Applications guide to the MORSE Monte Carlo code

Cramer, S.N.

doi:10.2172/5219194

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Cobalt-60 Calculations1

Review Of Geant and Calor891

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1988

2022

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Cited by 7 publications

(2 citation statements)

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“…The effect of a sample's environment on cobalt activation within the sample was determined by the use of adjoint neutron-transport calculations (Cramer, 1985). Based on a mass density of 2.3 g cm from the report by the Joint Commission (1951, Vol.…”

Section: Cobalt-60 Calculationsmentioning

confidence: 99%

Activation of cobalt by neutrons from the Hiroshima bomb

Kerr¹,

Dyer²,

Emery³

et al. 1990

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Section: Cobalt-60 Calculationsmentioning

confidence: 99%

Activation of cobalt by neutrons from the Hiroshima bomb

Kerr¹,

Dyer²,

Emery³

et al. 1990

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“…35 CALOR89 provides a more detailed lowenergy treatment of hadronic processes, especially neutron transport, which is of interest in the prediction of hadronic calorimeter resolutions. It uses HETC with FLUKA 34 for general hadronic transport, MORSE 36 for neutrons with energy below 20 MeV, and EGS 37 for electromagnetic particles. CALOR89 contains its own geometry, tracking and physics packages similar in concept to those of GEANT.…”

Section: Review Of Geant and Calor89mentioning

confidence: 99%

Simulations of supercollider physics

et al. 1997

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The Standard Model of particle physics makes it possible to simulate complete events for physics signatures and their backgrounds in high energy collisions. Knowledge of how the produced particles interact with the materials in a detector makes it possible to simulate the response of any particular detector design to these events and so determine whether the detector could observe the signal. The combination of these techniques has played an important role in the design of new detectors, particularly those for hadron supercolliders where the high rates and small signal cross sections make the experiments very difficult. The technique is reviewed here and illustrated using the simulations of the GEM detector proposed for the Superconducting Super Collider. Although the simulations and results described here are somewhat detector-specific, we believe that they can serve as a useful model for this component of detector design for future hadron supercolliders.

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Transport error estimation using residual Monte Carlo

Vermaak

Morel

2022

Journal of Computational Physics

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Applications guide to the MORSE Monte Carlo code

Cited by 7 publications

References 10 publications

Activation of cobalt by neutrons from the Hiroshima bomb

Activation of cobalt by neutrons from the Hiroshima bomb

Simulations of supercollider physics

Transport error estimation using residual Monte Carlo

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