{{- $name := printf "%s-%s" .Release.Name .Chart.Name -}} {{- $replicas := include "freesailarr.replicas" (dict "scaleDown" .Values.scaleDown "replicas" .Values.replicas) -}} {{- /* The effective (null-safe) startup probe, so the budget below matches the container even when the block has been erased (#99). */ -}} {{- $startup := fromYaml (include "freesailarr.probeFor" (dict "root" $ "app" "gluetun" "kind" "startupProbe" "given" .Values.gluetun.startupProbe)) -}} {{- $budget := mul (int $startup.periodSeconds) (int $startup.failureThreshold) -}} {{- $ingressApps := include "freesailarr.ingressApps" . | fromJsonArray -}} {{- $portApps := include "freesailarr.portApps" . | fromJsonArray -}} {{- $sharedHost := .Values.ingress.host | default "" -}} {{- $shared := include "freesailarr.sharedIngressApps" . | fromJsonArray -}} {{- $sharedNames := list -}} {{- range $shared }}{{ $sharedNames = append $sharedNames .name }}{{ end -}} freesailarr — release {{ .Release.Name }} in namespace {{ .Release.Namespace }}. Nine containers in ONE pod, sharing gluetun's network namespace. NOTHING IS READY UNTIL THE TUNNEL IS UP gluetun's readiness probe is its health server, which answers 200 only while the Wireguard tunnel is actually working. So "pod not Ready" almost always means "no tunnel", not "app broken". The startup budget is {{ $budget }}s before Kubernetes starts killing the container: kubectl -n {{ .Release.Namespace }} logs {{ $name }}-sfs-0 -c gluetun -f While gluetun is down its firewall keeps blocking every app container's egress. That is the kill switch doing its job — the apps stay up and simply reach nothing. THE 1PASSWORD ITEM AND THE TWO FIELDS IT MUST CONTAIN secrets.gluetunSecretRef -> {{ .Values.secrets.gluetunSecretRef | default "(not set)" }} wireguard-private-key wireguard-addresses A missing field does not fail the install: gluetun starts with the variable empty and never completes a handshake. kubectl -n {{ .Release.Namespace }} get onepassworditem {{ $name }}-gluetun-secret {{- if not .Values.gluetun.vpn.firewallOutboundSubnets }} SET gluetun.vpn.firewallOutboundSubnets — IT IS EMPTY RIGHT NOW Without it the gluetun firewall blocks cluster-internal egress as well: lookups against cluster DNS and seerr reaching an in-cluster Jellyfin both fail, in a way that looks like an application bug. Set it to the cluster pod and service CIDRs, e.g. "10.42.0.0/16,10.43.0.0/16" on k3s. {{- end }} ACCESS {{- if and .Values.ingress.enabled $ingressApps }} {{- range $shared }} {{ .name }}: https://{{ $sharedHost }}{{ if ne .path "/" }}{{ .path }}{{ end }} {{- end }} {{- range $ingressApps }} {{- $cfg := (index $.Values .name).ingress }} {{- if not (has .name $sharedNames) }} {{ .name }}: https://{{ $cfg.host }} {{- end }} {{- end }} {{- if $shared }} These apps share one host, one Ingress and one certificate. {{- if has "bazarr" $sharedNames }} BAZARR NEEDS ONE MANUAL STEP UNDER A SUB-PATH Bazarr reads its base path only from its own configuration - it has no environment variable for it, so the chart cannot set it. Open bazarr, go to Settings -> General -> Base URL, enter {{ include "freesailarr.appPath" (dict "root" $ "app" "bazarr") }} and restart the pod. Until then bazarr answers only at the root and the sub-path shows a broken UI. radarr, sonarr and prowlarr need nothing - the chart sets their UrlBase itself. {{- end }} {{- if has "qbittorrent" $sharedNames }} QBITTORRENT SITS BEHIND A PREFIX-STRIPPING REWRITE It has no base path of its own, so it gets a second Ingress object on the same host whose rewrite cuts the prefix off. Two things there look exactly like a login failure and send you looking in the wrong place: its session cookie is marked "Secure" (over plain HTTP the browser never sends it back and every click bounces to the login form), and it bans the client IP for a while after a few failed attempts. If it does not work at all, set qbittorrent.ingress.host and it is back on a host of its own - no chart change needed. {{- end }} {{- if not (has "seerr" $sharedNames) }} NOTHING SERVES THE ROOT OF {{ $sharedHost }} seerr is the app that sits at "/" and it is not on the shared host, so https://{{ $sharedHost }}/ answers 404. The sub-paths are unaffected. {{- end }} {{- end }} Every app listed with a host of its own has its OWN Ingress and its own TLS secret. While cert-manager is still issuing, the browser warns: kubectl -n {{ .Release.Namespace }} get certificate {{- else }} No Ingress is rendered{{ if not .Values.ingress.enabled }} (ingress.enabled is false){{ end }}. Reach an app through its own service: {{- range $portApps }} kubectl -n {{ $.Release.Namespace }} port-forward svc/{{ $name }}-{{ .name }}-service {{ .port }}:{{ .port }} {{- end }} {{- end }} {{- if .Values.qbittorrent.enabled }} qBittorrent's WebUI rejects a Host header whose port differs from its own ({{ "8080" }}) with a plain 401. A port-forward on a different local port therefore looks like a login failure — forward 8080:8080, or go through the ingress. {{- if .Values.qbittorrent.savePath }} QBITTORRENT DOWNLOADS GO TO {{ .Values.qbittorrent.savePath }} The chart seeds Session\DefaultSavePath into qBittorrent's config, because its built-in default is /config/Downloads — the config volume{{ with .Values.qbittorrent.storage.size }} ({{ . }}){{ end }}, which fills within minutes and puts EVERY torrent into "errored" while a large, empty media volume sits next to it. The failure looks like a network or VPN problem; only "df" shows what it is. The value is seeded ONLY when the key is absent, never replaced. So if you changed the path in the WebUI, it stays yours and this value does nothing — check which one is actually in effect: kubectl -n {{ .Release.Namespace }} exec {{ $name }}-sfs-0 -c qbittorrent -- \ grep SavePath /config/qBittorrent/qBittorrent.conf If that shows a path under /config, downloads are landing on the config volume: fix it under Options -> Downloads -> Default Save Path (the running app owns the file; editing it under the app is overwritten on exit). {{- else }} QBITTORRENT HAS NO SAVE PATH SET (qbittorrent.savePath is empty) It therefore falls back to /config/Downloads — the small config volume. That fills within minutes and puts every torrent into "errored". Either set qbittorrent.savePath or set Options -> Downloads -> Default Save Path in the WebUI before starting any download. {{- end }} {{- end }} EVERY SERVICE POINTS AT THE SAME POD IP One ClusterIP service per app{{ if .Values.recyclarr.enabled }} (recyclarr has none — no port in daemon mode){{ end }}, but all containers share gluetun's network namespace, so the services differ only in their port. They give you stable per-app DNS names, NOT network separation between the apps. TOGGLING AN APP OFF AND ON LATER NEEDS ONE MANUAL STEP The config volumes come from volumeClaimTemplates, and those are immutable. Changing any .enabled after the first install makes the upgrade fail until the StatefulSet is recreated — the data survives: kubectl -n {{ .Release.Namespace }} delete statefulset {{ $name }}-sfs --cascade=orphan THE MEDIA CLAIMS ARE YOURS, THE CONFIG VOLUMES ARE THE CHART'S media..existingClaim is mounted, never created, and is meant to be shared with your Jellyfin. One claim can serve all three categories via media..subPath. Measured, so you do not plan around something that does not happen: Radarr and Sonarr do NOT hardlink between the categories, not even on one claim. Kubernetes makes every volumeMount its own bind mount and link() across two mount points fails with EXDEV regardless of subPath, so an import copies. HARDLINKS NEED ONE MOUNT, NOT ONE CLAIM This is the point where the obvious conclusion is wrong, so it is spelled out: putting downloads on the same claim as movies and tv, as a third subPath, does NOT produce hardlinks. It buys the layout, nothing else. The kernel compares the VFSMOUNT in do_linkat, not the superblock, and two bind mounts of the same filesystem are two vfsmounts — so link() across them is EXDEV even though it is one volume. Measured on Longhorn/NFS: both mount points report st_dev 0:56, the mount table shows two mount IDs on that same device, a cross-mount link() fails, a link() inside one mount succeeds with link count 2. Note the trap in that measurement: "stat" reports the SAME device number on both sides. Every intuition says a hardlink must work there. It does not, and the device number is exactly what makes this look like a bug in the app instead of a property of the mount namespace. The layout that WOULD hardlink is one claim with exactly ONE mount and the categories as sub-directories inside it — the "single /data mount" the *arr guides recommend. This chart cannot express that today: it mounts each category separately. Naming the possibility, not giving instructions — there are no values for it. The containers write as {{ .Values.puid }}:{{ .Values.pgid }}. The claim's root directory has to be writable for them, and a subPath directory the kubelet creates inherits that root's mode — so fix the ownership before the first start. The pod will not do it for you: fsGroupChangePolicy is OnRootMismatch so a large library is not re-chowned on every start, and on an RWX claim a driver like Longhorn (fsGroupPolicy ReadWriteOnceWithFSType) ignores fsGroup altogether. {{- if eq $replicas "0" }} SCALED TO ZERO {{ if .Values.scaleDown }}scaleDown: true{{ else }}replicas: 0{{ end }} — the StatefulSet runs with replicas: 0. PVCs, secrets, services{{ if .Values.ingress.enabled }} and ingresses{{ end }} stay in place; set it back and upgrade to bring the stack up again. {{- else if ne $replicas "1" }} MORE THAN ONE REPLICA IS NOT MEANINGFUL replicas is {{ $replicas }}. Each replica would run its own isolated stack on its own config volumes, all of them fighting over the same media claims and the same VPN credentials. {{- end }}