TY - JOUR
T1 - Contrast on infrared tank simulation software system based on 2D/3D
AU - Sun, Siliang
AU - Chen, Ren
AU - Sun, Li
AU - Yan, Jie
PY - 2011/12
Y1 - 2011/12
N2 - The distributing characteristic of radiation field was actualized by 2D/3D methods. In previous way, the 2D mapping images were classified into several regions and each of the regions reflected one material. Based on the different characteristics of materials, several infrared physics formula were managed to calculate the materials radiant exitance (MRE) in given infrared waveband, then the different MRE were calculated to corresponding gray level. After that, a gray level 2D map was achieved to simulate the radiation field when mapping on tank. In latter way, based on the infrared physics, the factors that affected tank radiation field distributing (TRFD) were analyzed, then TRFD was derived by mathematical model. Adjacent vertex matching was implemented according to the TRFD and then the vertex color was processed. In order to construct a highly precise and equitable infrared environment, both methods adopted the same atmosphere transmission model and detector noise engendered model. Finally, the open-loop experiment with digital micro-mirror device (DMD) was built up to simulate different typical images of tanks.
AB - The distributing characteristic of radiation field was actualized by 2D/3D methods. In previous way, the 2D mapping images were classified into several regions and each of the regions reflected one material. Based on the different characteristics of materials, several infrared physics formula were managed to calculate the materials radiant exitance (MRE) in given infrared waveband, then the different MRE were calculated to corresponding gray level. After that, a gray level 2D map was achieved to simulate the radiation field when mapping on tank. In latter way, based on the infrared physics, the factors that affected tank radiation field distributing (TRFD) were analyzed, then TRFD was derived by mathematical model. Adjacent vertex matching was implemented according to the TRFD and then the vertex color was processed. In order to construct a highly precise and equitable infrared environment, both methods adopted the same atmosphere transmission model and detector noise engendered model. Finally, the open-loop experiment with digital micro-mirror device (DMD) was built up to simulate different typical images of tanks.
KW - 2D mapping
KW - 3D vertex color
KW - Adjacent vertex matching
KW - Infrared tank simulation
KW - Material classification
UR - http://www.scopus.com/inward/record.url?scp=84856705505&partnerID=8YFLogxK
M3 - 文章
AN - SCOPUS:84856705505
SN - 1007-2276
VL - 40
SP - 2339
EP - 2344
JO - Hongwai yu Jiguang Gongcheng/Infrared and Laser Engineering
JF - Hongwai yu Jiguang Gongcheng/Infrared and Laser Engineering
IS - 12
ER -