In preparation for the tenfold luminosity upgrade of the Large Hadron Collider (the HL-LHC) around 2020, three-dimensional (3D) silicon pixel sensors are being developed as a radiation-hard candidate to replace the planar ones currently being used in the CMS pixel detector. This study examines an early batch of FBK sensors (named ATLAS08) of three 3D pixel geometries: 1E, 2E, and 4E, which respectively contain one, two, and four readout electrodes for each pixel, passing completely through the bulk. We present electrical characteristics and beam test performance results for each detector before and after irradiation. The maximum fluence applied is 3.5×1015 n eq/cm2
Owing to their intrinsic (geometry dependent) radiation hardness, 3D pixel sensors are promising ca...
3D silicon detectors, in which the electrodes penetrate the sensor bulk perpendicular to the surface...
3D silicon pixel detectors have been investigated as radiation-hard candidates for the innermost lay...
In preparation for the tenfold luminosity upgrade of the Large Hadron Collider (the HL-LHC) around 2...
Three-dimensional (3D) silicon detectors are emerging as one of the most promising technologies for ...
The Pixel detector is the innermost part of the ATLAS experiment tracking device at the Large Hadron...
The Pixel Detector is the innermost part of the ATLAS experiment tracking device at the Large Hadron...
The Pixel Detector is the innermost part of the ATLAS experiment tracking device at the Large Hadron...
The Pixel Detector is the innermost part of the ATLAS experiment tracking device at the Large Hadron...
The Pixel Detector is the innermost part of the ATLAS experiment tracking device at the Large Hadron...
The CMS silicon pixel detector is the tracking device closest to the LHC p-p collisions, which preci...
The pixel detector is the innermost tracking device in CMS, reconstructing interaction vertices and ...
Due to the large expected instantaneous luminosity, the future HL-LHC upgrade sets strong requiremen...
Silicon 3D detectors consist of an array of columnar electrodes of both doping types which penetrate...
The CMS pixel detector is the innermost tracking device at the LHC, reconstructing interaction verti...
Owing to their intrinsic (geometry dependent) radiation hardness, 3D pixel sensors are promising ca...
3D silicon detectors, in which the electrodes penetrate the sensor bulk perpendicular to the surface...
3D silicon pixel detectors have been investigated as radiation-hard candidates for the innermost lay...
In preparation for the tenfold luminosity upgrade of the Large Hadron Collider (the HL-LHC) around 2...
Three-dimensional (3D) silicon detectors are emerging as one of the most promising technologies for ...
The Pixel detector is the innermost part of the ATLAS experiment tracking device at the Large Hadron...
The Pixel Detector is the innermost part of the ATLAS experiment tracking device at the Large Hadron...
The Pixel Detector is the innermost part of the ATLAS experiment tracking device at the Large Hadron...
The Pixel Detector is the innermost part of the ATLAS experiment tracking device at the Large Hadron...
The Pixel Detector is the innermost part of the ATLAS experiment tracking device at the Large Hadron...
The CMS silicon pixel detector is the tracking device closest to the LHC p-p collisions, which preci...
The pixel detector is the innermost tracking device in CMS, reconstructing interaction vertices and ...
Due to the large expected instantaneous luminosity, the future HL-LHC upgrade sets strong requiremen...
Silicon 3D detectors consist of an array of columnar electrodes of both doping types which penetrate...
The CMS pixel detector is the innermost tracking device at the LHC, reconstructing interaction verti...
Owing to their intrinsic (geometry dependent) radiation hardness, 3D pixel sensors are promising ca...
3D silicon detectors, in which the electrodes penetrate the sensor bulk perpendicular to the surface...
3D silicon pixel detectors have been investigated as radiation-hard candidates for the innermost lay...