Канал: engineering-content

Su 2024 MechMat: Session 25 - Office Hours and Beams VI - Superposition, Indeterminacy, and Springs

Su 2024 MechMat: Session 25 - Office Hours and Beams VI - Superposition, Indeterminacy, and Springs

Su 2024 MechMat: Session 24 - Office Hours and Beam Bending V

Su 2024 MechMat: Session 24 - Office Hours and Beam Bending V

Su 2024 MechMat: Session 23 - Failure Criteria II

Su 2024 MechMat: Session 23 - Failure Criteria II

Su 2024 MechMat: Session 22 - Failure Criteria I

Su 2024 MechMat: Session 22 - Failure Criteria I

Su 2024 MechMat: Session 21 - Plane Strain

Su 2024 MechMat: Session 21 - Plane Strain

Su 2024 MechMat: Session 20 - Absolute Max. Shear Stress

Su 2024 MechMat: Session 20 - Absolute Max. Shear Stress

Su 2024 MechMat: Session 19 - Mohr's Circle - Plane Stress III

Su 2024 MechMat: Session 19 - Mohr's Circle - Plane Stress III

Su 2024 MechMat: Session 18 - Plane Stress II

Su 2024 MechMat: Session 18 - Plane Stress II

Su 2024 MechMat: Session 17 - Plane Stress I - Equilibrium on Slices and Transformations

Su 2024 MechMat: Session 17 - Plane Stress I - Equilibrium on Slices and Transformations

Su 2024 MechMat: Post Session 16 - Office Hours

Su 2024 MechMat: Post Session 16 - Office Hours

Su 2024 MechMat: Session 16 - Combined Loadings: Superposition of Loads and Stresses

Su 2024 MechMat: Session 16 - Combined Loadings: Superposition of Loads and Stresses

Su 2024 MechMat: Session 12 - Beams II

Su 2024 MechMat: Session 12 - Beams II

Su 2024 MechMat: Session 13 - Beams III

Su 2024 MechMat: Session 13 - Beams III

Su 2024 MechMat: Session 12 - Beams I

Su 2024 MechMat: Session 12 - Beams I

Su 2024 MechMat: Office Hour Post Session 10 - Torsion II

Su 2024 MechMat: Office Hour Post Session 10 - Torsion II

Su 2024 MechMat: Session 10 - Torsion II

Su 2024 MechMat: Session 10 - Torsion II

Su 2024 MechMat: Session 9 - Torsion I

Su 2024 MechMat: Session 9 - Torsion I

Su 2024 MechMat: Session 8 - Normal Loading II

Su 2024 MechMat: Session 8 - Normal Loading II

Su 2024 MechMat: Session 7 - Normal Loading I

Su 2024 MechMat: Session 7 - Normal Loading I

Su 2024 MechMat: Session 6 - Material Properties II

Su 2024 MechMat: Session 6 - Material Properties II

Su 2024 MechMat: Session 5 - Material Properties I

Su 2024 MechMat: Session 5 - Material Properties I

Su 2024 MechMat: Session 4 - Stress and Strain

Su 2024 MechMat: Session 4 - Stress and Strain

Su 2024 MechMat: Session 3 - Axial Loading

Su 2024 MechMat: Session 3 - Axial Loading

Su2023 MechMat - Session 2: Static Equilibrium

Su2023 MechMat - Session 2: Static Equilibrium

Su 2024 MechMat: Session 1 - Introduction, Physical Unis, and Scaling Relationships

Su 2024 MechMat: Session 1 - Introduction, Physical Unis, and Scaling Relationships

Soft Robotics: Airfoils, Rotary Actuators, and Bio-Inspired Robotic Jellyfish

Soft Robotics: Airfoils, Rotary Actuators, and Bio-Inspired Robotic Jellyfish

Fluid-Soft Material Interactions in Airfoils, Rotary Actuators, and Bio-Inspired Robotic Jellyfish

Fluid-Soft Material Interactions in Airfoils, Rotary Actuators, and Bio-Inspired Robotic Jellyfish

Stress Concentration, Fatigue, and Vibration with a Cantilever Beam in Ansys FEA

Stress Concentration, Fatigue, and Vibration with a Cantilever Beam in Ansys FEA

Analysis of a Spring board (Diving board) using Ansys Static Structural FEA

Analysis of a Spring board (Diving board) using Ansys Static Structural FEA

Simulating NACA 2412 Airfoil over Varied Angles of Attack in Ansys Fluent with Verification

Simulating NACA 2412 Airfoil over Varied Angles of Attack in Ansys Fluent with Verification

Fa 2023 Live Final Review

Fa 2023 Live Final Review

Fa 2023 Live Session 25: Beams VI

Fa 2023 Live Session 25: Beams VI

Fa 2023 Live Session 24: Beams V - Deflection

Fa 2023 Live Session 24: Beams V - Deflection

Fa 2023 Live Session 23: Failure Criteria II

Fa 2023 Live Session 23: Failure Criteria II

Fa 2023 Live Session 22: Failure Criteria I

Fa 2023 Live Session 22: Failure Criteria I

Fa 2023 Live Session 18: Plane Stress II

Fa 2023 Live Session 18: Plane Stress II

Simulating the Stress in a Simple Tensile Structure in FreeCAD using CalculiX

Simulating the Stress in a Simple Tensile Structure in FreeCAD using CalculiX

Designing a Simple Tensile Structure in FreeCAD

Designing a Simple Tensile Structure in FreeCAD

Fabricating and Testing a Simple Structure for Tensile Loading

Fabricating and Testing a Simple Structure for Tensile Loading

Designing a Simple Structure for Tensile Loading

Designing a Simple Structure for Tensile Loading

Fa 2023 Live Session 13: Beams III

Fa 2023 Live Session 13: Beams III

Fa 2023 Live Session 12: Beams II

Fa 2023 Live Session 12: Beams II

Fa 2023 Live Session 11: Beams I

Fa 2023 Live Session 11: Beams I

Fa 2023 Live Session 10: Torsion II

Fa 2023 Live Session 10: Torsion II

Fa 2023 Live Session 9: Torsion I

Fa 2023 Live Session 9: Torsion I

Fa 2023 Live Session 8: Normal Loading II

Fa 2023 Live Session 8: Normal Loading II

Fa 2023 Live Session 7: Normal Loading I

Fa 2023 Live Session 7: Normal Loading I

Fa 2023 Live Session 6: Material Properties II

Fa 2023 Live Session 6: Material Properties II

Tensile Test and Estimating Ultimate Tensile Strength of a Paper Specimen

Tensile Test and Estimating Ultimate Tensile Strength of a Paper Specimen

MechMat: Instructional Video for Tensile Testing

MechMat: Instructional Video for Tensile Testing

MechMat Lab: Tensile Testing of Paper - Changing the Grips on the Machine

MechMat Lab: Tensile Testing of Paper - Changing the Grips on the Machine

Fa 2023 Live Session 5: Material Properties I

Fa 2023 Live Session 5: Material Properties I

Fa 2023 Live Session 4: Stress and Strain

Fa 2023 Live Session 4: Stress and Strain

MechMat Lab: Tensile Testing of an Aluminum Sample - Data Collection and Processing

MechMat Lab: Tensile Testing of an Aluminum Sample - Data Collection and Processing

Fa 2023 Live Session 3: Axial Loading

Fa 2023 Live Session 3: Axial Loading

Fa 2023 Live Session 2: Static Equilibrium for Bars, Shafts, Beams, and Trusses

Fa 2023 Live Session 2: Static Equilibrium for Bars, Shafts, Beams, and Trusses

Fa 2023 Live Session 1: Introduction, Physical Units, and Scaling Laws

Fa 2023 Live Session 1: Introduction, Physical Units, and Scaling Laws

Su2023 Live Session 24: Beams V - Deflection

Su2023 Live Session 24: Beams V - Deflection

Su2023 Live Session 25: Beams VI - Superposition, Indeterminacy, Springs, and FEA

Su2023 Live Session 25: Beams VI - Superposition, Indeterminacy, Springs, and FEA

Su2023 Live Sessions 21: Plane Strain - Mohr's Circle (Brief Cut)

Su2023 Live Sessions 21: Plane Strain - Mohr's Circle (Brief Cut)

Su2023 Live Sessions 22 and 23: Failure Criteria I and II - Normal and Shear Stresses, Distortion

Su2023 Live Sessions 22 and 23: Failure Criteria I and II - Normal and Shear Stresses, Distortion

Su2023 Live Sessions 21: Plane Strain - Mohr's Circle

Su2023 Live Sessions 21: Plane Strain - Mohr's Circle

Su2023 Live Session 20: Absolute Max Shear Stress

Su2023 Live Session 20: Absolute Max Shear Stress

Su2023 Live Sessions 18 & 19: Plane Stress II - Principal Normal Stresses, In-plane Max Shear, Mohr

Su2023 Live Sessions 18 & 19: Plane Stress II - Principal Normal Stresses, In-plane Max Shear, Mohr

Su2023 Live Session 17: Plane Stress I - Equilibrium on Sliced Elements, Transformations

Su2023 Live Session 17: Plane Stress I - Equilibrium on Sliced Elements, Transformations

Su2023 Live Sessions 16: Combined Loadings - Superposition of Loads and Stresses

Su2023 Live Sessions 16: Combined Loadings - Superposition of Loads and Stresses

Su2023 Live Session 15: Thin-walled Pressure Vessels

Su2023 Live Session 15: Thin-walled Pressure Vessels

Su2023 Live Session 14: Beams IV - Transverse Shear

Su2023 Live Session 14: Beams IV - Transverse Shear

Su2023 Live Session 13: Beams III - Bending Moment-Bending Stress Relationships

Su2023 Live Session 13: Beams III - Bending Moment-Bending Stress Relationships

Su2023 Live Sessions 11 and 12: Beams I and II

Su2023 Live Sessions 11 and 12: Beams I and II

Su2023 Live Sessions 9 and 10: Torsion I and II

Su2023 Live Sessions 9 and 10: Torsion I and II

Su2023 Session 8: Normal Loading II

Su2023 Session 8: Normal Loading II

Su2023 Session 7: Normal Loading I

Su2023 Session 7: Normal Loading I

Su2023 Session 6: Material Properties II

Su2023 Session 6: Material Properties II

Su2023 Session 3: Axial Loading and Session 4: Stress and Strain

Su2023 Session 3: Axial Loading and Session 4: Stress and Strain

Su2023 Session 2: Static Equilibrium

Su2023 Session 2: Static Equilibrium

Su2023 Session 1: Introduction and Physical Units

Su2023 Session 1: Introduction and Physical Units

Session 25: Beams VI - In-class, Live Session

Session 25: Beams VI - In-class, Live Session

MechMat 25.3: Beams VI - Beams as Springs

MechMat 25.3: Beams VI - Beams as Springs

MechMat 25.2: Beams VI - Indeterminacy

MechMat 25.2: Beams VI - Indeterminacy

MechMat 25.1: Beams VI - Superposition

MechMat 25.1: Beams VI - Superposition

MechMat 24.3: Beams V - Deflections - The Ways of the Engineer

MechMat 24.3: Beams V - Deflections - The Ways of the Engineer

MechMat 24.2: Beams V - Deflection - Procedure

MechMat 24.2: Beams V - Deflection - Procedure

MechMat 24.1: Beams V - Deflection - Derivation of Equations

MechMat 24.1: Beams V - Deflection - Derivation of Equations

Session 23: Failure Criteria II - In-class, Live Session

Session 23: Failure Criteria II - In-class, Live Session

MechMat 23.3: Failure Criteria II - Maximum-Distortion-Energy Criteria (von Mises)

MechMat 23.3: Failure Criteria II - Maximum-Distortion-Energy Criteria (von Mises)

MechMat 23.2: Failure Criteria II - Mohr Criterion

MechMat 23.2: Failure Criteria II - Mohr Criterion

MechMat 23.1: Failure Criteria II - Safety Factors

MechMat 23.1: Failure Criteria II - Safety Factors

Session 22: Failure Criteria I- In-class, Live Session

Session 22: Failure Criteria I- In-class, Live Session

MechMat 22.3: Failure Criteria I - Ductile Failure due to Maximum Shear Stress

MechMat 22.3: Failure Criteria I - Ductile Failure due to Maximum Shear Stress

MechMat 22.2: Failure Criteria I - Brittle Failure due to Maximum Normal Stress

MechMat 22.2: Failure Criteria I - Brittle Failure due to Maximum Normal Stress

MechMat 22.1: Failure Criteria I - Ductile and Brittle Materials

MechMat 22.1: Failure Criteria I - Ductile and Brittle Materials

Session 21: Plane Strain - In-class, Live Session

Session 21: Plane Strain - In-class, Live Session

MechMat 21.3: Strain Gauges

MechMat 21.3: Strain Gauges

MechMat 21.2: Plane Strain - Mohr's Circle

MechMat 21.2: Plane Strain - Mohr's Circle

MechMat 21.1: Plane Strain - Transformations

MechMat 21.1: Plane Strain - Transformations

Session 20: Absolute Maximum Shear Stress - In-class, Live Session

Session 20: Absolute Maximum Shear Stress - In-class, Live Session

MechMat 20.3: Absolute Maximum Shear Stress with Structural Examples

MechMat 20.3: Absolute Maximum Shear Stress with Structural Examples

MechMat 20.2: Absolute Maximum Shear Stress with Mohr's Circle

MechMat 20.2: Absolute Maximum Shear Stress with Mohr's Circle

MechMat 20.1: Triaxial Stress - Finding Principal Stresses

MechMat 20.1: Triaxial Stress - Finding Principal Stresses

Session 19: Plane Stress III - In-class, Live Session

Session 19: Plane Stress III - In-class, Live Session

MechMat 19.3: Plane Stress III - Applying Mohr's Circle to Structural Elements

MechMat 19.3: Plane Stress III - Applying Mohr's Circle to Structural Elements

MechMat 19.2: Plane Stresses III - Constructing Mohr's Circle

MechMat 19.2: Plane Stresses III - Constructing Mohr's Circle

MechMat 19.1: Plane Stress III - Derivation of Mohr's Circle

MechMat 19.1: Plane Stress III - Derivation of Mohr's Circle

Session 18: Plane Stress II - Plane Stress II - In-class, Live Session

Session 18: Plane Stress II - Plane Stress II - In-class, Live Session

MechMat 18.4: Plane Stress II - Calculating In-plane Max Shear Stress

MechMat 18.4: Plane Stress II - Calculating In-plane Max Shear Stress

MechMat 18.3: Plane Stress II - Calculating Max/Min In-plane Principal Stresses

MechMat 18.3: Plane Stress II - Calculating Max/Min In-plane Principal Stresses

MechMat 18.2: Plane Stress II - In-plane Max Shear Stress

MechMat 18.2: Plane Stress II - In-plane Max Shear Stress

MechMat 18.1: Plane Stress II - In-plane Principal Stresses

MechMat 18.1: Plane Stress II - In-plane Principal Stresses

Session 17: Plane Stress I - Equilibrium on Sliced Elements, Transformations

Session 17: Plane Stress I - Equilibrium on Sliced Elements, Transformations

MechMat 17.3: Plane Stress I - Stress Tensors and Rotations

MechMat 17.3: Plane Stress I - Stress Tensors and Rotations

MechMat 17.2: Plane Stress I - Generalied Equations for 2D-Transformed Elements

MechMat 17.2: Plane Stress I - Generalied Equations for 2D-Transformed Elements

MechMat 17.1: Plane Stress I - Sections and Equilibrium on Rotated Material Elements

MechMat 17.1: Plane Stress I - Sections and Equilibrium on Rotated Material Elements

Session 16: Combined Loading - Superposition of Loads and Stresses

Session 16: Combined Loading - Superposition of Loads and Stresses

MechMat 16.2: Combined Loadings - Superposition of Normal Stresses

MechMat 16.2: Combined Loadings - Superposition of Normal Stresses

MechMat 16.3: Combined Loadings - Superposition of Shear Stresses

MechMat 16.3: Combined Loadings - Superposition of Shear Stresses

MechMat 16.4: Combined Loadings - Superposition of Normal and Shear Stresses

MechMat 16.4: Combined Loadings - Superposition of Normal and Shear Stresses

MechMat 16.1: Combined Loadings - Types, Stresses, Scaling Laws, and Superposition

MechMat 16.1: Combined Loadings - Types, Stresses, Scaling Laws, and Superposition

Session 15: Thin-walled Pressure Vessels - Pressure-Normal Stress Relationships

Session 15: Thin-walled Pressure Vessels - Pressure-Normal Stress Relationships

MechMat 15.2: Thin-walled Pressure Vessels - Examples

MechMat 15.2: Thin-walled Pressure Vessels - Examples

MechMat 15.1: Thin-walled Pressure Vessels and the Stresses in their Walls

MechMat 15.1: Thin-walled Pressure Vessels and the Stresses in their Walls

Session 14: Beams IV - Transverse Shear Strain

Session 14: Beams IV - Transverse Shear Strain

MechMat 14.3: Beams IV - Moment of Area and Transverse Shear Stress

MechMat 14.3: Beams IV - Moment of Area and Transverse Shear Stress

MechMat 14.2: Beams IV - The Shear Formula

MechMat 14.2: Beams IV - The Shear Formula

MechMat 14.1: Beams IV - Single and Double Shear in Very Short Beams

MechMat 14.1: Beams IV - Single and Double Shear in Very Short Beams

Session 13: Beams III - Bending Moment-Bending Stress Relationships

Session 13: Beams III - Bending Moment-Bending Stress Relationships

Session 13.3: Beam Bending III - Second Moment of Area

Session 13.3: Beam Bending III - Second Moment of Area

Session 13.2: Beams III - Bending Stress and Flexure Formula

Session 13.2: Beams III - Bending Stress and Flexure Formula

Session 13.1: Beams III - Radius of Curvature and Longitudinal Strain

Session 13.1: Beams III - Radius of Curvature and Longitudinal Strain

Session 12: Beams II - Graphing Shear Forces and Bending Moments

Session 12: Beams II - Graphing Shear Forces and Bending Moments

Session 12, Part 3: Beams II

Session 12, Part 3: Beams II

Session 12, Part II: Beams II

Session 12, Part II: Beams II

Session 12.1: Beams II - Shear Force and Bending Moments (Equilibrium)

Session 12.1: Beams II - Shear Force and Bending Moments (Equilibrium)

Session 11: Beams I - Shear Forces and Bending Moments

Session 11: Beams I - Shear Forces and Bending Moments

Session 10: Torsion III - Indeterminate Twisted Rods

Session 10: Torsion III - Indeterminate Twisted Rods

Session 9: Torsion II - Torsion and Twisting of a Shaft

Session 9: Torsion II - Torsion and Twisting of a Shaft

Session 8: More Normal Loading and Shear Strain in a Twisted Rod

Session 8: More Normal Loading and Shear Strain in a Twisted Rod

Session 7: Normal Loading (Mechanics of Materials)

Session 7: Normal Loading (Mechanics of Materials)

Session 6: Material Properties II (Mechanics of Materials)

Session 6: Material Properties II (Mechanics of Materials)

Using Colab IPython as a Calculator for Mechanics of Materials

Using Colab IPython as a Calculator for Mechanics of Materials

Session 5: Material Properties I (Mechanics of Materials)

Session 5: Material Properties I (Mechanics of Materials)

Session 4: Stress and Strain (Mechanics of Materials)

Session 4: Stress and Strain (Mechanics of Materials)

Session 3: Axial Loading - Bars as Springs (Mechanics of Materials)

Session 3: Axial Loading - Bars as Springs (Mechanics of Materials)

Session 2: Static Equilibrium for Bars, Shafts, Beams, and Trusses (Mechanics of Materials)

Session 2: Static Equilibrium for Bars, Shafts, Beams, and Trusses (Mechanics of Materials)

Session 1: Introduction, Physical Units, and Scaling Relationships (Mechanics of Materials)

Session 1: Introduction, Physical Units, and Scaling Relationships (Mechanics of Materials)