1) quantum parallelism
量子并行性
2) quantum degeneracy
量子简并性
1.
Influence of quantum degeneracy on the performance of a Stirling refrigeration cycle;
量子简并性对气体斯特林制冷循环性能的影响
2.
Based on the equation of state of an ideal quantum gas,the expressions of some important performance parameters such as the work output and efficiency of an Otto power cycle working with a quantum gas were derived,which were used to discuss the influence of the quantum degeneracy of the gas and internal irreversibility on the performance of the cycle.
建立了一个一般的不可逆量子奥托热机循环模型,基于量子气体的状态方程,导出以量子气体为工质的奥托热机的效率、输出功等重要性能参数的表达式,以此讨论理想量子气体的量子简并性及内不可逆性对该热机性能的影响,分析了不可逆奥托热机的性能特征。
3.
They are used to discuss the influence of the quantum degeneracy of the Bose gas and the irreversible adiabatic processes on the performance of the cycle.
基于不可逆布雷顿制冷循环模型和理想玻色气体的状态方程 ,导出以玻色气体为工质的布雷顿制冷循环的输入功、制冷系数、制冷量等重要参数的表示式 ,由此讨论玻色气体的量子简并性和不可逆绝热过程对循环性能的影响 ,揭示以玻色气体为工质的不可逆布雷顿制冷循环的一般性能特性 ,从而导出一些重要结论 。
3) quantum parallel computing
量子并行运算
1.
Concepts of quantum information and quantum computers are described such as quantum states, quantum bits, quantum registers, quantum gates and quantum parallel computing.
介绍了有关量子信息和量子计算机的基本概念 :量子态、量子位、量子储存器、量子逻辑门和量子并行运算 ,并简述了量子计算机的主要发展状
4) quantum parallel algorithms
量子并行算法
1.
In this paper, the quantum computer model and its physical implementation, quantum computation procedure, quantum computation approach, design of quantum parallel algorithms are discussed, and the characteristic of exponential storage and speed up of quantum algorithms is analyzed.
讨论量子计算机模型及其物理实现方案、量子计算过程、量子计算模型和量子并行算法 ,分析量子计算的指数级存储容量和指数加速特征 ,并简述量子计算和量子信息技术在保密通信、密码系统、数据库搜索等重要领域的应用 。
5) quantum parallel computation
量子并行计算
6) Quantum parallelism cluster
量子并行机群
补充资料：单量子阱(见量子阱)
单量子阱(见量子阱)
single quantum well
单且子阱sillgle quantum well见量子阱。
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条