void initCpuInfo(struct SensorModul *sm)
{
CpuInfoSM = sm;
if(updateCpuInfo() < 0)
return;
processCpuInfo();
}
void initCpuInfo(struct SensorModul *sm)
{
/* Total CPU load */
registerMonitor("cpu/user", "integer", printCPUUser, printCPUUserInfo, sm);
registerMonitor("cpu/nice", "integer", printCPUNice, printCPUNiceInfo, sm);
registerMonitor("cpu/sys", "integer", printCPUSys, printCPUSysInfo, sm);
registerMonitor("cpu/idle", "integer", printCPUIdle, printCPUIdleInfo, sm);
registerMonitor("cpu/interrupt", "integer", printCPUInterrupt, printCPUInterruptInfo, sm);
updateCpuInfo();
}
void initCpuInfo(struct SensorModul *sm)
{
/* Total CPU load */
registerMonitor("cpu/user", "integer", printCPUUser, printCPUUserInfo, sm);
registerMonitor("cpu/nice", "integer", printCPUNice, printCPUNiceInfo, sm);
registerMonitor("cpu/sys", "integer", printCPUSys, printCPUSysInfo, sm);
registerMonitor("cpu/idle", "integer", printCPUIdle, printCPUIdleInfo, sm);
kd = kvm_open(NULL, NULL, NULL, O_RDONLY, "kvm_open");
kvm_nlist(kd, my_nlist);
cp_time_offset = my_nlist[0].n_value;
updateCpuInfo();
}
void
initCpuInfo(struct SensorModul* sm)
{
size_t len;
int id;
char name[SYSCTL_ID_LEN];
int minfreq, maxfreq;
len = sizeof(cpus);
/* XXX: this is a guess */
sysctlbyname("kern.smp.active", &cpus, &len, NULL, 0);
/* NOTE: cpus may be 0, which implies 1 */
cpus = cpus ? cpus : 1;
len = sizeof(cores);
sysctlbyname("kern.smp.cpus", &cores, &len, NULL, 0);
len = sizeof(maxcpus);
sysctlbyname("kern.smp.maxcpus", &maxcpus, &len, NULL, 0);
/* Core/process count */
registerMonitor("system/processors", "integer", printNumCpus, printNumCpusInfo, sm);
registerMonitor("system/cores", "integer", printNumCores, printNumCoresInfo, sm);
/*
* CPU Loads
*/
if ((cp_time = malloc(sizeof(long) * CPUSTATES * (cores * 4 + 1))) == NULL) {
log_error("out of memory for cp_time");
return;
}
cp_old = &cp_time[cores];
cp_diff = &cp_old[cores];
cpu_states = &cp_diff[cores];
/* Total CPU load */
registerMonitor("cpu/system/user", "float", printCPUUser, printCPUUserInfo, sm);
registerMonitor("cpu/system/nice", "float", printCPUNice, printCPUNiceInfo, sm);
registerMonitor("cpu/system/sys", "float", printCPUSys, printCPUSysInfo, sm);
registerMonitor("cpu/system/TotalLoad", "float", printCPUTotalLoad, printCPUTotalLoadInfo, sm);
registerMonitor("cpu/system/intr", "float", printCPUIntr, printCPUIntrInfo, sm);
registerMonitor("cpu/system/idle", "float", printCPUIdle, printCPUIdleInfo, sm);
/* Monitor names changed from kde3 => kde4. Remain compatible with legacy requests when possible. */
registerLegacyMonitor("cpu/user", "float", printCPUUser, printCPUUserInfo, sm);
registerLegacyMonitor("cpu/nice", "float", printCPUNice, printCPUNiceInfo, sm);
registerLegacyMonitor("cpu/sys", "float", printCPUSys, printCPUSysInfo, sm);
registerLegacyMonitor("cpu/idle", "float", printCPUIdle, printCPUIdleInfo, sm);
for (id = 0; id < cores; ++id) {
snprintf(name, SYSCTL_ID_LEN, "cpu/cpu%d/user", id);
registerMonitor(name, "float", printCPUxUser, printCPUxUserInfo, sm);
snprintf(name, SYSCTL_ID_LEN, "cpu/cpu%d/nice", id);
registerMonitor(name, "float", printCPUxNice, printCPUxNiceInfo, sm);
snprintf(name, SYSCTL_ID_LEN, "cpu/cpu%d/sys", id);
registerMonitor(name, "float", printCPUxSys, printCPUxSysInfo, sm);
snprintf(name, SYSCTL_ID_LEN, "cpu/cpu%d/TotalLoad", id);
registerMonitor(name, "float", printCPUxTotalLoad, printCPUxTotalLoadInfo, sm);
snprintf(name, SYSCTL_ID_LEN, "cpu/cpu%d/intr", id);
registerMonitor(name, "float", printCPUxIntr, printCPUxIntrInfo, sm);
snprintf(name, SYSCTL_ID_LEN, "cpu/cpu%d/idle", id);
registerMonitor(name, "float", printCPUxIdle, printCPUxIdleInfo, sm);
}
/*
* CPU frequencies
*/
if ((freq = malloc(sizeof(int) * 3 * (cores + 1))) == NULL) {
log_error("out of memory for freq");
return;
}
registerMonitor("cpu/system/AverageClock", "float", printCPUClock, printCPUClockInfo, sm);
for (id = 0; id < cores; ++id) {
len = sizeof(int);
snprintf(name, SYSCTL_ID_LEN, "dev.cpu.%d.freq", id);
if (!sysctlbyname(name, &freq[id][0], &len, NULL, 0)) {
get_mmfreq(id, &freq[id][1], &freq[id][2]);
snprintf(name, SYSCTL_ID_LEN, "cpu/cpu%d/clock", id);
registerMonitor(name, "integer", printCPUxClock, printCPUxClockInfo, sm);
} else {
freq[id][0] = -1;
freq[id][1] = 0;
freq[id][2] = 0;
}
}
minfreq = freq[0][1];
maxfreq = freq[0][2];
for (id = 1; id < cores; ++id)
if (freq[id][0] != -1) {
minfreq = minfreq > freq[id][1] ? freq[id][1] : minfreq;
maxfreq = maxfreq < freq[id][2] ? freq[id][2] : maxfreq;
}
freq[cores][1] = minfreq;
freq[cores][2] = maxfreq;
/*
* CPU temperature
*/
if ((temp = malloc(sizeof(int) * (cores + 1))) == NULL) {
log_error("out of memory for temp");
return;
}
registerMonitor("cpu/system/AverageTemperature", "float", printCPUTemperature, printCPUTemperatureInfo, sm);
for (id = 0; id < cores; ++id) {
len = sizeof(int);
snprintf(name, SYSCTL_ID_LEN, "dev.cpu.%d.temperature", id);
if (!sysctlbyname(name, &temp[id], &len, NULL, 0)) {
snprintf(name, SYSCTL_ID_LEN, "cpu/cpu%d/temperature", id);
registerMonitor(name, "float", printCPUxTemperature, printCPUxTemperatureInfo, sm);
} else
temp[id] = -1;
}
updateCpuInfo();
}