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20 December 2016 Front Matter: Volume 10008
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This PDF file contains the front matter associated with SPIE Proceedings Volume 10008, including the Title Page, Copyright information, Table of Contents, Introduction (if any), and Conference Committee listing.

The papers in this volume were part of the technical conference cited on the cover and title page. Papers were selected and subject to review by the editors and conference program committee. Some conference presentations may not be available for publication. Additional papers and presentation recordings may be available online in the SPIE Digital Library at SPIEDigitalLibrary.org.

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Author(s), “Title of Paper,” in Remote Sensing Technologies and Applications in Urban Environments, edited by Thilo Erbertseder, Thomas Esch, Nektarios Chrysoulakis, Proceedings of SPIE Vol. 10008 (SPIE, Bellingham, WA, 2016) Seven-digit article CID Number.

ISSN: 0277-786X

ISSN: 1996-756X (electronic)

ISBN: 9781510604209

ISBN: 9781510604216 (electronic)

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  • The last two digits indicate publication order within the volume using a Base 36 numbering system employing both numerals and letters. These two-number sets start with 00, 01, 02, 03, 04, 05, 06, 07, 08, 09, 0A, 0B … 0Z, followed by 10-1Z, 20-2Z, etc. The CID Number appears on each page of the manuscript.

Authors

Numbers in the index correspond to the last two digits of the six-digit citation identifier (CID) article numbering system used in Proceedings of SPIE. The first four digits reflect the volume number. Base 36 numbering is employed for the last two digits and indicates the order of articles within the volume. Numbers start with 00, 01, 02, 03, 04, 05, 06, 07, 08, 09, 0A, 0B…0Z, followed by 10-1Z, 20-2Z, etc.

Agapiou, Athos, 0W

Alzubi, Hadeel, 16

Alzubi, Raid, 16

Amira, Abbes, 16

Ang, Ma. Rosario Concepcion, 09

Barone, F., 0X

Berkson, Emily E., 03

Bernardes, J., 0B

Berwal, Shivesh, 0E

Beu, Cassia M. L., 04

Boyd, Jenny, 0A

Bratsolis, Emmanuel, 0Q

Briottet, Xavier, 0R

Bruno, L. S., 15

Budinov, Daniel, 0A

Bulatov, Dimitri, 0V

Canters, Frank, 0K

Casaseca-de-la-Higuera, Pablo, 0P

Ceamanos, Xavier, 0R

Çetin, Yasemin Yardımcı, 07

Charou, Eleni, 0Q

Chrysoulakis, Nektarios, 0C

Conte, Paolo, 08

Corpetti, Thomas, 0H, 0I

Courty, Nicolas, 0H

Cui, Bei, 0D

Degerickx, Jeroen, 0L

de Goeij, B. T. G., 06

Del Frate, Fabio, 0C

Dida, Adrian I., 13

Esch, Thomas, 0C

Feigenwinter, Christian, 0C

Freitas, A., 0B

Gabey, Andy, 0C

Gastellu-Etchegorry, Jean-Philippe, 0C

Gibson, Ryan, 16

Gilardy, Hugo, 0R

Giordano, G., 0X

Gonçalves, H., 0B

Grimmond, C.S.B., 0C

Gross, Barry, 02

Guindon, Bert, 0M

Gür, Yusuf, 07

Habermeyer, Martin, 0J

Hadjimitsis, Diofantos G., 0W

Hafidz, Muhammad, 10

Hartsell, Daryl, 0U

Häufel, Gisela, 0V

Hazairin, Azra Q., 10

He, Liu, 0T

Heiden, Uta, 0J

Hermy, Martin, 0L

Hong, Gang, 0M

Huang, Yuchun, 0S, 0T, 0Y

Hubert-Moy, Laurence, 0H, 0I

Iordache, Marian-Daniel, 0L

Jack, James, 0A

Jansen, R., 06

Jenerowicz, Małgorzata, 0O

Jilge, Marianne, 0J

Juergens, Carsten, 0J

Kemper, Thomas, 0O

Kitchin, Matthew, 0P

Klostermann, Judith, 0C

Kumar, Dinesh, 0E

Kumar, Krishan, 0E

Kumar, Ritesh, 0E

Lague, Dimitri, 0I

Landier, Lucas, 0C

Landulfo, Eduardo, 04

LaRocque, Paul E., 0U

Launeau, Patrick, 0I

Lefebvre, Antoine, 0H

Levitan, Nathaniel, 02

Li, Ying, 0Y

Lindberg, Fredrik, 0C

Lucio, A. de C. Jorge, 15

Luo, Chunbo, 0P

Mandanici, Emanuele, 08

Marconcini, Mattia, 0C

Marques, Márcia T. A., 04

Mende, André, 0J

Messinger, David W., 03

Mettas, Christodoulos, 0W

Michon, Cyril, 0I

Mitraka, Zina, 0C

Monge-Alvarez, Jesus, 0P

Moreira, A. C. de C. A., 04

Mukai, Sonoyo, 0Z, 11

Nabucet, Jean, 0H, 0I

Nakaema, Walter M., 04

Nakata, Makiko, 0Z, 11

Neocleous, Kyriacos, 0W

Okujeni, Akpona, 0K, 0L

Oliveira, M., 0B

Olofson, Frans, 0C

Ömrüuzun, Fatih, 07

Oosterling, J. A. J., 06

Özısık Baskurt, Didem, 07

Palm, Stephan, 0N

Pandey, Alok Kumar, 0E

Parlow, Eberhard, 0C

Parmley, Andrew, 0P

Pintor, Ben Hur, 09

Pohl, Melanie, 0V

Pohl, Nils, 0N

Priem, Frederik, 0K

Quenol, Herve, 0I

Ramzan, Naeem, 16

Raymond, Don, 0M

Riadini, Fitri, 10

Robinson, Iain, 0A

Rodrigo, B. P., 15

Rohman, Akmal F., 10

Roussel, Guillaume, 0R

Sakagami, Yoshiaki, 04

Sano, Itaru, 0Z, 11

Santos, Pedro A. A., 04

Savastru, Dan M., 13, 14

Savastru, Roxana S., 13, 14

Shahriar, Hasan, 16

Sigelle, Marc, 0Q

Singh, Vinay Pratap, 0E

Snijders, B., 06

Sola, Eula Fae, 09

Somers, Ben, 0L

Sommer, Rainer, 0N

Stilla, Uwe, 0N

Teodoro, Ana C., 0B

Teves, Justine, 09

Themistocleous, Kyriacos, 0W

Tripp, Jeffrey, 0U

van der Linden, Sebastian, 0K, 0L

van der Wal, L. F., 06

Wang, Guozhi, 0S

Wang, Qi, 0P

Wang, Yanli, 0Y

Xie, Rongchang, 0S

Xu, Saiping, 0D

Yang, Haoxiang, 0T

Yin, Kai, 0D

Zhang, Hongchang, 0S

Zhang, Huaizhong, 0P

Zhang, Li, 0Y

Zhang, Xiupeng, 0D

Zhang, Ying, 0M

Zhao, Qianjun, 0D

Zoran, Maria A., 13, 14

Conference Committee

Symposium Chair

  • Klaus Schäfer, (Retired) Karlsruhe Institute of Technology, Institute of Meterology and Climate Research (Germany)

Symposium Co-chairs

  • Christopher M. U. Neale, University of Nebraska-Lincoln (United States), Daugherty Water for Food Institute (United States)

  • Iain H. Woodhouse, The University of Edinburgh (United Kingdom), Geography and the Lived Environment Research Institute (United Kingdom)

Conference Chairs

  • Thilo Erbertseder, Deutsches Zentrum für Luft- und Raumfahrt e.V. (Germany)

  • Thomas Esch, Deutsches Zentrum für Luft- und Raumfahrt e.V. (Germany)

  • Nektarios Chrysoulakis, Foundation for Research and Technology-Hellas (Greece)

Conference Programme Committee

  • Matthias Budde, Karlsruhe Institute of Technology (Germany)

  • Christopher Small, The Earth Institute (United States)

  • Carlos Tavares Calafate, Universidad Politécnica de Valencia (Spain)

Session Chairs

  • 1 Urban Air Quality

    Thilo Erbertseder, Deutsches Zentrum für Luft- und Raumfahrt e.V. (Germany)

  • 2 Smart Cities

    Nektarios Chrysoulakis, Foundation for Research and Technology-Hellas (Greece)

  • 3 Urban Climate

    Thilo Erbertseder, Deutsches Zentrum für Luft- und Raumfahrt e.V. (Germany)

  • 4 Urban Land Cover and Biodiversity

    Nektarios Chrysoulakis, Foundation for Research and Technology-Hellas (Greece)

  • 5 Urban Morphology and Infrastructures I

    Thilo Erbertseder, Deutsches Zentrum für Luft- und Raumfahrt e.V. (Germany)

  • 6 Urban Morphology and Infrastructures II

    Ying Zhang, Canada Center for Remote Sensing (Canada)

  • 7 Urban Morphology and Infrastructures III

    Nektarios Chrysoulakis, Foundation for Research and Technology-Hellas (Greece)

Introduction

The global urbanization constitutes an epochal transformation of the Earth. Since 2007, for the first time in human history more people have lived in cities than in the countryside. According to the United Nations in 2050, around 75% of the worldwide population will be living in cities. The population density, traffic and infrastructure, environmental and energy problems, climate change, migration, demographic change, aspects of vulnerability and sustainability, new forms of mobility and sharing - unprecedented challenges and opportunities are continuously arising. In any case, the urban environment plays a major role in the development of humanity and the quality of life of the individual citizen.

In respond to this high-interest topic, the conference on Remote Sensing Technologies and Applications for Urban Environments was launched within the SPIE Remote Sensing Symposium held in Edinburgh from 26-29 September 2016. It comprises papers related to advanced remote sensing technologies, applications and information that push beyond the state-of-the-art with respect to urban air quality and climate, urban land cover and biodiversity as well as urban morphology and infrastructures. In 31 oral presentations and 8 posters it was demonstrated that remote sensing offers a wealth of possibilities and opportunities to monitor the urban environment, to support planning processes, to enhance the availability of relevant information, to shape the sustainable city and to improve the quality of life of citizens. The outcome of the conference is documented by the volume of proceedings at hand.

Remote sensing has become a viable technology to monitor and analyze urban air quality and climate, either by space-borne, airborne or ground-based instruments. As an example of the better exploitation of existing instruments, Levitan and Gross present an improved MODIS aerosol retrieval over urban areas, while Mukai et al. show an enhanced algorithm for severe aerosol pollution events. Van der Wal et al. outline a new concept for modular, compact spectrometers and SmallSats designed to monitor urban air pollution at a high spatial resolution. In order to track unburned hydrocarbon emissions from aircraft engine exhaust plumes, Berkson and Messinger propose a multispectral imaging system, while Beu et al. highlight the use of a wind doppler LiDAR to measure the turbulence kinetic energy of low-level jets in Sao Paulo, Brazil. The suitability of Earth Observation data to link air pollution and climate change is shown for East Asian cities (Nakata et al.) and Bucharest, Romania (Savastru et al.). Finally, the need for space-based air pollution data is formulated to better enable epidemiological studies (Oliviera et al.).

The capabilities of remote sensing technologies to make cities smarter and healthier are demonstrated for energy efficiency of buildings (Mandanici and Conte), gas detection (Baskurt et al.), human fall detection (Alzubi et al.) and solar energy resource potential (Teves et al.). Boyd et al. present results of measuring carbon dioxide levels in the street canyons and public transport in Edinburgh. The high three-dimensional variability of the gas demonstrates the need for complementary information on air pollution levels in hot spots using mobile devices, micro sensor networks and crowd sourcing. With respect to urban climate, Earth Observation enables a better estimation of the anthropogenic heat flux (Chrysoulakis et al.), the quantification of the urban heat island effect (Xu et al.; Berwal et al.) and the analysis of the impact of urban growth on heat weaves in cities (Zoran et al.).

Advanced urban planning for sustainable and resilient cities relies on information on urban land cover and biodiversity. Latest advances on vegetation mapping in cities are presented by Levebre et al. using Pleiades multi-angular imagery and Nabucet et al. evaluating a bisprectral lidar. The importance of spectral unmixing and the related generic spectral libraries of the endmembers for urban land cover mapping are emphasized in the three papers of Jilge et al., Priem et al. and Degerickx et al.. A neural network is developed for the segmentation of hyperspectral images acquired by drones (Bruno et al.). The relation of land cover change and light pollution is investigated by Rohman et al..

A large number of applications are presented regarding latest results on urban morphology and infrastructures. Remote sensing enables an improved delineation of urban flooded areas (Zhang, Y. et al.), the three-dimensional mapping of buildings and infrastructures by circular synthetic aperture radar (Palm et al.), the mapping of informal and temporal dwellings (Jenerowicz and Kemper), the identification and correction of road courses (Wang et al.; Bulatov et al.) and the detection of asphalt pavement cracks (Mettas et al.). The benefits of synergistic data use are demonstrated by Ceamanos et al. for atmospheric correction of airborne hyperspectral information using a digital surface model and by Bratsolis et al. for building block classification combining aerial imagery and lidar data. While the latter use Markov random fields, attribute belief propagation is used by Wang et al. to detect vehicles in very-high-resolution aerial imagery. A deep learning technique is applied to improve the quality of infrared imagery (Zhang, H. et al.). For the automatic pole-like object modeling a 3D part-based analysis is introduced by He et al. Considering latest developments in remote sensing technology, a sensor for monitoring large civil infrastructures is presented (Barone and Giordano) as well as a new state-of-the-art airborne lidar sytem (Hartsell et al.).

We, the conference chairs, wish to thank the authors for their valuable contributions, the programme committee for their reviews, and the organizers of the SPIE Remote Sensing 2016 for making this conference possible. A special thank goes to Prof. Klaus Schäfer and Dr. Bob Hainsey for encouraging us to initiate the Conference on Remote Sensing Technologies and Applications for Urban Environments.

Thilo Erbertseder

Thomas Esch

Nektarios Chrysoulakis

© (2016) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
"Front Matter: Volume 10008", Proc. SPIE 10008, Remote Sensing Technologies and Applications in Urban Environments, 1000801 (20 December 2016); https://doi.org/10.1117/12.2264943
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KEYWORDS
Remote sensing

Environmental sensing

Image segmentation

LIDAR

Air contamination

Climatology

Data modeling

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