Simulation of Crater’s Formation Mechanism on Target GH3536 Surface Irradiated by High Intensity Pulsed Ion Beams

Chun Li Mo; Chen Yuan Wang

doi:10.4028/www.scientific.net/AMR.250-253.3630

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Study on the Effects of Natural Pozzolan and Limestone Powder on Mechanical Properties of Roller Compacted Concrete Pavements
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The Research of Navigation Flow Conditions and Improvement Measures on Entrance Area and Connecting Reach of Dahua Lock in Hongshui River
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Simulation of Crater’s Formation Mechanism on Target GH3536 Surface Irradiated by High Intensity Pulsed Ion Beams
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Numerical Simulation of Single Box Floating Breakwater in Time Domain
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The Integrative Application of GAHP and FCE Method in Real Estate Investment Decision
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Study on the Investment Options Worth and Decision of Real Estate Enterprise under Limited Investment Time Limited
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Evaluating on the Skid Resistance of the Aggregates Based on Mineralogy
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HomeAdvanced Materials ResearchAdvanced Materials Research Vols. 250-253Simulation of Crater’s Formation Mechanism on...

Simulation of Crater’s Formation Mechanism on Target GH3536 Surface Irradiated by High Intensity Pulsed Ion Beams

Abstract:

Body Heat Flux Mode characterised by Element Birth and Death method is built to simulate the thermal effect of target GH3536 irradiated by HIPIB with different energy parameters using the FEM (Finite Element Method) software. The thermal data of the metal surface irradiated by HIPIB is obtained. The simulated result has proved that the explosive eruption of the inner surface is the dominant mechanism of the formation of dense craters with large sizes when the ion current energy input is high.