Transfer Mesh Data(メッシュデータを転送)¶
参照
- Mode(モード):
Object Mode(オブジェクトモード)
- Menu(メニュー):
Transfer Mesh Data copies a certain type of data from the active mesh to the selected meshes. This could be UV maps, color attributes, custom normals, and so on.
For each element (vertex/edge/face) in each destination mesh, the operator finds one or more matching elements in the source mesh, then interpolates between those source elements' values.
The Adjust Last Operation(最後の操作を調整) panel offers the following options.
- Freeze Operator(オペレーターを凍結)
Prevent changes to the settings from re-running the data transfer. This is useful if you are editing several settings at once with heavy geometry.
- Data Type(データタイプ)
どのデータを転送するか。
データタイプ。¶
- Create Data(データ作成)
Add any missing data layers on the destination meshes (e.g. create missing vertex groups).
- Mapping(マッピング)
How to find the matching source element(s) for each destination element. The various options are explained in the Mapping section below.
- Auto Transform(自動トランスフォーム)
If the source and destination meshes don't overlap in world space, you can enable this option to calculate a transformation automatically. While this is quick and easy, however, you may get better results by making them overlap by hand.
- Object Transform(オブジェクトトランスフォーム)
Whether take into account the world space transformations of the source and destination objects. When unchecked, the operator acts like all objects are in the same position and have the default rotation and scale.
- Only Neighbor Geometry(近くの形状のみ)
Only consider source elements that are close enough to the destination one.
- Max Distance(最大距離)
転送元要素と転送先要素の間の最大許容距離(トポロジ以外のマッピングの場合)。
- Ray Radius(レイ範囲)
The starting radius to use when ray casting.
For certain mapping types, the operator performs a series of ray casts from each destination element to find matching source elements. These ray casts start with the specified radius and grow progressively larger until a match is found or a limit is reached.
A low starting radius will give more accurate results, but has worse performance if it's too small and needs to be increased. A high starting radius has better performance, but may result in suboptimal matches.
In general, use a low radius for dense source meshes and a high one for simple ones.
- Islands Precision
Controls the calculation that prevents a destination face from receiving UV coordinates from disparate source UV islands (areas bordered by seams). Keeping this at 0.0 means no island handling at all, while higher numbers increase the correctness of the result at the cost of extra computation.
Typically, small values like 0.02 are enough to get good results, but if you are mapping from a very high-poly source towards a very low-poly destination, you may have to raise it quite significantly.
- Source Layers Selection(転送元レイヤーの選択)
Which source layers to copy to the destination meshes (e.g. only the active vertex group, all vertex groups, or a specific vertex group).
- Destination Layers Matching(対象レイヤーとのマッチ方法)
How to find the destination layer for a given source layer: by name or by order.
- Mix Mode(ミックスモード)
How to combine the new data from the source mesh with the original data in the destination meshes.
- Replace(置き換え)
Interpolate between the original and new value using Mix Factor.
- Above Threshold(しきい値超過)
Replace the destination value if it's greater than or equal to Mix Factor. In the case of multi-component data like colors, the threshold is compared to the average of these components.
For boolean Data Types like Freestyle Mark, you can use this to perform a logical AND: simply ensure the Mix Factor is 0.5 or greater, and the destination mesh will only have marked edges/faces that were already marked and are also marked in the source mesh.
- Below Threshold(しきい値未満)
Replace the destination value if it's less than or equal to Mix Factor. In the case of multi-component data like colors, the threshold is compared to the average of these components.
For boolean Data Types like Freestyle Mark, you can use this to perform a logical OR: simply ensure the Mix Factor is 0.5 or greater, and the destination mesh will have marked edges/faces that were already marked or are marked in the source mesh.
- Mix(ミックス)
Mix the source value with the destination value, e.g. performing an alpha blend in the case of color attributes. Then, interpolate using Mix Factor.
- Add(追加)
Add the source value to the destination value, then interpolate using Mix Factor.
- Subtract(減算)
Subtract the source value from the destination value, then interpolate using Mix Factor.
- Multiply(乗算)
Multiply the source value by the destination value, then interpolate using Mix Factor.
- Mix Factor(ミックス係数)
Interpolation factor between the original destination value and the newly calculated value. If Mix Mode is Above Threshold or Below Threshold, this is a threshold value instead.
Mapping(マッピング)¶
Topology(トポロジー)¶
Simply matches the elements based on their index. This requires all meshes to have the same number of elements and those elements to be ordered in the same way. Best suited for a destination mesh that's a deformed copy of the source.
参考
Sort Elements(要素をソート) to ensure the objects have the same element ordering.
一対一のマッピング¶
These mappings always select only one source element for each destination one.
- Vertex Data(頂点データ)
- Nearest Vertex(最近接頂点)
Use the nearest source vertex.
- Nearest Edge Vertex(最近接辺の頂点)
Use the nearest source vertex on the nearest (by midpoint distance) source edge.
- Nearest Face Vertex(最近接面の頂点)
Use the nearest source vertex on the nearest (by midpoint distance) source face.
- Edge Data(辺データ)
- Nearest Vertices(最近接頂点群)
Use the source edge whose vertices are nearest to the destination edge's.
- Nearest Edge(最近接辺)
Use the source edge whose midpoint is nearest to the destination edge's.
- Nearest Face Edge(最近接面の辺)
Use the nearest source edge on the nearest face (both by midpoint distance).
- Face Corner Data
A face corner is a vertex in the context of a face. This concept is most commonly used in UV maps: each face corner can have its own UV coordinate, or in other words, one 3D vertex can correspond to several UV vertices (one per face).
- Nearest Corner and Best Matching Normal(最近接コーナーと最適法線)
Use the source corner that's nearest to the destination corner and has the most similar split normal.
- Nearest Corner and Best Matching Face Normal(最近接コーナーと最適面法線)
Use the source corner that's nearest to the destination corner and has the most similar face normal.
- Nearest Corner of Nearest Face(最近接面の最近接コーナー)
Use the nearest source corner on the nearest source face.
- Face Data(面データ)
- Nearest Face(最近接面)
Use the nearest source face (by midpoint distance).
- Best Normal-Matching(最も適合する法線)
Cast a ray from the destination face's centerpoint along the face's normal and use the source face found this way.
マッピングの補間¶
These mappings can match several source elements and interpolate between their values.
- Vertex Data(頂点データ)
- Nearest Edge Interpolated(最近接辺の補間)
Find the nearest point on the nearest source edge, then use that point to interpolate between the values of the edge's vertices.
- Nearest Face Interpolated(最近接面の補間)
Find the nearest point on the nearest source face, then use that point to interpolate between the values of the face's vertices.
- Projected Face Interpolated(投影面の補間)
Project the destination vertex along its normal onto a source face, then use the projected point to interpolate between the values of the face's vertices.
- Edge Data(辺データ)
- Projected Edge Interpolated(投影辺の補間)
Find source edges by projecting from a number of points on the destination edge (where each point is projected along the interpolated normals of the destination edge's vertices). Then, interpolate between the values of the source edges found this way.
- Face Corner Data
- Nearest Face Interpolated(最近接面の補間)
Find the nearest point on the nearest source face, then use that point to interpolate between the values of the face's corners.
- Projected Face Interpolated(投影面の補間)
Project the destination corner along its normal onto a source face, then use the projected point to interpolate between the values of the face's corners.
- Face Data(面データ)
- Projected Face Interpolated(投影面の補間)
Find source faces by casting rays from a number of points on the destination face along the destination face's normal. Then, interpolate between the values of these source faces.