文档介绍：#include<>
#include<>
#include<>
#include<string>
#include<>
//定义某些常量；
//本程序容许的最 inFile>> Thread_Info[n_Thread].thread_request[Thread_Info[n_Thread].n_request++];
(c);
}
n_Thread++;
}
//回显获得的线程信息，便于确认对的性；
for(j=0;j<(int) n_Thread;j++){
int Temp_serial = Thread_Info[j].serial;
char Temp_entity = Thread_Info[j].entity;
double Temp_delay = Thread_Info[j].delay;
printf(" \n thread%2d %c %f ",Temp_serial,Temp_entity,Temp_delay);
int Temp_request = Thread_Info[j].n_request;
for(int k=0;k<Temp_request;k++)
printf(" %d ", Thread_Info[j].thread_request[k]);
cout<<endl;
}
printf("\n\n");
//创立在模拟过程中几种必要的信号量
empty_semaphore=CreateSemaphore(NULL,n_Buffer_or_Critical,n_Buffer_or_Critical,
"semaphore_for_empty");
h_mutex = CreateMutex(NULL,FALSE,"mutex_for_update");
//下面这个循环用线程的ID号来为相应生产线程的产品读写时所
//使用的同步信号量命名；
for(j=0;j<(int)n_Thread;j++){
std::string lp ="semaphore_for_produce_";
int temp =j;
while(temp){
char c = (char)(temp%10);
lp+=c;
temp/=10;
}
h_Semaphore[j+1]=CreateSemaphore(NULL,0,n_Thread,());
}
//创立生产者和消费者线程；
for(i =0;i< (int) n_Thread;i++){
if(Thread_Info[i].entity =='P')
h_Thread[i]= CreateThread(NULL,0,(LPTHREAD_START_ROUTINE)(Produce),
&(Thread_Info[i]),0,NULL);