• Whether Gadamer means that when he speaks of gap or whether he simply means an abyss or a distance to be crossed I couldn't say.

    当葛达玛说到间隙是那个意思,还是仅仅认为它是需要跨越的一个深渊或者一段距离,我不能确定。

    耶鲁公开课 - 文学理论导论课程节选

  • So, when we think about a bond length, this is going to be the length of our bond here, that makes sense because it's going to want to be at that distance that minimizes the energy.

    因此,当我们考虑一个键的长度的候,这就应该是我们的键长,这是合理的,因为体系会在核间距达到这一距离时,能量到达最小值。

    麻省理工公开课 - 化学原理课程节选

  • You adjust the lengths and when it balances, you can sort of tell what this mass is, right?

    调整它与支点的距离,然后当它平衡,你就能得到质量是多少,对吧

    耶鲁公开课 - 基础物理课程节选

  • At infinity, there's no stored potential energy, and it drops off more and more negative as one over R.

    在无限远处,没有储存的势能,并且它向负方向减少,当距离超过R

    麻省理工公开课 - 固态化学导论课程节选

  • What we're going to do in forming a molecule is just bring these two orbitals close together such that now we have their nucleus, the two nuclei, at a distance apart that's equal to the bond length.

    我们在形成一个分子要做的就是,把这两个轨道放到一起,这样我们有他们的原子核,两个原子核,它们之间的距离为键长。

    麻省理工公开课 - 化学原理课程节选

  • A lot of times we talk about these kind of distances either in nanometers or in angstroms so we can say this is 70 angstroms.

    我们在讨论此类的距离时,很多都用到纳米和埃米的单位,所以它的波长是70埃米。

    麻省理工公开课 - 化学原理课程节选

  • For example, when we're talking about radial probability distributions, the most probable radius is closer into the nucleus than it is for the s orbital.

    举例来说当我们讨论径向概率分布,距离原子核最可能的半径是,比s轨道半径,更近的可以离原子核有多近。

    麻省理工公开课 - 化学原理课程节选

  • So, we just talked about the force law to describe the interaction between a proton and an electron. You told me that when the distance went to infinity, the force went to zero. What happens instead when the distance goes to zero? What happens to the force?

    我们刚刚讨论了描述质子,和电子之间相互作用力的定律,当距离变为无穷,力变为零,那当距离变为,零会发生什么?,这候力是多少?

    麻省理工公开课 - 化学原理课程节选

  • So, if we look at this graph where what we're charting is the internuclear distance, so the distance between these two hydrogen atoms, as a function of energy, -- what we are going to see is a curve that looks like this -- this is the general curve that you'll see for any covalent bond, and we'll explain where that comes from in a minute.

    因此,如果我们来看一看这幅曲线图,这里我们画的横坐标是核间距,也就是这两个氢原子之间的距离,纵坐标是能量,我们看到的这是能量关于核间距的曲线-,这是一条普遍的曲线,在研究任何共价键你都会遇到,我们马上就会解释一下它是怎么来的。

    麻省理工公开课 - 化学原理课程节选

  • So, we can use Coulomb's force law to think and it does that, it tells us the force is a function of that distance. But what it does not tell us, which if we're trying to describe an atom we really want to know, is what happens to the distance as time passes?

    来考虑这两个粒子之间的,它告诉我们力随距离的函数关系,但它不能告诉我们,而我们如果要描述,原子又非常想知道的是,距离间的变化怎样的?

    麻省理工公开课 - 化学原理课程节选

  • That was Cartesian space. When I plot r as a distance out from the nucleus that is sort of our simple-minded planetary model. Now let's look at energy.

    笛卡尔坐标系,当我用r表示,离原子核的距离时,那只是我们头脑中简单的,类似行星的模型,现在我们看一下能量问题。

    麻省理工公开课 - 固态化学导论课程节选

  • And when we're talking about orbitals in the same state, what we find is that orbitals that have lower values of l can actually penetrate closer to the nucleus.

    当我们谈论在相同态的轨道,轨道事实上,我们发现的,是具有较低l值的,可以穿越到距离原子核更近的地方。

    麻省理工公开课 - 化学原理课程节选

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