quantum number

quantum number的基本解释

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[计] 量子数

与quantum number相关的网络例句 [注：此内容来源于网络，仅供参考]

In the past 3 years, we have made the following progress:（1）we devised some theoretical schemes performing quantum information processes in encoded subspaces under the condition of general interaction models;（2）considering some practical physical systems,we provided some more efficient schemes performing quantum information processes under actual physical conditions;（3）we studied the stability of the entanglement in 2-qubit system under several decoherent environments;（4）we studied the optimal successful probability of some kinds of nondistortion quantum interrogations in quantum subspaces;（5）we also investigated some fundamental questions in quantum information fields such as quantum channel,quantum teleportation etc.

近三年来，我们在以下方面取得进展：（1）研究了在一般的相互作用下，直接在子空间中实施各种量子信息过程的理论方案；（2）针对于当前的某些实际的物理系统，研究了在现有的实验条件之下，如何高效地实施各种量子信息过程的方法；（3）研究了2-qubit量子系统的纠缠在各种消相干环境下的稳定性问题；（4）研究了量子子空间实施无损伤的量子质询的最佳效率；（5）我们也研究了量子信道、量子隐形传态等量子信息的基础问题。

It has been showed that the quantum PCII can be still valid for the general case Jacobi J 1, which is different from quantum Noether theorem. The equivalence between quantum canonical equation and PCII is deflved at the quantum level. The comparisons of these results in quantum level with those in classical theories are discussed in detail. The relationship of canonical transformation with quantum PCII is obtained.

结果表明，当变换的Jacobi行列式不为1时，量子PC积分不变量仍然存在，从而把PC积分不变量推广到了最一般情形；在量子水平上，证明了量子正则方程与该积分不变量之间的等价性；比较了经典与量子PC积分不变量以及PC积分不变量与Noether定理；给出正则变换与量子PC积分不变量间的关系。

The epitaxial wafer is equipped with two detached quantum traps, by preparing three electrodes on the p-type layer I, the n-type layer and the p-type layer II, the two quantum traps can respectively emit light with different wavelength under applied voltage, after the epitaxial wafer is prepared to LED chip, mixing light with different wavelength emitted by the quantum trap I and the quantum trap II are obtained, or a single-color light emitted by the quantum trap I or the quantum trap II is obtained, thereby greatly extending application area of the LED.

本发明外延片设有两个分隔的量子阱，通过在p型层I、n型层、和p型层II制作三个电极，可使两量子阱在外加电压下分别发射不同波长的光，该外延片制作成LED芯片后，可获得由量子阱I和量子阱II发出的不同波长的混合光，或者分别发出由量子阱I或量子阱II产生的一种颜色的单色光，大大拓展LED的应用范围。

与quantum number相关的网络解释 [注：此内容来源于网络，仅供参考]

quantum number：量子数

粒子和反粒子的质量和生命期(Lifetime)相同,但所带电荷及其他量子数(Quantum number), 如以下提到的重子数,轻子数和奇异数(Strangenessnumber等等)加起来是零.

quantum number：量子数=>量子数

quantum noise power 量子噪声功率 | quantum number 量子数=>量子数 | quantum of rainfall 降雨总量

quantum number：子

1910 quantum 子 | 1911 quantum number 子 | 1912 quark 夸克

quantum number：抛射体

动力反应堆projectile | 抛射体quantum number | 量子数radiant energy

magnetic quantum number：磁量子数

但是在数学上不能够同时得到位置和动量的精确值,①原子中的电子在具有确定半径的圆周轨道(orbit)上绕原子核运动,不辐射能量③磁量子数(magnetic quantum number)磁量子数决定不同能级的轨道,符号"m"(见下文"磁矩").