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C. Tivarus

Researcher at Ohio State University

Publications -  14
Citations -  731

C. Tivarus is an academic researcher from Ohio State University. The author has contributed to research in topics: Ballistic electron emission microscopy & Molecular beam epitaxy. The author has an hindex of 9, co-authored 14 publications receiving 705 citations.

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Radiation hard silicon detectors—developments by the RD48 (ROSE) collaboration

G. Lindström, +139 more
TL;DR: In this paper, a defect engineering technique was employed resulting in the development of Oxygen enriched FZ silicon (DOFZ), ensuring the necessary O-enrichment of about 2×1017 O/cm3 in the normal detector processing.
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Developments for radiation hard silicon detectors by defect engineering—results by the CERN RD48 (ROSE) Collaboration

G. Lindström, +140 more
TL;DR: In this paper, the authors summarized the final results obtained by the RD48 collaboration, focusing on the more practical aspects directly relevant for LHC applications, including the changes of the effective doping concentration (depletion voltage) and the dependence of radiation effects on fluence, temperature and operational time.
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Comparison of mixed anion, InAsyP1−y and mixed cation, InxAl1−xAs metamorphic buffers grown by molecular beam epitaxy on (100) InP substrates

TL;DR: The structural, morphological, and defect properties of mixed anion, InAsyP1−y and mixed cation, InxAl1−xAs metamorphic step-graded buffers grown on InP substrates are investigated and compared in this article.
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High-quality InAsyP1-y step-graded buffer by molecular-beam epitaxy

TL;DR: In this article, high quality, compositionally step-graded InAsyP1−y layers with an As composition of y=0.4, corresponding to a lattice mismatch of ∼1.3% were grown on InP substrates using solid-source molecular-beam epitaxy.
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Direct Measurement of Quantum Confinement Effects at Metal to Quantum-Well Nanocontacts

TL;DR: Model metal-semiconductor nanostructure Schottky nanocontacts were made on cleaved heterostructures containing GaAs quantum wells (QWs) of varying width and were locally probed by ballistic electron emission microscopy.