...联结而形成, 例如通过范德华力(Van der Waals forces)、偶极作用(dipole-dipole interactions)或 者氢键结合(hydrogen bonding)。因为这些联结本质上是物理联结,与化学键不同,所以这 些联结是热可逆的(thermally reversible)。
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Hydrogen Bonding 氢键 ; 氢键结合 ; 氢结合 ; 氢键结 silicon hydrogen bonding configuration 硅-氢键合模式 ; 硅—氢键合模式 Hydrogen Bonding Destroy Agent 氢键破坏剂 .
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solvent hydrogen bonding 溶剂氢结合 ; 溶剂坡度
Polarity and Hydrogen Bonding 极性和氢键
quadrupolar hydrogen bonding 四重氢键
intermolecular hydrogen bonding 分子间氢键 ; 分子间以氢键合
hydrogen bonding force 氢键结合力
Intramolecular hydrogen bonding 分子内氢键 ; 分子内氢的键合
hydrogen bonding complex 氢键复合物 ; 氢键络合物
Each parts comprised of the compound are helded together by hydrogen bonding and formed the network supramolecular structure.
晶体的各部分间以氢键相互连接, 形成了超分子结构。
参考来源 - 以(NEtIt revealed that there were fine interface contact and strong hydrogen bonding between soy protein and WPU.
实验揭示,蛋白质和WPU之间存在紧密的界面接触以及强氢键作用。
参考来源 - 环境友好大豆蛋白质功能材料的结构与性能·2,447,543篇论文数据,部分数据来源于NoteExpress
以上来源于: WordNet
可能是氢键作用。
And there's weak hydrogen bonding between them.
它们之间有,微弱的氢键。
It could be hydrogen bonding. Could be different.
它有可能是氢键,可能不同。
There's not actually chemical covalent bonds that are formed but it's a non-covalent interaction, usually dominated by hydrogen bonding.
所以配体和受体之间不生成共价键,这是一种非共价化合反应,它们通常以氢键相联
Now if you read in the book, you read about where this figure is shown in the book, you can understand more about why these structures line up in the right way so that the right molecular elements are together to form hydrogen bonding pairs between them.
如果你预习过课本,课本中有关于这些详细的描述,你可以更深刻的理解,为什么这些结构是采用这种连接方式,以使对应的分子部分靠近,并形成氢键连接
And then this means we'll have a total of sigma1s two electrons in our hydrogen molecule, so we can fill both of those into the sigma 1 s orbital, the bonding orbital. We don't have to put anything into the anti-bonding orbital, so that's great.
我们可以把这两个,都填入,轨道里去,成键轨道,我们不需要把什么放到反键轨道里去,这很好。
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