
Lukas Cernusak contributed to the AliceO2Group/O2Physics repository by developing advanced features for particle correlation analysis in high energy physics. He implemented configurable filtering for lone pT-bin triggers, long-range correlation tasks parameterized by pseudorapidity, and new processes for MFT-TPC and FV0-TPC correlations, each enhancing the precision and flexibility of data analysis workflows. Using C++ and scientific computing techniques, Lukas focused on reducing noise, improving data accessibility, and enabling richer correlation studies. His work included both feature development and critical bug fixes, demonstrating a thorough approach to software configurability, data analysis tooling, and reliable, reproducible scientific results.
March 2026 Monthly Summary for AliceO2Group/O2Physics focusing on business value and technical achievements. Delivered new FV0-TPC correlations capability and fixed critical configuration-related bug to stabilize event counting, enhancing the physics analysis workflow and data quality.
March 2026 Monthly Summary for AliceO2Group/O2Physics focusing on business value and technical achievements. Delivered new FV0-TPC correlations capability and fixed critical configuration-related bug to stabilize event counting, enhancing the physics analysis workflow and data quality.
February 2026: Key features delivered in AliceO2Group/O2Physics to improve data processing flexibility and analysis capabilities. Major achievements include a configurable skip option for all-particle MC data in diHadron correlation analysis and a new MFT-TPC flow correlation process with configurable MFT track selection and updated histogram registrations. There were no explicit major bugs fixed this month. Impact: reduces unnecessary MC data processing, speeds up workflows, and enables richer flow studies with MFT-TPC. Skills demonstrated: software configurability, pipeline extension, data analysis tooling, and meticulous commit-level traceability.
February 2026: Key features delivered in AliceO2Group/O2Physics to improve data processing flexibility and analysis capabilities. Major achievements include a configurable skip option for all-particle MC data in diHadron correlation analysis and a new MFT-TPC flow correlation process with configurable MFT track selection and updated histogram registrations. There were no explicit major bugs fixed this month. Impact: reduces unnecessary MC data processing, speeds up workflows, and enables richer flow studies with MFT-TPC. Skills demonstrated: software configurability, pipeline extension, data analysis tooling, and meticulous commit-level traceability.
December 2025 monthly summary for O2Physics: Implemented a new long-range correlation analysis task parameterized by pseudorapidity (eta), enabling more sophisticated correlation studies in particle collisions. Updated output data model to include the eta values of FT0 detectors, facilitating richer particle correlation analyses and downstream integrations.
December 2025 monthly summary for O2Physics: Implemented a new long-range correlation analysis task parameterized by pseudorapidity (eta), enabling more sophisticated correlation studies in particle collisions. Updated output data model to include the eta values of FT0 detectors, facilitating richer particle correlation analyses and downstream integrations.
Month: 2025-11. Summary focusing on key accomplishments for AliceO2Group/O2Physics: Delivered a configurable filtering feature for lone pT-bin triggers in particle correlation analysis, enabling the skip of correlating trigger and associated tracks that are alone in their respective pT bins. This reduces noise and focuses analysis on relevant particle correlations. The change is implemented via a new configuration option and is associated with a single commit that adds this capability.
Month: 2025-11. Summary focusing on key accomplishments for AliceO2Group/O2Physics: Delivered a configurable filtering feature for lone pT-bin triggers in particle correlation analysis, enabling the skip of correlating trigger and associated tracks that are alone in their respective pT bins. This reduces noise and focuses analysis on relevant particle correlations. The change is implemented via a new configuration option and is associated with a single commit that adds this capability.

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