结构/性能关系,structure/performance relationship
1)structure/performance relationship结构/性能关系
2)structure-property relationship结构-性能关系
1.In this paper,the progress in applying the methods of computational chemistry to studying MOFs’structure-property relationships is reviewed,and particular attention is paid to the work carried out in the authors’ laboratory.本文综述了计算化学方法在探索MOF材料结构-性能关系方面的研究进展,并着重介绍了本研究室在此方面的研究成果。
3)structure-property relationship结构性能关系
1.An approach based on the molecular topology is used to study the relationship between the boiling points of alkyl benzenes, alkyl biphenyls and their molecular sturctures, and a quantitative relation is developed which can be used to characterize thestructure-property relationship and to predict the boiling points of alkyl benzenes and alkyl biphenyls.根据分子拓扑学原理,用距离矩阵表征分子中原子的连接性,通过区分苯环碳原子与烷基碳原子性质的差异,探讨了烷基苯和烷基联苯的沸点与其分子结构之间的关系,提出一个既能合理表征烷基苯和烷基联苯的结构性能关系,又能根据分子结构信息预测沸点的定量关系式。
2.An approach based on the molecular topology is used to study the relationship between the boiling points of alkyl naphthalenes and their molecular structures, and a quantitative relation is developed which can be used to characterize thestructure-property relationship and to predict the boiling points of alkyl naphthalenes.根据分子拓扑学原理 ,用距离矩阵表征分子中原子的连接性 ,通过标识萘环碳原子性质的特殊性 ,探讨了烷基萘的沸点与其分子结构之间的关系 ,提出一个既能合理表征烷基萘的结构性能关系、又能预测沸点的定量关系式 对 70种烷基萘 (C10 ～C2 2 )的计算结果表明 ,烷基萘沸点的预测值与实验值之间的一致性令人满意 ,平均绝对误差 2 37K ,平均相对误差 0 43
3.An approach based on the molecular topology is used to study the relationship between the refractive indexes of alkyl naphthalenes and their molecular structures, and a quantitative relation is developed which can be used to characterize thestructure-property relationship and to predict the refractive indexes of alkyl naphthalenes.根据分子拓扑学原理,用距离矩阵表征分子中碳原子之间的连接性,探讨了烷基萘的折光指数与其分子结构之间的关系,提出一个既能合理表征烷基萘的结构性能关系、又能预测折光指数的定量关系式。
4)structure property relationship结构性能关系
1.Based on the molecular topology, the colored molecular graph is used to replace the hydrogen -suppressed graph, and distance matrix is used to characterize molecular structure and dyeing factors are proposed to distinguish the difference among the radicals in molecules, a new method, which can be used to study thestructure property relationship of molecules containing heteroatoms, is developed.根据分子拓扑学原理,通过采用信息量丰富的染色分子图代替隐氢图,借助于距离矩阵表征分子图中顶点的连接性和标识分子图中顶点性质的差异,发展了一种适用于含杂原子分子体系结构性能研究的新方法,据此探讨了脂肪醛和脂肪酮的沸点与分子结构之间的关系,提出一个既能合理表征结构性能关系、又能预测沸点的定量关系式。
5)structure-property relation结构性能关系
6)relationship between construction and property结构与性能关系
英文短句/例句
1.Correlation of chain structure and properties in fatty methyl ester random polyether脂肪酸甲酯无规聚醚结构与性能关系
2.Investigation of the relationship between the physical structure and the properties of functional materials tourmaline功能材料电气石的物理结构与性能关系研究
3.Studies on Preparation of New Flotation Reagents and Structure-Activity Relationship新型有机抑制剂的合成及结构与性能关系研究
4.The Structure and Property Relationship in Rare Earth Aluminum Alloy Surface Oxide Film;含稀土铝合金表面氧化膜结构与性能关系研究
5.Studies on the Relationship between Structure and Performance of Pu Based Elastomer;聚氨酯弹性体结构与性能的关系研究
6.A Study of Literature Signs ConnotationAnd Functional Relations;论文学符号的本质与功能性结构关系
7.Study on Quantified Relation between Structure and Properties of Several Series Compounds;若干系列化合物结构与性能间的定量关系研究
8.Study of the Relationship Between Additive Structures and Lubricant Properties;油性剂分子结构与润滑性能关系的研究
9.Relationship between structure and properties of long chain Gemini phosphate surfactant长碳链Gemini磷酸酯表面活性剂结构与性能的关系
10.Quantitative Relation Between the Additive Property of Aliphatic Alcohol and its Molecular Structure脂肪醇加和型性能与其分子结构间的定量关系
11.Relationship Between Cohesive Properties and Molecular Structure for Aliphatic Aldehydes and Aliphatic Ketones脂肪醛和脂肪酮凝聚型性能与分子结构的关系
12.The Study of Relation between Character and Structure of Alpha-amylase with Bioinformatics;α-淀粉酶性能与结构关系的生物信息学研究
13.Structure-Property Relationships of PLA Microspheres Controlled Delivery and Modeling;聚乳酸微球载体的结构与控释性能关系及模型
14.Studies on Preparation of SPU Sealants and Structure- Mechanical Properties Relationship;SPU密封胶的制备及结构与力学性能关系的研究
15.The Relationship between the Structure and Performance of Light-weight Worsted Fabrics;薄型精纺毛织物结构与服用性能的关系
16.The Performance of Soybean Protein Woven Fabrics and the Relationship between Performance and Structure;大豆蛋白纤维机织物性能与结构的关系
17.Study on the Relationship between Structure and Viscoelasticity of PAN Spinning Solution;聚丙烯腈纺丝溶液结构与粘弹性能关系研究
18.The Study of Thermai Property-Structure Relationships of Chlorinated Polyvinyl Chlorides;氯化聚氯乙烯（CPVC）结构与性能的关系研究
相关短句/例句
structure-property relationship结构-性能关系
1.In this paper,the progress in applying the methods of computational chemistry to studying MOFs’structure-property relationships is reviewed,and particular attention is paid to the work carried out in the authors’ laboratory.本文综述了计算化学方法在探索MOF材料结构-性能关系方面的研究进展,并着重介绍了本研究室在此方面的研究成果。
3)structure-property relationship结构性能关系
1.An approach based on the molecular topology is used to study the relationship between the boiling points of alkyl benzenes, alkyl biphenyls and their molecular sturctures, and a quantitative relation is developed which can be used to characterize thestructure-property relationship and to predict the boiling points of alkyl benzenes and alkyl biphenyls.根据分子拓扑学原理,用距离矩阵表征分子中原子的连接性,通过区分苯环碳原子与烷基碳原子性质的差异,探讨了烷基苯和烷基联苯的沸点与其分子结构之间的关系,提出一个既能合理表征烷基苯和烷基联苯的结构性能关系,又能根据分子结构信息预测沸点的定量关系式。
2.An approach based on the molecular topology is used to study the relationship between the boiling points of alkyl naphthalenes and their molecular structures, and a quantitative relation is developed which can be used to characterize thestructure-property relationship and to predict the boiling points of alkyl naphthalenes.根据分子拓扑学原理 ,用距离矩阵表征分子中原子的连接性 ,通过标识萘环碳原子性质的特殊性 ,探讨了烷基萘的沸点与其分子结构之间的关系 ,提出一个既能合理表征烷基萘的结构性能关系、又能预测沸点的定量关系式 对 70种烷基萘 (C10 ～C2 2 )的计算结果表明 ,烷基萘沸点的预测值与实验值之间的一致性令人满意 ,平均绝对误差 2 37K ,平均相对误差 0 43
3.An approach based on the molecular topology is used to study the relationship between the refractive indexes of alkyl naphthalenes and their molecular structures, and a quantitative relation is developed which can be used to characterize thestructure-property relationship and to predict the refractive indexes of alkyl naphthalenes.根据分子拓扑学原理,用距离矩阵表征分子中碳原子之间的连接性,探讨了烷基萘的折光指数与其分子结构之间的关系,提出一个既能合理表征烷基萘的结构性能关系、又能预测折光指数的定量关系式。
4)structure property relationship结构性能关系
1.Based on the molecular topology, the colored molecular graph is used to replace the hydrogen -suppressed graph, and distance matrix is used to characterize molecular structure and dyeing factors are proposed to distinguish the difference among the radicals in molecules, a new method, which can be used to study thestructure property relationship of molecules containing heteroatoms, is developed.根据分子拓扑学原理,通过采用信息量丰富的染色分子图代替隐氢图,借助于距离矩阵表征分子图中顶点的连接性和标识分子图中顶点性质的差异,发展了一种适用于含杂原子分子体系结构性能研究的新方法,据此探讨了脂肪醛和脂肪酮的沸点与分子结构之间的关系,提出一个既能合理表征结构性能关系、又能预测沸点的定量关系式。
5)structure-property relation结构性能关系
6)relationship between construction and property结构与性能关系
延伸阅读
不锈钢的物理性能、力学性能和耐热性能不锈钢的物理性能 不锈钢和碳钢的物理性能数据对比，碳钢的密度略高于铁素体和马氏体型不锈钢，而略低于奥氏体型不锈钢；电阻率按碳钢、铁素体型、马氏体型和奥氏体型不锈钢排序递增；线膨胀系数大小的排序也类似，奥氏体型不锈钢最高而碳钢最小；碳钢、铁素体型和马氏体型不锈钢有磁性，奥氏体型不锈钢无磁性，但其冷加工硬化生成成氏体相变时将会产生磁性，可用热处理方法来消除这种马氏体组织而恢复其无磁性。 奥氏体型不锈钢与碳钢相比，具有下列特点： 1）高的电阴率，约为碳钢的5倍。 2）大的线膨胀系数，比碳钢大40％，并随着温度的升高，线膨胀系数的数值也相应地提高。 3）低的热导率，约为碳钢的1/3。 不锈钢的力学性 不论不锈钢板还是耐热钢板，奥氏体型的钢板的综合性能最好，既有足够的强度，又有极好的塑性同时硬度也不高，这也是它们被广泛采用的原因之一。奥氏体型不锈钢同绝大多数的其它金属材料相似，其抗拉强度、屈服强度和硬度，随着温度的降低而提高；塑性则随着温度降低而减小。其抗拉强度在温度15~80°C范围内增长是较为均匀的。更重要的是：随着温度的降低，其冲击韧度减少缓慢，并不存在脆性转变温度。所以不锈钢在低温时能保持足够的塑性和韧性。 不锈钢的耐热性能 耐热性能是指高温下，既有抗氧化或耐气体介质腐蚀的性能即热稳定性，同时在高温时双有足够的强度即热强性。 不锈钢国际标准标准 标准 标准名 GB 中华人民共和国国家标准（国家技术监督局） KS 韩国工业标准协会规格Korean Standard AISI 美国钢铁协会规格America Iron and Steel Institute SAE 美国汽车技术者协会规格Society of Automative Engineers ASTM 美国材料试验协会规格American Society for Testing and Material AWS 美国焊接协会规格American Welding Society ASME 美国机械技术者协会规格American Society of Mechanical Engineers BS 英国标准规格British Standard DIN 德国标准规格Deutsch Industria Normen CAS 加拿大标准规格Canadian Standard Associatoin API 美国石油协会规格American Petroleum Association KR 韩国船舶协会规格Korean Resister of Shipping NK 日本省事协会规格Hihon Kanji Koki LR 英国船舶协会规格Llouds Register of Shipping
