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Title: P1246341517DIzZm


1
Telescience and Space Missions Operations at the
Belgian User Support and Operation Centre J.
Vanhaverbeke1, R. Coszach1, E. Haumont1, D.
Moreau1, C. Muller1, X. Stockman1, J.
Wisemberg1, C.Lippens2, C. Noël2, E. Van
Ransbeeck2, R. Vanlaer 3, P.Queeckers4, M.
Lefebvre5, S. Varet5 jeremie.vanhaverbeke_at_busoc.
be 1 Belgian User Support and Operation Centre,
B-USOC, Brussels, Belgium 2 Belgian Institute
for Space Aeronomy, BISA, Brussels, Belgium 3
Department of Metallurgy and Materials
Engineering, MTM, Katholieke Universiteit Leuven,
Belgium 4 Microgravity Research Centre, MRC,
Université libre de Bruxelles, Brussels,
Belgium 5 Royal Meteorological Institute, RMI,
Brussels, Belgium
2
In this presentation
  • 1) B-USOC participation in four international
    space missions
  • 2 Russian Soyuz Taxi-Flights
  • NASA STS-107 HitchHiker Mission
  • ESA NASA Mission
  • Description
  • ground segment implemented
  • specific role of the B-USOC
  • interactions with the partner operation
    centres
  • 2) Lessons learned for the future involvement in
    the European
  • Columbus project on ISS, and the PICARD
    project (TBC)


3
Introduction
  • Assignments of the B-USOC
  • promote space research programmes and flight
    opportunities,
  • provide support to scientists in various
    research fields
  • microgravity, earth sciences, space
    sciences and
  • space technology
  • Support from Belgium to numerous missions since
    1983
  • Europe onboard ISS
  • decentralized and hierarchical User Centres
    concept
  • responsibility to handle in-flight operations
    assigned to
  • national User Support and Operations
    Centres (USOCs)

4
Russian Soyuz Taxi-Flights
5
Russian Soyuz Taxi-Flights
OdISSea Mission presentation This mission to the
International Space Station using a Russian Soyuz
Taxi-flight was performed by Belgium (Federal
Science Policy) with the support of ESA, RKK
Energia, and NASA. This ten days mission was
launched on October 30th 2002 from Baïkonour and
returned on November 10th 2002 in
Kazakhstan. During this Mission an European
Astronaut of Belgian nationality, Frank De Winne,
member of the European Astronaut Corps of ESA
performed a large scientific programme with the
collaboration of the Russian cosmonauts, Sergei
Zalyotin as commander and Yuri Lonchakov as
flight engineer and of the resident Crew, the
Expedition-5 crew Peggy Whitson, Valeri Korzun,
Sergei Treschev.
6
Russian Soyuz Taxi-Flights
  • Experiments Belgian experiments
  • Experimental programme composed of 24
    experiments
  • Life science (biology, microbiology,
    physiology)
  • Physical science (Fluid Science - diffusion,
    Material Science
  • crystallization, combustion, 4 Microgravity
    Science Glovebox)
  • Earth Science (ionosphere study)
  • Education (physical phenomena in space,
    radio-amateur )
  • 16 under the responsibility of Belgian Principal
    Investigators (PIs)
  • Belgian industry and B-USOC members offered all
    their technological know-how in the design
    definition and development of the experimental
    hardware and software

7
Russian Soyuz Taxi-Flights
International Ground Segment Operations conducted
in the the Russian and American Modules of ISS,
by an ESA crew International operational
ground segment to link involved centres
across Europe, USA and Russia, using the
Decentralized ESA Interconnection Ground
Subnetwork-Phase1
8
Russian Soyuz Taxi-Flights
  • Belgian Ground Segment
  • Three types of communication links used in the
    B-USOC operations control room, hosting most of
    the Belgian PIs
  • ESA IGS (ISDN lines) data, voice and video
    services
  • Internet (VPN) web-based services, backup of
    IGS data and video
  • Telephone network backup of IGS voice
  • Two Belgian User Home Bases (Université Libre de
    Bruxelles and Katholieke Universiteit Leuven
    universities) remotely followed the mission in
    real-time via
  • Internet scientific data and video
  • Telephone network

9
Russian Soyuz Taxi-Flights
OdISSea Ground Segment Infrastructure
10
Russian Soyuz Taxi-Flights
B-USOC Control Room
Console Positions           a Support PI for
Experiment 1 (e.g. Experiment leaders and/or
industrial support)           b PI for
Experiment 1           c B.USOC Science
Coordinator (supported by B.USOC Science
Support)           d PI for Experiment 2
          e Support PI for Experiment 2 (e.g.
Experiment leaders and/or industrial
support)           f B.USOC Ground
Infrastructure Coordinator           g g
B.USOC Operations Coordinators
11
Russian Soyuz Taxi-Flights
  • Belgian Ground Segment
  • Data
  • B-USOC Ground capability composed of IGS and
    Internet connected workstations with all tools
  • MSG experiments telemetry NASA TReK, PACRATS
    and MSG Ground Displays (GD)
  • ISS telemetry, mission/stage timers, AOS/LOS,
    orbit parameters and position
    of Soyuz and ISS NASA WATTS, McsBev
  • Mission planning and procedures ESA CEPP NASA
    EHS applications (as PIMS),
    MPV,
    OSTPV
  • Telecommanding to one PromISS MSG experiment
    NASA TReK and X-windows
    interface to MSFC servers
  • Operation Change Requests (mission timeline,
    crew procedures) exchanges between
    mission
    centres ESA OCMS NASA OCR (in PIMS)
  • E-mails exchanges between operation consoles
    in all Partner Centres
  • For the scientists acquire and further
    process data, install needed applications,
    write reports,
    access web applications
  • UHBs Ground capability Internet workstations
    NASA TReK, PACRATS, MSG GD, ESA CEPP

12
Russian Soyuz Taxi-Flights
  • Belgian Ground Segment
  • Voice
  • NASA HVoDS (HOSC-managed Voice Distribution
    System) connected
  • to the ESA IGS network
  • two keysets at B-USOC for voice conferencing
  • access to Russian Space to Ground voice loop
    via Houston
  • Telephone lines
  • contacts with UHBs and any involved teams
  • backup of the HVoDS system

13
Russian Soyuz Taxi-Flights
  • Belgian Ground Segment
  • Video
  • Relevant mission Scientific, Educational and
    Public Relations video
  • videoconferencing system linked to ESOC IGS
    video matrix (ISDN)
  • Internet to connect to dedicated ESOC
    videostreaming servers
  • Satellite ground terminal allowing reception
    of Eutelsat quality video
  • Belgian UHBs Internet access to ESOC
    videostreaming servers
  • Videostreaming webcams at B-USOC accessed from
  • partner operations centres -
    UHBs - scientists _at_ home -
  • Brussels Planétarium (OdISSea Mission
    Centre for the Belgian public)

14
Russian Soyuz Taxi-Flights
  • Operations
  • International Coordination
  • Specific roles distributed to international
    centres involved in the
  • overall operations NASA ESA RKK Energia
  • MCC-M mission coordination operations,
    planning, crew and vehicle safety on RS
  • MCC-H ISS crew mission operations, ISS
    planning, crew and vehicle safety on USOS
  • MSFC POIC payloads operations on USOS including
    MSG experiments
  • MSFC MSG TSC MSG facility command and control,
    support and troubleshooting, MSG experiments
    tele-operations
  • ESTEC TOCC operations coordination of
    experiments on RS and USOS, interface
  • with MCC-M and
    MSFC-POIC/-MSG TSC
  • EAC medical operations and astronaut support
  • ESOC services related to the operation of IGS
    Phase-1 communication infrastructure

15
Russian Soyuz Taxi-Flights
  • Operations
  • BUSOC accommodated
  • Science Payload Operations Team (B-USOC
    Operation Managers and
  • Science Coordinators) 6 members
  • Main science coordination and operations for
    Belgian experimental program
  • and scientific support to the mission
  • Real pro-active role of B-USOC main authority
    of Belgian experimental
  • program for experiments follow-on,
    troubleshooting, PromISS MSG commanding
  • Ground Infrastructure Team (B-USOC Ground
    Operations Coordinators and
  • Belgian SROC Ground Operations/Telescience
    members) 5 members
  • Overall Belgian ground segment coordination
    and maintenance
  • Public Relations Team (B-USOC and Federal
    Science Policy members)
  • Coordination and implementation of PR for
    Belgian events

16
Russian Soyuz Taxi-Flights
  • Operations
  • Relations with international centres
  • Operations performed with very good coordination
    and collaboration, particularly between B-USOC
    and
  • MSG TSC excellent and efficient performance in
    the recovery of PromISS
  • (activation problem), COSMIC operations
    coordination
  • MSFC POIC coordination of PromISS
    Telecommanding
  • ESTEC TOCC day-to-day coordination (science,
    ground) and operations
  • ESOC efficient monitoring and fast recovery of
    IGS services

17
Russian Soyuz Taxi-Flights
  • Operations
  • Organization and functioning
  • Voice contacts 1 keyset for OMs, 1 for SCs,
    telephone lines for GCs
  • Console positions roles well performed
  • Continuous mission status available (good
    communication, console
  • logs and reports)
  • Shift Operations
  • Main activity cycle (on-console support 14 to 16
    hours/day) driven by
  • Experimental timeline
  • Related crew activity period (defined as Crew
    Wake-up 0830 UTC
  • and Crew Sleep 0000 UTC)

18
Russian Soyuz Taxi-Flights
  • Operations
  • Collaboration with scientists
  • Most of the scientists and industry
    representatives gathered at B-USOC, and excellent
    cooperation during interventions
  • Quasi instantaneous responses during experiment
    manipulations
  • Interactions with partners for procedures
    changes
  • Development of new or recovery procedures
  • Analysis of data and video on the spot with
    upload of 2 correction tables for
  • PromISS and GO / NO GO decision for COSMIC
  • Planning and requests for scientific video
    requirements
  • Discussion with ESA SCs (for Life and Physical
    experiments)
  • Interfaces with UHBs
  • Regular contacts allowed in-depth view of the
    various aspects of the experiment status, and of
    the resolution of issues

19
Russian Soyuz Taxi-Flights
20
Russian Soyuz Taxi-Flights
  • Cervantes Mission
  • Mission performed by Spain (ESA Astronaut Pedro
    Duque) with ESA support (Oct 2003)
  • Large scientific programme 18 experiments
    (with 6 Spanish and 7 Belgian new or
  • re-flights) in the same research fields as
    for OdISSea
  • Almost the same responsibilities for B-USOC
    during the operations
  • Ground Segment re-use of the formerly
    implemented infrastructure
  • Improvements access to MCC-H mission gateway
    (JEDI, STP, EFN) Belgian ULB/MRC UHB has gain
    access to IGS mission quality videos forwarded
    from B-USOC and to the ESA OCMS system and all
    experiments were great successes.
  • Operational team working at B-USOC involved
    people from the Belgian SROC and the Belgian
    KULeuven UHB Ground Operations/Telescience teams.
  • Further opportunity to extend the know-how of the
    Belgian operational community, and to demonstrate
    its ability to be successfully involved in
    real-time operations

21
NASA STS-107 HitchHiker Mission
22
NASA STS-107 HitchHiker Mission
  • SOLCON
  • B-USOC hosted the Belgian Remote SOLCON (Solar
    Constant) Payload Operation and Control Centre
    (POCC)
  • SOLCON implemented in the context of Fast
    Reaction Experiments Enabling Science, Technology
    and Research (FREESTAR), total control from
    ground
  • Mission roles and responsibilities shared
    between international partners JSC Space Shuttle
    Program, GSFC Hitchhiker Project, GSFC Attached
    Shuttle Payload Center, Belgian SOLCON POCC
  • Operational team included the SOLCON PIs, and
    ground infrastructure controllers from both SROC
    and B-USOC
  • Ground segment implemented using both IGS and
    Internet networks for HVoDS, data reception and
    monitoring, commanding, timelines visibility,
    Shuttle tracking
  • SOLCON operation was a very good preparation for
    the future SOLAR Monitoring Observatory
    (SMO) PICARD Mission Centre (TBC)

23
ESA NASA PromISS 3 Mission
PromISS 3
24
ESA NASA PromISS 3 Mission
  • Experiment evolution
  • Digital Holography Interferometric Microscope
    used to study the crystallization of
    proteins in microgravity conditions for a better
    understanding of the fundamental processes
    underlying the crystallization process.
  • PromISS 1 (OdISSea) 10 days mission,
    Preliminary results show that the instrument
    was strongly affected by vibrations and the
    temperature profile of the mission (bad impact
    on the quality of the obtained results)
  • PromISS 2 (Cervantes) upgraded version of
    the FM hardware, 6 PromISS experimental cells
    successfully analyzed with the optical diagnostic
    payload
  • PromISS 3 re-flight of PromISS 2, but with
    an investigation of the experimental cells into
    the Digital Holography Microscope during 30 days
  • Operations
  • First long-term ESA NASA collaboration for an
    experiment on-board ISS
  • B-USOC European responsible centre for
    operations (science follow-on and routine matters
    resolution), with support from NASA MSG TSC, ESA
    ESTEC Operation Centre and ESA ESOC Ground
    Segment Management Centre

25
  • Conclusions
  • Lessons learned
  • OdISSea and Cervantes were first steps in
    coordinating ISS Operations with multiple
    partners across continents, depending on each
    other to reach mission success, with successful
    involvement of National User Support Operations
    Centres
  • OdISSea, Cervantes and PromISS 3 offered a
    remarkable opportunity for all teams to acquire
    understanding of ISS processes, and experience in
    using operational infrastructure and tools that
    are precursor to those currently under
    development to support Columbus payload
    operations
  • The benefit of the participation in Soyuz, STS
    and ISS missions for a user site such as B-USOC
    is a real scenario to understand the issues in
    operating payloads in the ISS environment
    considering that all European payloads in US-Lab
    will be operated in a similar manner
  • This may also provide an observation function
    for Columbus development and Operations teams
    looking for early feedback on ISS and Columbus
    tools utilization

26
Conclusions Future ISS-COLUMBUS activities
ESA Responsibility Decentralization context
FRCs overall responsibility for a payload
facility (full rack/class-1 payload) FSCs
responsibility for a sub-rack/class-2 payload
(e.g. facility insert, experiment
container, drawer payload, a bioreactor) ESCs
responsibility for single experiments, mainly
focusing on science and experiment
operational matters UHBs investigator's
location at the "home" institutes (typically
national institutions as
universities), who need to obtain the adequate
communication and data processing
infrastructure to make real-time data monitoring
and control of their respective
experiment (e.g. for remote operations)
27
Conclusions Future ISS-COLUMBUS activities
28
Conclusions Future ISS-COLUMBUS activities
29
Conclusions Future ISS-COLUMBUS activities
  • USOCs activities
  • Increment preparation phase
  • Ground segment implementation
  • Ground model operations
  • Experiment procedure development
  • Payload and experiment operations optimization
    and calibration
  • Support to crew training activities
  • In-orbit payload operations
  • Receive facility and experiment data
  • Perform, in support of the Columbus Control
    Centre, the operations of the payloads
  • they are responsible for

30
Conclusions Future ISS-COLUMBUS activities
  • Experimental context
  • The European Columbus module accommodation
    capabilities for 10 internal/ pressurized payload
    facilities, and up to four external payload
    facilities In this general Columbus framework,
    B-USOC will assume
  • The management of the FRC for the external Solar
    Monitoring Observatory
  • SOVIM (Royal Meteorological Institute of
    Brussels, Belgium Observatory of DAVOS,
    Switzerland), SOLSPEC (CNRS, France) and SOL-ACES
    (Fraunhofer Institute, Deutschland)
  • In collaboration with the ERASMUS (ESTEC USOC)
    FRC for European Drawer Rack (EDR), the
    management of the FSC for the Protein
    Crystallization Diagnostics Facility (PCDF)
  • The PCDF is a multi-user instrument and is
    candidate for accommodation in the first EDR
    payload complement.

31
Conclusions Future PICARD Microsatellite
activities ?
  • As a potential continuation of the ISS Solar
    scientific program, the PICARD microsatellite
    mission will provide simultaneous measurements of
    the solar diameter, differential rotation and
    solar constant to investigate the nature of their
    relations and variabilities. The PICARD's system
    will use most of the basic components of the CNES
    microsatellite product line.
  • The PICARD mission center (CMP) will be located
    at the Royal Meteorology Institute of Belgium and
    operated by the B-USOC. This center will be
    mainly dedicated to the in orbit operations of
    the payloads and to the supply of calibrated data
    and preliminary scientific results to scientists.
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