| 1. | Once a stable time step is found, further reduction will not appreciably increase solution accuracy .
一旦找到一个稳定的时间步长，进一步减少它不会显著增加解的精度。 |
| 2. | The local time steps are determined by a local cfl condition
该方法的局部时间步长取决于一个局部的cfl条件。 |
| 3. | Automatic time step control
自动时间步长控制 |
| 4. | You can use the patterns that the algorithm discovers to predict values for future time steps
使用该算法发现的模式可以预测未来时间步长的值。 |
| 5. | You can select how many future time steps you want to see in the model by using
使用“预测步骤”可以选择要在模型中显示的未来时间步长的数量。 |
| 6. | Numerical experiments demonstrate the efficiency and robustness of the proposed method
计算结果表明，对于这类问题，我们的局部时间步长算法可以得到预期的结果。 |
| 7. | The moving grids are attached to the wing and are generated at every time step in the calculation for the unsteady viscous flows
在计算非定常流动时采用贴体运动网格，每一个时间步长生成一次。 |
| 8. | For this simple example we will use a pattern time step of 6 hours thus making demands change at four different times of the day
为此，我们拟定模板的时间步长为6小时，按一天的4个不同时间而变化。 |
| 9. | A three - dimensional model , imbedded a closure turbulence sub - model , was built and applied to simulate the barotropic tides and tidal currents in the ecs
该模式可大大提高时间步长，与目前广泛使用的pom模式相比，效率可提高数十倍。 |
| 10. | The two methods are validated by running the xin ' anjiang model at a daily time step from the monthly data , and the model outputs are more accurate than the monthly hydrological model
然后以时间步长为日，运行新安江模型，用模拟的月径流过程验证了解集方法的合理性。 |
