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1-20 of 488 Search Results for
hall
Book Chapter
Series: AIPP Books, Perspectives
Published: December 2022
10.1063/9780735422537_002
EISBN: 978-0-7354-2253-7
ISBN: 978-0-7354-2251-3
...Introduction The date of discovery of the quantum Hall effect (QHE) is known pretty accurately. It occurred in the night between 4th and 5th February, 1980 at 2:00 AM in the morning at the high magnetic lab in Grenoble, France (see Fig. 2.1 ). There is ongoing research on the transport properties...
Images
in Using Sensors and Digital Data Collection/Analysis Technologies in K–12 Physics Education Under the STEM Perspective
> The International Handbook of Physics Education Research: Teaching Physics
Published: March 2023
FIG. 6.8 Linear Hall effect sensor (left picture) (see: https://www.addicore.com/SS49E-Linear-Hall-Sensor-p/ad316.htm ) and QtiPlot. Data Analysis and scientific visualization (right picture) (see: https:// shorturl.at/lXYZ5 ). More about this image found in Linear Hall effect sensor (left picture) (see: https://www.addicore.com/SS...
Images
in Microscopic-Strain-Related Phenomena in Functional Oxides
> Strain Engineering in Functional Materials and Devices
Published: March 2023
FIG. 5.11 Nanostrain analysis for nanocomposite YBCO films ( Llordés et al., 2012 ). (a) Williamson–Hall plots of the symmetric YBCO Bragg reflection, (b) dependence of the YBCO vertical nanostrain (determined from Williamson–Hall plots) on the incoherent specific interface of nanodots, (c) nanostrain anisotropy, and (d) dependence of coherent domain size on nanostrain along the c-axis in YBCO–BZO nanocomposites, as determined by Rietveld analysis of high-resolution XRD measurements. Reproduced with permission from Llordés et al., Nat. Mater. 11 , 329–333 (2012). Copyright 2012 Springer Nature. More about this image found in Nanostrain analysis for nanocomposite YBCO films ( Llordés et al....
Images
Published: February 2023
FIG. 3.2 Temperature-dependent Hall mobility (a) and charge density (b) for the four MOCVD grown samples (a, b, c, and d) using TEGa. The symbols are the measured data, and the solid lines represent the fitting calculated from the charge neutrality equation. Reprinted from Alema et al., APL Mater. 7 , 121110 (2019b). Copyright 2019b Authors, licensed under a Creative Commons Attribution (CC BY) license. More about this image found in Temperature-dependent Hall mobility (a) and charge density (b) for the four...
Images
Published: February 2023
FIG. 3.7 Temperature-dependent Hall mobility (a) and charge density (b) for N2O grown UID β-Ga2O3 film. (c) RT Hall mobility for the N2O (the purple triangle) and pure O2 (the orange box) grown UID β-Ga2O3. Reprinted from Alema et al., APL Mater. 8 , 021110 (2020a). Copyright 2020a Authors, licensed under a Creative Commons Attribution (CC BY) license. More about this image found in Temperature-dependent Hall mobility (a) and charge density (b) for N2...
Images
Published: February 2023
FIG. 3.11 Temperature dependent (12–395 K) Hall mobility (a) and carrier density (b) for lightly Si doped Ga2O3 films (samples a and b) grown using TMGa. The symbols are the measured data, and the solid lines represent the best fit calculated from the charge neutrality equation. Both samples were measured and analyzed at the Air Force Research Laboratory (AFRL) by Dr. Adam T. Neal. The data for sample b is reprinted from Seryogin et al., Appl. Phys. Lett. 117 , 262101 (2020). Copyright 2020 AIP Publishing LLC. More about this image found in Temperature dependent (12–395 K) Hall mobility (a) and carrier density (b) ...
Images
Published: February 2023
FIG. 3.16 Temperature dependent (20–300 K) Hall mobility (a) and carrier density (b) for lightly Ge doped Ga2O3 films grown using TEGa (a/TEGa) and TMGa (b/TMGa and c/TMGa) precursors. The symbols are the measured data, and the solid lines represent the fitting calculated from the charge neutrality equation. More about this image found in Temperature dependent (20–300 K) Hall mobility (a) and carrier density (b) ...
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in Dopants in β-Ga2O3: From Theory to Experiments
> Ultrawide Bandgap β-Ga2O3 SemiconductorTheory and Applications
Published: February 2023
FIG. 6.5 Silicon dopant energy level detected from (a) temperature-dependent Hall concentration fitted with two-donor model showing a shallow donor level at 40 meV and deep donor level at 150 meV ( Feng et al., 2020 ). (b) The secondary level was also observed from admittance spectroscopy (capacitance–frequency at different temperatures). The arrow indicates the presence of inflection point in the C–f plot associated with the deep trap emission that causes dispersion at higher frequencies ( Neal et al., 2017 ). More about this image found in Silicon dopant energy level detected from (a) temperature-dependent Hall co...
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in Dopants in β-Ga2O3: From Theory to Experiments
> Ultrawide Bandgap β-Ga2O3 SemiconductorTheory and Applications
Published: February 2023
FIG. 6.8 Sn dopant level (a) detection from temperature-dependent Hall measurements showing the donor energy level at 77 meV ( Mauze et al., 2020 ) and (b) comparison of Sn and Si in terms of available free carrier from Hall measurements vs SIMS concentration showing a drop of carrier concentration from Sn at high doping levels ( Baldini et al., 2016 ). More about this image found in Sn dopant level (a) detection from temperature-dependent Hall measurements ...
Book Chapter
Series: AIPP Books, Principles
Published: March 2023
0
EISBN: 978-0-7354-2559-0
ISBN: 978-0-7354-2556-9
.... , Kimand , P. , and Geim , A. K. , “ Room-temperature quantum hall effect in graphene ,” Science 315 , 1379 – 1379 ( 2007 ). 10.1126/science.1137201 Serlin , M. , Tschirhart , C. L. , Polshyn , H. , Shang , Y. , Zhu , J. , Watanabe , K. , Taniguchi , T...
Book Chapter
Series: AIPP Books, Professional
Published: March 2023
EISBN: 978-0-7354-2547-7
ISBN: 978-0-7354-2544-6
... , 253 – 267 ( 1992 ). 10.1080/0951839920050305 Maurines , L. , Int. J. Sci. Educ. 14 ( 3 ), 279 – 293 ( 1992 ). 10.1080/0950069920140305 Mazur , E. , Peer Instruction: A User's Manual ( Prentice-Hall , 1997 ). McDermott , L. C. et al. , Tutorials...
Book Chapter
Series: AIPP Books, Principles
Published: March 2023
10.1063/9780735425590_011
EISBN: 978-0-7354-2559-0
ISBN: 978-0-7354-2556-9
... materials research and revolutionized the field of nanotechnology due to its extraordinary electronic properties. This has also opened up new avenues for emergent properties such as the topological Dirac states and room temperature integer quantum Hall effect (QHE) ( Geim and Novoselov, 2007...
Book Chapter
Series: AIPP Books, Professional
Published: March 2023
EISBN: 978-0-7354-2571-2
ISBN: 978-0-7354-2568-2
... ( Prentice-Hall , Upper Saddle River, NJ , 1997 ). Mazur , E. , Science 323 , 50 – 51 ( 2009 ). 10.1126/science.1168927 McDermott , L. C. et al. , Tutorials in Introductory Physics ( Prentice Hall , Upper Saddle River, NJ , 2002 ). McDermott , L. C. and UWPERG...
Images
Published: December 2022
FIG. 2.2 Typical Hall experiment set up showing direction of the current, Ix and the magnetic field Bz. Vy denotes the Hall voltage. More about this image found in Typical Hall experiment set up showing direction of the current, I...
Images
Published: December 2022
FIG. 2.3 Schematic plot of integer quantum Hall effect (IQHE) as a function of the applied magnetic field. The plot in red denotes the Hall resistivity and the one in green shows the longitudinal resistivity (or the magnetoresistivity). More about this image found in Schematic plot of integer quantum Hall effect (IQHE) as a function of the a...
Images
Published: December 2022
FIG. 2.4 The plot shows fractional quantum Hall effect (FQHE). The plateaus are shown at fractional values in units of h/e2. Taken from Tsui et al. (1982) . More about this image found in The plot shows fractional quantum Hall effect (FQHE). The plateaus are show...
Images
Published: December 2022
FIG. 2.6 Schematic plot showing Hall and magnetoresistivities for both classical (a) and quantum (b) Hall effects. More about this image found in Schematic plot showing Hall and magnetoresistivities for both classical (a)...
Images
Published: December 2022
FIG. 2.21 Plot showing the variation of Hall conductivity as a function of the bias voltage for a particular value of the magnetic field, such as B = 30T and 50T. The plateaus in the Hall conductivity are clearly visible. The longitudinal conductivity (σxx) is shown for a specific value, namely, B = 50T. More about this image found in Plot showing the variation of Hall conductivity as a function of the bias v...
Images
Published: December 2022
FIG. 2.24 The schematic plots show the integer quantum Hall effect for ν ∗ = 3 (right) and the fractional quantum Hall effect for ν = 3 7 (left). More about this image found in The schematic plots show the integer quantum Hall effect for ν...
Images
Published: December 2022
FIG. 3.30 The anomalous Hall conductivity is shown as a function of the Fermi energy. There is a distinct plateau in the vicinity of the zero-Fermi energy. More about this image found in The anomalous Hall conductivity is shown as a function of the Fermi energy....
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