際際滷

際際滷Share a Scribd company logo

1230---assembly-integration-verification-of-systems-of-systems

Rub辿n Colomina Citoler
Rub辿n Colomina Citoler

The Galileo GMS AIV Platform (AIVP) provides an integration infrastructure for testing the Galileo Mission Segment. It incorporates over 100 distributed models of system entities, automatically generated message encoders/decoders, behavioral models of elements, support for common protocols, and a user-friendly interface for designing and deploying test scenarios. Qualification results obtained using the AIVP are trusted due to its built-in configuration management and results capture capabilities.

1 of 21
Download to read offline
The Galileo GMS Programme A new AIV Platform SESP Conference, ESTEC 27th September 2012
The AIVP Requirement
Galileo Mission Segment Galileo - Europes own Global Positioning system Split into three segments each with its own Prime contractor Mission Segment Responsible for production and integrity of Galileo broadcast message 100+ globally distributed sensor stations 40 Uplink Antennas Two control centres (GCC), comprising Data processing elements Monitoring and Control elements Crypto / Authentication elements Archiving Time Reference External Interface elements
16/10/2012 AIVP Future Applications Motivation(s) for an AIVP Assembly, Integration and Verification Platform Each GMS Element developed by a different European contractor Varying delivery schedules (and slips) Varying states of maturity Varying Interface Implementations Varying quality of implementation AIV Platform breaks dependencies between schedules for the AIV team Gives a reference implementation for interfaces Can check / substitute for faulty elements Can substitute for incomplete elements ` and more
Galileo GMS (simplified) Sensor Station Sensor Station Sensor Station Sensor Station Sensor Station Processing Facility #2 Messaging Facility Processing Facility #1 Processing Facility #3 Uplink Station Uplink Station Uplink Station Uplink Station Uplink Station
Elements Check-out on delivery Sensor Station Sensor Station Sensor Station Sensor Station Sensor Station Processing Facility #2 Processing Facility #1 Processing Facility #3 Uplink Station Uplink Station Uplink Station Uplink Station Uplink Station Messaging Facility Emulated Real Not Represented
Chain Integration & Gap Filling Sensor Station Sensor Station Sensor Station Sensor Station Sensor Station Processing Facility #2 Processing Facility #1 Processing Facility #3 Uplink Station Uplink Station Uplink Station Uplink Station Uplink Station Messaging Facility Emulated Real Not Represented
Performance Testing Sensor Station Sensor Station Sensor Station Sensor Station Sensor Station Processing Facility #2 Processing Facility #1 Processing Facility #3 Uplink Station Uplink Station Uplink Station Uplink Station Uplink Station Messaging Facility Emulated Real
Galileo GMS AIVP Development
Development Background Commissioned by Thales Alenia Space (GMS Prime [Fr] & AIV Partner [De]) Programme in 7th year: Multi-million Euro development Initial system development 4 years Operational deployment and evolution 2 years Upgrade programme for Galileo FOC phase 2 years (then maintenance) Five original (IOV) systems produced (each as 2x19 racks), plus 5 light laptop instances Four upgraded (FOC) systems in production (each as 1x19 rack), plus 4 light laptop instances Original IOV systems upgraded to new FOC S/W standard
Qualified for Qualification The GMS AIVP has been designed with Qualification processes at its heart. Configuration Control is built in, to ensure test results are traceable and repeatable Scripting of user commands aids repeatability, efficiency and knowledge capture. Scripts themselves can be qualified, if needed Recording of interface traffic enables test results to be analysed and kept as qualification records AIVP itself is developed and qualified to Galileo Software Standard (GSWS). System Qualification results obtained with AIVP are trusted
Dual-Screen MMI Scenario Design Tool Off-line Analysis Tool User Interfaces
System Architecture
Emulator Internal Architecture
Auto-Generation of CODECs Emulator message encoders / decoders auto-generated as SMP2-compliant models from: XSD Schemas ASN.1 Schemas Allows rapid update of AIVP in response to re-issue of interface specification by element developers Common CODEC libraries used by all emulators Emulator behavioural models interface with message CODECs in a way that supports forward / backward compatibility (limits apply) CODEC (re)generation capability delivered to GMS Factory Emulator Behavioural Model CODEC Library
Present and Future
In use at Pforzheim (GMS Factory) GMS has ~3000 requirements ~70% of all verification tests performed using the AIVP In daily use, with three separate platforms available to the TAS AIV team Currently supporting Galileo Full Operational Capability (FOC) qualification Will be deployed as operational component of GMS for through-life support Long term GMS corrective maintenance support Training system for GMS operators and engineers (Re)Qualification of GMS design evolutions 16/10/2012
Future Applications The design is tailored to GMS, but not specific to it AIVP has strong potential for re-use in other integration programmes (for Space industry or beyond). General architecture, so suitable for application outside Galileo programme Protocol support, and customisation, is extendable Scalable from laptop to multi-rack deployment Element Behavioural modelling can be entirely omitted* or developed to high fidelity or complexity** Applicable to wide range of network-based systems-of-systems *e.g. GMS PTF Emulator **e.g. GSS Emulator
Summary
Summary of GMS AIVP The Galileo GMS integration programme has produced a new AIV infrastructure, based on SIMSAT, and suitable for general re-use on IT systems. The Assembly, Integration and Verification Platform (AIVP) incorporates: Network distributed modelling supporting many model instances (>100) of many types of entity Auto-generation of message encoder / decoder (CODEC) models based on ICD schemas (XSD, ASN.1) Element Behavioural Models at generic and custom-coded levels Protocol support for UDP, TCP/IP; FTP, SNMP, ASN.1, XML (more could be added) Application specific protocol use (e.g. GMS rules for FTP use) Timing accuracy for events to (at least) +/-10ms Scenario design and deployment via rapid user-friendly MMI Built-in Configuration Management, Results capture and Analysis capability Central SIMSAT-based GUI for Scenario control GSWS Qualified implementation
1230---assembly-integration-verification-of-systems-of-systems

More Related Content

1230---assembly-integration-verification-of-systems-of-systems

  • 1. The Galileo GMS Programme A new AIV Platform SESP Conference, ESTEC 27th September 2012
  • 3. Galileo Mission Segment Galileo - Europes own Global Positioning system Split into three segments each with its own Prime contractor Mission Segment Responsible for production and integrity of Galileo broadcast message 100+ globally distributed sensor stations 40 Uplink Antennas Two control centres (GCC), comprising Data processing elements Monitoring and Control elements Crypto / Authentication elements Archiving Time Reference External Interface elements
  • 4. 16/10/2012 AIVP Future Applications Motivation(s) for an AIVP Assembly, Integration and Verification Platform Each GMS Element developed by a different European contractor Varying delivery schedules (and slips) Varying states of maturity Varying Interface Implementations Varying quality of implementation AIV Platform breaks dependencies between schedules for the AIV team Gives a reference implementation for interfaces Can check / substitute for faulty elements Can substitute for incomplete elements ` and more
  • 5. Galileo GMS (simplified) Sensor Station Sensor Station Sensor Station Sensor Station Sensor Station Processing Facility #2 Messaging Facility Processing Facility #1 Processing Facility #3 Uplink Station Uplink Station Uplink Station Uplink Station Uplink Station
  • 6. Elements Check-out on delivery Sensor Station Sensor Station Sensor Station Sensor Station Sensor Station Processing Facility #2 Processing Facility #1 Processing Facility #3 Uplink Station Uplink Station Uplink Station Uplink Station Uplink Station Messaging Facility Emulated Real Not Represented
  • 7. Chain Integration & Gap Filling Sensor Station Sensor Station Sensor Station Sensor Station Sensor Station Processing Facility #2 Processing Facility #1 Processing Facility #3 Uplink Station Uplink Station Uplink Station Uplink Station Uplink Station Messaging Facility Emulated Real Not Represented
  • 8. Performance Testing Sensor Station Sensor Station Sensor Station Sensor Station Sensor Station Processing Facility #2 Processing Facility #1 Processing Facility #3 Uplink Station Uplink Station Uplink Station Uplink Station Uplink Station Messaging Facility Emulated Real
  • 9. Galileo GMS AIVP Development
  • 10. Development Background Commissioned by Thales Alenia Space (GMS Prime [Fr] & AIV Partner [De]) Programme in 7th year: Multi-million Euro development Initial system development 4 years Operational deployment and evolution 2 years Upgrade programme for Galileo FOC phase 2 years (then maintenance) Five original (IOV) systems produced (each as 2x19 racks), plus 5 light laptop instances Four upgraded (FOC) systems in production (each as 1x19 rack), plus 4 light laptop instances Original IOV systems upgraded to new FOC S/W standard
  • 11. Qualified for Qualification The GMS AIVP has been designed with Qualification processes at its heart. Configuration Control is built in, to ensure test results are traceable and repeatable Scripting of user commands aids repeatability, efficiency and knowledge capture. Scripts themselves can be qualified, if needed Recording of interface traffic enables test results to be analysed and kept as qualification records AIVP itself is developed and qualified to Galileo Software Standard (GSWS). System Qualification results obtained with AIVP are trusted
  • 12. Dual-Screen MMI Scenario Design Tool Off-line Analysis Tool User Interfaces
  • 15. Auto-Generation of CODECs Emulator message encoders / decoders auto-generated as SMP2-compliant models from: XSD Schemas ASN.1 Schemas Allows rapid update of AIVP in response to re-issue of interface specification by element developers Common CODEC libraries used by all emulators Emulator behavioural models interface with message CODECs in a way that supports forward / backward compatibility (limits apply) CODEC (re)generation capability delivered to GMS Factory Emulator Behavioural Model CODEC Library
  • 17. In use at Pforzheim (GMS Factory) GMS has ~3000 requirements ~70% of all verification tests performed using the AIVP In daily use, with three separate platforms available to the TAS AIV team Currently supporting Galileo Full Operational Capability (FOC) qualification Will be deployed as operational component of GMS for through-life support Long term GMS corrective maintenance support Training system for GMS operators and engineers (Re)Qualification of GMS design evolutions 16/10/2012
  • 18. Future Applications The design is tailored to GMS, but not specific to it AIVP has strong potential for re-use in other integration programmes (for Space industry or beyond). General architecture, so suitable for application outside Galileo programme Protocol support, and customisation, is extendable Scalable from laptop to multi-rack deployment Element Behavioural modelling can be entirely omitted* or developed to high fidelity or complexity** Applicable to wide range of network-based systems-of-systems *e.g. GMS PTF Emulator **e.g. GSS Emulator
  • 20. Summary of GMS AIVP The Galileo GMS integration programme has produced a new AIV infrastructure, based on SIMSAT, and suitable for general re-use on IT systems. The Assembly, Integration and Verification Platform (AIVP) incorporates: Network distributed modelling supporting many model instances (>100) of many types of entity Auto-generation of message encoder / decoder (CODEC) models based on ICD schemas (XSD, ASN.1) Element Behavioural Models at generic and custom-coded levels Protocol support for UDP, TCP/IP; FTP, SNMP, ASN.1, XML (more could be added) Application specific protocol use (e.g. GMS rules for FTP use) Timing accuracy for events to (at least) +/-10ms Scenario design and deployment via rapid user-friendly MMI Built-in Configuration Management, Results capture and Analysis capability Central SIMSAT-based GUI for Scenario control GSWS Qualified implementation
AboutCopyright
息 2025 際際滷