ABP Computing Working Group

Slides:



Advertisements
Similar presentations
Configuration management
Advertisements

CLIC TeamMAD-X Day, September 4, 2003 MAD-X for CLIC H. Braun, R. Corsini, T.d’Amico, A. Faus-Golfe, M. Korostelev, S. Redaelli, T. Risselada, D. Schulte,
Introduction Status of SC simulations at CERN
Effective User Services for High Performance Computing A White Paper by the TeraGrid Science Advisory Board May 2009.
SciDAC Accelerator Simulation project: FNAL Booster modeling, status and plans Robert D. Ryne, P. Spentzouris.
3.08 b Determine venture’s information technology.
Wednesday Working Group Topics 1.Collaboratory Development: –Community issues, workshops, cross-disciplinary communications, development of cross-program.
PS Booster Studies with High Intensity Beams Magdalena Kowalska supervised by Elena Benedetto Space Charge Collaboration Meeting May 2014.
Fast scrubbing optimization: e- cloud maps C. Octavio Domínguez Thanks to G. Iadarola, G. Rumolo, F. Zimmermann 15 February e - cloud meeting.
Consultant Advance Research Team. Outline UNDERSTANDING M&E DATA NEEDS PEOPLE, PARTNERSHIP AND PLANNING 1.Organizational structures with HIV M&E functions.
Computing Performance Recommendations #10, #11, #12, #15, #16, #17.
Proposal for a Global Network for Beam Instrumentation [BIGNET] BI Group Meeting – 08/06/2012 J-J Gras CERN-BE-BI.
Panel Discussion on Single Particle Codes 1.Catalogue of existing codes 2.Transparency of input and output between different codes: what is the status.
Geant4 is a toolkit to simulate the passage of particles through matter, and is widely used in HEP, in medical physics and for space applications. Ongoing.
CERN - IT Department CH-1211 Genève 23 Switzerland t Operating systems and Information Services OIS Proposed Drupal Service Definition IT-OIS.
Main activities and news from the Impedance working group.
Mahindra Satyam Confidential Quality Management System Software Defect Prevention.
Ion effects in low emittance rings Giovanni Rumolo Thanks to R. Nagaoka, A. Oeftiger In CLIC Workshop 3-8 February, 2014, CERN.
Info-Tech Research Group1 Info-Tech Research Group, Inc. is a global leader in providing IT research and advice. Info-Tech’s products and services combine.
Managed by UT-Battelle for the Department of Energy Python ORBIT in a Nutshell Jeff Holmes Oak Ridge National Laboratory Spallation Neutron Source Space.
The Cockroft Institute
ARIES WP2 Task 2.2 kick-off Coordination, support and enhancement of communication/outreach activities for accelerators in Europe Jennifer Toes (CERN),
8 Principles of Effective Documentation.
SharePoint 101 – An Overview of SharePoint 2010, 2013 and Office 365
Partners – MaaS360 Portal Management
Software Project Configuration Management
Request-to-Resolve Scenario Overview
Demand Planning Scenario Overview
ICE SECTION The coolest place to be! Elias Métral
OAS Requirements Experience
Modelling of diagnostics for the ISIS ring
WORK PROGRAMME to support the implementation of the Recommendation
People who attended the meeting:
Chapter 11: Software Configuration Management
Overview of Needs for SixTrack on-line Aperture Check
Coursework: The Use of Generic Application Software for Task Solution
Brief introduction to the Injector MD days
FASTION L. Mether, G. Rumolo ABP-CWG meeting
CERN R&D plans and Infrastructures
Intercompany Project Time and Expenses Scenario Overview
Workshop format and scope Expected write-up's Follow-up actions
Organization and Knowledge Management
A Short Course on Geant4 Simulation Toolkit How to learn more?
HIGHLIGHTS OF LAST MONTHS OF HSS ACTIVITIES
LIU, ABP-CWG, PBC, miscellaneous
THE STEPS TO MANAGE THE GRID
Upgrade Strategy for the Experimental Vacuum Systems
Principles of Effective Documentation
Request-to-Resolve Scenario Overview
The COG “Cookbook” Course Lesson 1 - Introduction to COG Basics
Unit4 Customer Portal Submitting & Managing Cases.
Chapter 12: Automated data collection methods
Governance Assistant for Office365
Customer Contract Management Scenario Overview
Relate to Clients on a business level
Demand Planning Scenario Overview
Request-to-Resolve Scenario Overview
SISAI STATISTICAL INFORMATION SYSTEMS ARCHITECTURE AND INTEGRATION
Expense Reimbursement Scenario Overview
Chapter 11: Software Configuration Management
Customer Contract Management Scenario Overview
Adult Education Survey : recommendations of the TF AES
A Short Course on Geant4 Simulation Toolkit How to learn more?
A Short Course on Geant4 Simulation Toolkit How to learn more?
Request-to-Resolve Scenario Overview
Define Your IT Strategy
Cases Admin Training.
Introduce myself & around table
Software Re-engineering and Reverse Engineering
Palestinian Central Bureau of Statistics
Presentation transcript:

ABP Computing Working Group X Buffat, L. Deniau, G. Iadarola, G. Rumolo Home page: https://twiki.cern.ch/twiki/bin/view/ABPComputing/WebHome Composition and mandate: https://twiki.cern.ch/twiki/bin/view/ABPComputing/Mandate ABP Information meeting, 01/09/2016

Preamble In the ABP Group, computational aspects are spread through all sections at different levels and for diverse applications, with core expertise in Establishment of models, in-house development and wide use of advanced optics and beam dynamics simulation codes Optics, lattice design, single particle tracking with nonlinearities, apertures, collimators, etc. (MAD-X, SixTrack, MapClass, TRAIN) Multi-particle tracking in presence of space charge, impedance sources, electron cloud, ions, beam-beam, IBS (PyHEADTAIL, COMBI, FASTION, SIRE) Multi-particle tracking suited for linear machines (Placet, PATH) Vlasov solvers for collective effects (DELPHI) In-house modeling and development, or use, of codes for specific CERN applications and interfacing them to (our) beam dynamics codes Calculations of beam coupling impedances and wake potentials (e.g. ImpedanceWake2D, CST Particle Studio, HFSS) Calculation of electron cloud formation (PyECLOUD) Modeling of sources (plasma generation, extraction, IBSimu) Calculation of space charge forces with or without tracking (PyORBIT, PATH) In-house development of handy tools to enable or facilitate machine data extraction, treatment, analysis (for all CERN accelerators)

Preamble In the ABP Group, computational aspects are spread through all sections at different levels and for diverse applications, with core expertise in Establishment of models, in-house development and wide use of advanced optics and beam dynamics simulation codes Optics, lattice design, single particle tracking with nonlinearities, apertures, collimators, etc. (MAD-X, SixTrack, MapClass) Multi-particle tracking in presence of space charge, impedance sources, electron cloud, ions, beam-beam, IBS (PyHEADTAIL, COMBI, FASTION, TRAIN, SIRE) Multi-particle tracking suited for linear machines (Placet) Vlasov solvers for collective effects (DELPHI) In-house modeling and development, or use, of codes for specific CERN applications and interfacing them to (our) beam dynamics codes Calculations of beam coupling impedances and wake potentials (e.g. ImpedanceWake2D, CST Particle Studio, HFSS) Calculation of electron cloud formation (PyECLOUD) Modeling of sources (ask D. Küchler, S. Mattei) Calculation of space charge forces with or without tracking (PyORBIT, PATH) In-house development of handy tools to enable or facilitate machine data extraction, treatment, analysis (for all CERN accelerators) Many of these in-house developed codes are used not only within ABP – but CERN-wide and even world-wide (MAD-X, SixTrack, PyHEADTAIL, PyECLOUD, ImpedanceWake2D, Placet, PATH) The outcomes of these codes are also what ABP often interfaces itself with the ‘external world’ Wherefrom a desire to ensure robustness of what we export (codes and results) by providing a dedicated attention to this ABP core activity Apart from MAD-X, which has a long history of dedicated maintenance and module developers/keepers, etc. most of the other codes have been born and have grown rather randomly - mainly based on the good will of individuals to develop and disseminate properly The outcomes of these codes are also what ABP often interfaces itself with the ‘external world’  we usually design, predict, interpret, suggest changes or simply reply to requests concerning beam dynamics aspects based on our simulations, …

Some generic goals that would motivate the existence of an ABP Computing Working Group To guarantee continuity and further development of computing expertise concerning (directly or indirectly) beam dynamics To help newcomers with Straightforward guidelines to set up their computing environment and get quickly started into their assignments Complete information on the hardware resources they can rely on To help developers build on existing bricks and avoid typical mistakes, repetitions and duplications of tasks To facilitate the cross-talk between different activities within beam dynamics and collect their – separate and common – needs To identify synergies with needs of other groups/departments and liaise to the management and IT department

Possible means of the ABP Computing Working Group Common and maintained platform to share information about Existing software used/developed within ABP and responsible people, guidelines to install and use it Existing hardware resources to both run the above programs and further develop, guidelines to obtain accounts and configure efficient working environments Existing (planned or ongoing) projects to extend any of the above Internal forum for an open discussion about Arising computing matters (e.g. reports from ITUM meetings, IT news) Present status and development of the existing codes – fostering collaborations or combined efforts between different activities Physics cases covered and those requiring the extension of any of the existing tools, leading to their prioritization driven by CERN needs but also in a broader context of improving our understanding and making our modeling robust Identification of needs for upgrades of the software/hardware resources on the medium and long term Links with IT for feedback/information exchange (ITUM, specific link-person) and with other groups within ATS sector for collaboration/synergy

Mandate of the ABP Computing Working Group

Wiki page of the ABP Computing Working Group

Wiki page of the ABP Computing Working Group Beam Physics Software Tools Based on Laurent’s survey in 2014, however list might be incomplete, so invite people to add items (if appropriate) Also code responsibles are required to edit their codes (template available, just need to fill in the different fields). Code responsibles will be invited to present in the dedicated meetings

Wiki page of the ABP Computing Working Group

Wiki page of the ABP Computing Working Group Computing Resources

Wiki page of the ABP Computing Working Group

Indico site the ABP Computing Working Group meetings

Indico site the ABP Computing Working Group meetings

Summary Development of beam dynamics codes is a core activity of ABP in constant evolution, there is a clear need to Collect information on status quo and make it available Reduce and optimise efforts for developers to make further contributions Identify and prioritise needs for SW/HW upgrades + put forward a medium-long term strategy in terms of resources ABP Computing Working Group (ABP-CWG) has the mandate to follow up on these items. First and next steps Wiki page under development. Structure ready, awaits input from contributors E-groups: A restricted one (abp-cwg-exp@cern.ch) with core members (mainly large scale developers), who commit to provide support and ‘expert advice’ A broad one (abp-cwg@cern.ch) with open self-subscription policy for general announcements, relevant news, invitations to meetings  Please subscribe Bi-weekly meetings (Indico page) kicking off next month to discuss computing matters + review codes, needs and perspectives Expect to take 10-12 months to go through all the codes Summer 2017 could be about the time to report in detail the ABP-CWG activity with outcomes and recommendations – with intermediate/steering reports

abp-cwg-exp LHC 8:30 meeting