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Finite Element Analysis. SolidWorks Simulation. P5: PIN&CONN

Name: Finite Element Analysis. SolidWorks Simulation. P5: PIN&CONN
Rating: 4.8 (19 reviews)

Elevate your capabilities exponentially in FEA by managing CONNECTORS when using the FINITE ELEMENT METHOD (FEM)

Bestseller

Highest Rated

Created byCarlos Aragonés

Last updated 8/2024

English

What you'll learn

Manage CONNECTORS to improve your level exponentially in FEA
Use CONNECTORS to have accurate FEA Simulation Models
Your FEA Models will be much more realistic
Increase your confident in your FEA Simulations
Make a difference concerning your competitors

Course content

6 sections • 36 lectures • 5h 27m total length

Welcome1:35
Learn to define and manage connectors in finite element analysis with SolidWorks simulation, including contact interactions, bolting, and welding, to ensure accurate results.
About2:02
Explore advanced tools in solidworks simulation for fea course 5, building on prior modules on contact, bolted, and welding connectors, with downloadable files and video guidance.

SPRING Connector in FEA10:41
Learn how spring connectors in finite element analysis replace complex spring geometry with simple elements, enabling efficient tension and compression simulations, preload application, and axial and shear reaction analysis.
TENSION GAUGE PROJECT. Spring Connector in Tension10:03
Set up a tension gauge simulation in SolidWorks, model a spring in extension between parallel faces with 316 stainless steel, remove interaction, and apply 0 N preload with bonded connections.
TENSION GAUGE PROJECT. Spring Connector. K Distributed vs. Total9:49
Set up a tension gauge model in SolidWorks Simulation by applying boundary conditions, a spring connector, a 500 N load, and mesh, then compare distributed vs projected face stiffness.
TENSION GAUGE PROJECT. Spring Connector. Two Locations10:52
Explore evaluating a tension gauge spring connector in SolidWorks simulation, comparing two locations versus parallel faces, and validating distributed and total stiffness through displacement, stress, and reaction force checks.
CULTIVATOR ARM PROJECT. Spring Connector in Compression. Interactions11:32
Analyze a cultivator arm with a compression spring using finite element analysis in SolidWorks Simulation, applying ASTM A36 steel and local and bonded contact interactions.
CULTIVATOR ARM PROJECT. Spring Connector in Compression. FEA Definition9:41
Learn to define bolt and spring connectors in SolidWorks simulation for a cultivator arm, set rigid bolt, apply preload, stiffness, and load, then mesh and run an FEA study.
CULTIVATOR ARM PROJECT. Spring Connector in Compression. Results8:51
Analyze the cultivator arm under compression, noting bolt connection stress near 298.9 MPa, spring displacement of 36 mm, and a bolt safety factor of 1.39 to validate the model.
CULTIVATOR ARM PROJECT. Spring Connector in Compression. PRELOAD10:33
Explore preload in a compression spring connected to a cultivator arm, calculate preload from delta L and stiffness, and analyze how preload reduces displacement and refines connector stiffness under load.
CULTIVATOR ARM PROJECT. Spring Connector in Compression. SHEAR STIFFNESS11:05
Evaluate a cultivator arm spring connector by incorporating shear stiffness, analyzing axial and shear loads, and validating displacement and stiffness through preload and CRK study comparisons in SolidWorks.

LINK Connector in FEA8:40
Explore link and linkage rod connectors in fea, learn how they connect points to preserve distance without transmitting moments, and use tension-only rods to replace straps or chains in fea.
LINK SYSTEM PROJECT. Real Link. AUTOMATIC INTERACTIONS15:37
Explore link connectors in SolidWorks Simulation to transfer loads through a real link, defining bonded and local interactions with automatic tools.
LINK SYSTEM PROJECT. Real Link. Simulation7:34
Set up the SolidWorks simulation by applying fixed geometry, radial and roller slider restrictions, then apply 0.0015 MPa suction and mesh with 65 mm max and 3.25 mm min.
LINK SYSTEM PROJECT. Real Link. Results6:55
Review upper structure stress and link behavior in SolidWorks Simulation, highlighting a 411.7 MPa welding-zone peak and 18.04 MPa in the link, then show connector elements' role in simplifying FEA.
LINK SYSTEM PROJECT. LINK CONNECTOR11:19
Learn to replace a structural component with a link connector in SolidWorks Simulation, mesh and run the study, and compare stress and displacement to validate time-saving accuracy.
CHASSIS LIFT PROJECT. LINKAGE ROD. Definition9:00
Explore the linkage rod connector in SolidWorks simulation to model lifting a truck chassis, examining mass distribution, center of gravity, and pivot joint and rigid join configurations.
CHASSIS LIFT PROJECT. LINKAGE ROD. Simulation Results10:24
Define boundary conditions and gravity loads, assign ASTM A36 material, determine chassis center of gravity, create curvature-based mesh, and report 48.9 MPa max stress with 5.3 mm displacement.
CHASSIS LIFT PROJECT. LINKAGE ROD. Chassis & Suspension Components9:04
Add front and rear suspension masses (225 kg and 245 kg) to the chassis model in SolidWorks Simulation, analyze stress and displacement, and adjust the center of gravity.
CHASSIS LIFT PROJECT. LINKAGE ROD. Mass Adjustment6:44
Compute the total center of gravity in the x direction from the chassis, front suspension, and rear suspension; then adjust the top support, remesh, and simulate balance.
CHASSIS LIFT PROJECT. LINKAGE ROD. Total Restrictions5:53
Adjust the linkage rod joints from pivot to rigid in a total restriction simulation to analyze equilibrium, stress, and displacement in a chassis lift model.

PIN Connector in FEA5:35
Define pin connectors in FEA, replacing components with a pin to model axial, shear, and bending loads. Restrict translations or rotations and assess pin safety using the factor of safety.
COUPLING SYSTEM PROJECT. Pin Interactions7:58
Model a tractor coupling system in SolidWorks Simulation using pin connectors, and set up a static study with eight pin contact interactions.
COUPLING SYSTEM PROJECT. Pin With Retaining Ring: No translation11:02
Define pin connectors for a coupling system with translation-only constraints, explore rotational stiffness options, apply a rearward load, and run a curvature-based finite element simulation to assess pin behavior.
COUPLING SYSTEM PROJECT. Pin Results9:56
Analyze the coupling system study in SolidWorks simulation, focusing on pin connectors as the load path while noting vertical deformation and pin bolt results that reveal safety concerns.
COUPLING SYSTEM PROJECT. Pin With key: No rotation9:07
Evaluate how rotational stiffness in pin connectors influences load distribution, stress, and displacement in a coupling system, comparing unrestricted and restricted top rotations.
BOOM STRUCTURE PROJECT. Pin Advanced Interactions10:39
Explore a boom system in SolidWorks simulation, focusing on pin connectors and bonded and local interactions for a static FEA study.
BOOM STRUCTURE PROJECT. Pin Combination11:12
Define pin connectors for a boom structure in SolidWorks Simulation, assign 40 mm pins with translational or rotational restrictions, apply a 9250 N load, and generate a blended curvature mesh.
BOOM STRUCTURE PROJECT. Pin Results. Complete Project10:58
Analyze the boom structure stress plots to identify overloaded areas and load paths, using adjusted legends and max annotations to reveal where pins and connectors approach yield.

BEARING Connector in FEA7:22
Explore bearing connectors in finite element analysis, replacing bearing elements with a simple element to capture stiffness, axial, shear, bending, and torque, and compare full mechanism simulations with system-level analysis.
CRANK SHAFT PROJECT. Bearing Configuration11:20
Apply bearing connectors in finite element analysis using SolidWorks Simulation on a bench crankshaft; define cast carbon steel, bonded interactions, and pin connectors for a static study.
CRANK SHAFT PROJECT. Bearing Results10:30
Define fixed geometry and cylindrical radial constraints, apply a 10,000 Newtons load on the piston, and analyze a symmetric bearing connector response with no bending moment transfer.
CRANK SHAFT PROJECT. Bearing Self Alignment8:06
Investigate the shell alignment parameter in SolidWorks simulation by comparing two building connectors, one with self-alignment deactivated, revealing asymmetric stress and bending moments in the crank shaft bearing.
CRANK SHAFT PROJECT. Bearing Flexible Configuration11:26
Explore configuring bearing connectors with flexible stiffness in a crank shaft model using SolidWorks Simulation, compare with rigid connections, and analyze displacements, stresses, and bearing forces for realism.
CRANK SHAFT PROJECT. Bearing Stabilize Shaft Rotation9:10
Assess the effect of stabilized shaft rotation in a crank shaft bearing connector using SolidWorks simulation; find minimal differences and advocate stabilization only for convergence issues.

Requirements

Finite Element Analysis. SolidWorks Simulation. RealProjects. PART 01, 02, 03 & 04. Carlos Aragonés Udemy Profile
SolidWorks Licence 2022 or newer version
Willing to face new challenges to empower your professional career
Basic knowledge of SolidWorks CAD

Description

Welcome Back to the Finite Element Analysis World!

Let me first congratulate you on your interest in improving your level in this fantastic field which will empower your professional career to the next level.

As we were reviewing in previous courses, after my years of experience, I could experience all the benefits for different industries when they use the Finite Element Method (FEM) during the development process.

They produce better and efficient designs that save time and, most importantly, save MONEY.

This is a fact: The demand of FEA professionals is continuously increasing, so we need to encourage people to join us in this field.

Therefore, I designed previous courses to take you from a complete beginner in FEA to a confident simulation professional, equipped with all the essential skills. Moving then to more advanced techniques in Contact Interactions and Bolted and Welding Connections.

You will find these courses in my Udemy's Profile. The order is this one:

Finite Element Analysis. SolidWorks Simulation. RealProjects
Finite Element Analysis. SolidWorks Simulation. P2: CONTACTS
Finite Element Analysis. SolidWorks Simulation. P3: BOLTS
Finite Element Analysis. SolidWorks Simulation. P4: WELDING

And now, we are going to continue exploring more advanced models that will require the use of advanced techniques in FEA.

In this specific case, you will learn how to manage with the rest of CONNECTIONS in FEA.

But the important thing here is that I am not going to just show you what clicks you need to do to define a Connector in FEA.

Here we are going to explore each parameter you need to know and calculate to ensure your connectors have the proper configuration.

And, achieve a good behavior of your FEA Simulation models.

Throughout the course, you will master the following techniques:

SPRING CONNECTOR
- How Spring connectors in FEA save us a huge amount of time and computational cost
- Main points of Spring Connectors
  - SPRING IN TENSION
    - Stiffness Calibration
  - SPRING IN COMPRESSION
    - PreLoad Adjustment
    - Shear Stiffness Influence
- What is the purpose of each Connector configuration and when to use them
- Simulate Real cases where you will apply each of them.
LINK CONNECTOR
- How Link connectors in FEA save us a huge amount of time and computational cost
- Main points of Link Connectors
  - LINK CONNECTOR
    - Link Connector vs. Real Link
  - LINKAGE ROD CONNECTOR
    - Advantages of this interesting Connector
    - How to calibrate a model in a Lifting Process Simulation

PIN CONNECTOR
- How PIN connectors contribute to the mechanical engineering field and how to use them in FEA
- Main points of PIN Connectors
  - Contact Interactions for PIN Connection
  - PIN Acceptability
  - Component Forces
    - AXIAL, SHEAR & BENDING
  - Advantages of Pin Connectors

BEARING CONNECTOR
- Exploring the interesting BEARING mechanisim
- Main points of BEARING Connectors
  - Rigid vs. Flexible
  - Self Alignment
  - Stabilize Shaft Rotation
- What is the purpose of each Connector configuration and when to use them
- Simulate Real case where you will explore each configuration.

CONVERGENCE ISSUES. You will face new problems that you can find when defining your FEA model due to:
- Complex Geometry
- Advance tools in FEA
- Combination of contact interactions and connectors
- Specific Connector Definitions
REAL SCENARIOS. We will apply all that concepts and knowledge to more complete projects.
- PROJECT 01: Tension Gauge
- PROJECT 02: Cultivator Arm
- PROJECT 03: Link System
- PROJECT 04: Chassis Frame Lifting
- PROJECT 05: Coupling System
- PROJECT 06: Boom Crank Structure
- PROJECT 07: Crank-Shaft System

We will start from the easiest definition and go through all the cases as we progress during this course.

Showing you how to speed up the process of definition and increase your efficiency by very cool METHODOLOGIES.

I want to practice with you how to analyse each of the REAL SCENARIOS to know how to respond when you find different problems in your future projets.

In addition, I will guide you to calculate the proper parameters to have the correct configuration for your connectors and so your project will have the correct behaviour to be analysed.

As always, the key is to LEARN BY DOING and that is exactly what we are going to do here.

With all the examples that we are going to review, you will obtain the corresponding CRITERIA & CAPABILITIES to manage with scenarios during your future projects with confidence.

So,

Get ready to continue exploring advanced problems in FEA.

See you inside!

Who this course is for:

Engineers, technicians and 3D designers who want to increase their capabilities in the FEA World

Finite Element Analysis. SolidWorks Simulation. P5: PIN&CONN

What you'll learn

Explore related topics

Course content

Introduction2 lectures • 4min

SPRING CONNECTOR9 lectures • 1hr 33min

LINK CONNECTOR10 lectures • 1hr 31min

PIN CONNECTOR8 lectures • 1hr 16min

BEARING CONNECTOR6 lectures • 58min

CONCLUSIONS1 lecture • 6min

Requirements

Description

Who this course is for: