kong time

UINT64 GetCaptureTime(UINT32 dataIndex, UINT32 uProtocolIndex, ...)
{
	CDataHead* pHeader = GetDataHeaderPoint(dataIndex, uProtocolIndex);
	if(pHeader == NULL){return (UINT64)-1;};
	timeval ts = pHeader->ts;

	if (!pBusiness->IsNetworkOrder())
	{
		ts.tv_sec = htonl(ts.tv_sec);
		ts.tv_usec = htonl(ts.tv_usec);
	}
	if (pBusiness->IsNaSecond())
	{
		ts.tv_usec = ts.tv_usec/1000;
	}
	if (pBusiness->IsNextGenFormat())
	{
		time_t tTime = (time_t)ts.tv_sec*4294967296 + ts.tv_usec;
		ts.tv_sec = (long)(tTime/1000000);
		ts.tv_usec = (long)(tTime%1000000);
	}
	return *(UINT64*)&(ts);
}
UINT64 uStartTime = GetCaptureTime(1,1);
	timeval startTime = *(timeval*)&uStartTime;

GetFileTimeInfo(*(time_t*)&startTime & 0xffffffff, *(time_t*)&endTime & 0xffffffff, genData);

void GetFileTimeInfo(time_t startTime, time_t endTime, GeneralData* genData )
{
	// 时间转化为字串符
	struct tm *  pTUC = localtime((time_t *)&(startTime));
	strftime(genData->StartDate,64,"%Y-%m-%d",pTUC);
	strftime(genData->StartTime, 64, "%H:%M:%S",pTUC);
}


#include <REGX52.H> unsigned int count = 0; // 定时器溢出次数计数器 unsigned char display_num = 0; sbit w1 = P2^0; // 数码管位控 sbit w2 = P2^1; sbit w3 = P2^2; sbit w4 = P2^3; sbit w5 = P2^4; sbit w6 = P2^5; sbit w7 = P2^6; sbit w8 = P2^7; sbit w9 = P3^0; sbit w10 = P3^1; sbit w11 = P3^2; sbit w12 = P3^3; // 共阳数码管段码表 unsigned char leddata[] = {0x83,0xc0, 0xf9, 0xa4, 0xb0, 0x99, 0x82}; void time_delay(unsigned int xms) { unsigned char a, b; while(xms--) { a = 2; b = 239; do { while (--b); } while (--a); } } // 定时器0初始化函数,用于数码管倒计时 void Timer0_Init() { TMOD &= 0xF0; // 清除定时器0模式位 TMOD |= 0x01; // 定时器0工作在模式1 TH0 = 0xFC; // 定时器0初值,定时1ms TL0 = 0x18; ET0 = 1; // 使能定时器0中断 EA = 1; // 使能总中断 TR0 = 0; // 初始时不启动定时器,等待按键触发 } // 定时器0中断服务函数,用于数码管倒计时 void Timer0_ISR() interrupt 1 { TH0 = 0xFC; // 重新加载初值 TL0 = 0x18; count++; // 溢出次数加1 if (count >= 1000) { // 1000次溢出即1秒 count = 0; // 计数器清零 } } void delay(unsigned int k) { while(k--); } //void Display() //{ // //} void main() { Timer0_Init(); // 初始化定时器0,用于数码管倒计时 while(1) { P2 = 0x00; P3 = 0x08;P0 = leddata[0];delay(500);P0 = 0xff; //出b P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff; //kong time_delay(500); P2 = 0x00; P3 = 0x04;P0 = leddata[0];delay(500);P0 = 0xff; //出b2 P3 = 0x08;P0 = leddata[3];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff; //kong time_delay(500); P2 = 0x00; P3 = 0x02;P0 = leddata[0];delay(500);P0 = 0xff; //出b20 P3 = 0x04;P0 = leddata[3];delay(500);P0 = 0xff; P3 = 0x08;P0 = leddata[1];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff; //kong time_delay(500); P2 = 0x00; P3 = 0x01;P0 = leddata[0];delay(500);P0 = 0xff; //出b202 P3 = 0x02;P0 = leddata[3];delay(500);P0 = 0xff; P3 = 0x04;P0 = leddata[1];delay(500);P0 = 0xff; P3 = 0x08;P0 = leddata[3];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff; //kong time_delay(500); P2 = 0x80;P0 = leddata[0];delay(500);P0 = 0xff;//出b2023 P2 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff;//kong P3 = 0x01;P0 = leddata[3];delay(500);P0 = 0xff; P3 = 0x02;P0 = leddata[1];delay(500);P0 = 0xff; P3 = 0x04;P0 = leddata[3];delay(500);P0 = 0xff; P3 = 0x08;P0 = leddata[4];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff; //kong time_delay(500); P2 = 0x40;P0 = leddata[0];delay(500);P0 = 0xff;//出b20230 P2 = 0x80;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff;//kong P3 = 0x01;P0 = leddata[1];delay(500);P0 = 0xff; P3 = 0x02;P0 = leddata[3];delay(500);P0 = 0xff; P3 = 0x04;P0 = leddata[4];delay(500);P0 = 0xff; P3 = 0x08;P0 = leddata[1];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff; //kong time_delay(500); P2 = 0x20;P0 = leddata[0];delay(500);P0 = 0xff;//出b202302 P2 = 0x40;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x80;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff;//kong P3 = 0x01;P0 = leddata[3];delay(500);P0 = 0xff; P3 = 0x02;P0 = leddata[4];delay(500);P0 = 0xff; P3 = 0x04;P0 = leddata[1];delay(500);P0 = 0xff; P3 = 0x08;P0 = leddata[3];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff; //kong time_delay(500); P2 = 0x10;P0 = leddata[0];delay(500);P0 = 0xff;//出b2023020 P2 = 0x20;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x40;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x80;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff;//kong P3 = 0x01;P0 = leddata[4];delay(500);P0 = 0xff; P3 = 0x02;P0 = leddata[1];delay(500);P0 = 0xff; P3 = 0x04;P0 = leddata[3];delay(500);P0 = 0xff; P3 = 0x08;P0 = leddata[1];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff; //kong time_delay(500); P2 = 0x08;P0 = leddata[0];delay(500);P0 = 0xff;//出b20230204 P2 = 0x10;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x20;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x40;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x80;P0 = leddata[4];delay(500);P0 = 0xff; P2 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff;//kong P3 = 0x01;P0 = leddata[1];delay(500);P0 = 0xff; P3 = 0x02;P0 = leddata[3];delay(500);P0 = 0xff; P3 = 0x04;P0 = leddata[1];delay(500);P0 = 0xff; P3 = 0x08;P0 = leddata[5];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff; //kong time_delay(500); P2 = 0x04;P0 = leddata[0];delay(500);P0 = 0xff;//出b202302041 P2 = 0x08;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x10;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x20;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x40;P0 = leddata[4];delay(500);P0 = 0xff; P2 = 0x80;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff;//kong P3 = 0x01;P0 = leddata[3];delay(500);P0 = 0xff; P3 = 0x02;P0 = leddata[1];delay(500);P0 = 0xff; P3 = 0x04;P0 = leddata[5];delay(500);P0 = 0xff; P3 = 0x08;P0 = leddata[2];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff; //kong time_delay(500); P2 = 0x02;P0 = leddata[0];delay(500);P0 = 0xff;//出b2023020413 P2 = 0x04;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x08;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x10;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x20;P0 = leddata[4];delay(500);P0 = 0xff; P2 = 0x40;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x80;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff;//kong P3 = 0x01;P0 = leddata[1];delay(500);P0 = 0xff; P3 = 0x02;P0 = leddata[5];delay(500);P0 = 0xff; P3 = 0x04;P0 = leddata[2];delay(500);P0 = 0xff; P3 = 0x08;P0 = leddata[4];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff; //kong time_delay(500); P2 = 0x01;P0 = leddata[0];delay(500);P0 = 0xff;//出b20230204136 P2 = 0x02;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x04;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x08;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x10;P0 = leddata[4];delay(500);P0 = 0xff; P2 = 0x20;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x40;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x80;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff;//kong P3 = 0x01;P0 = leddata[5];delay(500);P0 = 0xff; P3 = 0x02;P0 = leddata[2];delay(500);P0 = 0xff; P3 = 0x04;P0 = leddata[4];delay(500);P0 = 0xff; P3 = 0x08;P0 = leddata[6];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff; //kong time_delay(500); P2 = 0x01;P0 = leddata[0];delay(500);P0 = 0xff;//出b20230204136 P2 = 0x02;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x04;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x08;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x10;P0 = leddata[4];delay(500);P0 = 0xff; P2 = 0x20;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x40;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x80;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff;//kong P3 = 0x01;P0 = leddata[5];delay(500);P0 = 0xff; P3 = 0x02;P0 = leddata[2];delay(500);P0 = 0xff; P3 = 0x04;P0 = leddata[4];delay(500);P0 = 0xff; P3 = 0x08;P0 = leddata[6];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff;//kong } } 帮我把while里面的代码用switch和case进行改写,最后 把前面的代码运行完后一直运行下面这段代码P2 = 0x01;P0 = leddata[0];delay(500);P0 = 0xff;//出b20230204136 P2 = 0x02;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x04;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x08;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x10;P0 = leddata[4];delay(500);P0 = 0xff; P2 = 0x20;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x40;P0 = leddata[3];delay(500);P0 = 0xff; P2 = 0x80;P0 = leddata[1];delay(500);P0 = 0xff; P2 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff;//kong P3 = 0x01;P0 = leddata[5];delay(500);P0 = 0xff; P3 = 0x02;P0 = leddata[2];delay(500);P0 = 0xff; P3 = 0x04;P0 = leddata[4];delay(500);P0 = 0xff; P3 = 0x08;P0 = leddata[6];delay(500);P0 = 0xff; P3 = 0x00;P0 = leddata[0];delay(500);P0 = 0xff;//kong
10-23
MATLAB主动噪声和振动控制算法——对较大的次级路径变化具有鲁棒性内容概要:本文主要介绍了一种在MATLAB环境下实现的主动噪声和振动控制算法,该算法针对较大的次级路径变化具有较强的鲁棒性。文中详细阐述了算法的设计原理与实现方法,重点解决了传统控制系统中因次级路径动态变化导致性能下降的问题。通过引入自适应机制和鲁棒控制策略,提升了系统在复杂环境下的稳定性和控制精度,适用于需要高精度噪声与振动抑制的实际工程场景。此外,文档还列举了多个MATLAB仿真实例及相关科研技术服务内容,涵盖信号处理、智能优化、机器学习等多个交叉领域。; 适合人群:具备一定MATLAB编程基础和控制系统理论知识的科研人员及工程技术人员,尤其适合从事噪声与振动控制、信号处理、自动化等相关领域的研究生和工程师。; 使用场景及目标:①应用于汽车、航空航天、精密仪器等对噪声和振动敏感的工业领域;②用于提升现有主动控制系统对参数变化的适应能力;③为相关科研项目提供算法验证与仿真平台支持; 阅读建议:建议读者结合提供的MATLAB代码进行仿真实验,深入理解算法在不同次级路径条件下的响应特性,并可通过调整控制参数进一步探究其鲁棒性边界。同时可参考文档中列出的相关技术案例拓展应用场景。
评论
成就一亿技术人!
拼手气红包6.0元
还能输入1000个字符  | 博主筛选后可见
 
红包 添加红包
表情包 插入表情
 条评论被折叠 查看
添加红包

请填写红包祝福语或标题

红包个数最小为10个

红包金额最低5元

当前余额3.43前往充值 >
需支付:10.00
成就一亿技术人!
领取后你会自动成为博主和红包主的粉丝 规则
hope_wisdom
发出的红包

打赏作者

IT_NEU_2009

你的鼓励将是我创作的最大动力

¥1 ¥2 ¥4 ¥6 ¥10 ¥20
扫码支付:¥1
获取中
扫码支付

您的余额不足,请更换扫码支付或充值

打赏作者

实付
使用余额支付
点击重新获取
扫码支付
钱包余额 0

抵扣说明:

1.余额是钱包充值的虚拟货币,按照1:1的比例进行支付金额的抵扣。
2.余额无法直接购买下载,可以购买VIP、付费专栏及课程。

余额充值