Observed time delays between solar H-alpha flares and microwave bursts as evidence for various energy transport mechanisms

1983 ◽  
Vol 274 ◽  
pp. 910 ◽  
Author(s):  
N. Kaempfer ◽  
A. Magun
Keyword(s):  
Time Delays ◽  
Energy Transport ◽  
Transport Mechanisms ◽  
Microwave Bursts

Correlation of Burning Rates and Energy Transport Mechanisms in Open and Enclosed Liquid Pool Fires

1991 ◽  
Author(s):  
David E. Ramaker ◽  
K. C. Adiga ◽  
H. Zhang ◽  
M. Pivovarov ◽  
S. W. Baek
Keyword(s):  
Energy Transport ◽  
Liquid Pool ◽  
Pool Fires ◽  
Transport Mechanisms ◽  
Burning Rates

Energy Transport Mechanisms in Nanofluids and Its Applications

2009 ◽  
Author(s):  
Yimin Xuan ◽  
Qiang Li
Keyword(s):  
Heat Transfer ◽  
Energy Transport ◽  
Transfer Mechanism ◽  
Thermal Engineering ◽  
Energy Transfer Mechanism ◽  
Transport Mechanisms ◽  
Thermal Systems ◽  
Flow And Heat Transfer ◽  
Solid Liquid ◽  
Suspended Nanoparticles

Nanofluid is a solid-liquid mixture consisting of solid nanoparticles or nanofibers with sizes typically of 1–100 nm suspended in liquid. Thermal conductivity and heat transfer performance of nanofluids is superior to those of the original pure carrier fluids because the suspended nanoparticles remarkably improve energy exchange capability of the suspensions. In the present paper, the investigations efforts cover microscopic and mesoscaled approachs for the heat transfer enhancement mechanism of the nanofluid, flow and heat transfer mechanism and the relevant control methods of the magnetic fluid by suspending magnetic nanoparticles in base fluids, and some applications of nanofluid on a variety of thermal systems in order to understand energy transfer mechanism of nanofluids and guide future applications of nanofluids to thermal engineering.

A Coupled Electromagnetic and Thermal Model for Picosecond and Nanometer Scale Plasmonic Lithography Process

2013 ◽  
Author(s):  
Ion-Hong Chao ◽  
Liang Pan ◽  
Cheng Sun ◽  
Xiang Zhang ◽  
Adrienne S. Lavine
Keyword(s):  
Phase Change ◽  
Phase Change Material ◽  
Energy Transport ◽  
Laser Energy ◽  
Transport Mechanisms ◽  
Nano Fabrication ◽  
Lithography Process ◽  
Material Layer ◽  
Parametric Studies ◽  
Change Material

Plasmonic lithography may become a mainstream nano-fabrication technique in the future. Experimental results show that feature size with 22 nm resolution can be achieved by plasmonic lithography. In the experiment, a plasmonic lens is used to focus the laser energy with resolution much higher than the diffraction limit and features are created in the thermally sensitive phase change material layer. The energy transport mechanisms are still not fully understood in the lithography process. In order to predict the lithography resolution and explore the energy transport mechanisms involved in the process, customized electromagnetic wave and heat transfer models are developed in COMSOL. Parametric studies on both operating parameters and material properties are performed for optimizing the lithography process. Parametric studies show that the lithography process can be improved by either reducing the thickness of the phase change material layer or using a material with smaller real refractive index for that layer.

scholarly journals Deconvoluting Energy Transport Mechanisms in Metal Halide Perovskites Using CsPbBr 3 Nanowires as a Model System

2021 ◽  
pp. 2010704
Author(s):  
Eitan Oksenberg ◽  
Calvin Fai ◽  
Ivan G. Scheblykin ◽  
Ernesto Joselevich ◽  
Eva L. Unger ◽  
...  
Keyword(s):  
Energy Transport ◽  
Model System ◽  
Metal Halide ◽  
Transport Mechanisms ◽  
Halide Perovskites

A Coupled Electromagnetic and Thermal Model for Picosecond and Nanometer Scale Plasmonic Lithography Process

2014 ◽  
Vol 2 (3) ◽  
Author(s):  
Ion-Hong Chao ◽  
Liang Pan ◽  
Cheng Sun ◽  
Xiang Zhang ◽  
Adrienne S. Lavine
Keyword(s):  
Phase Change ◽  
Phase Change Material ◽  
Energy Transport ◽  
Laser Energy ◽  
Transport Mechanisms ◽  
Feature Size ◽  
Lithography Process ◽  
Parametric Studies ◽  
Nanofabrication Technique ◽  
Change Material

Plasmonic lithography may become a mainstream nanofabrication technique in the future. Experimental results show that feature size with 22 nm resolution can be achieved by plasmonic lithography. In the experiment, a plasmonic lens (PL) is used to focus the laser energy with resolution much higher than the diffraction limit and features are created in the thermally sensitive phase-change material (PCM) layer. The energy transport mechanisms are still not fully understood in the lithography process. In order to predict the lithography resolution and explore the energy transport mechanisms involved in the process, customized electromagnetic wave (EMW) and heat transfer (HT) models were developed in comsol. Parametric studies on both operating parameters and material properties were performed to optimize the lithography process. The parametric studies show that the lithography process can be improved by either reducing the thickness of the phase-change material layer or using a material with smaller real refractive index for that layer.

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