fix(logging): name the antenna disagreement, and confirm an outbound send

Two silences from one operator's log.

The SteppIR is not blocked — it is being overruled. Every tune is commanded,
acknowledged on the next poll with the frequency asked for, then replaced on
the poll after by a different one: 21075 asked, 21075 confirmed, 21050
reported, again and again, with the operator tuning once more each time. Two
minutes of that reads as a dead link. It now says what it is, once, when the
motors have stopped and the reported frequency is more than 10 kHz from the
commanded one — a controller quantising to its own grid is not a fault, one
sitting somewhere else entirely is.

UDP outbound had no positive signal at all: only failures were logged. When
an operator sets up an ADIF message to a second logger and nothing arrives,
"OpsLog never sent it" and "the other program did not take it" looked exactly
the same from here — and the first is the common case, because a row created
as an inbound ADIF listener instead of an outbound ADIF message matches
nothing and emits nothing. Successful sends are logged with their destination
and service, and a QSO logged with no outbound row says so once a session.
This commit is contained in:
2026-08-14 17:37:12 +02:00
parent 7470ebf47e
commit c5c9d355ec
5 changed files with 141 additions and 3 deletions
+6 -2
View File
@@ -9,7 +9,9 @@
"Serial ports: a port claimed by two devices in the Windows port map was listed twice in every port dropdown, and showed as “COM3COM3”. Listed once now, and in natural order — COM4 between COM3 and COM8, not after COM9.",
"Motorized antenna: an antenna that lost its serial port stopped answering with nothing at all in the log. Every reason it fails to start or reconnect is now written down, once.",
"UDP: an ADIF listener sharing a port with a WSJT source logged a line per decode — hundreds of them. It now says what the traffic really is, once, and how to fix it.",
"QSL Manager, paper QSL: the route is set per direction — bureau, direct or electronic, beside the sent status and beside the received one — and applies to the whole selection at once."
"QSL Manager, paper QSL: the route is set per direction — bureau, direct or electronic, beside the sent status and beside the received one — and applies to the whole selection at once.",
"Motorized antenna: when the controller settles somewhere other than where it was told, the log says so — that reads as “the antenna stopped responding” otherwise.",
"UDP: an outbound message now logs that it was sent, and a logged QSO with no outbound ADIF row configured says so once."
],
"fr": [
"Envoi de spot : le commentaire porte désormais les références de diplôme après le mode — celles que vous avez attribuées (POTA, SOTA, IOTA…), pas le DXCC, la zone et le préfixe que chacun déduit de lindicatif. Un auto-spot porte VOS références dactivation.",
@@ -18,7 +20,9 @@
"Ports série : un port revendiqué par deux périphériques dans la table Windows apparaissait en double dans toutes les listes, et saffichait « COM3COM3 ». Une seule fois désormais, et dans lordre naturel — COM4 entre COM3 et COM8, pas après COM9.",
"Antenne motorisée : une antenne ayant perdu son port série cessait de répondre sans rien laisser dans le journal. Chaque raison dun démarrage ou dune reconnexion manquée est désormais écrite, une fois.",
"UDP : un écouteur ADIF partageant un port avec une source WSJT écrivait une ligne par décodage — des centaines. Il dit maintenant ce quest vraiment ce trafic, une fois, et comment le corriger.",
"Gestionnaire QSL, QSL papier : la voie se règle par sens — bureau, direct ou électronique, à côté du statut envoyé et à côté du statut reçu — et sapplique à toute la sélection dun coup."
"Gestionnaire QSL, QSL papier : la voie se règle par sens — bureau, direct ou électronique, à côté du statut envoyé et à côté du statut reçu — et sapplique à toute la sélection dun coup.",
"Antenne motorisée : quand le contrôleur se fixe ailleurs que là où on la envoyé, le journal le dit — sans quoi cela ressemble à une antenne qui ne répond plus.",
"UDP : un message sortant inscrit désormais son envoi dans le journal, et un QSO enregistré sans ligne ADIF sortante le signale une fois."
]
},
{
+26 -1
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@@ -86,12 +86,35 @@ func (m *Manager) EmitLoggedADIF(adif string) {
if strings.TrimSpace(adif) == "" {
return
}
for _, c := range m.Outbound(ServiceDBUpdated) {
rows := m.Outbound(ServiceDBUpdated)
if len(rows) == 0 {
// Said once per session, not per QSO. An operator who configured a second
// logger and sees nothing arrive needs to know the difference between "we
// sent it" and "there was nothing to send to" — and the usual cause is a
// row created as an inbound ADIF listener instead of an outbound message.
m.noADIFOnce.Do(func() {
applog.Printf("udp: a QSO was logged but no outbound \"ADIF message\" row is enabled — " +
"nothing is forwarded to another logger")
})
return
}
for _, c := range rows {
m.sendTo(c, []byte(adif))
}
}
// sendTo resolves the row's destination (host:port) and fires one datagram.
//
// A successful send is logged, not just a failure. UDP has no delivery report:
// when an operator says "I set up an ADIF message to Logger32 on port 2250 and
// nothing arrives", the only thing that separates "OpsLog never sent it" from
// "the other program did not take it" is a line saying we sent. Without one,
// both look identical from here — and the first is far more common, because a
// row created as an INBOUND ADIF listener rather than an OUTBOUND ADIF message
// matches nothing and emits nothing, in silence.
//
// Rate is not a concern: these fire on a QSO being logged or a frequency
// change, not per packet on a socket.
func (m *Manager) sendTo(c Config, payload []byte) {
host := strings.TrimSpace(c.DestinationIP)
if host == "" {
@@ -100,5 +123,7 @@ func (m *Manager) sendTo(c Config, payload []byte) {
dst := fmt.Sprintf("%s:%d", host, c.Port)
if err := SendUDP(dst, payload); err != nil {
applog.Printf("udp: [%s] outbound send to %s failed: %v", c.Name, dst, err)
return
}
applog.Printf("udp: [%s] sent %d bytes to %s (%s)", c.Name, len(payload), dst, c.ServiceType)
}
+4
View File
@@ -497,6 +497,10 @@ type Manager struct {
repo *Repo
out chan Event
// noADIFOnce keeps the "nothing to forward to" note to one line a session
// rather than one per QSO logged.
noADIFOnce sync.Once
mu sync.Mutex
inbound map[int64]*Server
outbound []Config
+50
View File
@@ -0,0 +1,50 @@
package steppir
import "testing"
// An operator's log read as "the antenna stops responding": every tune was
// commanded, acknowledged with the requested frequency on the next poll, then
// replaced on the poll after by a different one — 21075 asked, 21075 confirmed,
// 21050 reported — with the operator tuning again each time. Nothing in the log
// named that, so it looked like a dead link.
func TestCheckDriftReportsOnceAndRecovers(t *testing.T) {
c := &Client{}
c.lastSetKHz = 21075
// Where it was asked to go: nothing to say.
c.checkDrift(&Status{Frequency: 21075})
if c.lastDriftKHz != 0 {
t.Errorf("a controller on frequency was reported as drifting (%d)", c.lastDriftKHz)
}
// Its own grid is not a fault.
c.checkDrift(&Status{Frequency: 21070})
if c.lastDriftKHz != 0 {
t.Errorf("%d kHz is within tolerance and was reported", 21070)
}
// Somewhere else entirely: recorded, so it is said once.
c.checkDrift(&Status{Frequency: 21050})
if c.lastDriftKHz != 21050 {
t.Errorf("lastDriftKHz = %d, want 21050", c.lastDriftKHz)
}
// Still there on the next poll: nothing new to say, and the marker stands.
c.checkDrift(&Status{Frequency: 21050})
if c.lastDriftKHz != 21050 {
t.Errorf("lastDriftKHz = %d after a repeat, want it unchanged", c.lastDriftKHz)
}
// Back where it belongs: the marker clears, so the next divergence is said.
c.checkDrift(&Status{Frequency: 21075})
if c.lastDriftKHz != 0 {
t.Errorf("lastDriftKHz = %d after recovery, want 0", c.lastDriftKHz)
}
}
// A frequency read while the elements are travelling is not a disagreement, it
// is an antenna on its way — reporting it would cry wolf on every single tune.
func TestCheckDriftIgnoresMovingMotors(t *testing.T) {
c := &Client{}
c.lastSetKHz = 21075
c.checkDrift(&Status{Frequency: 21000, MotorsMoving: 1})
if c.lastDriftKHz != 0 {
t.Errorf("a moving antenna was reported as drifting (%d)", c.lastDriftKHz)
}
}
+55
View File
@@ -102,6 +102,10 @@ type Client struct {
statusMu sync.RWMutex
lastStatus *Status
lastSetKHz int
// lastDriftKHz is the frequency last reported for a controller that had gone
// somewhere other than where it was told, so the disagreement is stated once
// and not on every poll. Zero when it is where it should be.
lastDriftKHz int
// lastRaw holds the previous raw status frame so we only log a status line
// when the controller's reply actually changes — enough to diagnose a stuck
@@ -269,10 +273,61 @@ func (c *Client) pollLoop() {
c.applyPendingDir(st)
c.lastStatus = st
c.statusMu.Unlock()
c.checkDrift(st)
}
}
}
// driftToleranceKHz is how far the controller's reported frequency may sit from
// the one we commanded before it is worth saying so. A SteppIR quantises to its
// own grid, so a few kHz is normal and must not be reported as a fault.
const driftToleranceKHz = 10
// checkDrift reports a controller that settled somewhere other than where it was
// told to go.
//
// This exists because of a log that read as "the antenna stops responding": every
// tune was commanded, acknowledged on the next poll with the requested frequency,
// and then REPLACED on the poll after by a different one — 21075 asked, 21075
// confirmed, 21050 reported, over and over, with the operator tuning again each
// time. Nothing in the log named that, so it looked like a dead link rather than
// a controller with a mind of its own (its own radio interface tracking the rig,
// or a front-panel mode that overrides the host).
//
// Only when the motors have stopped: a frequency read mid-travel is not a
// disagreement, it is an antenna on its way. And only when the value changes, so
// a controller parked somewhere else does not fill the log.
func (c *Client) checkDrift(st *Status) {
if st.MotorsMoving != 0 {
return
}
c.statusMu.Lock()
want := c.lastSetKHz
last := c.lastDriftKHz
if want <= 0 || st.Frequency <= 0 {
c.statusMu.Unlock()
return
}
diff := st.Frequency - want
if diff < 0 {
diff = -diff
}
if diff <= driftToleranceKHz {
c.lastDriftKHz = 0 // back where it was asked to be
c.statusMu.Unlock()
return
}
if last == st.Frequency {
c.statusMu.Unlock()
return // already said, and it has not moved since
}
c.lastDriftKHz = st.Frequency
c.statusMu.Unlock()
log.Printf("steppir: commanded %d kHz but the controller settled on %d kHz — "+
"something else is driving it (its own radio interface, or a front-panel mode overriding the host)",
want, st.Frequency)
}
// applyPendingDir replaces a freshly polled direction with the one the operator
// last commanded, until the controller confirms it (or the hold expires). The
// caller holds statusMu.