1 / 21

A DATA GRID ARCHITECTURE FOR REAL-TIME ELECTRON MICROSCOPY APPLICATIONS

A DATA GRID ARCHITECTURE FOR REAL-TIME ELECTRON MICROSCOPY APPLICATIONS. F. Mighela 1 , C. Perra 2 1 Telemicroscopy Laboratory, 2 DIEE. Contents. Introduction Remote SEM Virtual Laboratory project Grid architecture Conclusions Perspectives. Introduction.

hinto
Télécharger la présentation

A DATA GRID ARCHITECTURE FOR REAL-TIME ELECTRON MICROSCOPY APPLICATIONS

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript

  1. A DATA GRID ARCHITECTURE FOR REAL-TIME ELECTRON MICROSCOPY APPLICATIONS F. Mighela1, C. Perra2 1Telemicroscopy Laboratory, 2DIEE

  2. Contents • Introduction • Remote SEM • Virtual Laboratory project • Grid architecture • Conclusions • Perspectives INGRID 2008 - 9/11 April - Ischia - Italy

  3. Introduction • The reasons of the remote microscopy: • Sharing lab resources • Widespread of SEM • Collaborative activities • Extended Training Change the SEMs working approach INGRID 2008 - 9/11 April - Ischia - Italy

  4. Remote SEM • First project: LIMINA laboratory • Server application resident on a PC close to the instrument • Client application installed on the remote user’s PC • Server video to stream specimens’ images INGRID 2008 - 9/11 April - Ischia - Italy

  5. Remote SEM REQUEST REQUEST CLIENT SERVER MICROSCOPE ANSWER ANSWER INGRID 2008 - 9/11 April - Ischia - Italy

  6. Server/client approach for Remote SEM Pros • Remote operator has the same interactivity with the instrument as the local operator • Sharing instruments between scientists • Consulting and expertises Cons • Remote user has to install a dedicated application on own computer • If there are more than one instrument, the management becomes onerous INGRID 2008 - 9/11 April - Ischia - Italy

  7. Virtual Laboratory project • Actual project: Telemicroscopy Laboratory: • Before: one Scanning Electron Microscope • Now: three Scanning Electron Microscopes and one Transmission Electron Microscope The idea of a virtual laboratory has been considered INGRID 2008 - 9/11 April - Ischia - Italy

  8. Virtual Laboratory Project SEM Telemicroscopy Laboratory @ University of Sassari SEM Telemicroscopy Laboratory @ Pula Centre SEM CGS Laboratory @ University of Cagliari TEM Pharmanes @ Pula Centre INGRID 2008 - 9/11 April - Ischia - Italy

  9. Virtual Laboratory Requirements • Security access; • Security connection; • Real-time interaction; • Interoperability; • Real-time streaming video; • Concurrent access by multiple users to the same resource; • Public network availability. INGRID 2008 - 9/11 April - Ischia - Italy

  10. Virtual Laboratory Requirements • Other favourable aspects: • Common set of commands; • Main commands are independent from the microscope manufacturer, but are depending just on the instrument class; A GUI unique for all instruments. INGRID 2008 - 9/11 April - Ischia - Italy

  11. Virtual Laboratory Requirements Which technological solution can satisfy all these requirements? We suppose the Grid technology! INGRID 2008 - 9/11 April - Ischia - Italy

  12. Grid technology • ... allows sharing resources • ... gives a reasonable degree of security connection • ... allows the communication between software developed with different platforms It could be the right solution to develop a system to share electron microscopes INGRID 2008 - 9/11 April - Ischia - Italy

  13. Grid technology features • Sharing resources and knowledge between different organizations; • Interoperability; • Services; • Controlled access; • User identification; • Internet protocols; • World Wide Web technologies. INGRID 2008 - 9/11 April - Ischia - Italy

  14. Grid configuration APPLICATION LAYER MIDDLEWARE LAYER GRID PROTOCOL ARCHITECTURE RESOURCE LAYER NETWORK LAYER INGRID 2008 - 9/11 April - Ischia - Italy

  15. A Grid for a Virtual SEM/TEM Laboratory Control application Video streaming application Workflow application APPLICATION LAYER Communication protocols Security protocols NETWORK LAYER Microscopes control Server video control Resources access control MIDDLEWARE LAYER Microscopes server Streaming server Data storage RESOURCE LAYER INGRID 2008 - 9/11 April - Ischia - Italy

  16. A Grid for a Virtual SEM/TEM Laboratory • Possible Grid system solutions: • Condor • Legion • Entropia • Globus Toolkit • ...... INGRID 2008 - 9/11 April - Ischia - Italy

  17. A Grid for a Virtual SEM/TEM Laboratory Literature shows that the most used system for developing Grid solutions is the Globus Toolkit in every realized version. We suppose to explore a first solution using Globus Toolkit 4. INGRID 2008 - 9/11 April - Ischia - Italy

  18. A Grid for a Virtual SEM/TEM Laboratory Contemporary we will continue to explore the other Grid system solutions, in order to not exclude some architecture that could better reach our requirements. INGRID 2008 - 9/11 April - Ischia - Italy

  19. Conclusions • A project of a Virtual Laboratory on a Grid architecture has started; • Preliminary analysis has been done describing the high level architecture; • The GT4 has been choose to implement a first version Virtual Laboratory Grid. INGRID 2008 - 9/11 April - Ischia - Italy

  20. Next steps • Test the Globus Toolkit 4 (GT4) software instrument to create the Virtual Laboratory Grid; • Continue to analyze Grid systems; • Develop a dedicated streaming video; • Test the video application on Digital TV systems. INGRID 2008 - 9/11 April - Ischia - Italy

  21. Thank you for your attention f.mighela@diee.unica.it

More Related