10 Creative Uses for Scandy You Haven’t Tried

Mastering Scandy: Tips, Tricks, and Best Practices

What Scandy is

Scandy is a 3D scanning app/platform that captures, processes, and exports 3D models using mobile devices and depth sensors (e.g., LiDAR-equipped iPhones/iPads). It’s used for prototyping, AR content, 3D printing, and digital archiving.

Best setup practices

• Device: Use a LiDAR-equipped iPhone/iPad for higher fidelity and faster capture.
• Lighting: Work in even, diffuse lighting; avoid direct sunlight and strong backlight.
• Background: Scan against a plain, non-reflective background to reduce noise.
• Stability: Move slowly and steadily; keep the device at a consistent distance (about 0.5–1.5 m depending on subject).
• Overlap: Ensure 60–80% overlap between frames—cover all angles, including underside if needed.
• Surface prep: For shiny/transparent objects, apply a temporary matte spray or powder (if permissible) to improve scanning.

Capture tips

• Start wide, then close in: Begin with an orbiting pass to capture overall shape, then do closer passes for fine detail.
• Use markers for texture-poor subjects: Add removable stickers or markers to help the scanner track.
• Scan in sections for large scenes: Break large objects/environments into sections and align later.
• Avoid moving subjects: Scan stationary objects only—people require special workflows (pose holds) or multiple quick passes.

Processing workflow

1. Import and inspect: Check raw mesh for holes, noise, and misalignments.
2. Clean: Remove stray fragments and non-target geometry.
3. Align/merge: Use automatic alignment, then refine manually if needed.
4. Fill holes and smooth: Use conservative smoothing to preserve detail.
5. Retopology (if needed): Create a cleaner, lower-poly mesh for animation or real-time use.
6. Texture baking: Bake high-res color/normal maps onto the optimized mesh for fidelity.
7. Export: Choose file format by use case — OBJ/FBX for general 3D apps, STL for 3D printing, glTF for web/AR.

Common issues & fixes

• Noisy scans: Increase overlap, slow movement, better lighting; apply denoise filters sparingly.
• Holes/missing data: Re-scan occluded areas; use hole-filling tools; combine multiple passes.
• Texture blur/misalignment: Improve lighting and maintain consistent distance; re-bake textures.
• Scale errors: Include a reference object of known size or use built-in measurement tools.

Optimizations by use case

• 3D printing: Ensure watertight mesh, correct scale, manifold geometry; export STL and run slicer checks.
• AR/web: Use retopology and glTF; limit polygon count and compress textures.
• Archival: Preserve high-res scans (OBJ + high-res textures); store raw captures and processed files.
• Animation: Retopologize, create proper UVs, and rig a simplified mesh with baked normal maps.

Tools & integrations

• Desktop: MeshLab, Blender, ZBrush for cleaning, retopo, and sculpting.
• Pipelines: Use Blender or Maya for animation; use Meshlab/Netfabb for repair and analysis.
• Export formats: OBJ, FBX, STL, glTF — pick based on target platform.

Quick workflow checklist

1. Prepare subject and environment.
2. Capture overlapping passes (wide → close).
3. Inspect and clean raw mesh.
4. Align/merge passes; fill holes.
5. Retopo and bake textures if needed.
6. Export in appropriate format and verify scale.

Date: February 5, 2026