915
A PROJECT OVERVIEW FOR THE DEVELOPMENT OF A LIGHT AND FLEXIBLE
RAPID MAPPING SYSTEM FOR EMERGENCY RESPONSE
Kyoungah Choi a , Impyeong Lee a ’ *, Sung Woong Shin b , Kiseok Ahn c
a Dept, of Geoinformatics, The University of Seoul, 90 Jeonnong-dong, Dongdaemun-gu, Seoul, Korea - (shale,
iplee)@uos.ac.kr
b Telematics -USN Research Division, Electronics and Telecommunications Research Institute, 161 Gajeong-dong,
Yuseong-gu, Daejeon, Korea - sshin@etri.re.kr
c Dept. of Satellite Business, 80-9 Mabook-dong, Gyhung-gu, Yongin-shi, Gyunggi-do, Korea - rcn27@wia.co.kr
Commission HI, WG IH/3
KEY WORDS: Rapid Mapping, Emergency Response, Multi-Sensor System, UAV, System Design, Simulation
ABSTRACT:
As disasters and accidents due to various natural or artificial causes being increased, the demands for rapid responses for such
emergency situations also have been ever-increasing. These emergency responses are required to be not only more intelligent and
systematic but also more customized to the individuals in the site for more effective management of the emergency situations. Such
requirement can be better fulfilled with the decisions based on the detection of spatial changes acquired rapidly or in real-time from
the sensors on the air. Such airborne sensory data can be effectively acquired by an UAV based rapid mapping system. This
presentation introduces an overview of a Korean national project to develop an airborne rapid mapping system. This project is one of
a series of projects supported through Korean Land Spatialization Group by Korean government. The overall budget is about 6
million US dollars and the period is about four years. The goal of this project is to develop a light and flexible system to perform
rapid mapping for emergency responses. This system consists of two main parts, aerial part and ground part. The aerial part includes
a UAV platform mounted with sensors (GPS/IMU/Camera/Laser Scanner/Thermal IR Camera) and sensor supporting modules for
sensor integration, data transmission to the ground, data storages and sensor stabilization. The ground part includes three sub
systems with appropriate software, which are a control/receiving/archiving subsystem, a data geo-referencing subsystem, and a
spatial information extraction subsystem. As being in an initial stage of this project, we will present an overview of this project,
including the preliminary design, work breakdown structures, international collaboration, expected products, market status and
prospect, and others.
1. INTRODUCTION
The occurrences and scales of disasters and accidents in the
modem world have been rapidly increased due to the global
warming, the terrorist’s attacks, or many other reasons not so
clearly clarified. The demands for rapid responses for such
emergency situations have been thus ever-increasing. These
emergency responses are required to be not only more
intelligent and systematic but also more customized to the
individuals in the site for more effective management of the
emergency situations. Such requirement can be better fulfilled
with the decisions based on the detection of spatial changes
acquired rapidly or in real-time from the sensors on the air.
Such airborne sensory data can be effectively acquired by an
UAV based rapid mapping system.
Such a system can be also effectively utilized for military
applications such as unmanned reconnaissance, observation and
surveillance, their market being fast growing. For example, the
European market for UAV-system is expected to be gradually
expanded, as shown in Figure 1. In addition, the demand for 3D
spatial information of high quality has been rising as the portal
services, such as Google Earth and Microsoft Virtual Earth
providing large scale spatial information of the global areas are
rapidly growing. Such sophisticated spatial information
required for generating real-view models of the world can be
effectively acquired by a UAV based mapping system.
MS
Figure 1. Trend of Europe market for UAV-system
(2006, World UAV Market “Visiongain”)
Since the World War II, UAV systems have been developed for
mainly the purposes of reconnaissance and observation (Eck,
2001). Their applications have been gradually expanded to
many other fields including photogrammetry and remote
sensing.
Corresponding author