1)internal high pressure forming内高压成形
1.Application of combining uniform design, neural network and genetic algorithm to optimize process parameters of internal high pressure forming;均匀设计法、神经网络和遗传算法结合在内高压成形工艺参数优化中的应用
2.By means of modeling corresponding internal high pressure forming finite element model and simulation with finite element analysis software MSC.通过建立相应的内高压成形有限元模拟模型,用M SC。
3.By means of modeling the internal high pressure forming finite element model and simulation with finite element analysis software MSC Marc, the basic features of the shaped process and the fluence rules of forming parameters are analyzed.通过建立内高压成形有限元模拟模型,用MSCMarc有限元分析软件进行模拟分析,研究变径管成形过程的基本变形特征、成形参数的影响规律,探讨轴向进给与内压力的合理匹配关系。
英文短句/例句
1.Hydroforming of Aluminium Alloy Tubular Components with Rectangular Section;矩形截面铝合金管件内高压成形研究
2.Research on Hydroforming of Profiled Cross-section Hollow Component;异形截面空心结构件内高压成形工艺研究
3.Influence of loading paths on hydroforming process of stainless steel spherical part加载路径对不锈钢球形件内高压成形过程影响
4.Finite Element Simulation and Technique Analysis of X-joints Hydroforming Process;四通管内高压成形有限元模拟及工艺分析
5.Deformation Limit of Hydroforming of AZ31 Magnesium Alloy Tubes at Elevated Temperature;AZ31镁合金管材热态内高压成形极限研究
6.Numerical Simulation and Optimization of Hydroforming of T-shaped Tube;T型管内高压成形数值模拟及工艺参数优化
7.Tube Hydroforming Technology and its Application to Vehicle Lightweighting内高压成形工艺及其在汽车轻量化中的应用
8.Investigation of Hydroforming Thin-walled Y-shaped Three-way Tubes and Effects of Axial Feed Ratio薄壁Y型三通管内高压成形及补料比的影响
9.Effect of bending angle on hydroforming of curved hollow components弯曲角度对弯曲轴线件内高压成形的影响分析
10.X-joint Tube Hydroforming Processing Analysis Based on FEA基于有限元仿真的四通管内高压成形工艺分析
11.Optimization for hydroforming loading paths of T-shaped tube based on grey system theory基于灰色理论的T形管内高压成形加载路径优化
12.Effects of Die Structure and Anisotropy on Stainless Steel Hydroforming;模具结构和管材各向异性对不锈钢内高压成形的影响
13.Research on Computer Simulation of Internal High Pressure Forming of Tubes and Its Optimization of Process Parameters;管材内高压成形的计算机模拟研究及其工艺参数优化
14.Numerical Simulation and Optimization of Unsymmetrical Y-shaped Tube in Hydroforming Process非对称Y型三通管内高压成形过程数值模拟及参数优化
15.Research of the Control System of the Internal High-Pressure Forming Equipment Based on LabVIEW;基于LabVIEW的内高压液压成形机控制系统研究
16.An Investigation on One-step and Two-steps Tube Hydroforming(THF) Using Finite Element Method管件内高压单步成形和两步成形法数值仿真研究
17.a region of high pressure travelling through a gas at a high velocity.高压以高速通过气体所形成的压缩波。
18.Spin-forming numerical simulation of cup-shaped inner meshing gear杯形内啮合齿轮旋压成形的数值模拟
相关短句/例句
hydroforming[英]['haidr?,f?:mi?][美]['ha?dr?,f?rm??]内高压成形
1.Effects of loading paths on hydroforming X-joints;加载路径对等径四通管内高压成形的影响
2.Thickness distribution of hydroforming Y-shape branch;Y型三通管内高压成形壁厚分布规律
3.Influence of internal pressure on hydroforming of Y-shaped tubes;内压对Y型三通管内高压成形影响研究
3)tube hydroforming内高压成形
1.Recent developments in tube hydroforming technology in Japan;日本内高压成形技术进展(英文)
2.Stress and strain state of tube hydroforming and it's influence on destabilization;内高压成形工艺的应力应变及工艺失稳分析
3.Pressure for tube hydroforming of lightweight parts is usually determined by the radii of bulgy corners because the pressure for forming a small corner is much higher than other positions.采用力学分析和有限元模拟对空心零件圆角部位在内高压成形过程中的应力分布和变形机理进行了分析,针对多边形截面空心件内高压成形,以矩形截面为例提出采用花瓣形预成形截面降低圆角成形压力的方法,分析了该方法降低圆角成形压力的机理,提出了花瓣形预成形截面形状关键参数计算公式,并通过试验进行了验证,为采用较低压力实现空心构件圆角内高压成形提供了理论指导。
4)Inner high-pressure shaping technique内高压成形技术
5)Tube hydroforming管材内高压成形
1.Tube hydroforming (THF) is an advanced process of forming closed-section, hollow parts with different cross sections by applying an internal hydraulic pressure and additional axial compressive loads.管材内高压成形作为一种制造空心轻体构件的先进制造技术,近年来发展迅速,目前已成为塑性加工领域中一个热点研究方向。
6)tube hydroforming technology内高压成形工艺
延伸阅读
主要射出成形材料成形时应注意事项■主要射出成形材料成形时应注意事项品 名 注 意 事 项PVC聚氯乙烯 1. 产品种类范围非常广（硬质、软质、聚合物等），成型条件各有不同，从熔融至分解之温度范围很小，尤须注意加热温度。2. 附着水分少，但成型周期尽可能减少（50℃~60℃热风干燥）。3. 成型机方面，与材料直接接触的部位须电镀或采用不锈钢以防热分解所产生的盐酸侵蚀。射出压力2100kg/cm2程度。4. 所有塑料当中必须是细心注意温度调节。5. 浇口附近易产生流纹，故射出操作后，柱塞不要后退使浇口充分固化后再瞬间退后为宜。6. 加热之初温不宜高，特别注意熔融情形。第二级加热温度较高，且尽可能使成形周期缩短，比较安全。PA聚醯胺树脂 1. 成型温度比其它材料高，故采用油加热的成形机较适当。2. 吸湿性大，必须充分干燥。水分对成型品的品质影响甚大（80℃热风干燥约5~6小时）。3. 须退火以消除内部歪斜。PP聚丙烯 1. 同PE，但成形温度必须较高。熔融温度170℃，超过190℃则流动性大增，则毛边增加，易产生接缝及凹入情形。PC聚碳酸脂 1. 吸湿性比尼龙小，但若有些微之水分存在则成型品产生其它色泽或气泡，故必须密封干燥同时成形时也须预备干燥（120℃之温度4小时）。2. 加热温度超过320℃时则产生热分解，成品变色，故特别注意温度调节，又成型时的温度调节也非常重要，须特别注意其最低温度、最低时间。3. 须退火以消除内部歪斜（130℃~135℃，1小时程度为准）。
