date: 2015-07-24T10:44:59Z pdf:PDFVersion: 1.5 pdf:docinfo:title: The EnMAP Spaceborne Imaging Spectroscopy Mission for Earth Observation xmp:CreatorTool: LaTeX with hyperref package access_permission:can_print_degraded: true subject: Imaging spectroscopy, also known as hyperspectral remote sensing, is based on the characterization of Earth surface materials and processes through spectrally-resolved measurements of the light interacting with matter. The potential of imaging spectroscopy for Earth remote sensing has been demonstrated since the 1980s. However, most of the developments and applications in imaging spectroscopy have largely relied on airborne spectrometers, as the amount and quality of space-based imaging spectroscopy data remain relatively low to date. The upcoming Environmental Mapping and Analysis Program (EnMAP) German imaging spectroscopy mission is intended to fill this gap. An overview of the main characteristics and current status of the mission is provided in this contribution. The core payload of EnMAP consists of a dual-spectrometer instrument measuring in the optical spectral range between 420 and 2450nm with a spectral sampling distance varying between 5 and 12nm and a reference signal-to-noise ratio of 400:1 in the visible and near-infrared and 180:1 in the shortwave-infrared parts of the spectrum. EnMAP images will cover a 30km-wide area in the across-track direction with a ground sampling distance of 30m. An across-track tilted observation capability will enable a target revisit time of up to four days at the Equator and better at high latitudes. EnMAP will contribute to the development and exploitation of spaceborne imaging spectroscopy applications by making high-quality data freely available to scientific users worldwide. dc:format: application/pdf; version=1.5 pdf:docinfo:creator_tool: LaTeX with hyperref package access_permission:fill_in_form: true pdf:encrypted: false dc:title: The EnMAP Spaceborne Imaging Spectroscopy Mission for Earth Observation modified: 2015-07-24T10:44:59Z cp:subject: Imaging spectroscopy, also known as hyperspectral remote sensing, is based on the characterization of Earth surface materials and processes through spectrally-resolved measurements of the light interacting with matter. The potential of imaging spectroscopy for Earth remote sensing has been demonstrated since the 1980s. However, most of the developments and applications in imaging spectroscopy have largely relied on airborne spectrometers, as the amount and quality of space-based imaging spectroscopy data remain relatively low to date. The upcoming Environmental Mapping and Analysis Program (EnMAP) German imaging spectroscopy mission is intended to fill this gap. An overview of the main characteristics and current status of the mission is provided in this contribution. The core payload of EnMAP consists of a dual-spectrometer instrument measuring in the optical spectral range between 420 and 2450nm with a spectral sampling distance varying between 5 and 12nm and a reference signal-to-noise ratio of 400:1 in the visible and near-infrared and 180:1 in the shortwave-infrared parts of the spectrum. EnMAP images will cover a 30km-wide area in the across-track direction with a ground sampling distance of 30m. An across-track tilted observation capability will enable a target revisit time of up to four days at the Equator and better at high latitudes. EnMAP will contribute to the development and exploitation of spaceborne imaging spectroscopy applications by making high-quality data freely available to scientific users worldwide. pdf:docinfo:subject: Imaging spectroscopy, also known as hyperspectral remote sensing, is based on the characterization of Earth surface materials and processes through spectrally-resolved measurements of the light interacting with matter. The potential of imaging spectroscopy for Earth remote sensing has been demonstrated since the 1980s. However, most of the developments and applications in imaging spectroscopy have largely relied on airborne spectrometers, as the amount and quality of space-based imaging spectroscopy data remain relatively low to date. The upcoming Environmental Mapping and Analysis Program (EnMAP) German imaging spectroscopy mission is intended to fill this gap. An overview of the main characteristics and current status of the mission is provided in this contribution. The core payload of EnMAP consists of a dual-spectrometer instrument measuring in the optical spectral range between 420 and 2450nm with a spectral sampling distance varying between 5 and 12nm and a reference signal-to-noise ratio of 400:1 in the visible and near-infrared and 180:1 in the shortwave-infrared parts of the spectrum. EnMAP images will cover a 30km-wide area in the across-track direction with a ground sampling distance of 30m. An across-track tilted observation capability will enable a target revisit time of up to four days at the Equator and better at high latitudes. EnMAP will contribute to the development and exploitation of spaceborne imaging spectroscopy applications by making high-quality data freely available to scientific users worldwide. pdf:docinfo:creator: Luis Guanterprotect kern +.1667em elax $^{1,}$*, Hermann Kaufmannprotect kern +.1667em elax $^1$, Karl Seglprotect kern +.1667em elax $^1$, Saskia Foersterprotect kern +.1667em elax $^1$, Christian Rogassprotect kern +.1667em elax $^1$, Sabineprotect unhbox voidb@x penalty @M {}Chabrillatprotect kern +.1667em elax $^1$, Theres Kuesterprotect kern +.1667em elax $^1$, André Hollsteinprotect kern +.1667em elax $^1$, Godela Rossnerprotect kern +.1667em elax $^2$, Christian Chlebekprotect kern +.1667em elax $^2$, Christoph Straifprotect kern +.1667em elax $^2$, Sebastian Fischerprotect kern +.1667em elax $^2$, Stefanie Schraderprotect kern +.1667em elax $^2$, Tobias Storchprotect kern +.1667em elax $^3$, Uta Heidenprotect kern +.1667em elax $^3$, Andreas Muellerprotect kern +.1667em elax $^3$, Martin Bachmannprotect kern +.1667em elax $^3$, Helmut Mühleprotect kern +.1667em elax $^3$, Rupert Müllerprotect kern +.1667em elax $^3$, Martinprotect unhbox voidb@x penalty @M {}Habermeyerprotect kern +.1667em elax $^3$, Andreas Ohndorfprotect kern +.1667em elax $^4$, Joachim Hillprotect kern +.1667em elax $^5$, Henning Buddenbaumprotect kern +.1667em elax $^5$, Patrickprotect unhbox voidb@x penalty @M {}Hostertprotect kern +.1667em elax $^{6}$, Sebastian van der Lindenprotect kern +.1667em elax $^{6}$, Pedro J. Leitãoprotect kern +.1667em elax $^6$, Andreas Rabeprotect kern +.1667em elax $^6$, Rolandprotect unhbox voidb@x penalty @M {}Doerfferprotect kern +.1667em elax $^7$, Hajo Krasemannprotect kern +.1667em elax $^7$, Hongyan Xiprotect kern +.1667em elax $^7$, Wolfram Mauserprotect kern +.1667em elax $^8$, Tobias Hankprotect kern +.1667em elax $^8$, Matthias Lochererprotect kern +.1667em elax $^8$, Michael Rastprotect kern +.1667em elax $^{9}$, Karl Staenzprotect kern +.1667em elax $^{10}$ and Bernhard Sangprotect kern +.1667em elax $^{11}$ PTEX.Fullbanner: This is pdfTeX, Version 3.14159265-2.6-1.40.15 (TeX Live 2014/W32TeX) kpathsea version 6.2.0 meta:author: Luis Guanterprotect kern +.1667em elax $^{1,}$*, Hermann Kaufmannprotect kern +.1667em elax $^1$, Karl Seglprotect kern +.1667em elax $^1$, Saskia Foersterprotect kern +.1667em elax $^1$, Christian Rogassprotect kern +.1667em elax $^1$, Sabineprotect unhbox voidb@x penalty @M {}Chabrillatprotect kern +.1667em elax $^1$, Theres Kuesterprotect kern +.1667em elax $^1$, André Hollsteinprotect kern +.1667em elax $^1$, Godela Rossnerprotect kern +.1667em elax $^2$, Christian Chlebekprotect kern +.1667em elax $^2$, Christoph Straifprotect kern +.1667em elax $^2$, Sebastian Fischerprotect kern +.1667em elax $^2$, Stefanie Schraderprotect kern +.1667em elax $^2$, Tobias Storchprotect kern +.1667em elax $^3$, Uta Heidenprotect kern +.1667em elax $^3$, Andreas Muellerprotect kern +.1667em elax $^3$, Martin Bachmannprotect kern +.1667em elax $^3$, Helmut Mühleprotect kern +.1667em elax $^3$, Rupert Müllerprotect kern +.1667em elax $^3$, Martinprotect unhbox voidb@x penalty @M {}Habermeyerprotect kern +.1667em elax $^3$, Andreas Ohndorfprotect kern +.1667em elax $^4$, Joachim Hillprotect kern +.1667em elax $^5$, Henning Buddenbaumprotect kern +.1667em elax $^5$, Patrickprotect unhbox voidb@x penalty @M {}Hostertprotect kern +.1667em elax $^{6}$, Sebastian van der Lindenprotect kern +.1667em elax $^{6}$, Pedro J. Leitãoprotect kern +.1667em elax $^6$, Andreas Rabeprotect kern +.1667em elax $^6$, Rolandprotect unhbox voidb@x penalty @M {}Doerfferprotect kern +.1667em elax $^7$, Hajo Krasemannprotect kern +.1667em elax $^7$, Hongyan Xiprotect kern +.1667em elax $^7$, Wolfram Mauserprotect kern +.1667em elax $^8$, Tobias Hankprotect kern +.1667em elax $^8$, Matthias Lochererprotect kern +.1667em elax $^8$, Michael Rastprotect kern +.1667em elax $^{9}$, Karl Staenzprotect kern +.1667em elax $^{10}$ and Bernhard Sangprotect kern +.1667em elax $^{11}$ trapped: False meta:creation-date: 2015-07-16T01:45:46Z created: Thu Jul 16 03:45:46 CEST 2015 access_permission:extract_for_accessibility: true Creation-Date: 2015-07-16T01:45:46Z Author: Luis Guanterprotect kern +.1667em elax $^{1,}$*, Hermann Kaufmannprotect kern +.1667em elax $^1$, Karl Seglprotect kern +.1667em elax $^1$, Saskia Foersterprotect kern +.1667em elax $^1$, Christian Rogassprotect kern +.1667em elax $^1$, Sabineprotect unhbox voidb@x penalty @M {}Chabrillatprotect kern +.1667em elax $^1$, Theres Kuesterprotect kern +.1667em elax $^1$, André Hollsteinprotect kern +.1667em elax $^1$, Godela Rossnerprotect kern +.1667em elax $^2$, Christian Chlebekprotect kern +.1667em elax $^2$, Christoph Straifprotect kern +.1667em elax $^2$, Sebastian Fischerprotect kern +.1667em elax $^2$, Stefanie Schraderprotect kern +.1667em elax $^2$, Tobias Storchprotect kern +.1667em elax $^3$, Uta Heidenprotect kern +.1667em elax $^3$, Andreas Muellerprotect kern +.1667em elax $^3$, Martin Bachmannprotect kern +.1667em elax $^3$, Helmut Mühleprotect kern +.1667em elax $^3$, Rupert Müllerprotect kern +.1667em elax $^3$, Martinprotect unhbox voidb@x penalty @M {}Habermeyerprotect kern +.1667em elax $^3$, Andreas Ohndorfprotect kern +.1667em elax $^4$, Joachim Hillprotect kern +.1667em elax $^5$, Henning Buddenbaumprotect kern +.1667em elax $^5$, Patrickprotect unhbox voidb@x penalty @M {}Hostertprotect kern +.1667em elax $^{6}$, Sebastian van der Lindenprotect kern +.1667em elax $^{6}$, Pedro J. Leitãoprotect kern +.1667em elax $^6$, Andreas Rabeprotect kern +.1667em elax $^6$, Rolandprotect unhbox voidb@x penalty @M {}Doerfferprotect kern +.1667em elax $^7$, Hajo Krasemannprotect kern +.1667em elax $^7$, Hongyan Xiprotect kern +.1667em elax $^7$, Wolfram Mauserprotect kern +.1667em elax $^8$, Tobias Hankprotect kern +.1667em elax $^8$, Matthias Lochererprotect kern +.1667em elax $^8$, Michael Rastprotect kern +.1667em elax $^{9}$, Karl Staenzprotect kern +.1667em elax $^{10}$ and Bernhard Sangprotect kern +.1667em elax $^{11}$ producer: pdfTeX-1.40.15 pdf:docinfo:producer: pdfTeX-1.40.15 dc:description: Imaging spectroscopy, also known as hyperspectral remote sensing, is based on the characterization of Earth surface materials and processes through spectrally-resolved measurements of the light interacting with matter. The potential of imaging spectroscopy for Earth remote sensing has been demonstrated since the 1980s. However, most of the developments and applications in imaging spectroscopy have largely relied on airborne spectrometers, as the amount and quality of space-based imaging spectroscopy data remain relatively low to date. The upcoming Environmental Mapping and Analysis Program (EnMAP) German imaging spectroscopy mission is intended to fill this gap. An overview of the main characteristics and current status of the mission is provided in this contribution. The core payload of EnMAP consists of a dual-spectrometer instrument measuring in the optical spectral range between 420 and 2450nm with a spectral sampling distance varying between 5 and 12nm and a reference signal-to-noise ratio of 400:1 in the visible and near-infrared and 180:1 in the shortwave-infrared parts of the spectrum. EnMAP images will cover a 30km-wide area in the across-track direction with a ground sampling distance of 30m. An across-track tilted observation capability will enable a target revisit time of up to four days at the Equator and better at high latitudes. EnMAP will contribute to the development and exploitation of spaceborne imaging spectroscopy applications by making high-quality data freely available to scientific users worldwide. Keywords: EnMAP; imaging spectroscopy; hyperspectral remote sensing; environmental applications; Earth observation access_permission:modify_annotations: true dc:creator: Luis Guanterprotect kern +.1667em elax $^{1,}$*, Hermann Kaufmannprotect kern +.1667em elax $^1$, Karl Seglprotect kern +.1667em elax $^1$, Saskia Foersterprotect kern +.1667em elax $^1$, Christian Rogassprotect kern +.1667em elax $^1$, Sabineprotect unhbox voidb@x penalty @M {}Chabrillatprotect kern +.1667em elax $^1$, Theres Kuesterprotect kern +.1667em elax $^1$, André Hollsteinprotect kern +.1667em elax $^1$, Godela Rossnerprotect kern +.1667em elax $^2$, Christian Chlebekprotect kern +.1667em elax $^2$, Christoph Straifprotect kern +.1667em elax $^2$, Sebastian Fischerprotect kern +.1667em elax $^2$, Stefanie Schraderprotect kern +.1667em elax $^2$, Tobias Storchprotect kern +.1667em elax $^3$, Uta Heidenprotect kern +.1667em elax $^3$, Andreas Muellerprotect kern +.1667em elax $^3$, Martin Bachmannprotect kern +.1667em elax $^3$, Helmut Mühleprotect kern +.1667em elax $^3$, Rupert Müllerprotect kern +.1667em elax $^3$, Martinprotect unhbox voidb@x penalty @M {}Habermeyerprotect kern +.1667em elax $^3$, Andreas Ohndorfprotect kern +.1667em elax $^4$, Joachim Hillprotect kern +.1667em elax $^5$, Henning Buddenbaumprotect kern +.1667em elax $^5$, Patrickprotect unhbox voidb@x penalty @M {}Hostertprotect kern +.1667em elax $^{6}$, Sebastian van der Lindenprotect kern +.1667em elax $^{6}$, Pedro J. Leitãoprotect kern +.1667em elax $^6$, Andreas Rabeprotect kern +.1667em elax $^6$, Rolandprotect unhbox voidb@x penalty @M {}Doerfferprotect kern +.1667em elax $^7$, Hajo Krasemannprotect kern +.1667em elax $^7$, Hongyan Xiprotect kern +.1667em elax $^7$, Wolfram Mauserprotect kern +.1667em elax $^8$, Tobias Hankprotect kern +.1667em elax $^8$, Matthias Lochererprotect kern +.1667em elax $^8$, Michael Rastprotect kern +.1667em elax $^{9}$, Karl Staenzprotect kern +.1667em elax $^{10}$ and Bernhard Sangprotect kern +.1667em elax $^{11}$ description: Imaging spectroscopy, also known as hyperspectral remote sensing, is based on the characterization of Earth surface materials and processes through spectrally-resolved measurements of the light interacting with matter. The potential of imaging spectroscopy for Earth remote sensing has been demonstrated since the 1980s. However, most of the developments and applications in imaging spectroscopy have largely relied on airborne spectrometers, as the amount and quality of space-based imaging spectroscopy data remain relatively low to date. The upcoming Environmental Mapping and Analysis Program (EnMAP) German imaging spectroscopy mission is intended to fill this gap. An overview of the main characteristics and current status of the mission is provided in this contribution. The core payload of EnMAP consists of a dual-spectrometer instrument measuring in the optical spectral range between 420 and 2450nm with a spectral sampling distance varying between 5 and 12nm and a reference signal-to-noise ratio of 400:1 in the visible and near-infrared and 180:1 in the shortwave-infrared parts of the spectrum. EnMAP images will cover a 30km-wide area in the across-track direction with a ground sampling distance of 30m. An across-track tilted observation capability will enable a target revisit time of up to four days at the Equator and better at high latitudes. EnMAP will contribute to the development and exploitation of spaceborne imaging spectroscopy applications by making high-quality data freely available to scientific users worldwide. dcterms:created: 2015-07-16T01:45:46Z Last-Modified: 2015-07-24T10:44:59Z dcterms:modified: 2015-07-24T10:44:59Z title: The EnMAP Spaceborne Imaging Spectroscopy Mission for Earth Observation xmpMM:DocumentID: uuid:6cb476b5-93e5-4b61-b87f-ebae8924633f Last-Save-Date: 2015-07-24T10:44:59Z pdf:docinfo:keywords: EnMAP; imaging spectroscopy; hyperspectral remote sensing; environmental applications; Earth observation pdf:docinfo:modified: 2015-07-24T10:44:59Z meta:save-date: 2015-07-24T10:44:59Z pdf:docinfo:custom:PTEX.Fullbanner: This is pdfTeX, Version 3.14159265-2.6-1.40.15 (TeX Live 2014/W32TeX) kpathsea version 6.2.0 Content-Type: application/pdf X-Parsed-By: org.apache.tika.parser.DefaultParser creator: Luis Guanterprotect kern +.1667em elax $^{1,}$*, Hermann Kaufmannprotect kern +.1667em elax $^1$, Karl Seglprotect kern +.1667em elax $^1$, Saskia Foersterprotect kern +.1667em elax $^1$, Christian Rogassprotect kern +.1667em elax $^1$, Sabineprotect unhbox voidb@x penalty @M {}Chabrillatprotect kern +.1667em elax $^1$, Theres Kuesterprotect kern +.1667em elax $^1$, André Hollsteinprotect kern +.1667em elax $^1$, Godela Rossnerprotect kern +.1667em elax $^2$, Christian Chlebekprotect kern +.1667em elax $^2$, Christoph Straifprotect kern +.1667em elax $^2$, Sebastian Fischerprotect kern +.1667em elax $^2$, Stefanie Schraderprotect kern +.1667em elax $^2$, Tobias Storchprotect kern +.1667em elax $^3$, Uta Heidenprotect kern +.1667em elax $^3$, Andreas Muellerprotect kern +.1667em elax $^3$, Martin Bachmannprotect kern +.1667em elax $^3$, Helmut Mühleprotect kern +.1667em elax $^3$, Rupert Müllerprotect kern +.1667em elax $^3$, Martinprotect unhbox voidb@x penalty @M {}Habermeyerprotect kern +.1667em elax $^3$, Andreas Ohndorfprotect kern +.1667em elax $^4$, Joachim Hillprotect kern +.1667em elax $^5$, Henning Buddenbaumprotect kern +.1667em elax $^5$, Patrickprotect unhbox voidb@x penalty @M {}Hostertprotect kern +.1667em elax $^{6}$, Sebastian van der Lindenprotect kern +.1667em elax $^{6}$, Pedro J. Leitãoprotect kern +.1667em elax $^6$, Andreas Rabeprotect kern +.1667em elax $^6$, Rolandprotect unhbox voidb@x penalty @M {}Doerfferprotect kern +.1667em elax $^7$, Hajo Krasemannprotect kern +.1667em elax $^7$, Hongyan Xiprotect kern +.1667em elax $^7$, Wolfram Mauserprotect kern +.1667em elax $^8$, Tobias Hankprotect kern +.1667em elax $^8$, Matthias Lochererprotect kern +.1667em elax $^8$, Michael Rastprotect kern +.1667em elax $^{9}$, Karl Staenzprotect kern +.1667em elax $^{10}$ and Bernhard Sangprotect kern +.1667em elax $^{11}$ dc:subject: EnMAP; imaging spectroscopy; hyperspectral remote sensing; environmental applications; Earth observation access_permission:assemble_document: true xmpTPg:NPages: 29 access_permission:extract_content: true access_permission:can_print: true pdf:docinfo:trapped: False meta:keyword: EnMAP; imaging spectroscopy; hyperspectral remote sensing; environmental applications; Earth observation access_permission:can_modify: true pdf:docinfo:created: 2015-07-16T01:45:46Z