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Internal alignment and position resolution of the silicon tracker of DAMPE determined with orbit data

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arxiv 1712.02739 v2 pith:DHUHODEA submitted 2017-12-07 physics.ins-det

classification physics.ins-det
keywords alignmentdampesilicontrackercosmic-raydeterminedinternallayers
verification ladder T0 review T1 audit T2 compute T3 formal
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abstract

The DArk Matter Particle Explorer (DAMPE) is a space-borne particle detector designed to probe electrons and gamma-rays in the few GeV to 10 TeV energy range, as well as cosmic-ray proton and nuclei components between 10 GeV and 100 TeV. The silicon-tungsten tracker-converter is a crucial component of DAMPE. It allows the direction of incoming photons converting into electron-positron pairs to be estimated, and the trajectory and charge (Z) of cosmic-ray particles to be identified. It consists of 768 silicon micro-strip sensors assembled in 6 double layers with a total active area of 6.6 m$^2$. Silicon planes are interleaved with three layers of tungsten plates, resulting in about one radiation length of material in the tracker. Internal alignment parameters of the tracker have been determined on orbit, with non-showering protons and helium nuclei. We describe the alignment procedure and present the position resolution and alignment stability measurements.

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  1. Observation of a spectral hardening in cosmic ray boron spectrum with the DAMPE space mission

    astro-ph.HE 2024-12 conditional novelty 6.0 of 10

    DAMPE's boron spectrum shows a spectral hardening at 182 GeV/n with a reported significance of 8 sigma, and the larger hardening compared with primaries supports a cosmic ray propagation effect.

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