quantum interference

In principle, it can exploit coherent quantum interference and entanglement to perform computations, such as factoring large numbers or searching an unsorted database, more rapidly than classical computers.

原则上，它能利用量子相干干涉方法以比传统计算机更快的速度进行诸如大数的因式分解、未排序数据库中的数据搜索等工作[2]。

However, the recent studies showed that the thermal light sources can also realize correlated imaging and correlated interference, and thus brake the limitation of quantum entangled source. The inquiry that correlated imaging concerns quantum entanglement or classical correlation was evoked.

然而近期一系列的研究证明，热光也可以实现关联成像和关联干涉。这打破了纠缠光源的局限性，同时也引发了热光关联成像的量子本质与经典本质之争。

Investigating on Quantum Interference of Spontaneous Emission Spectrum from a Λ Three-level Atom in Photonic Crystal

光子晶体内三能级∧型原子自发辐射量子相干的理论研究

The schemes which are puted forward at' present have mainly made use of the interaction of atoms and optical-cavity, cold trapped ion, electronics spin or nuclear magnetic resonance, quantum dots manipulation and superconducting quantum interference etc..

目前已经提出的方案主要利用了原子和光腔相互作用、冷阱束缚离子、电子或核自旋共振、量子点操纵、超导量子干涉等。

The Study of Quantum Interference in Molecular Multi-level System

分子多能级系统量子干涉效应研究

The differential interference angle of Λ-Related Quantum Interference of 1 Π-state diatom was presented to measure the degree of coherence, by using the first order Born approximation of time-dependent perturbation theory.

作者文运用含时微扰的一级波恩近似理论，提出了衡量干涉程度的1П态双原子分子中关于∧量子干涉的微分干涉角。

Quantum coherent and interference have led to many interesting and significative consequences such as coherent population transfer ( CPTR), coherent population trapping ( CPTP), amplification without population inversion ( AWI) and superluminal, etc.

量子相干和干涉产生了很多有趣而又有意义的结果，如相干布居迁移（CPTR），相干布居囚禁（CPTP），无反转放大（AWI），以及超光速（Superluminal）等等。

By tuning the degeneracy of the two lower-energy states in the TQD, an electron can be trapped in the dark state caused by the destructive quantum interference between tunnelings to the higher-energy state.

通过调节三量子点中两个低能态的简并性，单个电子能够被囚禁在暗态。这个态是由于两个低能态到高能态的遂穿之间破坏性的量子干涉所引起。

It first illustrates the wave-particle dualism of photon and quantum entangle effect with the double-slit quantum interference experiment.

以双狭缝量子干涉实验为例说明光子的波粒二象性，量子纠缠现象。

Then, the finite difference method is employed to get numerical solution of quantum dynamic equations of superconducting quantum interference device at the static magnetic field bias and offset alternating magnetic field respectively.

本文分别推导了量子干涉仪的经典动力学方程及其量子化的量子动力学方程；并利用有限差分法求解了静磁场偏置和交变磁场偏置的超导量子干涉仪量子动力学方程的数值解。

SQUID and magnetic flux φ_L& quantum interference effect.

SQUID的最大超导电流与磁通φL的关系&量子干涉效应。