quantum mechanics造句

• Course 1 makes heavy use of quantum mechanics .
  第一种课程大量应用量子力学。
• Quantum mechanics is basically statistical in nature .
  量子力学本质上基本是统计性的。
• Quantum mechanics is an unambiguous and quantitative theory .
  量子力学是一个明确的和定量的理论。
• These results are derivable from the theory of quantum mechanics .
  这些结果是根据量子力学理论推导出来的。
• In quantum mechanics the particle need not have a definite energy .
  在量子力学中，粒子并不需要具有确定的能量。
• The results of this section lie at the very heart of quantum mechanics .
  本节的结果是量子力学所深切关心的问题。
• Newton mechanics is no more than an approximate version of quantum mechanics .
  牛顿力学只是量子力学的一种近似描述。
• We must now see how quantum mechanics accounts for these results .
  现在我们就必须看一下量子力学是如何解释这些结果的。
• Our usual vocabulary is not quite a match for the nuances of quantum mechanics .
  我们通常的词汇与量子力学的意义不太匹配。
• Quantum mechanics scored first in providing an explanation of atomic structure .
  量子力学首先在提供对原子结构的说明中取得成功。
• In quantum mechanics all particles, not only photons, exhibit wavelike properties .
  在量子力学中不仅光子，而且所有粒子都显示波性。
• In quantum mechanics itself there are many constructs that we cannot measure directly .
  量子力学本身就存在着许多不能直接测量的概念。
• Relativity and quantum mechanics have radically altered our picture of nature .
  相对论和量子力学已经从根本上改变了我们对大自然的看法。
• We now develop the theory of quantum mechanics in a more general fashion than previously .
  我们现在以较前更普遍的形式来阐述量子力学理论。
• The relation between quantum mechanics and the mind has been the subject of much speculation .
  量子力学和智力之间的关系受到了极大的关注。
• Special relativity and quantum mechanics were two major theories that appeared subsequently .
  狭义相对论和量子力学是相继出现的两个主要理论。
• Quantum mechanics and relativity have revealed the boundaries of validity of classical mechanics .
  量子力学和相对论，揭示了经典力学的适用范围。
• In this chapter we shall consider some of the basic postulates and theorems of quantum mechanics .
  本章我们将阐述量子力学的一些基本假设和原理。
• In the limit of large quantum numbers quantum mechanics goes over into classical mechanics .
  在大量子数的极限情况下，从量子力学过渡到经典力学。
• Pauli deduced the principle from spectroscopic data prior to the advent of quantum mechanics .
  泡利是在量子力学出现以前，根据原子光谱的数据导出这个原理的。