Introduction to Multiple Fan

Multiple Fano resonances can be produced as the rotation angle of the crescent-shaped cavity resonator is adjusted, and the sensor’s refractive index sensitivity was found to be 935.

The increasing complexity of modern rapid single flux quantum (RSFQ) circuits has made the issue of multiple fanout of growing importance.

The circuit design is to be used for multiple fans, hence the number of fans that can be controlled depends on the number of output pins on the microcontroller and controlled area.

Within Degana crater, multiple fans are observed along its eastern to southern side only.

To validate the precision and feasibility of the framework, sectional model experiments performed on a streamlined box girder were carried out in an active turbulence generated wind tunnel in which an adjustable array of multiple fans was assisted by actively controlled vibrating wings for a 2D turbulence condition.

The robot is designed with multiple fans, multiple gas paths, and two-level sub-bin structure to ensure the dispensing process and the internal hundred-level clean environment.

The simulation results show that the typical Fano profile and multiple Fano resonances can be achieved.

We find the influencing factors and formation laws of the ‘direction’ of the Fano line-shape, and the optimal condition for the generation of multiple Fano resonances; and the application in refractive index sensing is also well studied.

In addition, the resonant wavelengths of multiple Fano resonances can be easily tuned by adjusting the structural/material parameters (the dielectric core radius, the thickness and refractive index of the dielectric layers) of the HMM cavity.

Combined with coupled mode theory (CMT), the mechanism of multiple Fano resonances generated by this structure is analyzed qualitatively.

Quasi-guided modes can be excited in Al2O3/SiO2 slab waveguide by the plasmonic periodic E shaped metallic nanostructures, which leads to multiple Fano-shaped transmission.

Fans participate in multiple fandoms because these websites are easily accessed by public audiences.

In this paper, multiple Fano resonances based on semi-ring-rectangular composite cavity (SRRCC) structure are numerically investigated and explained by the finite-difference time-domain method and the multiple interference coupled mode theory method.

We propose a dual-parameter sensor based on multiple Fano resonance modes.

Multiple Fano resonance can be obtained by introducing another ring resonator and can be tuned by temperature or size independently.

A prominent upshot of these interference phenomena is the resonant suppression of the reflection amplitude, which leads to the observation of multiple Fano minima in the reflection spectrum.

Besides, multiple Fano peaks are also achieved by adding an extra rectangular cavity.

We propose a dual-parameter sensor based on multiple Fano resonance modes.

Additionally, by adjusting the geometric parameters of the system, multiple Fano Resonances obtained can be tuned.

The effect of magnet can only be realized when double or multiple fans are applied.

Efficient control of the multiple Fano profile can be manipulated, where the overall spectral is achieved by the separate contributions from the fundamental subgroups plasmonic resonance eigenstates.

A chip-scale refractive index sensor based on multiple Fano resonances is proposed by using a metal-insulator-metal (MIM) structure, which is constructed by two side-coupled semi-ring cavities and a vertical cavity.

High-frame-rate video analysis was conducted for (1) multiple fans and (2) rice grains and husks on a vibrating sieve, and they were verified by enhancing the differences in dynamics between multiple objects even when their appearances are too similar to distinguish each other in a single image.

We design and numerically investigate the high Q-factor, high modulation depth, and multiple Fano resonances based on a periodical all-dielectric asymmetric nanorod dimer in the near-infrared regime.