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Technical Commission VII (B7)

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

Bibliographic data

fullscreen: Technical Commission VII (B7)

Multivolume work

Persistent identifier:
1663813779
Title:
XXII ISPRS Congress 2012
Sub title:
Melbourne, Australia, 25 August-1 September 2012
Year of publication:
2013
Place of publication:
Red Hook, NY
Publisher of the original:
Curran Associates, Inc.
Identifier (digital):
1663813779
Language:
English
Additional Notes:
Kongress-Thema: Imaging a sustainable future
Corporations:
International Society for Photogrammetry and Remote Sensing, Congress, 22., 2012, Melbourne
International Society for Photogrammetry and Remote Sensing
Adapter:
International Society for Photogrammetry and Remote Sensing, Congress, 22., 2012, Melbourne
International Society for Photogrammetry and Remote Sensing
Founder of work:
International Society for Photogrammetry and Remote Sensing, Congress, 22., 2012, Melbourne
International Society for Photogrammetry and Remote Sensing
Other corporate:
International Society for Photogrammetry and Remote Sensing, Congress, 22., 2012, Melbourne
International Society for Photogrammetry and Remote Sensing
Document type:
Multivolume work

Volume

Persistent identifier:
1663821976
Title:
Technical Commission VII
Scope:
546 Seiten
Year of publication:
2013
Place of publication:
Red Hook, NY
Publisher of the original:
Curran Associates, Inc.
Identifier (digital):
1663821976
Illustration:
Illustrationen, Diagramme
Signature of the source:
ZS 312(39,B7)
Language:
English
Additional Notes:
Erscheinungsdatum des Originals ist ermittelt.
Literaturangaben
Usage licence:
Attribution 4.0 International (CC BY 4.0)
Corporations:
International Society for Photogrammetry and Remote Sensing, Congress, 22., 2012, Melbourne
International Society for Photogrammetry and Remote Sensing
Adapter:
International Society for Photogrammetry and Remote Sensing, Congress, 22., 2012, Melbourne
International Society for Photogrammetry and Remote Sensing
Founder of work:
International Society for Photogrammetry and Remote Sensing, Congress, 22., 2012, Melbourne
International Society for Photogrammetry and Remote Sensing
Other corporate:
International Society for Photogrammetry and Remote Sensing, Congress, 22., 2012, Melbourne
International Society for Photogrammetry and Remote Sensing
Publisher of the digital copy:
Technische Informationsbibliothek Hannover
Place of publication of the digital copy:
Hannover
Year of publication of the original:
2019
Document type:
Volume
Collection:
Earth sciences

Chapter

Title:
[VII/5: METHODS FOR CHANGE DETECTION AND PROCESS MODELLING]
Document type:
Multivolume work
Structure type:
Chapter

Chapter

Title:
AUTOMATIC MOVING VEHICLE'S INFORMATION EXTRACTION FROM ONE-PASS WORLDVIEW-2 SATELLITE IMAGERY Rakesh Kumar Mishra
Document type:
Multivolume work
Structure type:
Chapter

Contents

Table of contents

  • XXII ISPRS Congress 2012
  • Technical Commission VII (B7)
  • Cover
  • Title page
  • TABLE OF CONTENTS
  • International Archives of the Photogrammetry, Remote Sensing and Spatial Information Sciences Volume XXXIX, Part B7, Commission VII - elSSN 2194-9034
  • [VII/1: PHYSICAL MODELLING AND SIGNATURES IN REMOTE SENSING]
  • [VII/2: SAR INTERFEROMETRY]
  • [VII/3: INFORMATION EXTRACTION FROM HYPERSPECTRAL DATA]
  • [VII/4: METHODS FOR LAND COVER CLASSIFICATION]
  • [VII/5: METHODS FOR CHANGE DETECTION AND PROCESS MODELLING]
  • FOREST RESOURCES STUDY IN MONGOLIA USING ADVANCED SPATIAL TECHNOLOGIES D. Amarsaikhan, M. Saandar, V. Battsengel, Sh. Amarjargal
  • A SEMIAUTOMATIC ANOMALOUS CHANGE DETECTION METHOD FOR MONITORING AIMS G. Artese, V. Achilli, M. Fabris, M. Perrelli
  • SEASONAL DIFFERENCES IN SPATIAL SCALES OF CHLOROPHYLL-A CONCENTRATION IN LAKE TAIHU, CHINA Ying Bao, Qingjiu Tian, Shaojie Sun, Hongwei Wei, Jia Tian
  • DETERMINATION OF MAGNITUDE AND DIRECTION OF LAND USE/ LAND COVER CHANGES IN TERKOS WATER BASIN, ISTANBUL F. Bektas Balcik, C. Goksel
  • KERNEL-COMPOSITION FOR CHANGE DETECTION IN MEDIUM RESOLUTION REMOTE SENSING DATA Andreas Ch. Braun, Uwe Weidner, Stefan Hinz
  • METHODS FOR MULTITEMPORAL ANALYSIS OF SATELLITE DATA AIMED AT ENVIRONMENTAL RISK MONITORING M. Caprioli, A. Scognamiglio
  • MULTI-TEMPORAL SAR CHANGE DETECTION AND MONITORING S. Hachicha, F. Chaabane
  • 3D BUILDING CHANGE DETECTION USING HIGH RESOLUTION STEREO IMAGES AND A GIS DATABASE G. R. Dini, K. Jacobsen, F. Rottensteiner, M. Al Rajhi, C Heipke
  • IDENTIFYING BUILDING CHANGE USING HIGH RESOLUTION POINT CLOUDS - AN OBJECT-BASED APPROACH Steve du Plessis
  • AN INVESTIGATION OF AUTOMATIC CHANGE DETECTION FOR TOPOGRAPHIC MAP UPDATING Patricia Duncan & Julian Smit
  • CEST ANALYSIS: AUTOMATED CHANGE DETECTION FROM VERY-HIGH-RESOLUTION REMOTE SENSING IMAGES Manfred Ehlers, Sascha Klonus, Thomas Jarmer, Natalia Sofina, Ulrich Michel, Peter Reinartz, Beril Sirmacek
  • AUTOMATIC MOVING VEHICLE'S INFORMATION EXTRACTION FROM ONE-PASS WORLDVIEW-2 SATELLITE IMAGERY Rakesh Kumar Mishra
  • ENVIRONMENTAL CHANGES ANALYSIS IN BUCHAREST CITY USING CORONA, SPOT HRV AND IKONOS IMAGES Ioan Noaje, Ion Gr. Sion
  • SEMI-AUTOMATED CLOUD/SHADOW REMOVAL AND LAND COVER CHANGE DETECTION USING SATELLITE IMAGERY A. K. Sah, B. P. Sah, K. Honji, N. Kubo, S. Senthil
  • ON THE USE OF DUAL-CO-POLARIZED TERRASAR-X DATA FOR WETLAND MONITORING A. Schmitt, T. Leichtle, M. Huber, A. Roth
  • OBJECT-BASED CHANGE DETECTION USING HIGH-RESOLUTION REMOTELY SENSED DATA AND GIS N. Sofina, M. Ehlers
  • EVALUATION OF TERRESTRIAL LASER SCANNING FOR RICE GROWTH MONITORING N. Tilly, D. Hoffmeister, H. Liang, Q. Cao, Y. Liu, V. Lenz-Wiedemann, Y. Miao, G. Bareth
  • ACCURACY IMPROVEMENT OF CHANGE DETECTION BASED ON COLOR ANALYSIS J. Wang, H. Koizumi, T. Kamiya
  • QUANTITATIVE ANALYSIS OF URBAN EXPANSION IN CENTRAL CHINA Y. Zeng, Y. Xu, S. Li, L. He, F. Yu, Z. Zhen, C. Cai
  • EVALUATING THE CONSISTENCY OF REMOTE SENSING BASED SNOW DEPTH PRODUCTS IN ARID ZONE OF WESTERN CHINA Qiming Zhou & Bo Sun
  • UPDATING BUILDING MAPS BASED ON OBJECT EXTRACTION AND BUILDING HEIGHT ESTIMATION L. Zhu, H. Shimamura, K. Tachibana
  • [VII/6: REMOTE SENSING DATA FUSION]
  • [VII/7: THEORY AND EXPERIMENTS IN RADAR AND LIDAR]
  • [VII/3, VII/6, III/2, V/3: INTEGRATION OF HYPERSPECTRAL AND LIDAR DATA]
  • [VII/7, III/2, V/1, V/3, ICWG V/I: LOW-COST UAVS (UVSS) AND MOBILE MAPPING SYSTEMS]
  • [VII/7, III/2, V/3: WAVEFORM LIDAR FOR REMOTE SENSING]
  • [ADDITIONAL PAPERS]
  • AUTHOR INDEX
  • Cover

Full text

over 95% has been achieved with a high reliability. The 
positions of detected moving vehicles have been inputted to the 
AdaBoost machine learning algorithm to further improve the 
accuracy of vehicles’ image positions. This is because the 
vehicles’ speed calculation is highly dependent on the accuracy 
of vehicles’ image position. Then, ground positions of each 
detected vehicle from MS-1 and MS-2 images have been 
computed using sensor model (RPC) provided by WorldView-2 
satellite. 
This paper begins by discussing the methodology developed to 
detect moving vehicles. Then, methodology to compute 
vehicles’ information is discussed. Finally, results and 
conclusions are presented. 
2. METHODOLOGY 
In this paper, a Principal Component Analysis (PCA) based 
method has been developed to detect moving vehicles from 
Worldview-2 MS-1 and MS-2 images. The workflow of the 
methodology developed is shown in Figure 1. Then, AdaBoost 
learning algorithm based method has been developed to 
compute vehicles’ information. The work flow of vehicles’ 
information computation is shown in Figure 5. 
2.1 Study Area and Data used 
WorldView-2 imagery of a part of Moncton, a city in New 
Brunswick, Canada, has been used for this study. This 
WorldView-2 image was provided by DigitalGlobe® Inc. to 
Bahram Salehi (University of New Brunswick) through “The 
DigitalGlobe 8-Band Research Challenge" contest. The image 
was taken on October 5, 2010. The WorldView-2 imagery 
includes Pan image MS-1 (BGRNI) image, and MS-2 
(CYREN2) image. The MS-1 and MS-2 bands are stacked 
together as one MS image with 8-bands. 
2.2 Image Resampling 
WorldView-2 MS images have spatial resolution of 2m; 
therefore, small objects like vehicles are not clearly identifiable. 
To make vehicles more identifiable, the MS image has been re- 
sampled to 0.5m using cubic convolution resampling method. 
2.3 PCA Computation 
MS-1 and MS-2 images constitute different spectral 
wavelengths; therefore change detection methods are incapable 
of detecting moving vehicles. In this paper, principal 
components of MS-1 and MS-2 images have been computed. 
As shown in Figure-2 and Figure-3, vehicles are more 
distinguishable in the second principal component. Therefore, 
second principal components of MS-1 image (MS-1: PCA2) 
and MS-2 images (MS-2: PCA2) have been selected for further 
processing. Also, the principal component of MS image, which 
has 8 bands stacked together, has been computed. As shown in 
Figure-4, the vehicles are again more distinguishable in the 
second principal component (MS: PCA2). Furthermore, as 
shown in Figure-4, the second principal component has two 
positions of one moving vehicle. This result is very useful for 
detecting moving vehicles from the MS-1 and MS-2 images. 
Finally, after PCA computations three images, MS-1: PCA2, 
MS-2: PCA2, MS: PCA2, have been selected for further 
processing. 
  
International Archives of the Photogrammetry, Remote Sensing and Spatial Information Sciences, Volume XXXIX-B7, 2012 
XXII ISPRS Congress, 25 August — 01 September 2012, Melbourne, Australia 
   
  
| WorldView-2: MS image | image Resampling | 
| 
  
  
  
I 
| MS-1:BGRN-1 | |MS-2:CYREN-2| | Ms |] 
| = 
| 
Y 
| PCA Computation | 
l Y Y 
| MS-i:PCA-2 | | MS:PCA-2 | | MS-2:PCA-2 | 
| | 
Y 
Threshold 
| Band Adjustment | 
| 
i J 
| (MS: PCA-2) - (MS2:PCA-2) | | (MS: PCA-2) - (MSI: PCA-2) | 
| i 
Y 
| image Filtering | emt Otsu Threshold 
de Yl 
| MS-1: Moving Vehides | | | MS-2: Moving Vehicles | 
Figure 1: Workflow for vehicle detection 
  
  
  
  
  
  
Threshold 
  
  
  
  
  
  
  
  
  
  
2.4 Band Adjustment 
The histograms of MS-1:PCA2, MS-2:PCA2 and MS: PCA2 
images have been adjusted to a common mean and standard 
deviation. This process has improved the accuracy of moving 
vehicle detection. 
2.5 Moving Vehicle Detection 
After the Band Adjustment, a change detection process has been 
applied to the images to detect moving vehicles. Change 
detection is an important process in remote sensing applications 
(Copping et al., 2004; Tronin, 2006). In the change detection 
process, two images of the same scene captured at different time 
instances are used to detect changes. Therefore, change 
detection can be expressed as: 
Lou at b (1) 
Where 7,; and 7,; are the images captured at time t, and t; and a 
and b are the constant scalar values. The aim of change 
detection process is to model the constants a and b. A variety of 
change detection algorithms are available; however, in this 
study, it has been found that the differencing method for change 
detection is efficient and best suited for detecting vehicles from 
WorldView-2 MS imagery. As shown in Figure-2 and Figure-3, 
the MS-1:PCA2 and MS-2:PCA2 images have different 
positions of a moving vehicle whereas MS: PCA2 image 
(Figure-4) has two different positions of the same moving 
vehicle. Thus, moving vehicles from the MS-1 image have been 
detected using equation (2) and moving vehicles from the MS-2 
image have been detected using equation (3). 
(MS-1 Image)Moving vehicles = (MS: PCA2) — (MS2: PCA2)-T, 
@) 
(MS-2 Image)Moving vehicles = (MS: PCA2) — (MSI: PCA2)-T; 
(3) 
Where parameters T, and T» are the thresholds which are used to 
eliminate outliers appears after differencing process. 
   
 
	        

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