Dynamics Within Atoms in Intense Electromagnetic Fields (Physics)

实验研究将在量子 经典混沌量子扩散的动力学 量子 要利用的系统是几乎一维的高度 在强微波和静电场中激发氢原子 领域的 这个半经典系统是原子在 强烈的电磁辐射场 因此， 研究涉及到原子过程引起的非常强烈的 光场 这些测量涉及到一个快速的 微波激光激发氢原子束 波导结构，以在每个波导结构中产生微波脉冲， 原子的参照系 测量将为最终绑定状态 概率分布和电离概率。 其他 研究课题包括量子抑制的研究， 作用空间中的扩散，量子扩散的测量 常数和断点时间，经典和量子共振 效应，静态场量子隧穿增强，量子 扩散和随机微波场的影响。

Experimental studies will be carried out on the quantum dynamics of classically chaotic quantum diffusion. The quantum system to be utilized is the nearly one dimensional highly excited hydrogen atom in intense microwave and static electric fields. This semiclassical system is a prototype for atoms in intense electromagnetic radiation fields. As such, the research pertains to atomic processes induced by very intense optical fields. The measurements involve the passage of a fast laser excited atomic hydrogen beam through a microwave waveguide structure, to produce a microwave pulse in each atom's reference frame. Measured will be final bound state probability distributions and ionization probabilities. Other topics studied include research on the quantum suppression of diffusion in action space, the measurement of quantum diffusion constants and breakpoint times, classical and quantum resonance effects, static field quantum tunneling enhancement of quantum diffusion, and the effects of stochastic microwave fields.