Fusion 360 Design for 3D Printing

Design a 3D printed vacuum adapter in Fusion 360 by measuring 31 mm outer and 35 mm inner diameters with calipers. Iterate with small test prints to refine fit.

Design a two-diameter adapter in Fusion 360 for 3d printing, apply precise fits and extrusions, test with section analysis, adjust wall thickness, and orient the print for strength.

Design and 3D print a wall-mounted guitar holder bracket in Fusion 360 to keep the neck upright and prevent crashes, then customize the model with text or logos.

Design a guitar holder in Fusion 360 by sketching a centered circle, extruding arms, mirroring features, and adding countersunk screw holes for secure wall mounting and 3D printing.

Design connections for 3d printed parts by splitting models to reduce print time and simplify painting, while enabling easy replacement of fragile sections. Explore push-fit, tight-fit, tolerance, and kit-style assembly.

Design versatile 3D printed connections, including push and push-fit joints with loose or tight fits. Model pockets, holes, captive nuts, screws, and 3D printed threads in Fusion 360.

Design push fit connections in Fusion 360 by building two components, applying offsets and extrusions, and testing tolerance with a dedicated test piece to achieve a reliable print.

Design push-fit connections in Fusion 360 for 3D printing, test fit with printed parts, and tune tolerance using sketches, projections, and parameters to ensure reliable male and female joints.

Design bolted connections in Fusion 360 by creating a captive recess for nuts, drilling an M6 through-hole with a 5.25 mm clearance, and applying consistent tolerances across parts.

Design threaded connections in Fusion 360 for 3D printing by creating components, applying modeled threads, tuning tolerances and offsets, and validating clearance with section analysis.

Obtain design information for Fusion 360 by measuring with calipers, using existing 3D models or manufacturer drawings to capture mounting holes and openings for phone case or Raspberry Pi enclosure.

Import the phone model as a step file and design a case around it in Fusion 360, using reference geometry, sketches, sweeps, and holes for camera and ports.

Design a phone case in Fusion 360 for 3D printing by sketching, projecting outer profiles, applying offsets for tolerance, extruding cutouts, and preparing the model for printing.

Design an enclosure for a circuit board using reference drawings or measurements, define mounting holes and openings for usb sockets, then create the box with extrude, shell, and rounded corners.

Design an enclosure for a Raspberry Pi using Fusion 360 for 3d printing, detailing base and lid creation, tolerances, fillets, shell thickness, screw holes, and optional venting.

Insert an image as a canvas in Fusion 360, calibrate its scale from a known dimension, then trace and loft a profile with splines to build an accurate, printable model.

Learn to use image planes and canvases in Fusion 360 to reference front, side, and top images for clutter-free modeling and accurate 3d prints, with adjustable opacity and offset planes.

Learn to add detail to a 3D print by engraving or embossing text and logos on a face, using sketch text and extrude to create recessed or raised features.

Follow along in this over-the-shoulder Fusion 360 tutorial to model a NASA rocket for 3D printing, using repeating steps and simple techniques to build a polished result.

Design a two-piece connection in Fusion 360 using a bottom connector and inner-offset features, establish a sliding or snug fit via precise tolerances, and print two test pieces to validate.

Calibrate the image plane by offsetting a plane, insert and scale the canvas to 76 mm, then save, lock the canvas, and begin 3d modeling for a printable rocket part.

Model the main base by sketching circles on origin planes, loft between two cylinders, then extrude a thin ring and add a pipe and guardrails for 3d printing.

Design a hollow base in Fusion 360 for 3d printing, then model four separable rocket nozzle parts with precise tolerances for snug slots. Use extrude, join, circular pattern, and chamfer.

Learn how to model the main body in Fusion 360 for 3d printing by splitting it into three identical sections for easier multi-printer printing, using projection, extrude, and pattern techniques.

Build the inter-tank in Fusion 360 by creating a main component, extruding the body, modeling a pipe with projections and offsets, and lofting a tapered fairing for a textured finish.

Model textured surfaces in Fusion 360 for 3d printing by sketching a center rectangle, extruding, trimming, and applying circular patterns with cuts and offsets.

Describe how to model the main top body in Fusion 360 for 3D printing using two parts, inner taper, lofted profiles, wall thickness reinforcement, and chamfering.

Model the payload top section in Fusion 360 by sketching, extruding, offsetting, and lofting to form a hollow, removable body with tolerances for 3D printing a rocket.

Model a solid crew module in Fusion 360 for 3D printing, shaping a dome that slots to a base with tolerance, ridge detail, and a subtle separation cue.

Model the escape tower as a single integrated part in Fusion 360, using sketches, lofts, revolved nozzles, and a four-rocket circular pattern for a printable fit.

Model the main nozzle in Fusion 360 for 3d printing, forming a hollow or solid body with a flexible concave heat shield, using lofts and patterns to print four nozzles.

Model one solid rocket booster in Fusion 360 using sketch, extrude, and loft to form the main body and nozzle, align with the rocket, and print twice for testing fit.

Create a new component in Fusion 360, sketch and extrude, then loft across offset planes to form the SRB 02 shape, projecting dimensions for a detailed rocket booster model.

In Fusion 360 design for 3D printing, learn to sketch, extrude, create holes, and slot identical segments of the SRB 03 into a solid assembly with proper tolerances and fillets.

Model the SRB middle section in Fusion 360 for 3D printing, creating repeating ridges, offsets, and extrudes to form identical, interlocking pieces.

Model the SRB top piece in Fusion 360 using sketches, offset planes, extrudes, lofts, and shells, then design the connecting features to the main body for robust 3D prints.

Create a two-millimeter gap by sketching on the main model, projecting features, offsetting construction lines, and using from-object extrudes to form the top and band with correct hole alignment.

Design a connecting piece in Fusion 360 using a mid plane, sketching and extruding to create a precise fit for 3D printing.

Learn to mirror components and create symmetric extrusions in Fusion 360, prepare parts for 3d printing, export as mesh, and add transfers using transfer paper.

Demonstrate an end-to-end Fusion 360 workflow to design and 3D print a model rocket, then assemble, paint, and apply decals, while sharing finished results.