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Merge branch 'master' into superq/metric_names

This commit is contained in:
David Newhall II 2019-12-01 17:18:41 -08:00 committed by GitHub
parent 1df763e684 00794f8561
commit 341e21efd2
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22 changed files with 867 additions and 1351 deletions
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12
examples/up.conf.example
View File

@ -56,10 +56,6 @@ unifi_user = "influx"
unifi_pass = "4BB9345C-2341-48D7-99F5-E01B583FF77F"
unifi_url = "https://127.0.0.1:8443"
# Enable collection of Intrusion Detection System Data (InfluxDB only).
# Only useful if IDS or IPS are enabled on one of the sites.
collect_ids = false
# Some controllers or reverse proxy configurations do not allow cookies to be
# re-user on every request (every interval). This setting provides a workaround
# That causes the poller to re-auth (login) to the controller on every interval.
@ -67,6 +63,14 @@ collect_ids = false
# a few more requests to your controller every interval.
reauthenticate = false
# Enable collection of Intrusion Detection System Data (InfluxDB only).
# Only useful if IDS or IPS are enabled on one of the sites.
save_ids = false
# Enable collection of site data. This data powers the Network Sites dashboard.
# It's not valuable to everyone and setting this to false will save resources.
save_sites = true
# If your UniFi controller has a valid SSL certificate (like lets encrypt),
# you can enable this option to validate it. Otherwise, any SSL certificate is
# valid. If you don't know if you have a valid SSL cert, then you don't have one.

3
examples/up.json.example
View File

@ -13,7 +13,8 @@
"unifi_user": "influx",
"unifi_pass": "",
"unifi_url": "https://127.0.0.1:8443",
"collect_ids": false,
"save_ids": false,
"save_sites": true,
"reauthenticate": false,
"verify_ssl": false
}

78
examples/up.xml.example
View File

@ -2,99 +2,33 @@
<!--
#######################################################
# UniFi Poller primary configuration file. XML FORMAT #
# provided values are defaults #
# provided values are defaults. See up.conf.example! #
#######################################################
-->
<unifi-poller>
<!--
# If the controller has more than one site, specify which sites to poll here.
# Set this to "default" to poll only the first site on the controller.
# A setting of "all" will poll all sites; this works if you only have 1 site too.
Add more sites by adding additional lines:
<sites>site1</sites>
<sites>site2</sites>
-->
<sites>all</sites>
<interval>60s</interval>
<!--
# The UniFi Controller only updates traffic stats about every 30 seconds.
# Setting this to something lower may lead to "zeros" in your data.
# If you're getting zeros now, set this to "1m"
-->
<interval>30s</interval>
<!--
# Turns on line numbers, microsecond logging, and a per-device log.
# The default is false, but I personally leave this on at home (four devices).
# This may be noisy if you have a lot of devices. It adds one line per device.
-->
<debug>false</debug>
<!--
# Turns off per-interval logs. Only startup and error logs will be emitted.
# Recommend enabling debug with this setting for better error logging.
-->
<quiet>false</quiet>
<!--
# Which mode to run this application in. The default mode is "influx". Providing
# an invalid mode will also result in "influx". In this default mode the application
# runs as a daemon and polls the controller at the configured interval.
#
# There are two other options at this time: "influxlambda" and "prometheus"
#
# Mode "influxlambda" makes the application exit after collecting and reporting metrics
# to InfluxDB one time. This mode requires an external process like an AWS Lambda
# or a simple crontab to keep the timings accurate on UniFi Poller run intervals.
#
# Mode "prometheus" opens an HTTP server on port 9130 and exports the metrics at
# /metrics for polling collection by a prometheus server. This disables influxdb.
# IMPORTANT: The prometheus mode is still beta.
# Please help us test and provide your feedback on the github repo!
-->
<mode>influx</mode>
<!--
# This controls on which ip and port /metrics is exported when mode is "prometheus".
# This has no effect in other modes. Must contain a colon and port.
-->
<http_listen>0.0.0.0:9130</http_listen>
<!--
# InfluxDB does not require auth by default, so the user/password are probably unimportant.
-->
<influx_db>unifi</influx_db>
<influx_pass>unifi</influx_pass>
<influx_url>http://127.0.0.1:8086</influx_url>
<influx_user>unifi</influx_user>
<!--
# If your InfluxDB uses an invalid SSL cert, set this to true.
-->
<influx_insecure_ssl>false</influx_insecure_ssl>
<!--
# Make a read-only user in the UniFi Admin Settings.
-->
<unifi_user>influx</unifi_user>
<unifi_pass></unifi_pass>
<unifi_url>https://127.0.0.1:8443</unifi_url>
<!--
# Enable collection of Intrusion Detection System Data (InfluxDB only).
# Only useful if IDS or IPS are enabled on one of the sites.
-->
<collect_ids>false</collect_ids>
<!--
# Some controllers or reverse proxy configurations do not allow cookies to be
# re-user on every request (every interval). This setting provides a workaround
# That causes the poller to re-auth (login) to the controller on every interval.
# Only enable this if you get login errors after 30 seconds. This will generate
# a few more requests to your controller every interval.
-->
<reauthenticate>false</reauthenticate>
<!--
# If your UniFi controller has a valid SSL certificate, you can enable
# this option to validate it. Otherwise, any SSL certificate is valid.
-->
<verify_ssl>false</verify_ssl>
<save_ids>false</save_ids>
<save_sites>true</save_sites>
</unifi-poller>

53
examples/up.yaml.example
View File

@ -1,73 +1,28 @@
########################################################
# UniFi Poller primary configuration file. YAML FORMAT #
# provided values are defaults #
# provided values are defaults. See up.conf.example! #
########################################################
---
# If the controller has more than one site, specify which sites to poll here.
# Set this to "default" to poll only the first site on the controller.
# A setting of "all" will poll all sites; this works if you only have 1 site too.
sites:
- all
# The UniFi Controller only updates traffic stats about every 30 seconds.
# Setting this to something lower may lead to "zeros" in your data.
# If you're getting zeros now, set this to "1m"
# Only has effect if "mode" (below) is "influx" - other modes do not use interval.
interval: "30s"
# Turns on line numbers, microsecond logging, and a per-device log.
# The default is false, but I personally leave this on at home (four devices).
# This may be noisy if you have a lot of devices. It adds one line per device.
debug: false
# Turns off per-interval logs. Only startup and error logs will be emitted.
# Recommend enabling debug with this setting for better error logging.
quiet: false
# Which mode to run this application in. The default mode is "influx". Providing
# an invalid mode will also result in "influx". In this default mode the application
# runs as a daemon and polls the controller at the configured interval.
#
# There are two other options at this time: "influxlambda" and "prometheus"
#
# Mode "influxlambda" makes the application exit after collecting and reporting metrics
# to InfluxDB one time. This mode requires an external process like an AWS Lambda
# or a simple crontab to keep the timings accurate on UniFi Poller run intervals.
#
# Mode "prometheus" opens an HTTP server on port 9130 and exports the metrics at
# /metrics for polling collection by a prometheus server. This disables influxdb.
# IMPORTANT: The prometheus mode is still beta.
# Please help us test and provide your feedback on the github repo!
mode: "influx"
# This controls on which ip and port /metrics is exported when mode is "prometheus".
# This has no effect in other modes. Must contain a colon and port.
http_listen: "0.0.0.0:9130"
# InfluxDB does not require auth by default, so the user/password are probably unimportant.
influx_url: "http://127.0.0.1:8086"
influx_user: "unifi"
influx_pass: "unifi"
# Be sure to create this database.
influx_db: "unifi"
# If your InfluxDB uses an invalid SSL cert, set this to true.
influx_insecure_ssl: false
# Make a read-only user in the UniFi Admin Settings.
unifi_user: "influx"
unifi_pass: ""
unifi_url: "https://127.0.0.1:8443"
# Enable collection of Intrusion Detection System Data (InfluxDB only).
# Only useful if IDS or IPS are enabled on one of the sites.
collect_ids: false
# Some controllers or reverse proxy configurations do not allow cookies to be
# re-user on every request (every interval). This setting provides a workaround
# That causes the poller to re-auth (login) to the controller on every interval.
# Only enable this if you get login errors after 30 seconds. This will generate
# a few more requests to your controller every interval.
reauthenticate: false
# If your UniFi controller has a valid SSL certificate, you can enable
# this option to validate it. Otherwise, any SSL certificate is valid.
verify_ssl: false
save_ids: false
save_sites: true

166
pkg/influxunifi/clients.go
View File

@ -1,111 +1,79 @@
package influxunifi
import (
"time"
influx "github.com/influxdata/influxdb1-client/v2"
"golift.io/unifi"
)
// ClientPoints generates Unifi Client datapoints for InfluxDB.
// batchClient generates Unifi Client datapoints for InfluxDB.
// These points can be passed directly to influx.
func ClientPoints(c *unifi.Client, now time.Time) ([]*influx.Point, error) {
func (u *InfluxUnifi) batchClient(r report, s *unifi.Client) {
tags := map[string]string{
"id": c.ID,
"mac": c.Mac,
"user_id": c.UserID,
"site_id": c.SiteID,
"site_name": c.SiteName,
"network_id": c.NetworkID,
"usergroup_id": c.UserGroupID,
"ap_mac": c.ApMac,
"gw_mac": c.GwMac,
"sw_mac": c.SwMac,
"ap_name": c.ApName,
"gw_name": c.GwName,
"sw_name": c.SwName,
"oui": c.Oui,
"radio_name": c.RadioName,
"radio": c.Radio,
"radio_proto": c.RadioProto,
"name": c.Name,
"fixed_ip": c.FixedIP,
"sw_port": c.SwPort.Txt,
"os_class": c.OsClass.Txt,
"os_name": c.OsName.Txt,
"dev_cat": c.DevCat.Txt,
"dev_id": c.DevID.Txt,
"dev_vendor": c.DevVendor.Txt,
"dev_family": c.DevFamily.Txt,
"is_11r": c.Is11R.Txt,
"is_wired": c.IsWired.Txt,
"is_guest": c.IsGuest.Txt,
"is_guest_by_uap": c.IsGuestByUAP.Txt,
"is_guest_by_ugw": c.IsGuestByUGW.Txt,
"is_guest_by_usw": c.IsGuestByUSW.Txt,
"noted": c.Noted.Txt,
"powersave_enabled": c.PowersaveEnabled.Txt,
"qos_policy_applied": c.QosPolicyApplied.Txt,
"use_fixedip": c.UseFixedIP.Txt,
"channel": c.Channel.Txt,
"vlan": c.Vlan.Txt,
"mac": s.Mac,
"site_name": s.SiteName,
"ap_name": s.ApName,
"gw_name": s.GwName,
"sw_name": s.SwName,
"oui": s.Oui,
"radio_name": s.RadioName,
"radio": s.Radio,
"radio_proto": s.RadioProto,
"name": s.Name,
"fixed_ip": s.FixedIP,
"sw_port": s.SwPort.Txt,
"os_class": s.OsClass.Txt,
"os_name": s.OsName.Txt,
"dev_cat": s.DevCat.Txt,
"dev_id": s.DevID.Txt,
"dev_vendor": s.DevVendor.Txt,
"dev_family": s.DevFamily.Txt,
"is_wired": s.IsWired.Txt,
"is_guest": s.IsGuest.Txt,
"use_fixedip": s.UseFixedIP.Txt,
"channel": s.Channel.Txt,
"vlan": s.Vlan.Txt,
}
fields := map[string]interface{}{
"anomalies": c.Anomalies,
"ip": c.IP,
"essid": c.Essid,
"bssid": c.Bssid,
"radio_desc": c.RadioDescription,
"satisfaction": c.Satisfaction.Val,
"hostname": c.Hostname,
"dpi_stats_last_updated": c.DpiStatsLastUpdated,
"last_seen_by_uap": c.LastSeenByUAP,
"last_seen_by_ugw": c.LastSeenByUGW,
"last_seen_by_usw": c.LastSeenByUSW,
"uptime_by_uap": c.UptimeByUAP,
"uptime_by_ugw": c.UptimeByUGW,
"uptime_by_usw": c.UptimeByUSW,
"assoc_time": c.AssocTime,
"bytes_r": c.BytesR,
"ccq": c.Ccq,
"first_seen": c.FirstSeen,
"idle_time": c.IdleTime,
"last_seen": c.LastSeen,
"latest_assoc_time": c.LatestAssocTime,
"network": c.Network,
"noise": c.Noise,
"note": c.Note,
"roam_count": c.RoamCount,
"rssi": c.Rssi,
"rx_bytes": c.RxBytes,
"rx_bytes_r": c.RxBytesR,
"rx_packets": c.RxPackets,
"rx_rate": c.RxRate,
"signal": c.Signal,
"tx_bytes": c.TxBytes,
"tx_bytes_r": c.TxBytesR,
"tx_packets": c.TxPackets,
"tx_retries": c.TxRetries,
"tx_power": c.TxPower,
"tx_rate": c.TxRate,
"uptime": c.Uptime,
"wifi_tx_attempts": c.WifiTxAttempts,
"wired-rx_bytes": c.WiredRxBytes,
"wired-rx_bytes-r": c.WiredRxBytesR,
"wired-rx_packets": c.WiredRxPackets,
"wired-tx_bytes": c.WiredTxBytes,
"wired-tx_bytes-r": c.WiredTxBytesR,
"wired-tx_packets": c.WiredTxPackets,
"dpi_app": c.DpiStats.App.Val,
"dpi_cat": c.DpiStats.Cat.Val,
"dpi_rx_bytes": c.DpiStats.RxBytes.Val,
"dpi_rx_packets": c.DpiStats.RxPackets.Val,
"dpi_tx_bytes": c.DpiStats.TxBytes.Val,
"dpi_tx_packets": c.DpiStats.TxPackets.Val,
"anomalies": s.Anomalies,
"ip": s.IP,
"essid": s.Essid,
"bssid": s.Bssid,
"channel": s.Channel.Val,
"hostname": s.Name,
"radio_desc": s.RadioDescription,
"satisfaction": s.Satisfaction.Val,
"bytes_r": s.BytesR,
"ccq": s.Ccq,
"noise": s.Noise,
"note": s.Note,
"roam_count": s.RoamCount,
"rssi": s.Rssi,
"rx_bytes": s.RxBytes,
"rx_bytes_r": s.RxBytesR,
"rx_packets": s.RxPackets,
"rx_rate": s.RxRate,
"signal": s.Signal,
"tx_bytes": s.TxBytes,
"tx_bytes_r": s.TxBytesR,
"tx_packets": s.TxPackets,
"tx_retries": s.TxRetries,
"tx_power": s.TxPower,
"tx_rate": s.TxRate,
"uptime": s.Uptime,
"wifi_tx_attempts": s.WifiTxAttempts,
"wired-rx_bytes": s.WiredRxBytes,
"wired-rx_bytes-r": s.WiredRxBytesR,
"wired-rx_packets": s.WiredRxPackets,
"wired-tx_bytes": s.WiredTxBytes,
"wired-tx_bytes-r": s.WiredTxBytesR,
"wired-tx_packets": s.WiredTxPackets,
/*
"dpi_app": c.DpiStats.App.Val,
"dpi_cat": c.DpiStats.Cat.Val,
"dpi_rx_bytes": c.DpiStats.RxBytes.Val,
"dpi_rx_packets": c.DpiStats.RxPackets.Val,
"dpi_tx_bytes": c.DpiStats.TxBytes.Val,
"dpi_tx_packets": c.DpiStats.TxPackets.Val,
*/
}
pt, err := influx.NewPoint("clients", tags, fields, now)
if err != nil {
return nil, err
}
return []*influx.Point{pt}, nil
r.send(&metric{Table: "clients", Tags: tags, Fields: fields})
}

11
pkg/influxunifi/ids.go
View File

@ -1,13 +1,12 @@
package influxunifi
import (
influx "github.com/influxdata/influxdb1-client/v2"
"golift.io/unifi"
)
// IDSPoints generates intrusion detection datapoints for InfluxDB.
// batchIDS generates intrusion detection datapoints for InfluxDB.
// These points can be passed directly to influx.
func IDSPoints(i *unifi.IDS) ([]*influx.Point, error) {
func (u *InfluxUnifi) batchIDS(r report, i *unifi.IDS) {
tags := map[string]string{
"in_iface": i.InIface,
"event_type": i.EventType,
@ -36,9 +35,5 @@ func IDSPoints(i *unifi.IDS) ([]*influx.Point, error) {
"srcipASN": i.SrcipASN,
"usgipASN": i.UsgipASN,
}
pt, err := influx.NewPoint("intrusion_detect", tags, fields, i.Datetime)
if err != nil {
return nil, err
}
return []*influx.Point{pt}, nil
r.send(&metric{Table: "intrusion_detect", Tags: tags, Fields: fields})
}

179
pkg/influxunifi/metrics.go
View File

@ -3,67 +3,140 @@
package influxunifi
import (
"crypto/tls"
"fmt"
"time"
"github.com/davidnewhall/unifi-poller/pkg/metrics"
client "github.com/influxdata/influxdb1-client/v2"
influx "github.com/influxdata/influxdb1-client/v2"
)
// Metrics contains all the data from the controller and an influx endpoint to send it to.
type Metrics struct {
*metrics.Metrics
client.BatchPoints
// Config defines the data needed to store metrics in InfluxDB
type Config struct {
Database string
URL string
User string
Pass string
BadSSL bool
}
// ProcessPoints batches all device and client data into influxdb data points.
// InfluxUnifi is returned by New() after you provide a Config.
type InfluxUnifi struct {
cf *Config
influx influx.Client
}
type metric struct {
Table string
Tags map[string]string
Fields map[string]interface{}
}
// New returns an InfluxDB interface.
func New(c *Config) (*InfluxUnifi, error) {
i, err := influx.NewHTTPClient(influx.HTTPConfig{
Addr: c.URL,
Username: c.User,
Password: c.Pass,
TLSConfig: &tls.Config{InsecureSkipVerify: c.BadSSL},
})
return &InfluxUnifi{cf: c, influx: i}, err
}
// ReportMetrics batches all device and client data into influxdb data points.
// Call this after you've collected all the data you care about.
// This function is sorta weird and returns a slice of errors. The reasoning is
// that some points may process while others fail, so we attempt to process them
// all. This is (usually) run in a loop, so we can't really exit on error,
// we just log the errors and tally them on a counter. In reality, this never
// returns any errors because we control the data going in; cool right? But we
// still check&log it in case the data going is skewed up and causes errors!
func (m *Metrics) ProcessPoints() []error {
errs := []error{}
processPoints := func(m *Metrics, p []*client.Point, err error) {
switch {
case err != nil:
errs = append(errs, err)
case p == nil:
default:
m.AddPoints(p)
}
// Returns an error if influxdb calls fail, otherwise returns a report.
func (u *InfluxUnifi) ReportMetrics(m *metrics.Metrics) (*Report, error) {
r := &Report{Metrics: m, ch: make(chan *metric), Start: time.Now()}
defer close(r.ch)
// Make a new Influx Points Batcher.
var err error
r.bp, err = influx.NewBatchPoints(influx.BatchPointsConfig{Database: u.cf.Database})
if err != nil {
return nil, fmt.Errorf("influx.NewBatchPoints: %v", err)
}
for _, asset := range m.Sites {
pts, err := SitePoints(asset, m.TS)
processPoints(m, pts, err)
}
for _, asset := range m.Clients {
pts, err := ClientPoints(asset, m.TS)
processPoints(m, pts, err)
}
for _, asset := range m.IDSList {
pts, err := IDSPoints(asset) // no m.TS.
processPoints(m, pts, err)
}
go u.collect(r, r.ch)
// Batch all the points.
u.loopPoints(r)
r.wg.Wait() // wait for all points to finish batching!
if m.Devices == nil {
return errs
// Send all the points.
if err = u.influx.Write(r.bp); err != nil {
return nil, fmt.Errorf("influxdb.Write(points): %v", err)
}
for _, asset := range m.Devices.UAPs {
pts, err := UAPPoints(asset, m.TS)
processPoints(m, pts, err)
}
for _, asset := range m.Devices.USGs {
pts, err := USGPoints(asset, m.TS)
processPoints(m, pts, err)
}
for _, asset := range m.Devices.USWs {
pts, err := USWPoints(asset, m.TS)
processPoints(m, pts, err)
}
for _, asset := range m.Devices.UDMs {
pts, err := UDMPoints(asset, m.TS)
processPoints(m, pts, err)
}
return errs
r.Elapsed = time.Since(r.Start)
return r, nil
}
// collect runs in a go routine and batches all the points.
func (u *InfluxUnifi) collect(r report, ch chan *metric) {
for m := range ch {
pt, err := influx.NewPoint(m.Table, m.Tags, m.Fields, r.metrics().TS)
if err != nil {
r.error(err)
} else {
r.batch(m, pt)
}
r.done()
}
}
// loopPoints kicks off 3 or 7 go routines to process metrics and send them
// to the collect routine through the metric channel.
func (u *InfluxUnifi) loopPoints(r report) {
m := r.metrics()
r.add()
go func() {
defer r.done()
for _, s := range m.Sites {
u.batchSite(r, s)
}
}()
r.add()
go func() {
defer r.done()
for _, s := range m.Clients {
u.batchClient(r, s)
}
}()
r.add()
go func() {
defer r.done()
for _, s := range m.IDSList {
u.batchIDS(r, s)
}
}()
if m.Devices == nil {
return
}
r.add()
go func() {
defer r.done()
for _, s := range m.UAPs {
u.batchUAP(r, s)
}
}()
r.add()
go func() {
defer r.done()
for _, s := range m.USGs {
u.batchUSG(r, s)
}
}()
r.add()
go func() {
defer r.done()
for _, s := range m.USWs {
u.batchUSW(r, s)
}
}()
r.add()
go func() {
defer r.done()
for _, s := range m.UDMs {
u.batchUDM(r, s)
}
}()
}

64
pkg/influxunifi/report.go Normal file
View File

@ -0,0 +1,64 @@
package influxunifi
import (
"sync"
"time"
"github.com/davidnewhall/unifi-poller/pkg/metrics"
influx "github.com/influxdata/influxdb1-client/v2"
)
// Report is returned to the calling procedure after everything is processed.
type Report struct {
Metrics *metrics.Metrics
Errors []error
Total int
Fields int
Start time.Time
Elapsed time.Duration
ch chan *metric
wg sync.WaitGroup
bp influx.BatchPoints
}
// report is an internal interface that can be mocked and overrridden for tests.
type report interface {
add()
done()
send(m *metric)
error(err error)
batch(m *metric, pt *influx.Point)
metrics() *metrics.Metrics
}
func (r *Report) metrics() *metrics.Metrics {
return r.Metrics
}
// satisfy gomnd
const one = 1
func (r *Report) add() {
r.wg.Add(one)
}
func (r *Report) done() {
r.wg.Add(-one)
}
func (r *Report) send(m *metric) {
r.wg.Add(one)
r.ch <- m
}
/* The following methods are not thread safe. */
func (r *Report) error(err error) {
r.Errors = append(r.Errors, err)
}
func (r *Report) batch(m *metric, p *influx.Point) {
r.Total++
r.Fields += len(m.Fields)
r.bp.AddPoint(p)
}

113
pkg/influxunifi/site.go
View File

@ -1,83 +1,56 @@
package influxunifi
import (
"strings"
"time"
influx "github.com/influxdata/influxdb1-client/v2"
"golift.io/unifi"
)
// SitePoints generates Unifi Sites' datapoints for InfluxDB.
// batchSite generates Unifi Sites' datapoints for InfluxDB.
// These points can be passed directly to influx.
func SitePoints(u *unifi.Site, now time.Time) ([]*influx.Point, error) {
points := []*influx.Point{}
for _, s := range u.Health {
func (u *InfluxUnifi) batchSite(r report, s *unifi.Site) {
for _, h := range s.Health {
tags := map[string]string{
"id": u.ID,
"name": u.Name,
"site_name": u.SiteName,
"desc": u.Desc,
"status": s.Status,
"subsystem": s.Subsystem,
"wan_ip": s.WanIP,
"netmask": s.Netmask,
"gw_name": s.GwName,
"gw_mac": s.GwMac,
"gw_version": s.GwVersion,
"speedtest_status": s.SpeedtestStatus,
"lan_ip": s.LanIP,
"remote_user_enabled": s.RemoteUserEnabled.Txt,
"site_to_site_enabled": s.SiteToSiteEnabled.Txt,
"nameservers": strings.Join(s.Nameservers, ","),
"gateways": strings.Join(s.Gateways, ","),
"num_new_alarms": u.NumNewAlarms.Txt,
"attr_hidden_id": u.AttrHiddenID,
"attr_no_delete": u.AttrNoDelete.Txt,
"name": s.Name,
"site_name": s.SiteName,
"desc": s.Desc,
"status": h.Status,
"subsystem": h.Subsystem,
"wan_ip": h.WanIP,
"gw_name": h.GwName,
"lan_ip": h.LanIP,
}
fields := map[string]interface{}{
"attr_hidden_id": u.AttrHiddenID,
"attr_no_delete": u.AttrNoDelete.Val,
"num_user": s.NumUser.Val,
"num_guest": s.NumGuest.Val,
"num_iot": s.NumIot.Val,
"tx_bytes-r": s.TxBytesR.Val,
"rx_bytes-r": s.RxBytesR.Val,
"status": s.Status,
"num_ap": s.NumAp.Val,
"num_adopted": s.NumAdopted.Val,
"num_disabled": s.NumDisabled.Val,
"num_disconnected": s.NumDisconnected.Val,
"num_pending": s.NumPending.Val,
"num_gw": s.NumGw.Val,
"wan_ip": s.WanIP,
"num_sta": s.NumSta.Val,
"gw_cpu": s.GwSystemStats.CPU.Val,
"gw_mem": s.GwSystemStats.Mem.Val,
"gw_uptime": s.GwSystemStats.Uptime.Val,
"latency": s.Latency.Val,
"uptime": s.Uptime.Val,
"drops": s.Drops.Val,
"xput_up": s.XputUp.Val,
"xput_down": s.XputDown.Val,
"speedtest_ping": s.SpeedtestPing.Val,
"speedtest_lastrun": s.SpeedtestLastrun.Val,
"num_sw": s.NumSw.Val,
"remote_user_num_active": s.RemoteUserNumActive.Val,
"remote_user_num_inactive": s.RemoteUserNumInactive.Val,
"remote_user_rx_bytes": s.RemoteUserRxBytes.Val,
"remote_user_tx_bytes": s.RemoteUserTxBytes.Val,
"remote_user_rx_packets": s.RemoteUserRxPackets.Val,
"remote_user_tx_packets": s.RemoteUserTxPackets.Val,
"num_new_alarms": u.NumNewAlarms.Val,
"nameservers": len(s.Nameservers),
"gateways": len(s.Gateways),
"num_user": h.NumUser.Val,
"num_guest": h.NumGuest.Val,
"num_iot": h.NumIot.Val,
"tx_bytes-r": h.TxBytesR.Val,
"rx_bytes-r": h.RxBytesR.Val,
"num_ap": h.NumAp.Val,
"num_adopted": h.NumAdopted.Val,
"num_disabled": h.NumDisabled.Val,
"num_disconnected": h.NumDisconnected.Val,
"num_pending": h.NumPending.Val,
"num_gw": h.NumGw.Val,
"wan_ip": h.WanIP,
"num_sta": h.NumSta.Val,
"gw_cpu": h.GwSystemStats.CPU.Val,
"gw_mem": h.GwSystemStats.Mem.Val,
"gw_uptime": h.GwSystemStats.Uptime.Val,
"latency": h.Latency.Val,
"uptime": h.Uptime.Val,
"drops": h.Drops.Val,
"xput_up": h.XputUp.Val,
"xput_down": h.XputDown.Val,
"speedtest_ping": h.SpeedtestPing.Val,
"speedtest_lastrun": h.SpeedtestLastrun.Val,
"num_sw": h.NumSw.Val,
"remote_user_num_active": h.RemoteUserNumActive.Val,
"remote_user_num_inactive": h.RemoteUserNumInactive.Val,
"remote_user_rx_bytes": h.RemoteUserRxBytes.Val,
"remote_user_tx_bytes": h.RemoteUserTxBytes.Val,
"remote_user_rx_packets": h.RemoteUserRxPackets.Val,
"remote_user_tx_packets": h.RemoteUserTxPackets.Val,
"num_new_alarms": s.NumNewAlarms.Val,
}
pt, err := influx.NewPoint("subsystems", tags, fields, time.Now())
if err != nil {
return points, err
}
points = append(points, pt)
r.send(&metric{Table: "subsystems", Tags: tags, Fields: fields})
}
return points, nil
}

354
pkg/influxunifi/uap.go
View File

@ -1,214 +1,176 @@
package influxunifi
import (
"time"
influx "github.com/influxdata/influxdb1-client/v2"
"golift.io/unifi"
)
// UAPPoints generates Wireless-Access-Point datapoints for InfluxDB.
// batchUAP generates Wireless-Access-Point datapoints for InfluxDB.
// These points can be passed directly to influx.
func UAPPoints(u *unifi.UAP, now time.Time) ([]*influx.Point, error) {
if u.Stat.Ap == nil {
u.Stat.Ap = &unifi.Ap{}
func (u *InfluxUnifi) batchUAP(r report, s *unifi.UAP) {
if s.Stat.Ap == nil {
s.Stat.Ap = &unifi.Ap{}
}
tags := map[string]string{
"id": u.ID,
"ip": u.IP,
"mac": u.Mac,
"device_type": u.Stat.Ap.O,
"device_oid": u.Stat.Ap.Oid,
"device_ap": u.Stat.Ap.Ap,
"site_id": u.SiteID,
"site_name": u.SiteName,
"name": u.Name,
"adopted": u.Adopted.Txt,
"cfgversion": u.Cfgversion,
"config_network_ip": u.ConfigNetwork.IP,
"config_network_type": u.ConfigNetwork.Type,
"connect_request_ip": u.ConnectRequestIP,
"device_id": u.DeviceID,
"has_eth1": u.HasEth1.Txt,
"inform_ip": u.InformIP,
"known_cfgversion": u.KnownCfgversion,
"model": u.Model,
"serial": u.Serial,
"type": u.Type,
"mac": s.Mac,
"site_name": s.SiteName,
"name": s.Name,
"version": s.Version,
"model": s.Model,
"serial": s.Serial,
"type": s.Type,
}
fields := map[string]interface{}{
"ip": u.IP,
"bytes": u.Bytes.Val,
"last_seen": u.LastSeen.Val,
"rx_bytes": u.RxBytes.Val,
"tx_bytes": u.TxBytes.Val,
"uptime": u.Uptime.Val,
"state": u.State,
"user-num_sta": int(u.UserNumSta.Val),
"guest-num_sta": int(u.GuestNumSta.Val),
"num_sta": u.NumSta.Val,
"version": u.Version,
"loadavg_1": u.SysStats.Loadavg1.Val,
"loadavg_5": u.SysStats.Loadavg5.Val,
"loadavg_15": u.SysStats.Loadavg15.Val,
"mem_buffer": u.SysStats.MemBuffer.Val,
"mem_total": u.SysStats.MemTotal.Val,
"mem_used": u.SysStats.MemUsed.Val,
"cpu": u.SystemStats.CPU.Val,
"mem": u.SystemStats.Mem.Val,
"system_uptime": u.SystemStats.Uptime.Val,
// Accumulative Statistics.
"stat_user-rx_packets": u.Stat.Ap.UserRxPackets.Val,
"stat_guest-rx_packets": u.Stat.Ap.GuestRxPackets.Val,
"stat_rx_packets": u.Stat.Ap.RxPackets.Val,
"stat_user-rx_bytes": u.Stat.Ap.UserRxBytes.Val,
"stat_guest-rx_bytes": u.Stat.Ap.GuestRxBytes.Val,
"stat_rx_bytes": u.Stat.Ap.RxBytes.Val,
"stat_user-rx_errors": u.Stat.Ap.UserRxErrors.Val,
"stat_guest-rx_errors": u.Stat.Ap.GuestRxErrors.Val,
"stat_rx_errors": u.Stat.Ap.RxErrors.Val,
"stat_user-rx_dropped": u.Stat.Ap.UserRxDropped.Val,
"stat_guest-rx_dropped": u.Stat.Ap.GuestRxDropped.Val,
"stat_rx_dropped": u.Stat.Ap.RxDropped.Val,
"stat_user-rx_crypts": u.Stat.Ap.UserRxCrypts.Val,
"stat_guest-rx_crypts": u.Stat.Ap.GuestRxCrypts.Val,
"stat_rx_crypts": u.Stat.Ap.RxCrypts.Val,
"stat_user-rx_frags": u.Stat.Ap.UserRxFrags.Val,
"stat_guest-rx_frags": u.Stat.Ap.GuestRxFrags.Val,
"stat_rx_frags": u.Stat.Ap.RxFrags.Val,
"stat_user-tx_packets": u.Stat.Ap.UserTxPackets.Val,
"stat_guest-tx_packets": u.Stat.Ap.GuestTxPackets.Val,
"stat_tx_packets": u.Stat.Ap.TxPackets.Val,
"stat_user-tx_bytes": u.Stat.Ap.UserTxBytes.Val,
"stat_guest-tx_bytes": u.Stat.Ap.GuestTxBytes.Val,
"stat_tx_bytes": u.Stat.Ap.TxBytes.Val,
"stat_user-tx_errors": u.Stat.Ap.UserTxErrors.Val,
"stat_guest-tx_errors": u.Stat.Ap.GuestTxErrors.Val,
"stat_tx_errors": u.Stat.Ap.TxErrors.Val,
"stat_user-tx_dropped": u.Stat.Ap.UserTxDropped.Val,
"stat_guest-tx_dropped": u.Stat.Ap.GuestTxDropped.Val,
"stat_tx_dropped": u.Stat.Ap.TxDropped.Val,
"stat_user-tx_retries": u.Stat.Ap.UserTxRetries.Val,
"stat_guest-tx_retries": u.Stat.Ap.GuestTxRetries.Val,
}
pt, err := influx.NewPoint("uap", tags, fields, now)
if err != nil {
return nil, err
}
morePoints, err := processVAPs(u.VapTable, u.RadioTable, u.RadioTableStats, u.Name, u.ID, u.Mac, u.SiteName, now)
if err != nil {
return nil, err
}
return append(morePoints, pt), nil
fields := Combine(u.processUAPstats(s.Stat.Ap), u.batchSysStats(s.SysStats, s.SystemStats))
fields["ip"] = s.IP
fields["bytes"] = s.Bytes.Val
fields["last_seen"] = s.LastSeen.Val
fields["rx_bytes"] = s.RxBytes.Val
fields["tx_bytes"] = s.TxBytes.Val
fields["uptime"] = s.Uptime.Val
fields["state"] = s.State
fields["user-num_sta"] = int(s.UserNumSta.Val)
fields["guest-num_sta"] = int(s.GuestNumSta.Val)
fields["num_sta"] = s.NumSta.Val
r.send(&metric{Table: "uap", Tags: tags, Fields: fields})
u.processRadTable(r, tags, s.RadioTable, s.RadioTableStats)
u.processVAPTable(r, tags, s.VapTable)
}
// processVAPs creates points for Wifi Radios. This works with several types of UAP-capable devices.
func processVAPs(vt unifi.VapTable, rt unifi.RadioTable, rts unifi.RadioTableStats, name, id, mac, sitename string, ts time.Time) ([]*influx.Point, error) {
tags := make(map[string]string)
fields := make(map[string]interface{})
points := []*influx.Point{}
func (u *InfluxUnifi) processUAPstats(ap *unifi.Ap) map[string]interface{} {
// Accumulative Statistics.
return map[string]interface{}{
"stat_user-rx_packets": ap.UserRxPackets.Val,
"stat_guest-rx_packets": ap.GuestRxPackets.Val,
"stat_rx_packets": ap.RxPackets.Val,
"stat_user-rx_bytes": ap.UserRxBytes.Val,
"stat_guest-rx_bytes": ap.GuestRxBytes.Val,
"stat_rx_bytes": ap.RxBytes.Val,
"stat_user-rx_errors": ap.UserRxErrors.Val,
"stat_guest-rx_errors": ap.GuestRxErrors.Val,
"stat_rx_errors": ap.RxErrors.Val,
"stat_user-rx_dropped": ap.UserRxDropped.Val,
"stat_guest-rx_dropped": ap.GuestRxDropped.Val,
"stat_rx_dropped": ap.RxDropped.Val,
"stat_user-rx_crypts": ap.UserRxCrypts.Val,
"stat_guest-rx_crypts": ap.GuestRxCrypts.Val,
"stat_rx_crypts": ap.RxCrypts.Val,
"stat_user-rx_frags": ap.UserRxFrags.Val,
"stat_guest-rx_frags": ap.GuestRxFrags.Val,
"stat_rx_frags": ap.RxFrags.Val,
"stat_user-tx_packets": ap.UserTxPackets.Val,
"stat_guest-tx_packets": ap.GuestTxPackets.Val,
"stat_tx_packets": ap.TxPackets.Val,
"stat_user-tx_bytes": ap.UserTxBytes.Val,
"stat_guest-tx_bytes": ap.GuestTxBytes.Val,
"stat_tx_bytes": ap.TxBytes.Val,
"stat_user-tx_errors": ap.UserTxErrors.Val,
"stat_guest-tx_errors": ap.GuestTxErrors.Val,
"stat_tx_errors": ap.TxErrors.Val,
"stat_user-tx_dropped": ap.UserTxDropped.Val,
"stat_guest-tx_dropped": ap.GuestTxDropped.Val,
"stat_tx_dropped": ap.TxDropped.Val,
"stat_user-tx_retries": ap.UserTxRetries.Val,
"stat_guest-tx_retries": ap.GuestTxRetries.Val,
}
}
// Loop each virtual AP (ESSID) and extract data for it
// from radio_tables and radio_table_stats.
// processVAPTable creates points for Wifi Radios. This works with several types of UAP-capable devices.
func (u *InfluxUnifi) processVAPTable(r report, t map[string]string, vt unifi.VapTable) {
for _, s := range vt {
tags["device_name"] = name
tags["device_id"] = id
tags["device_mac"] = mac
tags["site_name"] = sitename
tags["ap_mac"] = s.ApMac
tags["bssid"] = s.Bssid
tags["id"] = s.ID
tags["name"] = s.Name
tags["radio_name"] = s.RadioName
tags["wlanconf_id"] = s.WlanconfID
tags["essid"] = s.Essid
tags["site_id"] = s.SiteID
tags["usage"] = s.Usage
tags["state"] = s.State
tags["is_guest"] = s.IsGuest.Txt
tags["is_wep"] = s.IsWep.Txt
fields["ccq"] = s.Ccq
fields["extchannel"] = s.Extchannel
fields["mac_filter_rejections"] = s.MacFilterRejections
fields["num_satisfaction_sta"] = s.NumSatisfactionSta.Val
fields["avg_client_signal"] = s.AvgClientSignal.Val
fields["satisfaction"] = s.Satisfaction.Val
fields["satisfaction_now"] = s.SatisfactionNow.Val
fields["rx_bytes"] = s.RxBytes.Val
fields["rx_crypts"] = s.RxCrypts.Val
fields["rx_dropped"] = s.RxDropped.Val
fields["rx_errors"] = s.RxErrors.Val
fields["rx_frags"] = s.RxFrags.Val
fields["rx_nwids"] = s.RxNwids.Val
fields["rx_packets"] = s.RxPackets.Val
fields["tx_bytes"] = s.TxBytes.Val
fields["tx_dropped"] = s.TxDropped.Val
fields["tx_errors"] = s.TxErrors.Val
fields["tx_packets"] = s.TxPackets.Val
fields["tx_power"] = s.TxPower.Val
fields["tx_retries"] = s.TxRetries.Val
fields["tx_combined_retries"] = s.TxCombinedRetries.Val
fields["tx_data_mpdu_bytes"] = s.TxDataMpduBytes.Val
fields["tx_rts_retries"] = s.TxRtsRetries.Val
fields["tx_success"] = s.TxSuccess.Val
fields["tx_total"] = s.TxTotal.Val
fields["tx_tcp_goodbytes"] = s.TxTCPStats.Goodbytes.Val
fields["tx_tcp_lat_avg"] = s.TxTCPStats.LatAvg.Val
fields["tx_tcp_lat_max"] = s.TxTCPStats.LatMax.Val
fields["tx_tcp_lat_min"] = s.TxTCPStats.LatMin.Val
fields["rx_tcp_goodbytes"] = s.RxTCPStats.Goodbytes.Val
fields["rx_tcp_lat_avg"] = s.RxTCPStats.LatAvg.Val
fields["rx_tcp_lat_max"] = s.RxTCPStats.LatMax.Val
fields["rx_tcp_lat_min"] = s.RxTCPStats.LatMin.Val
fields["wifi_tx_latency_mov_avg"] = s.WifiTxLatencyMov.Avg.Val
fields["wifi_tx_latency_mov_max"] = s.WifiTxLatencyMov.Max.Val
fields["wifi_tx_latency_mov_min"] = s.WifiTxLatencyMov.Min.Val
fields["wifi_tx_latency_mov_total"] = s.WifiTxLatencyMov.Total.Val
fields["wifi_tx_latency_mov_cuont"] = s.WifiTxLatencyMov.TotalCount.Val
for _, p := range rt {
if p.Name != s.RadioName {
continue
}
tags["wlangroup_id"] = p.WlangroupID
tags["channel"] = p.Channel.Txt
tags["radio"] = p.Radio
fields["current_antenna_gain"] = p.CurrentAntennaGain.Val
fields["ht"] = p.Ht.Txt
fields["max_txpower"] = p.MaxTxpower.Val
fields["min_rssi_enabled"] = p.MinRssiEnabled.Val
fields["min_txpower"] = p.MinTxpower.Val
fields["nss"] = p.Nss.Val
fields["radio_caps"] = p.RadioCaps.Val
fields["tx_power"] = p.TxPower.Val
tags := map[string]string{
"device_name": t["name"],
"site_name": t["site_name"],
"ap_mac": s.ApMac,
"bssid": s.Bssid,
"id": s.ID,
"name": s.Name,
"radio_name": s.RadioName,
"radio": s.Radio,
"essid": s.Essid,
"site_id": s.SiteID,
"usage": s.Usage,
"state": s.State,
"is_guest": s.IsGuest.Txt,
}
for _, p := range rts {
if p.Name != s.RadioName {
continue
}
fields["ast_be_xmit"] = p.AstBeXmit.Val
fields["channel"] = p.Channel.Val
fields["cu_self_rx"] = p.CuSelfRx.Val
fields["cu_self_tx"] = p.CuSelfTx.Val
fields["cu_total"] = p.CuTotal.Val
fields["extchannel"] = p.Extchannel.Val
fields["gain"] = p.Gain.Val
fields["guest-num_sta"] = p.GuestNumSta.Val
fields["num_sta"] = p.NumSta.Val
fields["radio"] = p.Radio
fields["tx_packets"] = p.TxPackets.Val
fields["tx_power"] = p.TxPower.Val
fields["tx_retries"] = p.TxRetries.Val
fields["user-num_sta"] = p.UserNumSta.Val
fields := map[string]interface{}{
"ccq": s.Ccq,
"mac_filter_rejections": s.MacFilterRejections,
"num_satisfaction_sta": s.NumSatisfactionSta.Val,
"avg_client_signal": s.AvgClientSignal.Val,
"satisfaction": s.Satisfaction.Val,
"satisfaction_now": s.SatisfactionNow.Val,
"num_sta": s.NumSta,
"channel": s.Channel,
"rx_bytes": s.RxBytes.Val,
"rx_crypts": s.RxCrypts.Val,
"rx_dropped": s.RxDropped.Val,
"rx_errors": s.RxErrors.Val,
"rx_frags": s.RxFrags.Val,
"rx_nwids": s.RxNwids.Val,
"rx_packets": s.RxPackets.Val,
"tx_bytes": s.TxBytes.Val,
"tx_dropped": s.TxDropped.Val,
"tx_errors": s.TxErrors.Val,
"tx_packets": s.TxPackets.Val,
"tx_power": s.TxPower.Val,
"tx_retries": s.TxRetries.Val,
"tx_combined_retries": s.TxCombinedRetries.Val,
"tx_data_mpdu_bytes": s.TxDataMpduBytes.Val,
"tx_rts_retries": s.TxRtsRetries.Val,
"tx_success": s.TxSuccess.Val,
"tx_total": s.TxTotal.Val,
"tx_tcp_goodbytes": s.TxTCPStats.Goodbytes.Val,
"tx_tcp_lat_avg": s.TxTCPStats.LatAvg.Val,
"tx_tcp_lat_max": s.TxTCPStats.LatMax.Val,
"tx_tcp_lat_min": s.TxTCPStats.LatMin.Val,
"rx_tcp_goodbytes": s.RxTCPStats.Goodbytes.Val,
"rx_tcp_lat_avg": s.RxTCPStats.LatAvg.Val,
"rx_tcp_lat_max": s.RxTCPStats.LatMax.Val,
"rx_tcp_lat_min": s.RxTCPStats.LatMin.Val,
"wifi_tx_latency_mov_avg": s.WifiTxLatencyMov.Avg.Val,
"wifi_tx_latency_mov_max": s.WifiTxLatencyMov.Max.Val,
"wifi_tx_latency_mov_min": s.WifiTxLatencyMov.Min.Val,
"wifi_tx_latency_mov_total": s.WifiTxLatencyMov.Total.Val,
"wifi_tx_latency_mov_cuont": s.WifiTxLatencyMov.TotalCount.Val,
}
pt, err := influx.NewPoint("uap_vaps", tags, fields, ts)
if err != nil {
return points, err
}
points = append(points, pt)
r.send(&metric{Table: "uap_vaps", Tags: tags, Fields: fields})
}
}
func (u *InfluxUnifi) processRadTable(r report, t map[string]string, rt unifi.RadioTable, rts unifi.RadioTableStats) {
for _, p := range rt {
tags := map[string]string{
"device_name": t["name"],
"site_name": t["site_name"],
"channel": p.Channel.Txt,
"radio": p.Radio,
}
fields := map[string]interface{}{
"current_antenna_gain": p.CurrentAntennaGain.Val,
"ht": p.Ht.Txt,
"max_txpower": p.MaxTxpower.Val,
"min_txpower": p.MinTxpower.Val,
"nss": p.Nss.Val,
"radio_caps": p.RadioCaps.Val,
}
for _, t := range rts {
if t.Name == p.Name {
fields["ast_be_xmit"] = t.AstBeXmit.Val
fields["channel"] = t.Channel.Val
fields["cu_self_rx"] = t.CuSelfRx.Val
fields["cu_self_tx"] = t.CuSelfTx.Val
fields["cu_total"] = t.CuTotal.Val
fields["extchannel"] = t.Extchannel.Val
fields["gain"] = t.Gain.Val
fields["guest-num_sta"] = t.GuestNumSta.Val
fields["num_sta"] = t.NumSta.Val
fields["radio"] = t.Radio
fields["tx_packets"] = t.TxPackets.Val
fields["tx_power"] = t.TxPower.Val
fields["tx_retries"] = t.TxRetries.Val
fields["user-num_sta"] = t.UserNumSta.Val
break
}
}
r.send(&metric{Table: "uap_radios", Tags: tags, Fields: fields})
}
return points, nil
}

517
pkg/influxunifi/udm.go
View File

@ -1,416 +1,141 @@
package influxunifi
import (
"time"
influx "github.com/influxdata/influxdb1-client/v2"
"golift.io/unifi"
)
// UDMPoints generates Unifi Gateway datapoints for InfluxDB.
// These points can be passed directly to influx.
func UDMPoints(u *unifi.UDM, now time.Time) ([]*influx.Point, error) {
if u.Stat.Sw == nil {
u.Stat.Sw = &unifi.Sw{}
// Combines concatenates N maps. This will delete things if not used with caution.
func Combine(in ...map[string]interface{}) map[string]interface{} {
out := make(map[string]interface{})
for i := range in {
for k := range in[i] {
out[k] = in[i][k]
}
}
if u.Stat.Gw == nil {
u.Stat.Gw = &unifi.Gw{}
return out
}
// batchSysStats is used by all device types.
func (u *InfluxUnifi) batchSysStats(s unifi.SysStats, ss unifi.SystemStats) map[string]interface{} {
return map[string]interface{}{
"loadavg_1": s.Loadavg1.Val,
"loadavg_5": s.Loadavg5.Val,
"loadavg_15": s.Loadavg15.Val,
"mem_used": s.MemUsed.Val,
"mem_buffer": s.MemBuffer.Val,
"mem_total": s.MemTotal.Val,
"cpu": ss.CPU.Val,
"mem": ss.Mem.Val,
"system_uptime": ss.Uptime.Val,
}
}
// batchUDM generates Unifi Gateway datapoints for InfluxDB.
// These points can be passed directly to influx.
func (u *InfluxUnifi) batchUDM(r report, s *unifi.UDM) {
if s.Stat.Sw == nil {
s.Stat.Sw = &unifi.Sw{}
}
if s.Stat.Gw == nil {
s.Stat.Gw = &unifi.Gw{}
}
tags := map[string]string{
"id": u.ID,
"mac": u.Mac,
"device_oid": u.Stat.Gw.Oid,
"site_id": u.SiteID,
"site_name": u.SiteName,
"adopted": u.Adopted.Txt,
"name": u.Name,
"cfgversion": u.Cfgversion,
"config_network_ip": u.ConfigNetwork.IP,
"config_network_type": u.ConfigNetwork.Type,
"connect_request_ip": u.ConnectRequestIP,
"connect_request_port": u.ConnectRequestPort,
"device_id": u.DeviceID,
"guest_token": u.GuestToken,
"inform_ip": u.InformIP,
"known_cfgversion": u.KnownCfgversion,
"model": u.Model,
"serial": u.Serial,
"type": u.Type,
"usg_caps": u.UsgCaps.Txt,
"speedtest-status-saved": u.SpeedtestStatusSaved.Txt,
"wan1_up": u.Wan1.Up.Txt,
"wan2_up": u.Wan2.Up.Txt,
"mac": s.Mac,
"site_name": s.SiteName,
"name": s.Name,
"version": s.Version,
"model": s.Model,
"serial": s.Serial,
"type": s.Type,
}
fields := map[string]interface{}{
"ip": u.IP,
"bytes": u.Bytes.Val,
"last_seen": u.LastSeen.Val,
"license_state": u.LicenseState,
"fw_caps": u.FwCaps.Val,
"guest-num_sta": u.GuestNumSta.Val,
"rx_bytes": u.RxBytes.Val,
"tx_bytes": u.TxBytes.Val,
"uptime": u.Uptime.Val,
"state": u.State.Val,
"user-num_sta": u.UserNumSta.Val,
"num_sta": u.NumSta.Val,
"version": u.Version,
"num_desktop": u.NumDesktop.Val,
"num_handheld": u.NumHandheld.Val,
"num_mobile": u.NumMobile.Val,
"speedtest-status_latency": u.SpeedtestStatus.Latency.Val,
"speedtest-status_rundate": u.SpeedtestStatus.Rundate.Val,
"speedtest-status_runtime": u.SpeedtestStatus.Runtime.Val,
"speedtest-status_download": u.SpeedtestStatus.StatusDownload.Val,
"speedtest-status_ping": u.SpeedtestStatus.StatusPing.Val,
"speedtest-status_summary": u.SpeedtestStatus.StatusSummary.Val,
"speedtest-status_upload": u.SpeedtestStatus.StatusUpload.Val,
"speedtest-status_xput_download": u.SpeedtestStatus.XputDownload.Val,
"speedtest-status_xput_upload": u.SpeedtestStatus.XputUpload.Val,
"config_network_wan_type": u.ConfigNetwork.Type,
"wan1_bytes-r": u.Wan1.BytesR.Val,
"wan1_enable": u.Wan1.Enable.Val,
"wan1_full_duplex": u.Wan1.FullDuplex.Val,
"wan1_gateway": u.Wan1.Gateway,
"wan1_ifname": u.Wan1.Ifname,
"wan1_ip": u.Wan1.IP,
"wan1_mac": u.Wan1.Mac,
"wan1_max_speed": u.Wan1.MaxSpeed.Val,
"wan1_name": u.Wan1.Name,
"wan1_netmask": u.Wan1.Netmask,
"wan1_rx_bytes": u.Wan1.RxBytes.Val,
"wan1_rx_bytes-r": u.Wan1.RxBytesR.Val,
"wan1_rx_dropped": u.Wan1.RxDropped.Val,
"wan1_rx_errors": u.Wan1.RxErrors.Val,
"wan1_rx_multicast": u.Wan1.RxMulticast.Val,
"wan1_rx_packets": u.Wan1.RxPackets.Val,
"wan1_type": u.Wan1.Type,
"wan1_speed": u.Wan1.Speed.Val,
"wan1_up": u.Wan1.Up.Val,
"wan1_tx_bytes": u.Wan1.TxBytes.Val,
"wan1_tx_bytes-r": u.Wan1.TxBytesR.Val,
"wan1_tx_dropped": u.Wan1.TxDropped.Val,
"wan1_tx_errors": u.Wan1.TxErrors.Val,
"wan1_tx_packets": u.Wan1.TxPackets.Val,
"wan2_bytes-r": u.Wan2.BytesR.Val,
"wan2_enable": u.Wan2.Enable.Val,
"wan2_full_duplex": u.Wan2.FullDuplex.Val,
"wan2_gateway": u.Wan2.Gateway,
"wan2_ifname": u.Wan2.Ifname,
"wan2_ip": u.Wan2.IP,
"wan2_mac": u.Wan2.Mac,
"wan2_max_speed": u.Wan2.MaxSpeed.Val,
"wan2_name": u.Wan2.Name,
"wan2_netmask": u.Wan2.Netmask,
"wan2_rx_bytes": u.Wan2.RxBytes.Val,
"wan2_rx_bytes-r": u.Wan2.RxBytesR.Val,
"wan2_rx_dropped": u.Wan2.RxDropped.Val,
"wan2_rx_errors": u.Wan2.RxErrors.Val,
"wan2_rx_multicast": u.Wan2.RxMulticast.Val,
"wan2_rx_packets": u.Wan2.RxPackets.Val,
"wan2_type": u.Wan2.Type,
"wan2_speed": u.Wan2.Speed.Val,
"wan2_up": u.Wan2.Up.Val,
"wan2_tx_bytes": u.Wan2.TxBytes.Val,
"wan2_tx_bytes-r": u.Wan2.TxBytesR.Val,
"wan2_tx_dropped": u.Wan2.TxDropped.Val,
"wan2_tx_errors": u.Wan2.TxErrors.Val,
"wan2_tx_packets": u.Wan2.TxPackets.Val,
"loadavg_1": u.SysStats.Loadavg1.Val,
"loadavg_5": u.SysStats.Loadavg5.Val,
"loadavg_15": u.SysStats.Loadavg15.Val,
"mem_used": u.SysStats.MemUsed.Val,
"mem_buffer": u.SysStats.MemBuffer.Val,
"mem_total": u.SysStats.MemTotal.Val,
"cpu": u.SystemStats.CPU.Val,
"mem": u.SystemStats.Mem.Val,
"system_uptime": u.SystemStats.Uptime.Val,
"gw": u.Stat.Gw,
"lan-rx_bytes": u.Stat.LanRxBytes.Val,
"lan-rx_packets": u.Stat.LanRxPackets.Val,
"lan-tx_bytes": u.Stat.LanTxBytes.Val,
"lan-tx_packets": u.Stat.LanTxPackets.Val,
"wan-rx_bytes": u.Stat.WanRxBytes.Val,
"wan-rx_dropped": u.Stat.WanRxDropped.Val,
"wan-rx_packets": u.Stat.WanRxPackets.Val,
"wan-tx_bytes": u.Stat.WanTxBytes.Val,
"wan-tx_packets": u.Stat.WanTxPackets.Val,
"uplink_name": u.Uplink.Name,
"uplink_latency": u.Uplink.Latency.Val,
"uplink_speed": u.Uplink.Speed.Val,
"uplink_num_ports": u.Uplink.NumPort.Val,
"uplink_max_speed": u.Uplink.MaxSpeed.Val,
}
pt, err := influx.NewPoint("usg", tags, fields, now)
if err != nil {
return nil, err
}
points := []*influx.Point{pt}
fields := Combine(map[string]interface{}{
"ip": s.IP,
"bytes": s.Bytes.Val,
"last_seen": s.LastSeen.Val,
"license_state": s.LicenseState,
"guest-num_sta": s.GuestNumSta.Val,
"rx_bytes": s.RxBytes.Val,
"tx_bytes": s.TxBytes.Val,
"uptime": s.Uptime.Val,
"state": s.State.Val,
"user-num_sta": s.UserNumSta.Val,
"version": s.Version,
"num_desktop": s.NumDesktop.Val,
"num_handheld": s.NumHandheld.Val,
"num_mobile": s.NumMobile.Val,
"speedtest-status_latency": s.SpeedtestStatus.Latency.Val,
"speedtest-status_runtime": s.SpeedtestStatus.Runtime.Val,
"speedtest-status_ping": s.SpeedtestStatus.StatusPing.Val,
"speedtest-status_xput_download": s.SpeedtestStatus.XputDownload.Val,
"speedtest-status_xput_upload": s.SpeedtestStatus.XputUpload.Val,
"lan-rx_bytes": s.Stat.Gw.LanRxBytes.Val,
"lan-rx_packets": s.Stat.Gw.LanRxPackets.Val,
"lan-tx_bytes": s.Stat.Gw.LanTxBytes.Val,
"lan-tx_packets": s.Stat.Gw.LanTxPackets.Val,
}, u.batchSysStats(s.SysStats, s.SystemStats))
r.send(&metric{Table: "usg", Tags: tags, Fields: fields})
u.batchNetTable(r, tags, s.NetworkTable)
u.batchUSGwans(r, tags, s.Wan1, s.Wan2)
tags = map[string]string{
"id": u.ID,
"mac": u.Mac,
"device_oid": u.Stat.Sw.Oid,
"site_id": u.SiteID,
"site_name": u.SiteName,
"name": u.Name,
"adopted": u.Adopted.Txt,
"cfgversion": u.Cfgversion,
"config_network_ip": u.ConfigNetwork.IP,
"config_network_type": u.ConfigNetwork.Type,
"device_id": u.DeviceID,
"inform_ip": u.InformIP,
"known_cfgversion": u.KnownCfgversion,
"locating": u.Locating.Txt,
"model": u.Model,
"serial": u.Serial,
"type": u.Type,
"dot1x_portctrl_enabled": u.Dot1XPortctrlEnabled.Txt,
"flowctrl_enabled": u.FlowctrlEnabled.Txt,
"has_fan": u.HasFan.Txt,
"has_temperature": u.HasTemperature.Txt,
"jumboframe_enabled": u.JumboframeEnabled.Txt,
"stp_version": u.StpVersion,
"mac": s.Mac,
"site_name": s.SiteName,
"name": s.Name,
"version": s.Version,
"model": s.Model,
"serial": s.Serial,
"type": s.Type,
}
fields = map[string]interface{}{
"fw_caps": u.FwCaps.Val,
"guest-num_sta": u.GuestLanNumSta.Val,
"ip": u.IP,
"bytes": u.Bytes.Val,
"fan_level": float64(0),
"general_temperature": float64(0),
"last_seen": u.LastSeen.Val,
"license_state": u.LicenseState,
"overheating": u.Overheating.Val,
"rx_bytes": u.RxBytes.Val,
"tx_bytes": u.TxBytes.Val,
"uptime": u.Uptime.Val,
"state": u.State.Val,
"user-num_sta": u.UserLanNumSta.Val,
"num_sta": u.LanNumSta.Val,
"version": u.Version,
"loadavg_1": u.SysStats.Loadavg1.Val,
"loadavg_5": u.SysStats.Loadavg5.Val,
"loadavg_15": u.SysStats.Loadavg15.Val,
"mem_buffer": u.SysStats.MemBuffer.Val,
"mem_used": u.SysStats.MemUsed.Val,
"mem_total": u.SysStats.MemTotal.Val,
"cpu": u.SystemStats.CPU.Val,
"mem": u.SystemStats.Mem.Val,
"system_uptime": u.SystemStats.Uptime.Val,
"stp_priority": u.StpPriority.Val,
"stat_bytes": u.Stat.Sw.Bytes.Val,
"stat_rx_bytes": u.Stat.Sw.RxBytes.Val,
"stat_rx_crypts": u.Stat.Sw.RxCrypts.Val,
"stat_rx_dropped": u.Stat.Sw.RxDropped.Val,
"stat_rx_errors": u.Stat.Sw.RxErrors.Val,
"stat_rx_frags": u.Stat.Sw.RxFrags.Val,
"stat_rx_packets": u.Stat.Sw.TxPackets.Val,
"stat_tx_bytes": u.Stat.Sw.TxBytes.Val,
"stat_tx_dropped": u.Stat.Sw.TxDropped.Val,
"stat_tx_errors": u.Stat.Sw.TxErrors.Val,
"stat_tx_packets": u.Stat.Sw.TxPackets.Val,
"stat_tx_retries": u.Stat.Sw.TxRetries.Val,
"guest-num_sta": s.GuestNumSta.Val,
"ip": s.IP,
"bytes": s.Bytes.Val,
"last_seen": s.LastSeen.Val,
"rx_bytes": s.RxBytes.Val,
"tx_bytes": s.TxBytes.Val,
"uptime": s.Uptime.Val,
"state": s.State.Val,
"stat_bytes": s.Stat.Sw.Bytes.Val,
"stat_rx_bytes": s.Stat.Sw.RxBytes.Val,
"stat_rx_crypts": s.Stat.Sw.RxCrypts.Val,
"stat_rx_dropped": s.Stat.Sw.RxDropped.Val,
"stat_rx_errors": s.Stat.Sw.RxErrors.Val,
"stat_rx_frags": s.Stat.Sw.RxFrags.Val,
"stat_rx_packets": s.Stat.Sw.TxPackets.Val,
"stat_tx_bytes": s.Stat.Sw.TxBytes.Val,
"stat_tx_dropped": s.Stat.Sw.TxDropped.Val,
"stat_tx_errors": s.Stat.Sw.TxErrors.Val,
"stat_tx_packets": s.Stat.Sw.TxPackets.Val,
"stat_tx_retries": s.Stat.Sw.TxRetries.Val,
}
pt, err = influx.NewPoint("usw", tags, fields, now)
if err != nil {
return nil, err
}
points = append(points, pt)
r.send(&metric{Table: "usw", Tags: tags, Fields: fields})
u.batchPortTable(r, tags, s.PortTable)
for _, p := range u.NetworkTable {
tags := map[string]string{
"device_name": u.Name,
"device_id": u.ID,
"device_mac": u.Mac,
"site_name": u.SiteName,
"up": p.Up.Txt,
"dhcpd_dns_enabled": p.DhcpdDNSEnabled.Txt,
"dhcpd_enabled": p.DhcpdEnabled.Txt,
"dhcpd_time_offset_enabled": p.DhcpdTimeOffsetEnabled.Txt,
"dhcp_relay_enabledy": p.DhcpRelayEnabled.Txt,
"dhcpd_gateway_enabled": p.DhcpdGatewayEnabled.Txt,
"enabled": p.Enabled.Txt,
"vlan_enabled": p.VlanEnabled.Txt,
"attr_no_delete": p.AttrNoDelete.Txt,
"is_guest": p.IsGuest.Txt,
"is_nat": p.IsNat.Txt,
"networkgroup": p.Networkgroup,
"site_id": p.SiteID,
}
fields := map[string]interface{}{
"domain_name": p.DomainName,
"dhcpd_start": p.DhcpdStart,
"dhcpd_stop": p.DhcpdStop,
"ip": p.IP,
"ip_subnet": p.IPSubnet,
"mac": p.Mac,
"name": p.Name,
"num_sta": p.NumSta.Val,
"purpose": p.Purpose,
"rx_bytes": p.RxBytes.Val,
"rx_packets": p.RxPackets.Val,
"tx_bytes": p.TxBytes.Val,
"tx_packets": p.TxPackets.Val,
"ipv6_interface_type": p.Ipv6InterfaceType,
"attr_hidden_id": p.AttrHiddenID,
}
pt, err = influx.NewPoint("usg_networks", tags, fields, now)
if err != nil {
return points, err
}
points = append(points, pt)
}
for _, p := range u.PortTable {
tags := map[string]string{
"site_id": u.SiteID,
"site_name": u.SiteName,
"device_name": u.Name,
"name": p.Name,
"enable": p.Enable.Txt,
"is_uplink": p.IsUplink.Txt,
"up": p.Up.Txt,
"portconf_id": p.PortconfID,
"dot1x_mode": p.Dot1XMode,
"dot1x_status": p.Dot1XStatus,
"stp_state": p.StpState,
"sfp_found": p.SfpFound.Txt,
"op_mode": p.OpMode,
"poe_mode": p.PoeMode,
"port_poe": p.PortPoe.Txt,
"port_idx": p.PortIdx.Txt,
"port_id": u.Name + " Port " + p.PortIdx.Txt,
"poe_enable": p.PoeEnable.Txt,
"flowctrl_rx": p.FlowctrlRx.Txt,
"flowctrl_tx": p.FlowctrlTx.Txt,
"autoneg": p.Autoneg.Txt,
"full_duplex": p.FullDuplex.Txt,
"jumbo": p.Jumbo.Txt,
"masked": p.Masked.Txt,
"poe_good": p.PoeGood.Txt,
"media": p.Media,
"poe_class": p.PoeClass,
"poe_caps": p.PoeCaps.Txt,
"aggregated_by": p.AggregatedBy.Txt,
}
fields := map[string]interface{}{
"dbytes_r": p.BytesR.Val,
"rx_broadcast": p.RxBroadcast.Val,
"rx_bytes": p.RxBytes.Val,
"rx_bytes-r": p.RxBytesR.Val,
"rx_dropped": p.RxDropped.Val,
"rx_errors": p.RxErrors.Val,
"rx_multicast": p.RxMulticast.Val,
"rx_packets": p.RxPackets.Val,
"speed": p.Speed.Val,
"stp_pathcost": p.StpPathcost.Val,
"tx_broadcast": p.TxBroadcast.Val,
"tx_bytes": p.TxBytes.Val,
"tx_bytes-r": p.TxBytesR.Val,
"tx_dropped": p.TxDropped.Val,
"tx_errors": p.TxErrors.Val,
"tx_multicast": p.TxMulticast.Val,
"tx_packets": p.TxPackets.Val,
"poe_current": p.PoeCurrent.Val,
"poe_power": p.PoePower.Val,
"poe_voltage": p.PoeVoltage.Val,
"full_duplex": p.FullDuplex.Val,
}
pt, err = influx.NewPoint("usw_ports", tags, fields, now)
if err != nil {
return points, err
}
points = append(points, pt)
}
if u.Stat.Ap == nil {
return points, nil
if s.Stat.Ap == nil {
return
// we're done now. the following code process UDM (non-pro) UAP data.
}
tags = map[string]string{
"id": u.ID,
"ip": u.IP,
"mac": u.Mac,
"device_type": u.Stat.Ap.O,
"device_oid": u.Stat.Ap.Oid,
"device_ap": u.Stat.Ap.Ap,
"site_id": u.SiteID,
"site_name": u.SiteName,
"name": u.Name,
"adopted": u.Adopted.Txt,
"cfgversion": u.Cfgversion,
"config_network_ip": u.ConfigNetwork.IP,
"config_network_type": u.ConfigNetwork.Type,
"connect_request_ip": u.ConnectRequestIP,
"device_id": u.DeviceID,
"has_eth1": u.HasEth1.Txt,
"inform_ip": u.InformIP,
"known_cfgversion": u.KnownCfgversion,
"model": u.Model,
"serial": u.Serial,
"type": u.Type,
"mac": s.Mac,
"site_name": s.SiteName,
"name": s.Name,
"version": s.Version,
"model": s.Model,
"serial": s.Serial,
"type": s.Type,
}
fields = map[string]interface{}{
"ip": u.IP,
"bytes": u.Bytes.Val,
"last_seen": u.LastSeen.Val,
"rx_bytes": u.RxBytes.Val,
"tx_bytes": u.TxBytes.Val,
"uptime": u.Uptime.Val,
"state": int(u.State.Val),
"user-num_sta": int(u.UserWlanNumSta.Val),
"guest-num_sta": int(u.GuestWlanNumSta.Val),
"num_sta": u.WlanNumSta.Val,
"version": u.Version,
"loadavg_1": u.SysStats.Loadavg1.Val,
"loadavg_5": u.SysStats.Loadavg5.Val,
"loadavg_15": u.SysStats.Loadavg15.Val,
"mem_buffer": u.SysStats.MemBuffer.Val,
"mem_total": u.SysStats.MemTotal.Val,
"mem_used": u.SysStats.MemUsed.Val,
"cpu": u.SystemStats.CPU.Val,
"mem": u.SystemStats.Mem.Val,
"system_uptime": u.SystemStats.Uptime.Val,
// Accumulative Statistics.
"stat_user-rx_packets": u.Stat.Ap.UserRxPackets.Val,
"stat_guest-rx_packets": u.Stat.Ap.GuestRxPackets.Val,
"stat_rx_packets": u.Stat.Ap.RxPackets.Val,
"stat_user-rx_bytes": u.Stat.Ap.UserRxBytes.Val,
"stat_guest-rx_bytes": u.Stat.Ap.GuestRxBytes.Val,
"stat_rx_bytes": u.Stat.Ap.RxBytes.Val,
"stat_user-rx_errors": u.Stat.Ap.UserRxErrors.Val,
"stat_guest-rx_errors": u.Stat.Ap.GuestRxErrors.Val,
"stat_rx_errors": u.Stat.Ap.RxErrors.Val,
"stat_user-rx_dropped": u.Stat.Ap.UserRxDropped.Val,
"stat_guest-rx_dropped": u.Stat.Ap.GuestRxDropped.Val,
"stat_rx_dropped": u.Stat.Ap.RxDropped.Val,
"stat_user-rx_crypts": u.Stat.Ap.UserRxCrypts.Val,
"stat_guest-rx_crypts": u.Stat.Ap.GuestRxCrypts.Val,
"stat_rx_crypts": u.Stat.Ap.RxCrypts.Val,
"stat_user-rx_frags": u.Stat.Ap.UserRxFrags.Val,
"stat_guest-rx_frags": u.Stat.Ap.GuestRxFrags.Val,
"stat_rx_frags": u.Stat.Ap.RxFrags.Val,
"stat_user-tx_packets": u.Stat.Ap.UserTxPackets.Val,
"stat_guest-tx_packets": u.Stat.Ap.GuestTxPackets.Val,
"stat_tx_packets": u.Stat.Ap.TxPackets.Val,
"stat_user-tx_bytes": u.Stat.Ap.UserTxBytes.Val,
"stat_guest-tx_bytes": u.Stat.Ap.GuestTxBytes.Val,
"stat_tx_bytes": u.Stat.Ap.TxBytes.Val,
"stat_user-tx_errors": u.Stat.Ap.UserTxErrors.Val,
"stat_guest-tx_errors": u.Stat.Ap.GuestTxErrors.Val,
"stat_tx_errors": u.Stat.Ap.TxErrors.Val,
"stat_user-tx_dropped": u.Stat.Ap.UserTxDropped.Val,
"stat_guest-tx_dropped": u.Stat.Ap.GuestTxDropped.Val,
"stat_tx_dropped": u.Stat.Ap.TxDropped.Val,
"stat_user-tx_retries": u.Stat.Ap.UserTxRetries.Val,
"stat_guest-tx_retries": u.Stat.Ap.GuestTxRetries.Val,
}
pt, err = influx.NewPoint("uap", tags, fields, now)
if err != nil {
return nil, err
}
uapPoints, err := processVAPs(*u.VapTable, *u.RadioTable, *u.RadioTableStats, u.Name, u.ID, u.Mac, u.SiteName, now)
if err != nil {
return nil, err
}
return append(append(points, pt), uapPoints...), nil
fields = u.processUAPstats(s.Stat.Ap)
fields["ip"] = s.IP
fields["bytes"] = s.Bytes.Val
fields["last_seen"] = s.LastSeen.Val
fields["rx_bytes"] = s.RxBytes.Val
fields["tx_bytes"] = s.TxBytes.Val
fields["uptime"] = s.Uptime.Val
fields["state"] = s.State
fields["user-num_sta"] = int(s.UserNumSta.Val)
fields["guest-num_sta"] = int(s.GuestNumSta.Val)
fields["num_sta"] = s.NumSta.Val
r.send(&metric{Table: "uap", Tags: tags, Fields: fields})
u.processRadTable(r, tags, *s.RadioTable, *s.RadioTableStats)
u.processVAPTable(r, tags, *s.VapTable)
}

337
pkg/influxunifi/usg.go
View File

@ -1,185 +1,140 @@
package influxunifi
import (
"strings"
"time"
influx "github.com/influxdata/influxdb1-client/v2"
"golift.io/unifi"
)
// USGPoints generates Unifi Gateway datapoints for InfluxDB.
// batchUSG generates Unifi Gateway datapoints for InfluxDB.
// These points can be passed directly to influx.
func USGPoints(u *unifi.USG, now time.Time) ([]*influx.Point, error) {
if u.Stat.Gw == nil {
u.Stat.Gw = &unifi.Gw{}
func (u *InfluxUnifi) batchUSG(r report, s *unifi.USG) {
if s.Stat.Gw == nil {
s.Stat.Gw = &unifi.Gw{}
}
tags := map[string]string{
"id": u.ID,
"mac": u.Mac,
"device_type": u.Stat.O,
"device_oid": u.Stat.Oid,
"site_id": u.SiteID,
"site_name": u.SiteName,
"adopted": u.Adopted.Txt,
"name": u.Name,
"cfgversion": u.Cfgversion,
"config_network_ip": u.ConfigNetwork.IP,
"config_network_type": u.ConfigNetwork.Type,
"connect_request_ip": u.ConnectRequestIP,
"connect_request_port": u.ConnectRequestPort,
"device_id": u.DeviceID,
"guest_token": u.GuestToken,
"inform_ip": u.InformIP,
"known_cfgversion": u.KnownCfgversion,
"led_override": u.LedOverride,
"locating": u.Locating.Txt,
"model": u.Model,
"outdoor_mode_override": u.OutdoorModeOverride,
"serial": u.Serial,
"type": u.Type,
"usg_caps": u.UsgCaps.Txt,
"speedtest-status-saved": u.SpeedtestStatusSaved.Txt,
"wan1_up": u.Wan1.Up.Txt,
"wan2_up": u.Wan2.Up.Txt,
"mac": s.Mac,
"site_name": s.SiteName,
"name": s.Name,
"version": s.Version,
"model": s.Model,
"serial": s.Serial,
"type": s.Type,
}
fields := map[string]interface{}{
"ip": u.IP,
"bytes": u.Bytes.Val,
"last_seen": u.LastSeen.Val,
"license_state": u.LicenseState,
"fw_caps": u.FwCaps.Val,
"guest-num_sta": u.GuestNumSta.Val,
"rx_bytes": u.RxBytes.Val,
"tx_bytes": u.TxBytes.Val,
"uptime": u.Uptime.Val,
"roll_upgrade": u.Rollupgrade.Val,
"state": u.State.Val,
"upgradable": u.Upgradable.Val,
"user-num_sta": u.UserNumSta.Val,
"version": u.Version,
"num_desktop": u.NumDesktop.Val,
"num_handheld": u.NumHandheld.Val,
"num_mobile": u.NumMobile.Val,
"speedtest-status_latency": u.SpeedtestStatus.Latency.Val,
"speedtest-status_rundate": u.SpeedtestStatus.Rundate.Val,
"speedtest-status_runtime": u.SpeedtestStatus.Runtime.Val,
"speedtest-status_download": u.SpeedtestStatus.StatusDownload.Val,
"speedtest-status_ping": u.SpeedtestStatus.StatusPing.Val,
"speedtest-status_summary": u.SpeedtestStatus.StatusSummary.Val,
"speedtest-status_upload": u.SpeedtestStatus.StatusUpload.Val,
"speedtest-status_xput_download": u.SpeedtestStatus.XputDownload.Val,
"speedtest-status_xput_upload": u.SpeedtestStatus.XputUpload.Val,
"config_network_wan_type": u.ConfigNetwork.Type,
"wan1_bytes-r": u.Wan1.BytesR.Val,
"wan1_enable": u.Wan1.Enable.Val,
"wan1_full_duplex": u.Wan1.FullDuplex.Val,
"wan1_gateway": u.Wan1.Gateway,
"wan1_ifname": u.Wan1.Ifname,
"wan1_ip": u.Wan1.IP,
"wan1_mac": u.Wan1.Mac,
"wan1_max_speed": u.Wan1.MaxSpeed.Val,
"wan1_name": u.Wan1.Name,
"wan1_netmask": u.Wan1.Netmask,
"wan1_rx_bytes": u.Wan1.RxBytes.Val,
"wan1_rx_bytes-r": u.Wan1.RxBytesR.Val,
"wan1_rx_dropped": u.Wan1.RxDropped.Val,
"wan1_rx_errors": u.Wan1.RxErrors.Val,
"wan1_rx_multicast": u.Wan1.RxMulticast.Val,
"wan1_rx_packets": u.Wan1.RxPackets.Val,
"wan1_type": u.Wan1.Type,
"wan1_speed": u.Wan1.Speed.Val,
"wan1_up": u.Wan1.Up.Val,
"wan1_tx_bytes": u.Wan1.TxBytes.Val,
"wan1_tx_bytes-r": u.Wan1.TxBytesR.Val,
"wan1_tx_dropped": u.Wan1.TxDropped.Val,
"wan1_tx_errors": u.Wan1.TxErrors.Val,
"wan1_tx_packets": u.Wan1.TxPackets.Val,
"wan2_bytes-r": u.Wan2.BytesR.Val,
"wan2_enable": u.Wan2.Enable.Val,
"wan2_full_duplex": u.Wan2.FullDuplex.Val,
"wan2_gateway": u.Wan2.Gateway,
"wan2_ifname": u.Wan2.Ifname,
"wan2_ip": u.Wan2.IP,
"wan2_mac": u.Wan2.Mac,
"wan2_max_speed": u.Wan2.MaxSpeed.Val,
"wan2_name": u.Wan2.Name,
"wan2_netmask": u.Wan2.Netmask,
"wan2_rx_bytes": u.Wan2.RxBytes.Val,
"wan2_rx_bytes-r": u.Wan2.RxBytesR.Val,
"wan2_rx_dropped": u.Wan2.RxDropped.Val,
"wan2_rx_errors": u.Wan2.RxErrors.Val,
"wan2_rx_multicast": u.Wan2.RxMulticast.Val,
"wan2_rx_packets": u.Wan2.RxPackets.Val,
"wan2_type": u.Wan2.Type,
"wan2_speed": u.Wan2.Speed.Val,
"wan2_up": u.Wan2.Up.Val,
"wan2_tx_bytes": u.Wan2.TxBytes.Val,
"wan2_tx_bytes-r": u.Wan2.TxBytesR.Val,
"wan2_tx_dropped": u.Wan2.TxDropped.Val,
"wan2_tx_errors": u.Wan2.TxErrors.Val,
"wan2_tx_packets": u.Wan2.TxPackets.Val,
"loadavg_1": u.SysStats.Loadavg1.Val,
"loadavg_5": u.SysStats.Loadavg5.Val,
"loadavg_15": u.SysStats.Loadavg15.Val,
"mem_used": u.SysStats.MemUsed.Val,
"mem_buffer": u.SysStats.MemBuffer.Val,
"mem_total": u.SysStats.MemTotal.Val,
"cpu": u.SystemStats.CPU.Val,
"mem": u.SystemStats.Mem.Val,
"system_uptime": u.SystemStats.Uptime.Val,
"stat_duration": u.Stat.Duration.Val,
"stat_datetime": u.Stat.Datetime,
"gw": u.Stat.Gw,
"lan-rx_bytes": u.Stat.LanRxBytes.Val,
"lan-rx_packets": u.Stat.LanRxPackets.Val,
"lan-tx_bytes": u.Stat.LanTxBytes.Val,
"lan-tx_packets": u.Stat.LanTxPackets.Val,
"wan-rx_bytes": u.Stat.WanRxBytes.Val,
"wan-rx_dropped": u.Stat.WanRxDropped.Val,
"wan-rx_packets": u.Stat.WanRxPackets.Val,
"wan-tx_bytes": u.Stat.WanTxBytes.Val,
"wan-tx_packets": u.Stat.WanTxPackets.Val,
"uplink_name": u.Uplink.Name,
"uplink_latency": u.Uplink.Latency.Val,
"uplink_speed": u.Uplink.Speed.Val,
"uplink_num_ports": u.Uplink.NumPort.Val,
"uplink_max_speed": u.Uplink.MaxSpeed.Val,
}
pt, err := influx.NewPoint("usg", tags, fields, now)
if err != nil {
return nil, err
}
points := []*influx.Point{pt}
for _, p := range u.NetworkTable {
fields := Combine(map[string]interface{}{
"ip": s.IP,
"bytes": s.Bytes.Val,
"last_seen": s.LastSeen.Val,
"license_state": s.LicenseState,
"guest-num_sta": s.GuestNumSta.Val,
"rx_bytes": s.RxBytes.Val,
"tx_bytes": s.TxBytes.Val,
"uptime": s.Uptime.Val,
"state": s.State.Val,
"user-num_sta": s.UserNumSta.Val,
"version": s.Version,
"num_desktop": s.NumDesktop.Val,
"num_handheld": s.NumHandheld.Val,
"uplink_latency": s.Uplink.Latency.Val,
"uplink_speed": s.Uplink.Speed.Val,
"num_mobile": s.NumMobile.Val,
"speedtest-status_latency": s.SpeedtestStatus.Latency.Val,
"speedtest-status_runtime": s.SpeedtestStatus.Runtime.Val,
"speedtest-status_ping": s.SpeedtestStatus.StatusPing.Val,
"speedtest-status_xput_download": s.SpeedtestStatus.XputDownload.Val,
"speedtest-status_xput_upload": s.SpeedtestStatus.XputUpload.Val,
"lan-rx_bytes": s.Stat.Gw.LanRxBytes.Val,
"lan-rx_packets": s.Stat.Gw.LanRxPackets.Val,
"lan-tx_bytes": s.Stat.Gw.LanTxBytes.Val,
"lan-tx_packets": s.Stat.Gw.LanTxPackets.Val,
"lan-rx_dropped": s.Stat.Gw.LanRxDropped.Val,
}, u.batchSysStats(s.SysStats, s.SystemStats))
r.send(&metric{Table: "usg", Tags: tags, Fields: fields})
u.batchNetTable(r, tags, s.NetworkTable)
u.batchUSGwans(r, tags, s.Wan1, s.Wan2)
/*
for _, p := range s.PortTable {
t := map[string]string{
"device_name": tags["name"],
"site_name": tags["site_name"],
"name": p.Name,
"ifname": p.Ifname,
"ip": p.IP,
"mac": p.Mac,
"up": p.Up.Txt,
"speed": p.Speed.Txt,
"full_duplex": p.FullDuplex.Txt,
"enable": p.Enable.Txt,
}
f := map[string]interface{}{
"rx_bytes": p.RxBytes.Val,
"rx_dropped": p.RxDropped.Val,
"rx_errors": p.RxErrors.Val,
"rx_packets": p.RxBytes.Val,
"tx_bytes": p.TxBytes.Val,
"tx_dropped": p.TxDropped.Val,
"tx_errors": p.TxErrors.Val,
"tx_packets": p.TxPackets.Val,
"rx_multicast": p.RxMulticast.Val,
"dns_servers": strings.Join(p.DNS, ","),
}
r.send(&metric{Table: "usg_ports", Tags: t, Fields: f})
}
*/
}
func (u *InfluxUnifi) batchUSGwans(r report, tags map[string]string, wans ...unifi.Wan) {
for _, wan := range wans {
if !wan.Up.Val {
continue
}
tags := map[string]string{
"device_name": u.Name,
"device_id": u.ID,
"device_mac": u.Mac,
"site_name": u.SiteName,
"up": p.Up.Txt,
"dhcpd_dns_enabled": p.DhcpdDNSEnabled.Txt,
"dhcpd_enabled": p.DhcpdEnabled.Txt,
"dhcpd_time_offset_enabled": p.DhcpdTimeOffsetEnabled.Txt,
"dhcp_relay_enabledy": p.DhcpRelayEnabled.Txt,
"dhcpd_gateway_enabled": p.DhcpdGatewayEnabled.Txt,
"enabled": p.Enabled.Txt,
"vlan_enabled": p.VlanEnabled.Txt,
"attr_no_delete": p.AttrNoDelete.Txt,
"is_guest": p.IsGuest.Txt,
"is_nat": p.IsNat.Txt,
"networkgroup": p.Networkgroup,
"site_id": p.SiteID,
"ip": p.IP,
"ip_subnet": p.IPSubnet,
"mac": p.Mac,
"name": p.Name,
"domain_name": p.DomainName,
"dhcpd_start": p.DhcpdStart,
"dhcpd_stop": p.DhcpdStop,
"ipv6_interface_type": p.Ipv6InterfaceType,
"attr_hidden_id": p.AttrHiddenID,
"purpose": p.Purpose,
"device_name": tags["name"],
"site_name": tags["site_name"],
"ip": wan.IP,
"purpose": wan.Name,
"mac": wan.Mac,
"ifname": wan.Ifname,
"type": wan.Type,
"up": wan.Up.Txt,
"enabled": wan.Enable.Txt,
}
fields := map[string]interface{}{
"bytes-r": wan.BytesR.Val,
"full_duplex": wan.FullDuplex.Val,
"gateway": wan.Gateway,
"max_speed": wan.MaxSpeed.Val,
"rx_bytes": wan.RxBytes.Val,
"rx_bytes-r": wan.RxBytesR.Val,
"rx_dropped": wan.RxDropped.Val,
"rx_errors": wan.RxErrors.Val,
"rx_broadcast": wan.RxBroadcast.Val,
"rx_multicast": wan.RxMulticast.Val,
"rx_packets": wan.RxPackets.Val,
"speed": wan.Speed.Val,
"tx_bytes": wan.TxBytes.Val,
"tx_bytes-r": wan.TxBytesR.Val,
"tx_dropped": wan.TxDropped.Val,
"tx_errors": wan.TxErrors.Val,
"tx_packets": wan.TxPackets.Val,
"tx_broadcast": wan.TxBroadcast.Val,
"tx_multicast": wan.TxMulticast.Val,
}
r.send(&metric{Table: "usg_wan_ports", Tags: tags, Fields: fields})
}
}
func (u *InfluxUnifi) batchNetTable(r report, tags map[string]string, nt unifi.NetworkTable) {
for _, p := range nt {
tags := map[string]string{
"device_name": tags["name"],
"site_name": tags["site_name"],
"up": p.Up.Txt,
"enabled": p.Enabled.Txt,
"ip": p.IP,
"mac": p.Mac,
"name": p.Name,
"domain_name": p.DomainName,
"purpose": p.Purpose,
"is_guest": p.IsGuest.Txt,
}
fields := map[string]interface{}{
"num_sta": p.NumSta.Val,
@ -188,44 +143,6 @@ func USGPoints(u *unifi.USG, now time.Time) ([]*influx.Point, error) {
"tx_bytes": p.TxBytes.Val,
"tx_packets": p.TxPackets.Val,
}
pt, err = influx.NewPoint("usg_networks", tags, fields, now)
if err != nil {
return points, err
}
points = append(points, pt)
r.send(&metric{Table: "usg_networks", Tags: tags, Fields: fields})
}
for _, p := range u.PortTable {
tags := map[string]string{
"device_name": u.Name,
"device_id": u.ID,
"device_mac": u.Mac,
"site_name": u.SiteName,
"name": p.Name,
"ifname": p.Ifname,
"ip": p.IP,
"mac": p.Mac,
"up": p.Up.Txt,
"speed": p.Speed.Txt,
"full_duplex": p.FullDuplex.Txt,
"enable": p.Enable.Txt,
}
fields := map[string]interface{}{
"rx_bytes": p.RxBytes.Val,
"rx_dropped": p.RxDropped.Val,
"rx_errors": p.RxErrors.Val,
"rx_packets": p.RxBytes.Val,
"tx_bytes": p.TxBytes.Val,
"tx_dropped": p.TxDropped.Val,
"tx_errors": p.TxErrors.Val,
"tx_packets": p.TxPackets.Val,
"rx_multicast": p.RxMulticast.Val,
"dns_servers": strings.Join(p.DNS, ","),
}
pt, err = influx.NewPoint("usg_ports", tags, fields, now)
if err != nil {
return points, err
}
points = append(points, pt)
}
return points, nil
}

175
pkg/influxunifi/usw.go
View File

@ -1,119 +1,70 @@
package influxunifi
import (
"time"
influx "github.com/influxdata/influxdb1-client/v2"
"golift.io/unifi"
)
// USWPoints generates Unifi Switch datapoints for InfluxDB.
// batchUSW generates Unifi Switch datapoints for InfluxDB.
// These points can be passed directly to influx.
func USWPoints(u *unifi.USW, now time.Time) ([]*influx.Point, error) {
if u.Stat.Sw == nil {
u.Stat.Sw = &unifi.Sw{}
func (u *InfluxUnifi) batchUSW(r report, s *unifi.USW) {
if s.Stat.Sw == nil {
s.Stat.Sw = &unifi.Sw{}
}
tags := map[string]string{
"id": u.ID,
"mac": u.Mac,
"device_oid": u.Stat.Oid,
"site_id": u.SiteID,
"site_name": u.SiteName,
"name": u.Name,
"adopted": u.Adopted.Txt,
"cfgversion": u.Cfgversion,
"config_network_ip": u.ConfigNetwork.IP,
"config_network_type": u.ConfigNetwork.Type,
"device_id": u.DeviceID,
"inform_ip": u.InformIP,
"known_cfgversion": u.KnownCfgversion,
"locating": u.Locating.Txt,
"model": u.Model,
"serial": u.Serial,
"type": u.Type,
"dot1x_portctrl_enabled": u.Dot1XPortctrlEnabled.Txt,
"flowctrl_enabled": u.FlowctrlEnabled.Txt,
"has_fan": u.HasFan.Txt,
"has_temperature": u.HasTemperature.Txt,
"jumboframe_enabled": u.JumboframeEnabled.Txt,
"stp_version": u.StpVersion,
"mac": s.Mac,
"site_name": s.SiteName,
"name": s.Name,
"version": s.Version,
"model": s.Model,
"serial": s.Serial,
"type": s.Type,
}
fields := map[string]interface{}{
"fw_caps": u.FwCaps.Val,
"guest-num_sta": u.GuestNumSta.Val,
"ip": u.IP,
"bytes": u.Bytes.Val,
"fan_level": u.FanLevel.Val,
"general_temperature": u.GeneralTemperature.Val,
"last_seen": u.LastSeen.Val,
"license_state": u.LicenseState,
"overheating": u.Overheating.Val,
"rx_bytes": u.RxBytes.Val,
"tx_bytes": u.TxBytes.Val,
"uptime": u.Uptime.Val,
"state": u.State.Val,
"user-num_sta": u.UserNumSta.Val,
"version": u.Version,
"loadavg_1": u.SysStats.Loadavg1.Val,
"loadavg_5": u.SysStats.Loadavg5.Val,
"loadavg_15": u.SysStats.Loadavg15.Val,
"mem_buffer": u.SysStats.MemBuffer.Val,
"mem_used": u.SysStats.MemUsed.Val,
"mem_total": u.SysStats.MemTotal.Val,
"cpu": u.SystemStats.CPU.Val,
"mem": u.SystemStats.Mem.Val,
"stp_priority": u.StpPriority.Val,
"system_uptime": u.SystemStats.Uptime.Val,
"stat_bytes": u.Stat.Bytes.Val,
"stat_rx_bytes": u.Stat.RxBytes.Val,
"stat_rx_crypts": u.Stat.RxCrypts.Val,
"stat_rx_dropped": u.Stat.RxDropped.Val,
"stat_rx_errors": u.Stat.RxErrors.Val,
"stat_rx_frags": u.Stat.RxFrags.Val,
"stat_rx_packets": u.Stat.TxPackets.Val,
"stat_tx_bytes": u.Stat.TxBytes.Val,
"stat_tx_dropped": u.Stat.TxDropped.Val,
"stat_tx_errors": u.Stat.TxErrors.Val,
"stat_tx_packets": u.Stat.TxPackets.Val,
"stat_tx_retries": u.Stat.TxRetries.Val,
"uplink_depth": u.UplinkDepth.Txt,
}
pt, err := influx.NewPoint("usw", tags, fields, now)
if err != nil {
return nil, err
}
points := []*influx.Point{pt}
for _, p := range u.PortTable {
fields := Combine(map[string]interface{}{
"guest-num_sta": s.GuestNumSta.Val,
"ip": s.IP,
"bytes": s.Bytes.Val,
"fan_level": s.FanLevel.Val,
"general_temperature": s.GeneralTemperature.Val,
"last_seen": s.LastSeen.Val,
"rx_bytes": s.RxBytes.Val,
"tx_bytes": s.TxBytes.Val,
"uptime": s.Uptime.Val,
"state": s.State.Val,
"user-num_sta": s.UserNumSta.Val,
"stat_bytes": s.Stat.Sw.Bytes.Val,
"stat_rx_bytes": s.Stat.Sw.RxBytes.Val,
"stat_rx_crypts": s.Stat.Sw.RxCrypts.Val,
"stat_rx_dropped": s.Stat.Sw.RxDropped.Val,
"stat_rx_errors": s.Stat.Sw.RxErrors.Val,
"stat_rx_frags": s.Stat.Sw.RxFrags.Val,
"stat_rx_packets": s.Stat.Sw.TxPackets.Val,
"stat_tx_bytes": s.Stat.Sw.TxBytes.Val,
"stat_tx_dropped": s.Stat.Sw.TxDropped.Val,
"stat_tx_errors": s.Stat.Sw.TxErrors.Val,
"stat_tx_packets": s.Stat.Sw.TxPackets.Val,
"stat_tx_retries": s.Stat.Sw.TxRetries.Val,
}, u.batchSysStats(s.SysStats, s.SystemStats))
r.send(&metric{Table: "usw", Tags: tags, Fields: fields})
u.batchPortTable(r, tags, s.PortTable)
}
func (u *InfluxUnifi) batchPortTable(r report, t map[string]string, pt []unifi.Port) {
for _, p := range pt {
if !p.Up.Val || !p.Enable.Val {
continue // only record UP ports.
}
tags := map[string]string{
"site_id": u.SiteID,
"site_name": u.SiteName,
"device_name": u.Name,
"name": p.Name,
"enable": p.Enable.Txt,
"is_uplink": p.IsUplink.Txt,
"up": p.Up.Txt,
"portconf_id": p.PortconfID,
"dot1x_mode": p.Dot1XMode,
"dot1x_status": p.Dot1XStatus,
"stp_state": p.StpState,
"sfp_found": p.SfpFound.Txt,
"op_mode": p.OpMode,
"poe_mode": p.PoeMode,
"port_poe": p.PortPoe.Txt,
"port_idx": p.PortIdx.Txt,
"port_id": u.Name + " Port " + p.PortIdx.Txt,
"poe_enable": p.PoeEnable.Txt,
"flowctrl_rx": p.FlowctrlRx.Txt,
"flowctrl_tx": p.FlowctrlTx.Txt,
"autoneg": p.Autoneg.Txt,
"full_duplex": p.FullDuplex.Txt,
"jumbo": p.Jumbo.Txt,
"masked": p.Masked.Txt,
"poe_good": p.PoeGood.Txt,
"media": p.Media,
"poe_class": p.PoeClass,
"poe_caps": p.PoeCaps.Txt,
"aggregated_by": p.AggregatedBy.Txt,
"site_name": t["site_name"],
"device_name": t["name"],
"name": p.Name,
"poe_mode": p.PoeMode,
"port_poe": p.PortPoe.Txt,
"port_idx": p.PortIdx.Txt,
"port_id": t["name"] + " Port " + p.PortIdx.Txt,
"poe_enable": p.PoeEnable.Txt,
"flowctrl_rx": p.FlowctrlRx.Txt,
"flowctrl_tx": p.FlowctrlTx.Txt,
"media": p.Media,
}
fields := map[string]interface{}{
"dbytes_r": p.BytesR.Val,
@ -133,16 +84,12 @@ func USWPoints(u *unifi.USW, now time.Time) ([]*influx.Point, error) {
"tx_errors": p.TxErrors.Val,
"tx_multicast": p.TxMulticast.Val,
"tx_packets": p.TxPackets.Val,
"poe_current": p.PoeCurrent.Val,
"poe_power": p.PoePower.Val,
"poe_voltage": p.PoeVoltage.Val,
"full_duplex": p.FullDuplex.Val,
}
pt, err = influx.NewPoint("usw_ports", tags, fields, now)
if err != nil {
return points, err
if p.PoeEnable.Val && p.PortPoe.Val {
fields["poe_current"] = p.PoeCurrent.Val
fields["poe_power"] = p.PoePower.Val
fields["poe_voltage"] = p.PoeVoltage.Val
}
points = append(points, pt)
r.send(&metric{Table: "usw_ports", Tags: tags, Fields: fields})
}
return points, nil
}

7
pkg/poller/config.go
View File

@ -13,7 +13,7 @@ import (
"time"
"github.com/BurntSushi/toml"
influx "github.com/influxdata/influxdb1-client/v2"
"github.com/davidnewhall/unifi-poller/pkg/influxunifi"
"github.com/spf13/pflag"
"golift.io/unifi"
yaml "gopkg.in/yaml.v2"
@ -41,7 +41,7 @@ const ENVConfigPrefix = "UP_"
// UnifiPoller contains the application startup data, and auth info for UniFi & Influx.
type UnifiPoller struct {
Influx influx.Client
Influx *influxunifi.InfluxUnifi
Unifi *unifi.Unifi
Flag *Flag
Config *Config
@ -65,9 +65,10 @@ type Config struct {
Debug bool `json:"debug" toml:"debug" xml:"debug" yaml:"debug"`
Quiet bool `json:"quiet,omitempty" toml:"quiet,omitempty" xml:"quiet" yaml:"quiet"`
VerifySSL bool `json:"verify_ssl" toml:"verify_ssl" xml:"verify_ssl" yaml:"verify_ssl"`
CollectIDS bool `json:"collect_ids" toml:"collect_ids" xml:"collect_ids" yaml:"collect_ids"`
SaveIDS bool `json:"save_ids" toml:"save_ids" xml:"save_ids" yaml:"save_ids"`
ReAuth bool `json:"reauthenticate" toml:"reauthenticate" xml:"reauthenticate" yaml:"reauthenticate"`
InfxBadSSL bool `json:"influx_insecure_ssl" toml:"influx_insecure_ssl" xml:"influx_insecure_ssl" yaml:"influx_insecure_ssl"`
SaveSites bool `json:"save_sites,omitempty" toml:"save_sites,omitempty" xml:"save_sites" yaml:"save_sites"`
Mode string `json:"mode" toml:"mode" xml:"mode" yaml:"mode"`
HTTPListen string `json:"http_listen" toml:"http_listen" xml:"http_listen" yaml:"http_listen"`
Namespace string `json:"namespace" toml:"namespace" xml:"namespace" yaml:"namespace"`

67
pkg/poller/influx.go
View File

@ -1,21 +1,23 @@
package poller
import (
"crypto/tls"
"fmt"
"time"
"github.com/davidnewhall/unifi-poller/pkg/influxunifi"
"github.com/davidnewhall/unifi-poller/pkg/metrics"
influx "github.com/influxdata/influxdb1-client/v2"
)
// GetInfluxDB returns an InfluxDB interface.
func (u *UnifiPoller) GetInfluxDB() (err error) {
u.Influx, err = influx.NewHTTPClient(influx.HTTPConfig{
Addr: u.Config.InfluxURL,
Username: u.Config.InfluxUser,
Password: u.Config.InfluxPass,
TLSConfig: &tls.Config{InsecureSkipVerify: u.Config.InfxBadSSL},
if u.Influx != nil {
return nil
}
u.Influx, err = influxunifi.New(&influxunifi.Config{
Database: u.Config.InfluxDB,
User: u.Config.InfluxUser,
Pass: u.Config.InfluxPass,
BadSSL: u.Config.InfxBadSSL,
URL: u.Config.InfluxURL,
})
if err != nil {
return fmt.Errorf("influxdb: %v", err)
@ -30,51 +32,32 @@ func (u *UnifiPoller) GetInfluxDB() (err error) {
// determine if there was a read or write error and act on it. This is currently
// called in two places in this library. One returns an error, one does not.
func (u *UnifiPoller) CollectAndProcess() error {
if err := u.GetInfluxDB(); err != nil {
return err
}
metrics, err := u.CollectMetrics()
if err != nil {
return err
}
u.AugmentMetrics(metrics)
err = u.ReportMetrics(metrics)
u.LogError(err, "processing metrics")
return err
}
// ReportMetrics batches all the metrics and writes them to InfluxDB.
// This creates an InfluxDB writer, and returns an error if the write fails.
func (u *UnifiPoller) ReportMetrics(metrics *metrics.Metrics) error {
// Batch (and send) all the points.
m := &influxunifi.Metrics{Metrics: metrics}
// Make a new Influx Points Batcher.
var err error
m.BatchPoints, err = influx.NewBatchPoints(influx.BatchPointsConfig{Database: u.Config.InfluxDB})
report, err := u.Influx.ReportMetrics(metrics)
if err != nil {
return fmt.Errorf("influx.NewBatchPoints: %v", err)
u.LogError(err, "processing metrics")
return err
}
for _, err := range m.ProcessPoints() {
u.LogError(err, "influx.ProcessPoints")
}
if err = u.Influx.Write(m.BatchPoints); err != nil {
return fmt.Errorf("influxdb.Write(points): %v", err)
}
u.LogInfluxReport(m)
u.LogInfluxReport(report)
return nil
}
// LogInfluxReport writes a log message after exporting to influxdb.
func (u *UnifiPoller) LogInfluxReport(m *influxunifi.Metrics) {
var fields, points int
for _, p := range m.Points() {
points++
i, _ := p.Fields()
fields += len(i)
}
func (u *UnifiPoller) LogInfluxReport(r *influxunifi.Report) {
idsMsg := ""
if u.Config.CollectIDS {
idsMsg = fmt.Sprintf("IDS Events: %d, ", len(m.IDSList))
if u.Config.SaveIDS {
idsMsg = fmt.Sprintf("IDS Events: %d, ", len(r.Metrics.IDSList))
}
u.Logf("UniFi Measurements Recorded. Sites: %d, Clients: %d, "+
"Wireless APs: %d, Gateways: %d, Switches: %d, %sPoints: %d, Fields: %d",
len(m.Sites), len(m.Clients), len(m.UAPs),
len(m.UDMs)+len(m.USGs), len(m.USWs), idsMsg, points, fields)
u.Logf("UniFi Metrics Recorded. Sites: %d, Clients: %d, "+
"UAP: %d, USG/UDM: %d, USW: %d, %sPoints: %d, Fields: %d, Errs: %d, Elapsed: %v",
len(r.Metrics.Sites), len(r.Metrics.Clients), len(r.Metrics.UAPs),
len(r.Metrics.UDMs)+len(r.Metrics.USGs), len(r.Metrics.USWs), idsMsg, r.Total,
r.Fields, len(r.Errors), r.Elapsed.Round(time.Millisecond))
}

10
pkg/poller/prometheus.go
View File

@ -1,7 +1,6 @@
package poller
import (
"fmt"
"net/http"
"strings"
"time"
@ -54,16 +53,11 @@ func (u *UnifiPoller) ExportMetrics() (*metrics.Metrics, error) {
// This is run by Prometheus as LoggingFn
func (u *UnifiPoller) LogExportReport(report *promunifi.Report) {
m := report.Metrics
idsMsg := ""
if u.Config.CollectIDS {
idsMsg = fmt.Sprintf(", IDS Events: %d, ", len(m.IDSList))
}
u.Logf("UniFi Measurements Exported. Site: %d, Client: %d, "+
"UAP: %d, USG/UDM: %d, USW: %d%s, Descs: %d, "+
"UAP: %d, USG/UDM: %d, USW: %d, Descs: %d, "+
"Metrics: %d, Errs: %d, 0s: %d, Reqs/Total: %v / %v",
len(m.Sites), len(m.Clients), len(m.UAPs), len(m.UDMs)+len(m.USGs), len(m.USWs),
idsMsg, report.Descs, report.Total, report.Errors, report.Zeros,
report.Descs, report.Total, report.Errors, report.Zeros,
report.Fetch.Round(time.Millisecond/oneDecimalPoint),
report.Elapsed.Round(time.Millisecond/oneDecimalPoint))
}

46
pkg/poller/start.go
View File

@ -21,13 +21,14 @@ func New() *UnifiPoller {
InfluxPass: defaultInfluxPass,
InfluxDB: defaultInfluxDB,
UnifiUser: defaultUnifiUser,
UnifiPass: defaultUnifiUser,
UnifiPass: "",
UnifiBase: defaultUnifiURL,
Interval: Duration{defaultInterval},
Sites: []string{"all"},
SaveSites: true,
HTTPListen: defaultHTTPListen,
Namespace: appName,
}, Flag: &Flag{},
}, Flag: &Flag{ConfigFile: DefaultConfFile},
}
}
@ -99,43 +100,52 @@ func (u *UnifiPoller) Run() error {
switch strings.ToLower(u.Config.Mode) {
default:
if err := u.GetInfluxDB(); err != nil {
return err
}
return u.PollController()
case "influxlambda", "lambdainflux", "lambda_influx", "influx_lambda":
if err := u.GetInfluxDB(); err != nil {
return err
}
u.LastCheck = time.Now()
return u.CollectAndProcess()
case "prometheus", "exporter":
return u.RunPrometheus()
case "both":
return u.RunBoth()
}
}
// RunBoth starts the prometheus exporter and influxdb exporter at the same time.
// This will likely double the amount of polls your controller receives.
func (u *UnifiPoller) RunBoth() error {
e := make(chan error)
defer close(e)
go func() {
e <- u.RunPrometheus()
}()
go func() {
e <- u.PollController()
}()
// If either method returns an error (even nil), bail out.
return <-e
}
// PollController runs forever, polling UniFi and pushing to InfluxDB
// This is started by Run() after everything checks out.
// This is started by Run() or RunBoth() after everything checks out.
func (u *UnifiPoller) PollController() error {
interval := u.Config.Interval.Round(time.Second)
log.Printf("[INFO] Everything checks out! Poller started, interval: %v", interval)
ticker := time.NewTicker(interval)
defer ticker.Stop()
for u.LastCheck = range ticker.C {
var err error
// Some users need to re-auth every interval because the cookie times out.
if u.Config.ReAuth {
u.LogDebugf("Re-authenticating to UniFi Controller")
// Some users need to re-auth every interval because the cookie times out.
if err = u.Unifi.Login(); err != nil {
u.LogError(err, "re-authenticating")
if err := u.Unifi.Login(); err != nil {
return err
}
}
if err == nil {
// Only run this if the authentication procedure didn't return error.
_ = u.CollectAndProcess()
if err := u.CollectAndProcess(); err != nil {
return err
}
// check for errors from the unifi polls.
if u.errorCount > 0 {
return fmt.Errorf("too many errors, stopping poller")
}

5
pkg/poller/unifi.go
View File

@ -68,7 +68,7 @@ func (u *UnifiPoller) CollectMetrics() (*metrics.Metrics, error) {
// Get the sites we care about.
m.Sites, err = u.GetFilteredSites()
u.LogError(err, "unifi.GetSites()")
if u.Config.CollectIDS {
if u.Config.SaveIDS {
m.IDSList, err = u.Unifi.GetIDS(m.Sites, time.Now().Add(u.Config.Interval.Duration), time.Now())
u.LogError(err, "unifi.GetIDS()")
}
@ -111,6 +111,9 @@ func (u *UnifiPoller) AugmentMetrics(metrics *metrics.Metrics) {
metrics.Clients[i].GwName = devices[c.GwMac]
metrics.Clients[i].RadioDescription = bssdIDs[metrics.Clients[i].Bssid] + metrics.Clients[i].RadioProto
}
if !u.Config.SaveSites {
metrics.Sites = nil
}
}
// GetFilteredSites returns a list of sites to fetch data for.

2
pkg/promunifi/site.go
View File

@ -72,7 +72,7 @@ func (u *promUnifi) exportSite(r report, s *unifi.Site) {
r.send([]*metric{
{u.Site.TxBytesR, prometheus.GaugeValue, h.TxBytesR, labels},
{u.Site.RxBytesR, prometheus.GaugeValue, h.RxBytesR, labels},
{u.Site.Uptime, prometheus.GaugeValue, h.Latency, labels},
{u.Site.Uptime, prometheus.GaugeValue, h.Uptime, labels},
{u.Site.Latency, prometheus.GaugeValue, h.Latency.Val / 1000, labels},
{u.Site.XputUp, prometheus.GaugeValue, h.XputUp, labels},
{u.Site.XputDown, prometheus.GaugeValue, h.XputDown, labels},

2
pkg/promunifi/udm.go
View File

@ -96,7 +96,7 @@ func (u *promUnifi) exportUDM(r report, d *unifi.UDM) {
u.exportUSWstats(r, labels, d.Stat.Sw)
u.exportPortTable(r, labels, d.PortTable)
// Gateway Data
u.exportUSGstats(r, labels, d.Stat.Gw, d.SpeedtestStatus)
u.exportUSGstats(r, labels, d.Stat.Gw, d.SpeedtestStatus, d.Uplink)
u.exportWANPorts(r, labels, d.Wan1, d.Wan2)
// Wireless Data - UDM (non-pro) only
if d.Stat.Ap != nil && d.VapTable != nil {

10
pkg/promunifi/usg.go
View File

@ -28,6 +28,8 @@ type usg struct {
WanTxMulticast *prometheus.Desc
WanBytesR *prometheus.Desc
Latency *prometheus.Desc
UplinkLatency *prometheus.Desc
UplinkSpeed *prometheus.Desc
Runtime *prometheus.Desc
XputDownload *prometheus.Desc
XputUpload *prometheus.Desc
@ -60,6 +62,8 @@ func descUSG(ns string) *usg {
LanTxPackets: prometheus.NewDesc(ns+"lan_transmit_packets_total", "LAN Transmit Packets Total", labels, nil),
LanTxBytes: prometheus.NewDesc(ns+"lan_transmit_bytes_total", "LAN Transmit Bytes Total", labels, nil),
Latency: prometheus.NewDesc(ns+"speedtest_latency_seconds", "Speedtest Latency", labels, nil),
UplinkLatency: prometheus.NewDesc(ns+"uplink_latency_seconds", "Uplink Latency", labels, nil),
UplinkSpeed: prometheus.NewDesc(ns+"uplink_speed_mbps", "Uplink Speed", labels, nil),
Runtime: prometheus.NewDesc(ns+"speedtest_runtime", "Speedtest Run Time", labels, nil),
XputDownload: prometheus.NewDesc(ns+"speedtest_download", "Speedtest Download Rate", labels, nil),
XputUpload: prometheus.NewDesc(ns+"speedtest_upload", "Speedtest Upload Rate", labels, nil),
@ -90,10 +94,10 @@ func (u *promUnifi) exportUSG(r report, d *unifi.USG) {
{u.Device.Mem, prometheus.GaugeValue, d.SystemStats.Mem, labels},
})
u.exportWANPorts(r, labels, d.Wan1, d.Wan2)
u.exportUSGstats(r, labels, d.Stat.Gw, d.SpeedtestStatus)
u.exportUSGstats(r, labels, d.Stat.Gw, d.SpeedtestStatus, d.Uplink)
}
func (u *promUnifi) exportUSGstats(r report, labels []string, gw *unifi.Gw, st unifi.SpeedtestStatus) {
func (u *promUnifi) exportUSGstats(r report, labels []string, gw *unifi.Gw, st unifi.SpeedtestStatus, ul unifi.Uplink) {
labelLan := []string{"lan", labels[6], labels[7]}
labelWan := []string{"all", labels[6], labels[7]}
r.send([]*metric{
@ -110,6 +114,8 @@ func (u *promUnifi) exportUSGstats(r report, labels []string, gw *unifi.Gw, st u
{u.USG.LanTxPackets, prometheus.CounterValue, gw.LanTxPackets, labelLan},
{u.USG.LanTxBytes, prometheus.CounterValue, gw.LanTxBytes, labelLan},
{u.USG.LanRxDropped, prometheus.CounterValue, gw.LanRxDropped, labelLan},
{u.USG.UplinkLatency, prometheus.GaugeValue, ul.Latency.Val / 1000, labelWan},
{u.USG.UplinkSpeed, prometheus.GaugeValue, ul.Speed, labelWan},
// Speed Test Stats
{u.USG.Latency, prometheus.GaugeValue, st.Latency.Val / 1000, labelWan},
{u.USG.Runtime, prometheus.GaugeValue, st.Runtime, labelWan},

7
pkg/promunifi/usw.go
View File

@ -49,7 +49,7 @@ func descUSW(ns string) *usw {
pns := ns + "port_"
// labels := []string{"ip", "version", "model", "serial", "type", "mac", "site_name", "name"}
labelS := []string{"site_name", "name"} // labels[6:]
labelP := []string{"port_num", "port_name", "port_mac", "port_ip", "site_name", "name"}
labelP := []string{"port_id", "port_num", "port_name", "port_mac", "port_ip", "site_name", "name"}
return &usw{
SwRxPackets: prometheus.NewDesc(ns+"switch_receive_packets_total", "Switch Packets Received Total", labelS, nil),
SwRxBytes: prometheus.NewDesc(ns+"switch_receive_bytes_total", "Switch Bytes Received Total", labelS, nil),
@ -147,11 +147,11 @@ func (u *promUnifi) exportUSWstats(r report, labels []string, sw *unifi.Sw) {
func (u *promUnifi) exportPortTable(r report, labels []string, pt []unifi.Port) {
// Per-port data on a switch
for _, p := range pt {
if !p.Up.Val {
if !p.Up.Val || !p.Enable.Val {
continue
}
// Copy labels, and add four new ones.
labelP := []string{p.PortIdx.Txt, p.Name, p.Mac, p.IP, labels[6], labels[7]}
labelP := []string{labels[7] + " Port " + p.PortIdx.Txt, p.PortIdx.Txt, p.Name, p.Mac, p.IP, labels[6], labels[7]}
if p.PoeEnable.Val && p.PortPoe.Val {
r.send([]*metric{
{u.USW.PoeCurrent, prometheus.GaugeValue, p.PoeCurrent, labelP},
@ -176,6 +176,7 @@ func (u *promUnifi) exportPortTable(r report, labels []string, pt []unifi.Port)
{u.USW.TxDropped, prometheus.CounterValue, p.TxDropped, labelP},
{u.USW.TxErrors, prometheus.CounterValue, p.TxErrors, labelP},
{u.USW.TxMulticast, prometheus.CounterValue, p.TxMulticast, labelP},
{u.USW.TxPackets, prometheus.CounterValue, p.TxPackets, labelP},
})
}
}