324ceba67659ecff2304bbd9df3f58b4a60c4a6a
6
Commits
| Author | SHA1 | Message | Date | |
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  2GT-RichandClaude Opus 5
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2625fea8de |
feat(lte): cellular telemetry, band details and roaming history (v0.23.12-beta)
Adds LTE support, requested in discussion #85 by a contributor running a MikroTik ATL 18 on a fixed antenna. Cellular was previously a blank page: the only occurrence of "lte" in the tree excluded LTE interfaces from DHCP binding. Built against two real field captures rather than documentation, which disagreed with the hardware in several places — the modem reports `data-class` not `access-technology`, `iccid` not `uicc`, `status: running` not `connected`, embeds units inside values (`-97dBm`, `17dB`), and omits `registration-status`, `pin-status` and `lac`/`tac` entirely. What an LTE interface reports depends on the modem chipset, not on RouterOS, so every field is optional by construction. Fixes a latent bug in the API client while it was in reach. A sentence carrying the same attribute twice kept only the last value, and a Cat-18 modem reports one `ca-band` per aggregated carrier. On the contributor's 4-carrier capture that yielded B3 + B20 — 30 MHz — on a device actually running 70 MHz, because the narrowest carrier happens to arrive last. Repeats are now preserved alongside the flat value, so existing callers are byte-for-byte unaffected. Signal quality is graded rather than merely displayed. RSRP alone misleads: the capture shows −97 dBm, nominally "fair", on a link running 256QAM at CQI 15 with two spatial streams. SINR leads the grade and RSRP moderates it. Surfaces the uplink anchor, which no MikroTik UI shows. Left on automatic a modem anchors to whichever band it hears loudest, often a narrow one, and aggregates wider bands for downlink only — but uplink rides the primary carrier alone, so upload stays capped. This is the contributor's actual reason for locking bands, and it reframes band selection as anchor control rather than coverage. Band changes, tower handovers and re-registrations are reconstructed by comparing consecutive polls, since scanning interrupts service and finds nothing at a site served by a single base station. Observed bands accumulate as the evidence a future band lock will be checked against. Band selection itself is deliberately absent: it needs Change Guard plus a free-space check, as the target hardware has 1.1 MB free of 16 MB flash. Also fixes an unrelated display bug in the RF Health channel map. The 2.4 GHz axis is labelled by channel, but ticks at 2400 and 2480 fall outside the channel plan and fell back to printing raw frequencies — and the 2400 label sat at exactly 0% with a centring transform, hanging half its width outside the card. 2.4 GHz is the only band with a tick at an edge. Unlabelled ticks are now dropped and edge labels anchor inward. - backend/src/utils/lte.ts — parsing, quality, change detection (59 tests) - RouterOSClient — repeated attributes preserved (6 tests) - lte_interfaces, lte_cell_history, lte_observed_bands - GET /devices/:id/lte, /lte/history, /lte/metrics - LteTab, gated on has_lte from the interface list - scripts/seed-lte-fixture.sql — a cellular device for local development Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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2GT-RichandClaude Opus 5
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0258ee47dc |
fix(wireless): attribute CAP radios to the access point, not the controller (v0.23.1-beta)
Third round of #94 field testing. The placement bug survived v0.23.0 because the previous fix addressed the wrong mechanism. Cause A CAPsMAN controller mirrors every CAP interface locally, so a CAP's radio MAC legitimately appears on two devices: the CAP that owns the hardware, and the controller that mirrors it. The MAC index was single-valued and first-wins over an unordered UNION, so each radio landed on whichever row the database happened to return first. On the reporter's fleet six radios attached to a router with no radios at all, while their siblings attached correctly — the same access point appearing in two places, and liable to move between polls. v0.23.0 excluded the controller from *prefix* matches only. These are exact matches, so the exclusion never applied. Consecutive MACs on one physical AP resolving to different devices is what gave it away. Fix The index is multi-valued: a MAC maps to every device carrying it. A radio the controller reports as local:false lives on a CAP by definition, so the controller is rejected as a candidate at exact strength as well as prefix — an exact match against it only ever means the mirror. Attribution now runs through matchRadiosToDevices, which was previously tested but unused while the collector kept its own copy of the logic. With no radios left attributed to it, a controller that has none of its own stops appearing in the access point list, which was the reporter's follow-up point. SSID on provisioned interfaces A CAP holds no configuration, so its interface rows carry a generic name and a null SSID. The controller knows it, on its mirror of the same interface. Radios now record the provisioned SSID from there, and the table is driven by the controller's radio list rather than the CAPs' own rows — the controller is the only side that knows the SSID, channel and client count together. Band and frequency columns removed Both were empty while the channel column beside them read 5680/ax/eCee/D. The channel string already carries the band and the extension layout; parsing it properly is its own task, and half-parsing it produced empty columns next to populated ones. Requested by the reporter. 75 tests across the CAPsMAN and topology modules, including fixtures built from the reporter's MAC set: both radios of one AP resolve to that AP, order-independently, with a genuinely local radio still landing on the controller and an unknown CAP left unattributed rather than absorbed. Reproduced the mirror scenario against the local fleet before and after. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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2GT-RichandClaude Opus 5
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82efcaa371 |
fix(wireless,topology): CAPsMAN write guards, MAC neighbour resolution, unified panel (v0.23.0-beta)
Closes #95. Addresses the second round of #94 feedback. Includes a regression introduced in v0.22.0. Wireless write paths were not CAPsMAN-aware (regression) v0.22.0 widened getAP() and the bulk-SSID selector to include cap/controller roles so a controller — normally tagged a router — would stop being invisible to the wireless section. Those same helpers gate the write endpoints, so the change also allowed writes to devices whose radios a controller owns. Reads needed widening; writes needed a guard, and did not get one. Five paths now refuse or skip provisioned radios: bulk SSID deployment, single interface create, interface edit, interface delete, and guest network setup. Delete was the worst of them — RouterOS will not remove a provisioned interface, but the cached row was deleted anyway, so it vanished from the UI until the next poll brought it back. The check is shared: partitionRadios() splits physical radios into locally controllable and controller-owned, assertNotCapsmanManaged() refuses an edit to a provisioned interface and names the controller. Neighbours identified only by MAC (#95) Topology resolved a neighbour to a managed device by IP address. A trunk port has no IP, so LLDP across one reports a MAC and an identity but no address — and those links stayed unresolved, drawing an external node beside the very device it already had on the map. Two directly connected devices appeared four times. Resolution by MAC now runs first, before address matching, because a MAC is hardware identity and unique fleet-wide where an address is not. This is the same join the CAPsMAN radio matching uses. CAPsMAN panel, from the reporter's testing - Radios and provisioned interfaces were two tables describing the same things from different angles; they are now one, per interface, with the access point, SSID, band, frequency, channel, clients and status. - Provisioning rules sit inside the configuration they apply. Rules referencing a configuration we did not collect are listed separately rather than dropped, since that usually means a stale reference. - The Wireless header reported zero clients while the Clients page reported 32: it summed the CAP-local count, which is empty under central forwarding. It now takes the greater of that and the controller's per-radio counts, so a controller that is also a CAP is not double-counted. - A remote radio could be attributed to the controller by the five-octet prefix fallback when the two shared a MAC block. Prefix matches now refuse the controller for a non-local radio; exact matches are still honoured. Radios tab followed device_type device_type is user-supplied tagging, and a router with radios had no way to display them. The tab now follows the detected wifi_role, which is a fact about the hardware. 48 tests on the CAPsMAN module, 22 on topology, including a fixture built from the device output in #95. Verified against the fleet: topology output unchanged, so MAC resolution merged nothing it should not have; guards correctly permissive on a standalone AP. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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2GT-RichandClaude Opus 5
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e15556b601 |
fix(wireless): CAPsMAN panel corrections from field testing (v0.22.1-beta)
All five points raised on #94 after the reporter tested v0.22.0 against a live CAPsMAN deployment. Two were regressions in that release. Operating channel instead of a capability list (mine) current_channel was stored from /interface/wifi/radio's current-channels, which is every channel the radio supports rather than the one it is using. Measured on a wAP ax: 535 characters on the 2.4 GHz radio and 3037 on the 5 GHz one — the "two kilobytes of text" reported. /interface/wifi/monitor gives the operating channel (5500/ax/Ceeeeeee/D), and carries state, peer counts and TX power too, all now shown on the radio chip. Client counts that were zero everywhere (mine) The panel read registered_clients from the CAP's own wireless_interfaces rows, which are empty when traffic is processed centrally by the controller. Monitor's registered-peers is not the fix either, and testing caught that before it shipped: clients register on the virtual AP carrying the SSID, not on the physical radio, so monitor on a physical radio reports zero on a busy access point. On the test AP, wifi1 and wifi2 both read 0 while wifi3-wifi6 held all ten clients. Counts now come from the registration table, with each entry attributed to its radio by following master-interface up to the interface owning a radio-mac. That field requires /interface/wifi/print detail — it is absent from the plain listing. Verified against real hardware: ten registrations, attributed 8 and 2 across the two radios, none dropped. "no network" on remote interfaces The Network column resolved from the AP's own bridge ports. A CAPsMAN-provisioned interface is not a local bridge port, so nothing matched and the UI asserted the interface had no network at all. It now falls back to the datapath — inline fields or a named/.id reference — and labels the source. Where the datapath names no bridge it says "via controller" rather than claiming no network. Status labels "Serving Clients" claimed something the underlying field does not say: running means the radio is up, not that clients are connected. Now "Running" and "Enabled, not running". Table title "SSIDs / Wireless Interfaces" conflated two different things; the table lists interfaces, virtual and physical. Now "Wireless Interfaces". Guest WiFi on CAPsMAN-provisioned radios Raised by the reporter as an aside, and it was a real hazard already shipping. setupGuestNetwork created virtual APs locally on whatever physical radios it found, with no awareness that a controller might own them — the SSID would be ignored or overwritten on the next provision while the UI reported success. Provisioned radios are now skipped with an explanation, and if every radio is provisioned the setup is refused, pointing at the controller instead. 37 unit tests on the CAPsMAN module. No regression on a fleet without a controller: local bridge-port resolution unchanged, roles still correct. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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2GT-RichandClaude Opus 5
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14bab24c7e |
feat(wireless): CAPsMAN awareness and read-only controller view (v0.22.0-beta)
Addresses #94, phases A and B. Write operations are deliberately out of scope. An access point provisioned by CAPsMAN holds none of its own wireless configuration, so /interface/wifi/print returns rows with the configuration.* and security.* fields absent. normalizeWifiInterface mapped nothing, stored nulls, and the UI rendered an AP with no SSID, security or band — indistinguishable from one that is simply broken. Phase A — stop showing blanks Devices are classified standalone / cap / controller / controller_cap from /interface/wifi/capsman and /interface/wifi/cap. Both toggles can be on: MikroTik supports a controller that also runs its own radios under itself, and the issue calls that case out, so it gets its own role. Provisioned interfaces are marked and labelled in the Radios tab with the controller's MAC and an explanation that the blank fields live on the controller. SSID, mode and channel are recovered from RouterOS's status line where present, so the AP is described rather than blank. Role is the signal, not missing data: an AP whose SSID is empty because the controller owns it looks identical to an unconfigured one, and only the toggle distinguishes them. A CAP can still hold locally-configured interfaces alongside provisioned ones, so per-interface state is checked rather than assuming the whole device. Phase B — read-only controller view Controllers now collect the radios they manage, named configurations, and provisioning rules, surfaced as a CAPsMAN panel on the Wireless page grouped by the access point each radio physically lives on. CAPs are matched to managed devices by radio MAC from the controller's own /interface/wifi/radio list, not by resolving addresses through neighbours as the issue proposed. A MAC is hardware identity and globally unique, so unlike an address it cannot mean two devices on two segments — the failure fixed in v0.20.1. A radio MAC often differs from the interface MAC in the final octet, so lookup falls back to a five-octet prefix while keeping the OUI exact. A CAP that is not a managed device is surfaced rather than hidden; that is usually the reason an AP appears to be missing from the fleet. The wireless section required device_type = 'wireless_ap' in five places, which hid a dedicated controller — normally classified as a router — from every wireless view. Collection was gated the same way. Both now include CAPsMAN roles, and the collector probes an unknown device once, records the role, and skips cheaply forever after. Not included Provisioning, config edits and interface enable/disable. A CAPsMAN configuration applies to every AP bound to it simultaneously, which is the fleet-wide version of the failure Change Guard exists to prevent. It needs the same prediction and revert treatment rather than being bolted on. Legacy /caps-man (pre-RouterOS 7) is a separate API tree and is not covered. Verified: API shapes probed against RouterOS 7.23 rather than taken from docs. 24 unit tests on the pure parsing and matching. No CAPsMAN hardware here, so the read path was exercised against a seeded controller with a local radio, a matched two-radio CAP and an unmanaged CAP; grouping, provisioning and SSID resolution all came out correct. Confirmed no regression on a fleet with no controller: roles detected correctly, no interface falsely flagged, wireless views unchanged. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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2GT-Rich
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5d96503832 |
Add Jest unit test infrastructure and initial test suite
Sets up Jest + ts-jest for the backend and adds 47 tests across 5 suites covering crypto utilities, OUI vendor lookup, auth middleware, AlertService dispatch/cooldown logic, and DeviceCollector uptime parsing. |