feat: SPE Expert amplifier control (serial/TCP) — OPERATE toggle + live status

Implements the SPE Application Programmer's Guide protocol: packets
0x55 0x55 0x55|CNT|DATA|CHK (sum%256), OPERATE key 0x0D (toggles STANDBY/OPERATE)
and STATUS request 0x90 whose 0xAA-framed reply is a 19-field CSV (mode, RX/TX,
band, power level, output W, SWR, V/I, temp, warnings, alarms). internal/spe
polls status ~1/s over USB serial (go.bug.st/serial, 8N1) or TCP (RS232-to-
Ethernet bridge) — same codec, different transport.

Wired via startPGXL (starts the SPE client for spe* types), bindings GetSPEStatus
/ SPESetOperate, and a live status card + OPERATE/STANDBY toggle in the Amplifier
settings panel. Only the two example-anchored commands are sent (safe); other
keystroke codes were ambiguous in the guide's table. Untested on hardware.
This commit is contained in:
2026-07-20 17:59:24 +02:00
parent 666b933114
commit 2e39615554
6 changed files with 438 additions and 11 deletions
+35 -7
View File
@@ -45,6 +45,7 @@ import (
"hamlog/internal/operating" "hamlog/internal/operating"
"hamlog/internal/pota" "hamlog/internal/pota"
"hamlog/internal/powergenius" "hamlog/internal/powergenius"
"hamlog/internal/spe"
"hamlog/internal/profile" "hamlog/internal/profile"
"hamlog/internal/qslcard" "hamlog/internal/qslcard"
"hamlog/internal/qso" "hamlog/internal/qso"
@@ -465,6 +466,7 @@ type App struct {
motorInhibited atomic.Bool // TX currently inhibited by the motor-antenna watcher motorInhibited atomic.Bool // TX currently inhibited by the motor-antenna watcher
antgenius *antgenius.Client // Antenna Genius (4O3A) switch (TCP); nil when disabled antgenius *antgenius.Client // Antenna Genius (4O3A) switch (TCP); nil when disabled
pgxl *powergenius.Client // PowerGenius XL (4O3A) amp fan control (TCP); nil when disabled pgxl *powergenius.Client // PowerGenius XL (4O3A) amp fan control (TCP); nil when disabled
spe *spe.Client // SPE Expert amplifier (serial/TCP); nil when disabled or not SPE
audioMgr *audio.Manager audioMgr *audio.Manager
qsoRec *audio.Recorder // continuous QSO recorder (rolling pre-roll) qsoRec *audio.Recorder // continuous QSO recorder (rolling pre-roll)
solar *solar.Manager // live space-weather (SFI/SSN/A/K) for the header + QSO stamping solar *solar.Manager // live space-weather (SFI/SSN/A/K) for the header + QSO stamping
@@ -12219,22 +12221,48 @@ func (a *App) startPGXL() {
go a.pgxl.Stop() go a.pgxl.Stop()
a.pgxl = nil a.pgxl = nil
} }
if a.spe != nil {
go a.spe.Stop()
a.spe = nil
}
s, err := a.GetPGXLSettings() s, err := a.GetPGXLSettings()
if err != nil || !s.Enabled { if err != nil || !s.Enabled {
return return
} }
// Only the PowerGenius XL (TCP) is driven for now. SPE Expert control (serial / if s.Type == "" || s.Type == "pgxl" {
// RS232-to-Ethernet) is a separate protocol, not yet implemented — its settings
// are stored but no client is started.
if s.Type != "" && s.Type != "pgxl" {
applog.Printf("amplifier: type %q selected — control not implemented yet (settings saved)", s.Type)
return
}
if strings.TrimSpace(s.Host) == "" { if strings.TrimSpace(s.Host) == "" {
return return
} }
a.pgxl = powergenius.New(s.Host, s.Port) a.pgxl = powergenius.New(s.Host, s.Port)
_ = a.pgxl.Start() _ = a.pgxl.Start()
return
}
// SPE Expert — USB serial or an RS232-to-Ethernet bridge.
if s.Transport == "serial" && strings.TrimSpace(s.ComPort) == "" {
return
}
if s.Transport == "tcp" && strings.TrimSpace(s.Host) == "" {
return
}
a.spe = spe.New(spe.Config{Transport: s.Transport, ComPort: s.ComPort, Baud: s.Baud, Host: s.Host, Port: s.Port})
_ = a.spe.Start()
}
// GetSPEStatus returns the SPE Expert amplifier state for the UI poll.
func (a *App) GetSPEStatus() spe.Status {
if a.spe == nil {
return spe.Status{}
}
return a.spe.GetStatus()
}
// SPESetOperate puts the SPE amp in OPERATE (true) or STANDBY (false). The amp has
// a single OPERATE toggle key, so this sends it only when the state must change.
func (a *App) SPESetOperate(on bool) error {
if a.spe == nil {
return fmt.Errorf("SPE amplifier not connected — enable it in Settings → Amplifier")
}
return a.spe.Operate(on)
} }
// GetPGXLStatus returns the amp's fan/connection state for the UI poll. // GetPGXLStatus returns the amp's fan/connection state for the UI poll.
+47 -3
View File
@@ -13,7 +13,7 @@ import {
GetRotatorSettings, SaveRotatorSettings, TestRotator, RotatorPark, RotatorStop, GetRotatorSettings, SaveRotatorSettings, TestRotator, RotatorPark, RotatorStop,
GetUltrabeamSettings, SaveUltrabeamSettings, TestUltrabeam, GetUltrabeamSettings, SaveUltrabeamSettings, TestUltrabeam,
GetAntGeniusSettings, SaveAntGeniusSettings, GetAntGeniusSettings, SaveAntGeniusSettings,
GetPGXLSettings, SavePGXLSettings, GetPGXLSettings, SavePGXLSettings, GetSPEStatus, SPESetOperate,
GetWinkeyerSettings, SaveWinkeyerSettings, ListSerialPorts, GetWinkeyerSettings, SaveWinkeyerSettings, ListSerialPorts,
GetAudioSettings, SaveAudioSettings, ListAudioInputDevices, ListAudioOutputDevices, PickAudioFolder, TestPTT, GetAudioSettings, SaveAudioSettings, ListAudioInputDevices, ListAudioOutputDevices, PickAudioFolder, TestPTT,
GetClublogCtyInfo, SetClublogCtyEnabled, DownloadClublogCty, GetClublogCtyInfo, SetClublogCtyEnabled, DownloadClublogCty,
@@ -648,6 +648,49 @@ type RelayRuleUI = { device_id: string; relay: number; mode: string; freq_lo_khz
type StationDevUI = { id: string; type: string; name: string; labels: string[] }; type StationDevUI = { id: string; type: string; name: string; labels: string[] };
const RELAY_BANDS = ['160m', '80m', '60m', '40m', '30m', '20m', '17m', '15m', '12m', '10m', '6m', '4m', '2m', '70cm']; const RELAY_BANDS = ['160m', '80m', '60m', '40m', '30m', '20m', '17m', '15m', '12m', '10m', '6m', '4m', '2m', '70cm'];
const relayCountUI = (type: string) => (type === 'kmtronic' || type === 'denkovi' ? 8 : 5); const relayCountUI = (type: string) => (type === 'kmtronic' || type === 'denkovi' ? 8 : 5);
// Live SPE Expert amplifier status + OPERATE/STANDBY toggle. Module-scoped (not a
// nested component) so it isn't remounted on every parent render. Polls once a
// second while shown.
function SPEStatusCard() {
const [st, setSt] = useState<any>({ connected: false });
useEffect(() => {
let alive = true;
const tick = () => GetSPEStatus().then((s) => alive && setSt(s || {})).catch(() => {});
tick();
const id = window.setInterval(tick, 1000);
return () => { alive = false; window.clearInterval(id); };
}, []);
const operate = !!st.operate;
return (
<div className="rounded-md border border-border p-3 space-y-2 text-xs max-w-xl">
<div className="flex items-center gap-2">
<span className={cn('size-2 rounded-full', st.connected ? 'bg-success animate-pulse' : 'bg-danger')} />
<span className="font-semibold">{st.connected ? `SPE ${st.model || 'Expert'}` : 'SPE — not connected'}</span>
{!st.connected && st.last_error && <span className="text-danger truncate text-[10px]">{st.last_error}</span>}
<span className="flex-1" />
<Button size="sm" variant={operate ? 'default' : 'outline'} disabled={!st.connected}
onClick={() => SPESetOperate(!operate).catch(() => {})}
title="Toggle OPERATE / STANDBY">
{operate ? 'OPERATE' : 'STANDBY'}
</Button>
</div>
{st.connected && (
<div className="grid grid-cols-4 gap-x-3 gap-y-1 font-mono text-[11px]">
<div>{st.tx ? 'TX' : 'RX'}</div>
<div>Band {st.band}</div>
<div>Pwr {st.power_level}</div>
<div>{st.output_w} W</div>
<div>SWR {Number(st.swr_ant ?? 0).toFixed(2)}</div>
<div>{st.temp_c}°C</div>
<div>{st.volt_pa} V</div>
<div>{st.curr_pa} A</div>
{(st.warnings || st.alarms) && <div className="col-span-4 text-warning"> {st.warnings} {st.alarms}</div>}
</div>
)}
</div>
);
}
function RelayAutoPanel() { function RelayAutoPanel() {
const { t } = useI18n(); const { t } = useI18n();
const [enabled, setEnabled] = useState(false); const [enabled, setEnabled] = useState(false);
@@ -2724,9 +2767,10 @@ export function SettingsModal({ onClose, onSaved, initialSection, onMainPaneChan
</div> </div>
)} )}
{!isPGXL && pgxl.enabled && <SPEStatusCard />}
{!isPGXL && ( {!isPGXL && (
<p className="text-xs text-warning"> <p className="text-[10px] text-muted-foreground">
SPE Expert control is not wired up yet these settings are saved, but OpsLog can't command the amp until its serial protocol is implemented. SPE control uses the amplifier's proprietary serial protocol (OPERATE toggle + live status). Save to (re)connect. Band / power-level / antenna are still managed on the amp from the transceiver CAT.
</p> </p>
)} )}
</div> </div>
+5
View File
@@ -11,6 +11,7 @@ import {awardref} from '../models';
import {cluster} from '../models'; import {cluster} from '../models';
import {extsvc} from '../models'; import {extsvc} from '../models';
import {powergenius} from '../models'; import {powergenius} from '../models';
import {spe} from '../models';
import {solar} from '../models'; import {solar} from '../models';
import {winkeyer} from '../models'; import {winkeyer} from '../models';
import {alerts} from '../models'; import {alerts} from '../models';
@@ -406,6 +407,8 @@ export function GetRotatorHeading():Promise<main.RotatorHeading>;
export function GetRotatorSettings():Promise<main.RotatorSettings>; export function GetRotatorSettings():Promise<main.RotatorSettings>;
export function GetSPEStatus():Promise<spe.Status>;
export function GetSecretStatus():Promise<main.SecretStatus>; export function GetSecretStatus():Promise<main.SecretStatus>;
export function GetSlotStats():Promise<qso.SlotStats>; export function GetSlotStats():Promise<qso.SlotStats>;
@@ -716,6 +719,8 @@ export function RotatorStop():Promise<void>;
export function RunBackupNow():Promise<string>; export function RunBackupNow():Promise<string>;
export function SPESetOperate(arg1:boolean):Promise<void>;
export function SaveADIFFile():Promise<string>; export function SaveADIFFile():Promise<string>;
export function SaveADIFMonitor(arg1:main.ADIFMonitorConfig):Promise<void>; export function SaveADIFMonitor(arg1:main.ADIFMonitorConfig):Promise<void>;
+8
View File
@@ -770,6 +770,10 @@ export function GetRotatorSettings() {
return window['go']['main']['App']['GetRotatorSettings'](); return window['go']['main']['App']['GetRotatorSettings']();
} }
export function GetSPEStatus() {
return window['go']['main']['App']['GetSPEStatus']();
}
export function GetSecretStatus() { export function GetSecretStatus() {
return window['go']['main']['App']['GetSecretStatus'](); return window['go']['main']['App']['GetSecretStatus']();
} }
@@ -1390,6 +1394,10 @@ export function RunBackupNow() {
return window['go']['main']['App']['RunBackupNow'](); return window['go']['main']['App']['RunBackupNow']();
} }
export function SPESetOperate(arg1) {
return window['go']['main']['App']['SPESetOperate'](arg1);
}
export function SaveADIFFile() { export function SaveADIFFile() {
return window['go']['main']['App']['SaveADIFFile'](); return window['go']['main']['App']['SaveADIFFile']();
} }
+47
View File
@@ -4108,6 +4108,53 @@ export namespace solar {
} }
export namespace spe {
export class Status {
connected: boolean;
last_error?: string;
model?: string;
operate: boolean;
tx: boolean;
input?: string;
band?: string;
power_level?: string;
output_w: number;
swr_atu: number;
swr_ant: number;
volt_pa: number;
curr_pa: number;
temp_c: number;
warnings?: string;
alarms?: string;
static createFrom(source: any = {}) {
return new Status(source);
}
constructor(source: any = {}) {
if ('string' === typeof source) source = JSON.parse(source);
this.connected = source["connected"];
this.last_error = source["last_error"];
this.model = source["model"];
this.operate = source["operate"];
this.tx = source["tx"];
this.input = source["input"];
this.band = source["band"];
this.power_level = source["power_level"];
this.output_w = source["output_w"];
this.swr_atu = source["swr_atu"];
this.swr_ant = source["swr_ant"];
this.volt_pa = source["volt_pa"];
this.curr_pa = source["curr_pa"];
this.temp_c = source["temp_c"];
this.warnings = source["warnings"];
this.alarms = source["alarms"];
}
}
}
export namespace udp { export namespace udp {
export class Config { export class Config {
+295
View File
@@ -0,0 +1,295 @@
// Package spe drives the SPE Expert 1.3K-FA / 1.5K-FA / 2K-FA amplifiers over
// their proprietary serial protocol (SPE "Application Programmer's Guide" rev 1.1).
// The amp is reached either directly over USB (a virtual COM port) or over TCP via
// an RS232-to-Ethernet bridge — both are just an io.ReadWriteCloser to this code.
//
// Wire format (host → amp): 0x55 0x55 0x55 | CNT | DATA… | CHK
// CNT = number of DATA bytes, CHK = sum(DATA) mod 256.
// Status reply (amp → host): 0xAA 0xAA 0xAA | LEN | <LEN CSV bytes> | chk0 chk1 | CR LF
// LEN is 0x43 (67); the payload is 19 comma-separated fixed fields.
//
// This MVP implements the two commands anchored by worked examples in the guide:
// OPERATE (0x0D, toggles STANDBY↔OPERATE) and STATUS (0x90). Other keystroke codes
// exist but the guide's command table did not extract unambiguously, so they are
// left out rather than risk sending the wrong key to the amplifier.
package spe
import (
"bufio"
"fmt"
"io"
"net"
"strconv"
"strings"
"sync"
"time"
"go.bug.st/serial"
)
const (
cmdOperate byte = 0x0D // toggles STANDBY ↔ OPERATE
cmdStatus byte = 0x90 // request the status string
syncHost = 0x55
syncAmp = 0xAA
dialTimeout = 5 * time.Second
ioTimeout = 3 * time.Second
pollEvery = 800 * time.Millisecond
)
// Status is the decoded amplifier state for the UI.
type Status struct {
Connected bool `json:"connected"`
LastError string `json:"last_error,omitempty"`
Model string `json:"model,omitempty"` // "20K" / "13K"
Operate bool `json:"operate"` // true = OPERATE, false = STANDBY
TX bool `json:"tx"` // true = transmitting
Input string `json:"input,omitempty"` // "1" / "2"
Band string `json:"band,omitempty"` // raw 2-char band code
PowerLevel string `json:"power_level,omitempty"` // L / M / H
OutputW int `json:"output_w"`
SWRATU float64 `json:"swr_atu"`
SWRAnt float64 `json:"swr_ant"`
VoltPA float64 `json:"volt_pa"`
CurrPA float64 `json:"curr_pa"`
TempC int `json:"temp_c"` // heatsink (upper) temperature
Warnings string `json:"warnings,omitempty"`
Alarms string `json:"alarms,omitempty"`
}
// Config selects the transport.
type Config struct {
Transport string // "serial" | "tcp"
ComPort string // serial
Baud int // serial
Host string // tcp
Port int // tcp
}
type Client struct {
cfg Config
mu sync.Mutex // serialises access to the connection
conn io.ReadWriteCloser
r *bufio.Reader
statusMu sync.RWMutex
status Status
stop chan struct{}
running bool
}
func New(cfg Config) *Client {
if cfg.Baud <= 0 {
cfg.Baud = 115200
}
return &Client{cfg: cfg, stop: make(chan struct{})}
}
func (c *Client) Start() error {
if c.running {
return nil
}
c.running = true
go c.pollLoop()
return nil
}
func (c *Client) Stop() {
if !c.running {
return
}
c.running = false
close(c.stop)
c.mu.Lock()
c.dropLocked()
c.mu.Unlock()
}
func (c *Client) GetStatus() Status {
c.statusMu.RLock()
defer c.statusMu.RUnlock()
return c.status
}
func (c *Client) setErr(err error) {
c.statusMu.Lock()
c.status.Connected = false
c.status.LastError = err.Error()
c.statusMu.Unlock()
}
// Operate toggles the amplifier between STANDBY and OPERATE (the amp has a single
// OPERATE key that flips the state, so we send it only when the desired state
// differs from the last-read one).
func (c *Client) Operate(on bool) error {
if c.GetStatus().Operate == on {
return nil
}
return c.sendCmd(cmdOperate)
}
// ToggleOperate flips STANDBY/OPERATE unconditionally.
func (c *Client) ToggleOperate() error { return c.sendCmd(cmdOperate) }
func (c *Client) pollLoop() {
t := time.NewTicker(pollEvery)
defer t.Stop()
for {
select {
case <-c.stop:
return
case <-t.C:
if err := c.ensureConn(); err != nil {
c.setErr(fmt.Errorf("connect: %w", err))
continue
}
if err := c.sendCmd(cmdStatus); err != nil {
c.mu.Lock()
c.dropLocked()
c.mu.Unlock()
c.setErr(err)
continue
}
c.readStatus()
}
}
}
func (c *Client) ensureConn() error {
c.mu.Lock()
defer c.mu.Unlock()
if c.conn != nil {
return nil
}
var rwc io.ReadWriteCloser
var err error
if c.cfg.Transport == "tcp" {
var nc net.Conn
nc, err = net.DialTimeout("tcp", net.JoinHostPort(c.cfg.Host, strconv.Itoa(c.cfg.Port)), dialTimeout)
rwc = nc
} else {
rwc, err = serial.Open(c.cfg.ComPort, &serial.Mode{BaudRate: c.cfg.Baud})
}
if err != nil {
return err
}
c.conn = rwc
c.r = bufio.NewReader(rwc)
return nil
}
func (c *Client) dropLocked() {
if c.conn != nil {
c.conn.Close()
c.conn = nil
c.r = nil
}
}
// sendCmd frames one keystroke code and writes it. Single-byte payload → CHK is
// the code itself.
func (c *Client) sendCmd(code byte) error {
c.mu.Lock()
defer c.mu.Unlock()
if c.conn == nil {
return fmt.Errorf("not connected")
}
if nc, ok := c.conn.(net.Conn); ok {
_ = nc.SetWriteDeadline(time.Now().Add(ioTimeout))
}
pkt := []byte{syncHost, syncHost, syncHost, 0x01, code, code}
_, err := c.conn.Write(pkt)
return err
}
// readStatus reads one amp packet and, when it's a status string, decodes it. ACK
// packets (short) are consumed and ignored.
func (c *Client) readStatus() {
c.mu.Lock()
r := c.r
if nc, ok := c.conn.(net.Conn); ok && nc != nil {
_ = nc.SetReadDeadline(time.Now().Add(ioTimeout))
}
c.mu.Unlock()
if r == nil {
return
}
// Sync on three 0xAA bytes.
run := 0
for run < 3 {
b, err := r.ReadByte()
if err != nil {
c.mu.Lock()
c.dropLocked()
c.mu.Unlock()
c.setErr(err)
return
}
if b == syncAmp {
run++
} else {
run = 0
}
}
length, err := r.ReadByte()
if err != nil {
return
}
data := make([]byte, int(length))
if _, err := io.ReadFull(r, data); err != nil {
return
}
// Status strings are the long ones (LEN 0x43 = 67). Short packets are ACKs
// (1 checksum byte, no CRLF) — nothing else to consume for those.
if length >= 40 {
// consume the 2 checksum bytes + CR LF
_, _ = r.Discard(4)
c.decodeCSV(string(data))
} else {
_, _ = r.Discard(1) // ACK checksum
}
}
// decodeCSV parses the 19-field comma-separated status payload.
func (c *Client) decodeCSV(payload string) {
f := strings.Split(payload, ",")
get := func(i int) string {
if i < len(f) {
return strings.TrimSpace(f[i])
}
return ""
}
pf := func(s string) float64 { v, _ := strconv.ParseFloat(strings.TrimSpace(s), 64); return v }
pi := func(s string) int { v, _ := strconv.Atoi(strings.TrimSpace(s)); return v }
c.statusMu.Lock()
defer c.statusMu.Unlock()
c.status.Connected = true
c.status.LastError = ""
c.status.Model = get(0)
c.status.Operate = get(1) == "O"
c.status.TX = get(2) == "T"
c.status.Input = get(4)
c.status.Band = get(5)
c.status.PowerLevel = get(8)
c.status.OutputW = pi(get(9))
c.status.SWRATU = pf(get(10))
c.status.SWRAnt = pf(get(11))
c.status.VoltPA = pf(get(12))
c.status.CurrPA = pf(get(13))
c.status.TempC = pi(get(14))
if w := get(17); w != "" && w != "N" {
c.status.Warnings = w
} else {
c.status.Warnings = ""
}
if a := get(18); a != "" && a != "N" {
c.status.Alarms = a
} else {
c.status.Alarms = ""
}
}