Big Data from Space outreach presentation describing the "Bring User to Data Scenario" and the Research and Service Support provided for scientific users, research centres, small and medium size enterprises, industry and institutions.
The document provides an overview of the European Space Agency's (ESA) activities in the area of image information mining (IIM) and knowledge discovery from Earth observation data. It discusses ESA's motivation to foster the use of IIM technologies to improve access and exploitation of data from past, current, and future Earth observation missions like Sentinels. It summarizes several of ESA's key initiatives and systems in this area over the past decade, including the Image Information Mining Coordination Group, the Knowledge-based Information Mining prototype, Knowledge-centered Earth Observation platform, and Multi-temporal Evolution Analysis prototype. It also describes exploitation platforms and services ESA has developed to support the scientific use and mining of Earth observation data.
Space research : space research projects under the 7th framework programme for research (5th call)
Civilisations have always wondered what is beyond the sky. But it is only recently that the limitless possibilities provided by space science and technology came into stronger spotlight and started to be used to the full. The EU has been playing a significant role in this process, in particular through the FP7 space research programme. The 5th FP7 space call brochure – through presentation of 50 projects divided into four categories (Copernicus applications and data; space technologies; space science and data exploitation; cross-cutting issues) – aims at giving a comprehensive overview of Europe's endeavours to fully, yet sustainably, use space for purposes ranging from excellent reception of TV signal to helping victims of earthquakes and other natural disasters
GEO Expert Advisory Group - ESA Thematic Exploitation Platforms - Geohazardsterradue
The document discusses Thematic Exploitation Platforms (TEPs) and the Geohazards Exploitation Platform (GEP) specifically. The GEP provides access to Earth observation data and processing tools for geohazards research. It allows users to access large datasets, run distributed processing, and collaborate. The GEP currently has over 1,100 registered users processing data for projects on volcanoes, earthquakes, and landslides. It also partners with other initiatives like CEOS, the International Charter, and EPOS to support their work.
Geohazards Exploitation Platform (GEP) at EuroGEOSS Workshop 2018terradue
GEP provides large scale processing of Earth Observation data.
Designed in the context of the Geohazards Supersite initiative (GSNL) and the CEOS Disasters Working Group which address a Task of the Disaster Societal Benefit Area of the intergovernmental Group on Earth Observations (GEO).
A model for partnership and community building that is user driven. Started from the International Forum on Satellite EO and Geohazards organised by ESA and GEO in Santorini in 2012 (140+ participants from 20 countries, 70+ organisations incl. international organisations, public institutes, space agencies, universities & private sector).
The document summarizes the products and applications of GEM's Hazard program. It outlines five global datasets created through international projects including historical earthquake archives, instrumental seismicity catalogs, active fault databases, and ground motion prediction equations. It also describes regional seismic hazard models compiled in a database and the OpenQuake open-source software for calculating seismic hazard and risk. Key applications of the products include use in building codes, insurance catastrophe modeling, and site-specific engineering analyses.
Artificial Intelligence and Big Data Techniques for Copernicus Data: the ExtremeEarth project
Manolis Koubarakis (Professor at the National and Kapodistrian University of Athens and Adjunct Researcher at the Institute of the Management of Information Systems)
VISION / AMBITION
-Australia the first drone-sensed nation (cm-scale)
-Pre-competitive data release for industry, environmental management, education & research
-Conventional survey & remote sensing techniques at ultra-high resolution and flexibility (time-series, rapid response etc)
-Next gen “UNDERCOVER” techniques (minerals and water resources)
ESCAPE Kick-off meeting - The Extremely Large Telescope (and ESO) (Feb 2019)ESCAPE EU
The document discusses the Extremely Large Telescope (ELT) project. Some key points:
- ELT is being built by the European Southern Observatory (ESO) and will have a 39 meter primary mirror, making it the largest optical-infrared telescope in the world.
- First light is expected in 2025 with full science operations beginning in 2026. Instruments will include high-resolution imagers and spectrographs to study exoplanets, galaxies, and cosmological phenomena.
- ELT will be located in Chile at the Armazones site near ESO's existing Paranal Observatory for integration into current operations. It will provide an unprecedented view of the universe through the next generation of ground-based astronomy.
The document provides an overview of the European Space Agency's (ESA) activities in the area of image information mining (IIM) and knowledge discovery from Earth observation data. It discusses ESA's motivation to foster the use of IIM technologies to improve access and exploitation of data from past, current, and future Earth observation missions like Sentinels. It summarizes several of ESA's key initiatives and systems in this area over the past decade, including the Image Information Mining Coordination Group, the Knowledge-based Information Mining prototype, Knowledge-centered Earth Observation platform, and Multi-temporal Evolution Analysis prototype. It also describes exploitation platforms and services ESA has developed to support the scientific use and mining of Earth observation data.
Space research : space research projects under the 7th framework programme for research (5th call)
Civilisations have always wondered what is beyond the sky. But it is only recently that the limitless possibilities provided by space science and technology came into stronger spotlight and started to be used to the full. The EU has been playing a significant role in this process, in particular through the FP7 space research programme. The 5th FP7 space call brochure – through presentation of 50 projects divided into four categories (Copernicus applications and data; space technologies; space science and data exploitation; cross-cutting issues) – aims at giving a comprehensive overview of Europe's endeavours to fully, yet sustainably, use space for purposes ranging from excellent reception of TV signal to helping victims of earthquakes and other natural disasters
GEO Expert Advisory Group - ESA Thematic Exploitation Platforms - Geohazardsterradue
The document discusses Thematic Exploitation Platforms (TEPs) and the Geohazards Exploitation Platform (GEP) specifically. The GEP provides access to Earth observation data and processing tools for geohazards research. It allows users to access large datasets, run distributed processing, and collaborate. The GEP currently has over 1,100 registered users processing data for projects on volcanoes, earthquakes, and landslides. It also partners with other initiatives like CEOS, the International Charter, and EPOS to support their work.
Geohazards Exploitation Platform (GEP) at EuroGEOSS Workshop 2018terradue
GEP provides large scale processing of Earth Observation data.
Designed in the context of the Geohazards Supersite initiative (GSNL) and the CEOS Disasters Working Group which address a Task of the Disaster Societal Benefit Area of the intergovernmental Group on Earth Observations (GEO).
A model for partnership and community building that is user driven. Started from the International Forum on Satellite EO and Geohazards organised by ESA and GEO in Santorini in 2012 (140+ participants from 20 countries, 70+ organisations incl. international organisations, public institutes, space agencies, universities & private sector).
The document summarizes the products and applications of GEM's Hazard program. It outlines five global datasets created through international projects including historical earthquake archives, instrumental seismicity catalogs, active fault databases, and ground motion prediction equations. It also describes regional seismic hazard models compiled in a database and the OpenQuake open-source software for calculating seismic hazard and risk. Key applications of the products include use in building codes, insurance catastrophe modeling, and site-specific engineering analyses.
Artificial Intelligence and Big Data Techniques for Copernicus Data: the ExtremeEarth project
Manolis Koubarakis (Professor at the National and Kapodistrian University of Athens and Adjunct Researcher at the Institute of the Management of Information Systems)
VISION / AMBITION
-Australia the first drone-sensed nation (cm-scale)
-Pre-competitive data release for industry, environmental management, education & research
-Conventional survey & remote sensing techniques at ultra-high resolution and flexibility (time-series, rapid response etc)
-Next gen “UNDERCOVER” techniques (minerals and water resources)
ESCAPE Kick-off meeting - The Extremely Large Telescope (and ESO) (Feb 2019)ESCAPE EU
The document discusses the Extremely Large Telescope (ELT) project. Some key points:
- ELT is being built by the European Southern Observatory (ESO) and will have a 39 meter primary mirror, making it the largest optical-infrared telescope in the world.
- First light is expected in 2025 with full science operations beginning in 2026. Instruments will include high-resolution imagers and spectrographs to study exoplanets, galaxies, and cosmological phenomena.
- ELT will be located in Chile at the Armazones site near ESO's existing Paranal Observatory for integration into current operations. It will provide an unprecedented view of the universe through the next generation of ground-based astronomy.
Design and Fabrication of Ground Station Antennaijtsrd
As the communication technology is thriving day by day, the number of satellites are shooting up in a faster rate. The use of smaller satellites for Education, Scientific and Commercial purposes are usually positioned in LEO Low Earth Orbit flights and typically their short periods of crossing across the Line Of Sight of an Earth Station brings the need of finding ways of expanding the communication between ground and space segments. This paper elucidates the aspects related to the design and implementation of a Ground station using a directional antenna for tracking satellites which utilizes UHF band for payload transmission. First the design parameters are enumerated using Yagi Calculator Software. For verification feasibility an Electro magnetic model of an antenna is developed using ANSYS HFSS software. The procured results demonstrate some important paramount aspects of the antenna model. Finally, the “Off Shelf†components are integrated and after successful testing of hardware and software is done, it can be further extended for commercial tracking. S. Bakthanandhini | S. Balaakshaya | T. Durga Devi | N. Meenakshi "Design & Fabrication of Ground Station Antenna" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-4 | Issue-3 , April 2020, URL: https://www.ijtsrd.com/papers/ijtsrd30733.pdf Paper Url :https://www.ijtsrd.com/engineering/electronics-and-communication-engineering/30733/design-and-fabrication-of-ground-station-antenna/s-bakthanandhini
Small Satellites and Earth Observation. The UPC NanoSat programadrianocamps
The document discusses small satellites and Earth observation using CubeSats. It provides an overview of CubeSat design standards and applications of small satellites for remote sensing. Specifically, it discusses:
1) How CubeSats follow a standard design to reduce costs using commercial off-the-shelf components within a 10x10x10cm size. Popular applications include Earth observation, communications, and technology demonstrations.
2) Remote sensing techniques used by small satellites, including passive sensors that measure reflected sunlight and active sensors like radar and lidar. Signals of opportunity like GNSS can also be used.
3) The University of Catalonia's remote sensing activities and CubeSat projects, including microwave radi
The Mount Stromlo Observatory suffered fires in 2003 that destroyed its facilities. This led the Australian government to invest in the Advanced Instrumentation and Technology Centre (AITC) to support cutting-edge astronomy research and Australia's involvement in large international projects like the Giant Magellan Telescope (GMT). The AITC has designed instruments for the GMT and other telescopes, securing Australia's role in major astronomy projects and providing economic and research benefits for many years.
The document discusses tools and datasets for seismic hazard analysis from site-specific to global scales. It describes the OpenQuake engine and Hazard Modeller's Toolkit (HMTK) which can be used for classical and event-based probabilistic seismic hazard analysis (PSHA) at various scales. The OpenQuake Ground Motion Toolkit helps with selection and weighting of ground motion prediction equations. These tools are applied in site-specific analyses, and for developing national, regional, and global seismic hazard models using various data sources on earthquakes, faults, and strain.
The INSPIRE Implementing Rules (IRs) on interoperability of spatial data sets and services and for network services include requirements for setting up a Spatial Data Infrastructure in Europe for supporting environmental policy making as well as policies with impact on the environment. To help Data provider with technical aspects of the IRs as well as with its correct implementation, INSPIRE Technical Guidelines (TG) were developed for each 34 data themes (INSPIRE data specifications) and for the different types of INSPIRE network services (discovery, view, download and transformation).
Spatial objects are mapped, digitalized and stored in a GIS data sets or (spatial) database. Normally, the structure of the data will depend on the specific needs for which the data are collected and used. In order to provide them in compliance with INSPIRE, these source data sets have to be transformed to match the data model prescribed by INSPIRE and have to be provided through INSPIRE download services.
This training will show and illustrate through "hands on" exercises how data sets can be transformed and provided through INSPIRE-compliant services by covering the following topics:
1) Data transformation: This session gives an introduction and explanations about encoding rules, mapping original attributes into the INSPIRE data models and vocabularies and extending data models and vocabularies.
2) Download services: This session will explore the procedure of providing transformed dataset into through an INSPIRE network service, e.g. through an WMS (for view services) or WFS or ATOM feeds (download services).
3) "Hands on" session: This session will give an overview of different architectural approaches (e.g. on-the-fly transformation and stand-alone offline transformation) and concrete software solutions for transforming spatial data and creating INSPIRE-compliant services.
REMOTE SENSING AND GEOGRAPHIC INFORMATION SYSTEMS AM Publications
Remote sensing technology's increasing accessibility helps us observe research and learn about our globe in ways we could only imagine a generation ago. Guides to profound knowledge of historical, conceptual and practical uses of remote sensing which is increasing GIS technology. This paper will go briefly through remote sensing benefits, history, technology and the GIS and remote sensing integration and their applications. Remote sensing (RS) is used in mapping the predicted and actual species and dominates the ecosystem canopy.
This document summarizes the proceedings of the 3rd annual meeting of the NASA Institute for Advanced Concepts (NIAC) held on June 5-6, 2001 at NASA Ames Research Center. It provides an overview of proposals received and awards given by NIAC, as well as summaries of the status reports presented on innovative advanced aerospace concepts. The status reports covered concepts such as a space elevator, robotic planetary explorers, very large space telescopes, and in-situ resource utilization for Mars missions. Keynote speakers discussed visions for the future of aeronautics and space.
The document discusses the INSPIRE Geoportal, which provides centralized access to INSPIRE infrastructure and resources across Europe. It describes the geoportal's architecture and how it connects national discovery and view services to allow for cross-border data discovery and visualization. The geoportal aims to support European policymaking by providing a user-friendly interface that complies with INSPIRE directives and technical standards. Practical exercises demonstrate how users can search for and access spatial data and services through the INSPIRE Geoportal.
This document discusses the Copernicus Programme and use of Sentinel satellite data for agriculture and forestry. It provides an overview of the Copernicus programme, including its three components: space, in-situ, and services. It describes the five Sentinel satellite missions and their characteristics. The document outlines how Sentinel data can be used for applications like crop monitoring, soil moisture mapping, and detection of clearcuts. It highlights the Copernicus Land Monitoring Service and available agriculture products. In conclusion, it discusses benefits of the open data policy and upcoming Copernicus user events.
IRJET- Geological Boundary Detection for Satellite Images using AI TechniqueIRJET Journal
This document summarizes a research paper that proposes a method for detecting geological boundaries in satellite images using artificial intelligence techniques. The method involves pre-processing images, generating histograms to analyze pixel values, performing 2D convolution on image planes, applying a particle swarm optimization algorithm to identify boundaries, and testing the approach on pre-flood and post-flood satellite images of Kerala, India. The results show differences in detected geological boundaries between the two images, allowing changes from flooding to be identified. The method provides a way to automatically analyze satellite imagery and extract geological boundary information.
A geographic information system (GIS) is a system for capturing, storing, analyzing and managing data that is spatially referenced to locations on Earth. GIS allows users to integrate, store, edit, analyze, share and display geographic data. It can be used for scientific investigations, resource management, environmental planning and more. The document then discusses the career of Sik Cambon Jensen, including his education and various jobs in the fields of GIS, web design, and software development over 20 years.
How to use NCI's national repository of big spatial data collectionsARDC
This document provides an overview of how to access spatial data collections through the National Computational Infrastructure (NCI). It describes NCI's data catalog that contains various climate, satellite, and other geoscience datasets. The document outlines how users can browse the catalog, search for specific collections like CMIP5, and view metadata. It also explains that datasets are stored on NCI's global filesystems and made available through data services like THREDDS, which provides OPeNDAP, WMS, WCS, and other access methods. Users can find datasets, view them visually through Godiva, or download files through these services.
A visualization-oriented 3D method for efficient computation of urban solar r...Jianming Liang
This document describes a new 3D method for efficiently computing and visualizing urban solar radiation based on 3D-2D surface mapping. The method first projects 3D triangular meshes onto 2D raster surfaces to determine solar radiation. It then uses barycentric interpolation to rasterize the positions and surface normals of each triangular mesh onto the 2D raster. An efficient GPU-accelerated algorithm calculates shadow masks and solar radiation for each raster cell. Resulting solar radiation rasters are represented as RGB texture maps for efficient rendering of large 3D urban models.
This document describes an open-source 3D solar radiation model called SURFSUN3D that has been integrated with a 3D Geographic Information System (GIS) to allow for interactive assessment of photovoltaic potential in urban areas. The model transforms 3D building surfaces into 2D raster maps to allow for conventional GIS solar radiation calculations on a cell-by-cell basis. It has been validated against a commercial solar modeling software and tested on a 3D model of Boston, demonstrating its ability to calculate solar radiation for selected buildings and surfaces and visualize the results.
Application of terrestrial 3D laser scanning in building information modellin...Martin Ma
The document discusses the application of terrestrial 3D laser scanning and building information modeling (BIM) technology in the construction industry. It analyzes the working principles and methods of laser scanning, including static and kinematic scanning. It also discusses how laser scanning and BIM can minimize limitations through techniques like noise filtering, image matching, and automated recognition of 3D models. Beneficial outcomes of the technologies include sharing scanning data, predicting trends, and identifying unstable structures through colorization. The document concludes the technologies can dramatically reduce resources and costs compared to traditional methods.
1. Terrestrial laser scanning (TLS) is an effective technique for 3D building modeling that uses laser rangefinding to rapidly acquire dense 3D point clouds of object surfaces.
2. The document describes the process of using a Leica C10 TLS to collect over 21 million data points from a building in under 7 minutes and then processing the raw data in Cyclone software to generate a 3D model after noise removal and registration.
3. Validation measurements found the TLS measurements to be accurate to within 1 cm on average compared to physical measurements of objects in the building. The document proposes improvements to future TLS data collection and modeling.
INSPIRE principles, components and implementationinspireeu
The document discusses the INSPIRE directive, which aims to create a European Union spatial data infrastructure (SDI). It outlines key INSPIRE principles like data being collected once and shared across borders. The directive established implementing rules around metadata, interoperability, network services, and monitoring/reporting. Member states are working to make their spatial datasets and services compliant with INSPIRE specifications by 2020 to support EU environmental policies. The European Commission provides support for implementation through the INSPIRE geoportal and maintenance/implementation framework.
This document summarizes Oliver Sonnentag's talk on using digital camera archives to study plant phenology beyond just canopy greenness. It discusses using cameras to estimate leaf area index and clumping based on gap fraction theory. It also explores using image texture and snow cover data from camera archives. The document concludes that while camera and format may not be important for canopy greenness, they could matter more for other phenology metrics like leaf area index that rely on analysis of image details and quality.
3d Modelling of Structures using terrestrial laser scanning techniqueIJAEMSJORNAL
In recent times, interest in the study of engineering structures has been on the rise as a result of improvement in the tools used for operations such as, As-built mapping, deformation studies to modeling for navigation etc. There is a need to be able to model structure in such way that accurate needed information about positions of structures, features, points and dimensions can be easily extracted without having to pay physical visits to site to obtain measurement of the various components of structures. In this project, the data acquisition system used is the terrestrial laser scanner, High Definition Surveying (HDS) equipment; the methodology employed is similar to Close Range Photogrammetry (CRP). CRP is a budding technique or field used for data acquisition in Geomatics. It is a subset of the general photogrammetry; it is often loosely tagged terrestrial photogrammetry. The terrestrial laser scanning technology is a data acquisition system similar to CRP in terms of deigning the positioning of instrument and targets, calibration, ground control point, speed of data acquisition, data processing (interior, relative and absolute orientation) and the accuracy obtainable. The aim of this project was to generate the three-dimensional model of structures in the Faculty of Engineering, University of Lagos using High Definition Surveying, the Leica Scan Station 2 HDS equipment was used along with Cyclone software for data acquisition and processing. The result was a 3D view (of point clouds) of the structure that was studied, from which features were measured from the model generated and compared with physical measurement on site. The technology of the laser scanner proved to be quite useful and reliable in generating three dimensional models without compromising accuracy and precision. The generation of the 3D models is the replica of reality of the structures with accurate dimensions and location.
The document discusses INSPIRE, an initiative to create an infrastructure for spatial information in Europe. It outlines the key components of INSPIRE including the directive, implementing rules, data specifications, and progress made. INSPIRE aims to make spatial data more interoperable and accessible across borders to support environmental policymaking and activities impacting the environment.
The document summarizes the Geohazards TEP (GEP) service, which provides on-demand and systematic processing of Earth observation (EO) data to support geohazards analysis. The GEP offers access to Copernicus and other satellite data, massive cloud computing power, and processing services via a web portal, APIs, and command line tools. It processes data for applications like earthquake response, landslide mapping, and regularly monitors the Alps with Sentinel-1 data. Documentation and tutorials are available on the GEP website.
SC7 Hangout 3: The BDE Secure Societies PilotBigData_Europe
This document summarizes a pilot project using big data to support secure societies. The pilot aims to integrate satellite imagery data from Sentinel-1 with social media and news data using an open-source platform. It includes two workflows: a change detection workflow that analyzes Sentinel-1 imagery to detect changes over time and an event detection workflow that monitors news and social media to detect events. The pilot demonstrates cross-validating events detected in social media with changes detected in satellite imagery. Plans for the second phase include optimizing the workflows to improve scalability and adding security mechanisms to the platform.
Design and Fabrication of Ground Station Antennaijtsrd
As the communication technology is thriving day by day, the number of satellites are shooting up in a faster rate. The use of smaller satellites for Education, Scientific and Commercial purposes are usually positioned in LEO Low Earth Orbit flights and typically their short periods of crossing across the Line Of Sight of an Earth Station brings the need of finding ways of expanding the communication between ground and space segments. This paper elucidates the aspects related to the design and implementation of a Ground station using a directional antenna for tracking satellites which utilizes UHF band for payload transmission. First the design parameters are enumerated using Yagi Calculator Software. For verification feasibility an Electro magnetic model of an antenna is developed using ANSYS HFSS software. The procured results demonstrate some important paramount aspects of the antenna model. Finally, the “Off Shelf†components are integrated and after successful testing of hardware and software is done, it can be further extended for commercial tracking. S. Bakthanandhini | S. Balaakshaya | T. Durga Devi | N. Meenakshi "Design & Fabrication of Ground Station Antenna" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-4 | Issue-3 , April 2020, URL: https://www.ijtsrd.com/papers/ijtsrd30733.pdf Paper Url :https://www.ijtsrd.com/engineering/electronics-and-communication-engineering/30733/design-and-fabrication-of-ground-station-antenna/s-bakthanandhini
Small Satellites and Earth Observation. The UPC NanoSat programadrianocamps
The document discusses small satellites and Earth observation using CubeSats. It provides an overview of CubeSat design standards and applications of small satellites for remote sensing. Specifically, it discusses:
1) How CubeSats follow a standard design to reduce costs using commercial off-the-shelf components within a 10x10x10cm size. Popular applications include Earth observation, communications, and technology demonstrations.
2) Remote sensing techniques used by small satellites, including passive sensors that measure reflected sunlight and active sensors like radar and lidar. Signals of opportunity like GNSS can also be used.
3) The University of Catalonia's remote sensing activities and CubeSat projects, including microwave radi
The Mount Stromlo Observatory suffered fires in 2003 that destroyed its facilities. This led the Australian government to invest in the Advanced Instrumentation and Technology Centre (AITC) to support cutting-edge astronomy research and Australia's involvement in large international projects like the Giant Magellan Telescope (GMT). The AITC has designed instruments for the GMT and other telescopes, securing Australia's role in major astronomy projects and providing economic and research benefits for many years.
The document discusses tools and datasets for seismic hazard analysis from site-specific to global scales. It describes the OpenQuake engine and Hazard Modeller's Toolkit (HMTK) which can be used for classical and event-based probabilistic seismic hazard analysis (PSHA) at various scales. The OpenQuake Ground Motion Toolkit helps with selection and weighting of ground motion prediction equations. These tools are applied in site-specific analyses, and for developing national, regional, and global seismic hazard models using various data sources on earthquakes, faults, and strain.
The INSPIRE Implementing Rules (IRs) on interoperability of spatial data sets and services and for network services include requirements for setting up a Spatial Data Infrastructure in Europe for supporting environmental policy making as well as policies with impact on the environment. To help Data provider with technical aspects of the IRs as well as with its correct implementation, INSPIRE Technical Guidelines (TG) were developed for each 34 data themes (INSPIRE data specifications) and for the different types of INSPIRE network services (discovery, view, download and transformation).
Spatial objects are mapped, digitalized and stored in a GIS data sets or (spatial) database. Normally, the structure of the data will depend on the specific needs for which the data are collected and used. In order to provide them in compliance with INSPIRE, these source data sets have to be transformed to match the data model prescribed by INSPIRE and have to be provided through INSPIRE download services.
This training will show and illustrate through "hands on" exercises how data sets can be transformed and provided through INSPIRE-compliant services by covering the following topics:
1) Data transformation: This session gives an introduction and explanations about encoding rules, mapping original attributes into the INSPIRE data models and vocabularies and extending data models and vocabularies.
2) Download services: This session will explore the procedure of providing transformed dataset into through an INSPIRE network service, e.g. through an WMS (for view services) or WFS or ATOM feeds (download services).
3) "Hands on" session: This session will give an overview of different architectural approaches (e.g. on-the-fly transformation and stand-alone offline transformation) and concrete software solutions for transforming spatial data and creating INSPIRE-compliant services.
REMOTE SENSING AND GEOGRAPHIC INFORMATION SYSTEMS AM Publications
Remote sensing technology's increasing accessibility helps us observe research and learn about our globe in ways we could only imagine a generation ago. Guides to profound knowledge of historical, conceptual and practical uses of remote sensing which is increasing GIS technology. This paper will go briefly through remote sensing benefits, history, technology and the GIS and remote sensing integration and their applications. Remote sensing (RS) is used in mapping the predicted and actual species and dominates the ecosystem canopy.
This document summarizes the proceedings of the 3rd annual meeting of the NASA Institute for Advanced Concepts (NIAC) held on June 5-6, 2001 at NASA Ames Research Center. It provides an overview of proposals received and awards given by NIAC, as well as summaries of the status reports presented on innovative advanced aerospace concepts. The status reports covered concepts such as a space elevator, robotic planetary explorers, very large space telescopes, and in-situ resource utilization for Mars missions. Keynote speakers discussed visions for the future of aeronautics and space.
The document discusses the INSPIRE Geoportal, which provides centralized access to INSPIRE infrastructure and resources across Europe. It describes the geoportal's architecture and how it connects national discovery and view services to allow for cross-border data discovery and visualization. The geoportal aims to support European policymaking by providing a user-friendly interface that complies with INSPIRE directives and technical standards. Practical exercises demonstrate how users can search for and access spatial data and services through the INSPIRE Geoportal.
This document discusses the Copernicus Programme and use of Sentinel satellite data for agriculture and forestry. It provides an overview of the Copernicus programme, including its three components: space, in-situ, and services. It describes the five Sentinel satellite missions and their characteristics. The document outlines how Sentinel data can be used for applications like crop monitoring, soil moisture mapping, and detection of clearcuts. It highlights the Copernicus Land Monitoring Service and available agriculture products. In conclusion, it discusses benefits of the open data policy and upcoming Copernicus user events.
IRJET- Geological Boundary Detection for Satellite Images using AI TechniqueIRJET Journal
This document summarizes a research paper that proposes a method for detecting geological boundaries in satellite images using artificial intelligence techniques. The method involves pre-processing images, generating histograms to analyze pixel values, performing 2D convolution on image planes, applying a particle swarm optimization algorithm to identify boundaries, and testing the approach on pre-flood and post-flood satellite images of Kerala, India. The results show differences in detected geological boundaries between the two images, allowing changes from flooding to be identified. The method provides a way to automatically analyze satellite imagery and extract geological boundary information.
A geographic information system (GIS) is a system for capturing, storing, analyzing and managing data that is spatially referenced to locations on Earth. GIS allows users to integrate, store, edit, analyze, share and display geographic data. It can be used for scientific investigations, resource management, environmental planning and more. The document then discusses the career of Sik Cambon Jensen, including his education and various jobs in the fields of GIS, web design, and software development over 20 years.
How to use NCI's national repository of big spatial data collectionsARDC
This document provides an overview of how to access spatial data collections through the National Computational Infrastructure (NCI). It describes NCI's data catalog that contains various climate, satellite, and other geoscience datasets. The document outlines how users can browse the catalog, search for specific collections like CMIP5, and view metadata. It also explains that datasets are stored on NCI's global filesystems and made available through data services like THREDDS, which provides OPeNDAP, WMS, WCS, and other access methods. Users can find datasets, view them visually through Godiva, or download files through these services.
A visualization-oriented 3D method for efficient computation of urban solar r...Jianming Liang
This document describes a new 3D method for efficiently computing and visualizing urban solar radiation based on 3D-2D surface mapping. The method first projects 3D triangular meshes onto 2D raster surfaces to determine solar radiation. It then uses barycentric interpolation to rasterize the positions and surface normals of each triangular mesh onto the 2D raster. An efficient GPU-accelerated algorithm calculates shadow masks and solar radiation for each raster cell. Resulting solar radiation rasters are represented as RGB texture maps for efficient rendering of large 3D urban models.
This document describes an open-source 3D solar radiation model called SURFSUN3D that has been integrated with a 3D Geographic Information System (GIS) to allow for interactive assessment of photovoltaic potential in urban areas. The model transforms 3D building surfaces into 2D raster maps to allow for conventional GIS solar radiation calculations on a cell-by-cell basis. It has been validated against a commercial solar modeling software and tested on a 3D model of Boston, demonstrating its ability to calculate solar radiation for selected buildings and surfaces and visualize the results.
Application of terrestrial 3D laser scanning in building information modellin...Martin Ma
The document discusses the application of terrestrial 3D laser scanning and building information modeling (BIM) technology in the construction industry. It analyzes the working principles and methods of laser scanning, including static and kinematic scanning. It also discusses how laser scanning and BIM can minimize limitations through techniques like noise filtering, image matching, and automated recognition of 3D models. Beneficial outcomes of the technologies include sharing scanning data, predicting trends, and identifying unstable structures through colorization. The document concludes the technologies can dramatically reduce resources and costs compared to traditional methods.
1. Terrestrial laser scanning (TLS) is an effective technique for 3D building modeling that uses laser rangefinding to rapidly acquire dense 3D point clouds of object surfaces.
2. The document describes the process of using a Leica C10 TLS to collect over 21 million data points from a building in under 7 minutes and then processing the raw data in Cyclone software to generate a 3D model after noise removal and registration.
3. Validation measurements found the TLS measurements to be accurate to within 1 cm on average compared to physical measurements of objects in the building. The document proposes improvements to future TLS data collection and modeling.
INSPIRE principles, components and implementationinspireeu
The document discusses the INSPIRE directive, which aims to create a European Union spatial data infrastructure (SDI). It outlines key INSPIRE principles like data being collected once and shared across borders. The directive established implementing rules around metadata, interoperability, network services, and monitoring/reporting. Member states are working to make their spatial datasets and services compliant with INSPIRE specifications by 2020 to support EU environmental policies. The European Commission provides support for implementation through the INSPIRE geoportal and maintenance/implementation framework.
This document summarizes Oliver Sonnentag's talk on using digital camera archives to study plant phenology beyond just canopy greenness. It discusses using cameras to estimate leaf area index and clumping based on gap fraction theory. It also explores using image texture and snow cover data from camera archives. The document concludes that while camera and format may not be important for canopy greenness, they could matter more for other phenology metrics like leaf area index that rely on analysis of image details and quality.
3d Modelling of Structures using terrestrial laser scanning techniqueIJAEMSJORNAL
In recent times, interest in the study of engineering structures has been on the rise as a result of improvement in the tools used for operations such as, As-built mapping, deformation studies to modeling for navigation etc. There is a need to be able to model structure in such way that accurate needed information about positions of structures, features, points and dimensions can be easily extracted without having to pay physical visits to site to obtain measurement of the various components of structures. In this project, the data acquisition system used is the terrestrial laser scanner, High Definition Surveying (HDS) equipment; the methodology employed is similar to Close Range Photogrammetry (CRP). CRP is a budding technique or field used for data acquisition in Geomatics. It is a subset of the general photogrammetry; it is often loosely tagged terrestrial photogrammetry. The terrestrial laser scanning technology is a data acquisition system similar to CRP in terms of deigning the positioning of instrument and targets, calibration, ground control point, speed of data acquisition, data processing (interior, relative and absolute orientation) and the accuracy obtainable. The aim of this project was to generate the three-dimensional model of structures in the Faculty of Engineering, University of Lagos using High Definition Surveying, the Leica Scan Station 2 HDS equipment was used along with Cyclone software for data acquisition and processing. The result was a 3D view (of point clouds) of the structure that was studied, from which features were measured from the model generated and compared with physical measurement on site. The technology of the laser scanner proved to be quite useful and reliable in generating three dimensional models without compromising accuracy and precision. The generation of the 3D models is the replica of reality of the structures with accurate dimensions and location.
The document discusses INSPIRE, an initiative to create an infrastructure for spatial information in Europe. It outlines the key components of INSPIRE including the directive, implementing rules, data specifications, and progress made. INSPIRE aims to make spatial data more interoperable and accessible across borders to support environmental policymaking and activities impacting the environment.
The document summarizes the Geohazards TEP (GEP) service, which provides on-demand and systematic processing of Earth observation (EO) data to support geohazards analysis. The GEP offers access to Copernicus and other satellite data, massive cloud computing power, and processing services via a web portal, APIs, and command line tools. It processes data for applications like earthquake response, landslide mapping, and regularly monitors the Alps with Sentinel-1 data. Documentation and tutorials are available on the GEP website.
SC7 Hangout 3: The BDE Secure Societies PilotBigData_Europe
This document summarizes a pilot project using big data to support secure societies. The pilot aims to integrate satellite imagery data from Sentinel-1 with social media and news data using an open-source platform. It includes two workflows: a change detection workflow that analyzes Sentinel-1 imagery to detect changes over time and an event detection workflow that monitors news and social media to detect events. The pilot demonstrates cross-validating events detected in social media with changes detected in satellite imagery. Plans for the second phase include optimizing the workflows to improve scalability and adding security mechanisms to the platform.
Dati satellitari e prodotti derivati in modalità open and free del programma ...giovannibiallo
Dati satellitari e prodotti derivati in modalità open and free del programma Copernicus - Marcello Maranesi (e-GEOS) - Conferenza OpenGeoData Italia 2015
LandCity Revolution - L'evoluzione del segmento di terra per sostenere l'era ...giovanni biallo
The document discusses the evolution of the European Space Agency's Earth observation ground segment to support the era of big data. It proposes a network of interconnected exploitation platforms that are open to multiple sources of funding and common governance rules. These platforms would enable large-scale exploitation of Earth observation data, stimulate innovation using this data, and maximize the impact of European Earth observation assets. The platforms would provide hosted processing, collaborative tools, and other resources to move user activities and processing to the location of the data.
Aspects of Reproducibility in Earth ScienceRaul Palma
The document discusses aspects of reproducibility in earth science research within the European Virtual Environment for Research - Earth Science Themes (EVEREST) project. The key objectives of EVEREST are to establish an e-infrastructure to facilitate collaborative earth science research through shared data, models, and workflows. Research Objects (ROs) will be used to capture and share workflows, processes, and results to help ensure reproducibility and preservation of earth science research. An example RO is described for mapping volcano deformation using satellite imagery and other data sources. Issues around reproducibility related to data access, software dependencies, and manual intervention in workflows are also discussed.
Open Science and GEOSS: the Cloud Sandbox enablersterradue
As part of the European project GEOWOW, Terradue was invited to present views at the GEO-X event on future endeavors to serve data democracy & science literacy in GEOSS (http://www.earthobservations.org/geoss.shtml)
Environmental monitoring research requires access to heterogeneous information collected from different sensor sources, based on satellites, UAVs, and in-situ measurements. The wide availability of data collected by Copernicus missions generates a huge amount of data (Big Data) that needs to be organized in an adequate way and requires integration and analysis tools. Moreover, with the possibility of having large areas covered by low-cost sensors, the amount of point data can also grow enormously. Data are typically organized in different data structures, and it is often challenging to understand where the data are collected, how to use them, and how to work with different data sources simultaneously.
The DPS4ESLAB project proposed the creation of an innovative research infrastructure by implementing an IT platform capable of handling the data workflows generated by heterogeneous sources and equipped with web tools and applications to find, use, analyze and share the data stored therein.
The data platform is accessible through the web application at https://edp-portal.eurac.edu/home from which the user can reach the data catalogue, the analysis tool, and the data and mapping collaboration and sharing portal. A fourth element gathers documentation and example code in order to guide the user to use the platform at its best.
All collaborators of Eurac Research have access to the contents of the platform, and thanks to a user management system, access to the platform components is enabled for research partners and private organizations that want to benefit from the available data and tools.
The EDP is build by means of open source components and implements well established interoperability standards, therefore is federated with international organizations such as GEOSS and EOSC, as well as with the OpenDataHub.
As the volume and complexity of data from myriad Earth Observing platforms, both remote sensing and in-situ increases so does the demand for access to both data and information products from these data. The audience no longer is restricted to an investigator team with specialist science credentials. Non-specialist users from scientists from other disciplines, science-literate public, to teachers, to the general public and decision makers want access. What prevents them from this access to resources? It is the very complexity and specialist developed data formats, data set organizations and specialist terminology. What can be done in response? We must shift the burden from the user to the data provider. To achieve this our developed data infrastructures are likely to need greater degrees of internal code and data structure complexity to achieve (relatively) simpler end-user complexity. Evidence from numerous technical and consumer markets supports this scenario. We will cover the elements of modern data environments, what the new use cases are and how we can respond to them.
Application packaging and systematic processing in earth observation exploita...terradue
An overview of Terradue's solutions supporting Earth Observations (EO) Exploitation Platforms across multiple domains.
Presentation done as part of the Open Geospatial Consortium (OGC) Technical Committee ad-hoc meeting for the setup of a new domain working group on EO Exploitation Platforms.
Inter-university Upper atmosphere Global Observation NETwork (IUGONET) Iugo Net
IUGONET is a 6-year project from 2009-2014 involving multiple Japanese universities and research institutes. The project aims to investigate long-term changes in the upper atmosphere by developing a metadata database of upper atmosphere observation data collected over 50 years by Japanese institutions. The metadata database will facilitate efficient use of the data and comprehensive multi-disciplinary studies. Currently, the metadata database system is being developed using DSpace and metadata will be in SPASE format. Data analysis software is also being developed using IDL and will be provided to the scientific community.
The Open Data movement is now moving a step forward, many governments, institutions and business have recently started the process of making information available to citizens and customers. Data is now seen as a powerful instrument to increase transparency in public administration and business on policies. About 80% of this information has a spatial component that is not entirely exploited yet. A range of open source solutions are now available to address this challenge, in this session we will explore their potential and possible applications. The so-called “data deluge” is here.. but we can build good umbrellas.
Drupal Day 2011 - Thinking spatially with your open dataDrupalDay
Talk di Juan Arevalo & Marco Giacomassi | Drupal Day Roma 2011
The Open Data movement is now moving a step forward, many governments, institutions and business have recently started the process of making information available to citizens and customers. Data is now seen as a powerful instrument to increase transparency in public administration and business on policies. About 80% of this information has a spatial component that is not entirely exploited yet. A range of open source solutions are now available to address this challenge, in this session we will explore their potential and possible applications. The so-called “data deluge” is here.. but we can build good umbrellas. Please come to learn more about it!
The FAST project aims to develop a new GMES/Copernicus downstream service to gain spatial information on foreshore and floodplain characteristics from Sentinel data. This will support the development of the MI-SAFE software tool and associated services. The tool will assess flood risk reduction based on foreshore characteristics and modeling scenarios. It will be developed within the OpenEarth framework using open source standards and tools. The workshop will provide an update on the FAST data management toolbox, EO data analysis methods, modeling wave attenuation, and requirements for linking models to EO data to gather feedback on improving the usability of the MI-SAFE tool.
Inter-university Upper atmosphere Global Observation NETworkIugo Net
The IUGONET project builds a metadata database of ground-based upper atmospheric observations from multiple Japanese universities. This database will help researchers efficiently find and access observational data. IUGONET has developed analysis software to download, visualize, and analyze the data. The database currently contains metadata for over 6 million data files from various radars, magnetometers, and other instruments.
This document discusses NASA's big data challenges in climate science. It notes that by 2020, climate data holdings from simulations, observations, and reanalyses are projected to grow to hundreds of exabytes worldwide. It describes NASA's efforts to build "data analytics platforms" like NEX and Obs4MIPs using ESGF to enable analysis of large amounts of observational and modeling data without needing to download entire datasets locally. The challenges of remote data visualization, distributed data analysis, and data management for big climate data are also discussed.
The past few months saw some of the most important outputs of the project both for the supplier and user community of OCRE.
In this general update webinar, the project will provide an update on some of the key developments in the project including the conclusion of the OCRE IaaS+ Tender and the signing of more than 400 framework agreements, the presentation of the OCRE Cloud Catalogue of commercial cloud services for the European research community, the validation test suite for suppliers, research projects selected to receive adoption funding support. as well as some of the work in progress for Earth Observation digital services procurement.
Roelof Pieters (Overstory) – Tackling Forest Fires and Deforestation with Sat...Codiax
This document provides an overview of Overstory, a company that uses satellite data and AI to monitor forests and tackle issues like deforestation and wildfires. It discusses how Overstory uses machine learning on high-resolution satellite imagery to create segmentation maps and monitor changes in forests over time. It also describes Overstory's infrastructure including its use of JupyterHub, Dask, and Papermill to enable large-scale distributed processing of satellite data and training of deep learning models.
Similar to Big data from space technology 150611 @ spaceops 2015 (20)
State of Artificial intelligence Report 2023kuntobimo2016
Artificial intelligence (AI) is a multidisciplinary field of science and engineering whose goal is to create intelligent machines.
We believe that AI will be a force multiplier on technological progress in our increasingly digital, data-driven world. This is because everything around us today, ranging from culture to consumer products, is a product of intelligence.
The State of AI Report is now in its sixth year. Consider this report as a compilation of the most interesting things we’ve seen with a goal of triggering an informed conversation about the state of AI and its implication for the future.
We consider the following key dimensions in our report:
Research: Technology breakthroughs and their capabilities.
Industry: Areas of commercial application for AI and its business impact.
Politics: Regulation of AI, its economic implications and the evolving geopolitics of AI.
Safety: Identifying and mitigating catastrophic risks that highly-capable future AI systems could pose to us.
Predictions: What we believe will happen in the next 12 months and a 2022 performance review to keep us honest.
Natural Language Processing (NLP), RAG and its applications .pptxfkyes25
1. In the realm of Natural Language Processing (NLP), knowledge-intensive tasks such as question answering, fact verification, and open-domain dialogue generation require the integration of vast and up-to-date information. Traditional neural models, though powerful, struggle with encoding all necessary knowledge within their parameters, leading to limitations in generalization and scalability. The paper "Retrieval-Augmented Generation for Knowledge-Intensive NLP Tasks" introduces RAG (Retrieval-Augmented Generation), a novel framework that synergizes retrieval mechanisms with generative models, enhancing performance by dynamically incorporating external knowledge during inference.
The Building Blocks of QuestDB, a Time Series Databasejavier ramirez
Talk Delivered at Valencia Codes Meetup 2024-06.
Traditionally, databases have treated timestamps just as another data type. However, when performing real-time analytics, timestamps should be first class citizens and we need rich time semantics to get the most out of our data. We also need to deal with ever growing datasets while keeping performant, which is as fun as it sounds.
It is no wonder time-series databases are now more popular than ever before. Join me in this session to learn about the internal architecture and building blocks of QuestDB, an open source time-series database designed for speed. We will also review a history of some of the changes we have gone over the past two years to deal with late and unordered data, non-blocking writes, read-replicas, or faster batch ingestion.
Learn SQL from basic queries to Advance queriesmanishkhaire30
Dive into the world of data analysis with our comprehensive guide on mastering SQL! This presentation offers a practical approach to learning SQL, focusing on real-world applications and hands-on practice. Whether you're a beginner or looking to sharpen your skills, this guide provides the tools you need to extract, analyze, and interpret data effectively.
Key Highlights:
Foundations of SQL: Understand the basics of SQL, including data retrieval, filtering, and aggregation.
Advanced Queries: Learn to craft complex queries to uncover deep insights from your data.
Data Trends and Patterns: Discover how to identify and interpret trends and patterns in your datasets.
Practical Examples: Follow step-by-step examples to apply SQL techniques in real-world scenarios.
Actionable Insights: Gain the skills to derive actionable insights that drive informed decision-making.
Join us on this journey to enhance your data analysis capabilities and unlock the full potential of SQL. Perfect for data enthusiasts, analysts, and anyone eager to harness the power of data!
#DataAnalysis #SQL #LearningSQL #DataInsights #DataScience #Analytics
Global Situational Awareness of A.I. and where its headedvikram sood
You can see the future first in San Francisco.
Over the past year, the talk of the town has shifted from $10 billion compute clusters to $100 billion clusters to trillion-dollar clusters. Every six months another zero is added to the boardroom plans. Behind the scenes, there’s a fierce scramble to secure every power contract still available for the rest of the decade, every voltage transformer that can possibly be procured. American big business is gearing up to pour trillions of dollars into a long-unseen mobilization of American industrial might. By the end of the decade, American electricity production will have grown tens of percent; from the shale fields of Pennsylvania to the solar farms of Nevada, hundreds of millions of GPUs will hum.
The AGI race has begun. We are building machines that can think and reason. By 2025/26, these machines will outpace college graduates. By the end of the decade, they will be smarter than you or I; we will have superintelligence, in the true sense of the word. Along the way, national security forces not seen in half a century will be un-leashed, and before long, The Project will be on. If we’re lucky, we’ll be in an all-out race with the CCP; if we’re unlucky, an all-out war.
Everyone is now talking about AI, but few have the faintest glimmer of what is about to hit them. Nvidia analysts still think 2024 might be close to the peak. Mainstream pundits are stuck on the wilful blindness of “it’s just predicting the next word”. They see only hype and business-as-usual; at most they entertain another internet-scale technological change.
Before long, the world will wake up. But right now, there are perhaps a few hundred people, most of them in San Francisco and the AI labs, that have situational awareness. Through whatever peculiar forces of fate, I have found myself amongst them. A few years ago, these people were derided as crazy—but they trusted the trendlines, which allowed them to correctly predict the AI advances of the past few years. Whether these people are also right about the next few years remains to be seen. But these are very smart people—the smartest people I have ever met—and they are the ones building this technology. Perhaps they will be an odd footnote in history, or perhaps they will go down in history like Szilard and Oppenheimer and Teller. If they are seeing the future even close to correctly, we are in for a wild ride.
Let me tell you what we see.
06-04-2024 - NYC Tech Week - Discussion on Vector Databases, Unstructured Data and AI
Round table discussion of vector databases, unstructured data, ai, big data, real-time, robots and Milvus.
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The Ipsos - AI - Monitor 2024 Report.pdfSocial Samosa
According to Ipsos AI Monitor's 2024 report, 65% Indians said that products and services using AI have profoundly changed their daily life in the past 3-5 years.
Big data from space technology 150611 @ spaceops 2015
1. ESA Unclassified - For Official Use
Big Data from Space
Research, Technology and Innovation
2. ESA UNCLASSIFIED – For Official Use
We are surrounded by BIG DATA
Textual
information
(Google crawlers)
Geo-location
(Google Earth, Google
Maps)
Sharing multimedia
Social Networks
Credits: Psdblast.com
4. ESA Unclassified - For Official Use
Big data from Space: VOLUME
Sheer value of sensed data: archived data is currently
reaching the exabytes scale.
5. ESA Unclassified - For Official Use
Big data from Space: VELOCITY
New data is acquired almost on a continuous basis and
with an increasing rate
6. ESA Unclassified - For Official Use
Big data from Space: VARIETY
Data is delivered by sensors acting over various frequencies
of the electromagnetic spectrum in passive and active
modes
7. ESA Unclassified - For Official Use
Big data from Space: VERACITY
Sensed data is always associated with uncertainty and
accuracy measurements
8. ESA Unclassified - For Official Use
Big data from Space: VALUE
Our capacity to extract information and meaning from data
9. ESA Unclassified - For Official Use
Big data from Space: focus on USERS
Various space-related “domains” are concerned: Earth Observation, Space
Science, Solar System Objects, Space Situational Awareness, Secure Societies, etc.
10. ESA Unclassified - For Official Use
Overview
Data Lifecycle
Infrastructures and Services for Big Data
Big Data from Space Scenarios
Objectives and Activities
11. ESA UNCLASSIFIED – For Official Use
Big Data Lifecycle
Acquire Organize
Information
Provision
Analyse
12. ESA UNCLASSIFIED – For Official Use
Big Data Lifecycle:
Supporting Resources
SUPPORTING RESOURCES AND INFRASTRUCTURES
Architectures
Data selection &
pre-processing
Data & Software
Frameworks
Processing
Algorithms
Provenance &
Security
13. ESA Unclassified - For Official Use
Big Data from Space:
Technology Themes
Examples
Data Lifecycle
Processing and Analysis
Visualization and Visual Analytics
Multi-temporal Analysis
Onboard Computing, Compression and Transmission
Quality, Provenance and Trust
Infrastructures and Services for Big Data
Storage and computing platforms
Interoperability and Standards
Heterogeneous Data Sources (incl. auxiliary and collateral data)
Linked Data and Semantics
Data Openness, Privacy and Security
Software Defined Networking
User Management and Access to Resources
14. ESA Unclassified - For Official Use
Scenario 1: Space Science
Limited downlink capabilities
Data Volumes and Variety
Transmission on huge distances
Use of landers
Use of relay satellites
15. ESA Unclassified - For Official Use
Scenario 1: Space Science
Ground Segment
Big Data Stream Big Data Analysis
Processing &
Triage
Scalable
Archiving
Distributed
Archives
Data
Analysis
Science Team
Research
Community
Data Models &
Simulations
Cal/Val Activity
16. ESA Unclassified - For Official Use
Scenario 2: Earth Observation
Satellite constellations
Nano Satellites, RPAs,
etc.
Satellite instruments
Relay satellites
17. ESA Unclassified - For Official Use
Scenario 2: Earth Observation
Ground Segment
Big Data Stream Big Data Analysis
Cal/Val Activity
Validation Research
Community
Data Models
simulations
Applications
Satellite constellations
Nano Satellites, Drones, etc.
Satellite instruments
Services
18. ESA Unclassified - For Official Use
Scenario 3: Space and Security
Satellite Data
Aerial, In-Situ and Collateral Data
Decision Makers
First Responders
Operational
Information
Support EU external
security policies
Border SecurityResilience
against Disasters
Protection of Critical
Infrastructures
19. ESA UNCLASSIFIED – For Official Use
Scenario 4 : Big Data Exploitation
Current: “bring data to users”
Data
Ground Segment User Segment
Mission
Operator
User
Processing
resources
Data
Request
Discussion
New results
Long feedback loop
Data
Download
Communities
20. ESA UNCLASSIFIED – For Official Use
Scenario 4 : Big Data Exploitation
Future: “bring users to data”
Ground Segment User Segment
Mission
Operator
User
Discussion
Processing
resources
New results
Data
Request & Processing
Data
Shorter feedback loop
Communities
21. ESA Unclassified - For Official Use
Big Data from Space: Objectives
1. Identification of priorities and implementation of a plan for
research, technology development and innovation
2. Widening competences and expertise of universities, research
institutes, labs, SMEs and industrial actors in the field
3. Foster networking of experts and users towards better access
and sharing of data, tools and resources
4. Leverage innovation, spin-in / spin-off of technologies and
business development arising from research and industry
progress
5. Increase and promote the value stemming from the huge
quantity of data made available nowadays (and in the future)
6. Contribute to the EO innovation for Europe, as one of the
main pillars for the Ground Segment evolution strategy
22. ESA UNCLASSIFIED – For Official Use
The Big Data from Space initiative shall:
1. Foster and coordinate the European Research & Development activities to
address forthcoming Big Data challenges
2. Define and implement technology development programmes supporting cross-
cutting enabling technologies in the Big Data field
3. Establish and promote a close and permanent dialogue with key industry and
SMEs actors
4. Contribute to the exploration and implementation of “partnership models” for
the actual exploitation of future Big Data flows
5. Contribute to the EO innovation for Europe, as one of the main pillars for the
Ground Segment evolution strategy
6. Support academic activities to build a new figure: the data scientist
Recommendations
23. ESA UNCLASSIFIED – For Official Use
BiDS Activities in EO / EOP-G
1. Research and Service Support (RSS)
Since 2007, RSS - as part of ESA EO Ground Segment Department -
provides tools and services to support the user communities in EO data
exploitation (http://wiki.services.eoportal.org/tiki-custom_home.php):
• G-POD (Grid Processing on Demand): operational since 2007
- operational processing environment
- access to available EO products
- integration of specific applications/processors
- coupled with high-performance and sizeable computing resources
• Cloud Toolbox
- customized Virtual Machines (VMs) deployed on a cloud infrastructure
- fast access to the ESA RSS Data Farm archive.
- access through user devices (pc, laptop, tablet) from anywhere
24. ESA UNCLASSIFIED – For Official Use
BiDS Activities in EO / EOP-G
2. Exploitation Platforms (EP)
Virtual workspaces providing user communities with access to:
a) large volumes of data (EO, auxiliary, in-situ)
b) algorithm development and integration environment
c) processing software and services (e.g. toolboxes, visualization tools)
d) computing resources (e.g. hybrid cloud/grid)
e) collaboration tools (e.g. forums, wiki, KnowledgeBase, social networks)
f) general operation capabilities (UM, AA, accounting)
Thematic Exploitation Platforms: under development (Geohazards
[pre-operational qualification on-going], Urban, Forestry, Polar,
Hydrology, Coastal)
Mission Exploitation Platforms (Proba-V, etc.)
25. ESA UNCLASSIFIED – For Official Use
BiDS Activities in EO / EOP-G
2. Generic GS functions in support of Big data management
Generic functions under development and pre-ops:
a) Federated User Management (SSO in operations, pilot completed,
generic component under development)
b) Data Hub Software (DHuS): open source component used in the frame
of Copernicus/Sentinels for data access management including data
hub relays (sentinels.copernicus.eu)
26. ESA UNCLASSIFIED – For Official Use
BiDS Activities in EO / EOP-G
4. Technology Projects (TRP/GSTP)
Identify requirements and develop relevant technologies in support to the
EO Ground Segment:
a) Harmonization and Standards (HMA, SMARTHMA)
b) EO Ontology (OTEG, RARE, SMAAD, OBEOS, ProdTrees)
c) EO Image Information Mining (KIM, KEO, ASIM, EOLib, PFA, OSIRIDE,
DAMATS)
d) Exploitation Platforms demonstrators (EP4SM, EO-RCP)
e) E-Collaboration platforms (E-CEO)
27. ESA Unclassified - For Official Use
Big Data from Space
Big Data from Space Conference - BiDS’16
15-17 March 2016, Tenerife, Spain!
28. ESA UNCLASSIFIED – For Official Use
BiDS’16 Organising Committee
J. Amador Monteverde ESA,
C. Arviset ESA,
S. Albani SatCen,
S. Baillarin CNES,
P. Baumann Jacobs University,
L. Bruzzone University of Trento,
M. Datcu DLR,
M. Iapaolo ESA,
J. Knapen IAC,
P.G. Marchetti ESA,
P. Soille JRC,
J.L. Valero SatCen
Defines the elements/components of the end-to-end space observing system with respect to Big Data lifecycle
To help in the identification of requirements for improving Data Science capabilities at multiple points of the data lifecycle:
On-board computing
Data compression and transmission
Data triage (triage at the point of collection: onboard, ground-based, at archives)
Massive data streams management
Scalable data archives
Distributed data analysis and analytics
Data provenance and reproducibility
Defines the elements/components of the end-to-end space observing system with respect to Big Data lifecycle
To help in the identification of requirements for improving Data Science capabilities at multiple points of the data lifecycle:
On-board computing
Data compression and transmission
Data triage (triage at the point of collection: onboard, ground-based, at archives)
Massive data streams management
Scalable data archives
Distributed data analysis and analytics
Data provenance and reproducibility
Defines the elements of the end-to-end EO observing system, in particular for the Ground Segment
Identification of requirements for improving EO capabilities (need for real-time data, anytime, anywhere):
Mission planning
On-board processing
Data compression and transmission (optical link, quantum link)
Data processing
Data archiving and cataloguing
Data simulation
Cal/Val activities
Use of constellations of satellites
Use of nano-satellites
Integration High Altitude Long Endurance (HALE) platforms
Integration with commodity platforms (drones)
Defines the elements of the end-to-end EO observing system, in particular for the Ground Segment
Identification of requirements for improving EO capabilities (need for real-time data, anytime, anywhere):
Mission planning
On-board processing
Data compression and transmission (optical link, quantum link)
Data processing
Data archiving and cataloguing
Data simulation
Cal/Val activities
Use of constellations of satellites
Use of nano-satellites
Integration High Altitude Long Endurance (HALE) platforms
Integration with commodity platforms (drones)
H2020 Secure Societies aims (related to the Common Foreign and Security Policy) making large use of Big Data from Space:
To enhance the resilience of our society against natural and man-made disasters, ranging from the development of new crisis management tools to communication interoperability;
To develop novel solutions for the protection of critical infrastructure;
To improve border security, ranging from improved maritime border protection to supply chain security;
To support the Union's external security policies including through conflict prevention and peace building.
Starting from a huge amount of HETEROGENEOUS data, operational info (e.g. TIMELY and CLEAR) have to be provided to several users (from decision makers to first responders).