structural stress中文是什么意思

• 结构应力
• 组织应力

• structural    adj. 构造上的，结构上的，组织上的。 adv. -l ...
• stress    n. 1.压力，压迫，紧迫，紧张。 2.【语音】重音；重 ...
• structural    adj. 构造上的，结构上的，组织上的。 adv. -ly
• stress    n. 1.压力，压迫，紧迫，紧张。 2.【语音】重音；重读；【诗】扬音；语势，着重点。 3.重要(性)，重点，强调。 4.【物理学】应力；胁强，重力。 The landlord has imposed a severe stress on the poor tenants. 房东给贫苦的房客们加了很大的压力。 We must lay stress on self reliance. 我们必须强调自立更生。 Give stress to the 2nd syllable. 重读第二音节。 stress diagram 【工业】应力图。 moisture stress 缺水。 tensile stress 【材】抗张应力。 be stressed out (因心理压力过重而)精疲力尽的。 driven by stress of＝under stress of. in times of stress 在紧张[繁忙，困难]的时候。 lay [place, put] stress on 强调，用力干，着重于。 under stress of 被…逼迫着，在…强制下，由于，因为。 vt. 1.着重，强调，加重语气说。 2.用重音读。 3.加压力[应力]于，压，压迫。 adj. -ful ,-less adj.
• stress on    对…的强调
• the stress    搭配的单词
• analysis, structural    结构分析
• cell, structural    结构单元
• data, structural    结构数据
• definition, structural    结构定义
• engineer; structural    结构工程师
• fabrics structural    按组织结构划分
• structural aberration    结构畸变
• structural accommodation    构造调节
• structural action    结构作用
• structural adequacy    结构的充分程度
• structural adhesive    结构胶粘剂; 结构性粘着剂; 结构性黏著剂; 结构粘合剂; 结构粘结剂
• structural adjustment    构造应应; 结构性调整; 薪级结构调整；薪级编制调整
• structural agent    结构因素
• structural alignment    构造排列线; 结构构件对准; 结构校准
• structural alloy    结构合金
• structural alteration    结构上的改动
• structural alterations    船体结构改变
• structural alternatives    方式选择
• structural ambiguity    结构二义性; 结构歧义

• The aim of construction control is to exercise effective control of the target of bridge construction and to correct any influence of various parameters affecting the target of bridge construction during the construction of the bridge upon the completion of the bridge construction so as to ensure that the structural stress and linear form of the bridge meet the design requirements when the bridge is completed and ensure the safety of the bridge during its construction
  摘要施工控制的目的是要对成桥目标进行有效控制，修正在施工过程中各种影响成桥目标的参数误差对成桥目标的影响，确保成桥后结构受力和线形满足设计要求及大桥施工过程桥梁的安全。
• Then i discussed methane desorption properties including cbm - bearing saturation , critical desorption pressure , the ratio between critical desorption pressure and original coal reservoirs pressure and difference of terra decompression ; cbm - bearing characteristics of coal seams including measured / academic cbm - bearing content , coalbed methane resources content and cbm resources abundance , etc . the author respectively gave a brief account of the basic characteristics of ancient and today ' s geothermic field at 1000m and 2000m depth , coal measure strata pressure field at the depth less than 1600m , structural stress field from jurassic to present , and ancient and today ' s fluid potential field ( that is water potential and gas potential distributing in coal measure strata )
  分别简述了准噶尔盆地1000m及2000m深度今古地温场、 1600m以浅的煤系地层压力场、侏罗纪至今地应力场及煤系地层水势与气势分布的今古流体势场基本特征，进而对这“四场”特征及其互动关系与煤储层物性、可采性及煤层气聚集的关系进行了探讨。从构造背景、构造演化及构造类型几方面论述了本区构造作用的控气特征。
• The direction of migration was in east and northeast . ( 3 ) this paper introduced the balanced section into the early reservoir description in the sidaogou structure for the first time , and gave a new viewpoint that the sidaogou structure was a fault - bend fold formed by two step thrust fault . the structural stress direction came from the northeast of the hami depression
  首次将平衡剖面技术引入了四道沟构造早期油藏描述的构造研究之中，并首次提出四道沟构造是?至少由两个阶梯状断层组成的后倾双重构造叠加的断层转折褶皱，构造应力方向应大致源于北东方向。
• Indoors model test employing similarity materials and mainly considering v - class surrounding rock is carried out respectively in respect of single track and double track so that the characteristics of ground pressure , structural stress of portal and internal force distribution in various case of slope and dead - weight stress field can be investigated
  通过室内相似材料模型试验研究，模型试验围岩参数以级为主，分别从单线和双线出发，详细阐述了三种新型洞门型式在正交和斜交情况下，在不同地形坡度和自重应力场作用下围岩压力和洞门结构应力及结构内力分布特征。
• Research results show that different conformation mode of tectonite roof result in the difference of preservation condition of gas , intense pressing process of structural stress in the front of gliding structure result in mine gas outburst , and control on no . 2 gas source in tectonite roof is the best means by which the gas problem can be perfectly solved in gliding structure area
  研究结果表明：由于滑动构造区煤层顶板不同的结构类型，导致矿井瓦斯保存条件的差异；滑动构造前缘挤压带内强烈的挤压应力作用是本区瓦斯突出的根本原因；控制采空区顶板的二次瓦斯源是治理滑动构造区瓦斯地质灾害的根本之策。