本文采用上述数值算法模拟了超声速扩压器和超声速引射器内流场。

In this paper, the flow field of the supersonic diffuser and the subsonic-supersonic ejector is simulated by numerical method.

实验是在日本室兰工业大学的超声速风洞中完成的。

The experiment was done in the supersonic wind tunnel of Muroran Institute of Technology.

随时间变化的温度梯度与金属内部应力区的相互作用会导致超声速产生一种明显的变化。

The interaction of temperature gradient with internal stress profile would result in time-varying velocity shift.

它们的特性依赖于这个非线相互作用势，在此时存在超声速、声速和次声速的孤立子运动。

Its properties depending on the non-linear interaction potentials, there are the supersonic, sonic and subsonic soliton motion in the protein molecules.