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nx头文件集合

时间: 2025-08-15 15:58:33 浏览: 13
<think>首先,用户的问题是:“请问Nx 头文件集合下载与配置指南”。从系统指令和引用内容来看,用户可能指的是NX Open SDK的头文件集合,因为引用[1]提到了NX Open SDK的安装和验证。 关键点: - 用户需要下载和配置Nx的头文件集合。 - 引用[1]详细描述了NX Open SDK的下载、安装和验证步骤。 - 引用[2]和[3]似乎不直接相关,但引用[2]提到了一些项目结构,引用[3]是关于SSE2NEON的,可能与二次开发相关,但用户焦点在NX上。 系统指令要求: - 所有行内数学表达式用$...$。 - 独立公式用$$...$$并单独成段。 - LaTeX语法正确。 - 使用中文回答。 - 生成相关问题。 - 回答中引用的段落末尾添加引用标识。 - 回答结构清晰,帮助用户逐步解决问题。 - 参考站内引用,但用户意图基于NX。 用户意图:用户说“我想用户意图是寻找与 Nx 相关的头文件集合,可能是为了开发或配置 Nx 项目。” 所以,我假设Nx指的是Siemens NX软件的头文件。 回答结构: 1. **介绍**:简要解释NX Open SDK及其头文件。 2. **下载指南**:如何下载NX Open SDK。 3. **安装指南**:如何安装和配置。 4. **验证安装**:如何验证头文件是否正确安装。 5. **示例代码**:提供简单的代码示例来测试。 6. **相关问题**:生成相关问题。 使用引用: - 引用[1]直接相关,所以我会在适当的地方添加[^1]。 - 引用[2]和[3]不太相关,但可以忽略或间接参考。 步骤: - 下载:从Siemens官方网站下载。 - 安装:运行安装包,选择匹配版本。 - 验证:使用Python脚本调用NX Open API。 示例代码:从引用[1]中提取并调整。 相关问题:生成3-4个相关问题,基于NX开发。 最终输出: - 回答用中文。 - 结构清晰。 - 末尾添加相关问题。</think>### NX 头文件集合下载与配置指南 NX 头文件集合通常指 Siemens NX 软件的二次开发工具包(NX Open SDK)中的头文件,这些文件包含用于调用 NX API 的接口定义。配置这些头文件是进行 NX 二次开发的基础,例如创建自定义插件或自动化任务。以下是详细的下载与配置指南,基于标准流程和最佳实践。整个过程分为下载、安装、配置和验证四个步骤,确保您能顺利完成。 #### 1. **下载 NX Open SDK** - NX Open SDK 是 Siemens NX 的官方开发工具包,包含头文件、库文件和示例代码。您需要从 Siemens 官方网站下载适用于您 NX 版本的 SDK。 - **步骤**: 1. 访问 Siemens 官方网站(如 [Siemens PLM 支持中心](https://support.sw.siemens.com))。 2. 搜索与您的 NX 版本(如 NX 12.0 或 NX 2206)匹配的 NX Open SDK 安装包。确保版本一致,否则可能不兼容。 3. 下载 SDK 安装包(通常为 `.exe` 或 `.msi` 文件)。 - **注意**:如果初次安装 NX 软件时未选择 SDK,可重新运行 NX 安装介质,勾选 SDK 选项[^1]。 #### 2. **安装 NX Open SDK** - 安装过程将 SDK 的头文件和库文件部署到系统目录中,便于开发环境调用。 - **步骤**: 1. 运行下载的 SDK 安装包。 2. 按照安装向导提示操作,在安装类型中选择“自定义安装”。 3. 确保勾选“NX Open”或“API Libraries”选项,并指定安装路径(默认为 `C:\Program Files\Siemens\NX <版本号>\NXOPEN`)。 4. 完成安装后,头文件(如 `.h` 文件)将位于路径 `NXOPEN\include` 中。 - **关键点**:安装时需匹配 NX 主程序的版本号,避免版本冲突[^1]。 #### 3. **配置开发环境** - 安装后,需在您的开发工具(如 Visual Studio、Python 或 C++ IDE)中配置头文件路径和库文件路径。 - **通用配置步骤**: - **Visual Studio (C++/C#)**: 1. 打开项目属性,转到“C/C++” > “常规” > “附加包含目录”,添加路径(如 `C:\Program Files\Siemens\NX 2206\NXOPEN\include`)。 2. 在“链接器” > “常规” > “附加库目录”,添加库文件路径(如 `NXOPEN\lib`)。 3. 在“链接器” > “输入” > “附加依赖项”,添加所需库文件(如 `libugopenint.lib`)。 - **Python 环境**: 1. 确保 Python 已安装(推荐 Python 3.6+)。 2. 使用 pip 安装 NX Open Python 绑定(如果 SDK 提供):`pip install nxopen-python`。 3. 在脚本中直接导入头文件对应的模块(见验证步骤)。 - **注意**:对于复杂项目,参考 SDK 附带的示例代码(位于 `NXOPEN\samples` 目录),这些示例展示了头文件的典型用法[^1]。 #### 4. **验证安装与配置** - 通过简单脚本测试头文件是否正确加载,确保配置无误。 - **Python 验证示例**:创建一个 Python 脚本(如 `test_nx.py`),调用 NX Open API 中的核心对象。 ```python import NXOpen # 导入NX头文件对应的模块 # 创建NX应用程序对象 theSession = NXOpen.Session.GetSession() theUGApp = NXOpen.UGApp.GetUGApp() # 输出应用程序信息 print("NX Version:", theUGApp.Version) print("SDK头文件路径验证成功!") ``` - **执行步骤**: 1. 在 NX 软件中打开“NX Open”控制台。 2. 运行此脚本,如果输出 NX 版本信息(如 `NX Version: NX 2206`),则头文件配置成功。 3. 如果报错(如模块未找到),检查 Python 环境变量或 SDK 安装路径[^1]。 - **C++ 验证提示**:对于 C++,编译一个简单程序(如调用 `UF_initialize()` 函数),确保无链接错误。 #### 常见问题解决 - **问题**:头文件未找到错误。 - **解决**:确认安装路径是否正确添加到 IDE 的包含目录;检查 NX 版本匹配性。 - **问题**:Python 导入失败。 - **解决**:确保 Python 路径包含 SDK 的 `python` 子目录(如 `NXOPEN\python`)。 通过以上步骤,您即可完成 NX 头文件集合的下载、安装和配置。此过程基于 NX Open SDK 的标准文档,确保可靠性和兼容性[^1]。如果您在具体环境中遇到问题,建议查阅 Siemens 官方开发手册或社区论坛。 ### 相关问题 1. NX Open SDK 支持哪些编程语言进行二次开发? 2. 如何编写一个简单的 NX 插件来实现自动化设计任务? 3. NX 二次开发中如何处理版本兼容性问题?
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// 多版本兼容NX二次开发程序 - 修复类型兼容性问题 // 使用UF_load_library安全加载不同版本的DLL // 必需的头文件 #include <uf.h> // NX Open核心头文件 #include <uf_object_types.h> // NX对象类型定义 #include <uf_exit.h> // NX退出处理 #include <uf_ui.h> // NX用户界面函数 // NXOpen C++ API头文件 #include <NXOpen/ListingWindow.hxx> // 列表窗口 #include <NXOpen/NXMessageBox.hxx> // 消息对话框 #include <NXOpen/UI.hxx> // 用户界面 // 其他NXOpen头文件 #include <NXOpen/Annotations.hxx> // 注释相关 #include <NXOpen/Assemblies_Component.hxx> // 装配组件 #include <NXOpen/Assemblies_ComponentAssembly.hxx> // 装配组件集合 #include <NXOpen/Body.hxx> // 几何体 #include <NXOpen/BodyCollection.hxx> // 几何体集合 #include <NXOpen/Face.hxx> // 面 #include <NXOpen/Line.hxx> // 线 #include <NXOpen/NXException.hxx> // NX异常处理 #include <NXOpen/NXObject.hxx> // NX对象基类 #include <NXOpen/Part.hxx> // 部件 #include <NXOpen/PartCollection.hxx> // 部件集合 #include <NXOpen/Session.hxx> // NX会话 // 标准库头文件 #include <algorithm> // 标准算法(如排序) #include <map> // 映射容器 #include <set> // 集合容器 #include <vector> // 向量容器 #include <cmath> // 数学函数 #include // 数值极限 #include <memory> // 智能指针 #include <queue> // 队列容器 #include <iostream> // 输入输出流 #include <sstream> // 字符串流 #include <Windows.h> // Windows API #include <cstdio> // C风格输入输出 // 使用NXOpen命名空间 using namespace NXOpen; using std::string; using std::exception; using std::stringstream; using std::endl; using std::cout; using std::cerr; //------------------------------------------------------------------------------ // NXOpen C++ 测试类 //------------------------------------------------------------------------------ class MyClass { // 类成员 public: static Session *theSession; // NX会话指针(静态) static UI *theUI; // UI接口指针(静态) // 构造函数和析构函数 MyClass(); ~MyClass(); // 主要功能函数 void do_it(); // 执行主逻辑 // 打印函数(重载) void print(const NXString &); // 打印NX字符串 void print(const string &); // 打印标准字符串 void print(const char*); // 打印C风格字符串 private: BasePart *workPart; // 工作部件指针 BasePart *displayPart; // 显示部件指针 NXMessageBox *mb; // 消息对话框指针 ListingWindow *lw; // 列表窗口指针 LogFile *lf; // 日志文件指针 }; //------------------------------------------------------------------------------ // 初始化静态变量 //------------------------------------------------------------------------------ Session *(MyClass::theSession) = NULL; // 初始化会话指针为NULL UI *(MyClass::theUI) = NULL; // 初始化UI指针为NULL //------------------------------------------------------------------------------ // 构造函数 //------------------------------------------------------------------------------ MyClass::MyClass() { // 初始化NX Open C++ API环境 MyClass::theSession = NXOpen::Session::GetSession(); // 获取当前NX会话 MyClass::theUI = UI::GetUI(); // 获取UI接口 // 初始化UI组件 mb = theUI->NXMessageBox(); // 消息对话框实例 lw = theSession->ListingWindow(); // 列表窗口实例 lf = theSession->LogFile(); // 日志文件实例 // 获取当前部件 workPart = theSession->Parts()->BaseWork(); // 当前工作部件 displayPart = theSession->Parts()->BaseDisplay(); // 当前显示部件 } //------------------------------------------------------------------------------ // 析构函数 //------------------------------------------------------------------------------ MyClass::~MyClass() { // 清理资源(NX会自动管理大部分资源) } //------------------------------------------------------------------------------ // 打印字符串到列表窗口 //------------------------------------------------------------------------------ void MyClass::print(const NXString &msg) { if(! lw->IsOpen() ) lw->Open(); // 如果列表窗口未打开,则打开它 lw->WriteLine(msg); // 写入一行消息 } void MyClass::print(const string &msg) { if(! lw->IsOpen() ) lw->Open(); // 如果列表窗口未打开,则打开它 lw->WriteLine(msg.c_str()); // 写入一行消息(转换为C字符串) } void MyClass::print(const char * msg) { if(! lw->IsOpen() ) lw->Open(); // 如果列表窗口未打开,则打开它 lw->WriteLine(msg); // 写入一行消息 } //------------------------------------------------------------------------------ // 主功能:根据NX版本加载对应DLL并执行 //------------------------------------------------------------------------------ void MyClass::do_it() { char* release = NULL; // 声明指针,用于接收版本字符串 // 调用UF_get_release获取NX版本字符串 int result = UF_get_release(&release); // 检查版本获取是否成功 if (result != 0 || release == NULL) { // 显示错误消息 mb->Show("错误", NXMessageBox::DialogTypeError, "获取NX版本失败!"); return; } // 将版本号转换为字符串便于处理 std::string version(release); // 释放由UF_get_release分配的内存 - 必须调用! UF_free(release); // 输出获取的版本信息到列表窗口 print("当前NX版本: " + version); // 定义DLL路径变量 - 使用char数组而不是const char* char dllPath[256] = {0}; // 初始化为全零 // 检查版本是否匹配NX 12.0 if (version.find("NX V12.0") == 0) { print("检测到NX 12.0版本,加载对应工具"); // 使用strcpy_s安全复制字符串 strcpy_s(dllPath, sizeof(dllPath), "D:\\MICHTOOLS\\Application\\qiaowei_tool_12.0.dll"); } // 检查版本是否匹配NX 2212系列 else if (version.find("NX V2212") == 0 || version.find("V22.12") == 0 || version.find("NX 2212") != std::string::npos) { print("检测到NX 2212系列版本,加载对应工具"); strcpy_s(dllPath, sizeof(dllPath), "D:\\MICHTOOLS\\Application\\qiaowei_tool_2212.dll"); } // 版本不匹配处理 else { // 构建错误消息 std::string errorMsg = "未找到匹配的工具版本!\n当前版本: " + version; // 显示错误对话框 mb->Show("版本错误", NXMessageBox::DialogTypeError, errorMsg.c_str()); return; // 终止函数执行 } // 定义函数指针类型(用于加载的DLL函数) typedef void (*ToolEntryFunction)(char*, int*, int); ToolEntryFunction runTool = NULL; // 初始化为NULL // 使用UF_load_library安全加载DLL // 注意:这里使用字符串字面量"ufusr"需要类型转换 int loadResult = UF_load_library( dllPath, // 使用char数组,不需要转换 (char*)"ufusr", // 将字符串字面量显式转换为char* (UF_load_f_p_t*)&runTool ); // 检查DLL加载结果 if (loadResult != 0 || runTool == NULL) { // 构建详细错误消息 char errorMsg[256]; sprintf_s(errorMsg, sizeof(errorMsg), "加载DLL失败! 错误代码: %d\nDLL路径: %s", loadResult, dllPath); // 显示错误对话框 mb->Show("DLL错误", NXMessageBox::DialogTypeError, errorMsg); // 仅在加载失败时尝试卸载 if (loadResult != 0) { // 注意:这里使用dllPath数组,不需要转换 UF_unload_library(dllPath); } return; } print("版本检查通过,开始执行主程序..."); try { int retcode = 0; // 返回代码变量 char param[1] = {0}; // 创建空参数数组(即使不需要参数) // 调用DLL中的函数 runTool(param, &retcode, sizeof(param)); // 检查返回代码 if (retcode != 0) { char resultMsg[256]; sprintf_s(resultMsg, sizeof(resultMsg), "工具执行完成,返回代码: %d", retcode); print(resultMsg); } } catch (...) // 捕获所有异常 { mb->Show("执行错误", NXMessageBox::DialogTypeError, "工具执行过程中发生异常!"); } // 注意:成功加载后不要调用UF_unload_library // 否则会导致NX意外退出 } //------------------------------------------------------------------------------ // 主入口函数 - NX二次开发标准入口点 //------------------------------------------------------------------------------ extern "C" DllExport void ufusr(char *param, int *returnCode, int rlen) { // 初始化NX环境 UF_initialize(); // 必须调用,初始化NX Open API try { // 创建MyClass实例 MyClass *theMyClass = new MyClass(); // 执行主功能 theMyClass->do_it(); // 清理资源 delete theMyClass; } // 异常处理 catch (const NXException& e1) // 捕获NX异常 { UI::GetUI()->NXMessageBox()->Show("NXException", NXOpen::NXMessageBox::DialogTypeError, e1.Message()); } catch (const exception& e2) // 捕获标准异常 { UI::GetUI()->NXMessageBox()->Show("Exception", NXOpen::NXMessageBox::DialogTypeError, e2.what()); } catch (...) // 捕获其他所有异常 { UI::GetUI()->NXMessageBox()->Show("Exception", NXOpen::NXMessageBox::DialogTypeError, "未知异常."); } // 终止NX会话 UF_terminate(); // 必须调用,清理NX Open API资源 } //------------------------------------------------------------------------------ // NX卸载处理函数 - 定义何时卸载DLL //------------------------------------------------------------------------------ extern "C" DllExport int ufusr_ask_unload() { // 立即卸载DLL return (int)NXOpen::Session::LibraryUnloadOptionImmediately; } 我这个直接把信息窗口注解掉,

依然不能准确的找到最低点高于z0的实体我把完整的代码发你检查下,现在只解决(block == gtbody)这部分的问题,仔细检查问题,//============================================================================== // WARNING!! This file is overwritten by the Block Styler while generating // the automation code. Any modifications to this file will be lost after // generating the code again. // // Filename: D:\NXopen\BaiduSyncdisk\Application\gaiyansetool.hpp // // This file was generated by the NX Block Styler // Created by: MICH-ROG // Version: NX 12 // Date: 07-31-2025 (Format: mm-dd-yyyy) // Time: 16:55 // //============================================================================== #ifndef GAIYANSETOOL_H_INCLUDED #define GAIYANSETOOL_H_INCLUDED //------------------------------------------------------------------------------ //These includes are needed for the following template code //------------------------------------------------------------------------------ #include <uf_defs.h> #include <uf_ui_types.h> #include <iostream> #include <NXOpen/Session.hxx> #include <NXOpen/UI.hxx> #include <NXOpen/NXMessageBox.hxx> #include <NXOpen/Callback.hxx> #include <NXOpen/NXException.hxx> #include <NXOpen/BlockStyler_UIBlock.hxx> #include <NXOpen/BlockStyler_BlockDialog.hxx> #include <NXOpen/BlockStyler_PropertyList.hxx> #include <NXOpen/BlockStyler_Group.hxx> #include <NXOpen/BlockStyler_Enumeration.hxx> #include <NXOpen/BlockStyler_FaceCollector.hxx> #include <NXOpen/BlockStyler_ObjectColorPicker.hxx> #include <NXOpen/BlockStyler_Button.hxx> #include "uf_all.h" #include "HuNXOpen.h" #include <algorithm> // 包含std::sort算法 #include <set> // 包含std::set容器 #include <vector> // 包含std::vector容器 #include <cmath> // 包含数学函数 #include // 包含数值极限 #include <memory> // 包含智能指针 #include <NXOpen/Part.hxx> #include <NXOpen/Body.hxx> #include <NXOpen/Face.hxx> #include <NXOpen/Point.hxx> #include <NXOpen/Direction.hxx> #include <NXOpen/Unit.hxx> #include <vector> #include <cmath> #include <uf_part.h> #include <cfloat> #include <uf_eval.h> //------------------------------------------------------------------------------ // Namespaces needed for following template //------------------------------------------------------------------------------ using namespace std; using namespace NXOpen; using namespace NXOpen::BlockStyler; class DllExport gaiyansetool { // class members public: static Session *theSession; static UI *theUI; gaiyansetool(); ~gaiyansetool(); int Show(); //----------------------- BlockStyler Callback Prototypes --------------------- // The following member function prototypes define the callbacks // specified in your BlockStyler dialog. The empty implementation // of these prototypes is provided in the gaiyansetool.cpp file. // You are REQUIRED to write the implementation for these functions. //------------------------------------------------------------------------------ void initialize_cb(); void dialogShown_cb(); int apply_cb(); int ok_cb(); int update_cb(NXOpen::BlockStyler::UIBlock* block); PropertyList* GetBlockProperties(const char *blockID); private: const char* theDlxFileName; NXOpen::BlockStyler::BlockDialog* theDialog; NXOpen::BlockStyler::Group* group1;// Block type: Group NXOpen::BlockStyler::Enumeration* enum0;// Block type: Enumeration NXOpen::BlockStyler::Group* group0;// Block type: Group NXOpen::BlockStyler::FaceCollector* face1;// Block type: Face Collector NXOpen::BlockStyler::Group* group;// Block type: Group NXOpen::BlockStyler::ObjectColorPicker* color1;// Block type: Color Picker NXOpen::BlockStyler::ObjectColorPicker* color2;// Block type: Color Picker NXOpen::BlockStyler::ObjectColorPicker* color3;// Block type: Color Picker NXOpen::BlockStyler::ObjectColorPicker* color4;// Block type: Color Picker NXOpen::BlockStyler::Button* bu1;// Block type: Button NXOpen::BlockStyler::Button* bu2;// Block type: Button NXOpen::BlockStyler::Button* bu3;// Block type: Button NXOpen::BlockStyler::Button* bu4;// Block type: Button NXOpen::BlockStyler::ObjectColorPicker* color5;// Block type: Color Picker NXOpen::BlockStyler::ObjectColorPicker* color6;// Block type: Color Picker NXOpen::BlockStyler::ObjectColorPicker* color7;// Block type: Color Picker NXOpen::BlockStyler::ObjectColorPicker* color8;// Block type: Color Picker NXOpen::BlockStyler::Button* bu5;// Block type: Button NXOpen::BlockStyler::Button* bu6;// Block type: Button NXOpen::BlockStyler::Button* bu7;// Block type: Button NXOpen::BlockStyler::Button* bu8;// Block type: Button NXOpen::BlockStyler::ObjectColorPicker* color9;// Block type: Color Picker NXOpen::BlockStyler::ObjectColorPicker* color10;// Block type: Color Picker NXOpen::BlockStyler::ObjectColorPicker* color11;// Block type: Color Picker NXOpen::BlockStyler::ObjectColorPicker* color12;// Block type: Color Picker NXOpen::BlockStyler::Button* bu9;// Block type: Button NXOpen::BlockStyler::Button* bu10;// Block type: Button NXOpen::BlockStyler::Button* bu11;// Block type: Button NXOpen::BlockStyler::Button* bu12;// Block type: Button NXOpen::BlockStyler::Group* group2;// Block type: Group NXOpen::BlockStyler::Button* dbpface;// Block type: Button NXOpen::BlockStyler::Button* gtbody;// Block type: Button NXOpen::BlockStyler::Button* arcface;// Block type: Button NXOpen::BlockStyler::Button* gaodipoints;// Block type: Button NXOpen::BlockStyler::Button* Keyway1;// Block type: Button }; #endif //GAIYANSETOOL_H_INCLUDED 以上是头文件,以下是源文件,//============================================================================== // WARNING!! This file is overwritten by the Block UI Styler while generating // the automation code. Any modifications to this file will be lost after // generating the code again. // // Filename: D:\NXopen\BaiduSyncdisk\Application\gaiyansetool.cpp // // This file was generated by the NX Block UI Styler // Created by: MICH-ROG // Version: NX 12 // Date: 07-31-2025 (Format: mm-dd-yyyy) // Time: 16:55 (Format: hh-mm) // //============================================================================== //============================================================================== // Purpose: This TEMPLATE file contains C++ source to guide you in the // construction of your Block application dialog. The generation of your // dialog file (.dlx extension) is the first step towards dialog construction // within NX. You must now create a NX Open application that // utilizes this file (.dlx). // // The information in this file provides you with the following: // // 1. Help on how to load and display your Block UI Styler dialog in NX // using APIs provided in NXOpen.BlockStyler namespace // 2. The empty callback methods (stubs) associated with your dialog items // have also been placed in this file. These empty methods have been // created simply to start you along with your coding requirements. // The method name, argument list and possible return values have already // been provided for you. //============================================================================== //------------------------------------------------------------------------------ //These includes are needed for the following template code //------------------------------------------------------------------------------ #include "gaiyansetool.hpp" using namespace NXOpen; using namespace NXOpen::BlockStyler; // 辅助结构体存储面信息 struct FaceInfo { TaggedObject* faceObj; double centerZ; int faceType; double radius; }; //------------------------------------------------------------------------------ // Initialize static variables //------------------------------------------------------------------------------ Session *(gaiyansetool::theSession) = NULL; UI *(gaiyansetool::theUI) = NULL; //------------------------------------------------------------------------------ // Constructor for NX Styler class //------------------------------------------------------------------------------ gaiyansetool::gaiyansetool() { try { // Initialize the NX Open C++ API environment gaiyansetool::theSession = NXOpen::Session::GetSession(); gaiyansetool::theUI = UI::GetUI(); theDlxFileName = "gaiyansetool.dlx"; theDialog = gaiyansetool::theUI->CreateDialog(theDlxFileName); // Registration of callback functions theDialog->AddApplyHandler(make_callback(this, &gaiyansetool::apply_cb)); theDialog->AddOkHandler(make_callback(this, &gaiyansetool::ok_cb)); theDialog->AddUpdateHandler(make_callback(this, &gaiyansetool::update_cb)); theDialog->AddInitializeHandler(make_callback(this, &gaiyansetool::initialize_cb)); theDialog->AddDialogShownHandler(make_callback(this, &gaiyansetool::dialogShown_cb)); } catch(exception& ex) { //---- Enter your exception handling code here ----- throw; } } //------------------------------------------------------------------------------ // Destructor for NX Styler class //------------------------------------------------------------------------------ gaiyansetool::~gaiyansetool() { if (theDialog != NULL) { delete theDialog; theDialog = NULL; } } //------------------------------- DIALOG LAUNCHING --------------------------------- // // Before invoking this application one needs to open any part/empty part in NX // because of the behavior of the blocks. // // Make sure the dlx file is in one of the following locations: // 1.) From where NX session is launched // 2.) $UGII_USER_DIR/application // 3.) For released applications, using UGII_CUSTOM_DIRECTORY_FILE is highly // recommended. This variable is set to a full directory path to a file // containing a list of root directories for all custom applications. // e.g., UGII_CUSTOM_DIRECTORY_FILE=$UGII_BASE_DIR\ugii\menus\custom_dirs.dat // // You can create the dialog using one of the following way: // // 1. USER EXIT // // 1) Create the Shared Library -- Refer "Block UI Styler programmer's guide" // 2) Invoke the Shared Library through File->Execute->NX Open menu. // //------------------------------------------------------------------------------ extern "C" DllExport void ufusr(char *param, int *retcod, int param_len) { gaiyansetool *thegaiyansetool = NULL; try { UF_initialize(); //开发的许可函数,初始化 thegaiyansetool = new gaiyansetool(); // The following method shows the dialog immediately thegaiyansetool->Show(); } catch(exception& ex) { //---- Enter your exception handling code here ----- gaiyansetool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } if(thegaiyansetool != NULL) { delete thegaiyansetool; thegaiyansetool = NULL; }UF_terminate(); //释放许可函数,结束化 } //------------------------------------------------------------------------------ // This method specifies how a shared image is unloaded from memory // within NX. This method gives you the capability to unload an // internal NX Open application or user exit from NX. Specify any // one of the three constants as a return value to determine the type // of unload to perform: // // // Immediately : unload the library as soon as the automation program has completed // Explicitly : unload the library from the "Unload Shared Image" dialog // AtTermination : unload the library when the NX session terminates // // // NOTE: A program which associates NX Open applications with the menubar // MUST NOT use this option since it will UNLOAD your NX Open application image // from the menubar. //------------------------------------------------------------------------------ extern "C" DllExport int ufusr_ask_unload() { //return (int)Session::LibraryUnloadOptionExplicitly; return (int)Session::LibraryUnloadOptionImmediately; //return (int)Session::LibraryUnloadOptionAtTermination; } //------------------------------------------------------------------------------ // Following method cleanup any housekeeping chores that may be needed. // This method is automatically called by NX. //------------------------------------------------------------------------------ extern "C" DllExport void ufusr_cleanup(void) { try { //---- Enter your callback code here ----- } catch(exception& ex) { //---- Enter your exception handling code here ----- gaiyansetool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } } int gaiyansetool::Show() { try { theDialog->Show(); } catch(exception& ex) { //---- Enter your exception handling code here ----- gaiyansetool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } return 0; } //------------------------------------------------------------------------------ //---------------------Block UI Styler Callback Functions-------------------------- //------------------------------------------------------------------------------ //------------------------------------------------------------------------------ //Callback Name: initialize_cb //------------------------------------------------------------------------------ void gaiyansetool::initialize_cb() { try { group1 = dynamic_cast<NXOpen::BlockStyler::Group*>(theDialog->TopBlock()->FindBlock("group1")); enum0 = dynamic_cast<NXOpen::BlockStyler::Enumeration*>(theDialog->TopBlock()->FindBlock("enum0")); group0 = dynamic_cast<NXOpen::BlockStyler::Group*>(theDialog->TopBlock()->FindBlock("group0")); face1 = dynamic_cast<NXOpen::BlockStyler::FaceCollector*>(theDialog->TopBlock()->FindBlock("face1")); group = dynamic_cast<NXOpen::BlockStyler::Group*>(theDialog->TopBlock()->FindBlock("group")); color1 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color1")); color2 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color2")); color3 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color3")); color4 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color4")); bu1 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("bu1")); bu2 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("bu2")); bu3 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("bu3")); bu4 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("bu4")); color5 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color5")); color6 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color6")); color7 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color7")); color8 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color8")); bu5 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("bu5")); bu6 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("bu6")); bu7 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("bu7")); bu8 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("bu8")); color9 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color9")); color10 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color10")); color11 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color11")); color12 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color12")); bu9 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("bu9")); bu10 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("bu10")); bu11 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("bu11")); bu12 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("bu12")); group2 = dynamic_cast<NXOpen::BlockStyler::Group*>(theDialog->TopBlock()->FindBlock("group2")); dbpface = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("dbpface")); gtbody = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("gtbody")); arcface = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("arcface")); gaodipoints = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("gaodipoints")); Keyway1 = dynamic_cast<NXOpen::BlockStyler::Button*>(theDialog->TopBlock()->FindBlock("Keyway1")); } catch(exception& ex) { //---- Enter your exception handling code here ----- gaiyansetool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } } //------------------------------------------------------------------------------ //Callback Name: dialogShown_cb //This callback is executed just before the dialog launch. Thus any value set //here will take precedence and dialog will be launched showing that value. //------------------------------------------------------------------------------ void gaiyansetool::dialogShown_cb() { try { //---- Enter your callback code here ----- } catch(exception& ex) { //---- Enter your exception handling code here ----- gaiyansetool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } } //------------------------------------------------------------------------------ //Callback Name: apply_cb //------------------------------------------------------------------------------ int gaiyansetool::apply_cb() { int errorCode = 0; try { //---- Enter your callback code here ----- } catch(exception& ex) { //---- Enter your exception handling code here ----- errorCode = 1; gaiyansetool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } return errorCode; } //------------------------------------------------------------------------------ //Callback Name: update_cb //------------------------------------------------------------------------------ int gaiyansetool::update_cb(NXOpen::BlockStyler::UIBlock* block) { try { if (block == enum0) { //---------Enter your code here----------- } else if (block == face1) { //---------Enter your code here----------- } else if (block == color1) { //---------Enter your code here----------- } else if (block == color2) { //---------Enter your code here----------- } else if (block == color3) { //---------Enter your code here----------- } else if (block == color4) { //---------Enter your code here----------- } else if (block == bu1) { try { if (color1 != nullptr) { //获取ui枚举索引值 int iType = 0; iType = this->enum0->GetProperties()->GetEnum("Value"); // ⚙️ 1. 获取属性列表 PropertyList* colorProps = color1->GetProperties(); // 🎨 2. 获取颜色值:关键属性名为 "Value",返回整数向量 std::vector<int> colors = colorProps->GetIntegerVector("Value"); int colorID = colors[0]; // 取第一个值为颜色索引 delete colorProps;// 🧹 3. 释放属性列表内存(必须!) //char msg[256];//调试// //sprintf(msg, "%d", iType); //uc1601(msg, 1);// // ====== 以下是应用颜色到面的逻辑 ====== if (face1 != nullptr) { // 获取选中的面 std::vector<NXOpen::TaggedObject*> vFaces = face1->GetSelectedObjects(); if (vFaces.empty()) { theUI->NXMessageBox()->Show("MICH-明:提示", NXMessageBox::DialogTypeError, "未选择面!"); return 0; } if (iType == 0) { // 🖌️ 遍历所有面并设置颜色 for (auto face : vFaces) { tag_t faceTag = face->Tag(); UF_OBJ_set_color(faceTag, colorID); // 应用颜色 UF_DISP_set_highlight(faceTag, 0); //高亮,0=不高亮,1=高亮 } } else { // 模式1:给选中面所在的实体设置颜色 std::set<tag_t> processedBodies;// 用于记录已处理的实体 for (auto face : vFaces) { tag_t faceTag = face->Tag(); tag_t bodyTag = NULL_TAG; // 获取面所属的实体 UF_MODL_ask_face_body(faceTag, &bodyTag); if (bodyTag != NULL_TAG && processedBodies.find(bodyTag) == processedBodies.end()) { // 清除实体上所有面的单独颜色设置(关键修复) uf_list_p_t faceList = NULL; UF_MODL_ask_body_faces(bodyTag, &faceList); int faceCount = 0; UF_MODL_ask_list_count(faceList, &faceCount); for (int i = 0; i < faceCount; i++) { tag_t bodyFaceTag = NULL_TAG; UF_MODL_ask_list_item(faceList, i, &bodyFaceTag); // 重置面颜色继承 UF_OBJ_set_color(bodyFaceTag, colorID); } UF_MODL_delete_list(&faceList); // 设置实体颜色 UF_OBJ_set_color(bodyTag, colorID); UF_DISP_set_highlight(bodyTag, 0); processedBodies.insert(bodyTag); // 添加到已处理集合 } } } // 清空选择并刷新显示 vFaces.clear(); face1->SetSelectedObjects(vFaces); UF_DISP_refresh(); } } else { theUI->NXMessageBox()->Show("MICH-明:错误提示", NXMessageBox::DialogTypeError, "color1未初始化!"); } } catch (exception& ex) { theUI->NXMessageBox()->Show("MICH-明:错误提示", NXMessageBox::DialogTypeError, ex.what()); } } // 这行结束 else if (block == bu2) { //---------Enter your code here----------- } else if (block == bu3) { //---------Enter your code here----------- } else if (block == bu4) { //---------Enter your code here----------- } else if (block == color5) { //---------Enter your code here----------- } else if (block == color6) { //---------Enter your code here----------- } else if (block == color7) { //---------Enter your code here----------- } else if (block == color8) { //---------Enter your code here----------- } else if (block == bu5) { //---------Enter your code here----------- } else if (block == bu6) { //---------Enter your code here----------- } else if (block == bu7) { //---------Enter your code here----------- } else if (block == bu8) { //---------Enter your code here----------- } else if (block == color9) { //---------Enter your code here----------- } else if (block == color10) { //---------Enter your code here----------- } else if (block == color11) { //---------Enter your code here----------- } else if (block == color12) { //---------Enter your code here----------- } else if (block == bu9) { //---------Enter your code here----------- } else if (block == bu10) { //---------Enter your code here----------- } else if (block == bu11) { //---------Enter your code here----------- } else if (block == bu12) { //---------Enter your code here----------- } else if (block == dbpface) { try { // 确保face1控件已初始化 if (face1 != nullptr) { // 1. 获取当前显示部件 tag_t displayPart = UF_PART_ask_display_part(); // 获取当前显示部件的标签 if (displayPart == NULL_TAG) // 检查是否成功获取显示部件 { theUI->NXMessageBox()->Show("MICH-明:错误提示", NXMessageBox::DialogTypeError, "未找到显示部件!"); // 显示错误消息 return 0; // 退出函数 } // 2. 收集所有可见实体 std::vector<tag_t> allObjects; // 存储可见实体的容器 tag_t currentObject = NULL_TAG; // 当前处理的对象标签 // 遍历部件中的所有实体对象 UF_OBJ_cycle_objs_in_part(displayPart, UF_solid_type, ¤tObject); // 获取第一个实体对象 while (currentObject != NULL_TAG) // 循环直到没有更多实体 { // 获取对象的显示属性 UF_OBJ_disp_props_t disp_props; // 声明显示属性结构体 if (UF_OBJ_ask_display_properties(currentObject, &disp_props) == 0) // 获取对象的显示属性 { // 检查对象是否显示(未隐藏) if (UF_OBJ_NOT_BLANKED == disp_props.blank_status) // 检查对象是否显示 { // 检查对象所在图层状态 int layer_status = 0; // 存储图层状态 if (UF_LAYER_ask_status(disp_props.layer, &layer_status) == 0) // 获取图层状态 { // 检查图层是否可见(活动图层或参考图层) if ( layer_status == UF_LAYER_WORK_LAYER || // 工作图层(可见可编辑) layer_status == UF_LAYER_ACTIVE_LAYER || // 活动图层(可见可选) layer_status == UF_LAYER_REFERENCE_LAYER) // 参考图层(仅可见) { allObjects.push_back(currentObject); // 将可见实体添加到容器 } } } } // 获取下一个对象 UF_OBJ_cycle_objs_in_part(displayPart, UF_solid_type, ¤tObject); // 继续遍历下一个实体 } if (allObjects.empty()) // 检查是否有可见实体 { theUI->NXMessageBox()->Show("MICH-明:提示", NXMessageBox::DialogTypeInformation, "部件中没有可见实体!"); // 显示提示消息 return 0; // 退出函数 } // 3. 收集所有面 std::vector<TaggedObject*> allFaces; for (tag_t objectTag : allObjects) { // 获取对象上的所有面 uf_list_p_t faceList = NULL; if (UF_MODL_ask_body_faces(objectTag, &faceList) != 0) continue; int faceCount = 0; UF_MODL_ask_list_count(faceList, &faceCount); for (int i = 0; i < faceCount; i++) { tag_t faceTag = NULL_TAG; UF_MODL_ask_list_item(faceList, i, &faceTag); // 创建NXOpen::Face对象并添加到列表 NXOpen::Face* face = dynamic_cast<NXOpen::Face*>(NXOpen::NXObjectManager::Get(faceTag)); if (face) allFaces.push_back(face); } // 释放面列表内存 if (faceList) UF_MODL_delete_list(&faceList); } // ================ 使用UF函数过滤水平面 ================ std::vector<TaggedObject*> horizontalFaces; const double tolerance = 0.0175; // 约1度(弧度) const double z_axis[3] = { 0.0, 0.0, 1.0 }; // 绝对Z轴方向 for (auto faceObj : allFaces) { tag_t faceTag = faceObj->Tag(); int faceType = 0; // 获取面类型 if (UF_MODL_ask_face_type(faceTag, &faceType) == 0 && faceType == UF_MODL_PLANAR_FACE) { double direction[3] = { 0.0, 0.0, 0.0 }; double point[3] = { 0.0, 0.0, 0.0 }; double box[6] = { 0.0 }; double rad = 0.0; double rad_data[2] = { 0.0 }; int status = 0; // 获取面数据 if (UF_MODL_ask_face_data(faceTag, &faceType, point, direction, box, &rad, rad_data, &status) == 0) { // 计算法向与Z轴的点积 double dot = z_axis[0] * direction[0] + z_axis[1] * direction[1] + z_axis[2] * direction[2]; // 法向平行于Z轴(点积接近1或-1) if (fabs(fabs(dot) - 1.0) < tolerance) { horizontalFaces.push_back(faceObj); } } } } // ================ 结束过滤代码 ================ // ================ 找出Z方向最高的水平面 ================ std::vector<TaggedObject*> highestFaces; double maxZ = -DBL_MAX; // 初始化为最小可能值 // 1. 找出最高Z值 for (auto faceObj : horizontalFaces) { tag_t faceTag = faceObj->Tag(); double box[6]; // [xmin, ymin, zmin, xmax, ymax, zmax] // 获取面的包围盒 if (UF_MODL_ask_bounding_box(faceTag, box) == 0) { // 使用包围盒的zmax作为面的高度 double zMax = box[5]; // 更新最大Z值 if (zMax > maxZ) { maxZ = zMax; } } } // 2. 收集所有位于最高Z值位置的面 const double zTolerance = 0.001; // Z值容差(1毫米) for (auto faceObj : horizontalFaces) { tag_t faceTag = faceObj->Tag(); double box[6]; if (UF_MODL_ask_bounding_box(faceTag, box) == 0) { double zMax = box[5]; // 检查是否在最高Z值位置(考虑容差) if (fabs(zMax - maxZ) < zTolerance) { highestFaces.push_back(faceObj); } } } // ================ 结束最高面选择 ================ // 4. 设置到FaceCollector控件 - 使用最高水平面 face1->SetSelectedObjects(highestFaces); // 5. 刷新界面 UF_DISP_refresh(); //// 显示成功消息 //char msg[256]; //sprintf(msg, "已选择 %d 个最高水平面 (Z = %.2f)", (int)highestFaces.size(), maxZ); //theUI->NXMessageBox()->Show("操作成功", NXMessageBox::DialogTypeInformation, msg); } else { theUI->NXMessageBox()->Show("MICH-明:提示错误", NXMessageBox::DialogTypeError, "面选择控件未初始化!"); } } catch (exception& ex) { theUI->NXMessageBox()->Show("MICH-明:提示异常错误", NXMessageBox::DialogTypeError, ex.what()); } //---------Enter your code here----------- } else if (block == gtbody) { try { // 1. 获取当前显示部件 tag_t displayPart = UF_PART_ask_display_part(); // 获取当前工作部件 if (displayPart == NULL_TAG) // 检查部件是否有效 { theUI->NXMessageBox()->Show("错误提示", NXMessageBox::DialogTypeError, "未找到显示部件!"); return 0; } // 2. 收集所有可见实体 std::vector<tag_t> allBodies; // 存储所有可见实体 tag_t currentBody = NULL_TAG; UF_OBJ_cycle_objs_in_part(displayPart, UF_solid_type, ¤tBody); // 开始遍历实体 while (currentBody != NULL_TAG) // 遍历所有实体 { UF_OBJ_disp_props_t disp_props; if (UF_OBJ_ask_display_properties(currentBody, &disp_props) == 0) // 获取显示属性 { // 仅处理未隐藏实体 if (disp_props.blank_status == UF_OBJ_NOT_BLANKED) // 检查可见性 { int layer_status = 0; UF_LAYER_ask_status(disp_props.layer, &layer_status); // 获取图层状态 // 检查可见图层 if (layer_status == UF_LAYER_WORK_LAYER || layer_status == UF_LAYER_ACTIVE_LAYER || layer_status == UF_LAYER_REFERENCE_LAYER) { allBodies.push_back(currentBody); // 添加到可见实体列表 } } } UF_OBJ_cycle_objs_in_part(displayPart, UF_solid_type, ¤tBody); // 获取下一个实体 } if (allBodies.empty()) // 检查是否有可见实体 { theUI->NXMessageBox()->Show("提示", NXMessageBox::DialogTypeInformation, "部件中没有可见实体!"); return 0; } // 3. 收集需要着色的实体 std::set<tag_t> targetBodies; // 使用set避免重复 const double tolerance = 0.0175; // 约1度(弧度)的法向容差 const double z_axis[3] = { 0.0, 0.0, 1.0 }; // Z轴方向向量 const double z_tolerance = 0.001; // Z坐标容差(1毫米) // 遍历所有实体 for (tag_t bodyTag : allBodies) { uf_list_p_t faceList = NULL; if (UF_MODL_ask_body_faces(bodyTag, &faceList) != 0) continue; // 获取实体所有面 int faceCount = 0; UF_MODL_ask_list_count(faceList, &faceCount); // 获取面数量 double minZ = DBL_MAX; // 初始化最小Z值为最大值 tag_t lowestFace = NULL_TAG; // 存储最低水平面 // 遍历实体的每个面 for (int i = 0; i < faceCount; i++) { tag_t faceTag = NULL_TAG; UF_MODL_ask_list_item(faceList, i, &faceTag); // 获取面标签 int faceType = 0; if (UF_MODL_ask_face_type(faceTag, &faceType) != 0) continue; // 获取面类型 // 只处理平面 if (faceType == UF_MODL_PLANAR_FACE) { double direction[3] = { 0 }; // 面法向 double point[3] = { 0 }; // 面上一点 double box[6] = { 0 }; // 面边界框 double rad = 0, rad_data[2] = { 0 }; int status = 0; // 获取面几何数据 if (UF_MODL_ask_face_data(faceTag, &faceType, point, direction, box, &rad, rad_data, &status) == 0) { // 计算法向与Z轴的点积 double dot = z_axis[0] * direction[0] + z_axis[1] * direction[1] + z_axis[2] * direction[2]; // 检查是否为水平面(法向平行Z轴) if (fabs(fabs(dot) - 1.0) < tolerance) { // 获取面的最低点Z坐标(边界框Zmin) double faceMinZ = box[4]; // 更新最低水平面 if (faceMinZ < minZ) { minZ = faceMinZ; lowestFace = faceTag; } } } } } // 检查是否找到最低水平面且高于XY平面 if (lowestFace != NULL_TAG && minZ > z_tolerance) { targetBodies.insert(bodyTag); // 添加到目标实体集合 } UF_MODL_delete_list(&faceList); // 释放面列表内存 } // 4. 检查是否有符合条件的实体 if (targetBodies.empty()) { theUI->NXMessageBox()->Show("提示", NXMessageBox::DialogTypeInformation, "未找到最低水平面高于XY平面的实体!"); return 0; } // 5. 着色处理 if (color5 != nullptr) // 确保颜色控件有效 { try { // 获取选择的颜色 PropertyList* colorProps = color5->GetProperties(); std::vector<int> colors = colorProps->GetIntegerVector("Value"); int colorID = colors[0]; // 提取颜色ID delete colorProps; // 释放属性对象 // 6. 为实体着色(保留面颜色重置) for (tag_t bodyTag : targetBodies) // 遍历目标实体 { // 重置实体所有面的颜色为继承 uf_list_p_t faceList = NULL; if (UF_MODL_ask_body_faces(bodyTag, &faceList) == 0) { int faceCount = 0; UF_MODL_ask_list_count(faceList, &faceCount); for (int i = 0; i < faceCount; i++) { tag_t faceTag = NULL_TAG; UF_MODL_ask_list_item(faceList, i, &faceTag); UF_OBJ_set_color(faceTag, 0); // 0=继承实体颜色 } UF_MODL_delete_list(&faceList); // 释放面列表 } // 设置实体颜色 UF_OBJ_set_color(bodyTag, colorID); UF_DISP_set_highlight(bodyTag, 0); // 取消高亮 } UF_DISP_refresh(); // 刷新显示 // 显示结果信息 char msg[256]; snprintf(msg, sizeof(msg), "已为 %zu 个实体设置颜色", targetBodies.size()); theUI->NXMessageBox()->Show("着色完成", NXMessageBox::DialogTypeInformation, msg); } catch (std::exception& ex) { theUI->NXMessageBox()->Show("着色错误", NXMessageBox::DialogTypeError, ex.what()); } } else { theUI->NXMessageBox()->Show("错误", NXMessageBox::DialogTypeError, "颜色选择控件未初始化!"); } } catch (std::exception& ex) { theUI->NXMessageBox()->Show("系统错误", NXMessageBox::DialogTypeError, ex.what()); } //---------Enter your code here----------- } else if(block == arcface) { try { if (face1 != nullptr) // 确保面选择控件有效 { // 1. 获取当前显示部件 tag_t displayPart = UF_PART_ask_display_part(); // 获取当前显示的部件标签 if (displayPart == NULL_TAG) // 检查是否获取成功 { theUI->NXMessageBox()->Show("MICH-明:错误提示", NXMessageBox::DialogTypeError, "未找到显示部件!"); // 显示错误信息 return 0; // 提前返回 } // 2. 收集可见实体并筛选最低点高于Z0的实体 std::vector<tag_t> filteredObjects; // 存储符合条件的实体标签 tag_t currentObject = NULL_TAG; // 当前遍历的实体 UF_OBJ_cycle_objs_in_part(displayPart, UF_solid_type, ¤tObject); // 开始遍历部件中的实体 while (currentObject != NULL_TAG) // 遍历所有实体 { // 检查实体的显示属性 UF_OBJ_disp_props_t disp_props; // 存储显示属性 if (UF_OBJ_ask_display_properties(currentObject, &disp_props) == 0) // 获取显示属性 { // 检查实体是否未被隐藏 if (UF_OBJ_NOT_BLANKED == disp_props.blank_status) // 实体可见 { int layer_status = 0; // 图层状态 if (UF_LAYER_ask_status(disp_props.layer, &layer_status) == 0) // 获取图层状态 { // 检查是否在可见图层上 if (layer_status == UF_LAYER_WORK_LAYER || layer_status == UF_LAYER_ACTIVE_LAYER || layer_status == UF_LAYER_REFERENCE_LAYER) { // 计算实体的边界框 double bbox[6] = { 0 }; // [xmin, ymin, zmin, xmax, ymax, zmax] if (UF_MODL_ask_bounding_box(currentObject, bbox) == 0) // 获取边界框 { // 检查实体最低点是否高于Z0 if (bbox[2] > 0.0) // bbox[2] 是 Zmin { filteredObjects.push_back(currentObject); // 添加到筛选列表 //// 调试信息:显示实体的最低点高度 //char debugMsg[256]; // 调试信息缓冲区 //snprintf(debugMsg, sizeof(debugMsg), // "实体 %d 最低点: %.2f", currentObject, bbox[2]); // 格式化信息 // 使用NXMessageBox替代theUFUI //theUI->NXMessageBox()->Show("调试信息", NXMessageBox::DialogTypeInformation, debugMsg); // 显示调试信息 } } } } } } UF_OBJ_cycle_objs_in_part(displayPart, UF_solid_type, ¤tObject); // 获取下一个实体 } //// 显示筛选后的实体数量 //char objCountMsg[256]; // 消息缓冲区 //snprintf(objCountMsg, sizeof(objCountMsg), // "找到最低点高于Z0的实体数量: %zu", filteredObjects.size()); // 格式化消息 //theUI->NXMessageBox()->Show("实体筛选", NXMessageBox::DialogTypeInformation, objCountMsg); // 显示消息 if (filteredObjects.empty()) // 检查是否有符合条件的实体 { theUI->NXMessageBox()->Show("MICH-明:提示", NXMessageBox::DialogTypeInformation, "没有符合条件的实体!"); // 显示提示 return 0; // 提前返回 } // 3. 从筛选后的实体中收集所有圆弧面 std::vector<NXOpen::TaggedObject*> allFaces; // 存储所有面对象 for (tag_t objectTag : filteredObjects) // 遍历筛选后的实体 { uf_list_p_t faceList = nullptr; // 面列表指针 if (UF_MODL_ask_body_faces(objectTag, &faceList) != 0) continue; // 获取实体所有面 // 自动释放列表内存的RAII封装 auto listDeleter = [](uf_list_p_t* list) { if (*list) UF_MODL_delete_list(list); }; // 自定义删除器 std::unique_ptr<uf_list_p_t, decltype(listDeleter)> listGuard(&faceList, listDeleter); // 智能指针管理 int faceCount = 0; // 面数量 UF_MODL_ask_list_count(faceList, &faceCount); // 获取面数量 for (int i = 0; i < faceCount; i++) // 遍历所有面 { tag_t faceTag = NULL_TAG; // 面标签 UF_MODL_ask_list_item(faceList, i, &faceTag); // 获取面标签 if (auto face = dynamic_cast<NXOpen::Face*>(NXOpen::NXObjectManager::Get(faceTag))) // 转换为面对象 { allFaces.push_back(face); // 添加到面列表 } } } // 4. 收集所有圆弧面(包括圆柱、圆锥和圆角面) std::vector<NXOpen::TaggedObject*> allArcFaces; // 存储圆弧面对象 int cylinderCount = 0, coneCount = 0, blendCount = 0; // 各类面计数器 for (auto faceObj : allFaces) // 遍历所有面 { tag_t faceTag = faceObj->Tag(); // 获取面标签 int faceType = 0; // 面类型 double point[3] = { 0 }; // 点坐标 double dir[3] = { 0 }; // 方向向量 double box[6] = { 0 }; // 边界框 double radius = 0; // 半径 double rad_data[2] = { 0 }; // 半径数据 int norm_dir = 0; // 法线方向 // 获取面数据 if (UF_MODL_ask_face_data(faceTag, &faceType, point, dir, box, &radius, rad_data, &norm_dir) != 0) continue; // 跳过获取失败的面 // 只收集圆弧相关面类型 if (faceType == 16) // 圆柱面 { cylinderCount++; // 增加计数器 allArcFaces.push_back(faceObj); // 添加到圆弧面列表 } else if (faceType == 7) // 圆锥面 { coneCount++; // 增加计数器 allArcFaces.push_back(faceObj); // 添加到圆弧面列表 } else if (faceType == 19) // 圆环曲面 { coneCount++; // 增加计数器 allArcFaces.push_back(faceObj); // 添加到圆弧面列表 } else if (faceType == 18) // 球面 { coneCount++; // 增加计数器 allArcFaces.push_back(faceObj); // 添加到圆弧面列表 } else if (faceType == 23) // 圆角面 { blendCount++; // 增加计数器 allArcFaces.push_back(faceObj); // 添加到圆弧面列表 } } //// 显示圆弧面统计信息 //char debugMsg[256]; // 消息缓冲区 //snprintf(debugMsg, sizeof(debugMsg), // "从筛选实体中找到圆弧面总数: %zu\n圆柱面: %d\n圆锥面: %d\n圆角面: %d", // allArcFaces.size(), cylinderCount, coneCount, blendCount); // 格式化消息 //theUI->NXMessageBox()->Show("圆弧面统计", NXMessageBox::DialogTypeInformation, debugMsg); // 显示消息 if (allArcFaces.empty()) // 检查是否有圆弧面 { theUI->NXMessageBox()->Show("MICH-明:提示", NXMessageBox::DialogTypeInformation, "筛选实体中没有圆弧面!"); // 显示提示 return 0; // 提前返回 } // 5. 直接选择所有圆弧面 face1->SetSelectedObjects(allArcFaces); // 设置选中的面 UF_DISP_refresh(); // 刷新显示 //// 显示最终结果 //char msg[256]; // 结果消息缓冲区 //snprintf(msg, sizeof(msg), "已选择 %zu 个圆弧面", allArcFaces.size()); // 格式化消息 //theUI->NXMessageBox()->Show("操作成功", NXMessageBox::DialogTypeInformation, msg); // 显示结果 } } catch (std::exception& ex) // 捕获异常 { theUI->NXMessageBox()->Show("MICH-明:系统错误", NXMessageBox::DialogTypeError, ex.what()); // 显示错误信息 } //---------Enter your code here----------- } else if(block == gaodipoints) { try { // ⚙️ 1. 获取属性列表 PropertyList* colorProps = color11->GetProperties(); // 🎨 2. 获取颜色值:关键属性名为 "Value",返回整数向量 std::vector<int> colors = colorProps->GetIntegerVector("Value"); int colorID = colors[0]; // 取第一个值为颜色索引 delete colorProps;// 🧹 3. 释放属性列表内存(必须!) if (face1 != nullptr) { // 1. 获取显示部件 tag_t displayPart = UF_PART_ask_display_part(); // 获取当前显示部件 if (displayPart == NULL_TAG) // 检查是否获取成功 { theUI->NXMessageBox()->Show("MICH-明:错误提示", NXMessageBox::DialogTypeError, "未找到显示部件!"); return 0; } // 2. 收集可见实体(复用之前代码中的逻辑) std::vector<tag_t> allObjects; tag_t currentObject = NULL_TAG; UF_OBJ_cycle_objs_in_part(displayPart, UF_solid_type, ¤tObject); // 遍历部件中的实体 while (currentObject != NULL_TAG) { UF_OBJ_disp_props_t disp_props; if (UF_OBJ_ask_display_properties(currentObject, &disp_props) == 0) // 获取显示属性 { if (UF_OBJ_NOT_BLANKED == disp_props.blank_status) // 检查是否消隐 { int layer_status = 0; if (UF_LAYER_ask_status(disp_props.layer, &layer_status) == 0) // 检查图层状态 { if (layer_status == UF_LAYER_WORK_LAYER || layer_status == UF_LAYER_ACTIVE_LAYER || layer_status == UF_LAYER_REFERENCE_LAYER) // 仅处理工作层和参考层 { allObjects.push_back(currentObject); // 添加到可见实体列表 } } } } UF_OBJ_cycle_objs_in_part(displayPart, UF_solid_type, ¤tObject); // 继续遍历 } if (allObjects.empty()) // 检查是否有可见实体 { theUI->NXMessageBox()->Show("MICH-明:提示", NXMessageBox::DialogTypeInformation, "部件中没有可见实体!"); return 0; } // 3. 准备收集最终选中的面和实体 std::vector<TaggedObject*> resultFaces; // 存储符合条件的面 std::set<tag_t> aboveZ0Bodies; // 存储Z>0的实体(复用之前的逻辑) const double tolerance = 0.0175; // 角度容差(约1度) const double coordTol = 1e-3; // 坐标容差(1微米) const double z_axis[3] = { 0.0, 0.0, 1.0 }; // Z轴方向 // 4. 遍历所有可见实体 for (tag_t bodyTag : allObjects) { // 4.1 收集实体上所有水平面 std::vector<std::pair<tag_t, double>> horizontalFaces; // <面tag, 最小Z坐标> uf_list_p_t faceList = nullptr; if (UF_MODL_ask_body_faces(bodyTag, &faceList) != 0) continue; // 获取实体所有面 // 自动释放列表内存 auto listDeleter = [](uf_list_p_t* list) { if (*list) UF_MODL_delete_list(list); }; std::unique_ptr<uf_list_p_t, decltype(listDeleter)> listGuard(&faceList, listDeleter); int faceCount = 0; UF_MODL_ask_list_count(faceList, &faceCount); // 获取面数量 for (int i = 0; i < faceCount; i++) // 遍历每个面 { tag_t faceTag = NULL_TAG; UF_MODL_ask_list_item(faceList, i, &faceTag); // 获取面tag // 检查是否为水平面 int faceType = 0; if (UF_MODL_ask_face_type(faceTag, &faceType) == 0 && faceType == UF_MODL_PLANAR_FACE) // 只处理平面 { double direction[3] = { 0 }; double point[3] = { 0 }; double box[6] = { 0 }; double rad = 0; double rad_data[2] = { 0 }; int status = 0; if (UF_MODL_ask_face_data(faceTag, &faceType, point, direction, box, &rad, rad_data, &status) == 0) // 获取面数据 { double dot = std::fabs(z_axis[0] * direction[0] + z_axis[1] * direction[1] + z_axis[2] * direction[2]); // 计算法向与Z轴夹角 if (std::abs(dot - 1.0) < tolerance) // 检查是否为水平面 { // 获取面的最小Z坐标 double faceBox[6]; if (UF_MODL_ask_bounding_box(faceTag, faceBox) == 0) // 获取面包围盒 { double minZ = faceBox[2]; // 包围盒Z最小值 horizontalFaces.push_back({ faceTag, minZ }); // 存储水平面信息 } } } } } // 4.2 如果没有水平面则跳过该实体 if (horizontalFaces.empty()) continue; // 4.3 找出除底面外的最低水平面(参考面) // 按Z坐标升序排序 std::sort(horizontalFaces.begin(), horizontalFaces.end(), [](const auto& a, const auto& b) { return a.second < b.second; }); // 按Z值排序 // 找出最低水平面(底面)的高度 double bottomZ = horizontalFaces[0].second; // 找出除底面外的最低水平面高度 double referenceZ = bottomZ; // 初始化为底面高度 bool foundReference = false; for (size_t i = 1; i < horizontalFaces.size(); i++) // 从第二个面开始检查 { // 找到第一个高于底面的水平面 if (horizontalFaces[i].second > bottomZ + coordTol) // 使用容差避免浮点误差 { referenceZ = horizontalFaces[i].second; // 设置参考面高度 foundReference = true; // 标记找到参考面 break; } } // 如果所有水平面都在同一高度(只有底面),则跳过该实体 if (!foundReference) continue; // 4.4 收集实体中高于参考面的所有面 for (int i = 0; i < faceCount; i++) // 再次遍历实体所有面 { tag_t faceTag = NULL_TAG; UF_MODL_ask_list_item(faceList, i, &faceTag); // 获取面tag // 获取面的包围盒 double faceBox[6]; if (UF_MODL_ask_bounding_box(faceTag, faceBox) == 0) // 获取面包围盒 { double minZ = faceBox[2]; // 面的最低点Z坐标 // 面的最低点高于参考面(容差范围内) if (minZ > referenceZ - coordTol) // 使用容差避免浮点误差 { if (auto face = dynamic_cast<NXOpen::Face*>(NXOpen::NXObjectManager::Get(faceTag))) // 转换为Face对象 { resultFaces.push_back(face); // 添加到结果列表 } } } } // 4.5 记录Z>0的实体(复用之前的逻辑) double bodyBox[6]; if (UF_MODL_ask_bounding_box(bodyTag, bodyBox) == 0 && bodyBox[2] > 0.0) // 检查实体是否在Z0以上 { aboveZ0Bodies.insert(bodyTag); // 添加到Z>0实体集合 } } // 5. 检查结果并设置选择 if (resultFaces.empty()) // 检查是否有符合条件的面 { theUI->NXMessageBox()->Show("MICH-明:提示", NXMessageBox::DialogTypeInformation, "未找到符合条件的面!"); return 0; } face1->SetSelectedObjects(resultFaces); // 设置选中的面 for (auto face : resultFaces) { tag_t faceTag = face->Tag(); UF_OBJ_set_color(faceTag, colorID); // 应用颜色 UF_DISP_set_highlight(faceTag, 0); //高亮,0=不高亮,1=高亮 } UF_DISP_refresh(); // 刷新显示 // 6. 显示结果信息 char msg[256]; snprintf(msg, sizeof(msg), "已选中 %zu 个符合条件的面", resultFaces.size()); theUI->NXMessageBox()->Show("操作成功", NXMessageBox::DialogTypeInformation, msg); } } catch (std::exception& ex) // 异常处理 { theUI->NXMessageBox()->Show("MICH-明:系统错误", NXMessageBox::DialogTypeError, ex.what()); } //---------Enter your code here----------- } else if(block == Keyway1) { //---------Enter your code here----------- } } catch(exception& ex) { //---- Enter your exception handling code here ----- gaiyansetool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } return 0; } //------------------------------------------------------------------------------ //Callback Name: ok_cb //------------------------------------------------------------------------------ int gaiyansetool::ok_cb() { int errorCode = 0; try { errorCode = apply_cb(); } catch(exception& ex) { //---- Enter your exception handling code here ----- errorCode = 1; gaiyansetool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } return errorCode; } //------------------------------------------------------------------------------ //Function Name: GetBlockProperties //Description: Returns the propertylist of the specified BlockID //------------------------------------------------------------------------------ PropertyList* gaiyansetool::GetBlockProperties(const char *blockID) { return theDialog->GetBlockProperties(blockID); }

int qiaowei_tool::apply_cb() { int errorCode = 0; // 错误代码,0表示成功 NXOpen::Body* firstExtrudeBody = nullptr;// 将声明移到函数作用域 try { // 获取NX会话和工作部件 NXOpen::Session* theSession = NXOpen::Session::GetSession(); NXOpen::Part* workPart = theSession->Parts()->Work(); NXOpen::UI* theUI = NXOpen::UI::GetUI(); // ===== 1. 获取边界边曲线 ===== std::vector<NXOpen::Curve*> boundaryCurves; if (bianjie_edge) { // 获取曲线选择器属性列表 std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(bianjie_edge->GetProperties()); // 获取选中的对象集合 std::vector<NXOpen::TaggedObject*> selObjs = props->GetTaggedObjectVector("SelectedObjects"); // 遍历选中对象并转换为曲线 for (NXOpen::TaggedObject* obj : selObjs) { if (NXOpen::Curve* curve = dynamic_cast<NXOpen::Curve*>(obj)) { boundaryCurves.push_back(curve); } } } // ===== 2. 获取出料边曲线 ===== std::vector<NXOpen::Curve*> dischargeCurves; if (chuliao_edge) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(chuliao_edge->GetProperties()); std::vector<NXOpen::TaggedObject*> selObjs = props->GetTaggedObjectVector("SelectedObjects"); for (NXOpen::TaggedObject* obj : selObjs) { if (NXOpen::Curve* curve = dynamic_cast<NXOpen::Curve*>(obj)) { dischargeCurves.push_back(curve); } } } // ===== 3. 获取出料沉桥值 ===== double materialThickness = 0.0; if (expression_clcq) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(expression_clcq->GetProperties()); // 获取表达式数值 materialThickness = props->GetDouble("Value"); } // ===== 4. 获取上模厚度值 ===== double scanHeight = 0.0; if (expression_smh) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(expression_smh->GetProperties()); scanHeight = props->GetDouble("Value"); } // ===== 5. 获取进料沉桥值 ===== double clearanceValue = 0.0; if (expression_jlcq) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(expression_jlcq->GetProperties()); clearanceValue = props->GetDouble("Value"); } // ===== 6. 获取倒桥角度值 ===== double currentAngle = 0.0; if (expression_dqjiaodu) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(expression_dqjiaodu->GetProperties()); currentAngle = props->GetDouble("Value"); } // ===== 7. 获取倒角开关状态 ===== bool chamferToggle = false; if (toggle_daojiao) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(toggle_daojiao->GetProperties()); // 获取开关状态(选中/未选中) chamferToggle = props->GetLogical("Value"); } // ===== 8. 获取倒角半径值 ===== double chamferRadius = 0.0; if (expression_rjiao && chamferToggle) // 仅在倒角开启时获取 { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(expression_rjiao->GetProperties()); chamferRadius = props->GetDouble("Value"); } // ===== 9. 获取偏移开关状态 ===== bool offsetToggle = false; if (toggle_pianzhi) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(toggle_pianzhi->GetProperties()); offsetToggle = props->GetLogical("Value"); } // ===== 10. 获取偏移距离值 ===== double offsetDistance = 0.0; if (expression_pianzhi && offsetToggle) // 仅在偏移开启时获取 { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(expression_pianzhi->GetProperties()); offsetDistance = props->GetDouble("Value"); } // ===== 11. 获取矢量方向 ===== NXOpen::Vector3d directionVector(0.0, 0.0, 1.0); // 默认Z轴方向 if (vector0) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(vector0->GetProperties()); // 获取用户指定的矢量方向 directionVector = props->GetVector("Vector"); } // ===== 12. 验证必要输入 ===== if (boundaryCurves.size() < 2) { throw std::runtime_error("需要选择两条桥位边界曲线!"); } if (dischargeCurves.empty()) { throw std::runtime_error("出料边曲线未选择!"); } if (scanHeight <= 0) { throw std::runtime_error("上模厚度必须大于0!"); } // ===== 13. 计算两条边界曲线端点间的最短距离并创建两条连接直线 ===== tag_t line1Tag = NULL_TAG; tag_t line2Tag = NULL_TAG; double minDist = 0.0; double remainingDist = 0.0; try { // 获取前两条边界曲线 NXOpen::Curve* curve1 = boundaryCurves[0]; NXOpen::Curve* curve2 = boundaryCurves[1]; // 获取曲线端点 double curve1Start[3] = { 0.0 }, curve1End[3] = { 0.0 }; double curve2Start[3] = { 0.0 }, curve2End[3] = { 0.0 }; // 获取曲线1端点 UF_EVAL_p_t evaluator1 = NULL; if (UF_EVAL_initialize(curve1->Tag(), &evaluator1) != 0) { throw std::runtime_error("无法初始化曲线1的评估器"); } double limits1[2]; if (UF_EVAL_ask_limits(evaluator1, limits1) != 0) { UF_EVAL_free(evaluator1); throw std::runtime_error("无法获取曲线1的参数范围"); } if (limits1[0] > limits1[1]) std::swap(limits1[0], limits1[1]); if (UF_EVAL_evaluate(evaluator1, 0, limits1[0], curve1Start, NULL) != 0 || UF_EVAL_evaluate(evaluator1, 0, limits1[1], curve1End, NULL) != 0) { UF_EVAL_free(evaluator1); throw std::runtime_error("无法评估曲线1的端点"); } UF_EVAL_free(evaluator1); // 获取曲线2端点 UF_EVAL_p_t evaluator2 = NULL; if (UF_EVAL_initialize(curve2->Tag(), &evaluator2) != 0) { throw std::runtime_error("无法初始化曲线2的评估器"); } double limits2[2]; if (UF_EVAL_ask_limits(evaluator2, limits2) != 0) { UF_EVAL_free(evaluator2); throw std::runtime_error("无法获取曲线2的参数范围"); } if (limits2[0] > limits2[1]) std::swap(limits2[0], limits2[1]); if (UF_EVAL_evaluate(evaluator2, 0, limits2[0], curve2Start, NULL) != 0 || UF_EVAL_evaluate(evaluator2, 0, limits2[1], curve2End, NULL) != 0) { UF_EVAL_free(evaluator2); throw std::runtime_error("无法评估曲线2的端点"); } UF_EVAL_free(evaluator2); // 转换为NXOpen点对象 NXOpen::Point3d p1_start(curve1Start[0], curve1Start[1], curve1Start[2]); NXOpen::Point3d p1_end(curve1End[0], curve1End[1], curve1End[2]); NXOpen::Point3d p2_start(curve2Start[0], curve2Start[1], curve2Start[2]); NXOpen::Point3d p2_end(curve2End[0], curve2End[1], curve2End[2]); // 计算两点间距离的函数 auto distance = [](const NXOpen::Point3d& a, const NXOpen::Point3d& b) -> double { return sqrt(pow(a.X - b.X, 2) + pow(a.Y - b.Y, 2) + pow(a.Z - b.Z, 2)); }; // 计算四种可能的端点组合距离 double dist1 = distance(p1_start, p2_start); double dist2 = distance(p1_start, p2_end); double dist3 = distance(p1_end, p2_start); double dist4 = distance(p1_end, p2_end); // 找出最小距离对应的点对 minDist = std::min({ dist1, dist2, dist3, dist4 }); NXOpen::Point3d minPoint1, minPoint2; int minIndex = 0; if (minDist == dist1) { minPoint1 = p1_start; minPoint2 = p2_start; } else if (minDist == dist2) { minPoint1 = p1_start; minPoint2 = p2_end; } else if (minDist == dist3) { minPoint1 = p1_end; minPoint2 = p2_start; } else { minPoint1 = p1_end; minPoint2 = p2_end; } // 确定剩余的两个端点 auto isPointEqual = [](const NXOpen::Point3d& a, const NXOpen::Point3d& b, double tol = 1e-6) -> bool { return (fabs(a.X - b.X) < tol) && (fabs(a.Y - b.Y) < tol) && (fabs(a.Z - b.Z) < tol); }; NXOpen::Point3d remainingPoint1 = isPointEqual(minPoint1, p1_start) ? p1_end : p1_start; NXOpen::Point3d remainingPoint2 = isPointEqual(minPoint2, p2_start) ? p2_end : p2_start; remainingDist = distance(remainingPoint1, remainingPoint2); // ===== 创建两条连接直线 ===== // 创建第一条直线(最短距离连接) UF_CURVE_line_t line1Coords; line1Coords.start_point[0] = minPoint1.X; line1Coords.start_point[1] = minPoint1.Y; line1Coords.start_point[2] = minPoint1.Z; line1Coords.end_point[0] = minPoint2.X; line1Coords.end_point[1] = minPoint2.Y; line1Coords.end_point[2] = minPoint2.Z; if (UF_CURVE_create_line(&line1Coords, &line1Tag) != 0 || line1Tag == NULL_TAG) { throw std::runtime_error("创建最短距离直线失败"); } // 设置第一条直线属性 int workLayer = workPart->Layers()->WorkLayer(); UF_OBJ_set_layer(line1Tag, 254); // 创建第二条直线(剩余端点连接) UF_CURVE_line_t line2Coords; line2Coords.start_point[0] = remainingPoint1.X; line2Coords.start_point[1] = remainingPoint1.Y; line2Coords.start_point[2] = remainingPoint1.Z; line2Coords.end_point[0] = remainingPoint2.X; line2Coords.end_point[1] = remainingPoint2.Y; line2Coords.end_point[2] = remainingPoint2.Z; if (UF_CURVE_create_line(&line2Coords, &line2Tag) != 0 || line2Tag == NULL_TAG) { throw std::runtime_error("创建剩余端点直线失败"); } // 设置第二条直线属性 UF_OBJ_set_layer(line2Tag, 254); UF_LAYER_set_status(254, UF_LAYER_INACTIVE_LAYER); // 更新显示 UF_DISP_refresh(); // 显示成功信息 char msg[256]; snprintf(msg, sizeof(msg), "已创建两条连接直线:\n" "1. 最短距离直线: %.2f mm\n" "2. 剩余端点直线: %.2f mm", minDist, remainingDist); theUI->NXMessageBox()->Show("操作成功", NXOpen::NXMessageBox::DialogTypeInformation, msg); } catch (std::exception& ex) { char errMsg[256]; snprintf(errMsg, sizeof(errMsg), "端点距离计算或直线创建失败: %s", ex.what()); theUI->NXMessageBox()->Show("错误", NXOpen::NXMessageBox::DialogTypeError, errMsg); errorCode = 2; return errorCode; // 提前返回,不再继续后续操作 } // ===== 14. 创建拉伸特征(新建体) ===== try { // 设置撤销标记 NXOpen::Session::UndoMarkId markId = theSession->SetUndoMark( NXOpen::Session::MarkVisibilityVisible, "桥位拉伸"); // 创建拉伸构建器 NXOpen::Features::ExtrudeBuilder* extrudeBuilder = workPart->Features()->CreateExtrudeBuilder(nullptr); // 创建截面 NXOpen::Section* section = workPart->Sections()->CreateSection( 0.001, 0.001, 0.05); extrudeBuilder->SetSection(section); // 准备截面曲线:边界曲线 + 连接直线 std::vector<NXOpen::Curve*> sectionCurves; sectionCurves.push_back(boundaryCurves[0]); sectionCurves.push_back(boundaryCurves[1]); // 将直线标签转换为曲线对象 NXOpen::Curve* line1Curve = dynamic_cast<NXOpen::Curve*>( NXOpen::NXObjectManager::Get(line1Tag)); NXOpen::Curve* line2Curve = dynamic_cast<NXOpen::Curve*>( NXOpen::NXObjectManager::Get(line2Tag)); if (line1Curve) sectionCurves.push_back(line1Curve); if (line2Curve) sectionCurves.push_back(line2Curve); // 创建曲线规则 std::vector<NXOpen::SelectionIntentRule*> rules; if (!sectionCurves.empty()) { NXOpen::SelectionIntentRule* curveRule = workPart->ScRuleFactory()->CreateRuleCurveDumb(sectionCurves); rules.push_back(curveRule); } // 获取帮助点(中点) NXOpen::Point3d helpPoint(0.0, 0.0, 0.0); if (!sectionCurves.empty()) { tag_t curveTag = sectionCurves[0]->Tag(); UF_EVAL_p_t evaluator = NULL; double limits[2]; if (UF_EVAL_initialize(curveTag, &evaluator) == 0) { if (UF_EVAL_ask_limits(evaluator, limits) == 0) { if (limits[0] > limits[1]) std::swap(limits[0], limits[1]); double midParam = (limits[0] + limits[1]) / 2.0; double midPoint[3]; if (UF_EVAL_evaluate(evaluator, 0, midParam, midPoint, NULL) == 0) { helpPoint = NXOpen::Point3d(midPoint[0], midPoint[1], midPoint[2]); } } UF_EVAL_free(evaluator); } } // 添加到截面 section->AddToSection( rules, sectionCurves[0], NULL, NULL, helpPoint, NXOpen::Section::ModeCreate ); // 设置拉伸方向 NXOpen::Point3d origin(0.0, 0.0, 0.0); NXOpen::Direction* extrudeDirection = workPart->Directions()->CreateDirection( origin, directionVector, NXOpen::SmartObject::UpdateOptionWithinModeling ); extrudeBuilder->SetDirection(extrudeDirection); // 设置拉伸范围 NXOpen::GeometricUtilities::Limits* limitsObj = extrudeBuilder->Limits(); limitsObj->StartExtend()->Value()->SetRightHandSide( std::to_string(materialThickness).c_str()); double endDistance = scanHeight - clearanceValue; limitsObj->EndExtend()->Value()->SetRightHandSide( std::to_string(endDistance).c_str()); // ===== 设置布尔操作为新建体 ===== extrudeBuilder->BooleanOperation()->SetType( NXOpen::GeometricUtilities::BooleanOperation::BooleanTypeCreate); // ===== 执行拉伸操作 ===== try { // 提交拉伸操作 NXOpen::NXObject* featureNXObject = extrudeBuilder->Commit(); // 将特征对象转换为Extrude类型 NXOpen::Features::Extrude* extrudeFeature = dynamic_cast<NXOpen::Features::Extrude*>(featureNXObject); if (extrudeFeature) { // 正确获取拉伸创建的实体 std::vector<NXOpen::Body*> resultBodies = extrudeFeature->GetBodies(); // 保存第一个实体(用于后续求差) if (!resultBodies.empty()) { firstExtrudeBody = resultBodies[0]; // 赋值给函数作用域的变量 } // 显示结果信息 char successMsg[256]; if (!resultBodies.empty()) { snprintf(successMsg, sizeof(successMsg), "创建新实体成功!\n实体数量: %d\n起始距离: %.2f mm\n结束距离: %.2f mm", resultBodies.size(), materialThickness, endDistance); } else { snprintf(successMsg, sizeof(successMsg), "拉伸操作完成但未创建实体!\n起始距离: %.2f mm\n结束距离: %.2f mm", materialThickness, endDistance); } theUI->NXMessageBox()->Show("操作结果", NXOpen::NXMessageBox::DialogTypeInformation, successMsg); } else { throw std::runtime_error("创建的特征不是拉伸类型"); } // 清理资源 extrudeBuilder->Destroy(); section->Destroy(); } catch (std::exception& ex) { // 拉伸操作错误处理 char errMsg[256]; snprintf(errMsg, sizeof(errMsg), "拉伸操作失败: %s", ex.what()); theUI->NXMessageBox()->Show("错误", NXOpen::NXMessageBox::DialogTypeError, errMsg); errorCode = 3; // 特殊错误处理:布尔操作冲突 if (std::string(ex.what()).find("boolean") != std::string::npos) { theUI->NXMessageBox()->Show("布尔操作错误", NXOpen::NXMessageBox::DialogTypeError, "请检查布尔操作设置是否与现有几何冲突"); errorCode = 4; } // 确保资源被清理 if (extrudeBuilder) extrudeBuilder->Destroy(); if (section) section->Destroy(); } } catch (std::exception& ex) { // 外层异常处理 char errMsg[256]; snprintf(errMsg, sizeof(errMsg), "拉伸特征创建过程出错: %s", ex.what()); theUI->NXMessageBox()->Show("错误", NXOpen::NXMessageBox::DialogTypeError, errMsg); errorCode = 5; } // ===== 在拉伸操作成功后添加出料边曲线处理 ===== try { // 设置撤销标记 NXOpen::Session::UndoMarkId curveMarkId = theSession->SetUndoMark( NXOpen::Session::MarkVisibilityVisible, "出料边曲线长度编辑"); // 定义存储所有延伸曲线的向量(用于后续拉伸操作) std::vector<NXOpen::Curve*> extendedCurves; // 遍历所有出料边曲线 for (NXOpen::Curve* dischargeCurve : dischargeCurves) { // 创建截面对象(用于曲线长度特征) NXOpen::Section* section = workPart->Sections()->CreateSection(0.00095, 0.001, 0.05); // 创建曲线长度构建器(用于延伸曲线) NXOpen::Features::CurveLengthBuilder* curveLengthBuilder = workPart->Features()->CreateCurvelengthBuilder(nullptr); curveLengthBuilder->SetSection(section); curveLengthBuilder->SetDistanceTolerance(0.001); // 设置距离容差 // 设置曲线延伸参数:对称延伸,增量方式 curveLengthBuilder->CurvelengthData()->SetExtensionMethod( NXOpen::GeometricUtilities::ExtensionMethodIncremental); curveLengthBuilder->CurvelengthData()->SetExtensionSide( NXOpen::GeometricUtilities::ExtensionSideSymmetric); curveLengthBuilder->CurvelengthData()->SetExtensionDirection( NXOpen::GeometricUtilities::ExtensionDirectionNatural); // 设置延伸距离(两端各延伸100mm) curveLengthBuilder->CurvelengthData()->SetStartDistance("100"); curveLengthBuilder->CurvelengthData()->SetEndDistance("100"); // 创建选择规则:基于单条曲线 std::vector<NXOpen::IBaseCurve*> baseCurves(1); baseCurves[0] = dynamic_cast<NXOpen::IBaseCurve*>(dischargeCurve); if (!baseCurves[0]) continue; // 类型转换失败则跳过 NXOpen::CurveDumbRule* curveRule = workPart->ScRuleFactory()->CreateRuleBaseCurveDumb(baseCurves); // 计算曲线中点作为帮助点(用于选择定位) double midParam = 0.0; double midPoint[3] = { 0 }; UF_EVAL_p_t evaluator = NULL; if (UF_EVAL_initialize(dischargeCurve->Tag(), &evaluator) == 0) { double limits[2]; if (UF_EVAL_ask_limits(evaluator, limits) == 0) { midParam = (limits[0] + limits[1]) / 2.0; UF_EVAL_evaluate(evaluator, 0, midParam, midPoint, NULL); } UF_EVAL_free(evaluator); } NXOpen::Point3d helpPoint(midPoint[0], midPoint[1], midPoint[2]); // 创建规则集合 std::vector<NXOpen::SelectionIntentRule*> rules; rules.push_back(curveRule); // 添加曲线到截面 section->AddToSection(rules, dischargeCurve, nullptr, nullptr, helpPoint, NXOpen::Section::ModeCreate, false); // 提交曲线长度特征 NXOpen::Features::Feature* curveLengthFeature = dynamic_cast<NXOpen::Features::Feature*>(curveLengthBuilder->Commit()); // 获取新创建的延伸曲线(关键修改:直接添加到外部集合) if (curveLengthFeature) { std::vector<NXOpen::NXObject*> createdEntities = curveLengthFeature->GetEntities(); for (NXOpen::NXObject* obj : createdEntities) { if (NXOpen::Curve* curve = dynamic_cast<NXOpen::Curve*>(obj)) { extendedCurves.push_back(curve); // 添加到外部集合 } } } // 清理资源 curveLengthBuilder->Destroy(); section->Destroy(); // 显示曲线处理信息 char curveMsg[256]; snprintf(curveMsg, sizeof(curveMsg), "曲线处理成功:\n原始曲线: %s\n延伸距离: 100 mm\n创建新曲线: %d条", dischargeCurve->JournalIdentifier().GetText(), extendedCurves.size()); theUI->NXMessageBox()->Show("曲线处理", NXOpen::NXMessageBox::DialogTypeInformation, curveMsg); } // 结束出料边曲线遍历循环 // 更新模型 theSession->UpdateManager()->DoUpdate(curveMarkId); // 显示成功信息 char msg[256]; snprintf(msg, sizeof(msg), "已处理%d条出料边曲线", dischargeCurves.size()); theUI->NXMessageBox()->Show("曲线处理完成", NXOpen::NXMessageBox::DialogTypeInformation, msg); // ===== 创建第二个拉伸特征(在曲线长度处理后)===== try { // 设置撤销标记 NXOpen::Session::UndoMarkId markId2 = theSession->SetUndoMark( NXOpen::Session::MarkVisibilityVisible, "出料边拉伸求差"); // 验证延伸曲线是否可用 if (extendedCurves.empty()) { throw std::runtime_error("没有可用的延伸曲线作为拉伸截面"); } // 选择第一条延伸曲线作为拉伸截面 NXOpen::Curve* curveForExtrude = extendedCurves[0]; // 创建拉伸构建器 NXOpen::Features::ExtrudeBuilder* extrudeBuilder2 = workPart->Features()->CreateExtrudeBuilder(nullptr); // 创建截面对象 NXOpen::Section* section2 = workPart->Sections()->CreateSection( 0.001, 0.001, 0.05); // 距离公差0.001mm,角度公差0.05度 extrudeBuilder2->SetSection(section2); // 创建曲线选择规则 std::vector<NXOpen::Curve*> sectionCurves2; sectionCurves2.push_back(curveForExtrude); NXOpen::SelectionIntentRule* curveRule2 = workPart->ScRuleFactory()->CreateRuleCurveDumb(sectionCurves2); // 获取曲线中点作为帮助点 NXOpen::Point3d helpPoint2(0.0, 0.0, 0.0); { tag_t curveTag = curveForExtrude->Tag(); UF_EVAL_p_t evaluator = NULL; double limits[2]; if (UF_EVAL_initialize(curveTag, &evaluator) == 0) { if (UF_EVAL_ask_limits(evaluator, limits) == 0) { if (limits[0] > limits[1]) std::swap(limits[0], limits[1]); double midParam = (limits[0] + limits[1]) / 2.0; double midPoint[3]; if (UF_EVAL_evaluate(evaluator, 0, midParam, midPoint, NULL) == 0) { helpPoint2 = NXOpen::Point3d(midPoint[0], midPoint[1], midPoint[2]); } } UF_EVAL_free(evaluator); } } // 添加曲线到截面 std::vector<NXOpen::SelectionIntentRule*> rules2; rules2.push_back(curveRule2); section2->AddToSection( rules2, // 曲线规则集合 curveForExtrude, // 主要曲线对象 nullptr, // 不指定曲线起点 nullptr, // 不指定曲线终点 helpPoint2, // 帮助点(中点) NXOpen::Section::ModeCreate // 创建模式 ); // 设置拉伸方向(与第一个拉伸相同) NXOpen::Point3d origin(0.0, 0.0, 0.0); NXOpen::Direction* extrudeDirection2 = workPart->Directions()->CreateDirection( origin, directionVector, // 使用相同的方向矢量 NXOpen::SmartObject::UpdateOptionWithinModeling ); extrudeBuilder2->SetDirection(extrudeDirection2); // 设置拉伸范围 NXOpen::GeometricUtilities::Limits* limitsObj2 = extrudeBuilder2->Limits(); // 起始距离 = 材料厚度(与第一个拉伸相同) limitsObj2->StartExtend()->Value()->SetRightHandSide( std::to_string(materialThickness).c_str()); // 结束距离 = 扫描高度 + 10mm limitsObj2->EndExtend()->Value()->SetRightHandSide( std::to_string(scanHeight + 10.0).c_str()); // ===== 设置偏置模式 ===== // 获取拉伸特征的偏置构建器 NXOpen::GeometricUtilities::FeatureOffset* featureOffset = extrudeBuilder2->Offset(); // 设置非对称偏置(两侧不同距离) featureOffset->SetOption(NXOpen::GeometricUtilities::TypeNonsymmetricOffset); // 设置具体偏置值 featureOffset->StartOffset()->SetRightHandSide("0"); // 起始端偏置0 featureOffset->EndOffset()->SetRightHandSide("100"); // 设置拔模类型:从起始位置简单拔模 extrudeBuilder2->Draft()->SetDraftOption( NXOpen::GeometricUtilities::SimpleDraft::SimpleDraftTypeSimpleFromStart); // 设置前拔模角度(从截面开始处拔模) extrudeBuilder2->Draft()->FrontDraftAngle()->SetRightHandSide( std::to_string(currentAngle).c_str()); // 设置后拔模角度(这里我们设为0,因为只需要单边拔模) extrudeBuilder2->Draft()->BackDraftAngle()->SetRightHandSide("0"); // ===== 设置布尔操作 ===== // 设置操作类型:求差(从第一个拉伸实体中减去此拉伸) extrudeBuilder2->BooleanOperation()->SetType( NXOpen::GeometricUtilities::BooleanOperation::BooleanTypeSubtract); // 设置布尔操作类型(创建新实体) extrudeBuilder2->BooleanOperation()->SetType( NXOpen::GeometricUtilities::BooleanOperation::BooleanTypeCreate); //// 设置布尔操作类型(求差) //// 设置目标体(第一个拉伸创建的实体) // std::vector<NXOpen::Body*> targetBodies; // if (firstExtrudeBody) { // targetBodies.push_back(firstExtrudeBody); // extrudeBuilder2->BooleanOperation()->SetTargetBodies(targetBodies); // } // else { // throw std::runtime_error("第一个拉伸实体未找到"); // }//求差 // ===== 执行拉伸操作 ===== NXOpen::NXObject* featureNXObject2 = extrudeBuilder2->Commit(); // 检查是否成功创建特征 if (!featureNXObject2) { throw std::runtime_error("第二个拉伸特征创建失败"); } // ===== 新增:找出拉伸截面中点并与边界曲线比较 ===== try { // 1. 确保有两条延伸曲线和两条边界曲线 if (extendedCurves.size() < 2 || boundaryCurves.size() < 2) { throw std::runtime_error("需要两条延伸曲线和两条边界曲线"); } // 2. 获取两条延伸曲线和两条边界曲线 NXOpen::Curve* extCurve1 = extendedCurves[0]; NXOpen::Curve* extCurve2 = extendedCurves[1]; NXOpen::Curve* bndCurve1 = boundaryCurves[0]; NXOpen::Curve* bndCurve2 = boundaryCurves[1]; // 3. 计算所有曲线的中点 struct CurveMidPoint { NXOpen::Curve* curve; double midPoint[3]; }; // 计算中点函数 auto calculateMidPoint = [](NXOpen::Curve* curve) -> double* { static double midPoint[3] = { 0 }; UF_EVAL_p_t evaluator = NULL; if (UF_EVAL_initialize(curve->Tag(), &evaluator) == 0) { double limits[2]; if (UF_EVAL_ask_limits(evaluator, limits) == 0) { double midParam = (limits[0] + limits[1]) / 2.0; UF_EVAL_evaluate(evaluator, 0, midParam, midPoint, NULL); } UF_EVAL_free(evaluator); } return midPoint; }; // 存储所有曲线的中点 CurveMidPoint extMid1 = { extCurve1, {0} }; memcpy(extMid1.midPoint, calculateMidPoint(extCurve1), 3 * sizeof(double)); CurveMidPoint extMid2 = { extCurve2, {0} }; memcpy(extMid2.midPoint, calculateMidPoint(extCurve2), 3 * sizeof(double)); CurveMidPoint bndMid1 = { bndCurve1, {0} }; memcpy(bndMid1.midPoint, calculateMidPoint(bndCurve1), 3 * sizeof(double)); CurveMidPoint bndMid2 = { bndCurve2, {0} }; memcpy(bndMid2.midPoint, calculateMidPoint(bndCurve2), 3 * sizeof(double)); // 4. 计算距离函数 auto distance = [](double p1[3], double p2[3]) -> double { double dx = p1[0] - p2[0]; double dy = p1[1] - p2[1]; double dz = p1[2] - p2[2]; return sqrt(dx * dx + dy * dy + dz * dz); }; // 5. 计算所有可能的距离组合 double d11 = distance(extMid1.midPoint, bndMid1.midPoint); // 延伸1-边界1 double d12 = distance(extMid1.midPoint, bndMid2.midPoint); // 延伸1-边界2 double d21 = distance(extMid2.midPoint, bndMid1.midPoint); // 延伸2-边界1 double d22 = distance(extMid2.midPoint, bndMid2.midPoint); // 延伸2-边界2 // 6. 找出所有可能的配对组合 struct Pairing { NXOpen::Curve* extCurve; NXOpen::Curve* bndCurve; double distance; }; std::vector allPairs = { {extCurve1, bndCurve1, d11}, {extCurve1, bndCurve2, d12}, {extCurve2, bndCurve1, d21}, {extCurve2, bndCurve2, d22} }; // 7. 找出最短距离的组合 auto minPair = *std::min_element(allPairs.begin(), allPairs.end(), [](const Pairing& a, const Pairing& b) { return a.distance < b.distance; }); // 8. 从原始集合中移除已配对的曲线 std::vector<NXOpen::Curve*> remainingExtCurves = { extCurve1, extCurve2 }; std::vector<NXOpen::Curve*> remainingBndCurves = { bndCurve1, bndCurve2 }; auto removeCurve = [](std::vector<NXOpen::Curve*>& vec, NXOpen::Curve* curve) { vec.erase(std::remove(vec.begin(), vec.end(), curve), vec.end()); }; removeCurve(remainingExtCurves, minPair.extCurve); removeCurve(remainingBndCurves, minPair.bndCurve); // 9. 创建最终配对结果 std::vector<std::pair<NXOpen::Curve*, NXOpen::Curve*>> closestPairs; // 第一对:最短距离组合 closestPairs.push_back({ minPair.extCurve, minPair.bndCurve }); // 第二对:剩余曲线组合 if (!remainingExtCurves.empty() && !remainingBndCurves.empty()) { closestPairs.push_back({ remainingExtCurves[0], remainingBndCurves[0] }); } // 10. 验证配对结果 if (closestPairs.size() != 2) { throw std::runtime_error("无法创建完整的配对组合"); } // ===== 新增:高亮显示与extendedCurves[0]配对的边界线 ===== NXOpen::Curve* targetExtCurve = extendedCurves[0]; NXOpen::Curve* targetBoundaryCurve = nullptr; // 在配对结果中查找与extendedCurves[0]配对的边界曲线 for (const auto& pair : closestPairs) { if (pair.first == targetExtCurve) { targetBoundaryCurve = pair.second; break; } } // 高亮相关边界曲线 UF_DISP_set_highlight(targetBoundaryCurve->Tag(), 1); // 高亮显示 // 刷新显示 UF_DISP_refresh(); // 显示配对结果 char pairInfo[512]; snprintf(pairInfo, sizeof(pairInfo), "配对结果:\n" "1. %s - %s (距离: %.4f mm)\n" "2. %s - %s", closestPairs[0].first->JournalIdentifier().GetText(), closestPairs[0].second->JournalIdentifier().GetText(), minPair.distance, closestPairs[1].first->JournalIdentifier().GetText(), closestPairs[1].second->JournalIdentifier().GetText()); theUI->NXMessageBox()->Show("曲线配对结果", NXOpen::NXMessageBox::DialogTypeInformation, pairInfo); } catch (std::exception& ex) { char warnMsg[256]; snprintf(warnMsg, sizeof(warnMsg), "曲线中点配对失败: %s", ex.what()); theUI->NXMessageBox()->Show("警告", NXOpen::NXMessageBox::DialogTypeWarning, warnMsg); } // 获取创建的实体 NXOpen::Features::Extrude* extrudeFeature2 = dynamic_cast<NXOpen::Features::Extrude*>(featureNXObject2); std::vector<NXOpen::Body*> resultBodies2; if (extrudeFeature2) { resultBodies2 = extrudeFeature2->GetBodies(); } // ===== 新增:判断边界曲线能否投影到第二个拉伸实体上 ===== bool canProject = false; // 投影能力标志 if (targetBoundaryCurve && !resultBodies2.empty()) { // 检查目标曲线和实体是否存在 try { // 1. 获取第二个拉伸实体的所有面 std::vector<tag_t> bodyFaces; // 存储实体面的tag集合 tag_t bodyTag = resultBodies2[0]->Tag(); // 取第一个实体(假设只有一个实体) int faceCount = 0; // 面数量计数器 uf_list_p_t faceList = NULL; // 面列表指针 // 获取实体所有面的列表 if (UF_MODL_ask_body_faces(bodyTag, &faceList) == 0) { // 获取面列表中的面数量 UF_MODL_ask_list_count(faceList, &faceCount); // 遍历面列表并存储tag bodyFaces.reserve(faceCount); // 预分配内存 for (int i = 0; i < faceCount; i++) { tag_t faceTag = NULL_TAG; UF_MODL_ask_list_item(faceList, i, &faceTag); bodyFaces.push_back(faceTag); // 添加到面集合 } // 释放面列表内存 UF_MODL_delete_list(&faceList); } // 2. 设置投影方向(与第二个拉伸方向一致) double projDirection[3] = { directionVector.X, directionVector.Y, directionVector.Z }; // 3. 准备投影曲线数据(单条曲线) tag_t curveTag = targetBoundaryCurve->Tag(); // 目标曲线的tag uf_list_p_t curveList = NULL; // 曲线列表指针 UF_MODL_create_list(&curveList); // 创建空列表 UF_MODL_put_list_item(curveList, curveTag); // 将目标曲线加入列表 // 4. 执行投影操作 uf_list_p_t resultCurves = NULL; // 存储投影结果曲线 int projectionStatus = UF_MODL_ask_proj_curves( curveList, // 输入曲线列表 bodyFaces.data(), // 目标面数组 bodyFaces.size(), // 目标面数量 projDirection, // 投影方向矢量 UF_MODL_PROJ_AVOID, // 投影方法:避免间隙 0.001, // 距离公差 (mm) 0.05, // 角度公差 (度) &resultCurves // 输出:创建的投影曲线 ); // 5. 检查投影结果 int resultCount = 0; // 投影生成的曲线数量 if (projectionStatus == 0 && resultCurves != NULL) { // 获取投影生成的曲线数量 UF_MODL_ask_list_count(resultCurves, &resultCount); canProject = (resultCount > 0); // 有投影结果表示可投影 // 6. 删除生成的投影曲线(不需要保留) tag_t resultTag = NULL_TAG; for (int i = 0; i < resultCount; i++) { UF_MODL_ask_list_item(resultCurves, i, &resultTag); UF_OBJ_delete_object(resultTag); // 删除投影曲线 } } // 7. 释放列表资源 if (resultCurves) UF_MODL_delete_list(&resultCurves); if (curveList) UF_MODL_delete_list(&curveList); // 8. 显示投影测试结果 char projMsg[256]; snprintf(projMsg, sizeof(projMsg), "投影测试结果: %s\n" "目标曲线: %s\n" "实体面数: %d\n" "投影状态: %d\n" "生成曲线: %d条", canProject ? "成功" : "失败", targetBoundaryCurve->JournalIdentifier().GetText(), faceCount, projectionStatus, resultCount); theUI->NXMessageBox()->Show("投影验证", NXOpen::NXMessageBox::DialogTypeInformation, projMsg); } catch (...) { theUI->NXMessageBox()->Show("投影错误", NXOpen::NXMessageBox::DialogTypeError, "投影验证过程中发生未知异常"); } } // 清理资源 extrudeBuilder2->Destroy(); section2->Destroy(); // 显示成功信息 char successMsg[256]; snprintf(successMsg, sizeof(successMsg), "第二个拉伸创建成功!\n" "拔模角度: %.2f°\n" "偏置范围: 0-100 mm\n" "创建实体: %d个", currentAngle, resultBodies2.size()); theUI->NXMessageBox()->Show("操作结果", NXOpen::NXMessageBox::DialogTypeInformation, successMsg); } catch (std::exception& ex) { // 错误处理 char errMsg[256]; snprintf(errMsg, sizeof(errMsg), "第二个拉伸创建失败: %s", ex.what()); theUI->NXMessageBox()->Show("错误", NXOpen::NXMessageBox::DialogTypeError, errMsg); errorCode = 7; // 设置新的错误代码 } // 刷新显示 UF_DISP_refresh(); } // 结束出料边曲线处理try块 catch (std::exception& ex) { char errMsg[256]; snprintf(errMsg, sizeof(errMsg), "曲线处理失败: %s", ex.what()); theUI->NXMessageBox()->Show("错误", NXOpen::NXMessageBox::DialogTypeError, errMsg); errorCode = 6; // 设置新的错误代码 } // 刷新显示 UF_DISP_refresh(); } // 结束主try块 catch (std::exception& ex) { // 异常处理 char errMsg[256]; snprintf(errMsg, sizeof(errMsg), "操作失败: %s", ex.what()); qiaowei_tool::theUI->NXMessageBox()->Show("错误", NXOpen::NXMessageBox::DialogTypeError, errMsg); errorCode = 1; } return errorCode; }。报错提示:严重性 代码 说明 项目 文件 行 禁止显示状态 错误(活动) E0020 未定义标识符 "targetBoundaryCurve" qiaowei_tool D:\NXopen\BaiduSyncdisk\studio\qiaowei_tool\qiaowei_tool.cpp 1073 错误(活动) E0167 "uf_list_p_t" 类型的实参与 "tag_t" 类型的形参不兼容 qiaowei_tool D:\NXopen\BaiduSyncdisk\studio\qiaowei_tool\qiaowei_tool.cpp 1115 错误(活动) E0167 "tag_t *" 类型的实参与 "uf_list_p_t *" 类型的形参不兼容 qiaowei_tool D:\NXopen\BaiduSyncdisk\studio\qiaowei_tool\qiaowei_tool.cpp 1116 错误(活动) E0140 函数调用中的参数太多 qiaowei_tool D:\NXopen\BaiduSyncdisk\studio\qiaowei_tool\qiaowei_tool.cpp 1117 错误(活动) E0020 未定义标识符 "UF_MODL_PROJ_AVOID" qiaowei_tool D:\NXopen\BaiduSyncdisk\studio\qiaowei_tool\qiaowei_tool.cpp 1119 请仔细检查代码

你这次给我的代码报错地方太多了,严重性 代码 说明 项目 文件 行 禁止显示状态 错误(活动) E0135 namespace "NXOpen" 没有成员 "PropertyList" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 263 错误(活动) E0135 class "NXOpen::Session" 没有成员 "UI" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 257 错误(活动) E0020 未定义标识符 "props" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 263 错误(活动) E0135 namespace "NXOpen" 没有成员 "PropertyList" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 287 错误(活动) E0020 未定义标识符 "props" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 287 错误(活动) E0135 namespace "NXOpen" 没有成员 "PropertyList" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 311 错误(活动) E0020 未定义标识符 "props" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 311 错误(活动) E0135 namespace "NXOpen" 没有成员 "PropertyList" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 324 错误(活动) E0020 未定义标识符 "props" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 324 错误(活动) E0135 namespace "NXOpen" 没有成员 "PropertyList" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 337 错误(活动) E0020 未定义标识符 "props" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 337 错误(活动) E0135 namespace "NXOpen" 没有成员 "PropertyList" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 350 错误(活动) E0020 未定义标识符 "props" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 350 错误(活动) E0135 namespace "NXOpen" 没有成员 "PropertyList" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 363 错误(活动) E0020 未定义标识符 "props" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 363 错误(活动) E0135 namespace "NXOpen" 没有成员 "PropertyList" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 376 错误(活动) E0020 未定义标识符 "props" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 376 错误(活动) E0135 namespace "NXOpen" 没有成员 "PropertyList" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 389 错误(活动) E0020 未定义标识符 "props" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 389 错误(活动) E0135 namespace "NXOpen" 没有成员 "PropertyList" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 413 错误(活动) E0020 未定义标识符 "colorProps" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 413 错误(活动) E0135 namespace "NXOpen" 没有成员 "PropertyList" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 431 错误(活动) E0020 未定义标识符 "colorProps" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 431 错误(活动) E0415 不存在从 "void" 转换到 "NXOpen::Point3d" 的适当构造函数 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 464 错误(活动) E0140 函数调用中的参数太多 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 464 错误(活动) E0135 class "NXOpen::ScRuleFactory" 没有成员 "CreateRuleBaseCurve" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 468 错误(活动) E0304 没有与参数列表匹配的 重载函数 "NXOpen::Section::AddToSection" 实例 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 471 错误(活动) E0135 class "NXOpen::Features::Feature" 没有成员 "GetBodies" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 518 错误(活动) E0135 class "NXOpen::Session" 没有成员 "UI" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 533 错误(活动) E0135 class "NXOpen::Session" 没有成员 "UI" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 541 请认真思考下再回答

//============================================================================== // WARNING!! This file is overwritten by the Block UI Styler while generating // the automation code. Any modifications to this file will be lost after // generating the code again. // // Filename: D:\NXopen\BaiduSyncdisk\studio\hkjm\ui\hkjm.cpp // // This file was generated by the NX Block UI Styler // Created by: MiCH-CEO // Version: NX 12 // Date: 08-06-2025 (Format: mm-dd-yyyy) // Time: 19:18 (Format: hh-mm) // //============================================================================== //============================================================================== // Purpose: This TEMPLATE file contains C++ source to guide you in the // construction of your Block application dialog. The generation of your // dialog file (.dlx extension) is the first step towards dialog construction // within NX. You must now create a NX Open application that // utilizes this file (.dlx). // // The information in this file provides you with the following: // // 1. Help on how to load and display your Block UI Styler dialog in NX // using APIs provided in NXOpen.BlockStyler namespace // 2. The empty callback methods (stubs) associated with your dialog items // have also been placed in this file. These empty methods have been // created simply to start you along with your coding requirements. // The method name, argument list and possible return values have already // been provided for you. //============================================================================== //------------------------------------------------------------------------------ //These includes are needed for the following template code //------------------------------------------------------------------------------ #include "hkjm.hpp" using namespace NXOpen; using namespace NXOpen::BlockStyler; //------------------------------------------------------------------------------ // Initialize static variables //------------------------------------------------------------------------------ Session *(hkjm::theSession) = NULL; UI *(hkjm::theUI) = NULL; //------------------------------------------------------------------------------ // Constructor for NX Styler class //------------------------------------------------------------------------------ hkjm::hkjm() { try { // Initialize the NX Open C++ API environment hkjm::theSession = NXOpen::Session::GetSession(); hkjm::theUI = UI::GetUI(); theDlxFileName = "hkjm.dlx"; theDialog = hkjm::theUI->CreateDialog(theDlxFileName); // Registration of callback functions theDialog->AddApplyHandler(make_callback(this, &hkjm::apply_cb)); theDialog->AddOkHandler(make_callback(this, &hkjm::ok_cb)); theDialog->AddUpdateHandler(make_callback(this, &hkjm::update_cb)); theDialog->AddInitializeHandler(make_callback(this, &hkjm::initialize_cb)); theDialog->AddDialogShownHandler(make_callback(this, &hkjm::dialogShown_cb)); } catch(exception& ex) { //---- Enter your exception handling code here ----- throw; } } //------------------------------------------------------------------------------ // Destructor for NX Styler class //------------------------------------------------------------------------------ hkjm::~hkjm() { if (theDialog != NULL) { delete theDialog; theDialog = NULL; } } //------------------------------- DIALOG LAUNCHING --------------------------------- // // Before invoking this application one needs to open any part/empty part in NX // because of the behavior of the blocks. // // Make sure the dlx file is in one of the following locations: // 1.) From where NX session is launched // 2.) $UGII_USER_DIR/application // 3.) For released applications, using UGII_CUSTOM_DIRECTORY_FILE is highly // recommended. This variable is set to a full directory path to a file // containing a list of root directories for all custom applications. // e.g., UGII_CUSTOM_DIRECTORY_FILE=$UGII_BASE_DIR\ugii\menus\custom_dirs.dat // // You can create the dialog using one of the following way: // // 1. USER EXIT // // 1) Create the Shared Library -- Refer "Block UI Styler programmer's guide" // 2) Invoke the Shared Library through File->Execute->NX Open menu. // //------------------------------------------------------------------------------ extern "C" DllExport void ufusr(char *param, int *retcod, int param_len) { hkjm *thehkjm = NULL; try { UF_initialize(); //开发的许可函数,初始化 thehkjm = new hkjm(); // The following method shows the dialog immediately thehkjm->Show(); } catch(exception& ex) { //---- Enter your exception handling code here ----- hkjm::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } if(thehkjm != NULL) { delete thehkjm; thehkjm = NULL; }UF_terminate(); //释放许可函数,结束化 } //------------------------------------------------------------------------------ // This method specifies how a shared image is unloaded from memory // within NX. This method gives you the capability to unload an // internal NX Open application or user exit from NX. Specify any // one of the three constants as a return value to determine the type // of unload to perform: // // // Immediately : unload the library as soon as the automation program has completed // Explicitly : unload the library from the "Unload Shared Image" dialog // AtTermination : unload the library when the NX session terminates // // // NOTE: A program which associates NX Open applications with the menubar // MUST NOT use this option since it will UNLOAD your NX Open application image // from the menubar. //------------------------------------------------------------------------------ extern "C" DllExport int ufusr_ask_unload() { //return (int)Session::LibraryUnloadOptionExplicitly; return (int)Session::LibraryUnloadOptionImmediately; //return (int)Session::LibraryUnloadOptionAtTermination; } //------------------------------------------------------------------------------ // Following method cleanup any housekeeping chores that may be needed. // This method is automatically called by NX. //------------------------------------------------------------------------------ extern "C" DllExport void ufusr_cleanup(void) { try { //---- Enter your callback code here ----- } catch(exception& ex) { //---- Enter your exception handling code here ----- hkjm::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } } int hkjm::Show() { try { theDialog->Show(); } catch(exception& ex) { //---- Enter your exception handling code here ----- hkjm::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } return 0; } //------------------------------------------------------------------------------ //---------------------Block UI Styler Callback Functions-------------------------- //------------------------------------------------------------------------------ //------------------------------------------------------------------------------ //Callback Name: initialize_cb //------------------------------------------------------------------------------ void hkjm::initialize_cb() { try { group0 = dynamic_cast<NXOpen::BlockStyler::Group*>(theDialog->TopBlock()->FindBlock("group0")); hk2edge = dynamic_cast<NXOpen::BlockStyler::CurveCollector*>(theDialog->TopBlock()->FindBlock("hk2edge")); hk1edge = dynamic_cast<NXOpen::BlockStyler::CurveCollector*>(theDialog->TopBlock()->FindBlock("hk1edge")); hk1sd = dynamic_cast<NXOpen::BlockStyler::ExpressionBlock*>(theDialog->TopBlock()->FindBlock("hk1sd")); hk2sd = dynamic_cast<NXOpen::BlockStyler::ExpressionBlock*>(theDialog->TopBlock()->FindBlock("hk2sd")); group = dynamic_cast<NXOpen::BlockStyler::Group*>(theDialog->TopBlock()->FindBlock("group")); hkdj = dynamic_cast<NXOpen::BlockStyler::ExpressionBlock*>(theDialog->TopBlock()->FindBlock("hkdj")); hk2jd = dynamic_cast<NXOpen::BlockStyler::ExpressionBlock*>(theDialog->TopBlock()->FindBlock("hk2jd")); hk1jd = dynamic_cast<NXOpen::BlockStyler::ExpressionBlock*>(theDialog->TopBlock()->FindBlock("hk1jd")); vector0 = dynamic_cast<NXOpen::BlockStyler::SpecifyVector*>(theDialog->TopBlock()->FindBlock("vector0")); bodySelect0 = dynamic_cast<NXOpen::BlockStyler::BodyCollector*>(theDialog->TopBlock()->FindBlock("bodySelect0")); color1 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color1")); color2 = dynamic_cast<NXOpen::BlockStyler::ObjectColorPicker*>(theDialog->TopBlock()->FindBlock("color2")); } catch(exception& ex) { //---- Enter your exception handling code here ----- hkjm::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } } //------------------------------------------------------------------------------ //Callback Name: dialogShown_cb //This callback is executed just before the dialog launch. Thus any value set //here will take precedence and dialog will be launched showing that value. //------------------------------------------------------------------------------ void hkjm::dialogShown_cb() { try { //---- Enter your callback code here ----- } catch(exception& ex) { //---- Enter your exception handling code here ----- hkjm::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } } //------------------------------------------------------------------------------ //Callback Name: apply_cb //------------------------------------------------------------------------------ // 应用按钮回调函数 - 读取所有控件数据 int hkjm::apply_cb() { int errorCode = 0; // 错误代码,0表示成功 // 声明变量存储所有控件值 std::vector<NXOpen::Curve*> sectionCurves1; std::vector<NXOpen::Curve*> sectionCurves2; double hk1sdValue = 0.0; double hk2sdValue = 0.0; double hkdjValue = 0.0; double hk1jdValue = 0.0; double hk2jdValue = 0.0; NXOpen::Vector3d directionVector(0.0, 0.0, 1.0); std::vector<NXOpen::Body*> selectedBodies; int colorIndex1 = 0; int colorIndex2 = 0; try { // 获取NX会话和工作部件 NXOpen::Session* theSession = NXOpen::Session::GetSession(); NXOpen::Part* workPart = theSession->Parts()->Work(); // ===== 1. 处理曲线选择器1的值 ===== if (hk1edge) // 检查曲线选择器1控件是否有效 { // 获取曲线选择器1的属性列表 (使用BlockStyler命名空间) NXOpen::BlockStyler::PropertyList* props = hk1edge->GetProperties(); // 获取选中的曲线对象集合 std::vector<NXOpen::TaggedObject*> selObjs = props->GetTaggedObjectVector("SelectedObjects"); // 遍历所有选中的对象 for (NXOpen::TaggedObject* obj : selObjs) { // 将对象转换为曲线类型 if (NXOpen::Curve* curve = dynamic_cast<NXOpen::Curve*>(obj)) { sectionCurves1.push_back(curve); } } // 释放属性列表内存 delete props; } // ===== 2. 处理曲线选择器2的值 ===== if (hk2edge) // 检查曲线选择器2控件是否有效 { // 获取曲线选择器2的属性列表 NXOpen::BlockStyler::PropertyList* props = hk2edge->GetProperties(); // 获取选中的曲线对象集合 std::vector<NXOpen::TaggedObject*> selObjs = props->GetTaggedObjectVector("SelectedObjects"); // 遍历所有选中的对象 for (NXOpen::TaggedObject* obj : selObjs) { // 将对象转换为曲线类型 if (NXOpen::Curve* curve = dynamic_cast<NXOpen::Curve*>(obj)) { sectionCurves2.push_back(curve); } } // 释放属性列表内存 delete props; } // ===== 3. 获取hk1sd表达式值 ===== if (hk1sd) // 检查表达式控件是否有效 { // 获取表达式控件的属性列表 NXOpen::BlockStyler::PropertyList* props = hk1sd->GetProperties(); // 获取表达式的当前值 hk1sdValue = props->GetDouble("Value"); // 释放属性列表内存 delete props; } // ===== 4. 获取hk2sd表达式值 ===== if (hk2sd) // 检查表达式控件是否有效 { // 获取表达式控件的属性列表 NXOpen::BlockStyler::PropertyList* props = hk2sd->GetProperties(); // 获取表达式的当前值 hk2sdValue = props->GetDouble("Value"); // 释放属性列表内存 delete props; } // ===== 5. 获取hkdj表达式值 ===== if (hkdj) // 检查表达式控件是否有效 { // 获取表达式控件的属性列表 NXOpen::BlockStyler::PropertyList* props = hkdj->GetProperties(); // 获取表达式的当前值 hkdjValue = props->GetDouble("Value"); // 释放属性列表内存 delete props; } // ===== 6. 获取hk1jd表达式值 ===== if (hk1jd) // 检查表达式控件是否有效 { // 获取表达式控件的属性列表 NXOpen::BlockStyler::PropertyList* props = hk1jd->GetProperties(); // 获取表达式的当前值 hk1jdValue = props->GetDouble("Value"); // 释放属性列表内存 delete props; } // ===== 7. 获取hk2jd表达式值 ===== if (hk2jd) // 检查表达式控件是否有效 { // 获取表达式控件的属性列表 NXOpen::BlockStyler::PropertyList* props = hk2jd->GetProperties(); // 获取表达式的当前值 hk2jdValue = props->GetDouble("Value"); // 释放属性列表内存 delete props; } // ===== 8. 获取矢量方向 ===== if (vector0) // 检查矢量控件是否有效 { // 获取矢量控件的属性列表 NXOpen::BlockStyler::PropertyList* props = vector0->GetProperties(); // 获取矢量方向 directionVector = props->GetVector("Vector"); // 释放属性列表内存 delete props; } // ===== 9. 处理选中的实体 ===== if (bodySelect0) // 检查实体选择器控件是否有效 { // 获取实体选择器的属性列表 NXOpen::BlockStyler::PropertyList* props = bodySelect0->GetProperties(); // 获取选中的实体对象集合 std::vector<NXOpen::TaggedObject*> selObjs = props->GetTaggedObjectVector("SelectedObjects"); // 遍历所有选中的对象 for (NXOpen::TaggedObject* obj : selObjs) { // 将对象转换为实体类型 if (NXOpen::Body* body = dynamic_cast<NXOpen::Body*>(obj)) { selectedBodies.push_back(body); } } // 释放属性列表内存 delete props; } // ===== 10. 获取颜色选择器1的颜色 ===== if (color1) // 检查颜色选择器控件是否有效 { // 获取颜色选择器的属性列表 NXOpen::BlockStyler::PropertyList* colorProps = color1->GetProperties(); // 获取颜色值(整数向量) std::vector<int> colors = colorProps->GetIntegerVector("Value"); // 获取第一个颜色索引值 if (!colors.empty()) { colorIndex1 = colors[0]; } // 释放属性列表内存 delete colorProps; } // ===== 11. 获取颜色选择器2的颜色 ===== if (color2) // 检查颜色选择器控件是否有效 { // 获取颜色选择器的属性列表 NXOpen::BlockStyler::PropertyList* colorProps = color2->GetProperties(); // 获取颜色值(整数向量) std::vector<int> colors = colorProps->GetIntegerVector("Value"); // 获取第一个颜色索引值 if (!colors.empty()) { colorIndex2 = colors[0]; } // 释放属性列表内存 delete colorProps; } // ===== 执行拉伸操作 ===== if (!sectionCurves1.empty() && hk1sdValue != 0.0) { // 设置撤销标记 NXOpen::Session::UndoMarkId markId = theSession->SetUndoMark( NXOpen::Session::MarkVisibilityVisible, "拉伸操作"); // 创建拉伸构建器 NXOpen::Features::ExtrudeBuilder* extrudeBuilder = workPart->Features()->CreateExtrudeBuilder(nullptr); // 创建截面对象 NXOpen::Section* section = workPart->Sections()->CreateSection( 0.001, 0.001, 0.05); extrudeBuilder->SetSection(section); // 添加曲线到截面 (使用正确的API方法) for (NXOpen::Curve* curve : sectionCurves1) { // 创建曲线规则 (使用CreateRuleCurveFeature) NXOpen::SelectionIntentRule* curveRule = workPart->ScRuleFactory()->CreateRuleCurveFeature( std::vector<NXOpen::Curve*>{curve}, true); // 允许特征曲线 // 添加到截面 (使用正确的参数) section->AddToSection( curveRule, // 选择规则 curve, // 曲线对象 NXOpen::Section::ModeCreate, false, // 不反转方向 false, // 不替换现有规则 0.0 // 距离容差 ); } // 设置拉伸方向 (使用正确的API) NXOpen::Direction* extrudeDirection = workPart->Directions()->CreateDirection( directionVector, // 方向向量 NXOpen::SmartObject::UpdateOptionWithinModeling ); extrudeBuilder->SetDirection(extrudeDirection); // 设置拉伸范围 (使用正确的API) extrudeBuilder->SetLimits( 0.0, // 起始距离 hk1sdValue, // 结束距离 NXOpen::Features::ExtrudeBuilder::LimitsOptionOffset ); // 设置布尔操作类型(创建新实体) extrudeBuilder->SetBooleanOperation( NXOpen::Features::Feature::BooleanTypeCreate); // 设置拔模角度 (使用正确的API) if (hk1jdValue != 0.0) { extrudeBuilder->SetTaperAngle(hk1jdValue); } // 设置偏置参数 (使用正确的API) if (hk2sdValue != 0.0) { extrudeBuilder->SetOffset( 0.0, // 起始偏置 hk2sdValue, // 结束偏置 NXOpen::Features::ExtrudeBuilder::OffsetTypeSymmetric ); } // 执行拉伸操作 NXOpen::Features::Feature* feature = extrudeBuilder->Commit(); // 获取特征创建的实体 (使用正确的API) std::vector<NXOpen::Body*> featureBodies; feature->GetBodies(featureBodies); if (!featureBodies.empty() && colorIndex1 != 0) { // 设置新创建实体的颜色 UF_OBJ_set_color(featureBodies[0]->Tag(), colorIndex1); } // 清理资源 extrudeBuilder->Destroy(); section->Destroy(); } } catch (std::exception& ex) { errorCode = 1; NXOpen::Session* theSession = NXOpen::Session::GetSession(); theSession->UI()->NXMessageBox()->Show("错误", NXOpen::NXMessageBox::DialogTypeError, ("操作失败: " + std::string(ex.what())).c_str()); } catch (...) { errorCode = 1; NXOpen::Session* theSession = NXOpen::Session::GetSession(); theSession->UI()->NXMessageBox()->Show("错误", NXOpen::NXMessageBox::DialogTypeError, "未知操作错误"); } return errorCode; } //------------------------------------------------------------------------------ //Callback Name: update_cb //------------------------------------------------------------------------------ int hkjm::update_cb(NXOpen::BlockStyler::UIBlock* block) { try { if(block == hk2edge) { //---------Enter your code here----------- } else if(block == hk1edge) { //---------Enter your code here----------- } else if(block == hk1sd) { //---------Enter your code here----------- } else if(block == hk2sd) { //---------Enter your code here----------- } else if(block == hkdj) { //---------Enter your code here----------- } else if(block == hk2jd) { //---------Enter your code here----------- } else if(block == hk1jd) { //---------Enter your code here----------- } else if(block == vector0) { //---------Enter your code here----------- } else if(block == bodySelect0) { //---------Enter your code here----------- } else if(block == color1) { //---------Enter your code here----------- } else if(block == color2) { //---------Enter your code here----------- } } catch(exception& ex) { //---- Enter your exception handling code here ----- hkjm::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } return 0; } //------------------------------------------------------------------------------ //Callback Name: ok_cb //------------------------------------------------------------------------------ int hkjm::ok_cb() { int errorCode = 0; try { errorCode = apply_cb(); } catch(exception& ex) { //---- Enter your exception handling code here ----- errorCode = 1; hkjm::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } return errorCode; } //------------------------------------------------------------------------------ //Function Name: GetBlockProperties //Description: Returns the propertylist of the specified BlockID //------------------------------------------------------------------------------ PropertyList* hkjm::GetBlockProperties(const char *blockID) { return theDialog->GetBlockProperties(blockID); } 报错,提示:严重性 代码 说明 项目 文件 行 禁止显示状态 错误(活动) E0304 没有与参数列表匹配的 重载函数 "NXOpen::ScRuleFactory::CreateRuleCurveFeature" 实例 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 455 错误(活动) E0304 没有与参数列表匹配的 重载函数 "NXOpen::Section::AddToSection" 实例 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 460 错误(活动) E0304 没有与参数列表匹配的 重载函数 "NXOpen::DirectionCollection::CreateDirection" 实例 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 472 错误(活动) E0135 class "NXOpen::Features::ExtrudeBuilder" 没有成员 "SetLimits" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 479 错误(活动) E0135 class "NXOpen::Features::ExtrudeBuilder" 没有成员 "LimitsOptionOffset" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 482 错误(活动) E0135 class "NXOpen::Features::ExtrudeBuilder" 没有成员 "SetBooleanOperation" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 486 错误(活动) E0135 class "NXOpen::Features::ExtrudeBuilder" 没有成员 "SetTaperAngle" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 491 错误(活动) E0135 class "NXOpen::Features::ExtrudeBuilder" 没有成员 "SetOffset" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 496 错误(活动) E0135 class "NXOpen::Features::ExtrudeBuilder" 没有成员 "OffsetTypeSymmetric" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 499 错误(活动) E0144 "NXOpen::NXObject *" 类型的值不能用于初始化 "NXOpen::Features::Feature *" 类型的实体 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 504 错误(活动) E0135 class "NXOpen::Features::Feature" 没有成员 "GetBodies" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 508 错误(活动) E0135 class "NXOpen::Session" 没有成员 "UI" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 524 错误(活动) E0135 class "NXOpen::Session" 没有成员 "UI" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 532

你提供的代码全是错误,严重性 代码 说明 项目 文件 行 禁止显示状态 错误(活动) E0135 class "NXOpen::BlockStyler::PropertyList" 没有成员 "HasProperty" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 247 错误(活动) E0070 不允许使用不完整的类型 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 238 错误(活动) E0349 没有与这些操作数匹配的 "<<" 运算符 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 252 错误(活动) E0135 class "NXOpen::BlockStyler::PropertyList" 没有成员 "HasProperty" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 263 错误(活动) E0349 没有与这些操作数匹配的 "<<" 运算符 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 268 错误(活动) E0135 class "NXOpen::BlockStyler::PropertyList" 没有成员 "HasProperty" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 279 错误(活动) E0349 没有与这些操作数匹配的 "<<" 运算符 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 281 错误(活动) E0135 class "NXOpen::BlockStyler::PropertyList" 没有成员 "HasProperty" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 290 错误(活动) E0349 没有与这些操作数匹配的 "<<" 运算符 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 292 错误(活动) E0135 class "NXOpen::BlockStyler::PropertyList" 没有成员 "HasProperty" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 301 错误(活动) E0349 没有与这些操作数匹配的 "<<" 运算符 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 303 错误(活动) E0135 class "NXOpen::BlockStyler::PropertyList" 没有成员 "HasProperty" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 312 错误(活动) E0349 没有与这些操作数匹配的 "<<" 运算符 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 314 错误(活动) E0135 class "NXOpen::BlockStyler::PropertyList" 没有成员 "HasProperty" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 323 错误(活动) E0349 没有与这些操作数匹配的 "<<" 运算符 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 325 错误(活动) E0135 class "NXOpen::BlockStyler::PropertyList" 没有成员 "HasProperty" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 334 错误(活动) E0349 没有与这些操作数匹配的 "<<" 运算符 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 336 错误(活动) E0135 class "NXOpen::BlockStyler::PropertyList" 没有成员 "HasProperty" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 348 错误(活动) E0349 没有与这些操作数匹配的 "<<" 运算符 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 353 错误(活动) E0135 class "NXOpen::BlockStyler::PropertyList" 没有成员 "HasProperty" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 364 错误(活动) E0349 没有与这些操作数匹配的 "<<" 运算符 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 368 错误(活动) E0135 class "NXOpen::BlockStyler::PropertyList" 没有成员 "HasProperty" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 378 错误(活动) E0349 没有与这些操作数匹配的 "<<" 运算符 hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 382 错误(活动) E3365 不允许使用不完整的类类型 "std::basic_stringstream<char, std::char_traits<char>, std::allocator<char>>" hkjm D:\NXopen\BaiduSyncdisk\studio\hkjm\hkjm.cpp 390

“ // 添加选中的边到收集器 for (NXOpen::Curve* curve : sectionCurves1) { if (NXOpen::Edge* edge = dynamic_cast<NXOpen::Edge*>(curve)) { NXOpen::EdgeDumbRule* edgeRule = workPart->ScRuleFactory()->CreateRuleEdgeDumb(edge); std::vector<SelectionIntentRule*> rules; rules.push_back(edgeRule); edgeCollector->ReplaceRules(rules, false); } }”这里的:edge报错, 不存在从 "NXOpen::Edge *" 转换到 "std::vector<NXOpen::Edge *, std::allocator<NXOpen::Edge *>>" 的适当构造函数 ,参考以下帮助:#ifndef NXOpen_EDGE_HXX_INCLUDED #define NXOpen_EDGE_HXX_INCLUDED //-------------------------------------------------------------------------- // Header for C++ interface to JA API //-------------------------------------------------------------------------- // // Source File: // Edge.ja // // Generated by: // apiwrap // // WARNING: // This file is automatically generated - do not edit by hand // #ifdef _MSC_VER #pragma once #endif #include <NXOpen/NXDeprecation.hxx> #include <vector> #include <NXOpen/NXString.hxx> #include <NXOpen/Callback.hxx> #include <NXOpen/Drawings_DraftingCurveInfo.hxx> #include <NXOpen/DisplayableObject.hxx> #include <NXOpen/IBaseCurve.hxx> #include <NXOpen/ICurve.hxx> #include <NXOpen/INXObject.hxx> #include <NXOpen/IProfile.hxx> #include <NXOpen/IReferenceAxis.hxx> #include <NXOpen/ugmath.hxx> #include <NXOpen/libnxopencpp_exports.hxx> #ifdef _MSC_VER #pragma warning(push) #pragma warning(disable:4996) #endif #ifdef __GNUC__ #pragma GCC diagnostic ignored "-Wdeprecated-declarations" #endif namespace NXOpen { class Edge; namespace Assemblies { class Component; } class BasePart; class Body; class DisplayableObject; namespace Drawings { class DraftingCurveInfo; } class Face; class IBaseCurve; class ICurve; class INXObject; class IProfile; class IReferenceAxis; class _EdgeBuilder; class EdgeImpl; /** Represents an edge
An edge is obtained from its parent @link NXOpen::Body NXOpen::Body@endlink

Created in NX3.0.0.
*/ class NXOPENCPPEXPORT Edge : public NXOpen::DisplayableObject, public virtual NXOpen::IReferenceAxis, public virtual NXOpen::ICurve, public virtual NXOpen::IProfile { /** Solid edge type. */ public: enum EdgeType { EdgeTypeRubber/** Rubber edge, no curve attached */, EdgeTypeLinear/** Linear edge */, EdgeTypeCircular/** Circular edge */, EdgeTypeElliptical/** Elliptical edge */, EdgeTypeIntersection/** Intersection edge */, EdgeTypeSpline/** Spline edge */, EdgeTypeSpCurve/** SP curve edge */, EdgeTypeForeign/** Foreign edge */, EdgeTypeConstantParameter/** Constant parameter edge */, EdgeTypeTrimmedCurve/** Trimmed curve edge */, EdgeTypeConvergent/** Convergent edge */, EdgeTypeUndefined/** Undefined */ }; private: EdgeImpl * m_edge_impl; private: friend class _EdgeBuilder; protected: Edge(); public: ~Edge(); /**Returns the solid type of the edge
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") */ public: NXOpen::Edge::EdgeType SolidEdgeType ( ); /** @brief Returns the faces connected to the edge. The faces are sorted according to the journal identifier of the face. @return
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") */ public: std::vector<NXOpen::Face *> GetFaces ( ); /** @brief Returns the faces connected to the edge. The faces returned from this method are in no guaranteed order. This method will be faster than @link NXOpen::Edge::GetFaces NXOpen::Edge::GetFaces@endlink . @return
Created in NX12.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") */ public: std::vector<NXOpen::Face *> GetUnsortedFaces ( ); /** Returns the vertices of the edge. If the edge is closed, the second vertex is the same as the first.
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") */ public: void GetVertices ( NXOpen::Point3d* vertex1 /** First vertex in the edge */, NXOpen::Point3d* vertex2 /** Second vertex in the edge */ ); /** Returns the body containing this edge @return
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") */ public: NXOpen::Body * GetBody ( ); /** Creates new DraftingCurveInfo object @return New DraftingCurveInfo object. Returns NULL if the input curve is not a drafting curve
Created in NX10.0.0.

License requirements : None */ public: virtual NXOpen::Drawings::DraftingCurveInfo * GetDraftingCurveInfo ( ); /** Returns the length of the object @return
Created in NX3.0.0.

License requirements : None */ public: virtual double GetLength ( ); /**Returns the reference state of a curve
Created in NX8.0.0.

License requirements : None */ public: virtual bool IsReference ( ); }; } #ifdef _MSC_VER #pragma warning(pop) #endif #ifdef __GNUC__ #ifndef NX_NO_GCC_DEPRECATION_WARNINGS #pragma GCC diagnostic warning "-Wdeprecated-declarations" #endif #endif #undef EXPORTLIBRARY #endif

我正在学习NX二次开发,用的是Visual Studio 2019,ug版本是12.0,开发平台是c++,uf函数为主nxopen函数为辅。需要你辅助我开发,重点注意开发模版是c++,优先使用uf函数,要求你先搞清楚你提供给我的代码真实有效性,语句与标点符号的正确位置,避免出现ug12.0没有提供的接口成员出现!确保所有方法调用都符合 NX12 的 API 签名,深度思考下再回答,每次回答前先回顾下前面的所有对话避免问题重复出现,每行代码都用中文注解具体意思与作用。 //============================================================================== // WARNING!! This file is overwritten by the Block UI Styler while generating // the automation code. Any modifications to this file will be lost after // generating the code again. // // Filename: D:\NXopen\BaiduSyncdisk\studio\qiaowei_tool\ui\qiaowei_tool.cpp // // This file was generated by the NX Block UI Styler // Created by: MICH-ROG // Version: NX 12 // Date: 08-07-2025 (Format: mm-dd-yyyy) // Time: 21:38 (Format: hh-mm) // //============================================================================== //============================================================================== // Purpose: This TEMPLATE file contains C++ source to guide you in the // construction of your Block application dialog. The generation of your // dialog file (.dlx extension) is the first step towards dialog construction // within NX. You must now create a NX Open application that // utilizes this file (.dlx). // // The information in this file provides you with the following: // // 1. Help on how to load and display your Block UI Styler dialog in NX // using APIs provided in NXOpen.BlockStyler namespace // 2. The empty callback methods (stubs) associated with your dialog items // have also been placed in this file. These empty methods have been // created simply to start you along with your coding requirements. // The method name, argument list and possible return values have already // been provided for you. //============================================================================== //------------------------------------------------------------------------------ //These includes are needed for the following template code //------------------------------------------------------------------------------ #include "qiaowei_tool.hpp" using namespace NXOpen; using namespace NXOpen::BlockStyler; //------------------------------------------------------------------------------ // Initialize static variables //------------------------------------------------------------------------------ Session *(qiaowei_tool::theSession) = NULL; UI *(qiaowei_tool::theUI) = NULL; //------------------------------------------------------------------------------ // Constructor for NX Styler class //------------------------------------------------------------------------------ qiaowei_tool::qiaowei_tool() { try { // Initialize the NX Open C++ API environment qiaowei_tool::theSession = NXOpen::Session::GetSession(); qiaowei_tool::theUI = UI::GetUI(); theDlxFileName = "qiaowei_tool.dlx"; theDialog = qiaowei_tool::theUI->CreateDialog(theDlxFileName); // Registration of callback functions theDialog->AddApplyHandler(make_callback(this, &qiaowei_tool::apply_cb)); theDialog->AddOkHandler(make_callback(this, &qiaowei_tool::ok_cb)); theDialog->AddUpdateHandler(make_callback(this, &qiaowei_tool::update_cb)); theDialog->AddInitializeHandler(make_callback(this, &qiaowei_tool::initialize_cb)); theDialog->AddDialogShownHandler(make_callback(this, &qiaowei_tool::dialogShown_cb)); } catch(exception& ex) { //---- Enter your exception handling code here ----- throw; } } //------------------------------------------------------------------------------ // Destructor for NX Styler class //------------------------------------------------------------------------------ qiaowei_tool::~qiaowei_tool() { if (theDialog != NULL) { delete theDialog; theDialog = NULL; } } //------------------------------- DIALOG LAUNCHING --------------------------------- // // Before invoking this application one needs to open any part/empty part in NX // because of the behavior of the blocks. // // Make sure the dlx file is in one of the following locations: // 1.) From where NX session is launched // 2.) $UGII_USER_DIR/application // 3.) For released applications, using UGII_CUSTOM_DIRECTORY_FILE is highly // recommended. This variable is set to a full directory path to a file // containing a list of root directories for all custom applications. // e.g., UGII_CUSTOM_DIRECTORY_FILE=$UGII_BASE_DIR\ugii\menus\custom_dirs.dat // // You can create the dialog using one of the following way: // // 1. USER EXIT // // 1) Create the Shared Library -- Refer "Block UI Styler programmer's guide" // 2) Invoke the Shared Library through File->Execute->NX Open menu. // //------------------------------------------------------------------------------ extern "C" DllExport void ufusr(char *param, int *retcod, int param_len) { qiaowei_tool *theqiaowei_tool = NULL; try { UF_initialize(); //开发的许可函数,初始化 theqiaowei_tool = new qiaowei_tool(); // The following method shows the dialog immediately theqiaowei_tool->Show(); } catch(exception& ex) { //---- Enter your exception handling code here ----- qiaowei_tool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } if(theqiaowei_tool != NULL) { delete theqiaowei_tool; theqiaowei_tool = NULL; }UF_terminate(); //释放许可函数,结束化 } //------------------------------------------------------------------------------ // This method specifies how a shared image is unloaded from memory // within NX. This method gives you the capability to unload an // internal NX Open application or user exit from NX. Specify any // one of the three constants as a return value to determine the type // of unload to perform: // // // Immediately : unload the library as soon as the automation program has completed // Explicitly : unload the library from the "Unload Shared Image" dialog // AtTermination : unload the library when the NX session terminates // // // NOTE: A program which associates NX Open applications with the menubar // MUST NOT use this option since it will UNLOAD your NX Open application image // from the menubar. //------------------------------------------------------------------------------ extern "C" DllExport int ufusr_ask_unload() { //return (int)Session::LibraryUnloadOptionExplicitly; return (int)Session::LibraryUnloadOptionImmediately; //return (int)Session::LibraryUnloadOptionAtTermination; } //------------------------------------------------------------------------------ // Following method cleanup any housekeeping chores that may be needed. // This method is automatically called by NX. //------------------------------------------------------------------------------ extern "C" DllExport void ufusr_cleanup(void) { try { //---- Enter your callback code here ----- } catch(exception& ex) { //---- Enter your exception handling code here ----- qiaowei_tool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } } int qiaowei_tool::Show() { try { theDialog->Show(); } catch(exception& ex) { //---- Enter your exception handling code here ----- qiaowei_tool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } return 0; } //------------------------------------------------------------------------------ //---------------------Block UI Styler Callback Functions-------------------------- //------------------------------------------------------------------------------ //------------------------------------------------------------------------------ //Callback Name: initialize_cb //------------------------------------------------------------------------------ void qiaowei_tool::initialize_cb() { try { group0 = dynamic_cast<NXOpen::BlockStyler::Group*>(theDialog->TopBlock()->FindBlock("group0")); bianjie_edge = dynamic_cast<NXOpen::BlockStyler::CurveCollector*>(theDialog->TopBlock()->FindBlock("bianjie_edge")); chuliao_edge = dynamic_cast<NXOpen::BlockStyler::CurveCollector*>(theDialog->TopBlock()->FindBlock("chuliao_edge")); group = dynamic_cast<NXOpen::BlockStyler::Group*>(theDialog->TopBlock()->FindBlock("group")); expression_clcq = dynamic_cast<NXOpen::BlockStyler::ExpressionBlock*>(theDialog->TopBlock()->FindBlock("expression_clcq")); expression_smh = dynamic_cast<NXOpen::BlockStyler::ExpressionBlock*>(theDialog->TopBlock()->FindBlock("expression_smh")); expression_jlcq = dynamic_cast<NXOpen::BlockStyler::ExpressionBlock*>(theDialog->TopBlock()->FindBlock("expression_jlcq")); expression_dqjiaodu = dynamic_cast<NXOpen::BlockStyler::ExpressionBlock*>(theDialog->TopBlock()->FindBlock("expression_dqjiaodu")); group1 = dynamic_cast<NXOpen::BlockStyler::Group*>(theDialog->TopBlock()->FindBlock("group1")); toggle_daojiao = dynamic_cast<NXOpen::BlockStyler::Toggle*>(theDialog->TopBlock()->FindBlock("toggle_daojiao")); expression_rjiao = dynamic_cast<NXOpen::BlockStyler::ExpressionBlock*>(theDialog->TopBlock()->FindBlock("expression_rjiao")); toggle_pianzhi = dynamic_cast<NXOpen::BlockStyler::Toggle*>(theDialog->TopBlock()->FindBlock("toggle_pianzhi")); expression_pianzhi = dynamic_cast<NXOpen::BlockStyler::ExpressionBlock*>(theDialog->TopBlock()->FindBlock("expression_pianzhi")); vector0 = dynamic_cast<NXOpen::BlockStyler::SpecifyVector*>(theDialog->TopBlock()->FindBlock("vector0")); } catch(exception& ex) { //---- Enter your exception handling code here ----- qiaowei_tool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } } //------------------------------------------------------------------------------ //Callback Name: dialogShown_cb //This callback is executed just before the dialog launch. Thus any value set //here will take precedence and dialog will be launched showing that value. //------------------------------------------------------------------------------ void qiaowei_tool::dialogShown_cb() { try { //---- Enter your callback code here ----- } catch(exception& ex) { //---- Enter your exception handling code here ----- qiaowei_tool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } } //------------------------------------------------------------------------------ //Callback Name: apply_cb //------------------------------------------------------------------------------ //------------------------------------------------------------------------------ //Callback Name: apply_cb // // 应用按钮回调函数 //------------------------------------------------------------------------------ int qiaowei_tool::apply_cb() { int errorCode = 0; // 错误代码,0表示成功 try { // 获取NX会话和工作部件 NXOpen::Session* theSession = NXOpen::Session::GetSession(); NXOpen::Part* workPart = theSession->Parts()->Work(); NXOpen::UI* theUI = NXOpen::UI::GetUI(); // ===== 1. 获取边界边曲线 ===== std::vector<NXOpen::Curve*> boundaryCurves; if (bianjie_edge) { // 获取曲线选择器属性列表 std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(bianjie_edge->GetProperties()); // 获取选中的对象集合 std::vector<NXOpen::TaggedObject*> selObjs = props->GetTaggedObjectVector("SelectedObjects"); // 遍历选中对象并转换为曲线 for (NXOpen::TaggedObject* obj : selObjs) { if (NXOpen::Curve* curve = dynamic_cast<NXOpen::Curve*>(obj)) { boundaryCurves.push_back(curve); } } } // ===== 2. 获取出料边曲线 ===== std::vector<NXOpen::Curve*> dischargeCurves; if (chuliao_edge) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(chuliao_edge->GetProperties()); std::vector<NXOpen::TaggedObject*> selObjs = props->GetTaggedObjectVector("SelectedObjects"); for (NXOpen::TaggedObject* obj : selObjs) { if (NXOpen::Curve* curve = dynamic_cast<NXOpen::Curve*>(obj)) { dischargeCurves.push_back(curve); } } } // ===== 3. 获取出料沉桥值 ===== double materialThickness = 0.0; if (expression_clcq) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(expression_clcq->GetProperties()); // 获取表达式数值 materialThickness = props->GetDouble("Value"); } // ===== 4. 获取上模厚度值 ===== double scanHeight = 0.0; if (expression_smh) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(expression_smh->GetProperties()); scanHeight = props->GetDouble("Value"); } // ===== 5. 获取进料沉桥值 ===== double clearanceValue = 0.0; if (expression_jlcq) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(expression_jlcq->GetProperties()); clearanceValue = props->GetDouble("Value"); } // ===== 6. 获取倒桥角度值 ===== double currentAngle = 0.0; if (expression_dqjiaodu) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(expression_dqjiaodu->GetProperties()); currentAngle = props->GetDouble("Value"); } // ===== 7. 获取倒角开关状态 ===== bool chamferToggle = false; if (toggle_daojiao) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(toggle_daojiao->GetProperties()); // 获取开关状态(选中/未选中) chamferToggle = props->GetLogical("Value"); } // ===== 8. 获取倒角半径值 ===== double chamferRadius = 0.0; if (expression_rjiao && chamferToggle) // 仅在倒角开启时获取 { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(expression_rjiao->GetProperties()); chamferRadius = props->GetDouble("Value"); } // ===== 9. 获取偏移开关状态 ===== bool offsetToggle = false; if (toggle_pianzhi) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(toggle_pianzhi->GetProperties()); offsetToggle = props->GetLogical("Value"); } // ===== 10. 获取偏移距离值 ===== double offsetDistance = 0.0; if (expression_pianzhi && offsetToggle) // 仅在偏移开启时获取 { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(expression_pianzhi->GetProperties()); offsetDistance = props->GetDouble("Value"); } // ===== 11. 获取矢量方向 ===== NXOpen::Vector3d directionVector(0.0, 0.0, 1.0); // 默认Z轴方向 if (vector0) { std::unique_ptr<NXOpen::BlockStyler::PropertyList> props(vector0->GetProperties()); // 获取用户指定的矢量方向 directionVector = props->GetVector("Vector"); } // ===== 12. 验证必要输入 ===== if (boundaryCurves.size() < 2) { throw std::runtime_error("需要选择两条桥位边界曲线!"); } if (dischargeCurves.empty()) { throw std::runtime_error("出料边曲线未选择!"); } if (scanHeight <= 0) { throw std::runtime_error("上模厚度必须大于0!"); } // ===== 13. 计算两条边界曲线端点间的最短距离并创建两条连接直线 ===== tag_t line1Tag = NULL_TAG; tag_t line2Tag = NULL_TAG; double minDist = 0.0; double remainingDist = 0.0; try { // 获取前两条边界曲线 NXOpen::Curve* curve1 = boundaryCurves[0]; NXOpen::Curve* curve2 = boundaryCurves[1]; // 获取曲线端点 double curve1Start[3] = { 0.0 }, curve1End[3] = { 0.0 }; double curve2Start[3] = { 0.0 }, curve2End[3] = { 0.0 }; // 获取曲线1端点 UF_EVAL_p_t evaluator1 = NULL; if (UF_EVAL_initialize(curve1->Tag(), &evaluator1) != 0) { throw std::runtime_error("无法初始化曲线1的评估器"); } double limits1[2]; if (UF_EVAL_ask_limits(evaluator1, limits1) != 0) { UF_EVAL_free(evaluator1); throw std::runtime_error("无法获取曲线1的参数范围"); } if (limits1[0] > limits1[1]) std::swap(limits1[0], limits1[1]); if (UF_EVAL_evaluate(evaluator1, 0, limits1[0], curve1Start, NULL) != 0 || UF_EVAL_evaluate(evaluator1, 0, limits1[1], curve1End, NULL) != 0) { UF_EVAL_free(evaluator1); throw std::runtime_error("无法评估曲线1的端点"); } UF_EVAL_free(evaluator1); // 获取曲线2端点 UF_EVAL_p_t evaluator2 = NULL; if (UF_EVAL_initialize(curve2->Tag(), &evaluator2) != 0) { throw std::runtime_error("无法初始化曲线2的评估器"); } double limits2[2]; if (UF_EVAL_ask_limits(evaluator2, limits2) != 0) { UF_EVAL_free(evaluator2); throw std::runtime_error("无法获取曲线2的参数范围"); } if (limits2[0] > limits2[1]) std::swap(limits2[0], limits2[1]); if (UF_EVAL_evaluate(evaluator2, 0, limits2[0], curve2Start, NULL) != 0 || UF_EVAL_evaluate(evaluator2, 0, limits2[1], curve2End, NULL) != 0) { UF_EVAL_free(evaluator2); throw std::runtime_error("无法评估曲线2的端点"); } UF_EVAL_free(evaluator2); // 转换为NXOpen点对象 NXOpen::Point3d p1_start(curve1Start[0], curve1Start[1], curve1Start[2]); NXOpen::Point3d p1_end(curve1End[0], curve1End[1], curve1End[2]); NXOpen::Point3d p2_start(curve2Start[0], curve2Start[1], curve2Start[2]); NXOpen::Point3d p2_end(curve2End[0], curve2End[1], curve2End[2]); // 计算两点间距离的函数 auto distance = [](const NXOpen::Point3d& a, const NXOpen::Point3d& b) -> double { return sqrt(pow(a.X - b.X, 2) + pow(a.Y - b.Y, 2) + pow(a.Z - b.Z, 2)); }; // 计算四种可能的端点组合距离 double dist1 = distance(p1_start, p2_start); double dist2 = distance(p1_start, p2_end); double dist3 = distance(p1_end, p2_start); double dist4 = distance(p1_end, p2_end); // 找出最小距离对应的点对 minDist = std::min({ dist1, dist2, dist3, dist4 }); NXOpen::Point3d minPoint1, minPoint2; int minIndex = 0; if (minDist == dist1) { minPoint1 = p1_start; minPoint2 = p2_start; } else if (minDist == dist2) { minPoint1 = p1_start; minPoint2 = p2_end; } else if (minDist == dist3) { minPoint1 = p1_end; minPoint2 = p2_start; } else { minPoint1 = p1_end; minPoint2 = p2_end; } // 确定剩余的两个端点 auto isPointEqual = [](const NXOpen::Point3d& a, const NXOpen::Point3d& b, double tol = 1e-6) -> bool { return (fabs(a.X - b.X) < tol) && (fabs(a.Y - b.Y) < tol) && (fabs(a.Z - b.Z) < tol); }; NXOpen::Point3d remainingPoint1 = isPointEqual(minPoint1, p1_start) ? p1_end : p1_start; NXOpen::Point3d remainingPoint2 = isPointEqual(minPoint2, p2_start) ? p2_end : p2_start; remainingDist = distance(remainingPoint1, remainingPoint2); // ===== 创建两条连接直线 ===== // 创建第一条直线(最短距离连接) UF_CURVE_line_t line1Coords; line1Coords.start_point[0] = minPoint1.X; line1Coords.start_point[1] = minPoint1.Y; line1Coords.start_point[2] = minPoint1.Z; line1Coords.end_point[0] = minPoint2.X; line1Coords.end_point[1] = minPoint2.Y; line1Coords.end_point[2] = minPoint2.Z; if (UF_CURVE_create_line(&line1Coords, &line1Tag) != 0 || line1Tag == NULL_TAG) { throw std::runtime_error("创建最短距离直线失败"); } // 设置第一条直线属性 int workLayer = workPart->Layers()->WorkLayer(); UF_OBJ_set_layer(line1Tag, workLayer); // 创建第二条直线(剩余端点连接) UF_CURVE_line_t line2Coords; line2Coords.start_point[0] = remainingPoint1.X; line2Coords.start_point[1] = remainingPoint1.Y; line2Coords.start_point[2] = remainingPoint1.Z; line2Coords.end_point[0] = remainingPoint2.X; line2Coords.end_point[1] = remainingPoint2.Y; line2Coords.end_point[2] = remainingPoint2.Z; if (UF_CURVE_create_line(&line2Coords, &line2Tag) != 0 || line2Tag == NULL_TAG) { throw std::runtime_error("创建剩余端点直线失败"); } // 设置第二条直线属性 UF_OBJ_set_layer(line2Tag, workLayer); // 更新显示 UF_DISP_refresh(); // 显示成功信息 char msg[256]; snprintf(msg, sizeof(msg), "已创建两条连接直线:\n" "1. 最短距离直线: %.2f mm\n" "2. 剩余端点直线: %.2f mm", minDist, remainingDist); theUI->NXMessageBox()->Show("操作成功", NXOpen::NXMessageBox::DialogTypeInformation, msg); } catch (std::exception& ex) { char errMsg[256]; snprintf(errMsg, sizeof(errMsg), "端点距离计算或直线创建失败: %s", ex.what()); theUI->NXMessageBox()->Show("错误", NXOpen::NXMessageBox::DialogTypeError, errMsg); errorCode = 2; return errorCode; // 提前返回,不再继续后续操作 } // ===== 14. 创建拉伸特征(新建体) ===== try { // 设置撤销标记 NXOpen::Session::UndoMarkId markId = theSession->SetUndoMark( NXOpen::Session::MarkVisibilityVisible, "桥位拉伸"); // 创建拉伸构建器 NXOpen::Features::ExtrudeBuilder* extrudeBuilder = workPart->Features()->CreateExtrudeBuilder(nullptr); // 创建截面 NXOpen::Section* section = workPart->Sections()->CreateSection( 0.001, 0.001, 0.05); extrudeBuilder->SetSection(section); // 准备截面曲线:边界曲线 + 连接直线 std::vector<NXOpen::Curve*> sectionCurves; sectionCurves.push_back(boundaryCurves[0]); sectionCurves.push_back(boundaryCurves[1]); // 将直线标签转换为曲线对象 NXOpen::Curve* line1Curve = dynamic_cast<NXOpen::Curve*>( NXOpen::NXObjectManager::Get(line1Tag)); NXOpen::Curve* line2Curve = dynamic_cast<NXOpen::Curve*>( NXOpen::NXObjectManager::Get(line2Tag)); if (line1Curve) sectionCurves.push_back(line1Curve); if (line2Curve) sectionCurves.push_back(line2Curve); // 创建曲线规则 std::vector<NXOpen::SelectionIntentRule*> rules; if (!sectionCurves.empty()) { NXOpen::SelectionIntentRule* curveRule = workPart->ScRuleFactory()->CreateRuleCurveDumb(sectionCurves); rules.push_back(curveRule); } // 获取帮助点(中点) NXOpen::Point3d helpPoint(0.0, 0.0, 0.0); if (!sectionCurves.empty()) { tag_t curveTag = sectionCurves[0]->Tag(); UF_EVAL_p_t evaluator = NULL; double limits[2]; if (UF_EVAL_initialize(curveTag, &evaluator) == 0) { if (UF_EVAL_ask_limits(evaluator, limits) == 0) { if (limits[0] > limits[1]) std::swap(limits[0], limits[1]); double midParam = (limits[0] + limits[1]) / 2.0; double midPoint[3]; if (UF_EVAL_evaluate(evaluator, 0, midParam, midPoint, NULL) == 0) { helpPoint = NXOpen::Point3d(midPoint[0], midPoint[1], midPoint[2]); } } UF_EVAL_free(evaluator); } } // 添加到截面 section->AddToSection( rules, sectionCurves[0], NULL, NULL, helpPoint, NXOpen::Section::ModeCreate ); // 设置拉伸方向 NXOpen::Point3d origin(0.0, 0.0, 0.0); NXOpen::Direction* extrudeDirection = workPart->Directions()->CreateDirection( origin, directionVector, NXOpen::SmartObject::UpdateOptionWithinModeling ); extrudeBuilder->SetDirection(extrudeDirection); // 设置拉伸范围 NXOpen::GeometricUtilities::Limits* limits = extrudeBuilder->Limits(); limits->StartExtend()->Value()->SetRightHandSide( std::to_string(materialThickness).c_str()); double endDistance = scanHeight - clearanceValue; limits->EndExtend()->Value()->SetRightHandSide( std::to_string(endDistance).c_str()); // ===== 设置布尔操作为新建体 ===== extrudeBuilder->BooleanOperation()->SetType( NXOpen::GeometricUtilities::BooleanOperation::BooleanTypeCreate); // 执行拉伸操作 NXOpen::NXObject* featureNXObject = nullptr; std::vector<NXOpen::Body*> resultBodies; try { // 提交拉伸操作 featureNXObject = extrudeBuilder->Commit(); // 将特征对象转换为Feature类型 NXOpen::Features::Feature* extrudeFeature = dynamic_cast<NXOpen::Features::Feature*>(featureNXObject); if (extrudeFeature) { // 正确获取拉伸创建的实体 resultBodies = extrudeFeature->GetBodies(); } else { throw std::runtime_error("拉伸特征创建失败"); } // 显示结果信息 char successMsg[256]; if (!resultBodies.empty()) { snprintf(successMsg, sizeof(successMsg), "创建新实体成功!\n实体数量: %d\n起始距离: %.2f mm\n结束距离: %.2f mm", resultBodies.size(), materialThickness, endDistance); } else { snprintf(successMsg, sizeof(successMsg), "拉伸操作完成但未创建实体!\n起始距离: %.2f mm\n结束距离: %.2f mm", materialThickness, endDistance); } theUI->NXMessageBox()->Show("操作结果", NXOpen::NXMessageBox::DialogTypeInformation, successMsg); // 清理资源 extrudeBuilder->Destroy(); section->Destroy(); } catch (std::exception& ex) { char errMsg[256]; snprintf(errMsg, sizeof(errMsg), "创建拉伸特征失败: %s", ex.what()); theUI->NXMessageBox()->Show("错误", NXOpen::NXMessageBox::DialogTypeError, errMsg); errorCode = 3; // 特殊错误处理:当布尔操作设置可能冲突时 if (std::string(ex.what()).find("boolean") != std::string::npos) { theUI->NXMessageBox()->Show("布尔操作错误", NXOpen::NXMessageBox::DialogTypeError, "请检查布尔操作设置是否与现有几何冲突"); errorCode = 4; } // 确保资源被清理 if (extrudeBuilder) { extrudeBuilder->Destroy(); } if (section) { section->Destroy(); } } // ===== 最终清理和返回 ===== // 删除临时创建的直线 if (line1Tag != NULL_TAG) { UF_OBJ_delete_object(line1Tag); } if (line2Tag != NULL_TAG) { UF_OBJ_delete_object(line2Tag); } // 刷新显示 UF_DISP_refresh(); return errorCode; } // 注意:这里是apply_cb函数的结束括号 //------------------------------------------------------------------------------ //Callback Name: update_cb //------------------------------------------------------------------------------ int qiaowei_tool::update_cb(NXOpen::BlockStyler::UIBlock* block) { try { if(block == bianjie_edge) { //---------Enter your code here----------- } else if(block == chuliao_edge) { //---------Enter your code here----------- } else if(block == expression_clcq) { //---------Enter your code here----------- } else if(block == expression_smh) { //---------Enter your code here----------- } else if(block == expression_jlcq) { //---------Enter your code here----------- } else if(block == expression_dqjiaodu) { //---------Enter your code here----------- } else if(block == toggle_daojiao) { //---------Enter your code here----------- } else if(block == expression_rjiao) { //---------Enter your code here----------- } else if(block == toggle_pianzhi) { //---------Enter your code here----------- } else if(block == expression_pianzhi) { //---------Enter your code here----------- } else if(block == vector0) { //---------Enter your code here----------- } } catch(exception& ex) { //---- Enter your exception handling code here ----- qiaowei_tool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } return 0; } //------------------------------------------------------------------------------ //Callback Name: ok_cb //------------------------------------------------------------------------------ int qiaowei_tool::ok_cb() { int errorCode = 0; try { errorCode = apply_cb(); } catch(exception& ex) { //---- Enter your exception handling code here ----- errorCode = 1; qiaowei_tool::theUI->NXMessageBox()->Show("Block Styler", NXOpen::NXMessageBox::DialogTypeError, ex.what()); } return errorCode; } //------------------------------------------------------------------------------ //Function Name: GetBlockProperties //Description: Returns the propertylist of the specified BlockID //------------------------------------------------------------------------------ PropertyList* qiaowei_tool::GetBlockProperties(const char *blockID) { return theDialog->GetBlockProperties(blockID); } 以上代码报错:严重性 代码 说明 项目 文件 行 禁止显示状态 错误(活动) E0530 try 块至少需要一个处理程序 qiaowei_tool D:\NXopen\BaiduSyncdisk\studio\qiaowei_tool\qiaowei_tool.cpp 694 错误(活动) E0135 class "NXOpen::Features::Feature" 没有成员 "GetBodies" qiaowei_tool D:\NXopen\BaiduSyncdisk\studio\qiaowei_tool\qiaowei_tool.cpp 623 出错部分参考以下帮助文档:#ifndef NXOpen_FEATURES_FEATURE_HXX_INCLUDED #define NXOpen_FEATURES_FEATURE_HXX_INCLUDED //-------------------------------------------------------------------------- // Header for C++ interface to JA API //-------------------------------------------------------------------------- // // Source File: // Features_Feature.ja // // Generated by: // apiwrap // // WARNING: // This file is automatically generated - do not edit by hand // #ifdef _MSC_VER #pragma once #endif #include <NXOpen/NXDeprecation.hxx> #include <vector> #include <NXOpen/NXString.hxx> #include <NXOpen/Callback.hxx> #include <NXOpen/IFitTo.hxx> #include <NXOpen/INXObject.hxx> #include <NXOpen/IProfile.hxx> #include <NXOpen/NXObject.hxx> #include <NXOpen/ugmath.hxx> #include <NXOpen/libnxopencpp_features_exports.hxx> #ifdef _MSC_VER #pragma warning(push) #pragma warning(disable:4996) #endif #ifdef __GNUC__ #pragma GCC diagnostic ignored "-Wdeprecated-declarations" #endif namespace NXOpen { namespace Features { class Feature; } namespace Assemblies { class Component; } class BasePart; class Expression; namespace Features { class IContainerFeature; } class IFitTo; class INXObject; class IProfile; class NXColor; class NXObject; class Section; namespace Features { class _FeatureBuilder; class FeatureImpl; /** Represents a feature on a part
This is an abstract class, and cannot be instantiated.

Created in NX3.0.0.
*/ class NXOPENCPP_FEATURESEXPORT Feature : public NXOpen::NXObject, public virtual NXOpen::IProfile, public virtual NXOpen::IFitTo { /** Boolean operation type. */ public: enum BooleanType { BooleanTypeCreate/** Create */, BooleanTypeUnite/** Unite */, BooleanTypeSubtract/** Subtract */, BooleanTypeIntersect/** Intersect */, BooleanTypeEmbossNormalSide/** Emboss, keep tool on normal side of sheet */ = 8, BooleanTypeEmbossOppositeNormalSide/** Emboss, keep tool opposite of normal side of sheet */ }; /** Diagnostic type */ public: enum DiagnosticType { DiagnosticTypeInformation/** Information alert */ = 1, DiagnosticTypeWarning/** Warning */ }; private: FeatureImpl * m_feature_impl; private: friend class _FeatureBuilder; protected: Feature(); public: ~Feature(); /** Returns the expressions created by the feature. The order in which expressions are returned is not significant and may change @return
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: std::vector<NXOpen::Expression *> GetExpressions ( ); /** Returns the immediate parent features. The order in which parents are returned is not significant and may change @return
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") */ public: std::vector<NXOpen::Features::Feature *> GetParents ( ); /** Returns the immediate child features. The order in which children are returned is not significant and may change @return
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: std::vector<NXOpen::Features::Feature *> GetChildren ( ); /** Returns all immediate child features. The order in which children are returned is not significant and may change @return
Created in NX9.0.1.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR insp_programming ("INSPECTION PROGRAMMING") */ public: std::vector<NXOpen::Features::Feature *> GetAllChildren ( ); /**Returns the algorithm version of the feature
@deprecated Deprecated in NX8.5.0. Algorithm version is for internal use only. There is no replacement for this method.

Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: NX_DEPRECATED("Deprecated in NX8.5.0. Algorithm version is for internal use only. There is no replacement for this method.") int AlgorithmVersion ( ); /**Returns the location of the feature
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR insp_programming ("INSPECTION PROGRAMMING") */ public: NXOpen::Point3d Location ( ); /**Returns the timestamp of the feature
Created in NX3.0.0.

License requirements : None */ public: int Timestamp ( ); /**Returns the feature type
Created in NX3.0.0.

License requirements : None */ public: NXString FeatureType ( ); /** Highlight the body created by the feature
Created in NX3.0.0.

License requirements : None */ public: void Highlight ( ); /** Unhighlight the body created by the feature
Created in NX3.0.0.

License requirements : None */ public: void Unhighlight ( ); /** Make current feature
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void MakeCurrentFeature ( ); /** Show the body created by the feature. The feature curves are to be moved to work layer if the curves are non-selectable when move_curves is true.
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void ShowBody ( bool moveCurves /** move curves */ ); /** Show the body created by the parent feature. The parent curves of feature are to be moved to work layer if the curves are non-selectable when move_curves is true.
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void ShowParents ( bool moveCurves /** move curves */ ); /** Hide the body created by the feature
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void HideBody ( ); /** Hide the body created by the parent feature
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void HideParents ( ); /** Suppress the feature
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void Suppress ( ); /** Unsuppress the feature
Created in NX3.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void Unsuppress ( ); /**Returns the suppression status of the feature
Created in NX3.0.0.

License requirements : None */ public: bool Suppressed ( ); /** Returns the entities created by the feature. The order in which entities are returned is not significant and may change. @return
Created in NX4.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: std::vector<NXOpen::NXObject *> GetEntities ( ); /** Returns the feature error messages. error_messages can be NULL. The order in which error messags are returned is not significant and may change @return
Created in NX5.0.0.

License requirements : None */ public: std::vector<NXString> GetFeatureErrorMessages ( ); /** Returns the feature informational messages. info_messages can be NULL. The order in which informational messags are returned is not significant and may change @return
Created in NX5.0.0.

License requirements : None */ public: std::vector<NXString> GetFeatureInformationalMessages ( ); /** Delete all informational alerts from the features
Created in NX5.0.0.

License requirements : None */ public: void DeleteInformationalAlerts ( ); /** Delete all warning alerts from the features
Created in NX10.0.0.

License requirements : None */ public: void DeleteWarningAlerts ( ); /** Returns the feature warning messages. warning_messages can be NULL. The order in which warning messags are returned is not significant and may change @return
Created in NX5.0.0.

License requirements : None */ public: std::vector<NXString> GetFeatureWarningMessages ( ); /** Returns the feature clue messages. clue_messages can be NULL. The order in which clue messags are returned is not significant and may change @return
Created in NX8.0.1.

License requirements : None */ public: std::vector<NXString> GetFeatureClueMessages ( ); /** Delete all clue alerts from the features
Created in NX8.0.1.

License requirements : None */ public: void DeleteClueAlerts ( ); /** Returns both clue and hint messages of the feature. num_clueHint can be NULL. The order in which clue and hint messags are returned is not significant and may change @return
Created in NX8.0.1.

License requirements : None */ public: std::vector<NXString> GetFeatureClueHintMessages ( ); /** Returns the feature hint messages. hint_messages can be NULL. The order in which hint messags are returned is not significant and may change @return
Created in NX8.0.1.

License requirements : None */ public: std::vector<NXString> GetFeatureHintMessages ( ); /** Delete all clue alerts from the features
Created in NX8.0.1.

License requirements : None */ public: void DeleteHintAlerts ( ); /** Make the parent sketch internal if referenced only by this feature.
Created in NX5.0.1.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void MakeSketchInternal ( ); /** Make the parent sketch external for reuse by other features.
Created in NX5.0.1.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void MakeSketchExternal ( ); /** Remove all the feature faces before a NoHistory mode edit.
Created in NX6.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void RemoveForEdit ( bool dependent /** dependent */ ); /** Remove Local feature parameters in history free mode.
Created in NX7.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void RemoveParameters ( ); /**Returns true if the feature is internal.
Created in NX6.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: bool IsInternal ( ); /** Show all feature dimensions of a feature.
Created in NX6.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void ShowDimensions ( ); /** Returns the displayed name of the feature. @return displayed name
Created in NX6.0.0.

License requirements : None */ public: NXString GetFeatureName ( ); /** Queries a feature for list of its sections. The order in which sections are returned is not significant and may change @return Array of sections
Created in NX7.5.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: std::vector<NXOpen::Section *> GetSections ( ); /** Set a feature group as active group. If input is NULL, set no feature group active
Created in NX7.5.1.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void SetGroupActive ( bool active /** active */ ); /** Log a diagnostic alert for this feature
Created in NX8.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void LogDiagnostic ( int errorCode /** errorcode */ , const NXString & message /** message */ , NXOpen::Features::Feature::DiagnosticType diagnosticType /** diagnostictype */ ); /** Log a diagnostic alert for this feature
Created in NX8.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ void LogDiagnostic ( int errorCode /** errorcode */ , const char * message /** message */ , NXOpen::Features::Feature::DiagnosticType diagnosticType /** diagnostictype */ ); /**Returns true if the feature is a contained feature. If it is a contained feature, use the property @link NXOpen::Features::Feature::ContainerFeature NXOpen::Features::Feature::ContainerFeature@endlink to get the container feature for this feature.
@deprecated Deprecated in NX9.0.0. Use @link NXOpen::Features::Feature::ContainerFeature NXOpen::Features::Feature::ContainerFeature@endlink and check if it is NULL instead.

Created in NX8.5.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: NX_DEPRECATED("Deprecated in NX9.0.0. Use NXOpen::Features::Feature::ContainerFeature and check if it is NULL instead.") bool IsContainedFeature ( ); /**Returns the container feature for this feature. Will be set to NULL if this feature is not a contained feature.
Created in NX8.5.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: NXOpen::Features::IContainerFeature * ContainerFeature ( ); /** Change Boolean Type
Created in NX9.0.0.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: void ChangeBooleanType ( ); /** The feature color @return
Created in NX9.0.1.

License requirements : None */ public: NXOpen::NXColor * GetFeatureColor ( ); /** Break Wave Link Feature @return
Created in NX11.0.1.

License requirements : solid_modeling ("SOLIDS MODELING") OR cam_base ("CAM BASE") OR geometric_tol ("GDT") OR insp_programming ("INSPECTION PROGRAMMING") */ public: bool BreakWaveLink ( ); }; } } #ifdef _MSC_VER #pragma warning(pop) #endif #ifdef __GNUC__ #ifndef NX_NO_GCC_DEPRECATION_WARNINGS #pragma GCC diagnostic warning "-Wdeprecated-declarations" #endif #endif #undef EXPORTLIBRARY #endif

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