GEO-XIII Plenary St. Petersburg Russian Federation

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Presentation transcript:

GEO-XIII Plenary St. Petersburg Russian Federation Rotterdam Workshop Outcome and Synthesis: A new path forward GEO-XIII Plenary St. Petersburg Russian Federation Side Event Purpose: A follow up to last year’s side event on LC and a 2 day workshop in May exploring new paths forward for generating LC products. Goals: Gary Geller & André Obregón GEO Secretariat 8 November 2016

that can meet varied user requirements Rotterdam Meeting 23-24 May 2016 Follow-on to GEO Plenary XII side event Basic premise Many LC products…still unmet needs Advances in S&T can support a new approach Explore ways to meet this vision: An operational system that can meet varied user requirements Advances: More data available Improved algorithms (esp. multitemporal) Greatly increase processing capability Vision: A sustainable operational system that generates land cover datasets according to specific user requirements for geographic scope and the number and types of classes; datasets can be generated on a regular basis using consistent methods and with needed accuracy.

that can meet varied user requirements Rotterdam Meeting 23-24 May 2016 Follow-on to GEO Plenary XII side event Basic premise Despite many LC products, many needs still unmet Advances in S&T can support a new approach Explore ways to meet this vision: An operational system that can meet varied user requirements What would such a system look like? What are the challenges to building it? Advances: More data available Improved algorithms (esp. multitemporal) Greatly increase processing capability Vision: A sustainable operational system that generates land cover datasets according to specific user requirements for geographic scope and the number and types of classes; datasets can be generated on a regular basis using consistent methods and with needed accuracy.

Meeting Outcome General agreement on an overall approach On-demand system Automated “Data cube-like” Lots of data Reference data--integral part of any system Many challenges—key ones identified Finalizing “synthesis paper” Advances: More data available Improved algorithms (esp. multitemporal) Greatly increase processing capability

User Need Categories Classes Temporal frequency and regularity Latency Consistency (time and space) Spatial location and extent Spatial resolution Accuracy Control / trust in the process But: user survey needed

Data Cube Infrastructure: simplify application of satellite data Pixel--not scene--based Stack of data with every pixel aligned Basic processing done  “Analysis Ready Data” CEOS “Data Cube in a Box” Different flavors exist

Generalized Architectural Concept Multisensor datastream Pre-Processing Land Cover Generation Data ARD ARD is Analysis-Ready Data, e.g., which has been atmospherically corrected

Generalized Architectural Concept User input Specifics of user’s request, eg desired classes or area of interest Multisensor datastream Pre-Processing Land Cover Generation Data ARD User-defined map ARD is Analysis-Ready Data, e.g., which has been atmospherically corrected

Generalized Architectural Concept User input Specifics of user’s request, eg desired classes or area of interest User-provided training data Multisensor datastream Pre-Processing Land Cover Generation Data ARD User-defined map ARD is Analysis-Ready Data, e.g., which has been atmospherically corrected

Generalized Architectural Concept User input Specifics of user’s request, eg desired classes or area of interest Training data database Multisensor datastream Pre-Processing Land Cover Generation Data ARD User-defined map ARD is Analysis-Ready Data, e.g., which has been atmospherically corrected

Generalized Architectural Concept User input Specifics of user’s request, eg desired classes or area of interest Reference database Multisensor datastream Pre-Processing Land Cover Generation Validation Data ARD User-defined map Validated map ARD is Analysis-Ready Data, e.g., which has been atmospherically corrected

Generalized Architectural Concept User input Specifics of user’s request, eg desired classes or area of interest Reference database Multisensor datastream Pre-Processing Land Cover Generation Validation Data ARD User-defined map Validated map ARD is Analysis-Ready Data, e.g., which has been atmospherically corrected

Generalized Architectural Concept User input Specifics of user’s request, eg desired classes or area of interest Reference database Multisensor datastream Pre-Processing Land Cover Generation Validation Data ARD User-defined map Validated map LC Change products ARD is Analysis-Ready Data, e.g., which has been atmospherically corrected

Challenges Need good reference data Share it Develop curated database Develop sharing tools Data volume (for large areas) Downloading impractical Cloud-based approach Processing resources Technically do-able LCMAP is just an example that proves that the suggested approach is possible Note that accuracy is probably more dependent on good data and good reference data than on new algorithms

Challenges Accuracy of automated methods High quality training data Lots of input data Validation Non-technical challenges Funding Capacity Cultural LCMAP is just an example that proves that the suggested approach is possible Note that accuracy is probably more dependent on good data and good reference data than on new algorithms

Should We Be Optimistic? YES! USGS LCMAP system Tsinghua automated processing system Single layer products Forests: Hansen/UMD/GEE/WRI Water: JRC/GEE Urban CEOS Data Cube in a Box More data Improved algorithms Increased computing capabilities Is this easy?

Conceptual Implementation Scenarios Top down, centralized approaches Global or coordinated regional Bottom up, organic approaches Multiple, independent organizations and people Option to use CEOS “Data Cube in a Box” Combination

Path Forward Incremental expansion Address challenges one at a time Socialize the concept  broad buy-in Bring players together: discuss the future Expansion occurs on multiple fronts: spatial, classes, accuracy, availability—and is inevitable—already happening.

Expansion on Multiple Fronts Single Layer Forests Water Urban USGS LCMAP CEOS Data Cube GADC Tsinghua Portal Others China? EC?

Coordinated Approach: One Possibility Consortium of organizations Standards & agreements For example… Region a Region d Region c Independent, coordinated systems ... Region b Region n Large-area, combined product? + + + +

... Another Possibility Consortium of organizations? Standards & agreements? For example… Region a Region d Region c Independent, coordinated (?) systems ... Region b Region n Multiple sources for global products?

Some Specific Steps Develop coordinated LC reference database Develop shared validation tools Utilize CEOS Data Cube in a Box Discuss ESA WorldCover2017 (14-16 March) ISRSE 2017 (8-12 May) Convene another workshop? Continue current activities Single layer products High resolution maps Hybrid maps Other good work

Role for GEO Facilitate development of reference database Facilitate buy-in and expansion Help coordinate approaches One last thing…moving beyond land cover

Generalized Architectural Concept User input Specifics of user’s request, eg desired classes or area of interest Reference database Multisensor datastream Pre-Processing Land Cover Generation Validation Data ARD User-defined map Validated map LC Change products ARD is Analysis-Ready Data, e.g., which has been atmospherically corrected

Beyond Land Cover User input Reference database Multisensor Algorithm Specifics of user’s request, eg desired classes or area of interest Reference database Multisensor datastream Algorithm warehouse Pre-Processing Product Generation Validation Data ARD User-defined map Other Products (indicators, etc) Validated map LC Change products ARD is Analysis-Ready Data, e.g., which has been atmospherically corrected

Summary Science and technology adequate Possible to better meet user needs Organic growth already happening Reference data not ready Large areas: challenging Coordinated systems? Data cube approach: supports many products

Discussion Questions Your response? Like it? Hate it? What’s missing? Would your country or organization benefit? Role for your country or organization? Role for GEO? Convene another workshop with key LC players?

Curated Reference Database

Rotterdam Meeting Full vision: “A sustainable operational system that generates land cover datasets according to specific user requirements for geographic scope and the number and types of classes; datasets can be generated on a regular basis using consistent methods and with needed accuracy” Advances: More data available Improved algorithms (esp. multitemporal) Greatly increase processing capability Vision: A sustainable operational system that generates land cover datasets according to specific user requirements for geographic scope and the number and types of classes; datasets can be generated on a regular basis using consistent methods and with needed accuracy.