运用Peleg模型,研究了小米在不同温度和时间浸泡条件下的吸水性质,并对其吸水动力学进行了分析。结果表明,在浸泡的初始阶段小米以很高的速率吸收水分,随后小米含水量的变化逐渐趋于平缓,最后小米含水量达到平衡;Peleg方程对小米在不同...运用Peleg模型,研究了小米在不同温度和时间浸泡条件下的吸水性质,并对其吸水动力学进行了分析。结果表明,在浸泡的初始阶段小米以很高的速率吸收水分,随后小米含水量的变化逐渐趋于平缓,最后小米含水量达到平衡;Peleg方程对小米在不同温度下的吸水过程能够较好地拟合,R2均大于0.99,且相对误差均小于5%,其中,速率常数K1与容量常数K2均随温度的升高而降低;将温度与其对应的速率常数K1进行阿尼乌斯方程拟合,R2为0.97,拟合度较高,并得到小米在浸泡过程中的活化能为11.003 k J/mol。展开更多
An entangled state is prepared using nuclear magnetic resonance (NMR). And its attribute is shown in NMR spectra. The relation between quantum entanglement and coherence is discussed by studying the evolution of entan...An entangled state is prepared using nuclear magnetic resonance (NMR). And its attribute is shown in NMR spectra. The relation between quantum entanglement and coherence is discussed by studying the evolution of entangled state under decoherence.展开更多
Quantum decoherence behavior is observed and studied on a 2 qubit NMR quantum computer. Experimental results show a good agreement between theory and experiment. The scheme can be generalized to the case that the envi...Quantum decoherence behavior is observed and studied on a 2 qubit NMR quantum computer. Experimental results show a good agreement between theory and experiment. The scheme can be generalized to the case that the environment is composed of N independent qubits.展开更多
文摘运用Peleg模型,研究了小米在不同温度和时间浸泡条件下的吸水性质,并对其吸水动力学进行了分析。结果表明,在浸泡的初始阶段小米以很高的速率吸收水分,随后小米含水量的变化逐渐趋于平缓,最后小米含水量达到平衡;Peleg方程对小米在不同温度下的吸水过程能够较好地拟合,R2均大于0.99,且相对误差均小于5%,其中,速率常数K1与容量常数K2均随温度的升高而降低;将温度与其对应的速率常数K1进行阿尼乌斯方程拟合,R2为0.97,拟合度较高,并得到小米在浸泡过程中的活化能为11.003 k J/mol。
文摘An entangled state is prepared using nuclear magnetic resonance (NMR). And its attribute is shown in NMR spectra. The relation between quantum entanglement and coherence is discussed by studying the evolution of entangled state under decoherence.
文摘Quantum decoherence behavior is observed and studied on a 2 qubit NMR quantum computer. Experimental results show a good agreement between theory and experiment. The scheme can be generalized to the case that the environment is composed of N independent qubits.