- AMT re-IP'd over WS-Man to static 10.100.250.61/24 (gw/DNS .1): AMT keeps
its old DHCP lease across a VLAN move, so it was unreachable until changed
(reached via a temporary on-link /32 on vmbr0 + ssh tunnel, since removed).
- KVM redirection enabled, redirection listener on, IPS_OptInService
OptInRequired=0; all read back. Password vaulted as nh3-pve/amt-admin.
- scripts/amt-wsman.py: stdlib WS-Man get/put/invoke client (digest auth,
AMT 16 legacy-renegotiation TLS), password from $AMT_PW.
- PFI-UDMSE port 6 override: native nh3-mgmt, tagged VLANs blocked (was
forward all / native default). Reservation nh3-pve-amt -> 10.100.250.61.
- nh3-pve: arp_ignore=8 / arp_announce=2 on enp88s0 (now on vmbr0's untagged
L2) so the host never answers ARP for 10.100.250.60 with the AMT port's MAC.
- DNS nh3-pve-amt.nh3.internal -> 10.100.250.61.
- Homepage: NH3-PVE-AMT card under Infra - NH3 (no siteMonitor/ping: AMT drops
ICMP and its legacy-renegotiation TLS fails Homepage's fetch).
- AMT keeps its old 10.100.0.151 lease until rebind/expiry (~1920-2224 PT
2026-09-26); it does not re-DHCP on a VLAN change or link drop (measured).
AMT had no IP because Linux had enp88s0 admin-down (it left vmbr0 on 09-25 and
had no auto stanza); igc powers off the I226-LM PHY when down, so AMT had no
link. With the port up (no IP, unbridged) AMT took a lease within minutes.
- nh3-pve: `auto enp88s0` (manual, unbridged) and sysctl.d disable_ipv6 on it;
backup /root/interfaces.bak-20260925-amt; runtime already matched, no reload.
- UDM: reservation nh3-pve-amt -> 10.100.0.151 (untagged nh3-default; the
cable is on an nh3-sw1 trunk, not the UDM).
- DNS nh3-pve-amt.nh3.internal. AMT 16.1.25 answers TLS :16993 and :664.
nh3-ml1's first Temperature alert (2026-09-25 2105, 88.8 C) was nh3-pve's CPU
package during the nightly vzdump; the GPU sat at 47 C. hwmon is not namespaced,
so an LXC's agent reports its host's coretemp sensors under the LXC's name.
- hosts/{nh3,esh}-ml1.yaml: SENSORS=-coretemp_*,acpitz (blacklist); GPU and
NVMe temperatures verified still reported.
- Hub: Temperature >95 C / 5 m on nh3-pve and esh-pve for the CPUs (i9-13900H
TjMax 100 C; nh3-pve 2-hour averages reach 88 C on busy days).
- nh3-pve README: runs warmer than esh-pve; workload confounds it, check
airflow on the next visit.
NH3 site visit done: Secure Boot off, iGPU restored as boot VGA, AMT port cabled.
- nh3-pve: NVIDIA 580.178.04 (DKMS, open modules) via pve-nvidia-host.yaml.
- nh3-ml1 = CT 109 @ 10.100.50.80 via gpu-lxc.yaml; embed-rerank (TEI 1.9.4)
deployed with HOST_NAME/HOST_IP labels.
- Parity vs esh-ml1 (1,126 texts, 2 runs/host, controls): embed cosine min
0.999993 = own noise floor; overlap@10 1.000 vs MRL-256 positive control
0.684; rerank top-1 1.00, max diff 0.0014 vs floor 0.0020. On-box speed
identical within rep spread.
- gpu-lxc.yaml: first step upgrades lxc-pve to >= 6.0.0-2 (Proxmox fix#7006).
With 6.0.0-1 every docker run in a nesting CT failed on runc 1.5's sysctl
reopen; applied on nh3-pve (one package).
- pve-nvidia-host.yaml: document that the headers meta drags in the newest
kernel (nh3-pve went 6.8.12-11 -> -43 at the next reboot).
- Monitoring: Beszel NVIDIA agent + 5 alerts, Kuma #29/#30, Homepage
nh3-ml1-docker, Dozzle agent (hub 8 clients). DNS nh3-ml1.nh3.internal.
- nh3-pve README: SB/IGFX/driver/kernel state, btmtk oops on -4x kernels,
AMT cabled but unreachable on the network.
Gateway routing to nh3-ml1 is not changed.
nh3-pve and esh-pve are the same Minisforum MS-01 (BIOS AHWSA.1.17). With a
card in the x16 slot its root port takes bus 01 and every NIC moves down a
bus (measured on esh-pve), so predictable names change (enp2s0f0np0 ->
enp3s0f0np0 etc.) and vmbr0 would boot with no uplink. systemd .link files
now pin all NICs by MAC, baked into every initramfs and synced to the ESP;
udev confirms the files apply. The AMT-capable I226-LM (enp88s0) leaves
vmbr0's bridge-ports in the file (next boot), so cabling it for AMT cannot
loop the STP-less bridge.
Also: documented the NanoKVM (https://10.100.250.171) as nh3-pve's console
OOB and that AMT is not wired; nh3-dev's Beszel agent no longer binds NAS
shares (it died on the last NH3 cold start); post-boot checklist in
persistent-memory.
After the 2026-09-24 NH3 power outage every NFS line from nh3-nas failed at
boot: nh3-docker's /mnt/compose and /mnt/backup, and nh3-dev's /mnt/backup.
The NAS is the slowest box to serve NFS, and the plain fstab mounts stayed
down until remounted by hand. nh3-dev's /mnt/smithy already used
x-systemd.automount, and the same boot shows it self-healing on its next
access. playbooks/nh3-nfs-automount.yaml brings the other lines to that
shape (_netdev,nofail,x-systemd.automount,x-systemd.mount-timeout=30).
Hard-mount semantics are unchanged; only WHEN the mount happens moves.
Applied and read back on nh3-docker and nh3-dev: every nh3-nas line carries
automount, each automount unit is active, and each share is NFS-mounted after
access. A second run on nh3-docker is a no-op. The fstab check judges only
errors the rewrite ADDS, because nh3-dev's installer cdrom line has a
pre-existing verify error. The first run caught that and aborted without
writing.
servers/nh3-pve/README.md now lists each guest's expected state after a
power loss: nh3-laser is on-demand and stays off (Prime), pbs-nh3 now has
onboot=1 (it had none and stayed down), and pfi-gx10 is bare metal that
does not auto-power-on.
nh3-dev sits on the NH3 LAN and reaches every site through its own default
gateway; RouteAll was already false, so it never used the tunnel for routing.
Membership bought a 100.64.0.4 address nothing referenced -- grep across the
repo and ~/development found only docs and memory hits.
It also cost something concrete. A host running Tailscale installs
-A ts-input -s 100.64.0.0/10 ! -i tailscale0 -j DROP, and because the fleet's
subnet routers preserve source rather than masquerading RFC1918, a mesh client's
packet reached nh3-dev's ens18 still sourced 100.64.x and was dropped silently.
That is why nh3-dev.nh3.internal failed from the mesh while every NH3 host that
does not run Tailscale worked, and it needed a -d 10.100.10.50/32 -j MASQUERADE
exception on nh3-scale to paper over. Retiring the membership removed the
anti-spoof rule, so the exception went with it -- mesh-exit-masq.sh is back to
the two rules it had before yesterday.
Verified after: nh3-dev reachable at 10.100.10.50 from ESH, Anaheim, FV, Irvine
and NH3, and reaching all four sites plus the internet itself. fv-ml1
unaffected.
The mesh is now six nodes and every one has a job: three site routers,
vb-gateway, irv-ml1 (Irvine's own router, no separate scale node), and the
operator's MacBook Air. Nothing is enrolled just in case.
FV could not reach any site but Anaheim. The cause was a single outbound-NAT
rule on the FV gateway, added 2026-09-13 and scoped to Anaheim only --
docs/runbooks/fv-to-ana-nat.md says so in as many words: "Other remote sites
remain outside this fix's scope." Three mirrors added, same interface and
source, only the destination differing: 10.100.0.0/16, 10.0.0.0/16 and
10.6.110.0/24.
After: fv-ml1 reaches NH3, ESH, Anaheim, Irvine, the mesh and the internet.
Regression sweep clean across nh3-dev, nh3-docker and esh-docker-vm.
The runbook now records what the failure looks like, because it presents as a
routing or Tailscale fault and is neither. fv-ml1 reached mesh addresses
perfectly and LAN addresses not at all; the FV firewall log showed the outbound
passing with src=10.251.50.54 and no reply returning; temporary counting rules
proved nh3-scale received 5 packets and sent 4 replies; both peers' AllowedIPs
were correct. The discriminator that settles it is that every other site pair
works -- nh3-docker to esh/ana/FV and esh-docker-vm to FV all succeed -- so a
general subnet-to-subnet limitation is ruled out and only outbound SNAT is
left.
Also reverts the remote-site MASQUERADE rules added to nh3-scale earlier on the
asymmetric-return theory. They fired but were not the fix, so they are removed
rather than left to accumulate as NAT that achieves nothing.
Applied via source_nat/add_rule + apply with a pre-change config backup taken
first. Source scope is still fv-ml1's /32, so a second FV host will hit this
again -- flagged in the runbook.
WATCHDOG (done, proven). fv-mesh-watchdog probes two independent anchors every
minute and, after 5 consecutive failures, puts Tailscale back to known-good:
accept-routes off, re-up against headscale with a stored key. It touches
nothing else — a watchdog with a wide remit is a second way to lose the box.
Two anchors that cannot share a failure mode: a plain-internet one and a
mesh-only one. If BOTH fail the site uplink is down, Tailscale cannot fix that,
and it deliberately does nothing — thrashing tailscaled during an ISP outage
turns a wait into an incident. Disable file at /etc/fv-watchdog.disable for
planned work.
Proven by positive control, not assumed: counter incremented 1..4 without
acting, fired the restore at 5 (tailscale up ran, tailscaled restarted), and
reset to 0 once the real anchor returned. fv-ml1 stayed reachable throughout.
This exists because a on fv-ml1 black-holed it
from its own LAN earlier the same day: it accepted 10.251.0.0/16 from the
gateway — its OWN subnet — and routed the local network through the tunnel.
FV CROSS-SITE ROUTING (partial). Two changes landed, the path is still broken:
1. acceptSubnetRoutes 0 -> 1 on the FV gateway's tailscale plugin, via
settings/set + service/reconfigure (the documented apply, not a reboot).
The GATEWAY now has 10.0/16, 10.100/16 and 10.250/16 in its routing table
and reaches NH3 and ESH itself. It could not before.
2. Remote-site MASQUERADE rules on nh3-scale. The existing jump matched only
-s 100.64.0.0/10, so traffic from another site's LAN never entered
MESH-EXIT and kept its original source; an NH3 host then replied via its
own LAN router instead of back through nh3-scale, making the path
asymmetric. The rule is confirmed firing (counter increments on FV
traffic) but does not complete the path.
Still failing: fv-ml1 -> NH3/ESH LAN addresses. Mesh addresses work perfectly
from fv-ml1 (100.64.0.1, 100.64.0.4), Anaheim works over the metro link, and
the FV firewall log shows the outbound passing on tailscale0 with
src=10.251.50.54 and no reply ever returning. The remaining gap is forwarded
FV-LAN traffic specifically, not the gateway's own.
Full regression sweep clean: nh3-dev, ana-docker and esh-docker-vm all reach
all four sites plus the internet.
One rule on nh3-scale (CT 107): -d 10.100.10.50/32 -j MASQUERADE, above the
RFC1918 RETURNs in /usr/local/sbin/mesh-exit-masq.sh, so it survives a reboot
rather than living only in the running ruleset.
Cause. A host that runs Tailscale installs -A ts-input -s 100.64.0.0/10
! -i tailscale0 -j DROP. The fleet's subnet routers run NoSNAT: true with
RFC1918 explicitly exempted from masquerade — deliberate source preservation,
and a departure from Tailscale's own --snat-subnet-routes=true default — so a
mesh client's packet reached nh3-dev's ens18 still sourced 100.64.x and died
at the anti-spoof rule. Every NH3 host that does not run Tailscale was
unaffected, which is why this read as a DNS or routing fault rather than a
policy one. Masquerading just this destination makes it behave like every
other host and leaves source preservation absolute elsewhere.
Verified before and after against 13 targets from nh3-dev and 9 from the
MacBook Air, and again after restarting the service so the chain was rebuilt
from the script rather than from the manual insert. nh3-dev.nh3.internal now
resolves and connects from the mesh, ssh and the Booth port included, with no
script changes anywhere.
Records the failed approach prominently, because it is the attractive one:
advertising 10.100.10.50/32 from nh3-dev itself black-holed it from ESH,
Anaheim, FV and Irvine. ip rule there puts lookup 52 at priority 5270 ahead of
main at 32766, and becoming a subnet router let table 52 capture cross-site
traffic the node has no accepted route for. Its own LAN and the internet kept
working throughout, so a single-host check confirms a break it cannot see.
Parallel to refresh-server-info.sh but pipes proxmox_inspect.sh and writes
to servers/<host>/proxmox-details.txt. Same discovery / ssh-target /
validate-only / dry-run behavior.
Fleet-wide `all` matches dir names containing `-pve` (covers *-pve and
*-pve-* so esh-pve-nas is included alongside pfi-pve / nh3-pve / esh-pve).
Explicit names are never filtered — useful for one-off PVE hosts with
non-matching names.
Validation checks the captured snapshot for: truncation, missing PVE
version line, non-Proxmox target, and surfaces backup-coverage "NO"
verdict counts so gaps show up in the validate-only output.
Initial fleet snapshot refreshed.
Read-only companion to server_inspect.sh. Runs over ssh via stdin the
same way:
ssh root@pfi-pve 'bash -s' < scripts/proxmox_inspect.sh \\
> servers/pfi-pve/proxmox-details.txt
Captures what the generic inspect misses on PVE nodes:
- Cluster + node resources (pvesh get /cluster/resources)
- VM list + per-vmid config highlights (qm list, qm config)
- LXC list + per-ctid config highlights (pct list, pct config)
- Storage pools (pvesm status, zpool, storage.cfg, NFS mounts)
- Backup jobs table parsed from /etc/pve/jobs.cfg (no jq needed)
- Per-guest backup coverage verdict: YES/NO with reason
- Most-recent actual backup per VMID on each local dump storage
- PBS targets, replication jobs, listening ports, subscription status
Coverage analysis surfaces the real gap: on pfi-pve, VMIDs 106, 107,
109, 112, 113 have no scheduled backup; VMID 106 (PFI-Tailscale) has
not been backed up since 2024-05-31. nh3-pve uses "all" job and covers
everything. esh-pve + esh-pve-nas share the tank-vmbu dump storage via
NFS; coverage splits cleanly across the two nodes.
First snapshots committed for each PVE host.
pfi-pve (Anaheim), nh3-pve (NH), esh-pve + esh-pve-nas (ESH home lab) now
have servers/<host>/ entries with ssh-target files, README stubs, and
first snapshots. Register all four via add-host.sh + ssh-copy-id; SSH
auth is root@<name> with key-based access.
Fix a resolver bug in the three workspace scripts: previously, when a
hostname resolved via /etc/hosts, resolve_target returned the bare name
and ssh dropped the user prefix stored in ssh-target (connecting as the
wrong user). Now ssh-target wins whenever it's present, since it can
carry user@ or port info that /etc/hosts + ssh_config cannot. Falls back
to the dir name only when no ssh-target file exists.
CLAUDE.md and README.md split the fleet table into Docker hosts vs
hypervisors with an explicit placement rule: don't deploy Docker stacks
on PVE hosts; capture host-level detail with server_inspect.sh, use
Proxmox-native tooling (qm list, pvesh, zpool) for VM/storage audits.
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