• Defense and Technology
• /
• no.1 s.71
• /
• pp.6-18
• /
• 1985

• Ceramist
• /
• v.6 no.3
• /
• pp.67-76
• /
• 2003

• Defense and Technology
• /
• no.2 s.72
• /
• pp.57-62
• /
• 1985

• The Science & Technology
• /
• no.2 s.417
• /
• pp.56-61
• /
• 2004

• Defense and Technology
• /
• no.2 s.2
• /
• pp.50-58
• /
• 1979

• 전기의세계
• /
• v.33 no.1
• /
• pp.10-13
• /
• 1984

본고의 내용은 다음과 같다. 1. 자동화 2. 전기의 특질 3. 전기기술 3.1 유도가열 3.2 레이저 3.3 훌라이휠 3.4 마이크로파 4. 전기화의 문제점 5. 전기화의 전망

• Defense and Technology
• /
• no.3 s.73
• /
• pp.19-29
• /
• 1985

• Proceedings of the Optical Society of Korea Conference
• /
• 1999.08a
• /
• pp.94-95
• /
• 1999

• Proceedings of the Optical Society of Korea Conference
• /
• 1999.08a
• /
• pp.200-201
• /
• 1999

• Journal of Korean Society for Geospatial Information Science
• /
• v.17 no.3
• /
• pp.97-107
• /
• 2009

Experiments using real guided weapons for the development of the LADAR(Laser radar) are not practical. Therefore, we need computing environment that can simulate the 3D detections by LADAR. Such simulations require dealing with large sized data representing buildings and terrain over large area. And they also need the information of 3D target objects, for example, material and echo rate of building walls. However, currently used 3D models are mostly focused on visualization maintained as file-based formats and do not contain such semantic information. In this study, as a solution to these problems, a method to use a spatial DBMS and a 3D model suitable for LADAR simulation is suggested. The 3D models found in previous studies are developed to serve different purposes, thus, it is not easy to choose one among them which is optimized for LADAR simulation. In this study, 4 representative 3D models are first defined, each of which are tested for different performance scenarios. As a result, one model, "Body-Face", is selected as being the most suitable model for the simulation. Using this model, a test simulation is carried out.