profile model with shear webs. The maximum von Mises stress was found to be 3.11583e+007 N/m^2 and the maximum resultant displacement was 4916.33 mm. Introducing shear webs to the model reduced the resultant displacement by 10% compared to a model without shear webs, demonstrating their reinforcing effect against flexural loads. Further analytical validation of the study results is required.
This document summarizes a static simulation analysis of a modified lug wrench conducted in SOLIDWORKS Simulation. The analysis modeled the wrench as a solid body made of alloy steel and applied 35 lbf forces to opposite faces. It generated a mesh of the model and reported on stresses, displacements, and strains in the wrench under the applied loads, with maximum Von Mises stress of 8510 psi and maximum displacement of 0.009808 in. The analysis concluded the static simulation of the modified lug wrench.
Simulation study report of a bracket on SOLIDWORKS software. In this study we can see in a certain load how a bracket will behave. From this study we can see that in which load this bracket will be failed.
A torsional analysis was performed on a final design using SOLIDWORKS Simulation. The analysis found a maximum shear stress of 2.37478e+008 N/m^2, maximum resultant displacement of 5.33638 mm, and a minimum factor of safety of 1.55804. The results and conclusions of the torsional analysis are summarized.
A static simulation analysis was performed on a final design to evaluate stress, displacement, and factor of safety. The analysis found maximum shear stress of 2.60655e+008 N/m^2, resultant displacement of 7.23501 mm, and minimum safety factor of 1.4195. The results and conclusions of the simulation are presented.
A static front impact simulation was performed on a final design. The simulation results show maximum shear stress of 2.14288e+008 N/m^2 and maximum resultant displacement of 1.18805 mm. The minimum factor of safety was 1.72665.
Ankit Sain submitted a project report on the design and analysis of a C-clamp. The report includes modeling of the 3D frame and components in Solidworks, 2D drawings, results from motion analysis and finite element analysis simulations, and references. The FEA analysis found that the C-clamp can withstand a maximum load of 30kN and has a factor of safety of 1 at this load. At a 7kN load, the factor of safety is 3.3. Increasing the fillet radius could further increase the clamp's load capacity.
A dynamometer was found to create 300 Watts of heat from friction every second. Thermal studies showed the resulting temperatures of the dynamometer over variable increments of time.
new profile_52.3m_three points_unsplitted-Nonlinear with epoxy-1Vishnu R
This document summarizes the results of a nonlinear dynamic simulation of a 52.3m beam profile. The maximum von Mises stress was 2.06e8 N/m^2. The maximum displacement was 7162.71 mm. The maximum velocity was 730.022 mm/s and the maximum acceleration was 12.1129 mm/s^2. In conclusion, the results were consistent with an earlier static analysis for the 10 second simulation with 0.1 second time steps.
NON LINEAR ANALYSIS OF A HAWT BLADE USING LARGE DEFLECTION CRITERIAVishnu R
This document summarizes the results of a nonlinear dynamic simulation of a 52.3m beam profile. The maximum von Mises stress was 2.06e8 N/m^2. The maximum displacement was 7162.71 mm. The maximum velocity was 730.022 mm/s and the maximum acceleration was 12.1129 mm/s^2. In conclusion, the results were consistent with an earlier static analysis for the 10 second simulation with 0.1 second time steps.
The document summarizes a static analysis of a galvanizer quench platform made of carbon steel. Key details include:
- Loads include the weights of tanks, feed tank, and catwalk supports.
- Maximum von Mises stress of 27,036 psi is under the yield strength of 36,259 psi for ASTM A36 steel.
- Maximum displacement of 0.0164 inches and equivalent strain of 0.00031 are within acceptable limits.
- Factor of safety is above 1 for all nodes, indicating the design is sufficient for supporting the given loads and stresses.
This document is a test report for a water flow sensor. It provides information on the applicant, test item description, test standards, test procedures, test results and other details. The water flow sensor was tested according to IEC/EN 61010-1 for safety requirements for electrical equipment. The testing was performed by Shenzhen ZCT Technology Co., Ltd. and the test item was found to meet the requirements of the standard.
This document provides a test report for a security door to assess compliance with IEC 60950-1 safety standards. Testing was conducted from December 2-10, 2015 at a testing laboratory in Shenzhen, China. The sample tested was a security door from Shenzhen Xinyuantong Electronics Co. Various safety tests were performed and the sample was found to comply with requirements.
STRESS LIFE BASED FATIGUE ANALYSIS ON AUTOMOTIVE CONNECTING RODVishnu R
This document summarizes the setup and results of a static structural analysis and fatigue analysis performed on a connecting rod model (A4). The model includes the geometry, mesh, materials, loads, and boundary conditions. The static structural analysis calculates stress, strain, and deformation results. Two fatigue analyses are then performed to calculate fatigue life, safety factors, and damage based on the static results and a load history file. Charts of fatigue sensitivity and rainflow/damage matrices are presented.
This document discusses optimizing the quality characteristics of 3D printers using Six Sigma methodology. Key parameters that influence 3D print quality like infill percentage, extruder speed, temperature settings, and number of layers were identified. Taguchi design of experiments was used to determine the optimal settings for infill percentage, number of shells, layer height, and extruder temperature that maximize tensile strength. Confirmation runs showed improvements in process capability. SPC charts will be used for quality control of the optimized 3D printing process.
This document discusses optimizing the design of 3D printed ABS columns through variation of hexagonal infill percentage and orientation to minimize material usage. Finite element analysis was conducted on columns with different infill percentages and angles. Experimental validation and sensitivity analysis were also planned. The recommended column design was found to be 11% hexagonal infill oriented at 0 degrees, which had a maximum stress of 15.76 MPa while minimizing material usage at 27.88 mg.
1. Analyzed with SolidWorks Simulation Simulation of Part2 1
Simulation of XL 155H
Designer: Dejan Dragonjić
Study name: Study 1
Analysis type: Static
Table of Contents
Description............................................1
Assumptions ..........................................3
Model Information ...................................4
Study Properties .....................................5
Units ...................................................5
Material Properties ..................................6
Loads and Fixtures...................................7
Connector Definitions...............................7
Mesh Information ....................................8
Sensor Details ........................................9
Resultant Forces .....................................9
Study Results ....................................... 10
Conclusion .......................................... 12
Description
SEGMENT TOOL
2. Dejan Dragonjić
25-Apr-15
Analyzed with SolidWorks Simulation Simulation of Part2 2
5. DESIGN TOOL FOR PRODUCTION PROFILE
While designing the tools you need to become familiar with the possibilities of the press that, to see
its characteristics. This is a CNC press FLEXI German manufacturer RAS band from Sindelfingen's.
The length of the profile that can be profiled are 4060 mm, thicknesses up to 2.5mm, the movement
of the stop 10 to 1550 mm. The maximum force presses 120 000 N (12t).
Sl.22 Flexi bend
Sl.23. Segment Tools
When designing tools we have the limitation that the total height of tools Fig.23 can not be greater
than 160 mm. This is because the press has a working stroke of 160 mm. If the developed tools to
measure more than 160 mm would lead to tool breakage, because the travel range of 160 mm above
the quick stroke presses, the tool is approaching uncontrollable speed.
3. Dejan Dragonjić
25-Apr-15
Analyzed with SolidWorks Simulation Simulation of Part2 3
6. (Finite element analysis – FEA)
As part of the software package SolidWorks integrated tool for analysis of stress and deformation
SolidWorks Simulation in which he analyzed static load segment tool presses the finite element
method.
As a fixed bearing tool is defined in the upper position, and force loads in the bottom of the tool. The
tool is loaded with a force of 120,000 N (Figure 26), a tool material is a tool steel whose
characteristics are defined in the database software tool SolidWorks.
Sl.26. Segment Tool
Assumptions
4. Dejan Dragonjić
25-Apr-15
Analyzed with SolidWorks Simulation Simulation of Part2 4
Model Information
Model name: Part2
Current Configuration: Default
Solid Bodies
Document Name and
Reference
Treated As Volumetric Properties
Document Path/Date
Modified
Fillet1
Solid Body
Mass:6.75606 kg
Volume:0.000860645 m^3
Density:7850 kg/m^3
Weight:66.2094 N
D:Diplomski
defalatiPart2.SLDPRT
Apr 24 08:55:28 2015
5. Dejan Dragonjić
25-Apr-15
Analyzed with SolidWorks Simulation Simulation of Part2 5
Study Properties
Study name Study 1
Analysis type Static
Mesh type Solid Mesh
Thermal Effect: On
Thermal option Include temperature loads
Include fluid pressure effects from SolidWorks
Flow Simulation
Off
Solver type FFEPlus
Inplane Effect: Off
Soft Spring: Off
Inertial Relief: Off
Incompatible bonding options Automatic
Large displacement Off
Compute free body forces On
Friction Off
Use Adaptive Method: Off
Units
Unit system: SI (MKS)
Length/Displacement mm
Angular velocity Rad/sec
Pressure/Stress N/mm^2 (MPa)
6. Dejan Dragonjić
25-Apr-15
Analyzed with SolidWorks Simulation Simulation of Part2 6
Material Properties
Model Reference Properties Components
Name: 1.2367 (X38CrMoV5-3)
Model type: Linear Elastic Isotropic
Default failure
criterion:
Max von Mises Stress
Yield strength: 2120 N/mm^2
Tensile strength: 2120 N/mm^2
Elastic modulus: 215000 N/mm^2
Poisson's ratio: 0.28
Mass density: 7850 g/cm^3
Shear modulus: 79000 N/mm^2
Thermal expansion
coefficient:
1.1e-005 /Kelvin
SolidBody 1(Fillet1)(Part2)
Curve Data:N/A
7. Dejan Dragonjić
25-Apr-15
Analyzed with SolidWorks Simulation Simulation of Part2 7
Loads and Fixtures
Fixture name Fixture Image Fixture Details
Fixed-1
Entities: 1 face(s)
Type: Fixed Geometry
Resultant Forces
Components X Y Z Resultant
Reaction force(N) 0.25502 -120001 0.0343056 120001
Reaction Moment(N·m) 0 0 0 0
Load name Load Image Load Details
Force-1
Entities: 1 face(s)
Type: Apply normal force
Value: 120000 N
Connector Definitions
No Data
8. Dejan Dragonjić
25-Apr-15
Analyzed with SolidWorks Simulation Simulation of Part2 8
Mesh Information
Mesh type Solid Mesh
Mesher Used: Standard mesh
Automatic Transition: Off
Include Mesh Auto Loops: Off
Jacobian points 4 Points
Element Size 8.32501 mm
Tolerance 0.416251 mm
Mesh Quality High
Mesh Information - Details
Total Nodes 17871
Total Elements 10880
Maximum Aspect Ratio 32.724
% of elements with Aspect Ratio < 3 97.5
% of elements with Aspect Ratio > 10 1.39
% of distorted elements(Jacobian) 0
Time to complete mesh(hh;mm;ss): 00:00:01
Computer name: PC
9. Dejan Dragonjić
25-Apr-15
Analyzed with SolidWorks Simulation Simulation of Part2 9
Sensor Details
No Data
Resultant Forces
Reaction Forces
Selection set Units Sum X Sum Y Sum Z Resultant
Entire Model N 0.25502 -120001 0.0343056 120001
Reaction Moments
Selection set Units Sum X Sum Y Sum Z Resultant
Entire Model N·m 0 0 0 0
10. Dejan Dragonjić
25-Apr-15
Analyzed with SolidWorks Simulation Simulation of Part2 10
Study Results
Name Type Min Max
Stress1 VON: von Mises Stress 1.92115 N/mm^2 (MPa)
Node: 17497
221.665 N/mm^2 (MPa)
Node: 12586
Part2-Study 1-Stress-Stress1
11. Dejan Dragonjić
25-Apr-15
Analyzed with SolidWorks Simulation Simulation of Part2 11
Name Type Min Max
Displacement1 URES: Resultant Displacement 0 mm
Node: 49
0.537451 mm
Node: 17790
Part2-Study 1-Displacement-Displacement1
12. Dejan Dragonjić
25-Apr-15
Analyzed with SolidWorks Simulation Simulation of Part2 12
Name Type Min Max
Strain1 ESTRN: Equivalent Strain 9.0101e-006
Element: 4667
0.000833548
Element: 3548
Part2-Study 1-Strain-Strain1
Conclusion
We see that the force of 120,000 (kN) does not threaten its stability, there will be no tool breakage.