The wall catalytic effect is an important factor determining aerothermal heating intensity in the chemical non-equilibrium gas model.

通过与完全气体模型进行了比较，结果发现无论气动力还是气动热都有较大差别。

Ordinarily, the thickness of velocity boundary layer and grid Reynolds number are used as the delimitating standards for flow field and aerothermal heating computations respectively.

通常的做法是，对于流场边界层厚作为法向网格尺寸划分标准，对于热流则根据网格雷诺数确定网格尺寸。

The wall catalytic effect is an important factor determining aerothermal heating intensity in the chemical non-equilibrium gas model.

过与完全气体模型进行了比较，结果发现无论气动力还是气动热都有较大。

Ordinarily, the thickness of velocity boundary layer and grid Reynolds number are used as the delimitating standards for flow field and aerothermal heating computations respectively.

常的做法是，对于流场计算速度边界层厚度作为法向寸划分标准，对于热流计算则根据雷诺数确定寸。

The wall catalytic effect is an important factor determining aerothermal heating intensity in the chemical non-equilibrium gas model.

通过与完全气体模型进行了比较，结果发现无论气动力还气动热都有较大差别。

Ordinarily, the thickness of velocity boundary layer and grid Reynolds number are used as the delimitating standards for flow field and aerothermal heating computations respectively.

通常的做法，于流场计算速边界层为法向网格尺寸划分标准，于热流计算则根据网格雷诺数确定网格尺寸。

The wall catalytic effect is an important factor determining aerothermal heating intensity in the chemical non-equilibrium gas model.

过与完全气体模型进行了比较，结果发现无论气动力还是气动热都有较大。

Ordinarily, the thickness of velocity boundary layer and grid Reynolds number are used as the delimitating standards for flow field and aerothermal heating computations respectively.

常的做法是，对于流场计算速度边界层厚度作为法向寸划分标准，对于热流计算则根据雷诺数确定寸。

The wall catalytic effect is an important factor determining aerothermal heating intensity in the chemical non-equilibrium gas model.

通过与完全气体模型进行了比较，结果发现无论气动力还气动热都有较大差别。

Ordinarily, the thickness of velocity boundary layer and grid Reynolds number are used as the delimitating standards for flow field and aerothermal heating computations respectively.

通常的做法，于流场计算速边界层为法向网格尺寸划分标准，于热流计算则根据网格雷诺数确定网格尺寸。

The wall catalytic effect is an important factor determining aerothermal heating intensity in the chemical non-equilibrium gas model.

通过与完全气体模型进较，结果发现无论气动力还是气动热都有较大差别。

Ordinarily, the thickness of velocity boundary layer and grid Reynolds number are used as the delimitating standards for flow field and aerothermal heating computations respectively.

通常的做法是，对于流场计算速度边界层厚度作为法向格尺寸划分标准，对于热流计算则根据格雷诺数格尺寸。

The wall catalytic effect is an important factor determining aerothermal heating intensity in the chemical non-equilibrium gas model.

通过与完全气体模型进行了比较，结果发现无论气力还是气热都有较大差别。

Ordinarily, the thickness of velocity boundary layer and grid Reynolds number are used as the delimitating standards for flow field and aerothermal heating computations respectively.

通常的做法是，对于流场计算速度边界层厚度作为法向网格尺寸划分标准，对于热流计算则根据网格雷诺数确定网格尺寸。

The wall catalytic effect is an important factor determining aerothermal heating intensity in the chemical non-equilibrium gas model.

通过与完全体模型进行了比较，结果发现无论动力动都有较大差别。

Ordinarily, the thickness of velocity boundary layer and grid Reynolds number are used as the delimitating standards for flow field and aerothermal heating computations respectively.

通常的做法，对场计算速度边界层厚度作为法向网格尺寸划分标准，对计算则根据网格雷诺数确定网格尺寸。

The wall catalytic effect is an important factor determining aerothermal heating intensity in the chemical non-equilibrium gas model.

通过与完全气体模型进行了比较，结果发现无论气动力还是气动热都有较大差别。

Ordinarily, the thickness of velocity boundary layer and grid Reynolds number are used as the delimitating standards for flow field and aerothermal heating computations respectively.

通常的做法是，场计算速度边度作为法向网格尺寸划分标准，热计算则根据网格雷诺数确定网格尺寸。