Generative Design with Autodesk Fusion 360

Explore generative design using cloud based AI to optimize parameters such as materials, manufacturing methods, and safety factors, turning multi-part assemblies into lightweight, single parts.

Explain the differences between generative design and topology optimization, including parameters and preserve geometries. Show how manufacturing methods and materials influence outcomes for an excavator part.

Learn to apply generative design in Fusion 360 by configuring starting shapes, constraints, loads, and objectives. Then use the explore page to compare solutions and identify the optimal design.

Examine the objective design for generative design in Fusion 360, focusing on weight reduction of the gripper and suitable manufacturing methods. Define preserve regions, loads, materials, and topology optimization.

Explore how to shape custom designs in Fusion 360 using generative design by setting parameters and constraints, analyzing static stress, and preserving fixed regions for efficient variation.

Create a new generative design project in Fusion 360 by defining preserved bodies, obstacles, and starting shapes, using split body and offset tools to prepare the model.

Define preserved bodies and preserved geometries in generative design with Fusion 360 to accommodate servo motor placement, enforce constraints, and support the preserved design space.

Explore obstacle geometries in Fusion 360 to steer generative design by avoiding solid models in regions, screw-hole zones. Define obstacle areas and apply them using the design and edit modules.

Discover how starting shapes influence Fusion 360 generative design by defining or omitting a yellow starting area, shaping topology optimization and outputs through adjustable parameters and surface-area variations.

Define structural constraints in Fusion 360 by fixing surfaces on the x, y, z axes, applying forces, and analyzing static stress to see how different constraint placements affect displacement.

Identify and apply structural loads in Fusion 360 generative design by defining forces, directions, and moments on preserved geometries, using vectors or angles, then review load cases and constraints.

Define objectives and limits for generative design in Fusion 360, including minimize mass and safety factor, then choose aluminum alloy from the material library.

Explore the Fusion 360 material library for generative design and analysis, learn to assign physical materials, navigate the material browser, create custom materials, and manage favorites for parts.

Create custom materials in Fusion 360 by duplicating library materials and modifying their properties. Use these materials for simulations and generative design, focusing on physical, mechanical, and appearance attributes.

Explore material properties and stress-strain behavior with nonlinear static analysis in Fusion 360, comparing steel and aluminum and visualizing yield strength, ultimate tensile strength, and Young's modulus.

select and transfer materials for a generative design in Fusion 360, compare plastics and aluminum alloys, adjust mass objectives, and clone studies to test different material choices.

Examine traditional, non-traditional, and additive manufacturing methods in Fusion 360, then compare milling, turning, and 3d printing options to optimize generative design with cam, simulation, and supports.

Explore how generative design selects manufacturing methods in Fusion 360, comparing additive manufacturing, milling with three or five axes, and other methods, guided by design criteria and materials.

Explore additive manufacturing method preferences in Fusion 360, adjusting orientation, overhang angle, and minimum thickness to guide generative design toward manufacturable outcomes.

Master milling methods in Fusion 360 for generative design, exploring 2.5 axis milling, 3 axis milling, and 5 axis milling, tool diameter and shoulder length considerations, and hybrid additive-then-machining workflows.

Access cutting and dye casting methods in Fusion 360, including laser cutting, water jet cutting, and the dye casting method, then adjust direction, wall thickness, and draft angle.

Examine how Fusion 360 generative design adapts to additive, milling (two to five axis), and die casting, then compare outcomes to select the optimal method for durability, appearance, and cost.

Explore how parameters drive generative design in Fusion 360, showing how changing loads, targets, and materials creates multiple project outcomes and enables side-by-side comparisons.

Explore how to change parameters in Fusion 360 to guide generative design, adjust obstacle geometries, preserve geometries, apply loads and constraints, and compare generator outcomes.

Learn to explore possible design outcomes with the explore tool, generate results from defined generative parameters, and compare options by manufacturing methods, materials, mass targets, and stress distributions.

Explore how to classify designs in Fusion 360 using outcome filters to compare multiple studies, materials, and manufacturing methods, and identify low-mass, safe solutions.

Learn how to read tables with scatterplots to evaluate generative design outcomes, compare parameters like safety factor and mass, visualize materials, and examine iterations and 3d previews.

Compare multiple design outcomes in Fusion 360 using the 3D view for quick analysis. Evaluate static stress results and manufacturing options, using checkboxes, scatterplots, and comparison views.

Select the optimal generative design by comparing outcomes across loads, materials, and manufacturing methods, using previews, scatterplots, and parameter-driven iterations to guide decisions.

Determine loads for a front loader project in Fusion 360, explore generative design workflows, analyze load cases and structural constraints, and simulate five different load cases.

Explore how to select materials and manufacturing methods in Fusion 360, compare multiple materials for the same design, and identify optimal designs quickly in the explore page.

Learn how to set design goals in Fusion 360's generative design, selecting safety factors and material considerations to maximize stiffness while controlling mass.

Preview designs to test parameters, adjust materials, and see how obstacle geometries and Rhino designs respond; generate your design after high-detail previews, then save changes.

Transfer generative design outcomes to the design workspace, edit the mesh using surface or mesh modeling tools, and refine the design before saving and continuing with further modifications.

Explore form modeling techniques in Fusion 360 to edit generative design outcomes, using organic modeling to modify non-preserved areas, create bridges, unfreeze components, and assess resistance and manufacturability.

Explore how generative design extends across automotive, aviation, consumer goods, architecture, construction, and industrial manufacturing using Fusion 360 to create optimized, weight-reduced solutions.

Congratulations on completing the course; apply generative design with Fusion 360, render your outcomes into realistic visuals, and continue learning and sharing your projects.