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CMRT09

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CC BY: Attribution 4.0 International. You can find more information here.

Bibliographic data

fullscreen: CMRT09

Monograph

Persistent identifier:
856955019
Author:
Stilla, Uwe
Title:
CMRT09
Sub title:
object extraction for 3D city models, road databases, and traffic monitoring ; concepts, algorithms and evaluation ; Paris, France, September 3 - 4, 2009 ; [joint conference of ISPRS working groups III/4 and III/5]
Scope:
X, 234 Seiten
Year of publication:
2009
Place of publication:
Lemmer
Publisher of the original:
GITC
Identifier (digital):
856955019
Illustration:
Illustrationen, Diagramme, Karten
Language:
English
Usage licence:
Attribution 4.0 International (CC BY 4.0)
Publisher of the digital copy:
Technische Informationsbibliothek Hannover
Place of publication of the digital copy:
Hannover
Year of publication of the original:
2016
Document type:
Monograph
Collection:
Earth sciences

Chapter

Title:
A TEST OF AUTOMATIC BUILDING CHANGE DETECTION APPROACHES Nicolas Champion, Franz Rottensteiner, Leena Matikainen, Xinlian Liang, Juha Hyyppä and Brian P. Olsen
Document type:
Monograph
Structure type:
Chapter

Contents

Table of contents

  • CMRT09
  • Cover
  • ColorChart
  • Title page
  • Workshop Committees
  • Program Committee:
  • Preface
  • Contents
  • EFFICIENT ROAD MAPPING VIA INTERACTIVE IMAGE SEGMENTATION O. Barinova, R. Shapovalov, S. Sudakov, A. Velizhev, A. Konushin
  • SURFACE MODELLING FOR ROAD NETWORKS USING MULTI-SOURCE GEODATA Chao-Yuan Lo, Liang-Chien Chen, Chieh-Tsung Chen, and Jia-Xun Chen
  • AUTOMATIC EXTRACTION OF URBAN OBJECTS FROM MULTI-SOURCE AERIAL DATA Adriano Mancini, Emanuele Frontoni and Primo Zingaretti
  • ROAD ROUNDABOUT EXTRACTION FROM VERY HIGH RESOLUTION AERIAL IMAGERY M. Ravenbakhsh, C. S. Fraser
  • ASSESSING THE IMPACT OF DIGITAL SURFACE MODELS ON ROAD EXTRACTION IN SUBURBAN AREAS BY REGION-BASED ROAD SUBGRAPH EXTRACTION Anne Grote, Franz Rottensteiner
  • VEHICLE ACTIVITY INDICATION FROM AIRBORNE LIDAR DATA OF URBAN AREAS BY BINARY SHAPE CLASSIFICATION OF POINT SETS W. Yaoa, S. Hinz, U. Stilla
  • TRAJECTORY-BASED SCENE DESCRIPTION AND CLASSIFICATION BY ANALYTICAL FUNCTIONS D. Pfeiffer, R. Reulke
  • 3D BUILDING RECONSTRUCTION FROM LIDAR BASED ON A CELL DECOMPOSITION APPROACH Martin Kada, Laurence McKinle
  • A SEMI-AUTOMATIC APPROACH TO OBJECT EXTRACTION FROM A COMBINATION OF IMAGE AND LASER DATA S. A. Mumtaz, K. Mooney
  • COMPLEX SCENE ANALYSIS IN URBAN AREAS BASED ON AN ENSEMBLE CLUSTERING METHOD APPLIED ON LIDAR DATA P. Ramzi, F. Samadzadegan
  • EXTRACTING BUILDING FOOTPRINTS FROM 3D POINT CLOUDS USING TERRESTRIAL LASER SCANNING AT STREET LEVEL Karim Hammoudi, Fadi Dornaika and Nicolas Paparoditis
  • DETECTION OF BUILDINGS AT AIRPORT SITES USING IMAGES & LIDAR DATA AND A COMBINATION OF VARIOUS METHODS Demir, N., Poli, D., Baltsavias, E.
  • DENSE MATCHING IN HIGH RESOLUTION OBLIQUE AIRBORNE IMAGES M. Gerke
  • COMPARISON OF METHODS FOR AUTOMATED BUILDING EXTRACTION FROM HIGH RESOLUTION IMAGE DATA G. Vozikis
  • SEMI-AUTOMATIC CITY MODEL EXTRACTION FROM TRI-STEREOSCOPIC VHR SATELLITE IMAGERY F. Tack, R. Goossens, G. Buyuksalih
  • AUTOMATED SELECTION OF TERRESTRIAL IMAGES FROM SEQUENCES FOR THE TEXTURE MAPPING OF 3D CITY MODELS Sébastien Bénitez and Caroline Baillard
  • CLASSIFICATION SYSTEM OF GIS-OBJECTS USING MULTI-SENSORIAL IMAGERY FOR NEAR-REALTIME DISASTER MANAGEMENT Daniel Frey and Matthias Butenuth
  • AN APPROACH FOR NAVIGATION IN 3D MODELS ON MOBILE DEVICES Wen Jiang, Wu Yuguo, Wang Fan
  • GRAPH-BASED URBAN OBJECT MODEL PROCESSING Kerstin Falkowski and Jürgen Ebert
  • A PROOF OF CONCEPT OF ITERATIVE DSM IMPROVEMENT THROUGH SAR SCENE SIMULATION D. Derauw
  • COMPETING 3D PRIORS FOR OBJECT EXTRACTION IN REMOTE SENSING DATA Konstantinos Karantzalos and Nikos Paragios
  • OBJECT EXTRACTION FROM LIDAR DATA USING AN ARTIFICIAL SWARM BEE COLONY CLUSTERING ALGORITHM S. Saeedi, F. Samadzadegan, N. El-Sheimy
  • BUILDING FOOTPRINT DATABASE IMPROVEMENT FOR 3D RECONSTRUCTION: A DIRECTION AWARE SPLIT AND MERGE APPROACH Bruno Vallet and Marc Pierrot-Deseilligny and Didier Boldo
  • A TEST OF AUTOMATIC BUILDING CHANGE DETECTION APPROACHES Nicolas Champion, Franz Rottensteiner, Leena Matikainen, Xinlian Liang, Juha Hyyppä and Brian P. Olsen
  • CURVELET APPROACH FOR SAR IMAGE DENOISING, STRUCTURE ENHANCEMENT, AND CHANGE DETECTION Andreas Schmitt, Birgit Wessel, Achim Roth
  • RAY TRACING AND SAR-TOMOGRAPHY FOR 3D ANALYSIS OF MICROWAVE SCATTERING AT MAN-MADE OBJECTS S. Auer, X. Zhu, S. Hinz, R. Bamler
  • THEORETICAL ANALYSIS OF BUILDING HEIGHT ESTIMATION USING SPACEBORNE SAR-INTERFEROMETRY FOR RAPID MAPPING APPLICATIONS Stefan Hinz, Sarah Abelen
  • FUSION OF OPTICAL AND INSAR FEATURES FOR BUILDING RECOGNITION IN URBAN AREAS J. D. Wegner, A. Thiele, U. Soergel
  • FAST VEHICLE DETECTION AND TRACKING IN AERIAL IMAGE BURSTS Karsten Kozempel and Ralf Reulke
  • REFINING CORRECTNESS OF VEHICLE DETECTION AND TRACKING IN AERIAL IMAGE SEQUENCES BY MEANS OF VELOCITY AND TRAJECTORY EVALUATION D. Lenhart, S. Hinz
  • UTILIZATION OF 3D CITY MODELS AND AIRBORNE LASER SCANNING FOR TERRAIN-BASED NAVIGATION OF HELICOPTERS AND UAVs M. Hebel, M. Arens, U. Stilla
  • STUDY OF SIFT DESCRIPTORS FOR IMAGE MATCHING BASED LOCALIZATION IN URBAN STREET VIEW CONTEXT David Picard, Matthieu Cord and Eduardo Valle
  • TEXT EXTRACTION FROM STREET LEVEL IMAGES J. Fabrizio, M. Cord, B. Marcotegui
  • CIRCULAR ROAD SIGN EXTRACTION FROM STREET LEVEL IMAGES USING COLOUR, SHAPE AND TEXTURE DATABASE MAPS A. Arlicot, B. Soheilian and N. Paparoditis
  • IMPROVING IMAGE SEGMENTATION USING MULTIPLE VIEW ANALYSIS Martin Drauschke, Ribana Roscher, Thomas Läbe, Wolfgang Förstner
  • REFINING BUILDING FACADE MODELS WITH IMAGES Shi Pu and George Vosselman
  • AN UNSUPERVISED HIERARCHICAL SEGMENTATION OF A FAÇADE BUILDING IMAGE IN ELEMENTARY 2D - MODELS Jean-Pascal Burochin, Olivier Tournaire and Nicolas Paparoditis
  • GRAMMAR SUPPORTED FACADE RECONSTRUCTION FROM MOBILE LIDAR MAPPING Susanne Becker, Norbert Haala
  • Author Index
  • Cover

Full text

CMRT09: Object Extraction for 3D City Models, Road Databases and Traffic Monitoring - Concepts, Algorithms, and Evaluation 
(a) Matikainen et al., 2007 
(b) Champion, 2007 
(e) Rottensteiner, 2008 
(f) Champion, 2007 
(g) Rottensteiner, 2008 
(h) Olsen and Knudsen, 2005 
Figure 3. Evaluation Details (same colour code as Figure 1). FP new cases related to DSM errors (shadow areas), in Marseille 
streets (a)-(b) and Toulouse (c)-(d); (e)-(f) FN new cases (small changes); (g)-(h) FP new buildings related to bridges. 
completeness rates for demolished buildings and the high 
correctness for unchanged buildings that could be achieved in 
these contexts highlight the effectiveness of the presented 
approaches in verifying the existing objects in the databases. 
The main limitation in terms of qualitative efficiency concerns 
the relatively high number of FN new buildings - up to 12.1% 
in the Marseille test area with (Rottensteiner, 2008) - that are 
mostly related to the object change size. The economical 
efficiency of the presented approaches seems to be promising, 
with 80-90% of the existing buildings requiring no further 
attention by the operator. These buildings are reported to be 
unchanged, which saves a considerable amount of manual 
work. In terms of the economical efficiency, the main limitation 
is a high number of FP demolished buildings that have to be 
inspected unnecessarily. Again, this is mainly caused by 
problems in detecting small changes. 
Areas of improvement should concern input data and 
methodologies. Thus, the resolution of LIDAR data 
(1 point/m 2 ) used in this test appeared to be critical for the 
change detection performance: using higher density LIDAR 
data (e.g. 5-10 points / m 2 ) should improve the situation. As far 
as methodology is concerned, new primitives should be used in 
the algorithms, in particular 3D primitives (representing e.g. the 
3D roof planes or building outlines) that can now be reliably 
reconstructed with the 3D acquisition capabilities, offered by 
recent airbome/spacebome sensors. Another concern should be 
the improvement of the scene models used in object detection 
such that they can deal with different object classes and their 
mutual interactions. By incorporating different object classes 
and considering context in the extraction process, several object 
classes could be detected simultaneously, and the extraction 
accuracy of all interacting objects could be improved. 
In this project, we learned how difficult it is to compare 
approaches of very different designs. To carry out a fair test, we 
chose to use the building label images and to limit the type of 
changes to demolished and new buildings. In addition, we chose 
to compare the building label images to the initial vector 
database, basing on a coverage rate featured by the parameter 
T h . Further investigations are necessary to study the actual 
impact of this parameter on the completeness and correctness 
rates. However, if we are aware of these drawbacks, we think 
that this scheme was sufficient to bring out some interesting 
findings. We also hope that our results - in conjunction with 
those of e.g. the ARMURS 3 project - will be helpful to create a 
nucleus of interested people, both in academia and private 
sector, and to speed up the progress in the vector change 
detection field. 
REFERENCES 
Breiman, L., Friedman, J. H., Olshen, R. A., Stone, C. J., 1984. 
Classification and regression trees. The Wadsworth Statistics / 
Probability Series, Wadsworth, Inc., Belmont, California. 
Champion, N., 2007. 2D building change detection from high 
resolution aerial images and correlation Digital Surface Models. In: 
IAPRSIS XXXVI-3/W49A, pp. 197-202. 
Champion, N., Boldo, D., 2006. A robust algorithm for estimating 
Digital Terrain Models from Digital Surface Models in dense urban 
areas. In: IAPRSIS XXXVI-3, pp. 111-116. 
N. Champion, L. Matikainen, F. Rottensteiner, X. Liang, J. Hyyppa, 
2008. A test of 2D building change detection methods: Comparison, 
evaluation and perspectives. In: IAPRSIS XXXVII - B4, pp. 297-304. 
Heipke, C., Mayer, H., Wiedemann, C., Jamet, O., 1997. Automated 
reconstruction of topographic objects from aerial images using 
vectorized map information. In: IAPRS, XXX11, pp. 47-56. 
Kumar, S. and Hebert, M.„ 2006. Discriminative random fields. 
International Journal of Computer Vision 68(2), pp. 179-201. 
Matikainen, L., Kaartinen, K., Hyyppa, J., 2007. Classification tree 
based building detection from laser scanner and aerial image data. In: 
IAPRSIS XXXVI, pp. 280-287. 
Mayer, H., 2008. Object extraction in photogrammetric computer 
vision. ISPRS Journal of Photogrammetry and Remote Sensing 
63(2008), pp. 213-222. 
Olsen, B., Knudsen, T., 2005. Automated change detection for 
validation and update of geodata. In: Proceedings of 6th Geomatic 
Week, Barcelona, Spain. 
Pierrot-Deseilligny, M., Paparoditis, N., 2006. An optimization-based 
surface reconstruction from Spot5- HRS stereo imagery. In: IAPRSIS 
XXXVI-1/W41, pp. 73-77. 
Rottensteiner, F., 2008 Automated updating of building data bases from 
digital surface models and multi-spectral images. In: IAPRSIS XXXVII 
- B3A, pp. 265-270. 
3 http://www.armurs.ulb.ac.be. Last visited: 30 June 2009. 
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