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Operation of the prospective beamline calorimeter in the high-radiation forward environment of the international linear collider

机译:在国际直线对撞机高辐射前向环境中预期束线量热仪的运行

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Results on electromagnetically-induced radiation damage to silicon diode sensors, obtained from the T506 experiment at SLAC, are used in concert with detailed shower simulations to project the effects of radiation damage on the proposed International Linear Collider Beamline Calorimeter (BeamCal) detector system. The study makes use of the FLUKA Monte Carlo to simulate electromagnetic showers in both the T506 apparatus and the prospective BeamCal detector system. Under the conservative assumption that damage leading to sensor leakage currents is dominated by the neutron component of the electromagnetic shower, and assuming that resulting leakage currents depend linearly on neutron fluence, the power consumption required to operate the BeamCal detector at a temperature of−10°C would be expected to increase by approximately 100 W per year of operation. Lowering the operating temperature to−30°C would be expected to reduce the growth in power consumption to approximately 10 W per year. Under other assumptions about the source of damage, the accumulated power draw would be expected to be significantly less. Results on fluences of both electromagnetic and hadronic particles in regions peripheral to the bulk of the BeamCal detector system, where front-end electronics would be mounted, are also presented.
机译:从SLAC的T506实验获得的对硅二极管传感器的电磁感应辐射损伤的结果与详细的淋浴模拟一起使用,以预测辐射损伤对拟议中的国际线性对撞机束线热量计(BeamCal)检测器系统的影响。该研究利用FLUKA蒙特卡罗模拟T506设备和预期的BeamCal检测器系统中的电磁阵雨。在保守的假设下,导致传感器泄漏电流的损坏主要由电磁辐射的中子成分决定,并且假设产生的泄漏电流线性依赖于中子注量,因此在-10°C的温度下操作BeamCal检测器所需的功耗C预计每年将增加约100 W的运行。将工作温度降低到−30°C可以预期将功耗的增长减少到每年约10W。在关于损坏源的其他假设下,预计累计功耗将大大减少。还介绍了在BeamCal检测器系统的大部分外围区域(安装了前端电子设备)对电磁和强子粒子的注量的结果。

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