* Replace fmt.Sprintf("%d", i)) by strconv.Itoa(i)

* Correct misspelled words
* Remove unused code
* Break up very long lines into multiple lines
* lp.NewMessage -> lp.NewMetric
This commit is contained in:
Holger Obermaier
2026-02-12 14:31:01 +01:00
parent 309bc32a24
commit 555ba9504a
19 changed files with 213 additions and 260 deletions

View File

@@ -35,7 +35,7 @@ type CPUFreqCpuInfoCollector struct {
topology []CPUFreqCpuInfoCollectorTopology
}
func (m *CPUFreqCpuInfoCollector) Init(config json.RawMessage) error {
func (m *CPUFreqCpuInfoCollector) Init(_ json.RawMessage) error {
// Check if already initialized
if m.init {
return nil

View File

@@ -83,8 +83,8 @@ func (m *CPUFreqCollector) Init(config json.RawMessage) error {
CPUFreqCollectorTopology{
tagSet: map[string]string{
"type": "hwthread",
"type-id": fmt.Sprint(c.CpuID),
"package_id": fmt.Sprint(c.Socket),
"type-id": strconv.Itoa(c.CpuID),
"package_id": strconv.Itoa(c.Socket),
},
scalingCurFreqFile: scalingCurFreqFile,
},

View File

@@ -108,7 +108,9 @@ func (m *CpustatCollector) Init(config json.RawMessage) error {
} else if strings.HasPrefix(linefields[0], "cpu") && strings.Compare(linefields[0], "cpu") != 0 {
cpustr := strings.TrimLeft(linefields[0], "cpu")
cpu, _ := strconv.Atoi(cpustr)
m.cputags[linefields[0]] = map[string]string{"type": "hwthread", "type-id": fmt.Sprintf("%d", cpu)}
m.cputags[linefields[0]] = map[string]string{
"type": "hwthread",
"type-id": strconv.Itoa(cpu)}
m.olddata[linefields[0]] = make(map[string]int64)
for k, v := range m.matches {
m.olddata[linefields[0]][k], _ = strconv.ParseInt(linefields[v], 0, 64)
@@ -191,7 +193,7 @@ func (m *CpustatCollector) Read(interval time.Duration, output chan lp.CCMessage
num_cpus_metric, err := lp.NewMessage("num_cpus",
m.nodetags,
m.meta,
map[string]any{"value": int(num_cpus)},
map[string]any{"value": num_cpus},
now,
)
if err == nil {

View File

@@ -124,7 +124,13 @@ mountLoop:
tags := map[string]string{"type": "node", "device": linefields[0]}
total := (stat.Blocks * uint64(stat.Bsize)) / uint64(1000000000)
if m.allowedMetrics["disk_total"] {
y, err := lp.NewMessage("disk_total", tags, m.meta, map[string]any{"value": total}, time.Now())
y, err := lp.NewMessage(
"disk_total",
tags,
m.meta,
map[string]any{
"value": total},
time.Now())
if err == nil {
y.AddMeta("unit", "GBytes")
output <- y
@@ -132,7 +138,13 @@ mountLoop:
}
free := (stat.Bfree * uint64(stat.Bsize)) / uint64(1000000000)
if m.allowedMetrics["disk_free"] {
y, err := lp.NewMessage("disk_free", tags, m.meta, map[string]any{"value": free}, time.Now())
y, err := lp.NewMessage(
"disk_free",
tags,
m.meta,
map[string]any{
"value": free},
time.Now())
if err == nil {
y.AddMeta("unit", "GBytes")
output <- y
@@ -146,7 +158,14 @@ mountLoop:
}
}
if m.allowedMetrics["part_max_used"] {
y, err := lp.NewMessage("part_max_used", map[string]string{"type": "node"}, m.meta, map[string]any{"value": int(part_max_used)}, time.Now())
y, err := lp.NewMessage(
"part_max_used",
map[string]string{
"type": "node"},
m.meta,
map[string]any{
"value": int(part_max_used)},
time.Now())
if err == nil {
y.AddMeta("unit", "percent")
output <- y

View File

@@ -24,7 +24,7 @@ import (
"os"
"os/signal"
"os/user"
"sort"
"slices"
"strconv"
"strings"
"sync"
@@ -125,22 +125,14 @@ func checkMetricType(t string) bool {
return ok
}
func eventsToEventStr(events map[string]string) string {
elist := make([]string, 0)
for k, v := range events {
elist = append(elist, fmt.Sprintf("%s:%s", v, k))
}
return strings.Join(elist, ",")
}
func genLikwidEventSet(input LikwidCollectorEventsetConfig) LikwidEventsetConfig {
tmplist := make([]string, 0)
clist := make([]string, 0)
clist := make([]string, len(input.Events))
for k := range input.Events {
clist = append(clist, k)
}
sort.Strings(clist)
elist := make([]*C.char, 0)
slices.Sort(clist)
tmplist := make([]string, len(clist))
elist := make([]*C.char, len(clist))
for _, k := range clist {
v := input.Events[k]
tmplist = append(tmplist, fmt.Sprintf("%s:%s", v, k))
@@ -381,7 +373,6 @@ func (m *LikwidCollector) Init(config json.RawMessage) error {
// take a measurement for 'interval' seconds of event set index 'group'
func (m *LikwidCollector) takeMeasurement(evidx int, evset LikwidEventsetConfig, interval time.Duration) (bool, error) {
var ret C.int
var gid C.int = -1
sigchan := make(chan os.Signal, 1)
// Watch changes for the lock file ()
@@ -462,6 +453,7 @@ func (m *LikwidCollector) takeMeasurement(evidx int, evset LikwidEventsetConfig,
signal.Notify(sigchan, syscall.SIGCHLD)
// Add an event string to LIKWID
var gid C.int
select {
case <-sigchan:
gid = -1
@@ -631,7 +623,7 @@ func (m *LikwidCollector) calcEventsetMetrics(evset LikwidEventsetConfig, interv
)
if err == nil {
if metric.Type != "node" {
y.AddTag("type-id", fmt.Sprintf("%d", domain))
y.AddTag("type-id", strconv.Itoa(domain))
}
if len(metric.Unit) > 0 {
y.AddMeta("unit", metric.Unit)
@@ -661,7 +653,7 @@ func (m *LikwidCollector) calcEventsetMetrics(evset LikwidEventsetConfig, interv
metric.Name,
map[string]string{
"type": "core",
"type-id": fmt.Sprintf("%d", coreID),
"type-id": strconv.Itoa(coreID),
},
m.meta,
map[string]any{
@@ -698,7 +690,7 @@ func (m *LikwidCollector) calcEventsetMetrics(evset LikwidEventsetConfig, interv
metric.Name,
map[string]string{
"type": "socket",
"type-id": fmt.Sprintf("%d", socketID),
"type-id": strconv.Itoa(socketID),
},
m.meta,
map[string]any{
@@ -800,7 +792,7 @@ func (m *LikwidCollector) calcGlobalMetrics(groups []LikwidEventsetConfig, inter
)
if err == nil {
if metric.Type != "node" {
y.AddTag("type-id", fmt.Sprintf("%d", domain))
y.AddTag("type-id", strconv.Itoa(domain))
}
if len(metric.Unit) > 0 {
y.AddMeta("unit", metric.Unit)
@@ -816,7 +808,7 @@ func (m *LikwidCollector) calcGlobalMetrics(groups []LikwidEventsetConfig, inter
}
func (m *LikwidCollector) ReadThread(interval time.Duration, output chan lp.CCMessage) {
var err error = nil
var err error
groups := make([]LikwidEventsetConfig, 0)
for evidx, evset := range m.config.Eventsets {

View File

@@ -159,7 +159,7 @@ func (m *MemstatCollector) Init(config json.RawMessage) error {
file: f,
tags: map[string]string{
"type": "memoryDomain",
"type-id": fmt.Sprintf("%d", id),
"type-id": strconv.Itoa(id),
},
}
m.nodefiles[id] = f

View File

@@ -150,7 +150,7 @@ func (m *nfsCollector) Read(interval time.Duration, output chan lp.CCMessage) {
)
return
}
prefix := ""
var prefix string
switch m.version {
case "v3":
prefix = "nfs3"

View File

@@ -143,7 +143,13 @@ func (m *NfsIOStatCollector) Read(interval time.Duration, output chan lp.CCMessa
if old, ok := m.data[mntpoint]; ok {
for name, newVal := range values {
if m.config.SendAbsoluteValues {
msg, err := lp.NewMessage(fmt.Sprintf("nfsio_%s", name), m.tags, m.meta, map[string]any{"value": newVal}, now)
msg, err := lp.NewMessage(
"nfsio_"+name,
m.tags,
m.meta,
map[string]any{
"value": newVal},
now)
if err == nil {
msg.AddTag("stype", "filesystem")
msg.AddTag("stype-id", mntpoint)

View File

@@ -14,6 +14,7 @@ import (
"log"
"maps"
"slices"
"strconv"
"strings"
"time"
@@ -112,7 +113,7 @@ func (m *NvidiaCollector) Init(config json.RawMessage) error {
for i := range num_gpus {
// Skip excluded devices by ID
str_i := fmt.Sprintf("%d", i)
str_i := strconv.Itoa(i)
if slices.Contains(m.config.ExcludeDevices, str_i) {
cclog.ComponentDebug(m.name, "Skipping excluded device", str_i)
continue
@@ -239,7 +240,7 @@ func readMemoryInfo(device *NvidiaCollectorDevice, output chan lp.CCMessage) err
if !device.excludeMetrics["nv_fb_mem_total"] {
t := float64(total) / (1024 * 1024)
y, err := lp.NewMessage("nv_fb_mem_total", device.tags, device.meta, map[string]any{"value": t}, time.Now())
y, err := lp.NewMetric("nv_fb_mem_total", device.tags, device.meta, t, time.Now())
if err == nil {
y.AddMeta("unit", "MByte")
output <- y
@@ -248,7 +249,7 @@ func readMemoryInfo(device *NvidiaCollectorDevice, output chan lp.CCMessage) err
if !device.excludeMetrics["nv_fb_mem_used"] {
f := float64(used) / (1024 * 1024)
y, err := lp.NewMessage("nv_fb_mem_used", device.tags, device.meta, map[string]any{"value": f}, time.Now())
y, err := lp.NewMetric("nv_fb_mem_used", device.tags, device.meta, f, time.Now())
if err == nil {
y.AddMeta("unit", "MByte")
output <- y
@@ -257,7 +258,7 @@ func readMemoryInfo(device *NvidiaCollectorDevice, output chan lp.CCMessage) err
if v2 && !device.excludeMetrics["nv_fb_mem_reserved"] {
r := float64(reserved) / (1024 * 1024)
y, err := lp.NewMessage("nv_fb_mem_reserved", device.tags, device.meta, map[string]any{"value": r}, time.Now())
y, err := lp.NewMetric("nv_fb_mem_reserved", device.tags, device.meta, r, time.Now())
if err == nil {
y.AddMeta("unit", "MByte")
output <- y
@@ -276,7 +277,7 @@ func readBarMemoryInfo(device *NvidiaCollectorDevice, output chan lp.CCMessage)
}
if !device.excludeMetrics["nv_bar1_mem_total"] {
t := float64(meminfo.Bar1Total) / (1024 * 1024)
y, err := lp.NewMessage("nv_bar1_mem_total", device.tags, device.meta, map[string]any{"value": t}, time.Now())
y, err := lp.NewMetric("nv_bar1_mem_total", device.tags, device.meta, t, time.Now())
if err == nil {
y.AddMeta("unit", "MByte")
output <- y
@@ -284,7 +285,7 @@ func readBarMemoryInfo(device *NvidiaCollectorDevice, output chan lp.CCMessage)
}
if !device.excludeMetrics["nv_bar1_mem_used"] {
t := float64(meminfo.Bar1Used) / (1024 * 1024)
y, err := lp.NewMessage("nv_bar1_mem_used", device.tags, device.meta, map[string]any{"value": t}, time.Now())
y, err := lp.NewMetric("nv_bar1_mem_used", device.tags, device.meta, t, time.Now())
if err == nil {
y.AddMeta("unit", "MByte")
output <- y
@@ -318,14 +319,14 @@ func readUtilization(device *NvidiaCollectorDevice, output chan lp.CCMessage) er
util, ret := nvml.DeviceGetUtilizationRates(device.device)
if ret == nvml.SUCCESS {
if !device.excludeMetrics["nv_util"] {
y, err := lp.NewMessage("nv_util", device.tags, device.meta, map[string]any{"value": float64(util.Gpu)}, time.Now())
y, err := lp.NewMetric("nv_util", device.tags, device.meta, float64(util.Gpu), time.Now())
if err == nil {
y.AddMeta("unit", "%")
output <- y
}
}
if !device.excludeMetrics["nv_mem_util"] {
y, err := lp.NewMessage("nv_mem_util", device.tags, device.meta, map[string]any{"value": float64(util.Memory)}, time.Now())
y, err := lp.NewMetric("nv_mem_util", device.tags, device.meta, float64(util.Memory), time.Now())
if err == nil {
y.AddMeta("unit", "%")
output <- y
@@ -345,7 +346,7 @@ func readTemp(device *NvidiaCollectorDevice, output chan lp.CCMessage) error {
// * NVML_TEMPERATURE_COUNT
temp, ret := nvml.DeviceGetTemperature(device.device, nvml.TEMPERATURE_GPU)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_temp", device.tags, device.meta, map[string]any{"value": float64(temp)}, time.Now())
y, err := lp.NewMetric("nv_temp", device.tags, device.meta, float64(temp), time.Now())
if err == nil {
y.AddMeta("unit", "degC")
output <- y
@@ -368,7 +369,7 @@ func readFan(device *NvidiaCollectorDevice, output chan lp.CCMessage) error {
// This value may exceed 100% in certain cases.
fan, ret := nvml.DeviceGetFanSpeed(device.device)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_fan", device.tags, device.meta, map[string]any{"value": float64(fan)}, time.Now())
y, err := lp.NewMetric("nv_fan", device.tags, device.meta, float64(fan), time.Now())
if err == nil {
y.AddMeta("unit", "%")
output <- y
@@ -378,27 +379,6 @@ func readFan(device *NvidiaCollectorDevice, output chan lp.CCMessage) error {
return nil
}
// func readFans(device *NvidiaCollectorDevice, output chan lp.CCMessage) error {
// if !device.excludeMetrics["nv_fan"] {
// numFans, ret := nvml.DeviceGetNumFans(device.device)
// if ret == nvml.SUCCESS {
// for i := 0; i < numFans; i++ {
// fan, ret := nvml.DeviceGetFanSpeed_v2(device.device, i)
// if ret == nvml.SUCCESS {
// y, err := lp.NewMessage("nv_fan", device.tags, device.meta, map[string]interface{}{"value": float64(fan)}, time.Now())
// if err == nil {
// y.AddMeta("unit", "%")
// y.AddTag("stype", "fan")
// y.AddTag("stype-id", fmt.Sprintf("%d", i))
// output <- y
// }
// }
// }
// }
// }
// return nil
// }
func readEccMode(device *NvidiaCollectorDevice, output chan lp.CCMessage) error {
if !device.excludeMetrics["nv_ecc_mode"] {
// Retrieves the current and pending ECC modes for the device.
@@ -415,17 +395,17 @@ func readEccMode(device *NvidiaCollectorDevice, output chan lp.CCMessage) error
var err error
switch ecc_pend {
case nvml.FEATURE_DISABLED:
y, err = lp.NewMessage("nv_ecc_mode", device.tags, device.meta, map[string]any{"value": "OFF"}, time.Now())
y, err = lp.NewMetric("nv_ecc_mode", device.tags, device.meta, "OFF", time.Now())
case nvml.FEATURE_ENABLED:
y, err = lp.NewMessage("nv_ecc_mode", device.tags, device.meta, map[string]any{"value": "ON"}, time.Now())
y, err = lp.NewMetric("nv_ecc_mode", device.tags, device.meta, "ON", time.Now())
default:
y, err = lp.NewMessage("nv_ecc_mode", device.tags, device.meta, map[string]any{"value": "UNKNOWN"}, time.Now())
y, err = lp.NewMetric("nv_ecc_mode", device.tags, device.meta, "UNKNOWN", time.Now())
}
if err == nil {
output <- y
}
case nvml.ERROR_NOT_SUPPORTED:
y, err := lp.NewMessage("nv_ecc_mode", device.tags, device.meta, map[string]any{"value": "N/A"}, time.Now())
y, err := lp.NewMetric("nv_ecc_mode", device.tags, device.meta, "N/A", time.Now())
if err == nil {
output <- y
}
@@ -445,7 +425,7 @@ func readPerfState(device *NvidiaCollectorDevice, output chan lp.CCMessage) erro
// 32: Unknown performance state.
pState, ret := nvml.DeviceGetPerformanceState(device.device)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_perf_state", device.tags, device.meta, map[string]any{"value": fmt.Sprintf("P%d", int(pState))}, time.Now())
y, err := lp.NewMetric("nv_perf_state", device.tags, device.meta, fmt.Sprintf("P%d", int(pState)), time.Now())
if err == nil {
output <- y
}
@@ -471,7 +451,7 @@ func readPowerUsage(device *NvidiaCollectorDevice, output chan lp.CCMessage) err
if mode == nvml.FEATURE_ENABLED {
power, ret := nvml.DeviceGetPowerUsage(device.device)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_power_usage", device.tags, device.meta, map[string]any{"value": float64(power) / 1000}, time.Now())
y, err := lp.NewMetric("nv_power_usage", device.tags, device.meta, float64(power)/1000, time.Now())
if err == nil {
y.AddMeta("unit", "watts")
output <- y
@@ -497,7 +477,12 @@ func readEnergyConsumption(device *NvidiaCollectorDevice, output chan lp.CCMessa
if ret == nvml.SUCCESS {
if device.lastEnergyReading != 0 {
if !device.excludeMetrics["nv_energy"] {
y, err := lp.NewMetric("nv_energy", device.tags, device.meta, (energy-device.lastEnergyReading)/1000, now)
y, err := lp.NewMetric(
"nv_energy",
device.tags,
device.meta,
(energy-device.lastEnergyReading)/1000,
now)
if err == nil {
y.AddMeta("unit", "Joules")
output <- y
@@ -539,7 +524,7 @@ func readClocks(device *NvidiaCollectorDevice, output chan lp.CCMessage) error {
if !device.excludeMetrics["nv_graphics_clock"] {
graphicsClock, ret := nvml.DeviceGetClockInfo(device.device, nvml.CLOCK_GRAPHICS)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_graphics_clock", device.tags, device.meta, map[string]any{"value": float64(graphicsClock)}, time.Now())
y, err := lp.NewMetric("nv_graphics_clock", device.tags, device.meta, float64(graphicsClock), time.Now())
if err == nil {
y.AddMeta("unit", "MHz")
output <- y
@@ -550,7 +535,7 @@ func readClocks(device *NvidiaCollectorDevice, output chan lp.CCMessage) error {
if !device.excludeMetrics["nv_sm_clock"] {
smCock, ret := nvml.DeviceGetClockInfo(device.device, nvml.CLOCK_SM)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_sm_clock", device.tags, device.meta, map[string]any{"value": float64(smCock)}, time.Now())
y, err := lp.NewMetric("nv_sm_clock", device.tags, device.meta, float64(smCock), time.Now())
if err == nil {
y.AddMeta("unit", "MHz")
output <- y
@@ -561,7 +546,7 @@ func readClocks(device *NvidiaCollectorDevice, output chan lp.CCMessage) error {
if !device.excludeMetrics["nv_mem_clock"] {
memClock, ret := nvml.DeviceGetClockInfo(device.device, nvml.CLOCK_MEM)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_mem_clock", device.tags, device.meta, map[string]any{"value": float64(memClock)}, time.Now())
y, err := lp.NewMetric("nv_mem_clock", device.tags, device.meta, float64(memClock), time.Now())
if err == nil {
y.AddMeta("unit", "MHz")
output <- y
@@ -571,7 +556,7 @@ func readClocks(device *NvidiaCollectorDevice, output chan lp.CCMessage) error {
if !device.excludeMetrics["nv_video_clock"] {
memClock, ret := nvml.DeviceGetClockInfo(device.device, nvml.CLOCK_VIDEO)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_video_clock", device.tags, device.meta, map[string]any{"value": float64(memClock)}, time.Now())
y, err := lp.NewMetric("nv_video_clock", device.tags, device.meta, float64(memClock), time.Now())
if err == nil {
y.AddMeta("unit", "MHz")
output <- y
@@ -652,7 +637,7 @@ func readEccErrors(device *NvidiaCollectorDevice, output chan lp.CCMessage) erro
// i.e. the total set of errors across the entire device.
ecc_db, ret := nvml.DeviceGetTotalEccErrors(device.device, nvml.MEMORY_ERROR_TYPE_UNCORRECTED, nvml.AGGREGATE_ECC)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_ecc_uncorrected_error", device.tags, device.meta, map[string]any{"value": float64(ecc_db)}, time.Now())
y, err := lp.NewMetric("nv_ecc_uncorrected_error", device.tags, device.meta, float64(ecc_db), time.Now())
if err == nil {
output <- y
}
@@ -661,7 +646,7 @@ func readEccErrors(device *NvidiaCollectorDevice, output chan lp.CCMessage) erro
if !device.excludeMetrics["nv_ecc_corrected_error"] {
ecc_sb, ret := nvml.DeviceGetTotalEccErrors(device.device, nvml.MEMORY_ERROR_TYPE_CORRECTED, nvml.AGGREGATE_ECC)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_ecc_corrected_error", device.tags, device.meta, map[string]any{"value": float64(ecc_sb)}, time.Now())
y, err := lp.NewMetric("nv_ecc_corrected_error", device.tags, device.meta, float64(ecc_sb), time.Now())
if err == nil {
output <- y
}
@@ -680,7 +665,7 @@ func readPowerLimit(device *NvidiaCollectorDevice, output chan lp.CCMessage) err
// If the card's total power draw reaches this limit the power management algorithm kicks in.
pwr_limit, ret := nvml.DeviceGetPowerManagementLimit(device.device)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_power_max_limit", device.tags, device.meta, map[string]any{"value": float64(pwr_limit) / 1000}, time.Now())
y, err := lp.NewMetric("nv_power_max_limit", device.tags, device.meta, float64(pwr_limit)/1000, time.Now())
if err == nil {
y.AddMeta("unit", "watts")
output <- y
@@ -707,7 +692,7 @@ func readEncUtilization(device *NvidiaCollectorDevice, output chan lp.CCMessage)
// Note: On MIG-enabled GPUs, querying encoder utilization is not currently supported.
enc_util, _, ret := nvml.DeviceGetEncoderUtilization(device.device)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_encoder_util", device.tags, device.meta, map[string]any{"value": float64(enc_util)}, time.Now())
y, err := lp.NewMetric("nv_encoder_util", device.tags, device.meta, float64(enc_util), time.Now())
if err == nil {
y.AddMeta("unit", "%")
output <- y
@@ -734,7 +719,7 @@ func readDecUtilization(device *NvidiaCollectorDevice, output chan lp.CCMessage)
// Note: On MIG-enabled GPUs, querying encoder utilization is not currently supported.
dec_util, _, ret := nvml.DeviceGetDecoderUtilization(device.device)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_decoder_util", device.tags, device.meta, map[string]any{"value": float64(dec_util)}, time.Now())
y, err := lp.NewMetric("nv_decoder_util", device.tags, device.meta, float64(dec_util), time.Now())
if err == nil {
y.AddMeta("unit", "%")
output <- y
@@ -761,13 +746,13 @@ func readRemappedRows(device *NvidiaCollectorDevice, output chan lp.CCMessage) e
corrected, uncorrected, pending, failure, ret := nvml.DeviceGetRemappedRows(device.device)
if ret == nvml.SUCCESS {
if !device.excludeMetrics["nv_remapped_rows_corrected"] {
y, err := lp.NewMessage("nv_remapped_rows_corrected", device.tags, device.meta, map[string]any{"value": float64(corrected)}, time.Now())
y, err := lp.NewMetric("nv_remapped_rows_corrected", device.tags, device.meta, float64(corrected), time.Now())
if err == nil {
output <- y
}
}
if !device.excludeMetrics["nv_remapped_rows_uncorrected"] {
y, err := lp.NewMessage("nv_remapped_rows_corrected", device.tags, device.meta, map[string]any{"value": float64(uncorrected)}, time.Now())
y, err := lp.NewMetric("nv_remapped_rows_corrected", device.tags, device.meta, float64(uncorrected), time.Now())
if err == nil {
output <- y
}
@@ -777,7 +762,7 @@ func readRemappedRows(device *NvidiaCollectorDevice, output chan lp.CCMessage) e
if pending {
p = 1
}
y, err := lp.NewMessage("nv_remapped_rows_pending", device.tags, device.meta, map[string]any{"value": p}, time.Now())
y, err := lp.NewMetric("nv_remapped_rows_pending", device.tags, device.meta, p, time.Now())
if err == nil {
output <- y
}
@@ -787,7 +772,7 @@ func readRemappedRows(device *NvidiaCollectorDevice, output chan lp.CCMessage) e
if failure {
f = 1
}
y, err := lp.NewMessage("nv_remapped_rows_failure", device.tags, device.meta, map[string]any{"value": f}, time.Now())
y, err := lp.NewMetric("nv_remapped_rows_failure", device.tags, device.meta, f, time.Now())
if err == nil {
output <- y
}
@@ -821,7 +806,7 @@ func readProcessCounts(device *NvidiaCollectorDevice, output chan lp.CCMessage)
// Querying per-instance information using MIG device handles is not supported if the device is in vGPU Host virtualization mode.
procList, ret := nvml.DeviceGetComputeRunningProcesses(device.device)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_compute_processes", device.tags, device.meta, map[string]any{"value": len(procList)}, time.Now())
y, err := lp.NewMetric("nv_compute_processes", device.tags, device.meta, len(procList), time.Now())
if err == nil {
output <- y
}
@@ -850,7 +835,7 @@ func readProcessCounts(device *NvidiaCollectorDevice, output chan lp.CCMessage)
// Querying per-instance information using MIG device handles is not supported if the device is in vGPU Host virtualization mode.
procList, ret := nvml.DeviceGetGraphicsRunningProcesses(device.device)
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_graphics_processes", device.tags, device.meta, map[string]any{"value": len(procList)}, time.Now())
y, err := lp.NewMetric("nv_graphics_processes", device.tags, device.meta, len(procList), time.Now())
if err == nil {
output <- y
}
@@ -880,7 +865,7 @@ func readProcessCounts(device *NvidiaCollectorDevice, output chan lp.CCMessage)
// // Querying per-instance information using MIG device handles is not supported if the device is in vGPU Host virtualization mode.
// procList, ret := nvml.DeviceGetMPSComputeRunningProcesses(device.device)
// if ret == nvml.SUCCESS {
// y, err := lp.NewMessage("nv_mps_compute_processes", device.tags, device.meta, map[string]interface{}{"value": len(procList)}, time.Now())
// y, err := lp.NewMetric("nv_mps_compute_processes", device.tags, device.meta, len(procList), time.Now())
// if err == nil {
// output <- y
// }
@@ -908,7 +893,7 @@ func readViolationStats(device *NvidiaCollectorDevice, output chan lp.CCMessage)
violTime, ret = nvml.DeviceGetViolationStatus(device.device, nvml.PERF_POLICY_POWER)
if ret == nvml.SUCCESS {
t := float64(violTime.ViolationTime) * 1e-9
y, err := lp.NewMessage("nv_violation_power", device.tags, device.meta, map[string]any{"value": t}, time.Now())
y, err := lp.NewMetric("nv_violation_power", device.tags, device.meta, t, time.Now())
if err == nil {
y.AddMeta("unit", "sec")
output <- y
@@ -920,7 +905,7 @@ func readViolationStats(device *NvidiaCollectorDevice, output chan lp.CCMessage)
violTime, ret = nvml.DeviceGetViolationStatus(device.device, nvml.PERF_POLICY_THERMAL)
if ret == nvml.SUCCESS {
t := float64(violTime.ViolationTime) * 1e-9
y, err := lp.NewMessage("nv_violation_thermal", device.tags, device.meta, map[string]any{"value": t}, time.Now())
y, err := lp.NewMetric("nv_violation_thermal", device.tags, device.meta, t, time.Now())
if err == nil {
y.AddMeta("unit", "sec")
output <- y
@@ -932,7 +917,7 @@ func readViolationStats(device *NvidiaCollectorDevice, output chan lp.CCMessage)
violTime, ret = nvml.DeviceGetViolationStatus(device.device, nvml.PERF_POLICY_SYNC_BOOST)
if ret == nvml.SUCCESS {
t := float64(violTime.ViolationTime) * 1e-9
y, err := lp.NewMessage("nv_violation_sync_boost", device.tags, device.meta, map[string]any{"value": t}, time.Now())
y, err := lp.NewMetric("nv_violation_sync_boost", device.tags, device.meta, t, time.Now())
if err == nil {
y.AddMeta("unit", "sec")
output <- y
@@ -944,7 +929,7 @@ func readViolationStats(device *NvidiaCollectorDevice, output chan lp.CCMessage)
violTime, ret = nvml.DeviceGetViolationStatus(device.device, nvml.PERF_POLICY_BOARD_LIMIT)
if ret == nvml.SUCCESS {
t := float64(violTime.ViolationTime) * 1e-9
y, err := lp.NewMessage("nv_violation_board_limit", device.tags, device.meta, map[string]any{"value": t}, time.Now())
y, err := lp.NewMetric("nv_violation_board_limit", device.tags, device.meta, t, time.Now())
if err == nil {
y.AddMeta("unit", "sec")
output <- y
@@ -956,7 +941,7 @@ func readViolationStats(device *NvidiaCollectorDevice, output chan lp.CCMessage)
violTime, ret = nvml.DeviceGetViolationStatus(device.device, nvml.PERF_POLICY_LOW_UTILIZATION)
if ret == nvml.SUCCESS {
t := float64(violTime.ViolationTime) * 1e-9
y, err := lp.NewMessage("nv_violation_low_util", device.tags, device.meta, map[string]any{"value": t}, time.Now())
y, err := lp.NewMetric("nv_violation_low_util", device.tags, device.meta, t, time.Now())
if err == nil {
y.AddMeta("unit", "sec")
output <- y
@@ -968,7 +953,7 @@ func readViolationStats(device *NvidiaCollectorDevice, output chan lp.CCMessage)
violTime, ret = nvml.DeviceGetViolationStatus(device.device, nvml.PERF_POLICY_RELIABILITY)
if ret == nvml.SUCCESS {
t := float64(violTime.ViolationTime) * 1e-9
y, err := lp.NewMessage("nv_violation_reliability", device.tags, device.meta, map[string]any{"value": t}, time.Now())
y, err := lp.NewMetric("nv_violation_reliability", device.tags, device.meta, t, time.Now())
if err == nil {
y.AddMeta("unit", "sec")
output <- y
@@ -980,7 +965,7 @@ func readViolationStats(device *NvidiaCollectorDevice, output chan lp.CCMessage)
violTime, ret = nvml.DeviceGetViolationStatus(device.device, nvml.PERF_POLICY_TOTAL_APP_CLOCKS)
if ret == nvml.SUCCESS {
t := float64(violTime.ViolationTime) * 1e-9
y, err := lp.NewMessage("nv_violation_below_app_clock", device.tags, device.meta, map[string]any{"value": t}, time.Now())
y, err := lp.NewMetric("nv_violation_below_app_clock", device.tags, device.meta, t, time.Now())
if err == nil {
y.AddMeta("unit", "sec")
output <- y
@@ -992,7 +977,7 @@ func readViolationStats(device *NvidiaCollectorDevice, output chan lp.CCMessage)
violTime, ret = nvml.DeviceGetViolationStatus(device.device, nvml.PERF_POLICY_TOTAL_BASE_CLOCKS)
if ret == nvml.SUCCESS {
t := float64(violTime.ViolationTime) * 1e-9
y, err := lp.NewMessage("nv_violation_below_base_clock", device.tags, device.meta, map[string]any{"value": t}, time.Now())
y, err := lp.NewMetric("nv_violation_below_base_clock", device.tags, device.meta, t, time.Now())
if err == nil {
y.AddMeta("unit", "sec")
output <- y
@@ -1024,10 +1009,10 @@ func readNVLinkStats(device *NvidiaCollectorDevice, output chan lp.CCMessage) er
count, ret := nvml.DeviceGetNvLinkErrorCounter(device.device, i, nvml.NVLINK_ERROR_DL_CRC_DATA)
aggregate_crc_errors += count
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_nvlink_crc_errors", device.tags, device.meta, map[string]any{"value": count}, time.Now())
y, err := lp.NewMetric("nv_nvlink_crc_errors", device.tags, device.meta, count, time.Now())
if err == nil {
y.AddTag("stype", "nvlink")
y.AddTag("stype-id", fmt.Sprintf("%d", i))
y.AddTag("stype-id", strconv.Itoa(i))
output <- y
}
}
@@ -1037,10 +1022,10 @@ func readNVLinkStats(device *NvidiaCollectorDevice, output chan lp.CCMessage) er
count, ret := nvml.DeviceGetNvLinkErrorCounter(device.device, i, nvml.NVLINK_ERROR_DL_ECC_DATA)
aggregate_ecc_errors += count
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_nvlink_ecc_errors", device.tags, device.meta, map[string]any{"value": count}, time.Now())
y, err := lp.NewMetric("nv_nvlink_ecc_errors", device.tags, device.meta, count, time.Now())
if err == nil {
y.AddTag("stype", "nvlink")
y.AddTag("stype-id", fmt.Sprintf("%d", i))
y.AddTag("stype-id", strconv.Itoa(i))
output <- y
}
}
@@ -1050,10 +1035,10 @@ func readNVLinkStats(device *NvidiaCollectorDevice, output chan lp.CCMessage) er
count, ret := nvml.DeviceGetNvLinkErrorCounter(device.device, i, nvml.NVLINK_ERROR_DL_REPLAY)
aggregate_replay_errors += count
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_nvlink_replay_errors", device.tags, device.meta, map[string]any{"value": count}, time.Now())
y, err := lp.NewMetric("nv_nvlink_replay_errors", device.tags, device.meta, count, time.Now())
if err == nil {
y.AddTag("stype", "nvlink")
y.AddTag("stype-id", fmt.Sprintf("%d", i))
y.AddTag("stype-id", strconv.Itoa(i))
output <- y
}
}
@@ -1063,10 +1048,10 @@ func readNVLinkStats(device *NvidiaCollectorDevice, output chan lp.CCMessage) er
count, ret := nvml.DeviceGetNvLinkErrorCounter(device.device, i, nvml.NVLINK_ERROR_DL_RECOVERY)
aggregate_recovery_errors += count
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_nvlink_recovery_errors", device.tags, device.meta, map[string]any{"value": count}, time.Now())
y, err := lp.NewMetric("nv_nvlink_recovery_errors", device.tags, device.meta, count, time.Now())
if err == nil {
y.AddTag("stype", "nvlink")
y.AddTag("stype-id", fmt.Sprintf("%d", i))
y.AddTag("stype-id", strconv.Itoa(i))
output <- y
}
}
@@ -1076,10 +1061,10 @@ func readNVLinkStats(device *NvidiaCollectorDevice, output chan lp.CCMessage) er
count, ret := nvml.DeviceGetNvLinkErrorCounter(device.device, i, nvml.NVLINK_ERROR_DL_CRC_FLIT)
aggregate_crc_flit_errors += count
if ret == nvml.SUCCESS {
y, err := lp.NewMessage("nv_nvlink_crc_flit_errors", device.tags, device.meta, map[string]any{"value": count}, time.Now())
y, err := lp.NewMetric("nv_nvlink_crc_flit_errors", device.tags, device.meta, count, time.Now())
if err == nil {
y.AddTag("stype", "nvlink")
y.AddTag("stype-id", fmt.Sprintf("%d", i))
y.AddTag("stype-id", strconv.Itoa(i))
output <- y
}
}
@@ -1091,7 +1076,7 @@ func readNVLinkStats(device *NvidiaCollectorDevice, output chan lp.CCMessage) er
// Export aggegated values
if !device.excludeMetrics["nv_nvlink_crc_errors"] {
// Data link receive data CRC error counter
y, err := lp.NewMessage("nv_nvlink_crc_errors_sum", device.tags, device.meta, map[string]any{"value": aggregate_crc_errors}, time.Now())
y, err := lp.NewMetric("nv_nvlink_crc_errors_sum", device.tags, device.meta, aggregate_crc_errors, time.Now())
if err == nil {
y.AddTag("stype", "nvlink")
output <- y
@@ -1099,7 +1084,7 @@ func readNVLinkStats(device *NvidiaCollectorDevice, output chan lp.CCMessage) er
}
if !device.excludeMetrics["nv_nvlink_ecc_errors"] {
// Data link receive data ECC error counter
y, err := lp.NewMessage("nv_nvlink_ecc_errors_sum", device.tags, device.meta, map[string]any{"value": aggregate_ecc_errors}, time.Now())
y, err := lp.NewMetric("nv_nvlink_ecc_errors_sum", device.tags, device.meta, aggregate_ecc_errors, time.Now())
if err == nil {
y.AddTag("stype", "nvlink")
output <- y
@@ -1107,7 +1092,7 @@ func readNVLinkStats(device *NvidiaCollectorDevice, output chan lp.CCMessage) er
}
if !device.excludeMetrics["nv_nvlink_replay_errors"] {
// Data link transmit replay error counter
y, err := lp.NewMessage("nv_nvlink_replay_errors_sum", device.tags, device.meta, map[string]any{"value": aggregate_replay_errors}, time.Now())
y, err := lp.NewMetric("nv_nvlink_replay_errors_sum", device.tags, device.meta, aggregate_replay_errors, time.Now())
if err == nil {
y.AddTag("stype", "nvlink")
output <- y
@@ -1115,7 +1100,7 @@ func readNVLinkStats(device *NvidiaCollectorDevice, output chan lp.CCMessage) er
}
if !device.excludeMetrics["nv_nvlink_recovery_errors"] {
// Data link transmit recovery error counter
y, err := lp.NewMessage("nv_nvlink_recovery_errors_sum", device.tags, device.meta, map[string]any{"value": aggregate_recovery_errors}, time.Now())
y, err := lp.NewMetric("nv_nvlink_recovery_errors_sum", device.tags, device.meta, aggregate_recovery_errors, time.Now())
if err == nil {
y.AddTag("stype", "nvlink")
output <- y
@@ -1123,7 +1108,7 @@ func readNVLinkStats(device *NvidiaCollectorDevice, output chan lp.CCMessage) er
}
if !device.excludeMetrics["nv_nvlink_crc_flit_errors"] {
// Data link receive flow control digit CRC error counter
y, err := lp.NewMessage("nv_nvlink_crc_flit_errors_sum", device.tags, device.meta, map[string]any{"value": aggregate_crc_flit_errors}, time.Now())
y, err := lp.NewMetric("nv_nvlink_crc_flit_errors_sum", device.tags, device.meta, aggregate_crc_flit_errors, time.Now())
if err == nil {
y.AddTag("stype", "nvlink")
output <- y
@@ -1302,7 +1287,7 @@ func (m *NvidiaCollector) Read(interval time.Duration, output chan lp.CCMessage)
}
}
if _, ok := migDevice.tags["stype-id"]; !ok {
migDevice.tags["stype-id"] = fmt.Sprintf("%d", j)
migDevice.tags["stype-id"] = strconv.Itoa(j)
}
maps.Copy(migDevice.meta, m.gpus[i].meta)
if _, ok := migDevice.meta["uuid"]; ok && !m.config.UseUuidForMigDevices {

View File

@@ -12,6 +12,7 @@ import (
"errors"
"fmt"
"slices"
"strconv"
"time"
cclog "github.com/ClusterCockpit/cc-lib/v2/ccLogger"
@@ -91,7 +92,7 @@ func (m *RocmSmiCollector) Init(config json.RawMessage) error {
m.devices = make([]RocmSmiCollectorDevice, 0)
for i := range numDevs {
str_i := fmt.Sprintf("%d", i)
str_i := strconv.Itoa(i)
if slices.Contains(m.config.ExcludeDevices, str_i) {
continue
}
@@ -297,7 +298,7 @@ func (m *RocmSmiCollector) Read(interval time.Duration, output chan lp.CCMessage
y, err := lp.NewMessage("rocm_temp_hbm", dev.tags, dev.meta, map[string]any{"value": value}, timestamp)
if err == nil {
y.AddTag("stype", "device")
y.AddTag("stype-id", fmt.Sprintf("%d", i))
y.AddTag("stype-id", strconv.Itoa(i))
output <- y
}
}

View File

@@ -37,11 +37,11 @@ type SampleTimerCollector struct {
}
func (m *SampleTimerCollector) Init(name string, config json.RawMessage) error {
var err error = nil
var err error
// Always set the name early in Init() to use it in cclog.Component* functions
m.name = "SampleTimerCollector"
// This is for later use, also call it early
if err := m.setup(); err != nil {
if err = m.setup(); err != nil {
return fmt.Errorf("%s Init(): setup() call failed: %w", m.name, err)
}
// Define meta information sent with each metric

View File

@@ -53,7 +53,7 @@ func (m *SchedstatCollector) Init(config json.RawMessage) error {
return fmt.Errorf("%s Init(): setup() call failed: %w", m.name, err)
}
// Tell whether the collector should be run in parallel with others (reading files, ...)
// or it should be run serially, mostly for collectors acutally doing measurements
// or it should be run serially, mostly for collectors actually doing measurements
// because they should not measure the execution of the other collectors
m.parallel = true
// Define meta information sent with each metric
@@ -90,7 +90,7 @@ func (m *SchedstatCollector) Init(config json.RawMessage) error {
waiting, _ := strconv.ParseInt(linefields[8], 10, 64)
m.cputags[linefields[0]] = map[string]string{
"type": "hwthread",
"type-id": fmt.Sprintf("%d", cpu),
"type-id": strconv.Itoa(cpu),
}
m.olddata[linefields[0]] = map[string]int64{
"running": running,

View File

@@ -107,8 +107,11 @@ func (m *SlurmCgroupCollector) Init(config json.RawMessage) error {
return fmt.Errorf("%s Init(): setup() call failed: %w", m.name, err)
}
m.parallel = true
m.meta = map[string]string{"source": m.name, "group": "SLURM"}
m.tags = map[string]string{"type": "hwthread"}
m.meta = map[string]string{
"source": m.name,
"group": "SLURM"}
m.tags = map[string]string{
"type": "hwthread"}
m.cpuUsed = make(map[int]bool)
m.cgroupBase = defaultCgroupBase
@@ -156,7 +159,9 @@ func (m *SlurmCgroupCollector) ReadJobData(jobdir string) (SlurmJobData, error)
CpuSet: []int{},
}
cg := func(f string) string { return filepath.Join(m.cgroupBase, jobdir, f) }
cg := func(f string) string {
return filepath.Join(m.cgroupBase, jobdir, f)
}
memUsage, err := m.readFile(cg("memory.current"))
if err == nil {
@@ -205,8 +210,8 @@ func (m *SlurmCgroupCollector) ReadJobData(jobdir string) (SlurmJobData, error)
}
}
if usageUsec > 0 {
jobdata.CpuUsageUser = (userUsec * 100 / usageUsec)
jobdata.CpuUsageSys = (systemUsec * 100 / usageUsec)
jobdata.CpuUsageUser = (userUsec * 100.0 / usageUsec)
jobdata.CpuUsageSys = (systemUsec * 100.0 / usageUsec)
}
}
@@ -249,12 +254,18 @@ func (m *SlurmCgroupCollector) Read(interval time.Duration, output chan lp.CCMes
for _, cpu := range jobdata.CpuSet {
coreTags := map[string]string{
"type": "hwthread",
"type-id": fmt.Sprintf("%d", cpu),
"type-id": strconv.Itoa(cpu),
}
if coreCount > 0 && !m.isExcluded("job_mem_used") {
memPerCore := jobdata.MemoryUsage / coreCount
if y, err := lp.NewMessage("job_mem_used", coreTags, m.meta, map[string]any{"value": memPerCore}, timestamp); err == nil {
if y, err := lp.NewMessage(
"job_mem_used",
coreTags,
m.meta,
map[string]any{
"value": memPerCore},
timestamp); err == nil {
y.AddMeta("unit", "Bytes")
output <- y
}
@@ -262,7 +273,13 @@ func (m *SlurmCgroupCollector) Read(interval time.Duration, output chan lp.CCMes
if coreCount > 0 && !m.isExcluded("job_max_mem_used") {
maxMemPerCore := jobdata.MaxMemoryUsage / coreCount
if y, err := lp.NewMessage("job_max_mem_used", coreTags, m.meta, map[string]any{"value": maxMemPerCore}, timestamp); err == nil {
if y, err := lp.NewMessage(
"job_max_mem_used",
coreTags,
m.meta,
map[string]any{
"value": maxMemPerCore},
timestamp); err == nil {
y.AddMeta("unit", "Bytes")
output <- y
}
@@ -270,7 +287,13 @@ func (m *SlurmCgroupCollector) Read(interval time.Duration, output chan lp.CCMes
if coreCount > 0 && !m.isExcluded("job_mem_limit") {
limitPerCore := jobdata.LimitMemoryUsage / coreCount
if y, err := lp.NewMessage("job_mem_limit", coreTags, m.meta, map[string]any{"value": limitPerCore}, timestamp); err == nil {
if y, err := lp.NewMessage(
"job_mem_limit",
coreTags,
m.meta,
map[string]any{
"value": limitPerCore},
timestamp); err == nil {
y.AddMeta("unit", "Bytes")
output <- y
}
@@ -278,7 +301,13 @@ func (m *SlurmCgroupCollector) Read(interval time.Duration, output chan lp.CCMes
if coreCount > 0 && !m.isExcluded("job_user_cpu") {
cpuUserPerCore := jobdata.CpuUsageUser / coreCount
if y, err := lp.NewMessage("job_user_cpu", coreTags, m.meta, map[string]any{"value": cpuUserPerCore}, timestamp); err == nil {
if y, err := lp.NewMessage(
"job_user_cpu",
coreTags,
m.meta,
map[string]any{
"value": cpuUserPerCore},
timestamp); err == nil {
y.AddMeta("unit", "%")
output <- y
}
@@ -286,7 +315,13 @@ func (m *SlurmCgroupCollector) Read(interval time.Duration, output chan lp.CCMes
if coreCount > 0 && !m.isExcluded("job_sys_cpu") {
cpuSysPerCore := jobdata.CpuUsageSys / coreCount
if y, err := lp.NewMessage("job_sys_cpu", coreTags, m.meta, map[string]any{"value": cpuSysPerCore}, timestamp); err == nil {
if y, err := lp.NewMessage(
"job_sys_cpu",
coreTags,
m.meta,
map[string]any{
"value": cpuSysPerCore},
timestamp); err == nil {
y.AddMeta("unit", "%")
output <- y
}
@@ -301,25 +336,43 @@ func (m *SlurmCgroupCollector) Read(interval time.Duration, output chan lp.CCMes
if !m.cpuUsed[cpu] {
coreTags := map[string]string{
"type": "hwthread",
"type-id": fmt.Sprintf("%d", cpu),
"type-id": strconv.Itoa(cpu),
}
if !m.isExcluded("job_mem_used") {
if y, err := lp.NewMessage("job_mem_used", coreTags, m.meta, map[string]any{"value": 0}, timestamp); err == nil {
if y, err := lp.NewMessage(
"job_mem_used",
coreTags,
m.meta,
map[string]any{
"value": 0},
timestamp); err == nil {
y.AddMeta("unit", "Bytes")
output <- y
}
}
if !m.isExcluded("job_max_mem_used") {
if y, err := lp.NewMessage("job_max_mem_used", coreTags, m.meta, map[string]any{"value": 0}, timestamp); err == nil {
if y, err := lp.NewMessage(
"job_max_mem_used",
coreTags,
m.meta,
map[string]any{
"value": 0},
timestamp); err == nil {
y.AddMeta("unit", "Bytes")
output <- y
}
}
if !m.isExcluded("job_mem_limit") {
if y, err := lp.NewMessage("job_mem_limit", coreTags, m.meta, map[string]any{"value": 0}, timestamp); err == nil {
if y, err := lp.NewMessage(
"job_mem_limit",
coreTags,
m.meta,
map[string]any{
"value": 0},
timestamp); err == nil {
y.AddMeta("unit", "Bytes")
output <- y
}

View File

@@ -81,7 +81,13 @@ func (m *TopProcsCollector) Read(interval time.Duration, output chan lp.CCMessag
lines := strings.Split(string(stdout), "\n")
for i := 1; i < m.config.Num_procs+1; i++ {
name := fmt.Sprintf("topproc%d", i)
y, err := lp.NewMessage(name, m.tags, m.meta, map[string]any{"value": string(lines[i])}, time.Now())
y, err := lp.NewMessage(
name,
m.tags,
m.meta,
map[string]any{
"value": lines[i]},
time.Now())
if err == nil {
output <- y
}