42820 research outputs found
Sort by
Anti-KIF20B autoantibodies in systemic autoimmune rheumatic diseases: Their high prevalence in systemic lupus erythematosus
doctoral thesi
Association between stopping renin-angiotensin system inhibitors immediately before hemodialysis initiation and subsequent cardiovascular events
doctoral thesi
Predictive performance of Shock Index for postpartum hemorrhage during cesarean delivery
doctoral thesi
Diagnostic Utility of Chest Wall Vessel Involvement Sign on Ultra-High-Resolution CT for Primary Lung Cancer Infiltrating the Chest Wall
doctoral thesi
TLK1 Inhibition Enhances the Anticancer Effect of Deep UV Irradiation Through CHK1 Activation
doctoral thesi
Analysis of coordinated mechanism for postural control during gait initiation focusing on trunk acceleration frequency component
doctoral thesi
Teaching Physics Using Comics-based Learning Materials Among Grade 8 Learners in the Philippines
doctoral thesi
Design and Synthesis of Functional Materials from Products of Waste PET Decomposition by Aminolysis
doctoral thesi
Topological electronic structure and transport properties of the distorted rutile-type WO2
We elucidate the transport properties and electronic structures of distorted rutile-type WO2. Electrical resistivity and Hall effect measurements of high-quality single crystals revealed the transport property characteristics of topological materials; these characteristics included an extremely large magnetoresistance of 13 200% (2 K and 9 T) and a very high carrier mobility of 25 700 cm2 V−1 s−1 (5 K). First-principles calculations revealed Dirac nodal lines (DNLs) near the Fermi energy in the electronic structure when spin–orbit interactions (SOIs) were absent. Although these DNLs mostly disappeared in the presence of SOIs, band crossings at high-symmetry points in the reciprocal space existed as Dirac points. Furthermore, DNLs protected by nonsymmorphic symmetry persisted on the ky = π/b plane. The unique transport properties originating from the topological electronic structure of chemically and thermally stable WO2 could represent an opportunity to investigate the potential electronic applications of the material.journal articl