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Interactive Web-Based Visualization of Multidimensional Physical and Astronomical Data.
Faruk Diblen1, Luc Hendriks2,3, Bob Stienen2
1Netherlands eScience Center, Amsterdam, Netherlands.
Frontiers in Big Data
|July 12, 2021
Summary
This study suggests using scientific repositories like Zenodo and HEP data for multiparametric physical model analysis. Interactive visualizations aid in rapid data reanalysis and comparison for various physics models.
Area of Science:
- Physics
- Data Science
- Scientific Computing
Background:
- Scientific data repositories are crucial for research reproducibility and collaboration.
- Analyzing multiparametric solutions in physical models often requires extensive computational resources and specialized tools.
- Current methods for reanalyzing and comparing phenomenological data can be time-consuming and lack interactivity.
Purpose of the Study:
- To propose the expanded utilization of scientific repositories (e.g., Zenodo, HEP data) for studying multiparametric solutions in physical models.
- To demonstrate the benefits of interactive web-based visualizations for efficient data reanalysis and comparison.
- To showcase practical applications in areas like dark matter, supersymmetry, and LHC simulations.
Main Methods:
- Leveraging existing scientific data repositories for hosting and accessing multiparametric model data.
- Developing and implementing interactive web-based visualization tools for data exploration.
- Applying the proposed framework to specific case studies in particle physics and cosmology.
Main Results:
- Demonstrated feasibility of using repositories for multiparametric physical model data.
- Interactive visualizations significantly enhance the speed and ease of data reanalysis.
- Successful application to dark matter models, supersymmetry exclusions, and LHC simulations, providing valuable insights.
Conclusions:
- Expanded use of scientific repositories coupled with interactive visualizations offers a powerful approach for studying complex physical models.
- This methodology improves accessibility, reanalysis capabilities, and collaborative potential in physics research.
- The presented examples highlight the broad applicability and effectiveness of the proposed framework.
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