On Optimization of Technological Process to Decrease Dimensions of Transistors with Several Sources

A novel system for generating dark-bright solitons is proposed. The system uses a PANDA ring resonator incorporated with an add/drop filter system. With resonant conditions, chaotic signals are generated from the through and drop ports of the PANDA system and then propagated in the add/drop filter system. Simulation results show that inputting Gaussian pulses in the system generates and controls highly dark-bright signals. To increase system capacity and obtain the required channel signals, we select 20, 100, and 400 m as the radii of the add/drop filter system. The central wavelength of input power is 1.55 m, by which ultrashort dark-bright soliton pulses are generated. The simulation results for the wavelength-dependent soliton pulses show full widths at half maximum (FWHMs) of 2.1, 0.42, and 0.11 nm, as well as free spectral ranges (FSRs) of 5.75, 1.15, and 0.29 nm. These values correspond to 20, 100, and 400 m, respectively. The simulated time-dependent soliton pulses have FWHMs of 8.1, 9.2, and 15.3 ps with a constant FSR of 25 ps. A maximum output power of 80 W can be obtained from the drop port of the PANDA system.

Section: Simulation Resultsmentioning

confidence: 99%

Generating Highly Dark–Bright Solitons by Gaussian Beam Propagation in a PANDA Ring Resonator

Amiri¹,

Ali²

2014

“…The aim of the present work is to study the organizational form of matter. Other forms have also been studied by Herman et al [33][34][35][36][37] Even the modern interpretation of quantum theory still seems to be an open question. We still need to describe the material form of organization using quantum theory.…”

Section: Discussionmentioning

confidence: 99%

Design of V-Doped Acetylene Nanobuilding Blocks as Hydrogen Storage Materials

Zhang

Guo

et al. 2015

A series of V-doped acetylene nanobuilding blocks were designed using density functional theory in order to study their hydrogen storage properties. Our calculations show that the V-doped acetylenes have stable electronic structures and high hydrogen adsorption capabilities. With the adsorption of hydrogen molecules by the V-doped acetylene compounds, the HOMO-LUMO gaps widen, indicating increased kinetic stability when hydrogen is absorbed. The results show that C 2 H 2 VH and [C 2 H 2 V] + can store up to 9.4 and 11.6 wt% hydrogen, respectively. The infrared spectra of the V-doped acetylenes are also discussed further to help characterize the potential of these compounds.

“…The present work studies a specific organization form of matter. Other forms have also been described by Herman et al [31][32][33][34][35] Even if the interpretation of modern quantum theory seems still to be an open question. 36 It is necessary to describe the organization forms of matter using quantum theory.…”

Section: D Structures Of the Silicon-dopedmentioning

confidence: 99%

Structures and Electronic Properties of Silicon-Doped Boranes B_nH_nSi (n = 5–10) as Nanobuilding Blocks: A DFT Investigation

Yu¹,

Zhang²,

Wang³

et al. 2015

A series of silicon-doped boranes, B n H n Si (n = 5-10), has been designed using density functional theory with the aim of studying their structures and electronic properties. Analysis of their HOMO-LUMO gaps has revealed that their stabilities decrease in the order B 9 H 9 Si > B 5 H 5 Si > B 8 H 8 Si > B 6 H 6 Si > B 7 H 7 Si > B 10 H 10 Si. The cage B 9 H 9 Si is thus the most stable of the B n H n Si (n = 5-10) compounds. The calculated IR spectra of these silicon-doped boranes show different features depending on their predicted structures.