Inventor 2019 lancering

Transcription

1 Inventor 2019 lancering

2 Inventor Professional Factory Design Utility (Layout i AutoCAD og Inventor) Nesting Utility Navisworks 3ds Max Fusion 360 Vault Basic Nastran In-CAD HSM Ultimate Recap Pro Autodesk drive Autodesk Rendering One AutoCAD Tool set: AutoCAD AutoCAD Architecture AutoCAD Electrical AutoCAD Map 3D AutoCAD Mechanical AutoCAD MEP AutoCAD Plant 3D (inkl. P&ID) AutoCAD Raster Design AutoCAD mobile appautocad web app

3 PD&M Collection nyheder

4 One Autocad

5 One Autocad Specialized Toolsets Architecture Mechanical Electrical MEP Plant 3D Map 3D Raster Design 5

6 HSM

7 Autodesk HSM - Functionality Express (Free) Ultimate (Embedded in PDMC) 2.5 Axis 2- to 5- Axis, 3+2, Multi-Axis, Turning - Fusion 360 Standard (3 Axis) Inventor Add-in (2.5 Axis) SolidWorks Add-in (2.5 Axis) Inventor Add-in (5 Axis) SolidWorks Add-in (5 Axis) 7

8 2D Toolpaths 2D Pocket 2D Adaptive 2D Contour Trace Engrave Slot Thread/Bore Circular Drilling 8

9 3D Toolpaths Parallel Flow Morphed Spiral Morph Horizontal Contour/Ramp Spiral Scallop Radial Pencil Project 9

10 Turning Parting Chamfer Single Groove Groove Profile Face Thread 10

11 Nastran IN-CAD

12 ATTN! - Nastran In-CAD joined Collection! Assemblies Bolted connections, sliding interfaces, friction Time Transient dynamic loads, vibration, fatigue, and shock Temperature Consider the effects of heat. Solve for temps, heat loads, resulting thermal expansion and thermal stresses Nonlinear Go Beyond Linear Analysis large displacement effects, nonlinear (flexible) materials, buckling 12

13 Analyze types 13

14 Positioning Nastran In-CAD DESIGNER ENGINEER ANALYST Low Cost of Entry Fusion 360/ Fusion 360 Ultimate Nastran In-CAD SolidWorks Sim MSC Apex ANSYS AIM Siemens Nastran MSC Nastran ANSYS High Cost of Entry 3DS Simulia COMSOL MSC Marc 14

15 Linear Statics Linear statics is one of the most common types of analysis. Determine stress, strain, and deformation resulting from applied static loads and imposed constraints. Linear stress, strain, deflection Inertial relief Thermal stress and deflection Prestress Mass properties Multiaxial fatigue Linear statics is the easiest and most common class of FEA. It provides the capability to simulate static loads and slowly applied loads. 15

16 Buckling Use buckling to assess the stability of a device under loads. Buckling examines structures for sudden failure modes caused by compressive forces. Critical loads and mode shapes Linear and nonlinear initial stress Linear buckling is computed with the Euler buckling formula. Use nonlinear buckling to simulate large deformations, contact and nonlinear material behavior in calculation of buckling load. 16

17 Prestress Static and Normal Modes Use prestress static and normal modes to analyze structures subjected to initial stress, and model the effect of the initial stress state on the structures' displacements, stresses, and modes. 17

18 Normal Modes Use normal modes to determine the undamped natural mode shapes and frequencies of structures. This allows designer engineers to explore and resolve problems with noise and vibration. Natural frequencies and mode shapes Flexible and rigid body motion Modal participation factors, effective mass/weight, and reaction forces Linear and nonlinear prestress (stiffening) Virtual fluid mass 18

19 Linear Steady State Heat Transfer Analyze heat transfer to determine the temperature distribution using the principles of conduction and convection heat transfer. Compute steady state and time-dependent heat loading using: Conduction Convection Radiation You can transfer temperature results to structural analyses as thermal loads. 19

20 Composites Simulate the performance of complex ply data. Analysis based on latest failure indices, including Puck and LaRC02. Linear and nonlinear 2D and 3D laminated elements Especially suited for fiber reinforced materials Special failure techniques for sandwich composites Cohesive zone models for delamination failures Failure index and factor of safety calculations Many possible theories 20

21 Assembly Modeling with Contact Go beyond analyzing individual parts. Real world simulation of assemblies is possible with sophisticated modeling of different kinds of contact interactions including sliding, friction and welded contact types. 21

22 Thermal Stress Analyze structures subjected to thermal loads. 22

23 Nonlinear Statics Nonlinear statics provides the ability to add more realistic simulation with contacting parts, nonlinear elastic and plastic materials, and large deformations. Computes advanced nonlinear solutions such as large displacements/rotation, large strain, plasticity, hyperelasticity, and creep. 23

24 Nonlinear Transient Heat Transfer Simulate heat transfer with nonlinear linear thermal boundary conditions that vary through time. An example is transient heat generation caused by power fluctuations. Conduction Convection Radiation 24

25 Nonlinear Steady State Heat Transfer Simulate heat transfer with nonlinear thermal boundary conditions such as temperature-dependent thermal properties. 25

26 Random Response Analyze structural behavior in response to random dynamic loads. 26

27 Frequency Response Dynamic solutions add the ability to include time and mass in the solution. Capabilities include: Enforced harmonic motion - frequency response Time dependent motion and loads - transient response Random excitation Shock loading Use frequency response to determine the structural harmonic response based upon frequency-dependent loads. 27

28 Linear and Nonlinear Transient Response Simulate the time-dependent response of a structure under the influence of constant or time-dependent loads. An example is impulse loading. 28

29 Advanced Nonlinear and Hyperelastic Materials Simulate complex nonlinear phenomena such as plasticity, hyperelasticity, and shape-memory effect. This enables the analysis of a wide range of materials, from metals and shapememory alloys to rubbers and soft tissue. 29

30 Automated Impact Analysis (AIA) and Drop Test Simulate drop tests and other impact type loadings easily and automatically. Define impacting parts, path, and velocity. Define initial conditions and loads, and run as a nonlinear transient analysis. Sophisticated treatment provides realistic and meaningful impact and drop test simulations. The only inputs required are projectile velocity and acceleration. 30