stp;*.step;*.STP;*.STEP)|*.stp;*.step;*.STP; *.STEP"; #endif // instantiate a convenient data structure for accessing the // lists of extension and filter strings static struct FILE_DATA { char the wrappers support the underlying scene graph classes which, taken together, form a scene graph structure which is compatible with VRML2.0 static scene graphs. The headers, structures, classes and their RenameNodes() as appropriate to ensure that all nodes have a unique name // 4. create an assembly structure by creating new IFSG_TRANSFORM nodes as appropriate // for each instance of a component;

stp;*.step;*.STP;*.STEP)|*.stp;*.step;*.STP; *.STEP"; #endif // instantiate a convenient data structure for accessing the // lists of extension and filter strings static struct FILE_DATA { char the wrappers support the underlying scene graph classes which, taken together, form a scene graph structure which is compatible with VRML2.0 static scene graphs. The headers, structures, classes and their RenameNodes() as appropriate to ensure that all nodes have a unique name // 4. create an assembly structure by creating new IFSG_TRANSFORM nodes as appropriate // for each instance of a component;

stp;*.step;*.STP;*.STEP)|*.stp;*.step;*.STP;*.STEP”; #endif // instantiate a convenient data structure for accessing the // lists of extension and filter strings static struct FILE_DATA { char const* wrappers support the underlying scene graph classes which, taken together, form a scene graph structure which is compatible with VRML2.0 static scene graphs. The headers, structures, classes and their RenameNodes() as appropriate to ensure that all nodes have a unique name // 4. create an assembly structure by creating new IFSG_TRANSFORM nodes as appropriate // for each instance of a component; the component

stp;*.step;*.STP;*.STEP)|*.stp;*.step;*.STP;*.STEP"; #endif // instantiate a convenient data structure for accessing the // lists of extension and filter strings static struct FILE_DATA { char const* wrappers support the underlying scene graph classes which, taken together, form a scene graph structure which is compatible with VRML2.0 static scene graphs. The headers, structures, classes and their RenameNodes() as appropriate to ensure that all nodes have a unique name // 4. create an assembly structure by creating new IFSG_TRANSFORM nodes as appropriate // for each instance of a component; the component

STEP)|*.stp;*.step;*.STP; *.STEP"; #endif // 实例化一个方便的数据结构来访问 // instantiate a convenient data structure for accessing the // 扩展和筛选字符串列表 // lists of extension and filter strings static struct FILE_DATA RenameNodes() as appropriate to ensure that all nodes have a unique name // 4. create an assembly structure by creating new IFSG_TRANSFORM nodes as appropriate // for each instance of a component; Invoke WriteVRML() as normal, with renameNodes = false, to write the entire assembly // structure to a single VRML file // 8. Clean up by deleting any extra IFSG_TRANSFORM wrappers and their

b''b'' 数 b''b'' 据 b''b'' 结 b''b'' 构 b''b'' 来 b''b'' 访 b''b'' 问 b'' // instantiate a convenient data structure for accessing the // b'' 扩 b''b'' 展 b''b'' 和 b''b'' 筛 b''b'' 选 b''b'' 字 b''b'' 符 b''b'' 串 b''b'' RenameNodes() as appropriate to ensure that all nodes have a unique name // 4. create an assembly structure by creating new IFSG_TRANSFORM nodes as appropriate // for each instance of a component; the component Invoke WriteVRML() as normal , with renameNodes = false, to write the entire ←� assembly // structure to a single VRML file // 8. Clean up by deleting any extra IFSG_TRANSFORM wrappers and their underlying

131 14.5 Intermediate Netlist structure . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 131 14.5.1 General netlist file structure . . . . . . . . . . . . . . results in printing and handling problems. • Use several sheets, which leads you to a hierarchy structure. The complete schematic then consists in a main schematic sheet, called root sheet, and sub-sheets in the schematic, but which actually correspond to a schematic which describes their internal structure. This second type is used to develop integrated circuits, because in this case you have to use

. 140 15.5 Intermediate Netlist structure . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 140 15.5.1 General netlist file structure . . . . . . . . . . . . . . . . results in printing and handling problems. • Use several sheets, which leads you to a hierarchy structure. The complete schematic then consists in a main schematic sheet, called root sheet, and sub-sheets in the schematic, but which actually correspond to a schematic which describes their internal structure. This second type is used to develop integrated circuits, because in this case you have to use

results in printing and handling problems. Use several sheets, which leads you to a hierarchy structure. The complete schematic then consists in a main schematic sheet, called root sheet, and sub-sheets components in the schematic, but which actually correspond to a schematic which describes their internal structure. This second type is used to develop integrated circuits, because in this case you have to use thon_script.py "%I" "%O" Assuming python is installed on your PC. 14.5. Intermediate Netlist structure This sample gives an idea of the netlist file format.

0 码力 | 237 页 | 1.61 MB | 1 年前

3

results in printing and handling problems. Use several sheets, which leads you to a hierarchy structure. The complete schematic then consists in a main schematic sheet, called root sheet, and sub-sheets symbols in the schematic, but which actually correspond to a schematic which describes their internal structure. This second type is used to develop integrated circuits, because in this case you have to use thon_script.py "%I" "%O" Assuming python is installed on your PC. 15.5. Intermediate Netlist structure This sample gives an idea of the netlist file format.

0 码力 | 263 页 | 2.36 MB | 1 年前

3