plasma generated condensation aerosol

精品项目网 2024-05-19 15:08:55

基本释义:

由等离子体产生的冷凝气溶胶 PGCA

网络释义

1)plasma generated condensation aerosol,由等离子体产生的冷凝气溶胶 PGCA

2)evaporation-condensation aerosol generator,蒸发冷凝法气溶胶发生

3)Producing of plasma,等离子体产生

4)atmospheric pressure cold plasma jet,大气压冷等离子体射流

5)cold plasma,冷等离子体

6)non-thermal plasma,冷等离子体

用法和例句

With an evaporation-condensation aerosol generator,heterogeneous condensation improves the aerosol monodispersity,while homogeneous condensation degrades it.

蒸发冷凝法气溶胶发生技术中,异相凝结有利于提高气溶胶的单分散性,同相凝结则会降低其单分散性,因此,如何避免同相凝结的发生从而提高气溶胶的单分散性是技术的关键。

A novel discharge scheme to generate atmospheric pressure cold plasma jet at millimeter scale is presented in this paper.

本文介绍了一种设计简单,容易起辉,易于维持,运行稳定,重复性高,适于集成的新型毫米量级大气压冷等离子体射流发生技术。

Gas-phase epoxidation of propylene using cold plasma;

冷等离子体条件下分子氧丙烯气相环氧化

Effect of BaO/γ-Al_2O_3 catalyst on oxidative coupling of methane with carbon dioxide to C_2 hydrocarbons under cold plasma;

冷等离子体BaO/γ-Al_2O_3共活化CO_2氧化CH_4制C_2烃反应研究

A study of purity effects of cold plasma during the process of Si-Ge particulates drop;

粉粒沉降过程中冷等离子体纯化效果研究

Influences of the dimensions of electrodes on NO removal with a dielectric barrier discharge non-thermal plasma;

电极尺寸对介质阻挡放电冷等离子体去除NO的影响

A set of experimental setup of the high voltage power and coaxial cylinder-tube dielectric barrier discharge reaction vessel is designed to investigate NO removal with non-thermal plasma produced by barrier discharges.

设计了一套高压电源和同轴圆柱 -筒介质阻挡放电反应器装置 ,进行了冷等离子体去除NO的实验研究 ,结果表明该方法是有效的 。

A high voltage power system and a coaxial cylinder-tube dielectric barrier discharge reactor were designed to study the influence of the discharge reactor design on the NO removal by the discharge of a non-thermal plasma.

研究了采用介质阻挡放电冷等离子体去除NO时,介质层厚度、介电常数、中心电极与介质层管尺寸对NO去除率的影响。

plasma generated condensation aerosol

由等离子体产生的冷凝气溶胶

Experimental Study on the Creation and Diffusion of an Ultracold Plasma

超冷等离子体产生及扩散的实验研究

Mechanics Research on High Power Laser Induced Glass Plasma

强光与玻璃作用等离子体产生机理研究

Investigation on Characteristics of Ablation Plasma Induced by Intense Pulsed Ion Beam;

强脉冲离子束产生的烧蚀等离子体特性的研究

Theoretical and Experimental Research on Ozone Generation by Gas Discharge Plasma;

等离子体臭氧产生的实验与理论研究

Study on the Spectral Property of Plasma Jet Generated by Gaseous Discharge;

气体放电产生等离子体喷束的光谱特性研究

CHERENKOV RADIATION PRODUCED BY A SOLID ELECTRON BEAM IN A PLASMA FILLED DIELECTRIC LINER

实心注在等离子体介质筒产生的切伦可夫辐射

Generation of Atmospheric-Pressure Glow Discharge and Its Application to Sterilization;

大气压辉光放电等离子体的产生及灭菌应用

Induced Mutation of Strain Producing 1, 3-Propanediol by Plasma;

等离子体诱变生产1,3-丙二醇菌种的研究

Studies on the Mechanism of Laser Induced Material Breakdown and the Formation of Plasma

激光致介质击穿产生等离子体的机理分析

Production and Characteristics of Plasma Based on Surface Microwave

微波表面波等离子体的产生与特性研究

uranium plasma generation systems

铀等离子体发生系统

Energetic ion Generation in Interaction of Ultraintense Laser Pulse with Plasma Concave Target;

用超强脉冲激光与等离子体相互作用产生高能离子的模拟研究

ion plasma wave and ionic plasma oscillation

离子等离子体波和离子等离子体振荡

In Magneto hydrodynamics (MHD)generation a conductive gas (plasma) is directed through a magnetic field and a potential is developed.

在磁流体(MHD)发电中,导电气体(等离子体)直接通过一磁场来产生电压。

If a density clump occurs in a plasma, an electric field can cause the ions and electrons to separate, generating another electric field.

如果在等离子体中出现了密度块区,电场就能引起离子和电子分离,产生另一个电

The arc source produces the arc discharging of cold cathode so that metal plasma is formed and it supplies the high density of metal ion current.

弧源因 产生冷阴极弧光放电而产生金属等离子体,形成高密度的金属离子流。

Effect of plasma seed treatment technique on soybean growth and yield

等离子体种子处理技术对大豆生育与产量的研究初报

下一篇:没有了
上一篇:diffusion in the air
精彩图文
相关推荐
  1. VSP migration

    精品项目网为您提供垂直地震剖面偏移VSP migration是什么意思,VSP migration翻译,VSP migration例句,VSP migration用法等有关,VSP migration单词知识大全供您查询使用!...

    0 条评论 59 2024-05-17 11:12

  2. decimal system

    精品项目网为您提供十进制decimal system是什么意思,decimal system翻译,decimal system例句,decimal system用法等有关,decimal system单词知识大全供您查询使用!...

    0 条评论 59 2024-05-16 21:57

返回顶部小火箭