Search Results for rotation

FIG. 5.4 The shape of a spot changes with: (a) decreased rotation angles around the x-axis; (b) decreased rotation angles around the y-axis; and (c) decreased focal lengths. More about this image found in The shape of a spot changes with: (a) decreased rotation angles around the ...

FIG. 1.12 Schematic of the sample and the tilt and rotation angles involved in a four-circle goniometer. More about this image found in Schematic of the sample and the tilt and rotation angles involved in a four...

FIG. 7.15 Rotating mirror with (a) single degree of freedom ( Lin et al., 2000 ) and (b) two degrees of freedom ( Kudrle et al., 2005 ). More about this image found in Rotating mirror with (a) single degree of freedom ( Lin et al.,...

FIG. 5.16 Dependence of (a) r₁₁, (b) r₂₂, and (c) r₂₂ on scan rotation angle (A) in the scanning system distortion of a scanning transmission electron microscope ( Fujinaka et al., 2020 ). More about this image found in Dependence of (a) r₁₁, (b) r...

FIG. 7.16 MOEM tunable grating/photonic crystal coupler tuned by (a) bending ( Errando-Herranz et al., 2017 ) or rotation ( Miniaturized MEMS Grating Spectrometer, 2021 ) and (b) stretching ( Shih et al., 2003 ; and Cui et al., 2011 ). More about this image found in MOEM tunable grating/photonic crystal coupler tuned by (a) bending ( Errand...

FIG. 3.35 Kerr rotation spectroscopy studies [taken from Stamm et al. (2017) ] are shown. In (a) and (b), the Kerr rotation angles θ_K as a function of y-scan (in μm) are shown for certain values of the current density, j More about this image found in Kerr rotation spectroscopy studies [taken from Stamm et al....

FIG. 2.1 Optical microscopy images of a BP for different values of the rotation angle (scale bar: 10 µm). Reprinted with permission from Mao et al., J. Am. Chem. Soc. 138 , 300–305 (2016). Copyright 2016 American Chemical Society. More about this image found in Optical microscopy images of a BP for different values of the rotation angl...

FIG. 6.2 The rotational spectrum of HCl(g) (top) compared to the stick spectrum of our 1DPR model of a proton rotating around a ring of radius 1.275 Å—the bond length of the HCl molecule—at 2000 K. More about this image found in The rotational spectrum of HCl(g) (top) compared to the stick spectrum of o...

FIG. 10.3 The hydrogen chloride molecule is shown rotating around the x axis (θ) and vibrating by the stretching and compression of the H–Cl bond (r_e)—two independent one-dimensional phenomena that can be modeled by the 1DPB wave functions More about this image found in The hydrogen chloride molecule is shown rotating around the x...

FIG. 10.4 The first two vibrational states (black, horizontal) with 12 rotational states (blue, horizontal) shown on each, the harmonic oscillator potential (black, dashed), the Morse potential (black, solid), the 1DPB wave functions (green, v = 0 and orange, v = 1 More about this image found in The first two vibrational states (black, horizontal) with 12 rotational sta...

FIG. 10.6 The assignment of vibrational and rotational quantum numbers to the rovibrational infrared absorption spectrum of HCl(g). More about this image found in The assignment of vibrational and rotational quantum numbers to the rovibra...

FIG. 1.6 Plot showing spin wave excitation. Each spin is slightly rotated with respect to its neighbor. A complete cycle of the rotation is shown. These spin wave excitations are called “magnons“ (analogous to phonons denoting lattice excitations). More about this image found in Plot showing spin wave excitation. Each spin is slightly rotated with respe...

using a coupled fiber. (d) Split beam nano-cavity torque sensor ( Wu et al., 2014 ) showing the three degrees of freedom. One is out-of-plane rotation of the suspended mirror about the torsion beam, the second is in-plane bending about the torsion beam, and the third is out-of-plane bending More about this image found in (a) Micromachined interferometric accelerometer showing the two optical bea...