This is a limited subset of the data used for training in arXiv:2005.05334. The network architectures and instructions to generate more data are available at here. Electromagnetic calorimeter for the ILD consists of 30 active silicon layers in a tungsten absorber stack with 20 layers of 2.1 mm followed by 10 layers of 4.2 mm thickness respectively. We project the sensors onto a rectangular grid of 30×30×30 cells. Each cell in this grid corresponds to exactly one sensor, resulting in total of 27k channels. The file has the following structure: Group named 30x30 energy : Dataset {1000, 1} layers : Dataset {1000, 30, 30, 30} The energy specifies the true energy of the incoming photons in unit...
High Energy Physics simulation typically involves Monte Carlo method. Today >50% of WLCG resources a...
The future need of simulated events for the LHC experiments and their High Luminosity upgrades, is e...
Accurate simulation of physical processes is crucial for the success of modern particle physics. How...
Each HDF5 file contains energy deposits (shower images) created by electrons in one of the two calor...
Dataset of photon showers in the Si-W ILD Electromagnetic calorimeter, consisting of 30 layers of ac...
Each file is a collection of 500,000 (or 400,000 in the case of pions) calorimeter showers correspon...
Each HDF5 file has the following structure: energy Dataset {100000, 1} layer_0 Dataset {100000...
We explore the use of normalizing flows to emulate Monte Carlo detector simulations of photon shower...
The MAPS (Monolithic Active Pixel Sensors) prototype of the proposed ALICE Forward Calorimeter (FoCa...
These are the calorimeter showers that were used to train and evaluate the normalizing flows of "Cal...
Simulations of particle showers in calorimeters are computationally time-consuming, as they have to ...
Prototypes of electromagnetic and hadronic imaging calorimeters developed and operated by the CALICE...
AbstractThe CALICE collaboration develops highly granular calorimeter prototypes to evaluate technol...
CALICE collaboration is developing highly granular calorimetry for the future ILD detector. Usage of...
Abstract. The CALICE collaboration has constructed highly granular electromagnetic and hadronic calo...
High Energy Physics simulation typically involves Monte Carlo method. Today >50% of WLCG resources a...
The future need of simulated events for the LHC experiments and their High Luminosity upgrades, is e...
Accurate simulation of physical processes is crucial for the success of modern particle physics. How...
Each HDF5 file contains energy deposits (shower images) created by electrons in one of the two calor...
Dataset of photon showers in the Si-W ILD Electromagnetic calorimeter, consisting of 30 layers of ac...
Each file is a collection of 500,000 (or 400,000 in the case of pions) calorimeter showers correspon...
Each HDF5 file has the following structure: energy Dataset {100000, 1} layer_0 Dataset {100000...
We explore the use of normalizing flows to emulate Monte Carlo detector simulations of photon shower...
The MAPS (Monolithic Active Pixel Sensors) prototype of the proposed ALICE Forward Calorimeter (FoCa...
These are the calorimeter showers that were used to train and evaluate the normalizing flows of "Cal...
Simulations of particle showers in calorimeters are computationally time-consuming, as they have to ...
Prototypes of electromagnetic and hadronic imaging calorimeters developed and operated by the CALICE...
AbstractThe CALICE collaboration develops highly granular calorimeter prototypes to evaluate technol...
CALICE collaboration is developing highly granular calorimetry for the future ILD detector. Usage of...
Abstract. The CALICE collaboration has constructed highly granular electromagnetic and hadronic calo...
High Energy Physics simulation typically involves Monte Carlo method. Today >50% of WLCG resources a...
The future need of simulated events for the LHC experiments and their High Luminosity upgrades, is e...
Accurate simulation of physical processes is crucial for the success of modern particle physics. How...