Only the periodic status path consulted the setting. The connect callback armed
a status publish unconditionally and publishStatusToSlot() never checked it, so
every boot and every reconnect published a status message — including the
metadata an operator turned the setting off to suppress. The documented contract
is "Enable/disable status messages".
Read the toggle live from prefs at publish time, matching the periodic path, and
also skip a slot the operator has disabled: teardown only stops a client that
reports connected, so a slot switched off mid-connect can still complete its
handshake and arm this publish.
Four of the hand-written error labels named the wrong failure against the
installed SDK: Wi-Fi reason 201 is NO_AP_FOUND (reported as "security
mismatch"), 202 is AUTH_FAIL (reported as "auth mode rejected"), 39 is TIMEOUT
(reported as "SSID not found") and 34 is MISSING_ACKS (reported as an
"AP state mismatch"). esp-tls 0x8008 is TCP_CLOSED_FIN, not a timeout, and
0x8010 is CERT_PARTLY_OK, not a generic mbedTLS error. 0x800B, labelled
"cert verify failed", is not an esp-tls error at all. So the one line an
operator reads to find out why a node is offline could name the wrong cause.
Move the tables into MQTTErrorLabels.h (pure, host-tested) with every value
static_asserted against the SDK enum/#define actually being compiled, so a
framework bump fails the build instead of relabelling errors in the field.
Codes the SDK does not define — including 61/88/168, which had labels no
header supports — now return no label and the caller prints the raw number.
Also keep the CONNACK return code from a broker refusal and show it in
`get mqttN.diag` ("refused: bad user/password (4)"). A refusal is not a
transport failure, so the TLS/socket fields are empty and a slot with wrong
credentials previously showed no useful detail at all.
`set wifi.powersave min` stored 0 and applied WIFI_PS_MIN_MODEM, but the
bridge's post-reconnect mapping read the same 0 as WIFI_PS_NONE. A node
explicitly configured for minimum modem sleep therefore ran with power save off
after its first reconnect, while `get wifi.powersave` still reported min. The
stored default is already 1 (`none`), so nothing here changes the product
default — it stops an operator's explicit choice from being reinterpreted.
Move the value/name/mode table into WifiPowerSavePolicy (pure, host-tested) and
use it from the CLI setter and getter, the web config snapshot and the bridge.
The bridge now also applies the mode when it finds the STA already associated at
start — that path has no connect transition to carry the setting, so a bridge
restart used to leave whatever mode was set before.
The watchdog took max(last_recv, last_irq, last_tx) of three raw millis()
timestamps. Around the 32-bit wrap a transmit stamped in the upper half of the
range is numerically larger than every fresh post-wrap receive, so it kept
winning for up to ~24 days: the watchdog measured silence from that stale
transmit, concluded the radio had gone deaf, and reset a radio that was
receiving normally — once per watchdog interval, until the old value stopped
winning.
Extract the decision into RadioWatchdog (pure, host-testable). It compares each
timestamp only against its own previous value, so any change is fresh activity,
and stamps it against a monotonic 64-bit clock extended from millis(). Evidence
older than one 32-bit cycle now stays old instead of aliasing back to "recent",
which the previous unsigned-subtraction age could not do either.
Covered in test/test_radio_watchdog: pre-wrap TX with continuous post-wrap RX,
genuine silence across the wrap, silence past a full millis() cycle, no activity
since boot, disabled watchdog, TX-only traffic, and a stalled mesh loop.
Payloads of 166 or 167 bytes previously passed the frame-sized bound
(MAX_CHANNEL_DATA_LENGTH = 167) but were rejected by sendGroupData
against MAX_GROUP_DATA_LENGTH (165), causing ERR_CODE_TABLE_FULL (retry
later) to be returned instead of ERR_CODE_ILLEGAL_ARG.
Fixes#3345
'custom:{}' (a DynamicConfigSerializer with nothing set) hits EXPECT_KEY
with a '}' and returns TOK_ERROR, so loadSerial stops there and silently
drops every property after it. Nothing follows 'custom' in NodePrefs
today, so it goes unnoticed until you add one.
Also include stdlib.h, which Arduino.h was providing on-device but not
in the native test build.
- scope the serial config CLI to RP2040; it was exposing the rescue CLI
(cat/rm/erase) on every ESP32 WiFi build, which gates it behind a
physical long-press
- bound and space out RP2040 rejoins: the core's join busy-waits, so cap
it at 5s and retry every 30s instead of every 10s
- stamp the reconnect timer in setup(), so the first loop() doesn't tear
down an association that is still finishing DHCP
- treat stored credentials as a pair, and pass NULL (not "") for an open
network
- teach build_as_lib.py where SerialWifiInterface moved
arduino-pico's WiFi.begin() blocks for up to 2x its 15s timeout, which
stalled the mesh loop on every reconnect attempt; use beginNoBlock().
Log the IP when the link comes up, and the status code when retrying.
Store ssid/pwd in NodePrefs and set them with 'set wifi.ssid' /
'set wifi.pwd' over USB serial; build-time WIFI_SSID/WIFI_PWD stay as
the fallback. Headless WiFi builds get the config CLI on Serial, which
is otherwise unused there.
SerialWifiInterface has no ESP32-specific code, so move it to
helpers/wifi and reuse it on RP2040. Guard the ESP32-only WiFi
event/auto-reconnect calls and poll link state on RP2040 instead.
The motherboard has two RF daughterboard slots on separate GPIOs, mirrored by
its "LNA P" / "LNA S" jumpers, but the variant only ever pinned slot 1.
The shared configuration moves into [Station_G3_ESP32_common], with the SPI and
LNA lines split into per-slot sections. [Station_G3_ESP32] (slot 1) and
[Station_G3_ESP32_r2] (slot 2) each compose common + their own pins, so neither
set of -D flags has to shadow the other on the compile line - appending an
override would work only by last-wins, and esp32_base's -w hides the resulting
redefinition warning. Every pre-existing env keeps its name and resolves to
byte-identical options; verified by diffing pio project config --json-output.
PA PL1 is one board-level jumper shared by both slots, so P_PA1_EN stays in the
common section along with the TX power calibration.
Adds r2 twins of the repeater, room server and both observer envs, each an exact
mirror of its slot-1 sibling apart from the base it extends.
Slot 2 pins come from on-hardware testing in agessaman/MeshCore#49 and are not
documented publicly; the vendor wiki serves no content to fetchers and Meshtastic
implements slot 1 only.
Known limitation, unchanged from that PR: GPIO 42 and 43 fall outside the
ESP32-S3 RTC GPIO range (0-21), so the rtc_gpio_hold_en() calls in
ESP32Board::enterDeepSleep() and StationG3Board::powerOff() return
ESP_ERR_INVALID_ARG on slot 2 and the NSS and LNA pins are not latched through
deep sleep. Fixing it means gpio_hold_en() plus gpio_deep_sleep_hold_en() in
shared code.
Lets applications know whether a GPS was actually detected
(EnvironmentSensorManager reports its gps_detected state), e.g. to
hide GPS-dependent UI when no receiver is attached.
The serial command buffers must stay NUL-terminated within their
bounds: if they ever aren't, strlen() can return >= sizeof(command)
and the read loop would index past the buffer. Additionally, a full
buffer now becomes a completed line (end-of-line marker placed
inside the buffer, NUL terminator kept) instead of overwriting the
terminator and silently corrupting the buffer for the next pass.
Applies to the serial CLI readers of the repeater, room server,
sensor and secure chat examples, and to the CLI rescue reader of
the companion example.
The project moved to meshcore-dev/meshcore, but two links still pointed at
ripplebiz/MeshCore: the GitHub Issues link in README and the git clone in the
FAQ build instructions.
Also fixes the FAQ build recipe:
- `pio run -e RAK_4631_Repeater` does not exist; the env is spelled
RAK_4631_repeater (variants/rak4631/platformio.ini:40).
- LORA_FREQ was given as 867.5; the default in [arduino_base] is 869.618
(platformio.ini:29). Reworded to point at the flag rather than a value that
drifts with the default preset.
- Renamed the venv so it no longer collides with the cloned directory name.
And one more env-name casing slip in the Raspberry Pi flashing instructions:
`Heltec_V3_companion_radio_ble` should be `Heltec_v3_...`. Release artifacts are
named directly from the env name (build.sh:147), and the two neighbouring
examples in the same block already use the lowercase spelling.
f6338430 added get/set dutycycle to CommonCLI and updated both CLI docs, but
Terminal Chat does not use CommonCLI -- simple_secure_chat/main.cpp:479-507 has
its own `set` handler supporting only af, name, lat, lon, tx and freq. Typing
`set dutycycle` there returns "ERROR: unknown config".
Restores `set af` as the documented command, points readers at cli_commands.md
for the roles that do have dutycycle, and documents `help`
(simple_secure_chat/main.cpp:510), which the client implements but the doc
never listed.
The doc claimed every pwrmgt command except `get pwrmgt.support` returns
"ERROR: Power management not supported" when NRF52_POWER_MANAGEMENT is not
defined. `get pwrmgt.bootreason` is not inside the #ifdef (CommonCLI.cpp:787)
and answers on all boards; only pwrmgt.source and pwrmgt.bootmv are gated.
Three factual errors in companion_protocol.md:
- The channel-datagram payload cap was given as 163 (MAX_FRAME_SIZE - 9 when
MAX_FRAME_SIZE was still 172). It went 172 -> 176 in 62f1b11d, but simply
updating the arithmetic to 167 would be worse than the stale value: 167 is
only the host-frame bound (MyMesh.cpp:1265). The radio-side bound is
MAX_GROUP_DATA_LENGTH = 184 - 16 - 3 = 165 (MeshCore.h:21, enforced at
BaseChatMesh.cpp:544). A 166- or 167-byte payload passes the frame check,
fails the radio check, and comes back as ERR_CODE_TABLE_FULL -- which this
same doc describes as "retry later", so a conforming client would retry a
permanently failing send forever. Documents 165 as the limit to enforce and
calls out the 166-167 band explicitly.
- Channel index was documented as 0-7 throughout. The bound is
MAX_GROUP_CHANNELS (BaseChatMesh.cpp:927,936), which is 40 on most current
variants, 8 on some and 1 on others. Clients should read max_channels from
byte 3 of PACKET_DEVICE_INFO instead. Index 0 is pre-populated with the
built-in Public channel but is not reserved.
- The secret field was documented as "all zeros" for public channels. The
firmware always hashes a real 16-byte key; the public channel ships with
izOH6cXN6mrJ5e26oRXNcg== (companion_radio/MyMesh.cpp:111,1040). An all-zero
secret is not a private channel and not an inert one: SHA256 over 16 zero
bytes is a fixed global constant, giving a well-known channel with an
all-zero AES key. searchChannelsByHash skips unnamed slots for exactly this
reason (BaseChatMesh.cpp:392-401), but a named slot with a zero secret is
not skipped and will absorb null-key group traffic from any node. Now
documented as something not to do.