Filter Results

460 results

- 6-The electron
**oscillating**period as functions of the temperature and the cyclotron**frequency**in triangular quantum dot**qubit**under an electric field.docx... Fig.4. A-Function relationship between the first excited state energy and the temperature and the electron-phonon coupling constant for different cyclotron**frequencies**and ,,,; B-Function relationship between the first excited energy and the temperature and the electric field strength for different cyclotron**frequencies**and ,,,; C-Function relationship between the first excited energy and the temperature and the confinement length for different cyclotron**frequencies**and ,,,; D-Function relationship between the first excited energy and of the temperature and the Coulomb impurity potential for different cyclotron**frequencies**and ,,,... Fig.1. A-Function relationship between the ground state energy and the temperature and the cyclotron**frequency**for different electron-phonon coupling constants and ,,, ; B-Function relationship between the ground state energy and the temperature and the cyclotron**frequency**for different electric field strengths and ,,,; C-Function relationship between the ground state energy and the temperature and the cyclotron**frequency**for different confinement lengths and ,,,; D-Function relationship between the ground state energy and the temperature and the cyclotron**frequency**for different Coulomb impurity potentials and ,,,... Fig.6. A-The electron**oscillation**period as functions of the temperature and the cyclotron**frequency**for different electron-phonon coupling constants and ,,,; B-The electron**oscillation**period as functions of the temperature and the cyclotron**frequency**for different electric field strengths and,,,; C-The electron**oscillation**period as functions of the temperature and the cyclotron**frequency**for different confinement lengths and ,,,; D-The electron**oscillation**period as functions of the temperature and the cyclotron**frequency**for different Coulomb impurity potentials and ,,,... 7-The electron**oscillating**period as functions of the temperature and the electron-phonon coupling constant and etc. in triangular quantum dot**qubit**under an electric field.docx... 2-The first excited state energy as functions of the temperature and the cyclotron**frequency**in triangular quantum dot**qubit**under an electric field.docx... 3-The ground state energy as functions of the temperature and the electron-phonon coupling constant and etc. in triangular quantum dot**qubit**under an electric field.docx... Fig.7. A-The electron**oscillation**period as functions of the temperature and the electron-phonon coupling constant for different cyclotron**frequencies**and ,,,; B-The electron**oscillation**period as functions of the temperature and the electric field strength for different cyclotron**frequencies**and ,,,; C-The electron**oscillation**period as functions of the temperature and the confinement length for different cyclotron**frequencies**and ,,,; D-The electron**oscillation**period as functions of the temperature and the Coulomb impurity potential for different cyclotron**frequencies**and ,,,... 1-The ground state energy as functions of the temperature and the cyclotron**frequency**in triangular quantum dot**qubit**under an electric field.docx... Fig.3. A-Function relationship between the ground state energy and the temperature and the electron-phonon coupling constant for different cyclotron**frequencies**and ,,,; B-Function relationship between the ground state energy and the temperature and the electric field strength for different cyclotron**frequencies**and ,,,; C-Function relationship between the ground state energy and of the temperature and the confinement length for different cyclotron**frequencies**and ,,,; D-Function relationship between the ground state energy and the temperature and the Coulomb impurity potential for different cyclotron**frequencies**and ,,,Data Types:- Dataset
- Document

- We report on the realization and verification of quantum entanglement between a nitrogen-vacancy electron spin
**qubit**and a telecom-band photonic**qubit**. First we generate entanglement between the spin**qubit**and a 637 nm photonic time-bin**qubit**, followed by photonic quantum**frequency**conversion that transfers the entanglement to a 1588 nm photon. We characterize the resulting state by correlation measurements in different bases and find a lower bound to the Bell state fidelity of ≥0.77±0.03. This result presents an important step towards extending quantum networks via optical fiber infrastructure.Data Types:- Dataset

- Data Types:
- Dataset

- MESA inlists associated with The Impact of White Dwarf Luminosity Profiles on
**Oscillation****Frequencies**Data Types:- Dataset
- File Set

**frequency**generation...**frequency**synthesizerData Types:- Dataset

- Sinusoidal
**oscillator**...**Frequency**dependent negative resistance (FDNR)Data Types:- Dataset

- The development and performance analysis of a Cold Electronic LC
**oscillator**is discussed. This is a part of the sensor system being developed for a Residual Resistivity Ratio (RRR) measurement system. In this paper, the effect of temperature variation on cold electronics based LC**Oscillator**is analysed. This variation in temperature causes**oscillator**to change its operating**frequency**. Certain additional harmonics are also introduced into the output waveform at the lower temperatures. This cold electronics based LC**oscillator**is used as the signal conditioning element for a Residual Resistivity Ratio (RRR) measuring sensor. LabVIEW 11.0 software is used to log the**frequency**variations for different temperature from 300 K to 4.2 K.Data Types:- Dataset

- Cross-
**frequency**coupling between neural**oscillations**is a phenomenon observed across spatial scales in a wide range of preparations, including human non-invasive electrophysiology. Although the functional role and mechanisms involved are not entirely understood, the concept of interdependent neural**oscillations**drives an active field of research to comprehend the ubiquitous polyrhythmic activity of the brain, beyond empirical observations. Phase-amplitude coupling, a particular form of cross-**frequency**coupling between bursts of high-**frequency****oscillations**and the phase of lower**frequency**rhythms, has recently received considerable attention. However, the measurement methods have relatively poor sensitivity and require long segments of experimental data. This obliterates the resolution of fast changes in coupling related to behavior, and more generally, to the non-stationary dynamics of brain electrophysiology.\r\nData Types:- Dataset

- Recent evidence suggests that ongoing brain
**oscillations**may be instrumental in binding and integrating multisensory signals. In the present experiment, we investigated the temporal dynamics of visual-motor integration processes. We show that action modulates sensitivity to visual contrast discrimination in a rhythmic fashion at**frequencies**of about 5Hz (in the theta range), for up to one second after execution of action. To understand the origin of the**oscillations**, we measured**oscillations**in contrast sensitivity at different levels of luminance, which is known to affect the endogenous brain rhythms, boosting the power of alpha-**frequencies**. We found that the**frequency**of**oscillation**in sensitivity increased at low-luminance, likely reflecting the shift in mean endogenous brain rhythm towards higher**frequencies**. Importantly, both at high and at low luminance, contrast discrimination showed a rhythmic motor-induced suppression effect, with the suppression occurring earlier at low luminance. We suggest that**oscillations**play a key role in sensory-motor integration, and that the motor-induced suppression may reflect the first manifestation of a rhythmic**oscillation**.Data Types:- Dataset

- Data Types:
- Dataset