Blender to UE5: Stylized Interactive Pirate Chest

Develop a chunky metal ornament with a tapered reverse-S profile that follows the chest’s curved front. You’ll refine its shading and bevels, then duplicate and scale the geometry in Edit Mode to maintain consistent bevel widths. Practical alignment and pivot techniques help you position the finished pieces around the hinges.

Learn how to reuse the front reinforcement to build a curved side strip with recessed details and asymmetrical metal decorations. You’ll create optimized studs, copy modifiers, and adjust geometry without changing bevel proportions. You’ll also apply location, rotation, and scale correctly to mirror components across the chest.

Create a vertical metal brace with an irregular silhouette, concave curvature, and recessed crossing panels. You’ll use edge loops, beveling, inset extrusion, and boundary filling while resolving artifacts caused by angled surfaces. The lesson also shows you how to rebuild the lower topology for cleaner bevels and smoother shading.

Learn how to complete the chest’s lower metal supports using separate geometry, controlled extrusions, edge loops, and custom curves. You’ll assign specific bevel weights, configure Mirror modifiers, and reuse existing parts to create consistent front, side, and back details. These techniques help you maintain clean topology while building a symmetrical, believable support structure.

Discover how to resize the chest body and construct a continuous metal border with editable thickness and custom corner supports. You’ll refine the lid gap, manage mirroring, correct bevel weights, and troubleshoot modifier settings such as Clamp Overlap and real-time display. By the end, you’ll have a proportioned border assembly that remains visible and functional when the chest opens.

This lesson shows you how to add transition details and model a curved metal lid support from a single vertex. You’ll draw the profile manually, extrude it for thickness, add selective bevel topology, and adjust edge placement to create balanced gaps. The result is a smoother, stylized support that follows the chest’s lid angle cleanly.

Develop practical methods for refining the curved support, adding a raised central band, and controlling its bevels and mirrored geometry. You’ll reshape connected components for a thicker silhouette, correct intersections, and reuse the support to build a symmetrical interior ornament. Proportional Editing, hidden selections, and targeted vertex adjustments help you form a balanced spiral-like detail without distorting existing bevels.

Learn how to correct the chest’s movable sections and model detailed lower belt holders from a single mesh. You’ll use vertex beveling, insets, weighted edges, local transformations, and a Mirror modifier to create clean, symmetrical components. These techniques help you avoid movement and topology issues while keeping the stylized design practical to edit.

Create the upper metal decorations by shaping, beveling, and extruding a reusable plus-shaped mesh. You’ll refine the topology with triangulation, quad conversion, and manual beveling before positioning the piece and mirroring it across the chest. This process produces a layered, symmetrical design with geometry that remains suitable for later setup.

Develop the chest hinges and curved handles using a low-sided cylinder and an adjustable Bezier curve. You’ll control curve depth and resolution, convert the handle to a mesh, remove hidden faces, and join the parts into an efficient assembly. Careful placement, smoothing, and mirroring will give you believable paired belt attachments.

Build thick stylized belts with curve paths that wrap naturally over the chest and through the metal holders. You’ll shape tension and tapering with subdivisions, convert the curves to meshes, and refine the form with proportional editing and beveling. Limited Dissolve and mirroring help you reduce unnecessary geometry while preserving a consistent silhouette.

Learn how to soften the belt edges using insets, boundary loops, and controlled vertex sliding. You’ll repair overlapping geometry, adjust organic contours, and refine shading to create cleaner belts with a more believable profile.

Develop the main chest lock and its raised decorative insert while preserving topology for later bending. You’ll shape the curved profile with proportional editing, bevels, insets, and horizontal edge loops, then add depth and close visible openings.

Create a symmetrical keyhole ornament from a Bezier curve and convert it into a deformation-ready mesh. You’ll reduce unnecessary vertices, build connected topology with vertical loops, form a surrounding ring, and extrude a shallow keyhole recess without creating problematic n-gons.

Master the process of fitting and bending the completed lock around the chest with Simple Deform and Lattice modifiers. You’ll refine the rear coverage, repair bevel issues, smooth the shading, and prepare the final topology for export to Unreal Engine.

Learn how to add restrained variation to the chest planks by adjusting gaps, widths, edge loops, and Solidify-generated forms. You’ll also apply Mirror modifiers to key chest components, establishing clean geometry for UV preparation.

Develop practical methods for normalizing object scale so the chest components receive consistent UV density. You’ll inspect and correct Bevel and Solidify settings after applying scale, then verify mirrored geometry before UV unwrapping.

Create a UV checker material and use Smart UV Project to identify stretching or missing UV information across the chest. You’ll apply Solidify modifiers to convert plank depth into mesh geometry, re-unwrap the pieces, and organize completed sections for an efficient workflow.

Build your skills in unwrapping the chest’s metal framework using Smart UV Project, marked seams, and Minimum Stretch where appropriate. You’ll evaluate bevel-related artifacts, reduce fragmented UV islands on curved bands, and use UV selection tools to prepare an efficient layout while retaining Mirror modifiers for faster editing.

Develop practical UV unwrapping methods for curved metal edges, hinges, belts, rings, and the decorative lock. You’ll apply modifiers, place seams, reduce distortion with Minimum Stretch and Conformal methods, and divide complex forms into cleaner islands. Manual stitching and island cleanup will help you create a usable UV layout for the chest’s most irregular details.

Learn how to assign and link wood, metal, lever, and moss materials across the pirate chest. You’ll apply Mirror modifiers so duplicated pieces receive separate UVs, then standardize island scale and pack the layout with consistent margins. You’ll also correct UV rotation to keep the wood grain aligned.

Create rounded metal bolts from a modified UV sphere and give them a distinct material for clearer visual separation. You’ll correct inverted normals, adjust the object origin, and configure Face Project snapping so bolts align properly with curved surfaces. You’ll then duplicate, vary, and mirror the bolts across the upper chest and reinforced front areas.

Finish the chest hardware by placing rear bolts and reshaping existing geometry into square bolts for the lever belts. You’ll use local transforms, snapping, duplication, and mirroring to add consistent details to belts and hinges. Finally, you’ll standardize the UV scale for every bolt and pack the islands while preserving important texture orientations.

Learn how to place and adapt decorative decals across the pirate chest using face snapping, lattice deformation, and proportional editing. You’ll mirror and reshape weapons, insignias, and ornaments so they fit flat and curved surfaces while preserving mesh depth. These techniques prepare the details for effective ambient occlusion, cavity masking, and Nanite rendering in Unreal Engine 5.

Organize the chest into upper, lower, and decal collections so each section can be controlled and exported predictably. You’ll separate the lid before baking to prevent unwanted ambient-occlusion patches, then create a fitted gold pile by trimming and shaping a plane. This structure keeps the scene manageable while preparing clean geometry for later processing.

Understand how ambient occlusion and curvature masks add contact shadows, cavity definition, and procedural edge wear to the chest. You’ll preview Blender’s baking process with an Image Texture and use Geometry Pointiness with a Color Ramp to isolate sharp edges. This practical overview explains the mask logic that the automated script will later apply.

Learn how to use a Blender Python script to bake ambient occlusion and cavity masks for the pirate chest while excluding decals from the shared UV space. You’ll preview and validate both masks with temporary materials, Color Ramps, and View Layer material overrides, helping you identify issues such as incorrect face orientation before continuing.

Create separate open and closed chest variants while correcting belts and other hanging details to match the lid’s position. You’ll organize non-destructive collection duplicates, align each complete model, and export the closed chest as GLB and the open chest as FBX with appropriate modifier, tangent, orientation, and smoothing settings. You’ll also export the supplied moss asset, leaving all required files ready for Unreal Engine 5.

Set up a Blank project in Unreal Engine 5.8 and create an organized level for the pirate chest. You’ll learn practical viewport controls, restore the default editor layout when needed, and configure the Content Browser so project assets remain easy to access.

Learn how to import the closed chest GLB and FPX files into Unreal Engine with appropriate tangent, normal map, Nanite, and light map settings. You’ll consolidate duplicate material instances, reuse the GLB materials on the FPX meshes, and establish a reliable reimport process for later corrections.

Develop practical methods for refining the chest’s imported Material Instances in Unreal Engine. You’ll adjust color, brightness, roughness, texture tiling, and normal intensity for gold, metal, leather, wood, and decals while checking the results under different lighting angles.

Learn how to extend Unreal Engine 5’s GLTF master material with a custom curvature effect driven by the baked chest cavity texture. You’ll build adjustable color, power, and intensity controls, then organize them into a clear parameter group. This setup lets you refine edge highlights independently across material instances without modifying the engine’s original material.

Develop an ambient occlusion system by adapting the curvature nodes in your custom Unreal Engine 5 master material. You’ll apply the material to the chest instances and adjust masks, colors, and coverage to create restrained rust, worn leather, and dirt around metal cavities. These controls help each surface retain its character while sharing one practical material structure.

Refine the chest’s wood and leather materials so their colors, highlights, and ambient occlusion work together consistently. You’ll adjust the wood mask to compensate for shallow ridges, then rebalance the leather belts through targeted Base Color changes. These focused edits improve material separation while keeping the chest visually cohesive.

Learn how to add procedural moss with Unreal Engine 5’s Substrate Horizontal Blend and Substrate Slab Simple materials. You’ll generate a custom normal, extract packed roughness data, and combine ambient occlusion with tiled noise to concentrate irregular moss around cavities and edges. The resulting shared overlay adds believable surface aging across the chest’s wood, metal, and other materials.

Build an Unreal Engine Actor Blueprint that provides the foundation for an interactive chest. You’ll add a movable Static Mesh and a 200-by-200-by-200 Box Collision interaction zone, then configure overlap settings so nearby players can be detected reliably.

Learn how to build a short Unreal Engine Timeline that gives the chest a believable squash-and-stretch motion. You’ll animate its three-dimensional scale with a Vector Track, then add an Event Track that triggers the mesh swap at the point of maximum compression.

Connect the E key to your chest animation while limiting interaction to players inside the Box Collision zone. You’ll use an overlap check, Branch node, and relative scale control to create a practical input system with a responsive elastic motion.

Create an opening and closing system that swaps the chest mesh at the correct point in the scale animation. You’ll track its state with a Boolean variable, customize its material for presentation, and configure input so multiple chest instances can respond independently.