Paper |
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Other Keywords |
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MOPIK126 |
Establishing a Project Management Office for the Large Scale Multi Project FAIR |
site, controls, interface, operation |
835 |
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- F. Becker, S. Deveaux, A. Fröhlich, G. Hickler, M. Lautenschläger, M. Raponi, B. Schoenfelder, M. Strangmann, N. Winters
GSI, Darmstadt, Germany
- J.R. Regler, D. Urner
FAIR, Darmstadt, Germany
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The Facility for Antiproton and Ion Research (FAIR) is a large scale multi project comprising 10 subprojects in the field of accelerators (pLINAC, SIS100, SuperFRS, p-bar Separator, Collector Ring, High Energy Storage Ring), experiments (CBM, APPA, NUSTAR, PANDA) and civil construction. This contribution describes an integrated approach how a controlling type project management office (PMO) was established, meeting the overall requirements for project steering and specific requirements of the subprojects and international partners involved. Major responsibilities of the PMO are project planning, integrated reporting, cost and budget control, risk management, in-kind coordination & procurement, quality assurance & configuration management. Core processes, roles and responsibilities, methodology and interfaces internally and towards the project pillars are presented.
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DOI • |
reference for this paper
※ https://doi.org/10.18429/JACoW-IPAC2017-MOPIK126
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MOPIK127 |
FAIR Risk Management as a Proactive Steering Tool for the Large Scale Multi Project |
factory, experiment, antiproton, ion |
839 |
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- S. Deveaux, F. Becker
GSI, Darmstadt, Germany
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The Facility for Antiproton and Ion Research (FAIR) is a large scale multi project comprising 10 subprojects in the field of accelerators (pLINAC, SIS100, SuperFRS, p-bar separator, Collector Ring, High Energy Storage Ring), experiments (CBM, APPA, NUSTAR, PANDA) and civil construction. This contribution describes the implementation of a progressive risk management methodology based on a comprehensive assessment on work package level. Complexity factors (number of parts, level of state of the art, level of human interfaces, level of operational complexity) and importance factors (safety, cost, schedule, resources) represent the likelihood of risk occurrence and the eventual value at risk. Relative comparison of the normalized factors together with a supplier assessment enables to derive an event based risk register with a standardized evaluation scheme assigning risk and opportunity classes. This contribution demonstrates the full methodology highlighting some typical examples of the FAIR project.
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DOI • |
reference for this paper
※ https://doi.org/10.18429/JACoW-IPAC2017-MOPIK127
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MOPIK128 |
Integrated Project Planning as a Central Steering Tool for the Large Scale Multi Project FAIR |
experiment, status, site, controls |
842 |
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- N. Winters, F. Becker, M.V. Ricciardi
GSI, Darmstadt, Germany
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The Facility for Antiproton and Ion Research (FAIR) is a large scale multi project comprising 10 subprojects in the field of accelerators (pLINAC, SIS100, SuperFRS, p-bar, CR, HESR), experiments (CBM, APPA, NUSTAR, PANDA) and civil construction. This contribution describes the fundamental revamp of FAIR integrated project planning. Main objective is to preserve the advantages of a bottom-up planning topology with the actual and detailed level of information keeping the ~400 work package leader's central role as plan owners in their field of responsibility. Simultaneously different project phases (e.g. civil construction, procurement, installation, commissioning) need to be excluded from detailed plans while being re-integrated in the level-1 project master schedule. Additional cost profiles and resource assignment by name allow a progress tracking and flexible project steering.
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DOI • |
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※ https://doi.org/10.18429/JACoW-IPAC2017-MOPIK128
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WEPAB018 |
Engineering Collaboration Experience at the European XFEL |
database, distributed, monitoring, controls |
2604 |
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- L. Hagge, M. Hüning, J. Kreutzkamp
DESY, Hamburg, Germany
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The construction of the European XFEL involved a huge internationally distributed and inter-disciplinary engineering effort. This paper discusses examples for good engineering practices which have been successfully developed and applied in the construction of the European XFEL. It addresses appropriate combination of de-/central activities in design collaboration and integration; the use of manufacturing bills of materials for coordinating and tracking contributions, as well as for clarifying responsibilities; the right amount of reviews for keeping activities in synch; some specific needs of and measures for in-kind collaboration; and general methods, tools and practices and spirit for efficient communication and collaboration.
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DOI • |
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※ https://doi.org/10.18429/JACoW-IPAC2017-WEPAB018
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