//---------------------------------------------------------------------------
int main(void)
{
Kernel_Init();
Thread_Init( &stMainThread,
aucMainStack,
MAIN_STACK_SIZE,
1,
(ThreadEntry_t)AppMain,
NULL );
Thread_Init( &stIdleThread,
aucIdleStack,
MAIN_STACK_SIZE,
0,
(ThreadEntry_t)IdleMain,
NULL );
Thread_Start( &stMainThread );
Thread_Start( &stIdleThread );
Driver_SetName( (Driver_t*) &stUART, "/dev/tty");
ATMegaUART_Init( &stUART );
DriverList_Add( (Driver_t*)&stUART );
Kernel_Start();
}
//---------------------------------------------------------------------------
int main(void)
{
// See the annotations in lab1.
Kernel_Init();
// In this exercise, we create two threads at the same priority level.
// As a result, the CPU will automatically swap between these threads
// at runtime to ensure that each get a chance to execute.
Thread_Init( &stApp1Thread, awApp1Stack, APP1_STACK_SIZE, 1, App1Main, 0);
Thread_Init( &stApp2Thread, awApp2Stack, APP2_STACK_SIZE, 1, App2Main, 0);
// Set the threads up so that Thread 1 can get 4ms of CPU time uninterrupted,
// but Thread 2 can get 8ms of CPU time uninterrupted. This means that
// in an ideal situation, Thread 2 will get to do twice as much work as
// Thread 1 - even though they share the same scheduling priority.
// Note that if SetQuantum() isn't called on a thread, a default value
// is set such that each thread gets equal timeslicing in the same
// priority group by default. You can play around with these values and
// observe how it affects the execution of both threads.
Thread_SetQuantum( &stApp1Thread, 4 );
Thread_SetQuantum( &stApp2Thread, 8 );
Thread_Start( &stApp1Thread );
Thread_Start( &stApp2Thread );
Kernel_Start();
return 0;
}
LVAL Native_Init()
{
LVAL pXReturn;
int iPort;
TVeosErr iErr;
xlsave1(pXReturn);
if (!moreargs())
iPort = TALK_BOGUS_FD;
else
iPort = getfixnum(xlgafixnum());
xllastarg();
/** invoke veos kernel inialization **/
iErr = Kernel_Init(iPort, Native_MessageToLSpace);
if (iErr == VEOS_SUCCESS) {
/** create a lisp based inspace for messages **/
s_InSpace = xlenter("VEOS_INSPACE");
setvalue(s_InSpace, NIL);
NATIVE_INSPACE = &getvalue(s_InSpace);
/** create keyword symbols for nancy prims **/
k_TestTime = xlenter(":TEST-TIME"); /* use with copy only */
k_Freq = xlenter(":FREQ"); /* use with copy, put or get */
/** setup invariant matcher settings in global param blocks **/
Native_InitMatcherPBs();
/** make a uid return value to signify success **/
Uid2XVect(&IDENT_ADDR, &pXReturn);
}
xlpop();
return(pXReturn);
} /* Native_Init */
//---------------------------------------------------------------------------
int main(void)
{
// See the annotations in previous labs for details on init.
Kernel_Init();
Thread_Init( &stApp1Thread, awApp1Stack, APP1_STACK_SIZE, 1, App1Main, 0);
Thread_Init( &stApp2Thread, awApp2Stack, APP2_STACK_SIZE, 1, App2Main, 0);
Thread_Start( &stApp1Thread );
Thread_Start( &stApp2Thread );
EventFlag_Init( &stFlags );
Kernel_Start();
return 0;
}
//---------------------------------------------------------------------------
int main(void)
{
// See the annotations in previous labs for details on init.
Kernel_Init();
Thread_Init( &stApp1Thread, awApp1Stack, APP1_STACK_SIZE, 1, App1Main, 0);
Thread_Init( &stApp2Thread, awApp2Stack, APP2_STACK_SIZE, 1, App2Main, 0);
Thread_Start( &stApp1Thread );
Thread_Start( &stApp2Thread );
// Initialize the mutex used in this example.
Mutex_Init( &stMyMutex );
Kernel_Start();
return 0;
}
