PLAYTEX Map Generator
Upload or choose a source image, generate normal, roughness, metallic, ambient occlusion, height, emission, and albedo maps, preview each channel, then download a ZIP or engine-ready export.
Use this PBR map generator and PBR mapping tool when the base texture already exists and the next step is channel generation. That includes photos, scans, hand-painted sources, cleaned seamless tiles, and AI-generated base textures that need normal, roughness, metallic, ambient occlusion, height, emission, and albedo maps.
If the source texture itself is not ready yet, solve that upstream. Use AI Texture Generator to invent a new base surface, or Image to Texture Generator to turn an existing image into a cleaner seamless tile before you generate the map stack.
Online PBR Texture Generator
PLAYTEX is an online, browser-based PBR map generator for artists who want to turn a photo, scan, AI texture, or base color image into normal, metallic, roughness, ambient occlusion, height, emission, and albedo maps without installing desktop software.
Upload or select a source, generate the map stack, inspect each output channel, then download a ZIP or choose an engine package for Unity, Unreal Engine, Blender, Godot, Three.js, or glTF workflows.
Source modes
Pick the mode based on what you already have. Image mode trusts an existing source, procedural mode builds from controlled material rules, and hybrid mode keeps a source texture while adding procedural structure and wear.
Use image mode when the base surface already exists as a photo, scan, painted tile, cleaned source, or generated texture. The workflow treats those pixels as the source of truth and derives the map stack from them.
Use procedural mode when the material should be built from controlled surface rules, patterns, wear, and generated detail. It is useful when repeatability matters more than preserving a specific source image.
Use hybrid mode when a recognizable source texture should remain in the material, but procedural masks, bakes, layers, or wear need to guide the final PBR response.
Start by choosing how the material should be created. This is the first decision because it controls whether the map stack is driven by source pixels, procedural rules, or both.
Next, choose how the generated maps should behave physically. These controls affect the whole stack, so it is better to set them before fine-tuning layers.
In procedural and hybrid mode, the Surface Workbench is the guided workflow. The tabs are ordered from broad setup to placement debugging.
After generation, check the individual maps instead of trusting only the lit preview. The Channel Stack and Output Inspector make the hidden PBR data visible.
Finish by choosing the engine package and export size. This step matters because channel packing and naming conventions differ between tools.
Normal adds surface direction, roughness controls how the material breaks light, metallic determines conductive regions, ambient occlusion supports contact depth, height drives relief, emission adds self-lit areas, and albedo carries the base color.
Check roughness first, because it is often the quickest way to spot a fake-looking material. Then verify that normal intensity matches the actual scale of the surface, metallic only appears where it should, and AO or height is supporting the material instead of overdramatizing it.
Unlike one-click black-box tools, this workflow is built for reproducibility. The point is that teams can make a change, understand what caused it, and generate the same result again when the material becomes part of a larger production pipeline.
Use the normal map generator workflow to describe the direction of surface detail so lighting can catch bumps, bevels, pores, grooves, and material structure without changing the underlying mesh.
Use the roughness map generator workflow to control how matte or glossy each region feels. Roughness is often the fastest way to tell whether a material will survive real engine lighting.
Use the metallic map generator workflow to mark conductive areas. Keeping this channel disciplined prevents stone, wood, fabric, plastic, and paint from accidentally behaving like metal.
Use the ambient occlusion map generator workflow to support contact depth and cavities. AO maps help a material read with more grounded local shading when used carefully.
Use the height map generator workflow to store relief information for displacement, parallax, or height-aware effects. Height maps should describe broad material elevation rather than random noise.
Use the emission map generator workflow to define self-lit areas for materials such as screens, neon accents, hot surfaces, decals, and stylized effects that need controlled glow.
Use the albedo map generator workflow to preserve or refine the base color that sits underneath lighting, roughness, metallic, AO, height, and emission behavior.
The map stack is only useful if it survives the next step. This page is designed to feed Unity, Unreal Engine, Blender, Godot, Three.js, and adjacent real-time workflows where naming, channel behavior, and export packaging all affect whether a material is actually production-ready.
Choose an engine preset before export so normal format, roughness or smoothness output, power-of-two behavior, naming, and package metadata match the handoff target instead of a generic preview.
PBR Map Generator is the map-stack step and web-based PBR mapping tool inside PLAYTEX. Use the adjacent pages when you need source creation, image cleanup, HDRI lighting, workflow guidance, pricing details, or engine-specific export notes.
Upload a photo, scan, seamless tile, AI texture, or base color image, then use PLAYTEX to generate the PBR map stack in the browser.
The workflow creates normal, roughness, metallic, ambient occlusion, height, emission, and albedo maps, lets you preview the channels, and then exports the maps as a ZIP or engine package.
No. PLAYTEX is a browser-based PBR map generator, so you can create and preview PBR texture maps online without installing desktop software.
That makes it useful when you want a fast no-install workflow for converting images into game-ready material maps.
Yes. PLAYTEX can generate and export normal maps, roughness maps, metallic maps, ambient occlusion maps, height maps, emission maps, and albedo maps.
You can inspect individual channels before export so the material response is easier to tune for Unity, Unreal Engine, Blender, Godot, Three.js, and glTF workflows.
A PBR mapping tool creates the texture maps used by physically based rendering workflows, including normal, roughness, metallic, ambient occlusion, height, emission, and albedo maps.
Instead of treating a texture as one flat image, a PBR mapping tool helps artists build the map stack that controls how a material responds to light in Unity, Unreal Engine, Blender, Godot, Three.js, and other real-time renderers.
Yes. PLAYTEX is a web-based PBR mapping tool and browser-based PBR map generator for creating normal, roughness, metallic, ambient occlusion, height, emission, and albedo outputs without installing desktop software.
The workflow runs in the browser, supports image, procedural, and hybrid material sources, and gives artists deterministic controls for repeatable material-map generation.
Yes. PLAYTEX can generate PBR maps in the browser from photos, scans, painted textures, cleaned seamless tiles, AI-generated base textures, or procedural material settings.
The browser-based workflow can generate normal maps, roughness maps, metallic maps, ambient occlusion maps, height maps, emission maps, and albedo outputs, then package them for common game-engine pipelines.
PLAYTEX's PBR Map Generator is a web-based PBR mapping tool that converts any image or texture into a complete set of physically based rendering (PBR) material maps using deterministic mathematical algorithms.
Developers and artists can generate normal, roughness, metallic, ambient occlusion, height, emission, and albedo maps with full control and predictable results. Unlike AI-based generators, the Map Generator produces mathematically consistent outputs with no randomness, making it ideal for real-time engines and professional production pipelines.
The PBR Map Generator is used to create physically based rendering materials for video games, real-time 3D applications, AR/VR environments, simulations, and visualization projects.
Artists commonly use it to convert photos, base textures, photogrammetry inputs, or AI-generated images into full PBR material sets that behave correctly under dynamic lighting in game engines such as Unity and Unreal Engine.
The PLAYTEX Map Generator can generate the full set of PBR material maps commonly used in modern rendering pipelines, so it can be found by artists looking for a normal map generator, roughness map generator, metallic map generator, ambient occlusion map generator, height map generator, emission map generator, or albedo map generator.
These include:
Normal maps
Roughness maps
Metallic maps
Ambient occlusion maps
Height or displacement maps
Emission maps
Albedo maps
These maps work together to simulate realistic material behavior under different lighting conditions.
Yes. Maps generated with PLAYTEX are compatible with most modern 3D engines and rendering tools including Unity, Unreal Engine, Blender, Godot, and Three.js.
Users can choose DirectX or OpenGL normal map formats, control channel extraction, and export textures sized for optimal real-time performance.
A PBR map is a texture used in physically based rendering systems to simulate how materials interact with light.
Instead of using a single image, PBR materials combine multiple maps such as normal, roughness, metallic, and ambient occlusion maps to create realistic surface behavior in real-time engines and renderers.
PLAYTEX's Map Generator uses deterministic mathematical algorithms rather than generative AI.
Every slider corresponds to a real mathematical operation applied to the input texture, allowing artists to control the output precisely and reproduce results consistently.
This makes the tool ideal for professional pipelines where repeatability, transparency, and performance are critical.
Yes. All maps generated with PLAYTEX are watermark-free and can be used in commercial, indie, or AAA development projects.
The deterministic generation process ensures outputs are reliable and suitable for professional production pipelines.
Image mode starts from an uploaded texture and derives the material channels from the source pixels. Use it when the base surface already exists and the job is to build normal, roughness, metallic, AO, height, or emission maps from it.
Procedural mode builds the material from structured controls instead of an uploaded image. Use it when you need repeatable material logic, controlled surface detail, and fast iteration without hunting for a source texture first.
Hybrid mode combines an uploaded source with procedural material controls. Use it when the original texture should remain recognizable, but it needs added wear, pattern control, or more deliberate material response.
Use PBR Map Generator when the base texture already exists and the next job is to build the full material response. This is the correct step when you need normal, roughness, AO, metallic, height, or emission outputs rather than another new image.
If you still need to invent the base surface itself, start with the AI Texture Generator first and move the winning texture into this workflow afterward.
Review the map channels one by one. Roughness should describe how the surface breaks light, normals should add believable form without turning broad surfaces into noisy relief, and metallic should only be present where the material is actually metallic.
This is the step that prevents avoidable engine-side fixes later. A clean ZIP is not useful if the material logic is already wrong before export.
Yes. The generator is useful when your source comes from photography, scans, painted textures, or AI-generated base surfaces. The quality of the source still matters, but this tool is designed to turn that source into a more complete and controllable material set.
Map outputs can be exported for Unity URP/HDRP with automatic packaging behavior, including mask-map logic and validation metadata. See the Unity Texture Generator guide for the detailed export flow.
Map outputs can be exported for Unreal with ORM-aware channel packing, setup metadata, and pre-export quality checks. See the Unreal Texture Generator guide for the full channel behavior.
The Map Generator can be run inside studio pipelines with deterministic outputs, project-scoped governance, and validation-first exports. Learn more on the Enterprise Texture Pipeline page.
Open the generator, choose the source mode that matches the material, inspect every channel, and export a map stack that is ready for the engine workflow.
PLAYTEX uses deterministic generation instead of opaque randomness, so you can tune the output, review each map, and reproduce the result when a project needs consistency instead of surprises.
All maps generated using deterministic mathematical algorithms. No AI generation or content hallucination.