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Dive into the research topics where M. Brodski is active.

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Featured researches published by M. Brodski.


Journal of Instrumentation | 2012

A development environment for visual physics analysis

H. P. Bretz; M. Brodski; M. Erdmann; Robert Fischer; A. Hinzmann; T. Klimkovich; D. Klingebiel; M Komm; J. Lingemann; G. Müller; Thomas Münzer; M. Rieger; J. Steggemann; T. Winchen

The Visual Physics Analysis (VISPA) project integrates different aspects of physics analyses into a graphical development environment. It addresses the typical development cycle of (re-)designing, executing and verifying an analysis. The project provides an extendable plug-in mechanism and includes plug-ins for designing the analysis flow, for running the analysis on batch systems, and for browsing the data content. The corresponding plug-ins are based on an object-oriented toolkit for modular data analysis. We introduce the main concepts of the project, describe the technical realization and demonstrate the functionality in example applications.


Proceedings of 13th International Workshop on Advanced Computing and Analysis Techniques in Physics Research — PoS(ACAT2010) | 2011

Visual Physics Analysis - Applications in High Energy and Astroparticle Physics

A. Hinzmann; M. Brodski; M. Erdmann; Robert Fischer; T. Klimkovich; D. Klingebiel; Matthias Komm; Gero Mueller; Thomas Muenzer; J. Steggemann; T. Winchen

VISPA (Visual Physics Analysis) is a development environment to support physicists in prototyping, execution, and verification of data analysis of any complexity. The key idea of VISPA is to develop physics analyses using a combination of graphical and textual programming. In VISPA, a multipurpose window provides visual tools to design and execute modular analyses, create analysis templates, and browse physics event data at different steps of an analysis. VISPA aims at supporting both experiment independent and experiment specific analysis steps. It is therefore designed as a portable analysis framework for Linux, Windows and MacOS, with its own data format including physics objects and containers, thus allowing convenient transport of analyses between different computers. All components of VISPA are designed for straightforward integration with experiment specific software to enable physics analysis with the same graphical tools. VISPA has proven to be an easy-to-use and flexible development environment in high energy physics as well as in astroparticle physics analyses.


Journal of Physics: Conference Series | 2010

Visual physics analysis VISPA

Oxana Actis; M. Brodski; M. Erdmann; Robert Fischer; A. Hinzmann; T. Klimkovich; G. Müller; Thomas Münzer; M. Plum; J. Steggemann; T. Winchen

VISPA is a development environment for high energy physics analyses which enables physicists to combine graphical and textual work. A physics analysis cycle consists of prototyping, performing, and verifying the analysis. The main feature of VISPA is a multipurpose window for visual steering of analysis steps, creation of analysis templates, and browsing physics event data at different steps of an analysis. VISPA follows an experiment-independent approach and incorporates various tools for steering and controlling required in a typical analysis. Connection to different frameworks of high energy physics experiments is achieved by using different types of interfaces. We present the look-and-feel for an example physics analysis at the LHC and explain the underlying software concepts of VISPA.


Journal of Physics: Conference Series | 2011

Visual Physics Data Analysis in the Web Browser

M. Brodski; M. Erdmann; Robert Fischer; A. Hinzmann; T. Klimkovich; D. Klingebiel; M Komm; G. Müller; J. Steggemann; T. Winchen

The project VISPA@WEB provides a novel graphical development environment for physics analyses which only requires a standard web browser on the client machine. It resembles the existing analysis environment available from the project Visual Physics Analysis VISPA, including the connection and configuration of modules for different tasks. High level logic can be programmed using the Python language, while performance-critical tasks can be implemented in C++ modules. The use cases range from simple teaching examples to highly complex scientific analyses.


Proceedings of European Physical Society Europhysics Conference on High Energy Physics — PoS(EPS-HEP 2009) | 2010

VISPA - Visual Physics Analysis on Linux, Mac OS X and Windows

T. Winchen; M. Erdmann; M. Brodski; Robert Fischer; A. Hinzmann; T. Klimkovich; Gero Mueller; J. Steggemann; Thomas Münzer

The VISPA programm supports particle physicists and astroparticle physicists in their data analysis projects. VISPA combines elements off graphical and textual programming to enable fast development cycles of physics analyses. c Copyright owned by the author(s) under the terms of the Creative Commons Attribution-NonCommercial-ShareAlike Licence.


PoS | 2009

VISPA: Visual physics analysis on Linux, Mac OS X and Windows

T. Winchen; A. Hinzmann; Thomas Münzer; J. Steggemann; Robert Fischer; G. Müller; M. Brodski; T. Klimkovich; M. Erdmann

The VISPA programm supports particle physicists and astroparticle physicists in their data analysis projects. VISPA combines elements off graphical and textual programming to enable fast development cycles of physics analyses. c Copyright owned by the author(s) under the terms of the Creative Commons Attribution-NonCommercial-ShareAlike Licence.


arXiv: High Energy Physics - Experiment | 2018

Angular moments of the decay

R. Aaij; B. Adeva; M. Adinolfi; C. Aidala; Z. Ajaltouni; S. Akar; Pietro Albicocco; J. Albrecht; F. Alessio; M. Alexander; A. Alfonso Albero; S. Ali; Georgy Alkhazov; P. Alvarez Cartelle; A. A. Alves; S. Amato; S. Amerio; Y. Amhis; L. An; L. Anderlini; G. Andreassi; M. Andreotti; J. E. Andrews; R. B. Appleby; F. Archilli; Philippe d'Argent; J. Arnau Romeu; A. Artamonov; M. Artuso; Kenenbek Arzymatov


arXiv: High Energy Physics - Experiment | 2018

\Lambda_b^0 \rightarrow \Lambda \mu^{+} \mu^{-}

R. Aaij; B. Adeva; M. Adinolfi; C. Aidala; Z. Ajaltouni; S. Akar; Pietro Albicocco; J. Albrecht; F. Alessio; M. Alexander; A. Alfonso Albero; S. Ali; Georgy Alkhazov; P. Alvarez Cartelle; A. A. Alves; S. Amato; S. Amerio; Y. Amhis; L. An; L. Anderlini; G. Andreassi; M. Andreotti; J. E. Andrews; R. B. Appleby; F. Archilli; Philippe d'Argent; J. Arnau Romeu; A. Artamonov; M. Artuso; Kenenbek Arzymatov

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M. Erdmann

RWTH Aachen University

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T. Winchen

Vrije Universiteit Brussel

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G. Müller

RWTH Aachen University

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