A METHOD OF A MODEL SIMPLIFICATION FOR DECOMPRESSION BY USING SUBDIVISION SURFACE (Computer Graphics/Vision I)(International Workshop On Advanced Image Technology (IWAIT2004))
スポンサーリンク
概要
- 論文の詳細を見る
In this paper, we propose a new generation method of control meshes for subdivision surfaces by using a model simplification. In recent years, opportunity for the use of the three-dimensional model technology called Web3D has increased. However, a refined model representation requires an immense number of polygons, which is inefficient to network transmission. Therefore, much research that aims at efficient network transmission by using model simplification methods and subdivision surface methods is being studied. The previous works are roughly divided into global and local approaches. In some local approaches, although a decompressed object is almost equal to the original object, there is a tendency for the amount of data to increase. We have proposed a new method to convert coarse control meshes for subdivision surfaces from the original object by using a global model simplification scheme. And, we have made sure of the effectiveness of our method through experimentation.
- 社団法人電子情報通信学会の論文
- 2004-01-06
著者
-
Kanaya Takayuki
Faculty of Pharmacy, Keio University
-
Nishio Koji
Faculty Of Information Science And Technology Osaka Institute Of Technology
-
Kanaya T
Faculty Of Health And Welfare Hiroshima International University
-
Teshima Yuji
Faculty Of Information Science And Technology Osaka Institute Of Technology
-
KOBORI Ken-ichi
Faculty of Information Science and Technology Osaka Institute of Technology
-
Kanaya Takayuki
Faculty of Health and Welfare Hiroshima International University
関連論文
- Synthetic Studies on Glycosphingolipids from Protostomia Phyla: Synthesis of Glycosphingolipids from the Parasite Schistosoma mansoni
- A METHOD OF A MODEL SIMPLIFICATION FOR DECOMPRESSION BY USING SUBDIVISION SURFACE (Computer Graphics/Vision I)(International Workshop On Advanced Image Technology (IWAIT2004))
- Sulfatides Inhibit Adhesion, Migration, and Invasion of Murine Melanoma B16F10 Cell Line in Vitro