https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners daily 0.75 2026-04-03 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/sine-wave-fan-grille-fusion-tutorial monthly 0.5 2026-04-02 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/47ec8498-d0ed-4fe5-8f27-c8df054872b5/sin-wave-fan-grille-for-3d-printing-made-with-fusion.png The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/15600174-afe7-4c04-8392-20b42fad5cac/fusion-fan-grille-center-rectangle-sketch-tutorial.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Center rectangle sketch defining the overall frame size of the fan grille. This base geometry establishes the main reference for positioning the circular airflow opening and mounting holes in the design. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6a36d37e-0c59-4b07-b501-052b4953ca0b/fusion-fan-grille-circle-sketch-layout-tutorial.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Circle sketch created inside the square frame to define the airflow opening. This circle later controls the boundary where the patterned grille geometry will be trimmed. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/83ae7615-dcf8-43fd-9b9e-dfd8eb21aea6/fusion-fan-grille-hole-placement-sketch-tutorial.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out First mounting hole positioned along a diagonal construction line. Using construction geometry ensures the hole is correctly located relative to the frame corners and center. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/93ed7799-5648-476f-8359-d6a8feb10f73/fusion-fan-grille-rectangular-pattern-holes-tutorial.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Rectangular pattern used to duplicate the mounting hole to all four corners of the frame. This keeps spacing consistent and avoids manually creating multiple identical holes. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/00493e11-5fb8-4362-b453-4c5735ac2ccd/fusion-fan-grille-rounded-corners-sketch-tutorial.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Sketch fillets applied to the frame corners to soften the geometry. Rounded corners improve the appearance and reduce stress concentrations when the part is manufactured. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/56385e5b-a7be-4e55-b0ba-7e198ad6080c/fusion-fan-grille-frame-sketch-isometric-tutorial.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Completed base sketch showing the square frame, circular opening, mounting holes, and a construction line running through the circle. A short 3 mm line at the endpoint defines the profile used for the upcoming sine wave sweep. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f4f58b12-2366-463f-836b-536a7fa4ba83/fusion-sine-wave-path-sweep-setup-tutorial.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Selecting both profiles at the end of the line and then selecting the line as the sweep path in Autodesk Fusion to define the geometry for the sweep operation. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/633436f5-1dda-4572-b8be-8aa1ba33dd3a/fusion-sine-wave-sweep-preview-3d-model.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Sweep preview showing the sine wave profile following the path across the grille opening. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c84da618-6208-4de5-9701-0fa131b1203f/fusion-sine-wave-project-geometry-sketch.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Projected sine wave geometry onto a sketch to reuse the curve for later modeling steps. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/af8fc344-8f75-4bfa-b6c7-8f9da5f9974f/fusion-sine-wave-extrude-surface-modeling.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Surface extrude applied to the sine wave sketch to generate a thin airflow rib. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/abfd7370-a0a1-4152-a4b0-b43c50728cc0/fusion-sine-wave-thicken-surface-feature.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Thicken feature converting the sine wave surface into a solid rib for the grille. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/efc69c3d-1557-4686-a028-52b2d99d2507/fusion-fan-grille-frame-extrude-body.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Square frame extruded to create the main body of the fan grille. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ee435648-8bf9-4c0e-b99d-690c50890f9e/fusion-sine-wave-rectangular-pattern-grille.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Rectangular pattern replicating the sine wave rib across the circular airflow opening. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/fab7db47-0b8b-497a-ae36-00800faf0e31/fusion-fit-point-spline-control-sketch.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Fit point spline used to refine the sine wave shape for smoother airflow geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/852ea0d0-10c2-4ff4-9b73-35b17cc784b2/fusion-fan-grille-pattern-extrude-detail.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Surface modeling Extrude applied to the sine wave sketch to create a surface body. This surface will later be thickened to form a solid body that can be used to cut away geometry from the main part. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6b1cb17c-18d1-4d6a-81f5-d7515a3e2627/fusion-surface-thicken-split-workflow.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Thicken applied to the surface body to create a solid body that extends higher than the final design requires. Making the body taller than needed simplifies the modeling process and ensures the upcoming cut operation removes the correct geometry without needing precise height adjustments. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cf6de619-987a-49ba-8183-f1686d38238d/fusion-revolve-cut-cylinder-trim.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Revolve cut used to trim the patterned ribs to the circular grille boundary. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ade89406-926e-4a99-9d68-5e90dbc6e4a1/fusion-combine-bodies-fan-grille-model.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Combine command merging patterned ribs and frame into a unified grille body. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6883cd3d-1d54-4810-8449-0b6b8f50cb44/fusion-split-body-fan-grille-edit.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Split Body tool used to divide the top sine wave where it intersects with the mounting hole area. This split separates the portion that would collide with the hole so it can be excluded in the final combine operation, helping refine the grille structure before completing the model. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7e95e412-c0c6-4977-a6de-933fab9b1c57/fusion-delete-feature-timeline-edit.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Timeline edit removing an incorrect feature to correct the parametric workflow. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6eb72e4f-1f68-4f88-853c-e6e5bd059e4f/fusion-combine-final-grille-geometry.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Final Combine operation producing the completed fan grille body. The section of the top sine wave that intersects with the mounting hole is intentionally not selected in the combine operation so the mounting hole remains clear and functional. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1b0bd947-d171-4a34-b6fb-2f6f668086cd/fusion-3d-printing-fan-grille-final-model.jpg The Maker Letters - Sine Wave Fan Grille in Fusion – Step-by-Step Tutorial - Make it stand out Finished sine wave fan grille design optimized for 3D printing. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-surface-model-a-pen-holder-for-3d-printing-in-autodesk-fusion monthly 0.5 2026-03-07 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/23ff285d-9ce8-48f6-bb28-760151b90d86/autodesk-fusion-wave-pattern-surface-modeling.png The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/800063c4-4539-4f40-b0e5-25307cbef825/fusion-organic-pen-holder-sketch-circle-setup-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows the first sketch in Fusion, where a center-diameter circle is created at the origin on the horizontal construction plane. The circle defines the outer diameter of the pen holder and is later converted to construction geometry so it can be used as a stable reference without creating an active profile. Starting with simple, well-constrained reference geometry like this makes the entire modeling process more predictable and reduces errors when building complex surface-based patterns later in the workflow. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8add60f0-232f-4a29-be69-ab090b8e0a5a/fusion-organic-pen-holder-dimensioned-circle-sketch-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows the creation of an offset construction plane in Fusion, positioned 50 millimeters from the reference circle. The offset plane defines where the wave-generating geometry will be built, separating complex surface features from the base sketch. Using construction planes like this keeps the timeline organized and makes it easier to control complex patterns without overloading a single sketch or feature, which improves stability when working with organic geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cfabd06d-3f64-402d-8bcd-24c62e924a27/fusion-organic-pen-holder-offset-plane-setup-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows a new sketch created on the offset construction plane, where a short line is drawn near the edge of the reference circle. This line will be used as the profile for a surface sweep that generates the organic wave pattern around the pen holder. Keeping the profile simple and unconstrained allows Fusion to handle high twist values more reliably, which is especially important when creating complex surface geometry that would be difficult or unstable to model using solid features alone. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/918718c7-3f9e-466b-ad6c-25676530a26f/fusion-organic-pen-holder-profile-arc-sketch-sweep-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows a surface sweep in Fusion, where a short profile line is swept along a circular path with a high twist angle to generate the organic wave pattern around the pen holder. Using the Surface Sweep tool instead of a solid sweep allows Fusion to handle extreme twist values and open profiles, which is crucial when creating decorative or patterned geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/58406eca-08c7-47c8-8d0a-17c672ee89a8/fusion-organic-pen-holder-sproject-wave-path-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows the Project tool in Fusion being used to project the wave-like edges from the surface sweep onto a sketch plane. Projected geometry creates an associative reference curve that updates automatically if the underlying surface changes, which is critical when iterating on complex organic patterns. By driving later features from projected curves instead of manually redrawing geometry, you maintain design intent and avoid subtle mismatches that can cause downstream lofts or blends to fail. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3ed05670-dd96-4114-a52f-3672b1e26367/fusion-organic-pen-holder-offset-plane-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows a second offset construction plane created above the projected wave profile in Fusion. Placing sketches and reference geometry on separate planes helps keep complex models modular and easier to debug, especially when working with organic surface features. By spacing construction planes vertically, you gain precise control over the height of each patterned section, which is useful later when lofting between profiles and when repeating the geometry to build up the full height of the pen holder. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/56a88548-1082-40f2-8032-6dffc23c2183/fusion-organic-pen-holder-project-wave-sketch-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows the Project command in Fusion being used to capture wave-shaped edges from the surface geometry onto a sketch plane. The projected curves become associative guide geometry, meaning they stay linked to the original surface and update automatically if the pattern is adjusted later. This approach is especially useful in organic modeling workflows, where multiple features depend on the same underlying curves. By projecting instead of redrawing, you preserve geometric accuracy and reduce the risk of downstream lofts or blends failing due to mismatched profiles. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8dd683c2-74be-450b-a631-e15c1ee9db77/fusion-organic-pen-holder-projected-wave-sketches-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows two projected sketches in Fusion, created from different construction planes. Each sketch captures a different portion of the wave geometry generated by the surface sweep, which is why the two sinus-like curves appear almost mirrored. Because these curves are projected with associative links enabled, they stay connected to the original surface and update automatically if the sweep is modified. Working with multiple projected profiles like this gives you precise control over how the pattern evolves along the height of the model, while keeping downstream operations such as lofts and boundary fills robust and less prone to failure than if the curves were manually recreated. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2ef094fb-344c-4bd6-bc29-fae26bb297f8/fusion-organic-pen-holder-surface-modeling-extrude-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows two wave-like profiles being extruded in Fusion to create thin surface sections at different heights. These surfaces act as reference geometry that will later be connected using a surface loft. Creating these as separate surface bodies keeps the geometry lightweight and easier for Fusion to compute compared to extruding full solid features at this stage. Working with intermediate surface sections like this improves stability when building complex organic patterns and provides precise control over how the shape transitions along the height of the pen holder. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e9dda2c4-7542-445e-a2b7-e4d22b29f1d8/fusion-organic-pen-holder-surface-modeling-loft-with-tangency-control.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows a surface loft in Fusion connecting two wave-shaped profiles created at different heights. The loft is set with tangency continuity (G1), which ensures a smooth transition between the surfaces without sharp changes in direction. Using surface lofts with controlled continuity is especially effective for organic designs, as it produces clean, flowing geometry that is both visually smoother and more reliable for downstream operations such as mirroring, boundary fill, and conversion to solid bodies for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ecff7b0f-ae07-435b-a1ba-274cb764b0d9/fusion-organic-pen-holder-mirror-surface-bodies-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows the Mirror command in Fusion being used to reflect the patterned surface body across a construction plane and join it into a continuous section. Mirroring half of the geometry is an efficient way to maintain perfect symmetry without modeling the full shape manually, which reduces the number of complex features Fusion has to compute. Joining the mirrored result into a single body also simplifies the Browser structure and makes later operations such as boundary fill, patterning, and filleting more robust and predictable. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/137b7e3a-ecc5-49cf-9a60-f662c2993448/fusion-organic-pen-holder-circle-for-boundary-fill-walls-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows a sketch in Fusion where a circular profile is created inside the wave-patterned surface geometry. This circle is later extruded to form a cylindrical boundary volume that defines the interior region of the pen holder. Using a simple, clean boundary shape like this makes subsequent operations such as boundary fill more predictable and less computationally demanding, since Fusion only has to solve the solid volume within a well-defined enclosure rather than processing the full complexity of the patterned surfaces at once. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6197ad0b-4933-4044-bea5-f20a2a3ea555/fusion-organic-pen-holder-extrude-bodies-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows a circular profile being extruded in Fusion to create a cylindrical body that defines the interior boundary of the pen holder. The extrusion is set to extend both upward and downward beyond the patterned surface geometry, ensuring that the cylinder fully encloses the region that will later be converted into a solid using boundary fill. Defining a simple, continuous boundary volume like this reduces computational complexity and gives you precise control over the internal dimensions of the final model, which is especially helpful when preparing organic designs for reliable 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f1e666b7-4eda-4680-abef-e6b5832a175d/fusion-organic-pen-holder-patch-surface-body-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows the Patch command in Fusion being used to close the open top of the patterned surface geometry. By patching the boundary edges, the surface model becomes a closed volume, which is a prerequisite for generating solid geometry with tools like Boundary Fill. Closing the surface at this stage also limits how much geometry Fusion needs to process in a single operation, making subsequent solid creation more stable and predictable—especially when working with dense, wave-based patterns intended for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0bb711cf-0da3-436f-a960-b3e80a5445d0/fusion-organic-pen-holder-boundary-fill-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows the Boundary Fill command in Fusion being used to generate a solid body from the closed surface geometry of the pen holder. By selecting the enclosing surfaces and choosing the interior cell, Fusion computes the volumetric region and converts it into a watertight solid. Boundary Fill is particularly effective for organic or highly patterned models like this, where traditional solid features such as Shell often struggle. This approach gives you a clean, printable solid while keeping the surface-based workflow flexible and computationally manageable earlier in the design process. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ff3bc6ba-28e0-4d4b-9c63-5d5c7c30546d/fusion-organic-pen-holder-appearance-solid-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows the Appearance editor in Fusion being used to apply a plastic material to the pen holder model. Assigning an appearance at this stage is useful because any features created later in the timeline can inherit the same material, which keeps the visual presentation consistent across patterned sections. Applying materials early also helps with visual validation of surface continuity and curvature, making it easier to spot shading artifacts or irregular transitions that could indicate underlying geometry issues before exporting the model for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/16c5ad5b-2a07-4986-9466-d64c27dcf97a/fusion-organic-pen-holder-rectangular-pattern-stack-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows the Rectangular Pattern tool in Fusion being used to stack the patterned pen holder section along the vertical axis. By patterning the body with a fixed spacing that matches the height of the mirrored segment, you can build up the full height of the model with exact repetition and alignment. This approach is both faster and more precise than manually modeling each section, and it keeps the timeline compact. It also makes late-stage design changes easier, since adjusting the original segment automatically updates all patterned instances, which is ideal for iterative workflows and 3D-printable designs. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ebef17a7-51d5-45b2-9467-c4ab2b479640/fusion-organic-pen-holder-filleted-rim-detail-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows the Fillet command in Fusion being applied to the top rim of the pen holder to round over sharp edges. Adding fillets at this stage improves both the visual quality and the usability of the printed part, making the rim more comfortable to touch and less prone to chipping or stringing during 3D printing. Small, controlled fillet values are also more reliable on complex organic geometry, as they reduce the likelihood of edge failures compared to larger radii on highly detailed surfaces. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/da47751a-0d2b-49f2-a6ed-e17b94a07966/fusion-organic-pen-holder-patch-bottom-close-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows the Patch tool in Fusion being used to close the bottom opening of the pen holder. Sealing the bottom surface creates a fully enclosed volume, which is required for generating a watertight solid suitable for 3D printing. Closing the bottom at this stage also gives you more control over wall thickness and interior geometry, making it easier to fine-tune the model for strength, print time, and material usage before exporting the final STL. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2c3a5dc4-2c45-4462-a6e4-4a30d37848ba/fusion-organic-pen-holder-extrude-solid-base-tutorial.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This image shows the Extrude command in Fusion being used to thicken the bottom base of the pen holder by adding a solid layer. Increasing the base thickness improves stability and durability in the printed part, reducing the risk of warping or cracking during use. Adding this material as a joined feature at the end of the timeline also keeps the model easy to modify, since you can quickly adjust the base thickness later if you need to balance print time, material usage, and structural strength. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/33e4c192-bd90-4475-bd9e-fde8f659cd41/3d-printing-pen-holder-print-time-infill-chart.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This chart illustrates how 3D printing time increases as the infill percentage is raised for the pen holder model. Even relatively small changes in infill can add a noticeable amount of print time, since the printer has to lay down more internal structure on every layer. For decorative or non-load-bearing objects like a pen holder, lowering infill is often an efficient way to reduce total print time without sacrificing real-world usability. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2a169ae7-8dbd-45a1-8bd0-d885b82a447b/3d-printing-pen-holder-filament-usage-infill-chart.jpg The Maker Letters - How to Create Complex Wave Patterns in Fusion for 3D Printing - Make it stand out This chart shows how filament consumption increases as the infill percentage is raised for the pen holder model. Higher infill means more internal material is printed on every layer, which directly translates into greater filament usage. For functional parts that don’t carry mechanical loads, reducing infill is often one of the simplest ways to lower material cost per print while still achieving sufficient rigidity for everyday use. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/build-a-parametric-clock-in-fusion-for-3d-printing monthly 0.5 2026-02-03 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/938307ca-5891-4b36-a34a-d0e321222b3d/parametric-clock-fusion-user-parameters-thumbnail.png.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1aa4ab62-85d5-4579-adde-82e85dcc762d/fusion-parametric-clock-new-component-setup-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Setting up a clean component structure in Fusion before modeling a parametric clock. Starting with a dedicated component keeps sketches, bodies, and features organized, which is critical for scalable CAD workflows and future design changes. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7fa87f6b-7992-47d9-8dbc-fa24471de6d3/fusion-parametric-clock-user-parameters-table-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out User parameters in Fusion controlling key dimensions such as clock diameter, depth, movement size, and shaft thickness. This parametric setup allows the entire 3D-printed clock to update by changing a single value. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/83fdf828-8f5f-4964-9dcb-eacf3a326ad4/fusion-parametric-clock-base-sketch-dimensions-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out The main sketch defining the clock’s outer shape and proportions. Fully constraining sketches and linking dimensions to user parameters ensures predictable behavior when resizing the clock for different print sizes. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/29f31835-dc25-4c5f-b027-a5347250d058/fusion-parametric-clock-front-extrude-body-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Extruding the primary clock body from the base sketch. The extrusion depth is driven by user parameters, making the model adaptable to different materials, print settings, and manufacturing constraints. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/48153b57-2ff2-4873-9498-fe48f0cd22ea/fusion-parametric-clock-back-cut-movement-pocket-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Creating a cut on the back side of the clock to house the movement mechanism. Fixed dimensions are used here because the movement size does not scale with the overall clock diameter. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5cf26e3f-5ee3-4c15-9015-6ece03da23de/fusion-parametric-clock-project-sketch-back-face-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Using projected geometry to accurately position features on the back face of the clock. This technique keeps sketches linked to existing geometry, reducing errors when parameters are updated. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a3d4c26a-0313-4871-aa17-65868a9f531b/fusion-parametric-clock-shaft-extrude-new-body-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Extruding the clock shaft as a separate body to maintain control over tolerances and fit. Separating functional features like shafts improves print testing and makes adjustments easier during prototyping. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d2d1986a-568f-42f7-8444-cb22e47beb0b/fusion-parametric-clock-front-detail-extrude-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Creating front-side details that define the clock’s visual depth and design language. Parametric extrudes ensure these details remain proportional when the clock size changes. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2e4e2eb2-e8aa-43fa-8dd1-d6fcba4fc3f6/fusion-parametric-clock-index-marker-extrude-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Assigning custom appearances in Fusion using precise hex color values. Custom materials improve visual clarity, make components easier to identify in the timeline, and help preview final product aesthetics before 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/68380208-48e0-4306-8607-25098c9de441/fusion-parametric-clock-custom-circular-pattern-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Modeling a single index marker and distributing it using a circular pattern. This approach minimizes sketch complexity and allows quick adjustments to marker size, count, and spacing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e3886ce4-5b92-4361-a057-450ed6488be2/fusion-parametric-clock-slot-sketch-hour-hand-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out A new sketch is created on a flat plane above the compartments. This sketch is used to capture associative references by projecting the 3D geometry. Linked projection preserves relationships so changes in the solid automatically update the sketch. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/871efc8b-b1c2-4824-a4fd-2941ac8db8ae/fusion-parametric-clock-hour-hand-extrude-new-body-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Extruding the hour hand as a separate body improves control over thickness, tolerances, and print behavior. Keeping hands as individual bodies also simplifies future edits and testing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f49f3992-9c2a-4dc0-9705-bff907b5e1b0/fusion-parametric-clock-minute-hand-extrude-new-body-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out The minute hand is extruded as its own body to maintain independence from the hour hand. This approach allows different thicknesses and lengths while keeping both hands driven by shared parameters. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7c856bbd-2e05-47b0-bc57-7aae61853566/fusion-parametric-clock-hand-fillets-curvature-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Adding fillets to the clock hands using curvature continuity improves both aesthetics and print quality. Smooth transitions reduce stress points and produce cleaner results on FDM 3D printers. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5669797a-b138-42b8-906c-b2c27ee20c71/fusion-parametric-clock-apply-appearance-materials-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Assigning appearances to different clock components improves visual clarity and makes it easier to identify parts in complex timelines. Materials also help preview contrast and final product aesthetics. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/787321d4-dd30-42cd-ba24-42f1006687bd/fusion-parametric-clock-front-view-final-model-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Front view of the clock model after updating parameters, where the hour and minute hands scale beyond their intended proportions. This highlights a common parametric modeling issue in Fusion and sets up the need to revisit sketches, constraints, and user parameter formulas. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/fc3feef0-6dd5-45bf-86e1-9242a74e93e7/fusion-parametric-clock-hour-hand-user-parameter-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Defining a custom user parameter for the hour hand length based on the clock diameter. This ensures the hand scales correctly when the overall clock size changes. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/43758a13-05da-425e-a002-4d3b91570560/fusion-parametric-clock-minute-hand-user-parameter-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Adding a dedicated user parameter for the minute hand allows fine control over proportions. Separating hour and minute hand formulas prevents sketch failures when resizing the model. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/af1833c1-97fb-4afd-958e-661dff6d3dd0/fusion-parametric-clock-hour-hand-sketch-dimension-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Applying dimensions and constraints to the hour hand sketch ensures predictable behavior during parameter updates. Fully constrained sketches are essential for stable parametric CAD models. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5b587aca-d06a-451b-8c38-d1ba5f1a4b8c/fusion-parametric-clock-minute-hand-sketch-dimension-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out The minute hand sketch is dimensioned using expressions tied to user parameters. This approach keeps the design flexible and avoids manual rework when adjusting clock size. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/aa2807dd-e960-4140-a87a-e9c5fcd558c0/fusion-parametric-clock-sketch-error-highlight-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out After updating the clock diameter, a sketch error becomes visible where geometry no longer behaves as intended. This is a common parametric issue in Fusion and usually indicates missing constraints or poorly defined sketch relationships. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a2b753ff-5031-40a1-96bf-6508f0f95b88/fusion-parametric-clock-add-sketch-constraints-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Applying sketch constraints such as coincident, vertical, and collinear to lock down geometry. Proper constraints prevent sketches from drifting or scaling incorrectly when user parameters are updated. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8c1b7354-225d-4a37-8ab1-e8e8740f2726/fusion-parametric-clock-constrained-sketch-fix-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out With all critical geometry constrained, the sketch behaves predictably during parameter changes. This step resolves the scaling issues seen earlier and restores stability to the parametric model. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a1bad3ad-1c2c-467f-894f-f4c9d0cb5316/fusion-parametric-clock-parameter-update-test-tutorial.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Re-testing the model by changing key user parameters such as clock diameter. The hour and minute hands now update correctly, confirming that the parametric setup is functioning as intended. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e84cbd35-c476-4999-9d59-1f943ce8bab9/3d-printing-parametric-clock-prusa-slicer-preview.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Previewing the clock body in PrusaSlicer to evaluate orientation, infill, and support requirements. Slicer previews are essential for identifying printability issues before committing to long print times. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/4e8d331f-03d6-4bd6-8715-20c330458699/3d-printing-clock-print-time-layer-height-comparison.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Comparison of estimated print times using different layer heights. This highlights how print quality and surface finish trade off directly against production time in FDM 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c65a5b2b-fdfb-49bc-82f2-2a58f3c7a94a/3d-printing-clock-manufacturing-cost-quantity-chart.jpg The Maker Letters - How to Design a Fully Parametric 3D-Printed Clock in Fusion (From CAD to Manufacturing Costs) - Make it stand out Mesh export lets individual bodies be saved as STL or 3MF for slicing. Exporting bodies separately supports modular printing and makes it easier to test or replace compartments without reprinting the full organizer. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/autodesk-fusion-tutorials-for-beginners/parametric-organizer-for-3d-printing-in-fusion monthly 0.5 2026-01-09 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/483f0d6f-478c-465f-9b0f-84a66e12cac1/3d-printable-organizer-box-fusion-design.png.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/482da654-d552-4723-b4f3-024e619074f1/fusion-drawer-organizer-user-parameters-setup.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out The parameters panel centralizes all key dimensions, including wall thickness, item widths, text depth, and overall organizer height. Parameter-driven modeling keeps the design adaptable and prevents breakage when editing dimensions later. Each parameter acts as a single source of truth for downstream features such as cuts, shells, and text extrusions. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/113d84b9-b418-43b5-8ee9-ef28cbcbb3b3/fusion-drawer-organizer-create-new-component-base.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out A dedicated component isolates sketches, bodies, and features, ensuring clean structure in the timeline. Activating the component before sketching prevents geometry from attaching to the root environment. This approach supports reuse, clearer edits, and avoids cross-component dependencies that complicate parametric models. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ad835cff-2e3b-4f0f-be3c-39819d4e36e4/fusion-drawer-organizer-extrude-base-height-parameter.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out The initial base extrusion establishes the primary solid from which all compartments will be formed. Using a height parameter ensures the tray depth can be adjusted without remodeling. Downstream features like shells, splits, and text placement depend on this foundation maintaining predictable behavior. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d8fe8636-f78d-4943-be27-6e4ced72887e/fusion-drawer-organizer-top-sketch-compartment-dimensions.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out The sketch defines the footprint of each compartment using measured dimensions tied to parameters. Constraining the grid prevents accidental distortion when adjusting sizes later. This stage builds the logical structure of the organizer before introducing any 3D operations. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1e726de3-6009-4b85-95f7-81398d3eddf9/fusion-drawer-organizer-sketch-shortcuts-extrude-command.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Using the S-key design shortcuts keeps workflow efficient by reducing toolbar navigation. Commands like Extrude, Project, and Offset become faster to access, which encourages iterative sketch refinement and maintains focus on geometry rather than interface searching. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/29c0c345-11d0-411d-a9ce-5f24768cab39/fusion-drawer-organizer-extrude-surfaces-divider-layout.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Divider lines are extruded as surfaces, not solids, because surfaces function as clean splitting tools with no added thickness. This method allows precise compartment separation while maintaining parametric links back to the original sketch geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/91a191d0-fcdd-4da9-9e19-98ec9da8d6ae/fusion-drawer-organizer-save-version-before-body-splits.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Saving a version before a complex operation creates a reliable rollback point. It is especially valuable in parametric workflows, where splitting or reorganizing bodies can cause cascading changes. Version naming helps track major modeling milestones. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/08bf1348-94fb-4be2-a821-6db35307d7f3/fusion-drawer-organizer-split-body-with-surface-cutters.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out The Split Body command uses the previously created surfaces to divide the base into individual compartments. This preserves clean, aligned faces and avoids manual cutting. Splitting early ensures all compartments remain parametric and update cleanly when dimensions change. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5123227f-06e8-47d8-a8e8-5d73ee3c592c/fusion-drawer-organizer-shell-command-select-top-faces.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Shelling hollows out the compartments and applies a parametric wall thickness. This operation significantly reduces material usage while keeping compartments structurally consistent. Uniform thickness simplifies print settings and ensures predictable slicer behavior. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ef561dc1-6208-4bfa-92f3-f293c30932c3/fusion-drawer-organizer-sketch-shortcuts-project-command.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out A new sketch is created on a flat plane above the compartments. This sketch is used to capture associative references by projecting the 3D geometry. Linked projection preserves relationships so changes in the solid automatically update the sketch. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/79a9c119-fa29-4a3b-ad0c-5293f181adbb/fusion-drawer-organizer-project-compartment-faces-to-sketch.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Projected edges appear as purple, indicating associative references to the underlying faces. These links allow precise alignment of future text, cuts, or detail features without manually redrawing geometry. It ensures dimensional consistency across the design. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8326ed5c-3822-4628-b9b7-cddaa5518078/fusion-drawer-organizer-sketch-text-labels-compartments.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Text is placed inside each compartment to indicate intended contents. Creating labels in the sketch phase lets the model drive text placement and ensures text depth and width remain controlled through parameters. Proper alignment avoids interference with thin walls. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/523befa8-494a-4e26-854b-7fd6a0fd0208/fusion-drawer-organizer-extrude-text-textdepth-parameter.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out All text objects are selected for extrusion and assigned the TextDepth parameter. Centralizing text depth allows quick global adjustments and prevents inconsistent engravings. This reduces timeline clutter and keeps the model cleaner. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2571779b-b207-4429-8380-6b7180c0025e/fusion-drawer-organizer-fillet-top-edges-compartments.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Filleting improves ergonomics and print quality. Rounded edges reduce stress concentrations and minimize sharp transitions that can cause slicing artifacts. Fillets also help prevent chipping on thin 3D-printed walls. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8412a68e-e393-483c-9472-729e143647fd/fusion-drawer-organizer-side-sketch-finger-cutout-profile.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Side-view sketches are used to introduce ergonomic or structural refinements not visible from the top view. Constraining the side sketch ensures stable behavior when height parameters change. This profile often drives finger notches or clearance adjustments. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/eb77c6b2-5145-4141-a8c0-2925dff9d15c/fusion-drawer-organizer-extrude-cut-finger-access-notch.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out The cut eliminates excess geometry and shapes functional access areas such as finger notches. Using parameter-driven distances ensures the profile remains proportional if compartment height or wall thickness changes later. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a38647b6-1ccc-4ef4-9dec-d8aa07ddaf90/fusion-drawer-organizer-fillet-finger-notch-ergonomic.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out A smooth fillet on the notch reduces sharp transitions, making the compartment easier to grip. Rounded geometry also improves first-layer performance and minimizes stress at thin-wall intersections. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/53d69dc6-3179-4a0d-89ca-573e587c5f72/fusion-drawer-organizer-design-shortcuts-offset-face.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Offsetting selected faces generates an expanded perimeter reference for an external frame or lid. Keeping this offset as a separate body or surface ensures later boolean operations remain clean and reversible. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/39f52f03-c1aa-408a-9ff5-d3b799bcfcc6/fusion-drawer-organizer-offset-outer-wall-surface-new-body.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Offsetting the outer contour as a surface gives precise control over boundary thickness without modifying the original solid. This method is useful when generating derived geometry such as trays, lids, or molds. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ad3d7ba3-e92e-4b9a-8e1e-cd7274a14a7c/fusion-drawer-organizer-thicken-offset-surface-wall-thickness.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Thickening the offset surface produces a rigid exterior frame using parametric wall thickness. This controlled conversion from surface to solid ensures the structure stays printable and consistent with internal compartments. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a4bf67f0-1583-40d5-87fb-971886308df9/fusion-drawer-organizer-side-extrude-cut-bottom-clearance.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Bottom-height adjustments let you fine-tune print time and structural strength. Linking this cut or extrusion to the Height parameter keeps vertical proportions consistent across compartments. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ca819598-2bb0-4ef0-b068-60155d4c6bb4/fusion-drawer-organizer-side-extrude-bottom-height-adjust.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out A parametric cut removes leftover geometry resulting from offsets or surface operations. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b8a405fc-cdf2-4b4d-aead-7b2faccb012c/fusion-drawer-organizer-patch-bottom-surface-creation.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Patch generates a zero-thickness surface bounded by selected edges. This technique is used to rebuild planar areas after removing geometry. The surface becomes the foundation for creating a solid bottom through thickening or extrusion. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/aa41e12c-3d19-481a-ad5e-e0563d2e1557/fusion-drawer-organizer-extrude-bottom-thickness-join-body.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Giving the patched bottom a parametric thickness forms the final floor of the organizer. This bottom layer balances stiffness with print efficiency. Adjusting thickness allows users to optimize for strength or material savings. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/09c2fe16-8c70-4413-8a8e-b41eb6b36f20/fusion-drawer-organizer-rightclick-save-as-mesh-export.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Mesh export lets individual bodies be saved as STL or 3MF for slicing. Exporting bodies separately supports modular printing and makes it easier to test or replace compartments without reprinting the full organizer. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/dbf56109-7c57-436d-8a3c-d867b9d65483/fusion-drawer-organizer-save-as-mesh-3mf-settings.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out The mesh dialog defines unit settings, format type, and refinement quality. Using 3MF preserves colors and metadata, while STL ensures compatibility with all slicers. Proper export settings reduce slicing errors and maintain accurate dimensions. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f81c03da-2639-4f37-92d7-a6ead06b2743/fusion-drawer-organizer-design-shortcuts-change-parameters.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Calling Change Parameters from shortcuts encourages continuous parametric refinement. Frequent parameter checks ensure all dependent features remain consistent as the model evolves and complexity increases. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c81cdb7d-69bd-401e-83e5-3eed06d60488/fusion-drawer-organizer-edit-user-parameters-final-check.jpg The Maker Letters - Build a Parametric 3D-Printed Organizer in Fusion: A Complete Step-by-Step Guide - Make it stand out Final adjustments to parameters revise global dimensions and ensure all compartments fit their intended items. Changing a single parameter updates all linked sketches, surfaces, and solids, demonstrating the efficiency of a fully parametric workflow. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/autodesk-fusion-tutorials-for-beginners/twisted-vase-surface-solid-modeling-workflow monthly 0.5 2025-12-11 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9aa6390e-f7bd-4e17-b3f2-c3ad72fc1793/parametric-twisted-vase-pattern-fusion-thumbnail.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/bacb3d40-9cb5-4c29-8658-946775b7dd43/fusion-vase-sketch-profile-setup-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out This sketch defines the main profile of the vase. It includes a 100 mm vertical height, a 25 mm top width, and a fit point spline (step 2) that shapes the curved silhouette. Fully constraining this sketch (not shown in the screenshot) keeps the design stable and ensures later features—like the revolve and surface operations—update cleanly. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b250132d-b0e7-4a40-8a2d-f8727590035c/fusion-vase-revolve-preview-body-shape-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out Here the sketched profile is revolved around the center axis to form the hollow vase shape. The 360° revolve generates a smooth, continuous body that becomes the foundation for the twisted surface pattern added later in the workflow. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1897d544-a82c-4155-9330-dcab4382c21c/fusion-offset-plane-vase-bottom-reference-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out Two offset planes are added to control where the twist pattern starts and ends. These planes create clean boundaries for sketching guide lines and help maintain symmetry as the surface is lofted around the vase. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a52b1fd4-61aa-4233-8c83-25f17f4e3f79/fusion-vase-top-sketch-angle-setup-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out A 135° arc and angled lines are sketched on the offset plane to set up the twist direction. These guide curves control how the surface rotates as it moves from the lower offset plane to the upper one, giving the vase its distinct twisted look. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5dcacd4b-1834-40fd-bdbf-ad25b94d76e4/fusion-vase-loft-guide-curves-tutorial-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out The loft connects the bottom and top profiles while following a guide curve, generating a twisted surface that wraps around the vase. This surface will later be thickened and used to cut a repeating pattern outside the solid vase body. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6a880d4d-a8a5-4bb0-8f9c-40698d738540/fusion-vase-thicken-surface-operation-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out The lofted surface is thickened symmetrically by 1 mm, creating a solid body that wraps around the vase. This step converts the surface into a usable cutting tool for building the outer pattern structure. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/92589fc2-49c7-42c9-ae9b-5680f92dc619/fusion-vase-intersect-cut-solid-model-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out Using the Intersect option, the revolve operation trims the vase body using the thickened twisted surface. This isolates only the overlapping geometry and prepares the pattern for splitting and refinement. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/4d0e2d9b-47e2-491a-9b20-4f57986ace40/fusion-vase-split-body-construction-tools-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out The twist pattern is split at the top and bottom using the previously created offset planes. This creates cleanly segmented pattern pieces that fit neatly within the vase’s surface boundaries. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/98dc73d0-3fe8-4912-8e5d-c6ffd02ad402/fusion-vase-hide-split-bodies-close-up.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out This close-up view focuses on the top of the vase after splitting the twisted surface body. With the main bodies temporarily hidden using the V shortcut, only the trimmed pattern segment remains visible. This makes it easier to inspect whether the split lines align cleanly with the vase’s opening and ensures the pattern will join correctly in the next modeling steps. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8057c6ac-e67c-4fb3-9af3-466cc1e5067a/fusion-vase-shell-thickness-edit-tutorial-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out The Shell tool is used to hollow the vase by selecting the top face and applying a 1 mm inside thickness. This ensures the vase has consistent wall thickness before adding the outer pattern. A common oversight here is accidentally shelling outward instead of inward—using the Inside direction keeps the external shape unchanged and prevents the patterned surface from separating later in the workflow. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0e598dae-6e92-4f60-bffe-91e99021df22/fusion-color-picker-orange-material-fusion-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out The material appearance dialog is open in Fusion while adjusting a custom color for the twisted vase body. The Color Picker is set to an orange tone using the HTML field, which provides consistent color control across design iterations. Changing the appearance at this stage ensures the body updates correctly before creating patterns or duplicating geometry. The timeline shows earlier modeling steps already in place, so updating the color now helps maintain a clean, predictable workflow as the design becomes more complex. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/537bf99b-a3dd-4ab2-a2a6-2256c880c84a/fusion-vase-mirror-bodies-pattern-setup-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out The Mirror command is active to duplicate the twisted vase surface across the vertical construction line. The object type is set to Bodies, and the operation is New Body to keep the mirrored half separate for later pattern work. Mirroring at this stage keeps the geometry clean and symmetrical, which helps when creating intersect or trim operations in the following steps. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/610ea304-06cc-4efd-a08e-4fb2bf15ad0b/fusion-save-version-before-pattern-tutorial-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out The Save dialog is used to create a version checkpoint right before generating the circular pattern. This is a proactive step because complex patterns can trigger heavy calculations, which may slow down or crash a system depending on hardware. Saving beforehand protects your progress and keeps the workflow stable as the file becomes more computationally demanding. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/df032312-a7dd-46a8-a557-0fcfb3029a7e/fusion-circular-pattern-vase-design-18-bodies-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out The Circular Pattern tool is used to replicate the two surface bodies around the vertical axis, building the full twisted structure. The pattern type is set to Bodies with a quantity of 18, which evenly distributes the geometry around the vase. Adjusting the count updates the spacing and overall visual rhythm of the pattern, so this step is often tested with different values to find the cleanest result before committing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/133db794-c0b2-465f-90fd-ba4a87d7fabe/fusion-vase-top-sketch-dimensions-pattern-guide-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out A new sketch is created on the top plane after generating the full circular pattern. A reference circle is drawn from the center using projected geometry to lock the sketch to the model. This circle provides a clean edge for the cut operation that follows. Working from the top view ensures accurate alignment with the patterned bodies and avoids small alignment errors that can appear in angled views. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0a56772c-42a4-4521-875b-0f76766266d0/fusion-vase-top-surface-extrude-edit-feature-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out The 1 mm extrusion is created from the top sketch, but the operation is switched from Join to New Body. This prevents the patterned geometry from merging with the cap, which cause the orange-and-black material blending seen in the image. Keeping the top as its own body preserves clean materials, keeps the pattern bodies independent, and avoids unintended geometry merges before the final cut operation. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f1c0b76d-741f-49ae-a315-d69ece13c287/fusion-vase-top-extrude-cut-profile-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out A negative extrusion is applied to the top sketch profile to remove material and open the vase. The operation is set to Cut, targeting the patterned bodies and the separate top cap created in the previous step. Using Cut here produces a clean, circular opening that intersects evenly with the patterned geometry, ensuring the top edge stays sharp and consistent around the entire circumference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3e15563a-6c2b-4a04-8e63-8103d4689b1f/fusion-project-geometry-bottom-reference-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out Sketch Project is used to bring in just one reference point from the patterned geometry. This is an alternative to the earlier workflow where a sketch line was projected. Using a single projected point keeps the sketch cleaner and still provides an exact positional reference for setting the opening size or guiding the offset curve. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9f848a8b-d12e-4fcc-a23a-33c73c2da34c/fusion-vase-bottom-sketch-dimensions-guide-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out A circle is sketched on the top plane using the previously projected single reference point to define its radius. This keeps the sketch minimal and controlled while still locking the circle precisely to the patterned geometry. Using a point instead of projecting full edges provides a clean, simple reference for setting the exact opening size before cutting the top of the vase. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/86bdb8e9-f991-4d47-97aa-518ec5ee9e0f/fusion-vase-bottom-surface-extrude-newbody-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out A 1 mm extrusion is created from the bottom sketch, but the operation is switched from Join to New Body. This prevents the new base surface from merging with the patterned vase geometry, which would mix materials and make later edits harder to control. Keeping the base as a separate body preserves clean appearance assignments and gives you more flexibility for upcoming modeling steps. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9bddd960-a847-480a-8320-3e0445c28ae0/fusion-edit-sketch-plane-selection-tutorial-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out The initial sketch is reopened through Edit Sketch in the timeline. Because this sketch defines the base proportions of the vase, any changes made here automatically propagate through every dependent feature—mirror, surface creation, thickening, and the full circular pattern. Since the entire workflow is parametric, updating this first sketch affects everything downstream in the timeline, allowing large design changes without manual rebuilding. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/697b902c-12b0-4861-8470-149eb458d672/fusion-edit-pattern-sketch-curve-adjustment-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out The sketch that contains the guide lines for the lofted surface is reopened using Edit Sketch. These lines control the overall twist and flow of the vase, so adjusting them affects every downstream feature—surface creation, mirroring, thickening, and the circular pattern. Because the workflow is fully parametric, updating this guide sketch reshapes the entire model. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/20d2ef08-f268-446f-9936-0a78836e7707/fusion-vase-top-sketch-arc-angle-setup-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out Inside the loft guide sketch, the angle of the guide lines is adjusted from 135 degrees (step 5) to 160 degrees. These lines define how the surface bends and how the patterned bodies twist around the vase. Even small changes to this angle immediately affect the character of the loft and, by extension, the entire pattern. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/462a3dfa-e85f-4ed7-b248-ab984b605ea5/fusion-vase-final-pattern-preview-render-screenshot.jpg The Maker Letters - Create a Twisted Vase Pattern in Fusion — With a Simple, Repeatable Workflow - Make it stand out After finishing the guide sketch, Fusion regenerates the entire model with the new angles. The pattern’s twist updates automatically across all patterned bodies, demonstrating the advantage of a parametric setup—one sketch adjustment reshapes the full design without manual rebuilding. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/honeycomb-pattern-coaster-set-fusion-3d-printing monthly 0.5 2025-11-19 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/dda9c59c-061d-415e-8c27-fbc1eb49d3d0/honeycomb-coaster-set-fusion-3d-printing.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/01542044-c4c9-41b4-857b-17138b15a30c/honeycomb-coaster-fusion-new-component-setup.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Creating a new component named Honeycomb Coaster inside the Fusion Browser. Starting with a clean component ensures a fully parametric and organized design setup. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2c74ed53-8268-4802-97be-475042d53649/honeycomb-coaster-fusion-circumscribed-polygon-10mm.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out A 10 mm circumscribed polygon is sketched at the origin, aligned with a 30° construction line for pattern direction. Using a polygon ensures even honeycomb geometry and repeatable spacing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/67782962-04b8-4587-9abd-11b2752642ae/honeycomb-coaster-fusion-extrude-base-4mm.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out The polygon base is extruded 4 mm to form the starting solid. A controlled thickness creates stability for 3D printing and sets up the shelling process later. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/267f3825-002a-4ff7-82d0-352c571880f4/honeycomb-coaster-fusion-shell-thickness-1mm.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Shelling the hexagon to a 1 mm wall thickness creates lightweight yet strong coaster walls. This technique reduces filament use while keeping the design rigid. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/45d5f47b-14df-40da-98ee-9f5c52f60438/honeycomb-coaster-fusion-extrude-bottom-1-5mm.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Adding a 1.5 mm thick bottom gives the coaster strength. The thin solid base improves surface finish and stability. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/29e18860-f5f9-4ed4-8e72-48656817e8ed/honeycomb-coaster-fusion-center-diameter-circle-100mm.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out A construction circle of 100 mm defines the coaster’s outer boundary. This guide helps control pattern spread and keeps the honeycomb evenly distributed. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2cf04b75-0f0a-4d3b-b11c-a1b3a1f11e52/honeycomb-coaster-fusion-rectangular-pattern-symmetric-19mm.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Using the Rectangular Pattern tool to duplicate the hexagon body 8×8 with 19 mm spacing. Symmetric distribution creates a clean, uniform honeycomb layout. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d8ef4853-801a-46f1-8678-188de7c697df/honeycomb-coaster-fusion-hide-bodies-centerline.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Unneeded bodies outside the 100 mm guide circle are hidden. Keeping only central hexagons ensures the honeycomb fits within the coaster boundary and looks balanced. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/47a49804-ff69-471d-bf8a-b6fad95ebbb9/honeycomb-coaster-fusion-combine-bodies-into-one.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Selected hexagons within the guide circle are combined into one single body. Combining makes the honeycomb structure easy to edit and print as a unified object. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/51fe761b-dd1a-41b7-bda4-7bca9bd02020/honeycomb-coaster-holder-fusion-new-component.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out A new component named Honeycomb Coaster Holder is created to design a matching stand. Separating components keeps each printable part editable and modular. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6f79aa4e-b479-43f3-8151-79adc27a1e0a/honeycomb-coaster-holder-fusion-sketch-diameter-105mm.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out A 105 mm diameter circle defines the outer edge of the coaster holder. Slightly larger than the coaster itself, this ensures a snug yet removable fit when printed. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/78f585eb-86b7-4d36-95e7-fc6b04afd74f/honeycomb-coaster-holder-fusion-extrude-two-sides-16mm.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Extruding the 105 mm circle with a total thickness of 20 mm (split 16 mm up, 4 mm down). This forms a solid, balanced base that provides stability when stacking coasters. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/714274a1-320e-45bf-85c1-9fd7e412dfd7/honeycomb-coaster-fusion-save-version-before-projection.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Saving a version labeled “before projection” to capture progress. Version control in Fusion helps revert to earlier stages if adjustments or parametric changes are needed later. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/51e2ce70-e8f8-45b0-9b3b-ca7ad03e7d4b/honeycomb-coaster-fusion-project-honeycomb-geometry.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Projecting the honeycomb pattern onto the coaster holder’s surface. This ensures the upper holder wall aligns perfectly with the existing coaster geometry for a tight design fit. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ac5bd0d4-559d-4e74-b0e0-e67b4d563093/honeycomb-coaster-fusion-oversketch-extra-lines.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Drawing a 120° arc and guide lines for the open section of the holder. This opening makes it easier to grab and remove coasters while maintaining the circular form. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/255766ee-30ad-4616-9895-6887cfc0021d/honeycomb-coaster-fusion-trim-excess-lines.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out To speed up the design process, extra geometry is intentionally oversketched before trimming away the excess lines. This approach keeps the workflow fast and flexible while maintaining accurate constraints for the final cut. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/63c82ac9-c2c1-4526-869e-760c978bb8dc/honeycomb-coaster-fusion-extrude-cut-holder-opening.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Using the Extrude Cut tool to remove 16 mm of material and reveal the inner honeycomb shape. This creates the holder walls with an exact fit around the coasters. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2797809e-dcc5-477a-9e57-002f042fedf3/honeycomb-coaster-fusion-fillet-top-edges-1mm.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Adding a 1 mm fillet to all edges softens the design and prevents sharp corners. Fillets also improve print quality by reducing stress points along edges. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b51b9a59-a787-4d71-bdec-769bb68240a7/honeycomb-coaster-fusion-chamfer-bottom-1mm.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Adding a 1 mm chamfer to the holder’s base edge gives it a refined finish and helps the print adhere cleanly to the build plate. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/335f3b79-f155-47c0-9595-70110e73f80e/honeycomb-coaster-fusion-duplicate-steel-appearance.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Duplicating the default material color in Fusion’s Appearance panel to create a custom shade for the project. This method keeps the original style intact while allowing you to fine-tune colors for better visualization and branding consistency. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/544fe6ec-983a-4bd5-b9c2-c6f050678cc4/honeycomb-coaster-fusion-custom-color-brown-yellow.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Entering a custom HTML color code directly in Fusion’s Color Picker to define precise shades. This gives full control over appearance settings, though you can also use the on-screen picker for a quicker, visual approach. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0514f1d5-f5e7-4250-b8f5-35456bee9a7a/honeycomb-coaster-fusion-apply-material-appearance.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Applying the new brown appearance to the coaster holder for a realistic preview. Testing materials visually helps ensure the final 3D print will complement your coaster’s colors. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/13165c63-6b40-41de-8137-4e2e50903d1d/honeycomb-coaster-fusion-offset-face-clearance-0-25mm.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Using the Offset Face tool with a -0.25 mm adjustment to add precise tolerances between the coaster and holder. This small gap compensates for printer variations, ensuring the parts fit smoothly without sanding. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cc488570-05bd-4801-b18a-ea3c14ae8024/honeycomb-coaster-fusion-final-rectangular-pattern.jpg The Maker Letters - How to Design a Honeycomb Pattern Coaster Set in Fusion for 3D Printing - Make it stand out Adding four coasters in a rectangular pattern with 4 mm spacing shows how neatly they fit inside the holder. This quick check confirms that the design allows easy stacking without collisions or excess gaps. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/create-a-honeycomb-pattern-in-fusion-solid-modeling monthly 0.5 2025-11-09 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/baf2a7b1-6b65-4f9e-bcfe-3caf3f7bdd5e/how-to-create-honeycomb-design-in-fusion.jpg.jpg The Maker Letters - Faster Modeling in Fusion: Create a Parametric Honeycomb Pattern Step-by-Step - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7caab8e5-32e0-44cf-811d-498578d22f85/fusion-create-new-sketch-shortcut.jpg The Maker Letters - Faster Modeling in Fusion: Create a Parametric Honeycomb Pattern Step-by-Step - Make it stand out Fusion interface showing the creation of a new sketch on the top plane using the design shortcuts menu. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/70d7c477-1b80-4ac0-bc4b-9ef8b29938fe/fusion-add-circumscribed-polygon-center-canvas.jpg The Maker Letters - Faster Modeling in Fusion: Create a Parametric Honeycomb Pattern Step-by-Step - Make it stand out Sketch environment in Fusion with the polygon tool selected and circumscribed polygon highlighted. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ed73d858-d8de-44b0-b878-12fe6f020e57/fusion-define-polygon-radius-10mm.jpg The Maker Letters - Faster Modeling in Fusion: Create a Parametric Honeycomb Pattern Step-by-Step - Make it stand out A hexagon sketch centered on the origin, dimensioned with a 10 mm radius. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0f3b96ac-8269-4328-81b3-f99f20cdee11/fusion-draw-midpoint-construction-line.jpg The Maker Letters - Faster Modeling in Fusion: Create a Parametric Honeycomb Pattern Step-by-Step - Make it stand out A construction line added from the center of the hexagon to the midpoint of one side. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/4ce9a200-63e6-4934-b58b-ec28d6284873/fusion-extrude-thin-feature-1mm-wall.jpg The Maker Letters - Faster Modeling in Fusion: Create a Parametric Honeycomb Pattern Step-by-Step - Make it stand out Extrude preview showing the hexagon turned into a solid body with a 5 mm height. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c7ea1b2a-2e61-462a-a4df-20d8372e5347/fusion-create-rectangular-pattern-command.jpg The Maker Letters - Faster Modeling in Fusion: Create a Parametric Honeycomb Pattern Step-by-Step - Make it stand out The solid hexagon body is ready in the Fusion workspace, with origin planes active before applying the rectangular pattern. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1af34142-60f2-438c-bf19-efa40f44734e/fusion-set-axes-direction-for-pattern.jpg The Maker Letters - Faster Modeling in Fusion: Create a Parametric Honeycomb Pattern Step-by-Step - Make it stand out Rectangular pattern command opened, with one direction axis selected and spacing options visible. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/10bc15dd-fbfa-45a5-abb8-a5455eadf1e5/fusion-adjust-pattern-distance-19mm.jpg The Maker Letters - Faster Modeling in Fusion: Create a Parametric Honeycomb Pattern Step-by-Step - Make it stand out Pattern tool with both axes selected and spacing set to 19 mm for symmetrical distribution. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/111176cf-93e4-4e94-9d6d-95edc200eb25/fusion-change-pattern-direction-symmetric.jpg The Maker Letters - Faster Modeling in Fusion: Create a Parametric Honeycomb Pattern Step-by-Step - Make it stand out Distribution direction switched from one-direction to symmetric in the rectangular pattern settings https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f610a962-3821-4563-ab42-c6e79c18c8c1/fusion-final-symmetric-honeycomb-pattern.jpg The Maker Letters - Faster Modeling in Fusion: Create a Parametric Honeycomb Pattern Step-by-Step - Make it stand out Final view of the hexagon array forming a clean, repeating honeycomb structure. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/are-3d-prints-waterproof-testing-infill-percentages-in-fusion-and-prusaslicer monthly 0.5 2025-10-21 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6e1194b2-8cb1-4e19-9075-47c1b40e1d28/89+Are+3D+Prints+Waterproof+Testing+Different+Infill+Settings+%28Time+0_00_1 The Maker Letters - Are 3D Prints Waterproof? Testing Infill Percentages in Fusion and PrusaSlicer - Make it stand out Creating a new component called “Vase” keeps the timeline organized and easy to edit. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/69ff1ffb-5365-4064-a7fb-c73b7d566087/89+Are+3D+Prints+Waterproof+Testing+Different+Infill+Settings+%28Time+0_00_1 The Maker Letters - Are 3D Prints Waterproof? Testing Infill Percentages in Fusion and PrusaSlicer - Make it stand out Creating a new sketch on the top plane to define the vase base. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d822b5fd-9367-4a2f-84e2-af31f50ed9a9/89+Are+3D+Prints+Waterproof+Testing+Different+Infill+Settings+%28Time+0_00_2 The Maker Letters - Are 3D Prints Waterproof? Testing Infill Percentages in Fusion and PrusaSlicer - Make it stand out Autodesk Fusion workspace showing a top-plane sketch with a 50 mm diameter circle, defining the base of a vase model for a 3D printing test. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d23d3200-7ed4-4a28-be49-4997696be288/89+Are+3D+Prints+Waterproof+Testing+Different+Infill+Settings+%28Time+0_00_3 The Maker Letters - Are 3D Prints Waterproof? Testing Infill Percentages in Fusion and PrusaSlicer - Make it stand out Extrude the circle upward 50 mm with a 15° taper to form the flared body. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/979d33b1-d6c5-4169-8f34-e3b3230f1737/89+Are+3D+Prints+Waterproof+Testing+Different+Infill+Settings+%28Time+0_00_5 The Maker Letters - Are 3D Prints Waterproof? Testing Infill Percentages in Fusion and PrusaSlicer - Make it stand out Autodesk Fusion workspace showing the Shell command being applied to a vase body. The top face is selected, and the inside thickness is set to 3 mm to hollow out the model while keeping the base solid. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f110d2a5-3f65-4e2b-8a8f-efa11ac5b03d/89+Are+3D+Prints+Waterproof+Testing+Different+Infill+Settings+%28Time+0_00_5 The Maker Letters - Are 3D Prints Waterproof? Testing Infill Percentages in Fusion and PrusaSlicer - Make it stand out Top view after shelling — the vase’s hollow walls and solid base are clearly visible, ensuring a watertight bottom for the upcoming print test. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/355cdee3-662c-4b9a-99d4-d3d4d072a800/89+Are+3D+Prints+Waterproof+Testing+Different+Infill+Settings+%28Time+0_01_0 The Maker Letters - Are 3D Prints Waterproof? Testing Infill Percentages in Fusion and PrusaSlicer - Make it stand out Autodesk Fusion interface showing the save dialog with a version description labeled “Before Export,” capturing the final step before exporting the vase model for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/827167e5-92b2-4196-bc49-1729835731b1/89+Are+3D+Prints+Waterproof+Testing+Different+Infill+Settings+%28Time+0_01_2 The Maker Letters - Are 3D Prints Waterproof? Testing Infill Percentages in Fusion and PrusaSlicer - Make it stand out Screenshot showing the File → Import → Import STL menu in PrusaSlicer. This step brings the vase model into the slicer to prepare it for printing with different infill percentages. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0699f906-a50d-4df7-94a1-27190688b3d3/89+Are+3D+Prints+Waterproof+Testing+Different+Infill+Settings+%28Time+0_03_0 The Maker Letters - Are 3D Prints Waterproof? Testing Infill Percentages in Fusion and PrusaSlicer - Make it stand out Bar chart comparing print time and filament used for 15%, 50%, and 100% infill settings. It shows that 100% infill uses the most material but doesn’t necessarily take the longest to print. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/910b4b78-1a3b-462e-a6e0-882fc6cdf880/89+Are+3D+Prints+Waterproof+Testing+Different+Infill+Settings+%28Time+0_02_4 The Maker Letters - Are 3D Prints Waterproof? Testing Infill Percentages in Fusion and PrusaSlicer - Make it stand out PrusaSlicer displays a warning message: “The Gyroid infill pattern is not supposed to work at 100% density.” The slicer suggests switching to the rectilinear pattern to create a fully solid model. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/17ce912a-ddb0-4871-9bf2-4beedc3695d8/89+Are+3D+Prints+Waterproof+Testing+Different+Infill+Settings+%28Time+0_02_5 The Maker Letters - Are 3D Prints Waterproof? Testing Infill Percentages in Fusion and PrusaSlicer - Make it stand out Photo of the Prusa i3 MK3S+ actively printing one of the vases. The print head is moving across the build plate while producing smooth, consistent layer lines at 0.2 mm height. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2aaf32af-99a7-423c-9503-372076826660/89+Are+3D+Prints+Waterproof+Testing+Different+Infill+Settings+%28Time+0_03_0 The Maker Letters - Are 3D Prints Waterproof? Testing Infill Percentages in Fusion and PrusaSlicer - Make it stand out Close-up photo of a silver 3D-printed vase being filled with water. The test checks whether different infill settings affect the print’s ability to hold liquid without leaking. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-display-component-colors-in-fusion monthly 0.5 2025-10-09 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9d7cc42f-a00f-4eb5-85d2-fe68a48a1d99/88+How+to+Color+Components+in+Fusion+%28Time+0_00_5 The Maker Letters - How to Display Component Colors in Fusion - Make it stand out The image shows a section view of a 3D model in Autodesk Fusion’s Design workspace. The model consists of several components: a pink mold top with rectangular alignment tabs, a red mold base, a blue silicone mold, and a yellow soap shape inside. A section analysis cuts through the model, revealing how the soap is nested inside the silicone mold, which is enclosed by the mold base and top. The browser on the left lists the components, with “Silicon mold:1” highlighted. The timeline at the bottom displays multiple features used to build the model. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a8019e6a-cfd1-45eb-87d5-e9608f1a767b/88+How+to+Color+Components+in+Fusion+%28Time+0_00_3 The Maker Letters - How to Display Component Colors in Fusion - Make it stand out A Fusion workspace showing a cut section of a 3D model with four components—each displayed in different colors inside the section view. The Design Shortcuts menu is open, and the user has typed “dis,” revealing the command Display Component Colors. The shortcut panel and browser are visible on the left, with components named Soap, Silicon mold, Mold Base, and Mold top. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e6bdf6a9-b2f7-4379-96f1-d8d46978079f/88+How+to+Color+Components+in+Fusion+%28Time+0_00_5 The Maker Letters - How to Display Component Colors in Fusion - Make it stand out A Fusion workspace showing the Inspect dropdown menu open, with the Display Component Colors option highlighted. A tooltip explains that this feature displays each component in an assembly with a different color to make them easier to differentiate. The tooltip also mentions the shortcut Shift + N and includes a visual showing colored cube components in orange, teal, and green. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/fusion-silicone-mold-3d-printing monthly 0.5 2025-10-17 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/48dbf42b-a89f-4737-bcb7-e4126525b8a9/How+to+Make+a+Silicone+Soap+Mold+with+Fusion+and+3D+Printing+1.png The Maker Letters - How to Make a Custom Silicone Soap Mold with Fusion and 3D Printing - Make it stand out A side-by-side comparison titled “Design and Reality” showing parts of the full workflow — parts of the digital 3D model created in Fusion, the silicon mold and the finished honeycomb soap. The photo highlights how the final handmade soap closely matches the original CAD design. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1b6b27ef-95f2-4aa3-9a7c-41176ae2b573/Center+rectangle+sketch+around+the+origin.jpg The Maker Letters - How to Make a Custom Silicone Soap Mold with Fusion and 3D Printing - Make it stand out Sketching the base dimensions for the soap model in Fusion — 85 by 60 millimeters, centered on the origin to ensure symmetry throughout the design. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/48040368-4727-4586-b126-87a54f3e83e1/Honeycomb+sketch+in+Fusion.jpg The Maker Letters - How to Make a Custom Silicone Soap Mold with Fusion and 3D Printing - Make it stand out Embossing the honeycomb pattern into the soap model by extruding the hexagonal sketch down 2 millimeters — creating the textured surface that will later transfer to the silicone mold. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/797ffb0e-87bd-4ee5-b346-7cc4309583ea/Chamfer+in+Fusion.jpg The Maker Letters - How to Make a Custom Silicone Soap Mold with Fusion and 3D Printing - Make it stand out A 3D model in Fusion is shown from a bottom-angled view. The model features a honeycomb pattern, and a chamfer operation is being applied to the inner rectangular cutout at the center. A blue arrow indicates the chamfer direction, and the distance is set to 2 mm. On the right side of the image, the “Edit Feature” dialog is open, showing four selected edges with a 2 mm equal distance chamfer, the “Tangent Chain” option checked, and “Corner Type” set to “Chamfer https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d26a3aa9-ec46-4870-87de-2624b1e2e67a/Autodesk+Fusion+Combine+Cut+.jpg The Maker Letters - How to Make a Custom Silicone Soap Mold with Fusion and 3D Printing - Make it stand out A bottom view of a 3D model in Fusion shows a rectangular cutout centered within a honeycomb pattern. A chamfer tool is active, indicated by a blue arrow pointing along the selected edges. The chamfer distance is set to 2 mm. On the right side, the “Edit Feature” panel is open, listing four selected edges with equal distance chamfers of 2 mm. The “Tangent Chain” option is checked, and the corner type is set to “Chamfer. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/51a8676b-101e-4078-8d34-545b3ab57afd/Offset+Faces+in+Fusion+and+Thicken+Faces.jpg The Maker Letters - How to Make a Custom Silicone Soap Mold with Fusion and 3D Printing - Make it stand out The image shows two stages of creating a mold body in Fusion. In the top image, the inner faces of a rectangular cavity are selected, and the Offset Faces tool is active. The offset distance is set to 0 mm, and the operation is set to New Body. In the bottom image, the newly created surface body is selected, and the Thicken tool is being used. Ten faces are selected, the thickness is set to 10 mm, with the direction set to One Side. The operation is also set to New Body, which will create a solid mold structure from the surface. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/4b5f2499-ac22-4646-8519-b6ac087735b8/Copy+and+Rotate+in+Fusion.jpg The Maker Letters - How to Make a Custom Silicone Soap Mold with Fusion and 3D Printing - Make it stand out The image shows the creation of support bars designed to keep the mold top elevated above the mold base in Fusion. In the top image, a rectangular profile is being extruded with a distance of 5 mm. The direction is set to One Side, and the operation is New Body, creating a tapered bar that spans across the mold. In the bottom image, two perpendicular support bars are visible, crossing each other above the mold base. These bars will serve as spacers to maintain a consistent gap between the mold top and base during casting. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6b71beae-097f-4fc0-9afa-c3182417240f/Sketch+Project+and+Extrude+in+Fusion.jpg The Maker Letters - How to Make a Custom Silicone Soap Mold with Fusion and 3D Printing - Make it stand out The image shows the process of designing and extruding the mold top in Fusion. In the top image, a sketch is open in the Sketch workspace, displaying a cross-shaped support structure centered on the origin. This sketch will define the base of the mold top, with intersecting rectangles forming a stable grid. In the bottom image, the sketch profile is being extruded upward with a distance of 25 mm. The operation is set to New Body, creating the main solid body for the mold top, including the integrated cross-shaped supports. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c6b90090-d10b-4e67-9ef3-2e061afa7f39/Combine+cut+in+Fusion.jpg The Maker Letters - How to Make a Custom Silicone Soap Mold with Fusion and 3D Printing - Make it stand out The image shows the process of using the Combine tool in Fusion to cut alignment features into the mold base. In the top image, the mold top is highlighted in blue and set as the Tool Body, while the mold base is the Target Body. The operation is set to Cut, and the Keep Tools option is enabled. In the bottom image, the result of the combine operation is visible. Four circular alignment posts have been cut into the mold base, creating matching recesses. These alignment features will help position the mold top accurately on the base. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c21be2bc-4514-4b01-bc06-9509bcd9dca6/Save+as+Mesh+and+Export+Components+in+Fusion.jpg The Maker Letters - How to Make a Custom Silicone Soap Mold with Fusion and 3D Printing - Make it stand out The image shows the final preparation steps for exporting the mold components in Fusion. In the top image, the mold top is shown from a bottom perspective, displaying the honeycomb pattern. The File menu is open, highlighting the Save as Mesh option. This indicates the mold top is being prepared for export as an STL or similar mesh format for 3D printing. In the bottom image, the mold base is selected in the Browser, and a right-click menu is open with the Save as Mesh option highlighted. This shows the same export process being applied to the mold base, allowing both parts to be saved individually for printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f0540072-a3a9-4f96-badf-f89e9e2609d5/Prusa+Slicer+3D+Printing+Set+Up.jpg The Maker Letters - How to Make a Custom Silicone Soap Mold with Fusion and 3D Printing - Make it stand out The image shows the mold components prepared for 3D printing in PrusaSlicer. In the top image, the mold base is positioned on the print bed. The model is sliced and previewed with yellow walls and red infill, indicating different print features. On the right, the printer and filament settings are configured for an Original Prusa i3 MK3S+ using Generic PLA at 0.15 mm layer height. In the bottom image, the mold top with the honeycomb pattern is placed on the build plate. The slicing preview shows internal structure and support bars. Print settings are visible on the right, and on the left, the sliced file information includes estimated print time, filament usage, and weight. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/template-wefpm monthly 0.5 2025-09-09 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2d4d02cb-2631-4936-9f93-4788774ace0c/1+Create+a+new+sketch+in+Fusion.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Make a center rectangle sketch https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/388f7b68-8159-4e11-b7cc-0bd6b705e761/2+Use+surface+modeling+to+extrude+a+thin+rectangle.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Use surface modeling to extrude a thin rectangle https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/73083a48-63e1-4a46-946e-e81fd609ca3b/3+Thicken+-1+mm.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Thicken your surface model 1 mm https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e0e4266f-b572-45b8-ad93-329a92bbcf84/4+Fillet+all+edges+1+mm.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Fillet all edges 1 mm https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d128beeb-f5d7-4c25-9e5c-390ca6adefc5/5+Offset+plane+20+mm.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Create an offset plane for your next sketch https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/409f512b-c1e3-4c9d-9881-2bf6079bb367/6+Center+rectangle+sketch+35+by+17.5+mm.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Create a new Center Rectangle Sketch on your new Offset Plane https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c96712f0-72c9-44fc-97ff-2319a562487e/7+Extrude+-3+mm.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Extrude your sketch -3 mm https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/95abde81-888b-414b-9026-ecfde3d92ec3/8+Patch+the+hole.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Close the top with the Patch tool https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/79c3d36b-bdad-4cb0-a879-c2b17c22a1b7/9+Extrude+join++-2+mm.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Extrude the patch -2 mm and set the operation type to Join https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2e8fcaeb-6e14-4f3e-b185-a9fa0f8a6516/10+3D+sketch+Lines.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Activate 3D sketch and connect the bottom and the top https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9a0358f7-321c-4060-a5ec-4406a2645254/11+Loft+with+guide+rails.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Loft with Guide Rails https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/86237c16-d3bf-4764-8c4c-8271f9fc595f/12+Fillet+all+corners.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Fillet the edges for a better user experience https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ee30de06-49b4-47da-a963-fcf4ed68cbd5/13+Form+modeling+box+20+wide+4+mm+thick+both+directions.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Create a box in the form modeling environment https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/37af4bde-3a53-42d9-9312-77ad79bd0983/14+Combine+Cut.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Remove material with a combine cut operation https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3256b607-9788-495f-a67e-5d12307504a8/15+import+STL+and+add+brim.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Add Brim for better Adhesion https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/135e5d54-5be7-41e3-b7b5-50cbb18810f5/16+Slice+and+export+G+Code.jpg The Maker Letters - How to Design and 3D Print a Sillcock Key in Fusion - Make it stand out Export your G-code https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/template-txzg4 monthly 0.5 2025-09-03 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/template-adry2 monthly 0.5 2025-08-24 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/template-rt9p4 monthly 0.5 2025-08-22 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-design-and-3d-print-a-voronoi-coaster-using-chatgpt-and-fusion monthly 0.5 2025-08-05 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/279b9b4b-5c5a-4401-96ce-c18e89f4a3c4/81+Make+a+Voronoi+Coaster+Using+AI+%2B+Fusion+%E2%80%93+Ready+to+Sell+or+3D+Print%21+%283%29.png The Maker Letters - How to Design and 3D Print a Voronoi Coaster Using ChatGPT and Fusion - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-we-built-a-custom-bookshelf-wall-with-ikea-and-fusion-step-by-step monthly 0.5 2025-07-28 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-design-a-3d-printable-soap-holder-with-a-honeycomb-lid-in-fusion monthly 0.5 2025-07-24 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/the-smart-way-to-design-a-custom-bottle-holder-in-fusion monthly 0.5 2025-07-22 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-design-a-honeycomb-lampshade-in-fusion monthly 0.5 2025-07-14 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-create-a-honeycomb-pattern-in-fusion-a-step-by-step-guide monthly 0.5 2025-10-24 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-combine-surface-and-solid-modeling-in-fusion-previously-fusion-360-to-make-a-vase monthly 0.5 2025-06-07 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-model-a-bottle-prototype-in-fusion-a-step-by-step-surface-modeling-guide monthly 0.5 2025-05-30 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/speed-modeling-a-straight-bevel-gear-in-fusion-using-the-spurgear-add-in monthly 0.5 2025-04-19 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-model-a-precise-mechanical-part-in-fusion-using-sketch-constraints-and-parametric-design monthly 0.5 2025-04-19 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/speed-up-your-fusion-workflow-master-3d-sketching-and-sweep-cut-design monthly 0.5 2025-04-19 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/create-a-knurled-bolt-in-fusion-using-emboss-and-drawings monthly 0.5 2025-04-19 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-design-a-3d-printable-lampshade-using-fusion-formerly-fusion-360 monthly 0.5 2025-10-24 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/design-a-fidget-cone-in-fusion-for-3d-printing monthly 0.5 2025-03-30 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/efficient-workflow-for-creating-a-flanged-pipe-elbow-in-fusion-formerly-fusion-360-step-by-step-tutorial monthly 0.5 2025-03-22 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-add-a-deboss-effect-to-a-cylinder-in-autodesk-fusion-formerly-fusion-360 monthly 0.5 2025-03-16 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-model-a-realistic-tire-in-fusion-formerly-known-as-fusion-360 monthly 0.5 2025-03-16 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-create-a-fan-grille-with-a-honeycomb-pattern-in-fusion monthly 0.5 2026-03-21 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/24f37577-60e4-45b2-aad4-cc7bc38f99bf/Hexagon-Fusion-Honeycomb-1.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/94cb7093-9e1f-48ec-9404-80e206d85422/fusion-honeycomb-grille-new-component-setup-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out New component setup in fusion for honeycomb ventilation grille project. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/504c4269-3847-428c-8607-eea1388b9b41/fusion-sketch-center-rectangle-120mm-grid-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Center rectangle sketch with 120 mm dimensions aligned to origin grid. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/22bcd014-e261-4660-b0d5-58147f9623db/fusion-sketch-hole-placement-dimension-control-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Single hole placement with dimensions for controlled pattern creation. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5fa8dc31-e68f-4473-8a9d-719a39683e47/fusion-sketch-center-circle-reference-geometry-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Design shortcut used to quickly create and finish a center-diameter circle as reference geometry for the grille layout https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/bbe35943-7f20-4a72-ae45-b633544e76cb/fusion-honeycomb-polygon-construction-lines-setup-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Hexagon polygon with vertical and angled construction lines for pattern direction. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/314a0a15-72ff-4aa5-944f-f70f8e004b43/fusion-honeycomb-pattern-rectangular-pattern-sketch-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Honeycomb sketch created using rectangular pattern with symmetric spacing https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e9ea5d75-70e9-4e69-ba03-d15af114ffe0/fusion-extrude-base-circle-cut-solid-modeling-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Base extrusion of square profile with circular cutout in solid modeling workspace https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0fec9bba-2778-461c-b78f-0435c55e91aa/fusion-extrude-honeycomb-pattern-body-creation-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Honeycomb pattern extruded as separate body aligned to base geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/12b2d9de-da33-4cb7-b5ed-c3e9daa67dd4/fusion-rectangular-pattern-holes-face-selection-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Rectangular pattern applied to hole faces for evenly spaced mounting holes. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9db8bc99-2630-4ccb-b93c-28e271b255d9/fusion-fillet-corner-radius-edges-5mm-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Fillet applied to outer edges with 5 mm radius for smoother corners https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e22802ae-0872-4111-b26c-82af0ae1b6cb/fusion-spline-curve-side-profile-sketch-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Fit point spline used to define curved side profile for grille shape. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3f7737f4-347e-4887-ae00-e9f80adc4db0/fusion-extrude-spline-surface-curved-shape-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Spline profile extruded to create surface used for curved geometry https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a0301f0f-8d12-446a-b141-dac4b52c41f0/fusion-thicken-surface-solid-body-creation-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Surface thickened into solid body using thicken command https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f8042286-1ffd-4652-8bb9-afb08d3d37a9/fusion-revolve-cut-curved-trim-operation-tutorial.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Revolve cut used to trim curved geometry around grille body. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7b70df60-cc42-40b6-833c-7323616ac9e4/fusion-honeycomb-grille-render-glossy-plastic-3d-printing.jpg The Maker Letters - How to Create a Fan Grille with a Honeycomb Pattern in Fusion - Make it stand out Final render of honeycomb ventilation grille with glossy plastic appearance for 3d printing. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/mastering-form-modeling-creating-a-twisted-vase-in-autodesk-fusion-formerly-fusion-360 monthly 0.5 2026-03-19 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2af97733-e8b5-4b4b-8665-7f3ecbb76902/Form-modeling-vase-1.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3d85d5ef-8226-4c4b-a98c-8817767605b4/fusion-vase-new-component-setup-tutorial.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out New component is created before entering the Form workspace to isolate the vase geometry and keep the timeline structured for modeling. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/efd4b9e2-08fa-4c96-a93d-8b446dd18781/fusion-shortcuts-create-form-command-tutorial.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out The S-key shortcut menu is used to quickly access the Create Form command, speeding up workflow compared to navigating the toolbar. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/84cbcf77-6e06-4ab6-a749-21f01d3f111a/fusion-form-cylinder-base-sketch-setup.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out A cylinder primitive is placed at the origin to establish the base geometry for the vase in the Form environment. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/012bc220-3242-4dd4-aca3-63bfc6d5e3d7/fusion-cylinder-form-primitive-settings-vase.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Cylinder dimensions and face counts are adjusted to control resolution. Visual style is changed to improve edge visibility, making it easier to read the form structure and shape the vase accurately. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8ff21c8a-0cc4-4fb0-9010-77c0cd446676/fusion-form-cylinder-face-subdivision-edit.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Increasing height and diameter faces adds more control points, enabling smoother deformation when shaping the vase. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/51b2c4c9-e44e-4afe-9575-4e6910a2f9ae/fusion-edit-form-push-pull-vase-shape.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Faces are moved using Edit Form to define the initial curvature and taper of the vase body. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2fbd96fc-9038-4c3c-bb93-aa3b2a2e1539/fusion-form-edge-adjustment-vase-surface.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Vertical edges are adjusted to refine curvature and avoid uneven surface transitions in the form model. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2bb459cc-62ae-4f10-a272-413daed4ddf5/fusion-form-twist-deformation-vase-body.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out The vase body is twisted by rotating selected geometry, creating the characteristic spiral surface. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/4da31bb8-338a-425a-8f0e-35c309cf121c/fusion-form-top-edge-scaling-adjustment.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out The top edge loop is scaled to define the opening size and improve proportions of the vase. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cacdf388-f7cb-4acc-a98b-346c0e29fff8/fusion-form-selection-top-ring-edit.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out The top ring of faces is selected to isolate the opening region for controlled deformation. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b00ab38e-b865-461f-ac37-bdc274110b0b/fusion-form-smooth-top-edge-adjustment.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Edge and face adjustments smooth the rim to remove sharp transitions and create a more organic shape. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6c2b5b96-15f5-404c-91c1-c341b05b72f2/fusion-surface-patch-bottom-close-vase.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out A Patch surface is applied to close the bottom opening, converting the form into a watertight surface body. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9ecd44f1-373e-4247-a0e4-fd4a31641a83/fusion-surface-patch-top-close-opening.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out The top opening is temporarily patched to enable further surface operations and ensure clean geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ba60ca99-bfb4-4103-bd1f-2ea73829cbec/fusion-section-analysis-vase-cross-section.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Section analysis is used to inspect internal geometry and verify surface continuity and wall thickness readiness. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e5a95632-4bae-4f53-b087-1e56ac73847d/fusion-stitch-surfaces-solid-body-conversion.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Multiple surfaces are stitched into a single solid body, preparing the model for solid modeling operations. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/37c4db39-2ebe-4a97-a192-039ecca04fae/fusion-section-view-solid-vase-analysis.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out A section view confirms the model is now a solid body and highlights internal structure before shelling. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/790f461d-cfb8-4da0-83a7-606ea56c591c/fusion-shell-command-hollow-vase-3d-printing.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out The Shell command creates uniform wall thickness, making the vase suitable for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0b89225e-4ad5-48b0-bcd8-795629e413fd/fusion-fillet-top-edge-rounding-detail.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out A fillet is applied to the top edge to soften the rim and improve both aesthetics and printability. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9efdb5a8-b49b-4278-a54a-f0df370245eb/fusion-chamfer-bottom-edge-vase-base.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out A chamfer is added to the base edge to reduce sharp corners and improve bed adhesion during printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7fab550f-646e-4ea9-8d57-5d3eaaa1943e/fusion-appearance-material-assign-metallic.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Appearance settings are opened to apply visual materials for rendering and presentation. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/87e104e1-f6f1-4ca6-9d96-097ea1d8ec67/fusion-render-red-plastic-vase-preview.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Visual style is switched from shaded with hidden edges to shaded to reduce visual clutter, making it easier to read the surface. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/35b5fc71-9f4f-4a40-a88f-863a3d0613ca/fusion-render-workspace-environment-setup.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out The Render workspace is activated to configure environment lighting and background for realistic output. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/aa41845d-d7ff-42c4-80c8-8151205dafb2/fusion-render-settings-final-output-setup.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Environment lighting, reflections, and ground plane settings are adjusted in the Render workspace to control how light interacts with the vase surface and improve the realism of the final render. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b724b38e-3c30-4a10-b133-c23df6c9858d/fusion-cloud-render-processing-preview.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Render settings are configured for final output, including image resolution, aspect ratio, and render quality. Cloud rendering is selected to produce a higher-quality image without relying on local hardware. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f705640e-af38-4c4d-9887-a0f914390e35/fusion-final-rendered-vase-result-3d-printing.jpg The Maker Letters - How to Model a Twisted Vase in Fusion Using Form, Surface, and Solid Modeling - Make it stand out Render on save is active, and the rendering process is visible in the rendering gallery at the bottom left. The preview indicates the image is being generated with final quality settings using cloud rendering. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/design-a-3d-printable-hexagon-pot-in-fusion monthly 0.5 2026-03-15 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/742db723-1dc2-4ddc-85a9-752679251e2a/Hexagonal-vase-3.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/339460e6-57c8-42cf-87eb-534b2a77330b/fusion-tutorial-new-component-setup-triangular-vase.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out The project begins by creating a new component for the vase. Working inside a dedicated component keeps sketches, bodies, and construction geometry organized and prevents later features from accidentally referencing geometry outside the design. This also makes the model easier to reuse in larger assemblies or parametric projects. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1eac78b6-4f81-4dd0-8406-8c45e3364672/fusion-sketch-hexagon-base-profile-tutorial.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out A hexagon sketch defines the base profile of the vase. The polygon is centered on the origin so the model stays symmetric and easier to control parametrically. Using the origin as a reference helps ensure that later features such as lofts, mirrors, and patterns align correctly without extra constraints. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/32254d66-72ce-40d6-b744-5daf5933fff3/fusion-offset-plane-vase-modeling-tutorial.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out An offset construction plane is created above the base sketch. This second reference plane will hold another sketch used for the loft operation. Construction planes allow you to control vertical spacing between profiles, which directly influences the curvature and proportions of the final form. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c8c35839-6dc2-4eaa-ad26-bc67e86c9333/fusion-sketch-circumscribed-polygon-guide-geometry.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out A second hexagon is sketched on the offset plane using a circumscribed polygon. The orientation of this polygon relative to the lower one controls how the triangular faces twist around the vase. Small changes in rotation or size here can significantly change the final surface structure. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ffac025c-6ce1-40ac-b52d-6eb7e67798b4/fusion-loft-triangular-face-vase-tutorial.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out The Loft tool connects profiles from the lower and upper sketches to create the first triangular face of the vase. Lofting between polygon edges produces faceted surfaces that form the distinctive geometric pattern. Starting with one face keeps the model simple before duplicating the geometry later. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/fc546a23-739c-4807-8cd5-5f2bb1347634/fusion-circular-pattern-loft-faces-vase.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out The Circular Pattern tool duplicates the first lofted face around the central axis. Patterning bodies instead of sketch geometry keeps the sketches lightweight and easier to edit later. This approach also allows individual faces to remain independent bodies during early modeling stages. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/fbd878e9-8e57-4b83-b06e-6b92221759f8/fusion-loft-pattern-complete-vase-structure.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Multiple triangular loft faces now surround the vase. At this stage the geometry is still made of separate surfaces or bodies. Working with individual elements first makes it easier to troubleshoot geometry before combining everything into a single watertight model. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/943c0548-1faf-45c4-bac8-e16bd850ba3c/fusion-circular-pattern-finalize-vase-geometry.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out The patterned loft faces now form the full outer structure of the vase. Each triangular panel contributes to the faceted appearance. Patterns are particularly useful for geometric designs because they guarantee consistent spacing and angles around the entire model. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cfe3930e-6791-4522-9a26-0966e300b445/fusion-patch-bottom-vase-model.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Patch feature used to close the bottom opening of the surface model. The boundary edges of the triangular surface structure are selected so Fusion can generate a planar patch surface. Closing open boundaries early helps maintain a watertight surface model before converting it into a solid body later in the workflow. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/620b9c1e-8ff8-445d-a0ef-9034ce368c32/fusion-surface-patch-close-top-opening.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Patch feature used again to close the top opening of the vase surface model. By defining the boundary edges around the hexagonal rim, Fusion creates a new surface that completes the outer skin of the geometry. At this stage the model consists of multiple connected surfaces rather than a single solid body. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/af3fe3f7-89fe-441c-ac4e-aa5d2f78e659/fusion-surface-section-analysis-vase-body.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Section Analysis tool used to inspect the interior structure of the surface model. Cutting through the model with a temporary analysis plane reveals whether the surfaces align correctly and whether any gaps or overlaps exist before stitching the surfaces into a solid. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/854faa13-f235-4f3e-a729-fd8c460b82c0/fusion-stitch-surface-model.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Stitch command combining the individual surface patches into a single closed surface body. Fusion highlights all selected surfaces and reports free edges and tolerance values. If all edges connect within tolerance, the stitched result becomes a solid body instead of a surface body. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/75528489-97a3-451e-8845-5daa620844b5/fusion-section-analysis-after-stitch.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Section Analysis used again after stitching to verify that the model has converted into a watertight solid body. The cross-section shows a continuous volume without surface gaps, confirming that the geometry can now support solid modeling operations such as shell, fillet, or combine. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/416d846e-ba10-4878-a2e2-edb6d3e6cb5e/fusion-mirror-body-complete-vase-form.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Mirror operation duplicating the modeled half of the vase across a central construction plane. Mirroring geometry reduces modeling time and guarantees perfect symmetry across the design. The mirrored body is joined with the original to create the complete vase form. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/95bbea1a-a0dd-4a38-ba1e-6a08f5f6de03/fusion-shell-hollow-vase-3d-printing.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Shell feature applied to hollow the solid vase body while maintaining a consistent wall thickness. The top face is removed and Fusion offsets the interior surfaces inward to produce printable wall geometry. Shell operations are commonly used when preparing containers or vases for additive manufacturing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/54822a9f-8fbe-405f-aaed-99898eb230b5/fusion-fillet-top-solid-body.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Fillet feature rounding the sharp edges around the top rim of the vase. Small edge fillets improve both aesthetics and usability by removing sharp corners that could otherwise chip during printing or feel uncomfortable when handling the object. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6b0310d1-091d-43b3-8f8a-0fdccf801404/fusion-add-appearance-to-solid-body.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Appearance panel used to assign a material finish to the solid body. Applying appearances helps visualize the final object and is useful when preparing renders or preview images for product listings, tutorials, or design documentation. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/09d4efff-1bd8-4d35-9f15-4bc4aebd97b2/fusion-render-settings-scene-settings.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Scene Settings panel in the Render workspace controlling lighting environment, ground plane, and reflections. Adjusting these parameters helps create realistic renderings that better communicate the shape and surface quality of the modeled object. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ec01d1d3-c000-43e9-b84d-3e9e27dec85f/fusion-render-settings-cloud-rendering.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Render Settings dialog defining output resolution, aspect ratio, and rendering method. Cloud rendering can produce higher-quality images without using local computing resources, which is useful when generating presentation images or thumbnails for tutorials. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b3b01ef6-b814-46e2-9f40-fddfd5eef2cd/fusion-edit-sketch-via-timeline-parametric-modeling.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Timeline used to edit the original sketch that drives the vase geometry. In a parametric workflow, modifying an early sketch allows the entire model to update automatically, making it easy to explore design variations without rebuilding the model from scratch. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/fbacabf2-e0dc-4d2c-a0d3-d1864ce935d2/fusion-update-sketch-geometry-parametric-modeling.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Sketch defining the main dimensions and proportions of the vase. Because the model is built using parametric relationships, adjusting these sketch dimensions automatically updates downstream features such as surfaces, mirror operations, and shell thickness. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/55a92844-52a4-4e97-b968-aa9195b08c6f/fusion-triangular-vase-after-parametric-sketch-edit.jpg The Maker Letters - Design a 3D-Printable Hexagon Pot in Fusion - Make it stand out Final vase geometry after modifying the driving sketch parameters. The entire model rebuilds automatically through the timeline, demonstrating the advantage of parametric modeling when refining proportions or adapting a design for different sizes. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-prototype-a-propeller-in-fusion-step-by-step-guide monthly 0.5 2026-03-21 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7eaed366-8861-4b83-b002-3b62197bbb69/Mastering-Fusion-with-Surface-and-Solid-Modeling-Propeller-2.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/59f1e643-041e-4bb7-9a81-047beaa32f8d/fusion-propeller-cylinder-sketch-center-circle-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out A sketch is created on the vertical construction plane facing the propeller direction. Two concentric circles define the outer hub diameter and the inner hole. Centering the sketch on the origin ensures the propeller remains aligned when blades are patterned later around the axis. Using concentric circles keeps the hub geometry fully constrained and easy to modify if the shaft size changes. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/72d5c34a-2996-48c4-8b94-84af7f9d6a8e/fusion-propeller-cylinder-extrude-solid-body-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out The circle profile is extruded to form the hub cylinder. The Extrude tool is set to a distance of 50 mm with the New Body operation so the hub remains independent from later blade geometry. Keeping the hub as its own body simplifies later operations such as fillets, threading, and circular pattern alignment. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/724633c9-ec48-4050-bd4d-bb0bebce906b/fusion-propeller-blade-spline-sketch-profile-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out A new sketch is created on a vertical plane behind the hub to define the blade outline. Lines and splines establish the leading and trailing edges of the propeller blade. The spline allows smooth curvature, which is important for aerodynamic surfaces and also produces cleaner loft results compared to sharp polyline geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a787f89e-c1d4-4f54-969f-3fe7fcd1788e/fusion-propeller-blade-dimension-reference-line-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out A line is added from the hub center to control the overall blade length. Dimensioning this line sets a consistent reference for the blade profile. Establishing a clear dimensional reference early helps maintain predictable proportions when refining the blade shape. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/770f5187-fd06-4c1c-8a9b-5eccd09b0cda/fusion-propeller-blade-guide-lines-sketch-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out An angled guide line is added to help orient the blade relative to the hub. This reference controls how the blade will sweep outward and provides a stable anchor for later loft geometry. Using guide lines in sketches helps maintain geometric relationships without locking the spline into unnecessary constraints. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/efc558f5-8958-4690-bbc8-a3977b48697d/fusion-propeller-blade-surface-loft-setup-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out The Loft tool connects two sketch profiles to generate the initial blade surface. This surface defines the basic propeller shape before thickness is added. Lofting between profiles produces a smooth transition that would be difficult to achieve with simple extrusions or sweeps. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0d134980-8058-42a8-94a2-02a526d500de/fusion-propeller-blade-profile-extrude-surface-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out The blade profile is extruded so it intersects the hub region. The extrusion extends the surface geometry to ensure enough material exists for later trimming operations. Extending geometry beyond the final boundary often speeds up modeling because trimming precise edges is easier than rebuilding surfaces. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d4fa2870-6cf2-48a6-91da-d868d69cbb58/fusion-propeller-blade-surface-extend-command-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out The Extend command increases the size of the lofted surface. Extending surfaces ensures the blade geometry fully intersects other bodies, which is necessary for accurate trimming and splitting operations later in the workflow. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/bbdd5bac-62a8-4cc0-8f50-f9bcaf8c65f7/fusion-propeller-blade-surface-trim-geometry-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out The Trim tool removes portions of the extended surface that extend beyond the desired blade shape. Trimming surfaces after extending them creates clean boundaries and avoids gaps that could cause problems when converting surfaces into solids. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/80ac9f55-653d-42a2-99eb-fd3014d39348/fusion-propeller-blade-split-face-cylinder-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out The Split Face tool divides the cylindrical hub surface using the blade surface as the splitting tool. Splitting faces allows unwanted regions of the surface to be removed while preserving the underlying body geometry. This step prepares the hub interface so the blade integrates cleanly with the cylinder. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/71cc0352-0d5d-40c2-a18f-e89c1a231d27/fusion-propeller-cylinder-edge-fillet-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out A 5 mm fillet is applied to the top edge of the cylinder. Filleting removes the sharp edge and creates a smoother transition between the hub and the blade area. Rounded edges also improve visual quality when rendering the model. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f4c8cd1f-7055-4ee8-90d1-f727101cddaf/fusion-propeller-thread-tool-cylinder-hole-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out The Thread tool adds an internal ISO metric thread inside the hub opening. Threads can be set as visual or modeled geometry depending on whether the part will be manufactured or simply rendered. For most small models, visual threads keep the design lightweight while still conveying mechanical intent. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/76260a9a-2cc6-4255-9f8f-1489833d9944/fusion-propeller-blade-thicken-surface-solid-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out The Thicken command converts the blade surface into a solid body with a thickness of 2 mm. Surface modeling often starts with thin geometry because surfaces are easier to shape and refine. Thickening afterward produces a solid body suitable for rendering or 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/52725719-99eb-49e6-b4ce-30db028b0f06/fusion-propeller-appearance-glossy-material-render-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out The Appearance panel is used to assign a glossy material to the blade. Applying appearances early allows the designer to evaluate reflections and curvature, which helps reveal imperfections in the surface geometry before rendering. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/00e40ee6-02a7-45c2-bf45-374a9386d9a6/fusion-propeller-circular-pattern-blades-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out The Circular Pattern tool duplicates the blade body around the hub’s central axis. Patterning the body ensures each blade is identical and evenly spaced. Using the hub axis as the rotation reference guarantees perfect symmetry across the propeller. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3d87cc02-bb50-4f15-9a71-2b489a81e332/fusion-propeller-render-settings-cloud-render-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out The model is prepared for rendering in the Render workspace. Cloud rendering is selected to generate a higher-quality image without using local computing resources. Camera framing and environment lighting are adjusted before submitting the render job. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/fbee2087-0e49-41d5-ac42-2d3397bf5271/fusion-propeller-final-rendered-model-tutorial.jpg The Maker Letters - How to Prototype a Propeller in Fusion: Step-by-Step Guide - Make it stand out The final render displays the completed propeller with glossy red blades and a metallic hub. Rendering allows the designer to evaluate form, symmetry, and lighting before exporting images for documentation or presentation. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/mastering-surface-and-solid-modeling-in-fusion monthly 0.5 2026-03-14 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f175929f-a36d-41e0-a625-558b2019737b/Mastering-Fusion-Hybrid-Honeycomb-Design-with-Surface-and-Solid-Modeling-1.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7465c2c9-9bd6-4a10-9bee-dcb1aba9c7fd/fusion-honeycomb-new-component-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out New component created in Fusion to structure the model hierarchy before starting the honeycomb sketch workflow. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5fd5ad99-a3a6-497a-a1ef-71e5dd33ca33/fusion-polygon-sketch-circumscribed-setup-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Circumscribed polygon created in Fusion to define the base hex cell for the honeycomb pattern. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7db8df0d-84cd-49c6-8ced-4feb521ba302/fusion-honeycomb-guide-lines-construction-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Construction guide lines aligned to polygon edges to control direction and spacing of the honeycomb pattern in Fusion. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b5518042-9722-45b7-bfd5-371512e0d8b7/fusion-rectangular-pattern-honeycomb-sketch-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Construction guideline snapped to the midpoint of a polygon side in Fusion to control honeycomb alignment and pattern direction. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f1cdfaef-a0ca-4d7d-9da5-9036a099b178/fusion-honeycomb-pattern-expanded-sketch-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Rectangular sketch pattern applied to propagate the hex cell across the work area with symmetric spacing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9e319480-640e-4fd4-aaf5-7b4eba7a22ce/fusion-rectangle-rectangular-pattern-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Rectangular sketch pattern used to generate more honeycomb cells than needed, allowing flexible trimming and refinement later in the workflow. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/652b2553-88e1-4ff1-b6cc-0c61975aad4e/fusion-2-point-rectangle-honeycomb-spacing-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Rectangle sketched to capture the negative space between honeycomb polygons, defining the cutout geometry used for the pattern. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/46ac3a8c-2d67-4e2c-a9fb-b9ad7a1e0860/fusion-circle-sketch-base-rectangle-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Measuring the rectangle that captures the negative space between honeycomb cells to set consistent pattern height before creating the base surface. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/489b40bc-9ba5-41ae-81e3-292964e98496/fusion-surface-base-cylinder-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Center diameter circle sketched at the origin in Fusion to define the base profile for the cylindrical surface used in the honeycomb intersect workflow. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/08408810-398c-4887-b3d9-ec85e7e55a6a/fusion-honeycomb-intersect-surface-extrude-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Surface extrude set to symmetric in Fusion to create the thin cylindrical surface used as the base for intersecting the honeycomb pattern. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b0d3fab6-2117-482c-b68b-a92fc95bddf9/fusion-surface-extrude-intersect-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Honeycomb pattern extruded and intersected with the cylindrical surface in Fusion to trim the pattern to the bracelet form. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c68ac094-e13a-4a8f-ab8d-d9527da31822/fusion-surface-thicken-solid-model-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Thicken command used in Fusion to convert the thin honeycomb surface into a solid model with defined wall thickness for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1c075a5b-7912-4f9f-a9a7-0c808f534eb8/fusion-circular-pattern-fusion-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Circular pattern applied in Fusion to replicate the honeycomb segment around the bracelet axis for full circumference coverage. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3b7a0a9f-b7d2-4c4f-8c3b-ab73e3f87a2c/fusion-top-sketch-bracelet-ring-fusion-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Circle sketched on the bracelet rim in Fusion, matching the bracelet diameter to define the top ring profile. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8fe1386f-4264-41a0-a5b4-5d42e991e64a/fusion-offset-top-ring-bracelet-sketch-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Offset curve applied to the top ring sketch in Fusion to control ring width and wall thickness. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/4dd20580-f681-4275-9d1c-b88abcfc8cc0/fusion-extrude-top-ring-fusion-honeycomb-bracelet-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Top ring profile extruded in Fusion to add a reinforced rim and clean edge to the honeycomb bracelet. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/bebc13ff-c709-4cf2-a5d2-59008d427146/fusion-full-round-fillet-fusion-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Full round fillet applied to the top ring in Fusion to create a smooth, continuous edge on the honeycomb bracelet. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/fc04d27e-9515-4364-a063-ff694589bf6b/fusion-mirror-top-ring-body-fusion-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Mirror operation used in Fusion to duplicate the top ring body and create a matching bottom ring on the honeycomb bracelet. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cbfce374-dfd8-44cf-9638-10050291983a/fusion-apply-appearances-individual-bodies-fusion-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Different appearances applied to individual honeycomb bracelet bodies in Fusion to visually inspect alignment and segmentation before combining. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ffdd1874-6d9d-45b1-a7fe-a1891dee7d44/fusion-combine-bodies-fusion-honeycomb-pattern-tutorial.jpg The Maker Letters - Mastering Surface and Solid Modeling in Fusion - Make it stand out Combine command used in Fusion to merge all honeycomb bracelet bodies into a single solid model ready for export. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-design-a-pen-holder-for-3d-printing-in-autodesk-fusion monthly 0.5 2026-02-19 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d0626e44-e1a0-4248-9ebb-792e6c1a88dc/Autodesk-Fusion-Pen-Holder-Tutorial-2.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2b6a65e9-1f74-40c1-9359-d338d1c3f050/fusion-pen-holder-new-component-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Creating and activating a new internal component in Fusion keeps the pen holder workflow modular, making downstream parametric edits and feature management cleaner as the design evolves for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0f46def4-1229-42de-b9c2-648d1cfc12ae/fusion-pen-holder-sketch-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Sketching a single vertical reference line from the origin establishes a stable baseline for the pen holder geometry, making later parametric changes to height and curvature predictable in Fusion and easier to adapt for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/bf10de96-a851-49db-b808-12732ed04dae/fusion-pen-holder-offset-plane-workflow-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Using the S-key design shortcuts to create offset construction planes speeds up the workflow and keeps the pen holder model parametric, allowing you to control curvature and height later without rebuilding core geometry—ideal for iterative 3D-printing designs. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/41bc147e-edff-4fb1-905e-11dd11bec6d2/fusion-pen-holder-offset-plane.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Creating the first offset construction plane from the origin establishes a controllable reference level for shaping the pen holder, which is critical for building smooth lofted surfaces and keeping the design fully parametric for later 3D-printing adjustments. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cadb2767-fb24-4682-aca7-c5309c2d1759/fusion-pen-holder-extrude-height-reference-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Creating an offset plane from an existing offset plane builds a linked height reference, so changing the middle plane later will automatically propagate through the model—an efficient parametric strategy for controlling loft curvature and overall pen holder height for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3ce3c529-3803-4bd8-bdcf-b20653cd99ef/fusion-pen-holder-offset-height-sketch-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Viewing both offset construction planes together clarifies the vertical control points used for the lofted surface, making it easier to reason about curvature distribution and overall height when building a parametric pen holder for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/50764942-a78c-420f-83fb-6d365d1c8279/fusion-pen-holder-sketch-line.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Sketching an angled reference line on the middle offset construction plane defines how the surface will transition through the body of the pen holder, giving you precise control over curvature flow while keeping the model fully parametric for later 3D-printing adjustments. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/4d69e60c-a416-4944-8027-35367b808227/fusion-pen-holder-sketch-line-on-offset-plane.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Comparing the sketch on the original construction plane with the sketch on the middle offset plane defines how the loft will interpolate between profiles, giving controlled curvature progression through the pen holder body and preserving clean parametric relationships for later 3D-printing adjustments. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/49b6151b-24d7-46cb-a933-46d72cbe8c46/fusion-pen-holder-sketch-line-on-offset-plane-2.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Sketching the final angled reference line on the top offset construction plane completes the set of loft guide profiles, giving you precise control over how the surface tightens and twists toward the rim of the pen holder while keeping the workflow fully parametric for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a12868cf-c5e6-45ae-a9fd-c5abbd060e1e/fusion-pen-holder-surface-modeling-loft.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Lofting all three sketch profiles in a single surface loft creates a continuous, smooth curvature between the base, middle, and top planes, which is ideal for organic designs that will later be thickened and patterned for a clean 3D-printable pen holder surface. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7824aa4e-66f0-4599-bd9b-d75e7a3994ce/fusion-pen-holder-thicken-surface.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Thickening the lofted surface symmetrically turns the zero-thickness surface into a manufacturable solid wall, which is essential for 3D printing since it guarantees consistent wall thickness and predictable strength around the curved pen holder body. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b5323135-c50d-4b61-a5d7-1cc2f64680e6/fusion-pen-holder-extrude-circle-to-top.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Extruding the base circle up to the same height as the lofted surface creates a matching cylindrical core, which provides a clean structural reference for later operations like projection and trimming, ensuring the pen holder remains dimensionally consistent for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/588a19af-4067-45c1-aa5b-716ff123b4fa/fusion-pen-holder-extrude-circle-base-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Extruding the circular profile to the full target height creates the main cylindrical body of the pen holder, which serves as a stable reference volume for projecting curves and trimming the patterned surface so the final shape stays clean and printable. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e2d939fe-0c50-4c11-870c-25148cc1a7e5/fusion-pen-holder-sketch-project-circle.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Projecting the outer edge of the cylindrical body into the sketch creates geometry that stays linked to the solid, so any later diameter changes automatically update the trimming profile used to shape the patterned surface for a clean, parametric 3D-printable pen holder. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/727ee2a7-a34e-4f4d-85c0-33a3f806dee7/fusion-pen-holder-sketch-outside-cylinder.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out The trimming profile is sketched slightly outside the cylindrical body so it can be used with the Revolve command set to Intersect, a clean way to cut the patterned surface to the exact cylinder diameter while keeping the workflow fully parametric for later 3D-printing adjustments. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d6a915ff-e5dc-4666-9e9f-9a14ebad2598/fusion-pen-holder-revolve-intersect-cylinder-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Using the Revolve command with the Intersect operation trims the patterned surface precisely to the cylindrical envelope, which is a robust way to enforce a clean outer diameter while keeping the curved pattern fully parametric and suitable for reliable 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1e1ce641-ee37-4590-9d99-f4c65337e574/fusion-pen-holder-shell-inside-3mm-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Shelling the solid body from the top creates a uniform internal wall thickness, which reduces material usage and print time while ensuring the pen holder has predictable strength and consistent wall geometry for reliable 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/12ca297d-e64e-46b9-9dec-c5d15277d6f1/fusion-pen-holder-circular-pattern-quantity-36-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Applying a circular pattern to the patterned body distributes the curved feature evenly around the cylinder, a fast and robust way to create complex, repeating geometry that stays lightweight and printable while remaining fully parametric in Fusion. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/34e35f7f-cdcd-4747-b5bc-d8602a82f008/fusion-pen-holder-spline-sketch-across-top-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Sketching a fit point spline across the top of the pen holder defines the cut line for the final rim shape, allowing you to introduce controlled asymmetry and organic variation that would be difficult to achieve with simple arcs while staying fully editable in the timeline for later refinements. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/dfca6c11-0588-4073-a0d9-4452297aaf59/fusion-pen-holder-extrude-spline-surface-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Extruding the spline as a surface creates a thin cutting surface that can later be used to split the solid body, which is a flexible way to shape the top rim without committing to solid cuts too early and keeps the design easy to refine in the Fusion timeline for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9c89dd87-54cb-4104-aafd-a8baf8d0b915/fusion-pen-holder-thicken-surface-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Thickening the surface used for the rim cut creates a solid splitting tool with a controlled thickness, which improves robustness when splitting the body and avoids fragile zero-thickness surfaces that can cause downstream feature failures in Fusion before exporting the STL for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a1ef7932-0cf9-46ad-ac50-0169f449bb5f/fusion-pen-holder-combine-bodies-36-tools-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Combining all patterned bodies into a single solid simplifies the model tree and reduces downstream feature complexity, which makes later operations like splitting, shelling, and exporting a watertight STL for 3D printing more reliable and faster to compute in Fusion. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3356de2c-54d3-4dd4-a7ed-ef8118ccca8f/fusion-pen-holder-split-body-top-trim-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Using Split Body with the thickened surface as a splitting tool cleanly trims the top edge of the pen holder, which is more controllable than boolean cuts for organic shapes and keeps the rim fully parametric so you can refine the curvature later without rebuilding the solid. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a219edd8-9a32-4ad4-b67d-8a3f4827db52/fusion-pen-holder-apply-appearance-glossy-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Applying a glossy appearance in Fusion helps evaluate how the curved pattern reads under light, which makes it easier to spot surface flow issues and small artifacts before exporting the model for rendering or 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8cadd36c-bf6c-4503-89d6-6b9cb0ae4126/fusion-pen-holder-edit-spline-curvature-tutorial.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Editing the spline control points and curvature handles lets you fine-tune how the rim flows around the pen holder, which is especially effective for organic designs where small curve changes propagate cleanly through the timeline and update all downstream features without rebuilding geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b1d69fc4-b824-474e-b540-d8d8654bb89f/fusion-pen-holder-final-red-pen-holder-for-3d-printing.jpg The Maker Letters - Design a Stylish 3D-Printed Pen Holder in Fusion (Surface + Solid Workflow) - Make it stand out Final pen holder design in Fusion with a twisted surface pattern and trimmed rim, ready to export as an STL for 3D printing, demonstrating how surface-driven workflows can produce complex decorative geometry that remains clean, watertight, and printable. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/make-complex-shapes-in-fusion-twisted-bracket-with-3d-sketches monthly 0.5 2026-02-18 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5bb2bd1e-cc7e-436c-b8f5-6ee02cf85e4d/Make-Complex-Shapes-in-Fusion-%E2%80%93-Twisted-Bracket-with-3D-Sketches-2.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d0c8fb3b-6954-4000-846a-c1dbc281c5d4/fusion-tutorial-new-component-setup-ui.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out New component setup in Fusion showing the twisted bracket project, where a dedicated component is created to keep the model parametric and organized before starting sketch and solid modeling. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d5591862-46bf-40c7-9d85-1cbdf5164632/fusion-tutorial-sketch-profile-dimensions-grid.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Sketching the base profile for the twisted bracket in Fusion, using dimensions and constraints on the grid to define the mounting shape before extruding the solid body. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cc4b9ec0-27c3-4a20-bfc7-dc48979ee2be/fusion-tutorial-extrude-profile-new-body.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Extruding the sketched profile into a new solid body in Fusion, setting the base thickness of the twisted bracket before applying fillets and secondary features. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e5467bd1-a445-4d6c-ac2c-9716fcffd739/fusion-tutorial-fillet-edge-smoothing.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Applying fillets to the solid body in Fusion to smooth sharp edges on the twisted bracket, improving both surface quality and print-friendly geometry before adding the twist feature. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/52ff43d3-1cfd-45e2-9cc0-b592bd4cfc87/fusion-tutorial-sketch-hole-circle-profile.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Sketching concentric circles in Fusion to define the mounting hole on the twisted bracket, constraining the profile to the center axis for precise hole placement before cutting the solid. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/58fa88db-c780-442c-b83b-f41974bf9cfb/fusion-tutorial-extrude-cut-hole-feature.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Cutting the mounting hole in the twisted bracket using the extrude cut operation in Fusion, removing material through the solid body to create a clean, printable hole geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/4a463dbb-555e-459f-ad20-8e7658ea0537/fusion-tutorial-move-copy-body-rotation.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Using the Move/Copy tool in Fusion to rotate the second body of the twisted bracket, setting up the relative orientation needed before connecting the parts with a sweep feature. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e07b9da1-e313-4c11-9c82-7996370e7547/fusion-tutorial-3d-sketch-path-creation.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Creating a 3D sketch path in Fusion between the two bracket bodies, defining the guide curve that controls the twist and transition shape before running the sweep operation. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b7ec6478-bc7b-4586-9b3a-8a53d16b39a1/fusion-tutorial-sketch-shortcuts-tangent-tool.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Using Fusion sketch shortcuts to quickly apply a tangent constraint while editing a 3D sketch path, ensuring smooth transitions between guide curves for the twisted bracket sweep. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1eb8cf70-6a02-4924-83e5-1b25dc511112/fusion-tutorial-3d-sketch-guide-curve.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Refining the 3D sketch guide curve in Fusion by adding tangent constraints between segments, improving curvature continuity and surface flow for the upcoming sweep that forms the twisted bracket connection. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1d499086-60ac-46bf-84cf-b690e838cc84/fusion-tutorial-spline-path-guide-rail.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Adjusting the spline curvature in a Fusion 3D sketch by using tangent constraints on the green spline handles, controlling the smoothness and flow of the guide curve before running the sweep operation. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8e924345-e8de-43f4-a28a-59c8815e6a91/fusion-tutorial-sweep-twisted-bracket-result.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Running the sweep feature in Fusion using a profile, path, and guide rail to generate the twisted connection between the two bracket ends, forming the main transition geometry of the part. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ae52f7b7-d765-4dc3-b05d-147620e78583/fusion-tutorial-final-geometry-after-sweep.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Resulting twisted bracket geometry in Fusion after completing the sweep along the 3D guide curve, showing the smooth transition between the two mounting ends before applying materials or final finishing steps. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5d7d62c1-10bb-4a1f-9b97-d1040fde3420/fusion-tutorial-twisted-bracket-final-model.jpg The Maker Letters - Make Complex Shapes in Fusion – Twisted Bracket with 3D Sketches - Make it stand out Final twisted bracket model in Fusion with applied appearance, showing the completed geometry and surface flow after sweep and fillet operations, ready for export as an STL for 3D printing or further design refinement. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/sellable-3d-prints-design-a-tulip-bowl-in-fusion monthly 0.5 2026-02-08 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2d53e949-0e63-4150-b778-9f393b6c268b/Sellable-3D-Prints-Made-with-Fusion-2.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/efe5203a-432d-428d-9c42-94a7ebafaa97/fusion-tulip-bowl-base-sketch-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Tulip bowl base sketch in Fusion using a center diameter circle as the foundation for a 3D printable bowl. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a8d75927-f59f-4fc1-a7b2-b4232bb1ddf7/fusion-tulip-bowl-extrude-solid-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Tapered solid extrusion of the tulip bowl base in Fusion, setting the primary form for a 3D printable container. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/28908bab-2301-4b89-9aed-3b7b7b0b5fd9/fusion-tulip-bowl-shell-command-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Shell operation hollowing the tulip bowl in Fusion to create consistent wall thickness for reliable 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8f286480-7a35-4848-9b59-de3d5ae19198/fusion-tulip-bowl-offset-plane-setup-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Offset construction plane created in Fusion to position the tulip pattern cleanly in front of the bowl surface. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e529f253-adef-4327-8e40-218ddb435639/fusion-tulip-bowl-insert-svg-sketch-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out SVG tulip sketch positioned on an offset plane in Fusion to prepare decorative embossing on the bowl. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b176ae54-2e1a-41ed-815d-344fec333c23/fusion-tulip-bowl-sketch-shortcuts-extend-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Extend tool used in a Fusion sketch to connect and refine tulip curve geometry before embossing onto the bowl surface. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5304f166-dc07-4a4b-b6e7-d24e4dc06e30/fusion-tulip-bowl-sketch-extend-curves-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Tulip petal curves adjusted in a Fusion sketch using the Extend tool to create clean, connected profiles for embossing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/fa68cb8f-28e5-42ae-b7c1-428f78e510c7/fusion-tulip-bowl-refine-trim-petal-curves-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Trim tool used in a Fusion sketch to remove overlapping segments and clean up tulip petal curve geometry before embossing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/712a19dc-dfe3-4609-810c-dff4ff81b4ba/fusion-tulip-bowl-trim-flower-pattern-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Tulip flower curve geometry adjusted in a Fusion sketch, resolving overlaps and constraints before applying the emboss feature. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3653c23d-c7f7-4f2c-ba03-2dca0a22b630/fusion-tulip-bowl-emboss-sketch-features-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Emboss feature wrapping the tulip sketch onto the curved bowl surface in Fusion to create raised decorative geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/4d1cae28-dfa2-411b-95fe-f0faf9c99ae3/fusion-tulip-bowl-circular-pattern-workflow-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Circular pattern feature in Fusion duplicating the embossed tulip motif evenly around the bowl for a consistent decorative layout. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/87b9e245-b841-4fe5-af81-f679d1fb3027/fusion-tulip-bowl-project-geometry-sketch-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Sketch setup in Fusion prepared for projecting bowl geometry, establishing clean references for trimming and cut features. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ffc94efe-b415-43c5-b28f-1dd1f74743a5/fusion-tulip-bowl-project-sketch-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Projected bowl edges and embossed pattern outlines in Fusion used as sketch references for precise trimming and subsequent cut operations. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/efa21150-c2bb-45cb-a56f-d01d0e882e5d/fusion-tulip-bowl-offset-curves-sketch-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Sketch geometry reduced in Fusion to isolate the curves needed for the revolve operation, simplifying the profile used for the subsequent cut feature. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/044e8ebf-9b4f-4c95-b3af-aafa2976ffc8/fusion-tulip-bowl-revolve-cut-pattern-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Sketch profile created and offset in Fusion to define the revolve cut used to remove material and shape the tulip bowl pattern. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c014f1f6-177f-4dac-bfec-19c5aedf84f1/fusion-tulip-bowl-close-sketch-profile-before-revolve-cut-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Sketch profile closed in Fusion to form a valid, watertight region required for the subsequent revolve cut operation on the tulip bowl. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/20ba0434-a82f-45c4-96f4-9596d7e1ef89/fusion-tulip-bowl-revolve-cut-tutorial.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Revolve cut operation in Fusion removing the upper portion of the bowl to define the final rim height and decorative pattern boundary. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9c78ecff-1460-48c7-abd1-9900e837ca29/fusion-tulip-bowl-apply-chamfer-bottom-fusion.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Chamfer applied to the bottom edge of the tulip bowl in Fusion to improve printability and reduce sharp edges on the finished 3D print. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b39dd73b-9ee7-4ab2-af68-bc8cbbf6bcd9/fusion-tulip-bowl-apply-chamfer-top-rim-fusion.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Chamfer applied to the inner rim edge of the tulip bowl in Fusion to soften the opening and improve the tactile finish of the 3D printed part. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2ad970bc-d144-4267-95da-e57d9bfb0de4/fusion-tulip-bowl-custom-appearance-setup-fusion.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Custom appearance created in Fusion using the color picker to assign distinct colors to the tulip bowl components for clearer visualization and presentation. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/90d4b67b-a907-430f-89c3-48ba3ab1ff61/fusion-tulip-bowl-apply-appearances-bodies-fusion.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Appearances applied to the tulip bowl bodies and petal features in Fusion to preview color separation for presentation and rendering. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6658f899-5efb-40d0-9e50-cb607be81943/fusion-tulip-bowl-scene-settings-set-up.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Scene settings selected in the Fusion render workspace to control lighting and environment for clean tulip bowl preview renders. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7b9f1c81-dee5-475f-9d14-72c745522f50/fusion-tulip-bowl-image-size-settings.jpg The Maker Letters - How to Design a Tulip Bowl in Fusion for 3D Printing - Make it stand out Render settings panel in the Fusion render workspace showing image size set to 1920×1080 for web-ready tulip bowl renders. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/autodesk-fusion-for-complete-beginnersnow-with-a-new-project monthly 0.5 2025-02-02 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cef9242a-8df9-44b4-bf9d-f0fa68af301e/Create-an-eye-catching-3D-printed-vase-in-Fusion%21.jpg The Maker Letters - Autodesk Fusion for Complete Beginners—Now with a New Project! - Make it stand out Learn to 3D model this vase in Autodesk Fusion. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-edit-a-sketch-and-update-the-model-in-autodesk-fusion monthly 0.5 2026-01-24 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6350f3ad-164e-4157-ab72-1530f87ba819/How-to-Edit-a-Sketch-and-Update-the-Model-in-Fusion-1.jpg The Maker Letters - How to Edit a Sketch and Update the Model in Autodesk Fusion - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/578abfa2-485b-4363-8f79-72e8d57bb40c/fusion-3d-printing-twisted-vase-parametric-design.jpg The Maker Letters - How to Edit a Sketch and Update the Model in Autodesk Fusion - Make it stand out Autodesk Fusion workspace displaying a parametric vase where surface features are controlled by earlier timeline actions and regenerate automatically when sketches change. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9abb34f2-b261-427d-9028-95e3d27da403/fusion-3d-printing-parametric-vase-variant-comparison.jpg The Maker Letters - How to Edit a Sketch and Update the Model in Autodesk Fusion - Make it stand out Fusion model demonstrating how modifying a sketch early in the timeline updates all dependent surface features on the vase without rebuilding geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/233dd616-bffe-4042-956e-0658ffe4500f/fusion-tutorial-vase-surface-pattern-edit.jpg The Maker Letters - How to Edit a Sketch and Update the Model in Autodesk Fusion - Make it stand out Timeline-based modeling in Fusion where a single sketch controls the repeated pattern wrapped around the vase body. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7e69562f-d6a1-471a-8cad-c71cdc692bd7/fusion-parametric-modeling-driving-sketch-plane.jpg The Maker Letters - How to Edit a Sketch and Update the Model in Autodesk Fusion - Make it stand out Fusion design environment showing the sketch plane that defines the angular relationship governing how the vase surface pattern is generated. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c6398e5d-e9c4-4e79-9256-cbb8149731f8/fusion-sketch-edit-angle-dimension-parametric.jpg The Maker Letters - How to Edit a Sketch and Update the Model in Autodesk Fusion - Make it stand out Autodesk Fusion model showing the vase automatically updated after modifying a sketch dimension earlier in the timeline, demonstrating parametric behavior in action. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/master-fusion-techniques-design-an-intricate-bowl-with-sheet-metal-surface-modeling-and-loft-tools monthly 0.5 2026-01-21 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a6876198-b402-47db-9d28-a4e4c4b4cd9d/design-a-sheet-metal-bowl-in-Fusion.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/96e89733-2d82-417e-9e99-05e4ce0e9e3d/fusion-hunter-gatherer-bowl-new-component-setup.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out A new internal component is created in Fusion before any geometry is added. Starting with a clean component keeps the timeline organized and makes later edits, surface work, and sheet metal operations easier to manage as the bowl design evolves. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ddc74725-89c5-421c-a164-fe55663f71aa/fusion-hunter-gatherer-bowl-initial-sketch-circle.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The first sketch establishes the bowl’s footprint. Instead of a complete circle, part of the profile is trimmed and extended to one side. This creates a more flexible foundation that works better with taper, lofted sheet metal, and later surface modeling steps. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/70e08b50-db52-4784-b13e-0f5fa34239f1/fusion-hunter-gatherer-bowl-offset-plane-construction.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out An offset construction plane is placed above the base sketch early in the workflow. This reference plane makes it possible to create a tapered sheet metal loft later without rebuilding geometry, which is a common time-saving strategy in more complex Fusion projects. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/af50f398-5193-4c25-bbdb-453c38fbfd5c/fusion-hunter-gatherer-bowl-project-sketch-curves.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The Project command is used to bring existing sketch geometry into a new sketch. Projected curves appear in purple, indicating that they are linked to the original sketch and will update automatically if the base geometry changes, keeping the bowl fully parametric. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8d6611e9-d202-4b25-8286-29d789127cc4/fusion-hunter-gatherer-bowl-sketch-offset-wall.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The Offset command is used to create a secondary curve at a fixed distance from the projected geometry. This offset defines the bowl’s wall thickness in the sketch and ensures the profile remains consistent and easy to adjust later in the timeline. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/4c2467f2-c713-47ef-9033-8a967f16697c/fusion-hunter-gatherer-bowl-sheet-metal-flange.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The Lofted Flange tool in the Sheet Metal workspace is used to create the main bowl form with controlled taper. This approach keeps sheet metal rules intact while allowing fast experimentation with shape and proportion during early concept modeling. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/923fcda5-23ca-4f7d-8338-00ab3c9a944b/fusion-hunter-gatherer-bowl-die-form-flange.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The existing lofted flange is edited directly in the timeline and the forming type is changed to Die Form. This small change alters the visual character of the bowl without rebuilding geometry, demonstrating the flexibility of Fusion’s timeline-based modeling workflow. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b14c0bf3-6fa0-4d9d-a291-9bf5473d62b5/fusion-hunter-gatherer-bowl-sheet-metal-unfold.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The bowl is unfolded using a selected stationary face. Choosing the correct side is critical, since all decorative sketch work will be created on this flat state before the sheet metal is refolded back into its tapered shape. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7952e01c-cbc9-4201-8bbf-9bf311730e42/fusion-hunter-gatherer-bowl-unfolded-sheet-metal.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out With all bends unfolded, the sheet metal body is laid out flat. This flat state provides a clean, predictable surface for inserting SVG artwork and creating decorative sketches before the bowl is refolded back into its final form. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/676efd4b-5ad3-4022-a893-041d30d136ed/fusion-hunter-gatherer-bowl-insert-svg-sketch.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out A licensed SVG illustration is inserted onto the unfolded sheet metal surface. The artwork is roughly scaled and positioned without aiming for precision yet, allowing the decorative layout to evolve naturally before final alignment and detailing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b05a7b95-3cfe-450e-8907-8362a3753e1c/fusion-hunter-gatherer-bowl-hunter-motif-layout.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The imported SVG figures are laid out across the flat sheet metal surface. At this stage, the focus is on overall spacing and rhythm rather than exact positioning, allowing the decorative motif to be adjusted easily before refolding the bowl. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/420d262c-3335-4b20-855a-6fb5f15111cf/fusion-hunter-gatherer-bowl-extrude-svg-detail.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The hunter-gatherer figures are selected as sketch profiles and extruded using the Join operation. This refolds the decorative geometry into the sheet metal body, creating raised details that remain fully editable through the timeline. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0b57ff71-b1d4-43c8-ab56-b4673379e7a6/fusion-hunter-gatherer-bowl-appearance-assignment.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out Base appearances are applied to the unfolded sheet metal body to evaluate contrast between the bowl surface and the raised decorative figures. Assigning colors at this stage makes it easier to judge proportions and visual balance before continuing with further modeling steps. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0abbff94-9137-4c9f-bac2-350c8b8db605/fusion-hunter-gatherer-bowl-extrude-side-cut.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out An extrude cut is applied to remove excess material along the side of the bowl. Setting the extent type to All ensures the cut remains valid and updates correctly even if the bowl’s dimensions change later in the timeline. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c6665eb2-4f08-49b4-98d4-f7e9cd384e04/fusion-hunter-gatherer-bowl-project-inner-edge.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The inner edge of the bowl is projected into a new sketch to reuse existing geometry. This projected curve becomes the reference for closing the bottom later, ensuring the sketch stays linked and updates automatically if the bowl shape changes. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1872e1b2-a9f6-4912-b803-864a3e71c6b5/fusion-hunter-gatherer-bowl-top-view-sketch.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out Viewed from above, the bowl’s opening geometry is projected into a sketch. This sketch defines the circular footprint used for closing the bottom later and highlights how the sheet metal taper and thickness affect the final dimensions compared to the original base sketch. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/236cbb32-8365-4952-b563-c82e730dccde/fusion-hunter-gatherer-bowl-loft-wall-body.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out A loft is created between the projected bottom profile and the upper opening of the bowl. This step rebuilds the wall geometry in a controlled way and prepares the model for surface-based refinement and bottom closure. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/fa02db08-3ef1-42c6-bde8-cb39fad2625f/fusion-hunter-gatherer-bowl-thicken-wall.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The lofted surface is given thickness using the Thicken command. Setting the operation to Join merges the surface with the existing geometry, resulting in a solid bowl wall while preserving the smooth surface transitions created earlier. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/575d6d1c-0924-4b32-a46c-c147d6641370/fusion-hunter-gatherer-bowl-patch-bottom-face.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The Patch command is used to close the open bottom of the bowl by selecting the boundary edge. This creates a clean surface that can be thickened and joined, resulting in a watertight model ready for further refinement or 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/51472cb4-cead-4c59-a05a-812f4efadbe5/fusion-hunter-gatherer-bowl-thicken-bottom.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The patched bottom surface is thickened to match the wall thickness and joined with the rest of the bowl. This step completes the solid geometry and ensures the model is watertight and suitable for rendering or 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e370f2ab-410c-4216-99f6-8353694bf4c5/fusion-hunter-gatherer-bowl-final-appearance.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out Final appearances are applied to the solid bowl, with a lighter exterior and a darker interior for contrast. Adjusting colors at the end helps evaluate the overall form, edge transitions, and decorative details as a complete design. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/42b39a04-bc43-40f1-81f6-ae379beccdc5/fusion-hunter-gatherer-bowl-bottom-chamfer.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out A chamfer is applied to the bottom edge of the bowl to soften the transition between the wall and the base. This edge treatment improves both the visual finish and the tactile feel, while remaining easy to adjust later through the timeline. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/bb11a08d-ca70-4ecf-80cd-5eb90d2d0bc0/fusion-hunter-gatherer-bowl-top-full-round-fillets.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out A full round fillet is evaluated on the top edge of the bowl. This type of fillet adapts automatically to thickness changes, but in this case it doesn’t improve the visual result—highlighting that even powerful parametric tools aren’t always the best design choice. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2e3b0f17-2083-4091-8005-63950cb2451e/fusion-hunter-gatherer-bowl-profile-control-sketch.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out A fit point spline is sketched in the central construction plane to control the curvature of the bowl’s top edge. This profile is intentionally over-sketched, allowing the final shape to be refined later using surface modeling tools without committing too early to a fixed form. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0615a569-fcef-4159-9418-003acd39cdc4/fusion-hunter-gatherer-bowl-surface-split-body.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out A surface is extruded symmetrically from the spline sketch and used as a cutting tool with Split Body. The result isn’t immediately obvious, but a new body is created in the browser, allowing unwanted geometry to be hidden and revealing the refined bowl shape. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/75d603b0-d419-43a7-99b4-089b7e7c2e34/fusion-hunter-gatherer-bowl-final-fusion-model.jpg The Maker Letters - Master Fusion Techniques: Design an Intricate Bowl with Sheet Metal, Surface Modeling, and Loft Tools - Make it stand out The Split Body command uses the curved surface as a cutting tool to refine the bowl’s final silhouette. After hiding the excess bodies, the remaining geometry reveals the completed form produced by combining sheet metal, surface modeling, and solid workflows in Fusion. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/course-update-autodesk-fusion-for-complete-beginners monthly 0.5 2025-01-23 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/new-project-in-the-course-autodesk-fusion-for-complete-beginners-industrial-design-pen-holder monthly 0.5 2025-01-15 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/design-a-3d-printed-lampshade-in-autodesk-fusion-cad-software monthly 0.5 2025-12-21 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d278c0d6-0e1a-4ddc-b50f-2cf8ed6d8a3e/3D-Printed-Lamp-Shade-in-Fusion.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c42b9448-680f-4d18-857e-cae4ee47f52e/fusion-lamp-shade-initial-sketch-dimensions-tutorial.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out Reference lines and base dimensions establish ordered spacing and overall height for the lamp shade. This layout defines the vertical envelope before any curvature is introduced, making later spline edits predictable and easy to control. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0ddf3706-97d1-46a3-b878-550d7a104343/fusion-lamp-shade-construction-lines-layout-sketch.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out A vertical construction line defines the revolve axis and symmetry reference. Anchoring all critical geometry to this axis ensures the final revolve remains centered and avoids off-axis solids caused by drifting sketch points. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d84a5154-b5c3-46d0-b5d0-19854b1ac24a/fusion-lamp-shade-spline-profile-sketch.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out A fit-point spline is introduced to control the lamp shade’s outer curvature. Early spline placement focuses on overall flow rather than precision, allowing the profile to be refined after constraints are added. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/57d45dbc-5625-4268-9662-f034600f7642/fusion-lamp-shade-profile-constraints-sketch.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out An angled reference line constrains the inner profile and controls taper toward the opening. This ensures consistent wall direction and prevents accidental inward curvature that could cause thin or self-intersecting geometry later. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6476b878-c639-45d2-b603-b953b41175b7/fusion-lamp-shade-revolve-profile-setup.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out The surface modeling Revolve tool is configured by selecting the spline and the central construction axis. Creating a new body preserves design flexibility and keeps the base geometry isolated for later surface or solid operations. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cbf230cb-0e4d-4538-ae50-53e32bf28c3d/fusion-lamp-shade-thicken-revolve-surface-creation.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out The Thicken tool converts the revolved surface into a solid body by adding a uniform 3 mm wall thickness in one direction. Applying thickness at this stage preserves the external shape defined by the surface model while establishing structural rigidity suitable for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5b25ced2-1b85-4e71-88fc-3e1f6cbc3bc1/fusion-lamp-shade-surface-extrude-split.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out Horizontal sketch lines are extruded as surfaces using a symmetric extent around the center plane. These surfaces are intentionally oversized to guarantee full intersection with the lamp shade body during later split operations. Using symmetric surface extrudes keeps the setup centered and avoids manual offset adjustments when the overall height changes. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c23a9c0e-eef3-4084-805b-0ab8161f929d/fusion-lamp-shade-surface-modeling-split-body.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out The lampshade is shown intersected by two horizontal surface planes, one above and one below the patterned midsection. The Split Body dialog is active, using the extruded surfaces as splitting tools to divide the original form into three separate bodies. This setup isolates the middle section for detailed edits while keeping the top and bottom openings clean and consistent. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/86661c80-14d0-479e-bc92-e77ae638f37b/fusion-lamp-shade-extrude-sketch-surface-modeling.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out An angled sketch line on the lampshade is selected and extruded using the Extrude tool. The top surface is hidden to simplify selection, and the extrusion extends far enough to fully pass through the lampshade without creating unwanted intersections. The extrusion thickness is set to 3 mm in the next step. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5647c5d4-c70e-42e0-a1e5-f3714345bad4/fusion-lamp-shade-thicken-extrude-detail.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out The Thicken command is used to convert the previously extruded angled surface into a solid by applying a 3.0 mm thickness in one direction. This step turns the construction surface into usable solid geometry so it can participate in boolean operations, such as splitting, mirroring, or patterning, later in the workflow. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1d79eebc-599b-4cb3-af4c-4ccfa147a84f/fusion-lamp-shade-before-intersect-extrude-cut.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out The angled patterned body is extruded beyond the full height of the lampshade to ensure it fully overlaps the target geometry. Over-extruding guarantees a clean intersection result and avoids partial cuts caused by insufficient extrusion length. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d858c165-de5a-43a8-a6d0-a068675d7a6e/fusion-lamp-shade-extrude-cut-intersect.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out The Extrude dialog is shown with the operation changed from Join to Intersect. This keeps only the shared volume between the patterned extrusion and the lampshade, automatically generating a clean cut-through pattern without manual trimming or additional boolean steps. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/67c594bb-ec53-4079-a090-afe9cf628ad0/fusion-lamp-shade-mirror-bodies-before-appearance.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out The Mirror command is used to duplicate the intersected patterned body across a vertical construction plane aligned with the model’s center axis. This creates a symmetrical pattern layout without rebuilding geometry. Any apparent length mismatch is temporary and caused by the intersect operation’s visual preview, not actual geometry differences. After mirroring, the top and bottom bodies can be made visible again for continued refinement. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1cdb5f5c-a1a1-4879-b2d3-d0390f1daf5b/fusion-lamp-shade-apply-appearance-visualization.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out Appearances are applied at the body level using the Appearance panel before any circular pattern is created. Assigning colors at this stage keeps each patterned instance independent and avoids excessive face-level selection later. Fusion’s appearance system supports precise RGB or hex color control, which is useful for previewing multi-color designs, separating bodies visually, and preparing models for color-specific printing or product visualization. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cbc1a1aa-48c2-4975-9e25-19570634606f/fusion-lamp-shade-circular-pattern-structure.jpg The Maker Letters - Design a 3D Printed Lampshade in Autodesk Fusion CAD Software - Make it stand out A Circular Pattern is applied to the patterned bodies using the vertical construction axis through the origin as the rotation axis. Only the relevant pattern bodies are selected, while temporary surface bodies and non-participating solids are hidden to keep selection clean. Using a full 360-degree distribution with a high instance count creates a dense, evenly spaced pattern that adds visual depth and improves light diffusion for lampshade designs. Applying appearances earlier allows each patterned instance to inherit its color automatically, avoiding post-pattern cleanup and reducing timeline complexity. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/five-fantastic-fillet-facts-in-fusion monthly 0.5 2025-12-16 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e784455c-4bc8-4b3f-812d-c9826a52d721/How-to-use-Fillets-in-Fusion.jpg The Maker Letters - Five Fantastic Fillet Facts in Fusion - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/725a0aff-538f-4b32-9726-7d8e6e2041c9/fusion-fillet-full-round-face-tutorial-screenshot.jpg The Maker Letters - Five Fantastic Fillet Facts in Fusion - Make it stand out A full round fillet replaces the center face between two parallel faces, creating a smooth semicircular profile. This approach is useful when you want a perfectly continuous round transition instead of managing multiple edge fillets, especially for handles, grips, or rounded profiles. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/67bcddd4-e79c-46ab-97e3-6a407b79781e/fusion-fillet-cup-rim-edge-selection-tutorial-screenshot.jpg The Maker Letters - Five Fantastic Fillet Facts in Fusion - Make it stand out The top circular edge of the cup is selected as the target for a fillet operation. Selecting a clean, uninterrupted edge ensures predictable results and avoids failures caused by small breaks or tangent discontinuities in the geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6d74ff1a-1ece-461b-ae79-a3ac9ce49c2a/fusion-fillet-cup-rim-edge-highlight-tutorial-screenshot.jpg The Maker Letters - Five Fantastic Fillet Facts in Fusion - Make it stand out The highlighted rim edge shows the active fillet selection, with a green radius point visible from the variable radius option. These points define where the fillet size is evaluated along the edge, making it easier to control how the radius transitions and to avoid partial fillets or abrupt changes around circular or tapered geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/24dff203-5b10-4e94-80e9-95c123a03797/fusion-fillet-variable-radius-cup-rim-tutorial-screenshot.jpg The Maker Letters - Five Fantastic Fillet Facts in Fusion - Make it stand out A variable radius fillet is applied around the cup rim, allowing the fillet size to change along the edge. Radius points along the rim control how the fillet grows or shrinks, making it possible to soften specific areas while keeping tighter transitions elsewhere without modifying the underlying sketch or solid geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1df050eb-3cc3-4cf8-aa78-423a5c32de88/fusion-fillet-constant-radius-tutorial-screenshot.jpg The Maker Letters - Five Fantastic Fillet Facts in Fusion - Make it stand out A fillet is applied to an edge on a solid body using the Fillet tool in the solid modeling environment. The operation modifies the existing edge geometry directly in the timeline, allowing edge softening without editing sketches or upstream features, which helps maintain a stable and predictable parametric model. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/14a7bfce-7248-4c3e-a23a-736fe0e7c446/fusion-fillet-constant-radius-slot-edge-tutorial-screenshot.jpg The Maker Letters - Five Fantastic Fillet Facts in Fusion - Make it stand out A constant radius fillet is applied to the slot edges of a solid body to remove sharp internal corners. By smoothing these transitions, the fillet reduces stress concentrations that can weaken parts under load or repeated use, improving durability and reliability in functional and 3D-printed components. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/db4505d3-205d-4630-9dd5-543f18078b73/fusion-fillet-curvature-g2-slot-edge-tutorial-screenshot.jpg The Maker Letters - Five Fantastic Fillet Facts in Fusion - Make it stand out A curvature continuity (G2) fillet is applied to the slot edges, ensuring the fillet blends smoothly into adjacent faces by matching curvature rather than just tangency. This results in cleaner surface flow, reduced visual breaks, and higher-quality results for visible parts and rendered designs. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-add-user-parameters-in-fusion monthly 0.5 2025-11-26 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b59ca45c-db88-4f04-89a6-4aeabba3e97d/Parametric-Dimensions-for-Faster-Revisions-in-Fusion.jpg The Maker Letters - How to add User Parameters in Fusion - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1095359a-151d-496b-83e8-3c1484ea50f0/fusion-parametric-box-add-handlewidth-parameter-screenshot.jpg The Maker Letters - How to add User Parameters in Fusion - Make it stand out Creating a new user parameter for HandleWidth makes the handle scale automatically with the rest of the box. Defining it with a direct expression keeps the design fully parametric, which reduces manual edits when BoxLength or BoxWidth change. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/13beb9b3-954b-40d8-a822-b6f1ce87f9d7/fusion-parametric-box-user-parameters-table-screenshot.jpg The Maker Letters - How to add User Parameters in Fusion - Make it stand out The parameters are linked through expressions such as BoxLength 0.5 and BoxLength 0.98. Using proportional relationships maintains consistent proportions across the model and prevents distortion when the primary length value is adjusted. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/669b56f4-2584-4fe4-8b1f-79ab86f72fbf/fusion-parametric-box-sketch-rectangle-driven-dimensions-screenshot.jpg The Maker Letters - How to add User Parameters in Fusion - Make it stand out The base rectangle is fully dimensioned using BoxLength and BoxWidth. Locking the sketch to parametric values ensures all downstream features update accurately when dimensions change. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3840b169-32b9-44c9-91cd-a9c9c75952d7/fusion-parametric-box-extrude-base-boxlength-parameter-screenshot.jpg The Maker Letters - How to add User Parameters in Fusion - Make it stand out The profile is extruded using BoxHeight to maintain a consistent wall height. Selecting parameters directly in the dialog keeps the feature dependent on the parameter table instead of static values, which preserves editability later in the workflow. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/212952e8-8c88-4a62-b049-d9a01ae7db69/fusion-parametric-box-shell-command-boxthickness-screenshot.jpg The Maker Letters - How to add User Parameters in Fusion - Make it stand out The Shell command applies BoxThickness to create uniform wall thickness. Connecting shell thickness to a parameter prevents errors when scaling the model, since the internal cavity adjusts automatically without manual recalculation. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/37e1cadf-fbca-4ad6-a358-7e093da0330f/fusion-parametric-box-extrude-lid-lidheight-parameter-screenshot.jpg The Maker Letters - How to add User Parameters in Fusion - Make it stand out The lid height is driven by the LidHeight parameter, allowing the lid to maintain proportional thickness relative to the main box. Using a parametric value avoids mismatches between lid and body when BoxLength is modified. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3098f768-df12-4633-b041-9085f486cb37/fusion-parametric-box-sketch-handle-user-parameters-screenshot.jpg The Maker Letters - How to add User Parameters in Fusion - Make it stand out The handle’s proportions are controlled through parameters, making the handle scale cleanly with the rest of the design. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/8bcdec46-63bc-4f62-b603-d4fcace9c47e/fusion-parametric-box-change-parameters-shortcut-dialog-screenshot.jpg The Maker Letters - How to add User Parameters in Fusion - Make it stand out Accessing Change Parameters through the shortcuts menu speeds up iteration. Fast access to the parameter table is useful when adjusting dimensions repeatedly, especially in parametric workflows that rely on testing multiples values. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9733942d-3707-4358-82c0-04dbf83a59d1/fusion-parametric-box-update-length-parameter-tutorial-screenshot.jpg The Maker Letters - How to add User Parameters in Fusion - Make it stand out Changing BoxLength updates all dependent expressions, scaling the box, lid, and handle automatically. This demonstrates the core benefit of parametric modeling: one edit drives multiple features without breaking constraints or creating misalignment. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/great-news-for-all-fusion-enthusiasts monthly 0.5 2025-01-04 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/how-to-design-a-best-selling-3d-printed-vase-in-fusion monthly 0.5 2026-01-19 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/52260ca1-868c-4ce0-840f-73cc0a7ceeb2/Design-a-Best-Selling-3D-Printed-Vase-in-Fusion.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cf231800-2822-41a7-add0-839ad5c0b389/fusion-vase-bounding-rectangle-sketch-setup.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out A base sketch defines a 100×100 mm square centered on the origin. This sets the bounding box for the vase profile and locks proportions early. Fully constraining the square ensures predictable results when editing via the timeline later. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/bbc84e92-ec04-4aee-a7db-201076dd3059/fusion-vase-spline-profile-sketch.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out A Fit Point Spline is added inside the square to define the outer contour of the vase. Key dimensions include a 20 mm dimension at the top and 25 mm at the base. These anchor points control curvature during the Revolve operation and make later adjustments more precise. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e2790762-8c80-4472-acb4-7b1c83596058/fusion-offset-spline-vase-wall-guide.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out The spline is offset by 2 mm to create a parallel curve. This offset defines the wall thickness of the patterned feature used later in the Revolve-Intersect workflow. Keeping the offset curve parametric allows fast iteration on thickness without rebuilding the sketch. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c4ca819c-4c22-42b5-9924-ca095bafe6ae/fusion-revolve-create-vase-base-body.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out The Revolve tool is prepared using the spline profile and a vertical axis. The preview indicates a full 360-degree revolve. This operation generates the smooth vase body used as the base surface for cutting and patterning. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3306e5d1-0fb7-43a6-a547-bf97841cba67/fusion-shell-hollow-vase-inner-wall.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out The Shell tool hollows the vase to a 3 mm wall thickness. Using “Inside” maintains the original exterior shape while ensuring consistent printability and structural strength. A tangent chain is enabled to include the entire inner cavity. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3f88941a-7b86-41f7-82c0-7f13ab7ae218/fusion-offset-plane-top-opening-setup.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out A construction plane is lifted 5 mm above the top edge to prepare a guide sketch for twisting the pattern. Offset planes provide precise control over where guide rails begin and end during surface modeling. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/f238056e-0c28-40b2-a611-522fbc3b3db5/fusion-top-sketch-guide-spline-layout.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out An arc is sketched from the center with a radius of 100 mm and a 50-degree sweep. This arc functions as a guide for controlling how much the pattern twists from top to bottom. Angular values directly influence the final symmetry of the design. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3d60fe90-5c52-479f-b2cb-abc48d973deb/fusion-bottom-view-path-line-dimension.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out A horizontal construction line is sketched at the bottom of the vase with a length of 100 mm. This line connects to the angled guide sketch created on the top offset plane. Together, these two guide rails define the twist direction for the lofted surface. Matching the endpoints ensures that the loft transitions smoothly from the base orientation to the rotated top angle, creating a controlled twist along the height of the vase. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/27ee97f7-236a-46c9-b771-b949f098672c/fusion-loft-guide-rail-surface-body.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out A surface Loft is created between the top and bottom profiles without using guide rails. This produces a clean transitional surface that forms the base of the twisted pattern body. This workflow keeps the loft flexible and makes it easy to adjust the twist later using only the angular difference between the top and bottom sketches. The result is a smooth, continuous surface ideal for thickening and patterning. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6c0f0fb3-e6b3-4f78-b1e2-6d3f9107ba1d/fusion-thicken-surface-vase-pattern-body.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out The lofted surface is thickened symmetrically by 2 mm to form a solid body. Symmetric thickening keeps the patterned piece centered and simplifies later operations like Circular Pattern. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a3bcdbee-72bc-47e1-a9b5-4c57707cbc27/fusion-revolve-intersect-trim-pattern.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out The offset spline from step 3 is used as the revolve profile and turned around the central axis with the Intersect option. This operation keeps only the portion of the thickened surface that lies inside the revolved volume. Using the offset spline as the cutting profile ensures the twisted body matches the vase’s curvature and aligns cleanly with the final circular pattern. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b6c317dd-19be-46fd-82fb-25617b7c77b2/fusion-chamfer-error-debug-vase-detail.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out The chamfer tool fails (see the error message in bottom right corner) because of small, tightly curved geometry near the cutout. When the chamfer distance exceeds the available space, Fusion cannot solve the edge transition. Reducing the value or adjusting the selection resolves this. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/542b7254-81c8-4f2d-8bf7-0f1319485770/fusion-chamfer-top-rim-refinement.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out A 3.5 mm chamfer smooths the top rim of the vase, improving both aesthetics and printability. The equal-distance method keeps the rim uniform and prevents sharp edges. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/395d2b6f-a984-49c1-a8c2-7a230153ab16/fusion-html-color-picker-custom-appearance.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out A pastel surface color is applied by entering a precise HTML color value. This ensures consistent visual style across thumbnails and keeps project visuals aligned with your brand’s palette. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/067a9a77-9c1e-422b-860d-7291dcd78b7a/fusion-circular-pattern-vase-ribs-array.jpg The Maker Letters - How to Design a Best-Selling 3D Printed Vase in Fusion - Make it stand out The twisted body is duplicated 18 times around the main axis using the Circular Pattern tool. Body-based patterning allows variation in spacing, density, and overall complexity of the final vase design. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/mastering-boundary-fill-in-fusion-blend-surface-and-solid-modeling-like-a-pro monthly 0.5 2025-11-08 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/16c83515-ddc4-4f26-bf61-99d5baca1cf9/fusion-surface-modeling-boundary-setup-spline-sketch-tutorial.jpg The Maker Letters - Mastering Boundary Fill in Fusion: Blend Surface and Solid Modeling Like a Pro - Make it stand out A surface modeling setup in Autodesk Fusion showing curved and flat surfaces intersecting around a spline sketch. These surface boundaries will later define the closed region used to generate a solid body inside through the Boundary Fill command. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/600f9c61-3a63-470f-be2b-9835b63ec009/fusion-boundary-fill-surface-selection-solid-body-tutorial.jpg.jpg The Maker Letters - Mastering Boundary Fill in Fusion: Blend Surface and Solid Modeling Like a Pro - Make it stand out Autodesk Fusion Boundary Fill setup showing selected surface bodies highlighted in green. The intersecting curved and flat surfaces define a closed region that will be converted into a solid body using the Boundary Fill tool. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5f47f73e-9ec6-4a09-8760-e6b38cf9b71a/fusion-boundary-fill-new-body-surface-modeling-tutorial.jpg.jpg The Maker Letters - Mastering Boundary Fill in Fusion: Blend Surface and Solid Modeling Like a Pro - Make it stand out Autodesk Fusion Boundary Fill tool creating a new solid body from intersecting surfaces. The selected region in green represents the closed space formed by curved and flat surfaces, which is converted into a solid using the “New Body” operation. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5bb8569c-2c41-42b8-ad2d-237dc5bda975/fusion-shell-command-solid-body-thickness-3mm-tutorial.jpg.jpg The Maker Letters - Mastering Boundary Fill in Fusion: Blend Surface and Solid Modeling Like a Pro - Make it stand out After completing the Boundary Fill operation in Autodesk Fusion, the new solid body can be modified using standard solid modeling tools. This image shows the Shell command being applied with a 3 mm wall thickness, demonstrating how easily surface-based designs transition into editable solid models. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/stop-doing-this-in-autodesk-fusion monthly 0.5 2025-11-07 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/15286598-6678-4d96-988b-2fc6de1d21c4/fusion-sketch-pattern-multiple-clicks.jpg.jpg The Maker Letters - Why Creating Patterns in the Solid Modeling Workspace is Better in Autodesk Fusion - Make it stand out A top-view of a circular sketch in Autodesk Fusion showing multiple hole profiles selected for extrusion. The image highlights the manual clicking required when creating patterns in the sketch environment — each hole must be selected individually, which slows down workflow and increases the chance of mistakes. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/492676be-1e20-464d-b2f8-87011c13fd35/fusion-solid-pattern-performance-tutorial.jpg.jpg The Maker Letters - Why Creating Patterns in the Solid Modeling Workspace is Better in Autodesk Fusion - Make it stand out A Fusion model showing a clean circular pattern setup in the solid modeling workspace. The image illustrates how feature-based patterns simplify edits and provide more compute options, making the design process faster and more stable. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2fcb4454-6cb0-4821-8bea-1a2bf7d0604d/fusion-pattern-update-solid-workspace.jpg.jpg The Maker Letters - Why Creating Patterns in the Solid Modeling Workspace is Better in Autodesk Fusion - Make it stand out A circular plate model in Autodesk Fusion with holes arranged using the Circular Pattern feature. The right-click menu in the timeline shows “Edit Circular Pattern,” demonstrating how parametric modeling allows quick updates to pattern features directly from the timeline for faster, more efficient workflows. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/autodesk-fusion-for-complete-beginners-course-preview monthly 0.5 2024-12-27 https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/autodesk-fusion-tutorial-create-an-industrial-design-pen-holder-for-3d-printing monthly 0.5 2025-10-25 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/97b5d42e-5f13-4c24-beb6-21bd22d570a7/fusion-pen-holder-industrial-design-project.jpg.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d3b111cf-3e55-42bd-9849-d07234096889/fusion-pen-holder-step-01-new-component.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Always begin your Fusion design by creating a new component. It keeps your pen holder organized and makes future edits easier. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3288a513-fb9e-48bb-a001-ed20c4100f71/fusion-pen-holder-step-02-sketch-base.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Sketch the pen holder from the top view using a center rectangle at the origin. This ensures perfect alignment for the 3D print. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ca21a90e-b020-40b9-939b-2071346c9c29/fusion-pen-holder-step-03-fillet-radius.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Add fillets to soften the corners. You can tweak one radius, and Fusion automatically adjusts the rest for a balanced design. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/98bd632e-2fbf-482b-bcaa-08fe91ecffaa/fusion-pen-holder-step-04-extrude-height.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Use the Extrude tool to give your 2D sketch height. A 100 mm extrusion creates a clean, tall shape for the pen holder. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/39505261-c262-47c9-8c8d-cc0d63a51749/fusion-pen-holder-step-05-shell-body.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Apply the Shell command to hollow the body with a 5 mm wall. This makes it light yet sturdy for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/38563d2d-48c9-4946-8d51-3ce6bd79f7b9/fusion-pen-holder-step-06-chamfer-edge.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Chamfers add strength and style to your design. If Fusion shows an error, reduce the distance slightly to fix it. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b17c1d7d-172e-48ad-b366-a5ec963a8174/fusion-pen-holder-step-07-new-sketch.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Add a new sketch at the bottom edge of the chamfer. For advanced control, use constraints and parameters in future designs. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/9d0dc22e-e4f5-41d4-9f82-4aaec2a0d00f/fusion-pen-holder-step-08-pipe-command.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Use the Pipe command to cut vertical grooves. Experiment with circular, triangular, or square profiles for unique results. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0522b6df-8244-4658-a6e9-c52da70c3119/fusion-pen-holder-step-09-pattern-on-path.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Apply Pattern on Path to repeat the cut feature around the holder. Align it to the path direction for a seamless wrap. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/7eeebc22-a5fc-4e82-9a4c-b93f6782f821/fusion-pen-holder-step-10-final-adjustments.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Fine-tune your design by editing features directly from the timeline. Fusion makes it easy to fix or refine each step later. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/065546a2-1dc0-4575-843f-61c07307b0e0/fusion-pen-holder-step-11-bottom-chamfer.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Add a bottom chamfer to give your pen holder a smooth base. Organize the feature next to other chamfers for easy reference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1bd08778-9a85-443a-bec8-c194d13f6c29/fusion-pen-holder-step-12-appearance.jpg The Maker Letters - Autodesk Fusion Tutorial: Create an Industrial Design Pen Holder for 3D Printing - Make it stand out Finish by customizing the appearance. Matte white gives a clean, modern look that’s easy to visualize before 3D printing. https://www.themakerletters.com/autodesk-fusion-tutorials-for-beginners/fusion-project-for-students-pen-holder monthly 0.5 2025-10-25 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/936f40b6-bbd8-4056-9caa-42ace2f98e31/fusion-cylinder-pen-holder-design.jpg.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out Whatever it is, the way you tell your story online can make all the difference. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/28ee6aed-dc72-4f4b-b7a1-d01d2c8a09a9/fusion-3d-printed-pen-holder-project-step-01.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out Pressing the S key in Fusion opens the Design Shortcuts menu — a quick way to reach tools like Create Sketch or Extrude without breaking focus. It keeps your workflow efficient and your modeling faster. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/433ebc79-3665-4470-9c57-0b3f07d246c0/fusion-3d-printed-pen-holder-project-step-02.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out Using the Extrude tool with the Thin Extrude option to turn the 2D circle into a hollow 3D cylinder. The 3 mm wall thickness provides strength, saves filament, and makes the pen holder lightweight and efficient to print. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/c6bdedd2-a62e-43ea-b8fe-1fa1701c3f39/fusion-3d-printed-pen-holder-project-step-03.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out An Offset Plane creates a new sketch plane at a controlled distance. It’s perfect for adding details or features above the base body without modifying the original geometry. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/504d5aaf-3343-41c9-a84a-d072477c608b/fusion-3d-printed-pen-holder-project-step-%284%29.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out A new construction plane is created to the left of the pen holder in Fusion. This offset plane will be used for sketching new features beside the main body, keeping the design symmetric and organized. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/df23e1c6-b2b2-44a9-adb3-b5d96647f4ce/fusion-3d-printed-pen-holder-project-step-05.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out A new sketch is drawn on the offset plane to add vertical details. Working on separate planes keeps designs organized and makes future edits easy. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/70a888f8-9c7d-4f79-a1cf-b38419398441/fusion-3d-printed-pen-holder-project-step-06.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out The Emboss tool wraps a sketch around a curved surface, engraving or raising geometry directly on the model. It’s ideal for adding grip patterns or logos to rounded parts. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ad8e2ad4-cb59-4eb4-a4e3-4cd913ea5ac8/fusion-3d-printed-pen-holder-project-step-07.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out The first embossed slot is selected for duplication. Setting up a Circular Pattern saves hours when repeating identical features around a model. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1fcdbf73-5127-4d9d-b496-c84653da3497/fusion-3d-printed-pen-holder-project-step-08.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out The Circular Pattern command creates 15 evenly spaced slots around the cylinder. It’s an efficient way to add symmetry and style while keeping perfect spacing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/568e45e8-1fb5-46c2-b65d-2a142cfd3dbf/fusion-3d-printed-pen-holder-project-step-09.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out The Project tool copies edges from existing bodies into a sketch. This keeps new geometry accurately aligned with your current model — essential for precision and assembly fit. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/677001b2-0d1e-4227-82c6-0461df5bdbee/fusion-3d-printed-pen-holder-project-step-10.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out A 3 mm Extrude Join adds a bottom plate to the pen holder. It strengthens the model and ensures a solid, watertight base for 3D printing. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b63e35f3-b73b-493a-b78f-e02fa199c4b0/fusion-3d-printed-pen-holder-project-step-12.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out A small 1 mm chamfer is added to the upper edge of the pen holder. Chamfers smooth sharp corners, improving both print quality and the feel of the finished 3D print. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/d29503ab-e312-4c3f-bc93-19229da91903/fusion-3d-printed-pen-holder-project-step-13.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out The bottom edge gets a 2 mm chamfer. Larger chamfers make 3D prints easier to remove from the build plate and reduce stress points that can cause cracking. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/93eb61bc-c112-40ce-a5cb-997f71369644/fusion-3d-printed-pen-holder-project-step-15.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out A matte blue plastic material is applied to the pen holder and is then adjusted with custom RGB color codes. This gives a realistic surface preview and helps communicate texture and color in renders. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/20378500-9ca9-4950-b67d-e40d79b2d590/fusion-3d-printed-pen-holder-project-step-16.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out The project is saved with the version tag “Ready for rendering.” Versioning helps keep design progress organized and ensures you can revert easily if needed. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/dc1ab373-9341-490a-803f-46c392c6ef04/fusion-3d-printed-pen-holder-project-step-18.jpg The Maker Letters - Fusion Project for Students | Pen Holder - Make it stand out Brightness and ground reflections are adjusted in the Render workspace. 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(STL + 3MF Files) - fusion-honeycomb-coaster-project-rendered-view.png https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/528f7bef-7306-499c-bb6a-974fad799dd7/honeycomb-coaster-holder-fusion-model-render.png STL & 3MF Files for 3D Printing – The Maker Letters - Honeycomb Coaster Set – 3D Printable Coaster & Holder | Modern Geometric Design (STL + 3MF Files) - honeycomb-coaster-holder-fusion-model-render.png https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/e86f664d-4402-4804-9548-4cdeace8b36c/parametric-honeycomb-coaster-stack-3d-print.png STL & 3MF Files for 3D Printing – The Maker Letters - Honeycomb Coaster Set – 3D Printable Coaster & Holder | Modern Geometric Design (STL + 3MF Files) - parametric-honeycomb-coaster-stack-3d-print.png https://www.themakerletters.com/stl-3mf-files/p/3d-printable-viking-coasters monthly 0.5 2025-12-02 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/ad6b0948-9c69-4039-8f7b-afda4dc3c114/viking-sword-coaster-3d-model-stl.jpg STL & 3MF Files for 3D Printing – The Maker Letters - Viking Coasters – 3D Printable STL & 3MF Files - Viking sword coaster with knotwork border in multi-color 3D print design https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/5f7e52dc-4681-4b81-b361-91fd876721ee/viking-ravens-coaster-3d-model-3mf-stl.jpg STL & 3MF Files for 3D Printing – The Maker Letters - Viking Coasters – 3D Printable STL & 3MF Files - Viking raven coaster with runes in multi-color 3D printed design https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/787ae496-a7ab-48bd-b35d-d80eeb2481e0/viking-ship-coaster-3d-model-stl-3mf.jpg STL & 3MF Files for 3D Printing – The Maker Letters - Viking Coasters – 3D Printable STL & 3MF Files - Viking longship coaster with runic border in 3D printed style https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/3384acad-1aa5-4321-aa0c-277efc367c53/viking-thors-hammer-coaster-3d-model-stl-3mf.jpg STL & 3MF Files for 3D Printing – The Maker Letters - Viking Coasters – 3D Printable STL & 3MF Files - Mjölnir Viking hammer coaster with stylized Nordic patterns https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/b822e8fb-0236-47d1-a10f-9ca53d4ab094/viking-warrior-coaster-3d-model-stl-3mf.jpg STL & 3MF Files for 3D Printing – The Maker Letters - Viking Coasters – 3D Printable STL & 3MF Files - Viking warrior helmet coaster with stylized face design in 3D print style https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/a7f0bec4-31d6-4ed1-a1a7-d9d849a86eed/viking-coaster-set-3d-models.png STL & 3MF Files for 3D Printing – The Maker Letters - Viking Coasters – 3D Printable STL & 3MF Files - viking-coaster-set-3d-models.png https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/22d2f8be-596f-477e-945d-7859964cd78c/viking-ravens-coaster-3d-model.png STL & 3MF Files for 3D Printing – The Maker Letters - Viking Coasters – 3D Printable STL & 3MF Files - viking-ravens-coaster-3d-model.png https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/1cc90fb4-4424-4ae9-90e1-55ec95c4c230/viking-thors-hammer-coaster-3d-model.png STL & 3MF Files for 3D Printing – The Maker Letters - Viking Coasters – 3D Printable STL & 3MF Files - viking-thors-hammer-coaster-3d-model.png https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/86ffdc1a-188b-488f-b70a-61357cac45b4/viking-drinking-horn-coaster-3d-model.png STL & 3MF Files for 3D Printing – The Maker Letters - Viking Coasters – 3D Printable STL & 3MF Files - viking-drinking-horn-coaster-3d-model.png https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/4e976593-1a1e-47c6-be68-f4b746e3f428/viking-ship-coaster-3d-model.png STL & 3MF Files for 3D Printing – The Maker Letters - Viking Coasters – 3D Printable STL & 3MF Files - viking-ship-coaster-3d-model.png https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/cb17fff3-fc41-4c8b-a46c-91b916c1a8e8/viking-warrior-coaster-3d-model.png STL & 3MF Files for 3D Printing – The Maker Letters - Viking Coasters – 3D Printable STL & 3MF Files - viking-warrior-coaster-3d-model.png https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/2ba13049-0178-46de-bc5f-3a4db97da51c/viking-sword-coaster-3d-model.png STL & 3MF Files for 3D Printing – The Maker Letters - Viking Coasters – 3D Printable STL & 3MF Files - viking-sword-coaster-3d-model.png https://www.themakerletters.com/stl-3mf-files/p/leaf-coaster-stl-files monthly 0.5 2025-12-01 https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/516bd15a-4684-48f7-b7f8-5aac7eb2f1a8/monstera-leaf-coaster-stl-lifestyle.jpg.jpg STL & 3MF Files for 3D Printing – The Maker Letters - Leaf Coaster Bundle – 4 Nature-Inspired STL & 3MF Files for 3D Printing (Monstera, Ginkgo, Maple, Oak) - Green monstera leaf-shaped coaster beside a glass of iced lime drink on a neutral tabletop. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/36250f8c-8308-4080-8b5f-57168dc3bdde/maple-leaf-coaster-stl-lifestyle.jpg.jpg STL & 3MF Files for 3D Printing – The Maker Letters - Leaf Coaster Bundle – 4 Nature-Inspired STL & 3MF Files for 3D Printing (Monstera, Ginkgo, Maple, Oak) - Orange maple leaf-shaped coaster on a light wooden surface next to a glass of amber drink. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/0f4654d1-73a1-4854-bcd1-b6754b74e8be/oak-leaf-coaster-stl-lifestyle.jpg.jpg STL & 3MF Files for 3D Printing – The Maker Letters - Leaf Coaster Bundle – 4 Nature-Inspired STL & 3MF Files for 3D Printing (Monstera, Ginkgo, Maple, Oak) - Brown oak leaf-shaped coaster on a wooden table next to a glass of whiskey. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/aab055e4-131a-4766-a786-7fb31937da7d/ginkgo-leaf-coaster-stl-lifestyle.jpg.jpg STL & 3MF Files for 3D Printing – The Maker Letters - Leaf Coaster Bundle – 4 Nature-Inspired STL & 3MF Files for 3D Printing (Monstera, Ginkgo, Maple, Oak) - Yellow ginkgo leaf-shaped coaster on a wooden table beside a glass of water. https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/dd4eda74-1e74-44db-ba7f-d3b191a7bc21/84.+Evergreen+Elegance+Coaster+Set+STL+3MF.png STL & 3MF Files for 3D Printing – The Maker Letters - Leaf Coaster Bundle – 4 Nature-Inspired STL & 3MF Files for 3D Printing (Monstera, Ginkgo, Maple, Oak) - 84. Evergreen Elegance Coaster Set STL 3MF.png https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/56231dea-f22b-42a3-b433-fafd7b32f4d6/84.1+Monstera+Leaf+Coster+-+STL+3MF.png STL & 3MF Files for 3D Printing – The Maker Letters - Leaf Coaster Bundle – 4 Nature-Inspired STL & 3MF Files for 3D Printing (Monstera, Ginkgo, Maple, Oak) - 84.1 Monstera Leaf Coster - STL 3MF.png https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/507421a6-b9d4-42bb-86bb-b70d86c2ec50/84.2+Oak+Leaf+Coaster+-+STL+3MF.png STL & 3MF Files for 3D Printing – The Maker Letters - Leaf Coaster Bundle – 4 Nature-Inspired STL & 3MF Files for 3D Printing (Monstera, Ginkgo, Maple, Oak) - 84.2 Oak Leaf Coaster - STL 3MF.png https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/37afa292-f9b6-4e2b-88e9-e93ddc82dada/84.3+Ginkgo+Biloba+Coaster+-+STL+3MF.png STL & 3MF Files for 3D Printing – The Maker Letters - Leaf Coaster Bundle – 4 Nature-Inspired STL & 3MF Files for 3D Printing (Monstera, Ginkgo, Maple, Oak) - 84.3 Ginkgo Biloba Coaster - STL 3MF.png https://images.squarespace-cdn.com/content/v1/6766b3b387e89a58a5ce2c16/6f240822-1040-4611-aca0-da33c0e71105/84.4+Maple+Leaf+Coaster+-+STL+3MF.png STL & 3MF Files for 3D Printing – The Maker Letters - Leaf Coaster Bundle – 4 Nature-Inspired STL & 3MF Files for 3D Printing (Monstera, Ginkgo, Maple, Oak) - 84.4 Maple Leaf Coaster - STL 3MF.png