全部

1·So it prepares for numerical simulation on metal orthogonal cutting process.

从而为正交切削过程的数值模拟奠定了基础。

2·The mechanical boundary conditions in metal orthogonal cutting are reasonably assumed.

对正交切削过程的力学边界条件进行合理假设。

3·A new mathematical model of dynamic cutting forces in orthogonal cutting is presented in this paper.

本文建立了动态切削力的数学模型。

4·An orthogonal cutting force model with tool flank wear has been analyzed based on cutting test investigation.

在试验研究基础上进行了有后刀面磨损的正交切削模型分析。

5·In chapter 3, an optimum method of milling parameter based on orthogonal cutting finite element model is proposed.

第三章提出了基于正交切削加工有限元模型的铣削参数优化方法。

6·The finite element analysis method is used to simulate the 3D precision cutting, including orthogonal cutting and oblique cutting.

采用有限元方法模拟三维精密切削过程，包括三维正交切削和三维斜角切削。

7·By constructing a metal cutting model using slip-line field theory, chip curling radii are predicted theoretically in orthogonal cutting processes.

通过采用滑移线场理论，建立了一种正交切削模型，使用这一模型，从理论上预测了切屑卷曲半径。

8·Based on a new orthogonal cutting model with cutting bending moment, a theoretical calculation method of the cutting bending moment is put forward.

根据带弯矩的正交切削新模型，提出了切削弯矩的理论预报方法。

9·A method based on orthogonal cutting simulation is proposed to predict the distortion of parts due to milling machining, and a finite element model for 3d milling process is set up.

提出了基于正交切削模拟的零件铣削加工变形的预测方法，建立了三维铣削加工的有限元模型。

10·Employed the developed program for orthogonal cutting, a complete simulation for aluminum alloy ZL-301 is carried out. The computational results are well coincident with the experimental ones.

利用自行开发的正交切削模拟计算程序，对铝合金ZL - 301创削过程进行了全程模拟，计算结果与试验结果吻合。