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Supplemental material number 2 / 4 for Bi-Layer textures: a Model for Synthesis and Deformation of Composite Textures

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Supplemental material number 2 / 4 for

Bi-Layer textures: a Model for Synthesis and Deformation of Composite Textures

G. Guingo, B. Sauvage, J.-M. Dischler & M.-P. Cani

Published in Eurographics Symposium on Rendering 2017 / Computer Graphics Forum 36(4) This document presents a comparison for different synthesis methods for every input.

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+rotation+scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling)

Offline (KNL*15) Our bilayer model (+ rotation + scaling)

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Input Wang tiling

Content exchange Single layer (+ scaling)

Offline (KNL*15) Our bilayer model (+ scaling)

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Input Wang tiling

Content exchange Single layer (+ scaling)

Offline (KNL*15) Our bilayer model (+ scaling)

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Input Wang tiling

Content exchange Single layer (+ scaling)

Offline (KNL*15) Our bilayer model (+ scaling)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling + turbulence)

Offline (KNL*15) Our bilayer model (+ rotation + scaling + tur- bulence)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling + turbulence)

Offline (KNL*15) Our bilayer model (+ rotation + scaling + tur- bulence)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling + turbulence)

Offline (KNL*15) Our bilayer model (+ rotation + scaling + tur- bulence)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling + turbulence)

Offline (KNL*15) Our bilayer model (+ rotation + scaling + tur- bulence)

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Input Wang tiling

Content exchange Single layer (+ rotation + scaling + turbulence)

Offline (KNL*15) Our bilayer model (+ rotation + scaling + tur- bulence)

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