6c3d2aaa35999703798b95a589a484e5c181f081
16
Commits
| Author | SHA1 | Message | Date | |
|---|---|---|---|---|
  2GT-RichandClaude Opus 5
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7b994ad935 |
feat(sites): one install, many networks (v0.24.0-beta)
Closes #130. Multi-site, not multi-tenancy: a site is a named collection of devices whose clients, events, topology and dashboards are viewed separately. Sites separate what you see, not who you are — the admin/manage/read-only roles are unchanged and every user sees every site. Per-site permissions would have multiplied the work for a need nobody stated. Two measurements decided the design. Every device-derived table hangs off devices(id) — 25 of 50 tables, 35 foreign keys — so a single site_id column on devices scopes clients, events, topology, backups and the rest transitively. No other table needed one. The frontend has 162 useQuery call sites across 57 files. Threading a site through each would be a large change that leaves a permanent trap: every future query another chance to forget. The site is injected in the existing axios interceptor instead, beside the auth token, so a new query is scoped by default. Only 23 collection routes needed filtering; the 131 per-device routes are already scoped by their device. Existing installs are untouched. Migration creates one "Default Site", adopts every device into it, and a single-site install never meets the concept. An absent X-Site-Id header means unscoped, so existing API tokens and scripts behave exactly as before. Polling stays fleet-wide. Sites are a view over data already gathered, not a change to how it is gathered — a device does not stop being monitored because you are looking elsewhere. Rogue-AP detection scopes the scans but keeps the "these are ours" BSSID set fleet-wide, or your own AP in another site reads as an evil twin. Bulk actions do obey the selector: an operation that silently spanned two customers is the blast radius the wave guards exist to contain. Four rounds of defects came out of testing the UI rather than the API, and the first is the one worth recording. Switching sites called queryClient.clear(), which empties the cache and reviews as correct. It isn't: clear() destroys each query but a *mounted* observer keeps its own reference and last result, so every rendered page went on showing the previous site's data. The QueryClient is now keyed on the site, which remounts the tree against an empty cache. Three tests pin the old behaviour down so the shortcut cannot return. The others: an unscoped fallback path behind the Connected Clients chart; Config Health, TX retries and the activity feed reading fleet-wide; and site_id added to the device list query but none of the other four that build a device payload, so the Site field could not read its own value and appeared to reject every change while the writes were landing. That last one is now structural — DEVICE_BASE_COLUMNS is shared by all five, with a test that fails when a device payload is hand-rolled, and which found two further instances while being written. Frontend tests were never run by CI despite vitest being configured and six suites existing; they now run in both the workflow and ci-preflight. Verified against a live four-device fleet: the migration left every figure identical, an empty site returns zero from every read endpoint, moving a device carries its history with it, and deleting a site with devices is refused. Minor bump rather than patch: sites change the shape of the product rather than adding to it. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com> |
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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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4cc8c84ea6 |
fix(wireless): model channel usage as spectrum, not channel numbers (v0.23.5-beta)
Closes #98, #97. The Channel Usage panel treated a radio as occupying a channel *number* and coloured a channel amber when two radios shared it. Both halves are wrong, and the result is not merely incomplete — it gives actively bad planning advice. Channels are not slots. In 2.4 GHz the centres are 5 MHz apart while a channel is 20 MHz wide, so an AP on channel 1 occupies about 2402-2422 MHz and pollutes channels 1 through 5. Showing 2 through 5 as free is why 1/6/11 exists as the only three-way non-overlapping plan, and a model built on channel indices cannot express that. Sharing a channel is also not the problem. Two radios on exactly the same channel hear each other and take turns; CSMA/CA does its job and the cost is airtime. Two radios partially overlapping cannot decode each other, transmit over one another, and the cost is corruption. Partial overlap has to rank above co-channel, and it was not represented at all. Occupancy is now modelled in megahertz and overlap classified by how two ranges relate. On the local fleet, a 40 MHz radio on channel 1 is correctly shown bleeding 5 MHz into two channel-6 radios — which are themselves correctly identified as co-channel with each other rather than as the worst problem in the band. The model lives in the backend (utils/rfSpectrum.ts) with 26 tests rather than in the browser, because it is correctness-critical and the frontend has no test runner. Tests pin the arithmetic that is easy to get wrong: 1/6/11 is clear, 1/3/5 is three partial overlaps, channels 4 and 8 abut exactly rather than overlapping, a 20 MHz radio nested inside an 80 MHz one is partial rather than co-channel, and a lone radio is clear rather than co-channel with itself. The panel now draws real spectrum to scale, stacking overlapping radios so each stays visible, with the clash list on hover naming the other radio and how many megahertz they share. Width is taken as the widest entry of a RouterOS capability list such as 20/40/80mhz, since that is the spectrum the radio may occupy and therefore what a planner must treat as unavailable. Per-location scoping (#97): analysis runs per CAPsMAN controller, with a selector, because two APs on channel 6 in different buildings are not a conflict. Radios with no controller are analysed together as standalone. 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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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-RichandClaude Opus 5
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93ff1fbc53 |
feat(safety): Config Health audit, verified auto-revert, VLAN cache fixes (v0.20.0-beta)
Completes the lockout-prevention work: a standing audit for configurations
RouterOS accepts but that do not work, an empirical answer on /system history
undo, and corrections to the VLAN cache the editors are built on.
Config Health (new)
Eleven rules over a live snapshot, encoding MikroTik's documented Layer2
misconfigurations plus the latent lockout cases: IP or VLAN interface on a
bridge slave port, a bridged VLAN interface, a bond slave that is also a
bridge port, MTU above L2MTU, a multi-VLAN entry with untagged ports,
bridges competing for hardware offload, a port in no VLAN on a filtering
bridge, a PVID that frame-type=admit-only-vlan-tagged makes inert, a VLAN
interface whose VLAN the bridge is not tagged in, duplicate addresses, and
management that survives only on a dynamic entry. Each finding names the
consequence, the fix, how long it has been present, and the vendor doc.
Runs hourly, surfaces on the Security tab and the dashboard.
Calibrated against hardware: RouterOS 7 relocates an address off a bridge
slave port onto the bridge (actual-interface), so the stock defconf layout
works. Reporting that as critical would have fired on a default install; it
is informational unless RouterOS did not relocate it.
Change Guard: severed-connection handling
Proven on a CRS by deleting its own management address — the switch locked
itself out and self-restored unattended in ~3 minutes, twice.
That test exposed a real defect. withSafeApply treated any exception from
the apply step as "the change failed", disarming the guard and rethrowing.
But the most dangerous changes sever the connection carrying them, so the
call times out even though the change applied. The guard was stripping the
safety net off a device that had just gone silent, and reporting HTTP 500
"Read timeout" instead of telling the user the device was restoring itself.
Only luck saved it: the disarm needed the same dead connection.
Reachability now decides, not the exception. Unreachable leaves the revert
armed and returns auto_reverting; still reachable means a genuine failure,
disarmed so nothing reboots for nothing. committed_at is no longer stamped
on failed or reverted guards; resolved_at records completion instead.
/system history undo probe
probeUndoCapability tests the device rather than assuming. On 7.23.x over
the binary API: /system/history/print works, /system/history/undo does not
exist, /undo numbers= rejects the parameter, bare /undo works. Undo is
therefore untargeted, and cannot replace auto-revert since a dead-man switch
must fire after contact is lost. Binary restore stays the default.
VLAN cache correctness
- vlans keyed on (device_id, bridge, vlan_id); the old key collapsed the
same VID on two bridges
- vlan-ids ranges expanded instead of parseInt truncating "10-20" to 10
- both VLAN tables pruned, but only when the device returned an
authoritative list, so a failed read leaves the cache stale not empty
- bridge_vlan_entries.vlan_ids written and .tagged derived rather than
hardcoded false, which had left the port editor unable to see a trunk
- removeBridgeVlan matched by expanded VIDs; the ?vlan-ids= server filter
compares raw strings, so deleting one VID of a range silently no-opped
while reporting success. Multi-VLAN entries are refused in the route,
before the guard arms, since a mid-apply failure would cost a reboot
- interfaces.vlan_filtering promoted to a column
Membership is deliberately the STATIC tagged/untagged, never current-*.
These tables back the editors and updateBridgeVlan is remove-then-add, so
whatever is shown is written back; the effective view baked RouterOS's
dynamic PVID entries into saved configuration on every save. Analysis that
needs the effective view reads the device live. Extracted to pure functions
with tests, because that path was previously untestable inline.
Verified on four devices; 195 backend tests; all CI gates green.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
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2GT-RichandClaude Opus 4.8
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c0f230bdf2 |
feat(auth): OIDC / SSO single sign-on (v0.17.0-beta)
Add OpenID Connect single sign-on so the platform can authenticate against any standards-compliant provider (Entra ID, Okta, Google Workspace, Keycloak, Authentik, …) alongside local accounts. Resolves the feature request in #73. Flow (backend-driven Authorization Code + PKCE): - GET /api/auth/oidc/login builds the authorize URL and stores the PKCE/nonce transaction in Redis (single-use, 10m TTL); the callback validates the ID token via openid-client (JWKS signature, iss/aud/exp/nonce), resolves the identity to a local user, and mints the platform's normal session JWT — handed to the SPA via URL fragment. No sessions/cookies introduced. Identity mapping (users table gains email/oidc_subject/oidc_issuer/ auth_provider; password_hash now nullable; partial unique indexes): - First sign-in auto-provisions a user, or links to an existing local account when the IdP email is verified and matches. - Roles derive from a configurable IdP group -> role map with a default fallback; existing users are never auto-demoted on a groupless login. Configuration (admin-only, no env/redeploy needed): - Stored as an app_settings row with the client secret encrypted at rest (utils/crypto); masked in responses and excluded from GET /api/settings. - New UI: Settings -> SSO / OIDC panel (issuer/client, claim + group->role mapping, provisioning toggles, discovery test, copyable redirect URI), a login-page SSO button, and an SSO badge in Users & Roles. Security: local break-glass login preserved; PKCE + single-use state; email linking requires email_verified; same-site-only post-login redirect. Adds openid-client@^5 (CommonJS). 17 new unit tests (claim/role mapping, username derivation, config secret round-trip/masking); 114 backend tests pass. Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com> |
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2GT-RichandClaude Opus 4.8
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9dfb8a5333 |
feat: Guest WiFi, network intelligence, firmware orchestration, platform automation, api-ssl (v0.16.3-beta)
Guest WiFi (Hotspot): one-click captive-portal wizard that creates the guest SSID (virtual AP per radio), VLAN/bridge segregation + L3 VLAN interface, pool, DHCP, portal, rate-limited guest profile, and masquerade; vouchers with limits + printable sheets; live guest sessions; walled garden. Network intelligence: per-client device fingerprinting (vendor/hostname → category) with a persisted per-client override on the detail page; rogue/neighbor AP detection from stored AP scans (evil-twin flagging); Mist-style anomaly insights (client-count/CPU vs same-hour 14-day baseline + error bursts) in the Operations engine. Firmware orchestration: staged wave-based RouterOS rollouts (canary first) with pre-upgrade backup, reboot-ride-out, version verification, halt-on-failure, and scheduling; live per-device progress + cancel. Platform & automation: scoped API tokens (mtm_, read/write, hashed at rest, Bearer auth in requireAuth); outbound webhooks (12 events, HMAC-signed) fired from the alert pipeline + firmware orchestrator; scheduled email reports. api-ssl: RouterOSClient negotiates TLS on port 8729 and accepts RouterOS's default self-signed certs (rejectUnauthorized:false), so SSL-secured API devices connect without manual cert trust. Fixes #57. Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com> |
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2GT-Rich
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4e6c9f481e |
feat(wireless+ports): RF Health panels + physical per-port clients (v0.16.1-beta)
Wireless RF Health (fleet Wireless page + per-AP Radios tab):
- Channel usage map across 2.4/5/6 GHz with co-channel overlap; operating
channel resolved live from /interface/wifi/monitor on the wifi package
(auto-channel radios report no frequency in /print).
- AP deployment density: client RSSI distribution on the -90..-30 dBm scale
with a coverage-gap warning.
- AP radio TX retries histogram (0%->35%+) with band selector, derived from
per-client CCQ (new wireless_radio_quality InfluxDB series).
- WiFi connectivity success funnel (Association/Auth/DHCP) derived from logs.
Per-port connected clients (Ports tab):
- New card lists clients physically connected to a selected port (host/MAC/
IP/VLAN/connection time, linked to client pages).
- Distinguishes physical clients from the raw MAC table: uplink/trunk ports
are auto-detected (topology neighbor, multi-VLAN MAC spread, or high MAC
count) and show an uplink explainer + "view MAC table" disclosure instead
of every reachable MAC.
- Added clients.first_seen ("connected since"); set once, preserved across polls.
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2GT-RichandClaude Fable 5
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b841eb6e7b |
feat: NetFlow/IPFIX traffic analytics — per-client usage, app breakdown, built-in collector (v0.13.0-beta)
Adds Meraki-style traffic analytics powered by MikroTik Traffic Flow: Backend - Built-in NetFlow v9 + IPFIX collector (UDP 2055) with hand-rolled decoder, template caching, enterprise-field and IPv6 support - Flow attribution: client IP → MAC via the clients table, upload/download direction, NAT-duplicate records dropped - App classification by protocol/port (~25 categories: HTTPS, QUIC, DNS, SSH, Email, WireGuard, ...) - Deduplication: per-client best-exporter-per-window so flows crossing two managed routers are never double-counted - NAT-tolerant ingest: flows from sources matching no managed device (NAT / Tailscale subnet routers in path) are accepted as per-source unidentified exporters instead of silently dropped (netflow_accept_unknown setting) - Storage: InfluxDB client_traffic time-series (bounded cardinality via top-N fold) + Postgres client_traffic_daily rollups; daily retention purge - One-toggle device config push via RouterOS API (/ip traffic-flow + target) - New /api/traffic/* analytics endpoints + /api/network-services/netflow - docker-compose: NETFLOW_PORT (default 2055/udp) published on the backend Frontend - New Traffic page: fleet up/down chart, top talkers with client click-through, app-category donut, 1h–30d ranges - New NetFlow config page: collector settings, live ingest stats, per-device export toggles with health badges, NAT-source banner - Client detail: App Traffic card (auto-hides without data) - Clients page: sortable "Data (today)" column - Settings: NetFlow retention controls Includes 17 unit tests (decoder fixtures, dedup, attribution, classifier); verified end-to-end against live RouterOS devices. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
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2GT-RichandClaude Opus 4.8
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367034c2d6 |
feat: config history (diff/rollback) + friendly backup scheduling (v0.12.3-beta)
Configuration History: - Per-device snapshots from the full RouterOS /export (.rsc) — config-only, so counters/operational state no longer cause phantom changes; deduped by content hash - New Config History tab: snapshot timeline, readable line diff, on-demand Capture (with honest 'no changes' feedback), one-click rollback via the linked .rsc backup - Snapshot and its backup are one artifact: badged 'Config Snapshot' on the Backups page, FK ON DELETE CASCADE keeps them in lockstep; delete is gated by a warning modal - New config_drift alert event (off by default); periodic snapshot poll with configurable cadence/retention (config_snapshot_interval_min/_retention) - New endpoints under /api/config-history (list/get/diff/capture/rollback/delete) Scheduled Backups: - Replaced the raw cron textbox in Settings with Frequency (Daily/Weekly/Monthly) + time + day pickers; cron is generated/parsed behind the scenes - Fixed cronMatchesNow to evaluate day-of-month/month/day-of-week (it previously only checked minute/hour, so weekly/monthly schedules ran every day) Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com> |
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2GT-RichandClaude Sonnet 4.6
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49ab1b002e |
feat: audit log, device tags, maintenance windows (v0.11.3 Beta)
- Audit log: middleware captures all write operations, paginated admin UI in Settings - Device tags: full CRUD, device assignment, filter bar and chips on Devices page - Maintenance windows: alert suppression during planned downtime, Settings management UI Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com> |
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2GT-RichandClaude Sonnet 4.6
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6a4ab1fc5f |
feat: scheduled backups, availability tracking, PoE power metrics (v0.11.2 Beta)
P1 — Scheduled Backups - BackupService.createBackup() now accepts a `type` param (manual/scheduled) - PollerService: cronMatchesNow() parser + runScheduledBackups() + Redis 1h gate - Settings page: backup schedule toggle + cron expression input with examples P2 — Uptime/Availability Tracking - DB: device_availability table (went_offline_at, came_back_online_at, duration_seconds) - PollerService: inserts outage rows on offline detection, closes them on recovery - GET /api/metrics/device/:id/availability?range=30d endpoint - /api/metrics/summary now includes fleet 30-day uptime % - DeviceDetailPage: 30-day availability card (uptime %, outage count, longest outage) - DashboardPage HealthBar: Uptime 30d mini-stat P3 — PoE Power Draw Metrics - DeviceCollector.collectPoePower() queries /interface/ethernet/poe/monitor for switches - Writes poe_power measurement to InfluxDB (tags: device_id, port; fields: watts, current_ma, voltage_v) - GET /api/metrics/device/:id/poe endpoint (current per-port + 1h history) - SwitchPortDiagram: amber watt badge on PoE-active ports - HardwareTab: PoE budget section showing active ports and total watts Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com> |
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2GT-Rich
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68d88d0306 |
feat: RouterBOOT upgrade support, update UI overhaul, discovery fixes (v0.10.6 Beta)
RouterOS vs RouterBOOT distinction: - Rename "Firmware Updates" → "RouterOS Updates" everywhere (Config tab, dashboard banner, devices list tooltip) to accurately reflect what is being updated - Add RouterBOOT bootloader upgrade support as a distinct operation: new DeviceCollector methods checkRouterboardUpgrade() and installRouterboardUpgrade() using /system/routerboard/print and /system/routerboard/upgrade - New API endpoints: POST /api/devices/:id/check-routerboard and POST /api/devices/:id/install-routerboard - Daily poller now also checks RouterBOOT upgrade status while already connected during firmware check cycle, with first-discovery alerts Config tab update panel: - Combine RouterOS and RouterBOOT into a single "Software & Firmware Updates" card with two subsections separated by a divider - Pre-populate both sections from stored DB state on load — no longer requires a manual "Check" click to see a known pending update - Enforce update order: when both are pending, show a blue info banner explaining RouterOS must be installed first, and disable the RouterBOOT "Upgrade & Reboot" button until the RouterOS update clears - Fix GET /api/devices/:id to include firmware_update_available, latest_ros_version, routerboard_upgrade_available, upgrade_firmware_version (these were missing from the detail endpoint) Dashboard & devices list: - Combined amber banner now shows two distinct rows: RouterOS (N) with device links and RouterBOOT (N) with device links — one dismiss for both - Devices list: amber ArrowUpCircle = RouterOS update, blue Cpu icon = RouterBOOT upgrade, each with distinct tooltips - Fix GET /api/devices (list) to include routerboard_upgrade_available and upgrade_firmware_version (these were missing, causing RouterBOOT notifications to never appear on the dashboard) DB migration: - Add routerboard_upgrade_available BOOLEAN DEFAULT FALSE - Add upgrade_firmware_version VARCHAR(20) Discovery system fixes: - Fix duplicate entries: replace single-key (mac || ip || identity) dedup with three cross-referenced indexes so a neighbor seen via LLDP by one device and via MNDP by another always merges into one row - Fix offline devices persisting: handleDeviceFailure now deletes topology_links for the offline device (same pattern as clients) - Add periodic stale-link sweep every 15 min that removes topology_links rows older than 20 min as a safety net for devices that go offline without cleanly triggering handleDeviceFailure |
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30bf691596 |
feature(devices,topology,tz): devices bulk-add, duplicate safety, and firmware/timezone fixes
Squash-merge of PR #28 from @denis-ev. All three review blockers addressed: encryption key management documented, string truncation replaced with skip+warn validation, and undefined return on duplicate merge fixed with proper 500. Local test stack verified against cloned prod DB — migrations, new features, and backend all clean. |
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Rich Teslow
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6b0fc9fdf1 | Initial commit baby! |