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Manual: Mesh Renderer component reference

Mesh components reference

Skinned Mesh Renderer component reference

A MeshThe main graphics primitive of Unity. Meshes make up a large part of your 3D worlds. Unity supports triangulated or Quadrangulated polygon meshes. Nurbs, Nurms, Subdiv surfaces must be converted to polygons. More info
See in Glossary Renderer component renders a mesh. It works with a Mesh FilterA mesh component that takes a mesh from your assets and passes it to the Mesh Renderer for rendering on the screen. More info
See in Glossary component on the same GameObjectThe fundamental object in Unity scenes, which can represent characters, props, scenery, cameras, waypoints, and more. A GameObject’s functionality is defined by the Components attached to it. More info
See in Glossary; the Mesh Renderer renders the mesh that the Mesh Filter references.

To render a deformable mesh, use a Skinned Mesh Renderer instead.

In C# code, the MeshRenderer class represents a Mesh Renderer component. The MeshRenderer class inherits much of its functionality from the Renderer class. As such, this component has a lot in common with other components that inherit from Renderer, such as Line RendererA component that takes an array of two or more points in 3D space and draws a straight line between each one. You can use a single Line Renderer component to draw anything from a simple straight line to a complex spiral. More info
See in Glossary, and Trail RendererA visual effect that lets you to make trails behind GameObjects in the Scene as they move. More info
See in Glossary.

• MaterialsAn asset that defines how a surface should be rendered. More info
  See in Glossary
  
• Lighting
  
• Lightmapping
  
• Probes
  
• Ray TracingThe process of generating an image by tracing out rays from the Camera through each pixel and recording the color contribution at the hit point. This is an alternative to rasterization. raytracing
  See in Glossary
  
• Additional Settings

The Materials section lists all the materials that this component uses.

If you decrease the number of elements, Unity deletes the elements at the end of the list. If you increase the number of elements, Unity adds new elements to the end of the list. Unity populates new elements with the same material that the element at the end of the list uses.

By default, Unity orders the list alphabetically based on the name of the materials. This list is reorderable, and Unity updates the number of the elements automatically as you change their order.

Note: If there are more materials than there are sub-meshes, Unity renders the last sub-mesh with each of the remaining materials, one on top of the next. If the materials are not fully opaque, you can layer different materials and create interesting visual effects. However, fully opaque materials overwrite previous layers, so any additional opaque materials that Unity applies to the last sub-mesh negatively affect performance and produce no benefit.

The Lighting section contains properties that relate to lighting.

This property corresponds to the Renderer.shadowCastingMode API.

The options are:

• On: This Renderer casts a shadow when a shadow-casting Light shines on it.
• Off: This Renderer does not cast shadows.
• Two-sided: This Renderer casts two-sided shadows. This means that single-sided objects like a plane or a quad can cast shadows, even if the light source is behind the mesh. For Baked Global Illumination or Enlighten Realtime Global Illumination to support two-sided shadows, the material must support Double Sided Global Illumination.
• Shadows Only: This Renderer casts shadows, but the Renderer itself isn’t visible.

This property only has an effect if you enable Baked Global Illumination or Enlighten Realtime Global Illumination for this scene.

This property corresponds to the Renderer.receiveShadows API.

This property only has an effect if you enable Baked Global Illumination or Enlighten Realtime Global Illumination for this scene.

Enabling this property enables the Contribute GI flag in the GameObject’s Static Editor Flags. It corresponds to the StaticEditorFlags.ContributeGI API.

This property is only editable if you enable Contribute Global Illumination. It only has an effect if you enable Baked Global Illumination or Enlighten Realtime Global Illumination for this scene.

This property corresponds to the MeshRenderer.receiveGI API.

The options are:

• Lightmaps: Unity provides global illumination data to this Renderer from lightmaps.
• Light Probes: Unity provides global illumination data to this Renderer from Light ProbesLight probes store information about how light passes through space in your scene. A collection of light probes arranged within a given space can improve lighting on moving objects and static LOD scenery within that space. More info
  See in Glossary in the scene.

This property is visible only if Contribute GI is enabled in the GameObject’s Static Editor Flags, your project uses the Built-in Render Pipeline, and Enlighten Realtime Global Illumination is enabled in your scene.

The Lightmapping section contains properties relating to baked and real-time lightmapsA pre-rendered texture that contains the effects of light sources on static objects in the scene. Lightmaps are overlaid on top of scene geometry to create the effect of lighting. More info
See in Glossary.

This section is visible only if only if Receive Global IlluminationA group of techniques that model both direct and indirect lighting to provide realistic lighting results.
See in Glossary is set to Lightmaps.

A value of 0 results in the Renderer not being lightmapped, but it still contributes to lighting other Renderers in the Scene. A value greater than 1.0 increases the number of pixels (the lightmap resolution) used for this Renderer, while a value less than 1.0 decreases it.

You can use this property to optimize lightmaps so that important and detailed areas are more accurately lit. For example, an isolated building with flat, dark walls uses a low lightmap scale (less than 1.0) while a collection of colourful motorcycles displayed close together requires a high scale value.

This property corresponds to the MeshRenderer.scaleInLightmap API.

This property corresponds to the MeshRenderer.stitchLightmapSeams API.

This property is visible only if your Project uses the Built-in Render Pipeline, and Enlighten Realtime Global Illumination is enabled in your scene.

This property is visible only if your Project uses the Built-in Render Pipeline, and Enlighten Realtime Global Illumination is enabled in your scene.

This property is visible only if your Project uses the Built-in Render Pipeline, and Enlighten Realtime Global Illumination is enabled in your scene.

This property is visible only if your Project uses the Built-in Render Pipeline, and Enlighten Realtime Global Illumination is enabled in your scene.

This property is visible only if your Project uses the Built-in Render Pipeline, and Enlighten Realtime Global Illumination is enabled in your scene.

When you’ve baked your lighting data (menu: Window > Rendering > Lighting > Generate Lighting ), this section also shows the baked lightmaps and real-time lightmaps in the current scene that this Renderer uses.

The Probes section contains properties relating to Light Probe and Reflection ProbesA rendering component that captures a spherical view of its surroundings in all directions, rather like a camera. The captured image is then stored as a Cubemap that can be used by objects with reflective materials. More info
See in Glossary.

This property corresponds to the Renderer.lightProbeUsage API.

The options are:

• Off: The Renderer doesn’t use any interpolated Light Probes.
• Blend Probes: The Renderer uses one interpolated Light Probe. This is the default value.
• Use Proxy Volume: The Renderer uses a 3D grid of interpolated Light Probes.
• Custom Provided: The Renderer extracts Light Probe shader uniform values from the MaterialPropertyBlock.

This property is only visible when Light Probes is set to Use Proxy Volume.

This property corresponds to the Renderer.probeAnchor API.

The options are:

• Off: Disables Reflection Probes. Unity uses a skybox for reflection.
• Blend Probes: Enables Reflection Probes. Blending occurs only between Reflection Probes. This is useful in indoor environments where the character may transition between areas with different lighting settings.
• Blend Probes and Skybox: Enables Reflection Probes. Blending occurs between Reflection Probes, or between Reflection Probes and the default reflection. This is useful for outdoor environments.
• Simple: Enables Reflection Probes, but no blending occurs between Reflection Probes when there are two overlapping volumes.

This property corresponds to the Renderer.probeAnchor API.

The Ray Tracing section contains properties that relate to ray tracing effects.

This section only appears if your graphics card supports ray tracing and you upgrade your project to use DirectX 12 in the Player settings window.

These properties have no effect unless you configure your project in one of the following ways:

• You use the High Definition Render PipelineA series of operations that take the contents of a Scene, and displays them on a screen. Unity lets you choose from pre-built render pipelines, or write your own. More info
  See in Glossary (HDRP) and enable ray tracing.
• You write your own C# script to implement ray tracing effects with RayTracingShader and RayTracingAccelerationStructure.

• Off: Unity excludes this Renderer from ray tracing calculations. This option causes the Renderer to not appear in ray-traced reflections, for example.
• Static: Unity doesn’t update the ray tracing acceleration structure if the GameObject’s Transform or mesh geometry changes. This means ray tracing effects don’t change at runtime.
• Dynamic Transform: Unity updates the ray tracing acceleration structure if the GameObject’s Transform changes, but not if the mesh geometry changes. This is the default value for a Mesh Renderer. If your project uses HDRP, this setting is the same as Dynamic Geometry because HDRP rebuilds the acceleration structure every frame.
• Dynamic Geometry: Unity updates the ray tracing acceleration structure every frame with the GameObject’s Transform and mesh geometry. This is the default value for a Skinned Mesh Renderer.

The Additional Settings section contains additional properties.

Note: not all platforms support motion vectors. See SystemInfo.supportsMotionVectors for more information.

This property corresponds to the Renderer.motionVectorGenerationMode API.

The options are:

• Camera Motion Only: Use only Camera movement to track motion.
• Per Object Motion: Use a specific pass to track motion for this Renderer.
• Force No Motion: Do not track motion.

Dynamic Occlusion is enabled by default. Disable it for effects such as drawing the outline of a character behind a wall.

MeshRenderer

Mesh components reference

Skinned Mesh Renderer component reference

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