28335 ePWM模块 中心移相与边沿移相代码

2024-04-26 04:28
文章标签 代码 模块 中心 边沿 28335 epwm 移相 相与

本文主要是介绍28335 ePWM模块 中心移相与边沿移相代码，希望对大家解决编程问题提供一定的参考价值，需要的开发者们随着小编来一起学习吧！

中心移相

最常见的中心移相示意图如下：

可以看到其中的PWM1作为主相，其余PWM2和PWM3都作为其的辅相。中心移相，顾名思义，就是移动相位参考高电平的中心，当占空比D=0.5时，其移相与我们认为的上升沿移相一致，也就是最常见的移相。

为方便理解，先给相关设置的结构体设置：

typedef struct {volatile struct EPWM_REGS* ePWMx;Uint32 Fs;double D;Uint32 td;
} ePWM_Master_Set_Struct;typedef struct {volatile struct EPWM_REGS* ePWMx;double D;double Phase;Uint32 td;
} ePWM_Slave_Set_Struct;

其中 ePWM_Master_Set_Struct 是主相设置函数，而 ePWM_Slave_Set_Struct 辅相设置函数。

这是初始化ePWM初始化设置具体实现函数及其定义

void ePWM_Master_Set_Flush(ePWM_Master_Set_Struct* pwm);//中心对齐移相 主要
void ePWM_Slave_Set_Flush(ePWM_Master_Set_Struct* master_pwm,ePWM_Slave_Set_Struct* slave_pwm);//中心对齐移相 次要
void ePWM_Master_Set_Flush(ePWM_Master_Set_Struct* pwm)
{EALLOW;// Initialization Time(TB)pwm->ePWMx->TBPRD=75e6/pwm->Fs;pwm->ePWMx->TBPHS.half.TBPHS = 0; //不进行移相pwm->ePWMx->TBCTR=0; //计数器清零pwm->ePWMx->TBCTL.bit.CTRMODE = TB_COUNT_UPDOWN; //上计数模式pwm->ePWMx->TBCTL.bit.PHSEN = TB_DISABLE; //主机模式pwm->ePWMx->TBCTL.bit.PRDLD = TB_SHADOW;pwm->ePWMx->TBCTL.bit.SYNCOSEL = TB_CTR_ZERO; //减到0时发出同步信号pwm->ePWMx->TBCTL.bit.HSPCLKDIV = TB_DIV1; // TBCLK = SYSCLKOUTpwm->ePWMx->TBCTL.bit.CLKDIV = TB_DIV1;pwm->ePWMx->CMPCTL.bit.SHDWAMODE = CC_SHADOW;pwm->ePWMx->CMPCTL.bit.SHDWBMODE = CC_SHADOW;pwm->ePWMx->CMPCTL.bit.LOADAMODE = CC_CTR_ZERO; // load on CTR = Zeropwm->ePWMx->CMPCTL.bit.LOADBMODE = CC_CTR_ZERO; // load on CTR = Zeropwm->ePWMx->AQCTLA.bit.CAD = AQ_SET;  //计数比CA低时PWMA输出高pwm->ePWMx->AQCTLA.bit.CAU = AQ_CLEAR;  //比CA高时PWMA输出低pwm->ePWMx->AQCTLB.bit.CAD = AQ_CLEAR; //计数比CA低时PWMB输出低pwm->ePWMx->AQCTLB.bit.CAU = AQ_SET; //计数比CA高时PWMB输出高pwm->ePWMx->CMPA.half.CMPA = pwm->ePWMx->TBPRD *pwm->D;       // Set compare A value// Initialization Dead-Band(DB)pwm->ePWMx->DBCTL.bit.OUT_MODE=DB_FULL_ENABLE; //上升沿和下降沿都开启延迟pwm->ePWMx->DBCTL.bit.IN_MODE=DBA_ALL; //A作为源信号pwm->ePWMx->DBCTL.bit.POLSEL=DB_ACTV_HIC;//PWMA、B互补相反pwm->ePWMx->DBRED=pwm->td;//死区设置pwm->ePWMx->DBFED=pwm->td;// Initialization Trip-Zone(TZ)pwm->ePWMx->TZCTL.bit.TZA=2;    //PWM-A\B均输出低电平pwm->ePWMx->TZCTL.bit.TZB=2;pwm->ePWMx->TZCLR.bit.OST=1;    //清空OST标志位EDIS;
}void ePWM_Slave_Set_Flush(ePWM_Master_Set_Struct* master_pwm,ePWM_Slave_Set_Struct* slave_pwm)
{EALLOW;// Initialization Time(TB)slave_pwm->ePWMx->TBPRD=75e6/master_pwm->Fs;slave_pwm->ePWMx->TBPHS.half.TBPHS = fabs(slave_pwm->Phase)/180*slave_pwm->ePWMx->TBPRD; //设置移相角度,相对于主pwm提前角度slave_pwm->ePWMx->TBCTL.bit.CTRMODE = TB_COUNT_UPDOWN;slave_pwm->ePWMx->TBCTL.bit.PHSEN = TB_ENABLE;if(slave_pwm->Phase>=0)slave_pwm->ePWMx->TBCTL.bit.PHSDIR = TB_UP;elseslave_pwm->ePWMx->TBCTL.bit.PHSDIR = TB_DOWN;slave_pwm->ePWMx->TBCTL.bit.PRDLD = TB_SHADOW;slave_pwm->ePWMx->TBCTL.bit.SYNCOSEL = TB_SYNC_IN;slave_pwm->ePWMx->TBCTL.bit.HSPCLKDIV = TB_DIV1; // TBCLK = SYSCLKOUTslave_pwm->ePWMx->TBCTL.bit.CLKDIV = TB_DIV1;slave_pwm->ePWMx->CMPCTL.bit.SHDWAMODE = CC_SHADOW;slave_pwm->ePWMx->CMPCTL.bit.SHDWBMODE = CC_SHADOW;slave_pwm->ePWMx->CMPCTL.bit.LOADAMODE = CC_CTR_ZERO;slave_pwm->ePWMx->CMPCTL.bit.LOADBMODE = CC_CTR_ZERO;slave_pwm->ePWMx->AQCTLA.bit.CAD = AQ_SET;  //计数比CA低时PWMA输出高slave_pwm->ePWMx->AQCTLA.bit.CAU = AQ_CLEAR;  //比CA高时PWMA输出低slave_pwm->ePWMx->AQCTLB.bit.CAD = AQ_CLEAR; //计数比CA低时PWMB输出低slave_pwm->ePWMx->AQCTLB.bit.CAU = AQ_SET; //计数比CA高时PWMB输出高slave_pwm->ePWMx->CMPA.half.CMPA = slave_pwm->ePWMx->TBPRD *slave_pwm->D;       // Set compare A value// Initialization Dead-Band(DB)slave_pwm->ePWMx->DBCTL.bit.OUT_MODE=DB_FULL_ENABLE; //上升沿和下降沿都开启延迟slave_pwm->ePWMx->DBCTL.bit.IN_MODE=DBA_ALL; //A作为源信号slave_pwm->ePWMx->DBCTL.bit.POLSEL=DB_ACTV_HIC;//PWMA、B互补相反slave_pwm->ePWMx->DBRED=slave_pwm->td;//死区设置slave_pwm->ePWMx->DBFED=slave_pwm->td;// Initialization Trip-Zone(TZ)slave_pwm->ePWMx->TZCTL.bit.TZA=2;    //PWM-A\B均输出低电平slave_pwm->ePWMx->TZCTL.bit.TZB=2;slave_pwm->ePWMx->TZCLR.bit.OST=1;    //清空OST标志位EDIS;
}

在程序运行中，进行调频、调宽、移相等操作就需要以下函数

void ePWM_Master_Set(ePWM_Master_Set_Struct* master_pwm);//中心对齐移相 主要
void ePWM_Slave_Set(ePWM_Slave_Set_Struct* slave_pwm,ePWM_Master_Set_Struct* master_pwm);//中心对齐移相 次要
void ePWM_Slave_Set(ePWM_Slave_Set_Struct* slave_pwm,ePWM_Master_Set_Struct* master_pwm)
{if(slave_pwm->Phase>=0)slave_pwm->ePWMx->TBCTL.bit.PHSDIR = TB_UP;elseslave_pwm->ePWMx->TBCTL.bit.PHSDIR = TB_DOWN;slave_pwm->ePWMx->TBPRD=75e6/master_pwm->Fs;slave_pwm->ePWMx->TBPHS.half.TBPHS = fabs(slave_pwm->Phase)/180*slave_pwm->ePWMx->TBPRD;slave_pwm->ePWMx->CMPA.half.CMPA = slave_pwm->ePWMx->TBPRD *slave_pwm->D;
}void ePWM_Master_Set(ePWM_Master_Set_Struct* master_pwm)
{master_pwm->ePWMx->TBPRD=75e6/master_pwm->Fs;master_pwm->ePWMx->CMPA.half.CMPA = master_pwm->ePWMx->TBPRD *master_pwm->D;
}

这里给个demo，实现上面3个pwm的初始化程序如下：

void Init_ePWM()
{InitEPwm1Gpio();    //初始化 A0-EPWM1A  A1-EPWM1BInitEPwm2Gpio();    //初始化 A2-EPWM2A  A3-EPWM2BInitEPwm3Gpio();    //初始化 A4-EPWM3A  A5-EPWM3Bpwm1.ePWMx=&EPwm1Regs;pwm1.Fs=50e3; //50khzpwm1.D=0.25.; //0.25占空比pwm1.td=50; //0.5us 死区时间ePWM_Master_Set_Flush(&pwm1); //pwm1作为主pwm 初始化pwm2.ePWMx=&EPwm2Regs;pwm2.D=0.4; //0.4占空比pwm2.Phase=0; //不移相pwm2.td=50;ePWM_Slave_Set_Flush(&pwm1,&pwm2); //pwm2以pwm1作为主pwmpwm3.ePWMx=&EPwm3Regs;pwm3.D=0.4; //0.4占空比pwm3.Phase=-0.3*360; //滞后108°，这个参数范围为 -180°~+180°pwm3.td=50;ePWM_Slave1_Set_Flush(&pwm1,&pwm3); //pwm3以pwm1作为主pwmEALLOW;SysCtrlRegs.PCLKCR0.bit.TBCLKSYNC = 1;         // Start all the timers syncedEDIS;
}

边沿移相

边沿移相示意图如下：

结构体和上面中心移相一致，实现代码如下：

void ePWM_Master1_Set_Flush(ePWM_Master_Set_Struct* pwm);//上升沿对齐移相 主要 D<=0.5
void ePWM_Slave1_Set_Flush(ePWM_Master_Set_Struct* master_pwm,ePWM_Slave_Set_Struct* slave_pwm);//上升沿对齐移相 次要 D<=0.5
void ePWM_Master1_Set_Flush(ePWM_Master_Set_Struct* pwm)
{EALLOW;// Initialization Time(TB)pwm->ePWMx->TBPRD=75e6/pwm->Fs;pwm->ePWMx->TBPHS.half.TBPHS = 0; //不进行移相pwm->ePWMx->TBCTR=0; //计数器清零pwm->ePWMx->TBCTL.bit.CTRMODE = TB_COUNT_UPDOWN; //上下计数模式pwm->ePWMx->TBCTL.bit.PHSEN = TB_DISABLE; //主机模式pwm->ePWMx->TBCTL.bit.PRDLD = TB_SHADOW;pwm->ePWMx->TBCTL.bit.SYNCOSEL = TB_CTR_ZERO; //减到0时发出同步信号pwm->ePWMx->TBCTL.bit.HSPCLKDIV = TB_DIV1; // TBCLK = SYSCLKOUTpwm->ePWMx->TBCTL.bit.CLKDIV = TB_DIV1;pwm->ePWMx->CMPCTL.bit.SHDWAMODE = CC_SHADOW;pwm->ePWMx->CMPCTL.bit.SHDWBMODE = CC_SHADOW;pwm->ePWMx->CMPCTL.bit.LOADAMODE = CC_CTR_ZERO; // load on CTR = Zeropwm->ePWMx->CMPCTL.bit.LOADBMODE = CC_CTR_ZERO; // load on CTR = Zeropwm->ePWMx->AQCTLA.bit.ZRO = AQ_SET;  //计数0时PWMA输出高pwm->ePWMx->AQCTLA.bit.CAU = AQ_CLEAR;  //比CA高时PWMA输出低pwm->ePWMx->AQCTLB.bit.PRD = AQ_CLEAR; //计数PRD时输出高pwm->ePWMx->AQCTLB.bit.CBD = AQ_SET; //计数比CB低时PWMB输出低pwm->ePWMx->CMPA.half.CMPA = pwm->ePWMx->TBPRD *pwm->D*2;       // Set compare A valuepwm->ePWMx->CMPB = pwm->ePWMx->TBPRD *(1-pwm->D*2)+1;       // Set compare B value// Initialization Dead-Band(DB)pwm->ePWMx->DBCTL.bit.OUT_MODE=DB_FULL_ENABLE; //A\B均开启死区pwm->ePWMx->DBCTL.bit.IN_MODE=DBA_RED_DBB_FED; //A上升沿，B下降沿源信号pwm->ePWMx->DBCTL.bit.POLSEL=DB_ACTV_HIC;//PWMA、B互补相反pwm->ePWMx->DBRED=pwm->td;//死区设置pwm->ePWMx->DBFED=pwm->td;// Initialization Trip-Zone(TZ)pwm->ePWMx->TZCTL.bit.TZA=2;    //PWM-A\B均输出低电平pwm->ePWMx->TZCTL.bit.TZB=2;pwm->ePWMx->TZCLR.bit.OST=1;    //清空OST标志位EDIS;
}void ePWM_Slave1_Set_Flush(ePWM_Master_Set_Struct* master_pwm,ePWM_Slave_Set_Struct* slave_pwm)
{EALLOW;// Initialization Time(TB)slave_pwm->ePWMx->TBPRD=75e6/master_pwm->Fs;slave_pwm->ePWMx->TBPHS.half.TBPHS = fabs(slave_pwm->Phase)/180*slave_pwm->ePWMx->TBPRD; //设置移相角度,相对于主pwm提前角度slave_pwm->ePWMx->TBCTL.bit.CTRMODE = TB_COUNT_UPDOWN;slave_pwm->ePWMx->TBCTL.bit.PHSEN = TB_ENABLE;if(slave_pwm->Phase>=0)slave_pwm->ePWMx->TBCTL.bit.PHSDIR = TB_UP;elseslave_pwm->ePWMx->TBCTL.bit.PHSDIR = TB_DOWN;slave_pwm->ePWMx->TBCTL.bit.PRDLD = TB_SHADOW;slave_pwm->ePWMx->TBCTL.bit.SYNCOSEL = TB_SYNC_IN;slave_pwm->ePWMx->TBCTL.bit.HSPCLKDIV = TB_DIV1; // TBCLK = SYSCLKOUTslave_pwm->ePWMx->TBCTL.bit.CLKDIV = TB_DIV1;slave_pwm->ePWMx->CMPCTL.bit.SHDWAMODE = CC_SHADOW;slave_pwm->ePWMx->CMPCTL.bit.SHDWBMODE = CC_SHADOW;slave_pwm->ePWMx->CMPCTL.bit.LOADAMODE = CC_CTR_ZERO;slave_pwm->ePWMx->CMPCTL.bit.LOADBMODE = CC_CTR_ZERO;slave_pwm->ePWMx->AQCTLA.bit.ZRO = AQ_SET;  //计数0时PWMA输出高slave_pwm->ePWMx->AQCTLA.bit.CAU = AQ_CLEAR;  //比CA高时PWMA输出低slave_pwm->ePWMx->AQCTLB.bit.PRD = AQ_CLEAR; //计数PRD时输出高slave_pwm->ePWMx->AQCTLB.bit.CBD = AQ_SET; //计数比CB低时PWMB输出低slave_pwm->ePWMx->CMPA.half.CMPA = slave_pwm->ePWMx->TBPRD *slave_pwm->D*2;       // Set compare A valueslave_pwm->ePWMx->CMPB = slave_pwm->ePWMx->TBPRD *(1-slave_pwm->D*2)+1;       // Set compare B value// Initialization Dead-Band(DB)slave_pwm->ePWMx->DBCTL.bit.OUT_MODE=DB_FULL_ENABLE; //A\B均开启死区slave_pwm->ePWMx->DBCTL.bit.IN_MODE=DBA_RED_DBB_FED; //A上升沿，B下降沿源信号slave_pwm->ePWMx->DBCTL.bit.POLSEL=DB_ACTV_HIC;//PWMA、B互补相反slave_pwm->ePWMx->DBRED=slave_pwm->td;//死区设置slave_pwm->ePWMx->DBFED=slave_pwm->td;// Initialization Trip-Zone(TZ)slave_pwm->ePWMx->TZCTL.bit.TZA=2;    //PWM-A\B均输出低电平slave_pwm->ePWMx->TZCTL.bit.TZB=2;slave_pwm->ePWMx->TZCLR.bit.OST=1;    //清空OST标志位EDIS;
}

同样类似的，也有程序运行中调频、调宽、调相的设置程序如下：

void ePWM_Master1_Set(ePWM_Master_Set_Struct* master_pwm);//上升沿对齐移相 主要 D<=0.5
void ePWM_Slave1_Set(ePWM_Slave_Set_Struct* slave_pwm,ePWM_Master_Set_Struct* master_pwm);//上升沿对齐移相 次要 D<=0.5
void ePWM_Slave1_Set(ePWM_Slave_Set_Struct* slave_pwm,ePWM_Master_Set_Struct* master_pwm)
{if(slave_pwm->Phase>=0)slave_pwm->ePWMx->TBCTL.bit.PHSDIR = TB_UP;elseslave_pwm->ePWMx->TBCTL.bit.PHSDIR = TB_DOWN;slave_pwm->ePWMx->TBPRD=75e6/master_pwm->Fs;slave_pwm->ePWMx->TBPHS.half.TBPHS = fabs(slave_pwm->Phase)/180*slave_pwm->ePWMx->TBPRD;slave_pwm->ePWMx->CMPA.half.CMPA = slave_pwm->ePWMx->TBPRD *slave_pwm->D*2;       // Set compare A valueslave_pwm->ePWMx->CMPB = slave_pwm->ePWMx->TBPRD *(1-slave_pwm->D*2)+1;       // Set compare B value
}void ePWM_Master1_Set(ePWM_Master_Set_Struct* master_pwm)
{master_pwm->ePWMx->TBPRD=75e6/master_pwm->Fs;master_pwm->ePWMx->CMPA.half.CMPA = master_pwm->ePWMx->TBPRD *master_pwm->D*2;       // Set compare A valuemaster_pwm->ePWMx->CMPB = master_pwm->ePWMx->TBPRD *(1-master_pwm->D*2)+1;       // Set compare B value
}

这里给个demo，实现上面3个pwm的初始化程序如下：

void Init_ePWM()
{InitEPwm1Gpio();    //初始化 A0-EPWM1A  A1-EPWM1BInitEPwm2Gpio();    //初始化 A2-EPWM2A  A3-EPWM2BInitEPwm3Gpio();    //初始化 A4-EPWM3A  A5-EPWM3Bpwm1.ePWMx=&EPwm1Regs;pwm1.Fs=50e3; //50kHzpwm1.D=0.5; //50%占空比pwm1.td=50; //0.5us 死区ePWM_Master1_Set_Flush(&pwm1); //pwm1作为主pwmpwm2.ePWMx=&EPwm2Regs;pwm2.D=0.25; //25%占空比pwm2.Phase=0; //不移相pwm2.td=50; //注意这里死区要设置与主相一致，否则上升沿相位无法对齐ePWM_Slave1_Set_Flush(&pwm1,&pwm2); //pwm2以pwm1作为主pwmpwm3.ePWMx=&EPwm3Regs;pwm3.D=0.3; //30%占空比pwm3.Phase=-0.3*180; //滞后108° 范围-180°~+180°pwm3.td=50;ePWM_Slave1_Set_Flush(&pwm1,&pwm3); //pwm3以pwm1作为主pwmEALLOW;SysCtrlRegs.PCLKCR0.bit.TBCLKSYNC = 1;         // Start all the timers syncedEDIS;
}

这篇关于28335 ePWM模块 中心移相与边沿移相代码的文章就介绍到这儿，希望我们推荐的文章对编程师们有所帮助！


http://www.chinasem.cn/article/936708。

相关文章

Python中re模块结合正则表达式的实际应用案例

Python中re模块结合正则表达式的实际应用案例

《Python中re模块结合正则表达式的实际应用案例》Python中的re模块是用于处理正则表达式的强大工具,正则表达式是一种用来匹配字符串的模式,它可以在文本中搜索和匹配特定的字符串模式,这篇文章主... 目录前言re模块常用函数一、查看文本中是否包含 A 或 B 字符串二、替换多个关键词为统一格式三、提
阅读更多...
Java中调用数据库存储过程的示例代码

Java中调用数据库存储过程的示例代码

《Java中调用数据库存储过程的示例代码》本文介绍Java通过JDBC调用数据库存储过程的方法,涵盖参数类型、执行步骤及数据库差异,需注意异常处理与资源管理,以优化性能并实现复杂业务逻辑,感兴趣的朋友... 目录一、存储过程概述二、Java调用存储过程的基本javascript步骤三、Java调用存储过程示
阅读更多...
Visual Studio 2022 编译C++20代码的图文步骤

Visual Studio 2022 编译C++20代码的图文步骤

《VisualStudio2022编译C++20代码的图文步骤》在VisualStudio中启用C++20import功能,需设置语言标准为ISOC++20,开启扫描源查找模块依赖及实验性标... 默认创建Visual Studio桌面控制台项目代码包含C++20的import方法。右键项目的属性：
阅读更多...
MySQL数据库的内嵌函数和联合查询实例代码

MySQL数据库的内嵌函数和联合查询实例代码

《MySQL数据库的内嵌函数和联合查询实例代码》联合查询是一种将多个查询结果组合在一起的方法,通常使用UNION、UNIONALL、INTERSECT和EXCEPT关键字,下面：本文主要介绍MyS... 目录一.数据库的内嵌函数1.1聚合函数COUNT([DISTINCT] expr)SUM([DISTIN
阅读更多...
Java实现自定义table宽高的示例代码

Java实现自定义table宽高的示例代码

《Java实现自定义table宽高的示例代码》在桌面应用、管理系统乃至报表工具中,表格（JTable）作为最常用的数据展示组件,不仅承载对数据的增删改查,还需要配合布局与视觉需求,而JavaSwing... 目录一、项目背景详细介绍二、项目需求详细介绍三、相关技术详细介绍四、实现思路详细介绍五、完整实现代码
阅读更多...
Go语言代码格式化的技巧分享

Go语言代码格式化的技巧分享

《Go语言代码格式化的技巧分享》在Go语言的开发过程中,代码格式化是一个看似细微却至关重要的环节,良好的代码格式化不仅能提升代码的可读性,还能促进团队协作,减少因代码风格差异引发的问题,Go在代码格式... 目录一、Go 语言代码格式化的重要性二、Go 语言代码格式化工具：gofmt 与 go fmt（一）
阅读更多...
HTML5实现的移动端购物车自动结算功能示例代码

HTML5实现的移动端购物车自动结算功能示例代码

《HTML5实现的移动端购物车自动结算功能示例代码》本文介绍HTML5实现移动端购物车自动结算,通过WebStorage、事件监听、DOM操作等技术,确保实时更新与数据同步,优化性能及无障碍性,提升用... 目录1. 移动端购物车自动结算概述2. 数据存储与状态保存机制2.1 浏览器端的数据存储方式2.1.
阅读更多...
基于 HTML5 Canvas 实现图片旋转与下载功能(完整代码展示)

基于 HTML5 Canvas 实现图片旋转与下载功能(完整代码展示)

《基于HTML5Canvas实现图片旋转与下载功能(完整代码展示)》本文将深入剖析一段基于HTML5Canvas的代码，该代码实现了图片的旋转（90度和180度）以及旋转后图片的下载... 目录一、引言二、html 结构分析三、css 样式分析四、JavaScript 功能实现一、引言在 Web 开发中，
阅读更多...
Python如何去除图片干扰代码示例

Python如何去除图片干扰代码示例

《Python如何去除图片干扰代码示例》图片降噪是一个广泛应用于图像处理的技术,可以提高图像质量和相关应用的效果,：本文主要介绍Python如何去除图片干扰的相关资料,文中通过代码介绍的非常详细,... 目录一、噪声去除1. 高斯噪声（像素值正态分布扰动）2. 椒盐噪声（随机黑白像素点）3. 复杂噪声（如伪
阅读更多...
Java Spring ApplicationEvent 代码示例解析

Java Spring ApplicationEvent 代码示例解析

《JavaSpringApplicationEvent代码示例解析》本文解析了Spring事件机制,涵盖核心概念（发布-订阅/观察者模式）、代码实现（事件定义、发布、监听）及高级应用（异步处理、... 目录一、Spring 事件机制核心概念1. 事件驱动架构模型2. 核心组件二、代码示例解析1. 事件定义
阅读更多...

Copyright China编程 23002807@qq.com

沪ICP备2023033072号-2