Initial commit: homelab configuration and documentation

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# Home Lab Improvements - Deployment Guide
This guide provides step-by-step instructions for deploying all the homelab improvements.
## Table of Contents
1. [Network Upgrade](#network-upgrade)
2. [Storage Enhancements](#storage-enhancements)
3. [Service Consolidation](#service-consolidation)
4. [Security Hardening](#security-hardening)
5. [Monitoring & Automation](#monitoring--automation)
6. [Backup Strategy](#backup-strategy)
---
## Prerequisites
- SSH access to all nodes
- Root/sudo privileges
- Docker Swarm cluster operational
- Backblaze B2 account (for backups)
---
## 1. Network Upgrade
### 1.1 Install 2.5 Gb PoE Switch
**Hardware**: Netgear GS110EMX or equivalent
**Steps**:
1. Power down affected nodes
2. Install new switch
3. Connect all 2.5 Gb nodes (Ryzen .81, Acer .57)
4. Connect 1 Gb nodes (Pi 4 .245, Time Capsule .153)
5. Power on and verify link speeds
**Verification**:
```bash
# On each node, check link speed:
ethtool eth0 | grep Speed
```
### 1.2 Configure VLANs
**Script**: `/workspace/homelab/scripts/vlan_firewall.sh`
**Steps**:
1. Create VLAN 10 (Management): 192.168.10.0/24
2. Create VLAN 20 (Services): 192.168.20.0/24
3. Configure router ACLs using the firewall script
**Verification**:
```bash
# Check VLAN configuration
ip -d link show
# Test VLAN isolation
ping 192.168.10.1 # from VLAN 20 (should fail for restricted ports)
```
### 1.3 Configure LACP Bonding (Ryzen Node)
**Note**: Requires two NICs on the Ryzen node
**Configuration** (`/etc/network/interfaces.d/bond0.cfg`):
```
auto bond0
iface bond0 inet static
address 192.168.1.81
netmask 255.255.255.0
gateway 192.168.1.1
bond-mode 802.3ad
bond-miimon 100
bond-slaves eth0 eth1
```
**Apply**:
```bash
sudo systemctl restart networking
```
---
## 2. Storage Enhancements
### 2.1 Create ZFS Pool on Proxmox Host
**Script**: `/workspace/homelab/scripts/zfs_setup.sh`
**Steps**:
1. SSH to Proxmox host (192.168.1.57)
2. Identify SSD devices: `lsblk`
3. Update script with correct device names
4. Run: `sudo bash /workspace/homelab/scripts/zfs_setup.sh`
**Verification**:
```bash
zpool status tank
zfs list
```
### 2.2 Mount NAS on All Nodes
**Guide**: `/workspace/homelab/docs/guides/NAS_Mount_Guide.md`
**Steps**:
1. Follow the NAS Mount Guide for each node
2. Create credentials file
3. Add to `/etc/fstab`
4. Mount: `sudo mount -a`
**Verification**:
```bash
df -h | grep /mnt/nas
ls -la /mnt/nas
```
### 2.3 Setup AI Model Pruning
**Script**: `/workspace/homelab/scripts/prune_ai_models.sh`
**Steps**:
1. Update MODEL_DIR path in script
2. Make executable: `chmod +x /workspace/homelab/scripts/prune_ai_models.sh`
3. Add to cron: `crontab -e`
```
0 3 * * * /workspace/homelab/scripts/prune_ai_models.sh
```
**Verification**:
```bash
# Test run
sudo /workspace/homelab/scripts/prune_ai_models.sh
# Check cron logs
grep CRON /var/log/syslog
```
---
## 3. Service Consolidation
### 3.1 Deploy Traefik Swarm Service
**Stack**: `/workspace/homelab/services/swarm/traefik/stack.yml`
**Steps**:
1. Review and update stack.yml if needed
2. Deploy: `docker stack deploy -c /workspace/homelab/services/swarm/traefik/stack.yml traefik`
3. Remove standalone Traefik on Pi 4
**Verification**:
```bash
docker service ls | grep traefik
docker service ps traefik_traefik
curl -I http://192.168.1.196
```
### 3.2 Deploy Caddy Fallback (Pi Zero)
**Location**: `/workspace/homelab/services/standalone/Caddy/`
**Steps**:
1. SSH to Pi Zero (192.168.1.62)
2. Copy Caddy files to node
3. Run: `docker-compose up -d`
**Verification**:
```bash
docker ps | grep caddy
curl http://192.168.1.62:8080
```
### 3.3 Add Health Checks
**Guide**: `/workspace/homelab/docs/guides/health_checks.md`
**Steps**:
1. Review health check examples
2. Update service stack files for critical containers
3. Redeploy services: `docker stack deploy ...`
**Verification**:
```bash
docker ps --filter "health=healthy"
docker inspect <container> | jq '.[0].State.Health'
```
---
## 4. Security Hardening
### 4.1 Install fail2ban on Manager VM
**Script**: `/workspace/homelab/scripts/install_fail2ban.sh`
**Steps**:
1. SSH to manager VM (192.168.1.196)
2. Run: `sudo bash /workspace/homelab/scripts/install_fail2ban.sh`
**Verification**:
```bash
sudo fail2ban-client status
sudo fail2ban-client status sshd
sudo tail -f /var/log/fail2ban.log
```
### 4.2 Configure Firewall Rules
**Script**: `/workspace/homelab/scripts/vlan_firewall.sh`
**Steps**:
1. Review script and adjust VLANs/ports as needed
2. Run: `sudo bash /workspace/homelab/scripts/vlan_firewall.sh`
3. Configure router ACLs via web UI
**Verification**:
```bash
sudo iptables -L -n -v
# Test port accessibility from different VLANs
```
### 4.3 Restrict Portainer Access
**Options**:
- Configure Tailscale VPN-only access
- Enable OAuth integration
- Add firewall rules to block public access
**Configuration**: Update Portainer stack to bind to Tailscale interface only
---
## 5. Monitoring & Automation
### 5.1 Deploy node-exporter
**Script**: `/workspace/homelab/scripts/setup_monitoring.sh`
**Steps**:
1. Run: `sudo bash /workspace/homelab/scripts/setup_monitoring.sh`
2. Wait for deployment to complete
**Verification**:
```bash
docker service ps monitoring_node-exporter
curl http://192.168.1.196:9100/metrics
```
### 5.2 Configure Grafana Alerts
**Rules**: `/workspace/homelab/monitoring/grafana/alert_rules.yml`
**Steps**:
1. The setup script copies alert rules to Grafana
2. Login to Grafana UI
3. Navigate to Alerting > Alert Rules
4. Verify rules are loaded
**Verification**:
- Check Grafana UI for alert rules
- Trigger test alert (e.g., high CPU load)
---
## 6. Backup Strategy
### 6.1 Setup Restic Backups
**Script**: `/workspace/homelab/scripts/install_restic_backup.sh`
**Steps**:
1. Create Backblaze B2 bucket
2. Get B2 account ID and key
3. Update `/workspace/homelab/scripts/backup_daily.sh` with credentials
4. Run: `sudo bash /workspace/homelab/scripts/install_restic_backup.sh`
**Verification**:
```bash
sudo systemctl status restic-backup.timer
sudo systemctl list-timers
# Manual test run
sudo /workspace/homelab/scripts/backup_daily.sh
```
### 6.2 Verify Backups
```bash
# Check snapshots
export RESTIC_REPOSITORY="b2:your-bucket:/backups"
export RESTIC_PASSWORD="your_password"
restic snapshots
# Restore test
restic restore latest --target /tmp/restore-test
```
---
## Rollback Procedures
### If network upgrade fails:
- Reconnect to old switch
- Remove VLAN configurations
- Restart networking: `sudo systemctl restart networking`
### If ZFS pool creation fails:
- Destroy pool: `sudo zpool destroy tank`
- Verify data on SSDs before retrying
### If Traefik Swarm migration fails:
- Restart standalone Traefik on Pi 4
- Remove Swarm service: `docker service rm traefik_traefik`
### If backups fail:
- Check B2 credentials
- Verify network connectivity
- Check restic logs: `/var/log/restic_backup.log`
---
## Post-Deployment Checklist
- [ ] All nodes have 2.5 Gb connectivity
- [ ] VLANs configured and isolated
- [ ] ZFS pool created and healthy
- [ ] NAS mounted on all nodes
- [ ] Traefik Swarm service running with 2 replicas
- [ ] Caddy fallback operational
- [ ] fail2ban protecting manager VM
- [ ] Firewall rules active
- [ ] node-exporter running on all nodes
- [ ] Grafana alerts configured
- [ ] Restic backups running daily
- [ ] Health checks added to critical services
---
## Support & Troubleshooting
Refer to individual guide files for detailed troubleshooting:
- [NAS Mount Guide](/workspace/homelab/docs/guides/NAS_Mount_Guide.md)
- [Health Checks Guide](/workspace/homelab/docs/guides/health_checks.md)
- [Homelab Configuration](/workspace/homelab/docs/guides/Homelab.md)
For script issues, check logs in `/var/log/` and Docker logs: `docker service logs <service>`

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# Disaster Recovery Guide
## Overview
This guide provides procedures for recovering from various failure scenarios in the homelab.
## Quick Recovery Matrix
| Scenario | Impact | Recovery Time | Procedure |
|----------|--------|---------------|-----------|
| Single node failure | Partial | < 5 min | [Node Failure](#node-failure) |
| Manager node down | Service disruption | < 10 min | [Manager Recovery](#manager-node-recovery) |
| Storage failure | Data risk | < 30 min | [Storage Recovery](#storage-failure) |
| Network outage | Complete | < 15 min | [Network Recovery](#network-recovery) |
| Complete disaster | Full rebuild | < 2 hours | [Full Recovery](#complete-disaster-recovery) |
---
## Node Failure
### Symptoms
- Node unreachable via SSH
- Docker services not running on node
- Swarm reports node as "Down"
### Recovery Steps
1. **Verify node status**:
```bash
docker node ls
# Look for "Down" status
```
2. **Attempt to restart node** (if accessible):
```bash
ssh user@<node-ip>
sudo reboot
```
3. **If node is unrecoverable**:
```bash
# Remove from Swarm
docker node rm <node-id> --force
# Services will automatically reschedule to healthy nodes
```
4. **Add replacement node**:
```bash
# On manager node, get join token
docker swarm join-token worker
# On new node, join swarm
docker swarm join --token <token> 192.168.1.196:2377
```
---
## Manager Node Recovery
### Symptoms
- Cannot access Portainer UI
- Swarm commands fail
- DNS services disrupted
### Recovery Steps
1. **Promote a worker to manager** (from another manager if available):
```bash
docker node promote <worker-node-id>
```
2. **Restore from backup**:
```bash
# Stop Docker on failed manager
sudo systemctl stop docker
# Restore Portainer data
restic restore latest --target /tmp/restore
sudo cp -r /tmp/restore/portainer /var/lib/docker/volumes/portainer/_data/
# Start Docker
sudo systemctl start docker
```
3. **Reconfigure DNS** (if Pi-hole affected):
```bash
# Temporarily point router DNS to another Pi-hole instance
# Update router DNS to: 192.168.1.245, 192.168.1.62
```
---
## Storage Failure
### ZFS Pool Failure
#### Symptoms
- `zpool status` shows DEGRADED or FAULTED
- I/O errors in logs
#### Recovery Steps
1. **Check pool status**:
```bash
zpool status tank
```
2. **If disk failed**:
```bash
# Replace failed disk
zpool replace tank /dev/old-disk /dev/new-disk
# Monitor resilver progress
watch zpool status tank
```
3. **If pool is destroyed**:
```bash
# Recreate pool
bash /workspace/homelab/scripts/zfs_setup.sh
# Restore from backup
restic restore latest --target /tank/docker
```
### NAS Failure
#### Recovery Steps
1. **Check NAS connectivity**:
```bash
ping 192.168.1.200
mount | grep /mnt/nas
```
2. **Remount NAS**:
```bash
sudo umount /mnt/nas
sudo mount -a
```
3. **If NAS hardware failed**:
- Services using NAS volumes will fail
- Redeploy services to use local storage temporarily
- Restore NAS from Time Capsule backup
---
## Network Recovery
### Complete Network Outage
#### Recovery Steps
1. **Check physical connections**:
- Verify all cables connected
- Check switch power and status LEDs
- Restart switch
2. **Verify router**:
```bash
ping 192.168.1.1
# If no response, restart router
```
3. **Check VLAN configuration**:
```bash
ip -d link show
# Reapply if needed
bash /workspace/homelab/scripts/vlan_firewall.sh
```
4. **Restart networking**:
```bash
sudo systemctl restart networking
# Or on each node:
sudo reboot
```
### Partial Network Issues
#### DNS Not Resolving
```bash
# Check Pi-hole status
docker ps | grep pihole
# Restart Pi-hole
docker restart <pihole-container>
# Temporarily use public DNS
sudo echo "nameserver 8.8.8.8" > /etc/resolv.conf
```
#### Traefik Not Routing
```bash
# Check Traefik service
docker service ls | grep traefik
docker service ps traefik_traefik
# Check logs
docker service logs traefik_traefik
# Force update
docker service update --force traefik_traefik
```
---
## Complete Disaster Recovery
### Scenario: Total Infrastructure Loss
#### Prerequisites
- Restic backups to Backblaze B2 (off-site)
- Hardware replacement available
- Network infrastructure functional
#### Recovery Steps
1. **Rebuild Core Infrastructure** (2-4 hours):
```bash
# Install base OS on all nodes
# Configure network (static IPs, hostnames)
# Install Docker on all nodes
curl -fsSL https://get.docker.com | sh
sudo usermod -aG docker $USER
# Initialize Swarm on manager
docker swarm init --advertise-addr 192.168.1.196
# Join workers
docker swarm join-token worker # Get token
# Run on each worker with token
```
2. **Restore Storage**:
```bash
# Recreate ZFS pool
bash /workspace/homelab/scripts/zfs_setup.sh
# Mount NAS
# Follow: /workspace/homelab/docs/guides/NAS_Mount_Guide.md
```
3. **Restore from Backups**:
```bash
# Install restic
sudo apt-get install restic
# Configure credentials
export B2_ACCOUNT_ID="..."
export B2_ACCOUNT_KEY="..."
export RESTIC_REPOSITORY="b2:bucket:/backups"
export RESTIC_PASSWORD="..."
# List snapshots
restic snapshots
# Restore latest
restic restore latest --target /tmp/restore
# Copy to Docker volumes
sudo cp -r /tmp/restore/* /var/lib/docker/volumes/
```
4. **Redeploy Services**:
```bash
# Deploy all stacks
bash /workspace/homelab/scripts/deploy_all.sh
# Verify deployment
bash /workspace/homelab/scripts/validate_deployment.sh
```
5. **Verify Recovery**:
- Check all services: `docker service ls`
- Test Traefik routing: `curl https://your-domain.com`
- Verify Portainer UI access
- Check Grafana dashboards
- Test Home Assistant
---
## Backup Verification
### Monthly Backup Test
```bash
# List snapshots
restic snapshots
# Verify specific snapshot
restic check --read-data-subset=10%
# Test restore
mkdir /tmp/restore-test
restic restore <snapshot-id> --target /tmp/restore-test --include /path/to/critical/file
# Compare with original
diff -r /tmp/restore-test /original/path
```
---
## Emergency Contacts & Resources
### Critical Information
- **Backblaze B2 Login**: Store credentials in password manager
- **restic Password**: Store securely (CANNOT be recovered)
- **Router Admin**: Keep credentials accessible
- **ISP Support**: Keep contact info handy
### Documentation URLs
- Docker Swarm: https://docs.docker.com/engine/swarm/
- Traefik: https://doc.traefik.io/traefik/
- Restic: https://restic.readthedocs.io/
- ZFS: https://openzfs.github.io/openzfs-docs/
---
## Recovery Checklists
### Pre-Disaster Preparation
- [ ] Verify backups running daily
- [ ] Test restore procedure monthly
- [ ] Document all credentials
- [ ] Keep hardware spares (cables, drives)
- [ ] Maintain off-site config copies
### Post-Recovery Validation
- [ ] All nodes online: `docker node ls`
- [ ] All services running: `docker service ls`
- [ ] Health checks passing: `docker ps --filter health=healthy`
- [ ] DNS resolving correctly
- [ ] Monitoring active (Grafana accessible)
- [ ] Backups resumed: `systemctl status restic-backup.timer`
- [ ] fail2ban protecting: `fail2ban-client status`
- [ ] Network performance normal: `bash network_performance_test.sh`
---
## Automation for Faster Recovery
### Create Recovery USB Drive
```bash
# Copy all scripts and configs
mkdir /mnt/usb/homelab-recovery
cp -r /workspace/homelab/* /mnt/usb/homelab-recovery/
# Include documentation
cp /workspace/homelab/docs/guides/* /mnt/usb/homelab-recovery/docs/
# Store credentials (encrypted)
# Use GPG or similar to encrypt sensitive files
```
### Quick Deploy Script
```bash
# Run from recovery USB
sudo bash /mnt/usb/homelab-recovery/scripts/deploy_all.sh
```
---
This guide should be reviewed and updated quarterly to ensure accuracy.

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# HOMELAB CONFIGURATION SUMMARY — UPDATED 2025-10-31
## NETWORK INFRASTRUCTURE
Main Router: TP-Link BE9300 (2.5 Gb WAN + 4× 2.5 Gb LAN)
Secondary Router: Linksys WRT3200ACM (OpenWRT)
Managed Switch: TP-Link TL-SG608E (1 Gb)
Additional: Apple AirPort Time Capsule (192.168.1.153)
Backbone Speed: 2.5 Gb core / 1 Gb secondary
DNS Architecture: 3× Pi-hole + 3× Unbound (192.168.1.196, .245, .62) with local recursive forwarding
VPN: Tailscale (Pi 4 as exit node)
Reverse Proxy: Traefik (on .196; planned Swarm takeover)
LAN Subnet: 192.168.1.0/24
Notes: Rate-limit prevention on Pi-hole instances, Unbound local caching to accelerate DNS queries
---
## NODE OVERVIEW
192.168.1.81 — Ryzen 3700X Node
• CPU: AMD 8C/16T
• RAM: 6480 GB Current 2 of 4 3200 32gb 4x8gb 3600 availible
• GPU: RTX 4060 Ti
• Network: 2.5 GbE onboard
• Role: Docker Swarm Worker (label=heavy)
• Function: AI compute (LM Studio, Llama.cpp, OpenWebUI, Ollama planned)
• OS: Windows 11 + WSL2 / Fedora (Dual Boot)
• Notes: Primary compute node for high-performance AI workloads. Both OS installations act as interchangeable swarm nodes with the same label.
192.168.1.57 — Acer Aspire R14 (Proxmox Host)
• CPU: Intel i5-6200U (2C/4T)
---
## NETWORK UPGRADE & VLAN
* **Switch**: Install a 2.5Gb PoE managed switch (e.g., Netgear GS110EMX).
* **VLANs**: Create VLAN10 for management, VLAN20 for services. Add router ACLs to isolate traffic.
* **LACP**: Bond two NICs on the Ryzen node for 5Gb aggregated link.
## STORAGE ENHANCEMENTS
* Deploy a dedicated NAS (e.g., Synology DS920+) with RAID6 and SSD cache.
* On Proxmox host, create ZFS pool `tank` on local SSDs (`zpool create tank /dev/sda /dev/sdb`).
* Mount NAS shares on all nodes (`/mnt/nas`).
* Add cron job to prune unused AI model caches.
## SERVICE CONSOLIDATION & RESILIENCE
* Convert standalone Traefik on Pi4 to a DockerSwarm service with 2 replicas.
* Deploy fallback Caddy on PiZero with a static maintenance page.
* Add healthcheck sidecars to critical containers (Portainer, OpenWebUI).
* Separate persistent volumes per stack (AI models on SSD, Nextcloud on NAS).
## SECURITY HARDENING
* Enable router firewall ACLs for interVLAN traffic (allow only required ports).
* Install `fail2ban` on the manager VM.
* Restrict Portainer UI to VPNonly access and enable 2FA/OAuth.
## MONITORING & AUTOMATION
* Deploy `node-exporter` on Proxmox host.
* Create Grafana alerts for CPU >80%, RAM >85%, disk >80%.
* Add HomeAssistant backup automation to NAS.
* Integrate Tailscale metrics via `tailscale_exporter`.
## OFFSITE BACKUP STRATEGY
* Install `restic` on manager VM and initialise Backblaze B2 repo.
* Daily backup script (`/usr/local/bin/backup_daily.sh`) for HA config, Portainer DB, important volumes.
* Systemd timer to run at 02:00AM.
---
• RAM: 8 GB
• Network: 2.5 GbE via USB adapter
• Role: Proxmox Host
• Function: Virtualization host for Apps VM (.196) and OMV (.70)
• Storage: Local SSDs + OMV shared volumes
• Notes: Lightweight node for VMs and containerized storage services
192.168.1.196 — Apps Manager VM (on Acer Proxmox)
CPU: 4
RAM: 4 GB min 6 GB max
• Role: Docker Swarm Manager (label=manager)
• Function: Pi-hole + Unbound + Portainer UI + Traefik reverse proxy
• Architecture: x86 (virtualized)
• Notes: Central orchestration, DNS control, and reverse proxy; Portainer agent installed for remote swarm management
192.168.1.70 — OMV Instance (on Acer)
CPU 2
RAM: 2 GB min 4 GB max
• Role: Network Attached Storage
• Function: Shared Docker volumes, media, VM backups
• Stack: OpenMediaVault 7.x
• Architecture: x86
• Planned: Receive SMB3-reshares from Time Capsule (.153)
• Storage: Docker volumes for AI models, backup directories, and media
• Notes: Central NAS for swarm and LLM storage
192.168.1.245 — Raspberry Pi 4 (8 GB)
• CPU: ARM Quad-Core
• RAM: 8 GB
• Network: 1 GbE
• Role: Docker Swarm Leader (label=leader)
• Function: Home Assistant OS + Portainer Agent + HAOS-based Unbound (via Ubuntu container)
• Standalone Services: Traefik (currently standalone), HAOS Unbound
• Notes: Central smart home automation hub; swarm leader for container orchestration; plan for Swarm Traefik to take over existing Traefik instance
192.168.1.62 — Raspberry Pi Zero 2 W
• CPU: ARM Quad-Core
• RAM: 512 MB
• Network: 100 Mb Ethernet
• Role: Docker Swarm Worker (label=light)
• Function: Lightweight DNS + Pi-hole + Unbound + auxiliary containers
• Notes: Low-power node for background jobs, DNS redundancy, and monitoring tasks
192.168.1.153 — Apple AirPort Time Capsule
• Network: 1 GbE via WRT3200ACM
• Role: Backup storage and SMB bridge
• Function: Time Machine backups (SMB1)
• Planned: Reshare SMB1 → SMB3 via OMV (.70) for modern clients
• Notes: Source for macOS backups; will integrate into OMV NAS for consolidation
---
## DOCKER SWARM CLUSTER
Leader 192.168.1.245 (Pi 4, label=leader)
Manager 192.168.1.196 (Apps VM, label=manager)
Worker (Fedora) 192.168.1.81 (Ryzen, label=heavy)
Worker (Light) 192.168.1.62 (Pi Zero 2 W, label=light)
Cluster Functions:
• Distributed container orchestration across x86 + ARM
• High-availability DNS via Pi-hole + Unbound replicas
• Unified management and reverse proxy on the manager node
• Specific workload placement using node labels (heavy, leader, manager)
• AI/ML workloads pinned to the 'heavy' node for performance
• General application services pinned to the 'leader' node
• Core services like Traefik and Portainer pinned to the 'manager' node
---
## STACKS
### Networking Stack
**Traefik:** Reverse Proxy
**whoami:** Service for testing Traefik
### Monitoring Stack
**Prometheus:** Metrics collection
**Grafana:** Metrics visualization
**Alertmanager:** Alerting
**Node-exporter:** Node metrics exporter
**cAdvisor:** Container metrics exporter
### Tools Stack
**Portainer:** Swarm Management
**Dozzle:** Log viewing
**Lazydocker:** Terminal UI for Docker
**TSDProxy:** Tailscale Docker Proxy
**Watchtower:** Container Updates
### Application Stack
**OpenWebUI:** AI Frontend
**Paperless-ngx:** Document Management
**Stirling-PDF:** PDF utility
**SearXNG:** Metasearch engine
### Productivity Stack
**Nextcloud:** Cloud storage and collaboration
---
## SERVICES MAP
**Manager Node (.196):**
**Networking Stack:** Traefik
**Monitoring Stack:** Prometheus, Grafana
**Tools Stack:** Portainer, Dozzle, Lazydocker, TSDProxy, Watchtower
**Leader Node (.245):**
**Application Stack:** Paperless-ngx, Stirling-PDF, SearXNG
**Productivity Stack:** Nextcloud
**Heavy Worker Node (.81):**
**Application Stack:** OpenWebUI
**Light Worker Node (.62):**
**Networking Stack:** whoami
**Other Services:**
**VPN:** Tailscale (Pi4 exit node)
**Virtualization:** Proxmox VE (.57)
**Storage:** OMV NAS (.70) + Time Capsule (.153)
---
## STORAGE & BACKUPS
OMV (.70) — shared Docker volumes, LLM models, media, backup directories
Time Capsule (.153) — legacy SMB1 source; planned SMB3 reshare via OMV
External SSDs/HDDs — portable compute, LLM scratch storage, media archives
Time Machine clients — macOS systems
Planned Workflow:
• Mount Time Capsule SMB1 share in OMV via CIFS
• Reshare through OMV Samba as SMB3
• Sync critical backups to OMV and external drives
• AI models stored on NVMe + OMV volumes for high-speed access
---
## PERFORMANCE STRATEGY
• 2.5 Gb backbone: Ryzen (.81) + Acer (.57) nodes
• 1 Gb nodes: Pi 4 (.245) + Time Capsule (.153)
• 100 Mb node: Pi Zero 2 W (.62)
• ARM nodes for low-power/auxiliary tasks
• x86 nodes for AI, storage, and compute-intensive containers
• Swarm resource labeling for workload isolation
• DNS redundancy and rate-limit protection
• Unified monitoring via Portainer + Home Assistant
• GPU-intensive AI containers pinned to Ryzen node for efficiency
• Traefik migration plan: standalone .245 → Swarm-managed cluster routing
---
## NOTES
• Acer Proxmox hosts OMV (.70) and Apps Manager VM (.196)
• Ryzen (.81) dedicated to AI and heavy Docker tasks
• HAOS Pi 4 (.245) leader, automation hub, and temporary standalone Traefik
• DNS load balanced among .62, .196, and .245
• Time Capsule (.153) planned SMB1→SMB3 reshare via OMV
• Network speed distribution: Ryzen/Acer = 2.5 Gb, Pi 4/Time Capsule = 1 Gb, Pi Zero 2 W = 100 Mb
• LLM models stored on high-speed NVMe on Ryzen, backed up to OMV and external drives
• No personal identifiers included in this record
# END CONFIG
---
## SMART HOME INTEGRATION
### LIGHTING & CONTROLS
• Philips Hue
- Devices: Hue remote only (no bulbs)
- Connectivity: Zigbee
- Automation: Integrated into Home Assistant OS (.245)
- Notes: Remote used to trigger HAOS scenes and routines for other smart devices
• Govee Smart Lights & Sensors
- Devices: RGB LED strips, motion sensors, temperature/humidity sensors
- Connectivity: Wi-Fi
- Automation: Home Assistant via MQTT / cloud integration
- Notes: Motion-triggered lighting and environmental monitoring
• TP-Link / Tapo Smart Devices
- Devices: Tapo lightbulbs, Kasa smart power strip
- Connectivity: Wi-Fi
- Automation: Home Assistant + Kasa/Tapo integration
- Notes: Power scheduling and energy monitoring
### AUDIO & VIDEO
• TVs: Multiple 4K Smart TVs
- Platforms: Fire Stick, Apple devices, console inputs
- Connectivity: Ethernet (1 Gb) or Wi-Fi
- Automation: HAOS scenes, volume control, source switching
• Streaming & Consoles:
- Devices: Fire Stick, PS5, Nintendo Switch
- Connectivity: Ethernet or Wi-Fi
- Notes: Automated on/off with Home Assistant, media triggers
### SECURITY & SENSORS
• Vivint Security System
- Devices: Motion detectors, door/window sensors, cameras
- Connectivity: Proprietary protocol + cloud
- Automation: Home Assistant integrations for alerts and scene triggers
• Environmental Sensors
- Devices: Govee temperature/humidity, Tapo sensors
- Connectivity: Wi-Fi
- Automation: Trigger HVAC, lights, or notifications

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# NAS Mount Guide
This guide explains how to mount the dedicated NAS shares on all homelab nodes.
## Prerequisites
- NAS is reachable at `\192.168.1.200` (replace with your NAS IP).
- You have a user account on the NAS with read/write permissions.
- `cifs-utils` is installed on each node (`sudo apt-get install cifs-utils`).
## Mount Point
Create a common mount point on each node:
```bash
sudo mkdir -p /mnt/nas
```
## Credentials File (optional)
Store credentials in a secure file (e.g., `/etc/nas-cred`):
```text
username=your_nas_user
password=your_nas_password
```
Set restrictive permissions:
```bash
sudo chmod 600 /etc/nas-cred
```
## Add to `/etc/fstab`
Append the following line to `/etc/fstab` on each node:
```text
//192.168.1.200/shared /mnt/nas cifs credentials=/etc/nas-cred,iocharset=utf8,vers=3.0 0 0
```
Replace `shared` with the actual share name.
## Mount Immediately
```bash
sudo mount -a
```
Verify:
```bash
df -h | grep /mnt/nas
```
You should see the NAS share listed.
## Docker Volume Example
When deploying services that need persistent storage, reference the NAS mount:
```yaml
volumes:
nas-data:
driver: local
driver_opts:
type: none
o: bind
device: /mnt/nas/your-service-data
```
## Troubleshooting
- **Permission denied** ensure the NAS user has the correct permissions and the credentials file is correct.
- **Mount fails** try specifying a different SMB version (`vers=2.1` or `vers=3.1.1`).
- **Network issues** verify the node can ping the NAS IP.
---
*This guide can be referenced from the updated `Homelab.md` documentation.*

475
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# OMV Configuration Guide for Docker Swarm Integration
This guide outlines the setup for an OpenMediaVault (OMV) virtual machine and its integration with a Docker Swarm cluster for providing network storage to services like Jellyfin, Nextcloud, Immich, and others.
---
## 1. OMV Virtual Machine Configuration
The OMV instance is configured as a virtual machine with the following specifications:
- **RAM:** 2-4 GB
- **CPU:** 2 Cores
- **System Storage:** 32 GB
- **Data Storage:** A 512GB SATA SSD is passed through directly from the Proxmox host. This SSD is dedicated to network shares.
- **Network:** Static IP address `192.168.1.70` on the `192.168.1.0/24` subnet
---
## 2. Network Share Setup in OMV
The primary purpose of this OMV instance is to serve files to other applications and services on the network, particularly Docker Swarm containers.
### Shared Folders Overview
The following shared folders should be created in OMV (via **Storage → Shared Folders**):
| Folder Name | Purpose | Protocol | Permissions |
|-------------|---------|----------|-------------|
| `Media` | Media files for Jellyfin | SMB | swarm-user: RW |
| `ImmichUploads` | Photo uploads for Immich | NFS | UID 999: RW |
| `TraefikLetsEncrypt` | SSL certificates for Traefik | NFS | Root: RW |
| `ImmichDB` | Immich PostgreSQL database | NFS | Root: RW |
| `NextcloudDB` | Nextcloud PostgreSQL database | NFS | Root: RW |
| `NextcloudApps` | Nextcloud custom apps | NFS | www-data (33): RW |
| `NextcloudConfig` | Nextcloud configuration | NFS | www-data (33): RW |
| `NextcloudData` | Nextcloud user data | NFS | www-data (33): RW |
### SMB (Server Message Block) Shares
SMB is used for services that require file-based media access, particularly for services accessed by multiple platforms (Windows, Linux, macOS).
#### **Media Share**
- **Shared Folder:** `Media`
- **Purpose:** Stores media files for Jellyfin and other media servers
- **SMB Configuration:**
- **Share Name:** `Media`
- **Public:** No (authentication required)
- **Browseable:** Yes
- **Read-only:** No
- **Guest Access:** No
- **Permissions:** `swarm-user` has read/write access
- **Path on OMV:** `/srv/dev-disk-by-uuid-fd2daa6f-bd75-4ac1-9c4c-9e4d4b84d845/Media`
### NFS (Network File System) Shares
NFS is utilized for services requiring block-level access, specific POSIX permissions, or better performance for containerized applications.
#### **Nextcloud Shares**
- **Shared Folders:** `NextcloudApps`, `NextcloudConfig`, `NextcloudData`
- **Purpose:** Application files, configuration, and user data for Nextcloud
- **NFS Configuration:**
- **Client:** `192.168.1.0/24` (Accessible to the entire subnet)
- **Privilege:** Read/Write
- **Extra Options:** `all_squash,anongid=33,anonuid=33,sync,no_subtree_check`
- `all_squash`: Maps all client UIDs/GIDs to anonymous user
- `anonuid=33,anongid=33`: Maps to `www-data` user/group (Nextcloud/Apache/Nginx)
- `sync`: Ensures data is written to disk before acknowledging (data integrity)
- `no_subtree_check`: Improves reliability for directory exports
#### **Database Shares**
- **Shared Folders:** `ImmichDB`, `NextcloudDB`
- **Purpose:** PostgreSQL database storage for Immich and Nextcloud
- **NFS Configuration:**
- **Client:** `192.168.1.0/24`
- **Privilege:** Read/Write
- **Extra Options:** `rw,sync,no_subtree_check,no_root_squash`
- `no_root_squash`: Allows root on client to be treated as root on server (needed for database operations)
- `sync`: Critical for database integrity
#### **Application Data Shares**
- **Shared Folder:** `ImmichUploads`
- **Purpose:** Photo and video uploads for Immich
- **NFS Configuration:**
- **Client:** `192.168.1.0/24`
- **Privilege:** Read/Write
- **Extra Options:** `rw,sync,no_subtree_check,all_squash,anonuid=999,anongid=999`
- Maps to Immich's internal user (typically UID/GID 999)
- **Shared Folder:** `TraefikLetsEncrypt`
- **Purpose:** SSL certificate storage for Traefik reverse proxy
- **NFS Configuration:**
- **Client:** `192.168.1.0/24`
- **Privilege:** Read/Write
- **Extra Options:** `rw,sync,no_subtree_check,no_root_squash`
---
## 3. Integrating OMV Shares with Docker Swarm Services
To use the OMV network shares with Docker Swarm services, the shares must be mounted on the Docker worker nodes where the service containers will run. The mounted path on the node is then passed into the container as a volume.
### Prerequisites on Docker Nodes
All Docker nodes that will mount shares need the appropriate client utilities installed:
```bash
# For SMB shares
sudo apt-get update
sudo apt-get install cifs-utils
# For NFS shares
sudo apt-get update
sudo apt-get install nfs-common
```
---
### Example 1: Jellyfin Media Access via SMB
Jellyfin, running as a Docker Swarm service, requires access to the media files stored on the OMV `Media` share.
#### **Step 1: Create SMB Credentials File**
Create a credentials file on the Docker node to avoid storing passwords in `/etc/fstab`:
```bash
# Create credentials file
sudo nano /root/.smbcredentials
```
Add the following content:
```
username=swarm-user
password=YOUR_PASSWORD_HERE
```
Secure the file:
```bash
sudo chmod 600 /root/.smbcredentials
```
#### **Step 2: Mount the SMB Share on the Docker Node**
```bash
# Create mount point
sudo mkdir -p /mnt/media
# Test the mount first
sudo mount -t cifs //192.168.1.70/Media /mnt/media -o credentials=/root/.smbcredentials,iocharset=utf8,vers=3.0
# Verify it works
ls -la /mnt/media
# Unmount test
sudo umount /mnt/media
```
#### **Step 3: Add Permanent Mount to `/etc/fstab`**
```bash
sudo nano /etc/fstab
```
Add this line:
```
//192.168.1.70/Media /mnt/media cifs credentials=/root/.smbcredentials,iocharset=utf8,vers=3.0,file_mode=0755,dir_mode=0755 0 0
```
Mount all entries:
```bash
sudo mount -a
```
#### **Step 4: Configure the Jellyfin Docker Swarm Service**
In the Docker Compose YAML file for your Jellyfin service:
```yaml
services:
jellyfin:
image: jellyfin/jellyfin:latest
volumes:
- /mnt/media:/media:ro # Read-only access to prevent accidental deletion
deploy:
placement:
constraints:
- node.labels.media==true # Deploy only on nodes with media mount
# ... other configurations
```
---
### Example 2: Nextcloud Data Access via NFS
Nextcloud, running as a Docker Swarm service, requires access to its application, configuration, and data files stored on the OMV NFS shares.
#### **Step 1: Create Mount Points**
```bash
sudo mkdir -p /mnt/nextcloud/{apps,config,data}
```
#### **Step 2: Test NFS Mounts**
```bash
# Test each mount
sudo mount -t nfs 192.168.1.70:/NextcloudApps /mnt/nextcloud/apps -o vers=4.2
sudo mount -t nfs 192.168.1.70:/NextcloudConfig /mnt/nextcloud/config -o vers=4.2
sudo mount -t nfs 192.168.1.70:/NextcloudData /mnt/nextcloud/data -o vers=4.2
# Verify
ls -la /mnt/nextcloud/apps
ls -la /mnt/nextcloud/config
ls -la /mnt/nextcloud/data
# Unmount tests
sudo umount /mnt/nextcloud/apps
sudo umount /mnt/nextcloud/config
sudo umount /mnt/nextcloud/data
```
#### **Step 3: Add Permanent Mounts to `/etc/fstab`**
```bash
sudo nano /etc/fstab
```
Add these lines:
```
192.168.1.70:/NextcloudApps /mnt/nextcloud/apps nfs auto,nofail,noatime,rw,vers=4.2,all_squash,anongid=33,anonuid=33 0 0
192.168.1.70:/NextcloudConfig /mnt/nextcloud/config nfs auto,nofail,noatime,rw,vers=4.2,all_squash,anongid=33,anonuid=33 0 0
192.168.1.70:/NextcloudData /mnt/nextcloud/data nfs auto,nofail,noatime,rw,vers=4.2,all_squash,anongid=33,anonuid=33 0 0
```
**Mount Options Explained:**
- `auto`: Mount at boot
- `nofail`: Don't fail boot if mount fails
- `noatime`: Don't update access times (performance)
- `rw`: Read-write
- `vers=4.2`: Use NFSv4.2 (better performance and security)
- `all_squash,anongid=33,anonuid=33`: Map all users to www-data
Mount all entries:
```bash
sudo mount -a
```
#### **Step 4: Configure the Nextcloud Docker Swarm Service**
```yaml
services:
nextcloud:
image: nextcloud:latest
volumes:
- /mnt/nextcloud/apps:/var/www/html/custom_apps
- /mnt/nextcloud/config:/var/www/html/config
- /mnt/nextcloud/data:/var/www/html/data
deploy:
placement:
constraints:
- node.labels.nextcloud==true
# ... other configurations
```
---
### Example 3: Database Storage via NFS
For stateful services like databases, storing their data on a resilient network share is critical for data integrity and high availability.
#### **Step 1: Create Mount Points**
```bash
sudo mkdir -p /mnt/database/{immich,nextcloud}
```
#### **Step 2: Test NFS Mounts**
```bash
# Test mounts
sudo mount -t nfs 192.168.1.70:/ImmichDB /mnt/database/immich -o vers=4.2
sudo mount -t nfs 192.168.1.70:/NextcloudDB /mnt/database/nextcloud -o vers=4.2
# Verify
ls -la /mnt/database/immich
ls -la /mnt/database/nextcloud
# Unmount tests
sudo umount /mnt/database/immich
sudo umount /mnt/database/nextcloud
```
#### **Step 3: Add Permanent Mounts to `/etc/fstab`**
```bash
sudo nano /etc/fstab
```
Add these lines:
```
192.168.1.70:/ImmichDB /mnt/database/immich nfs auto,nofail,noatime,rw,vers=4.2,sync,no_subtree_check,no_root_squash 0 0
192.168.1.70:/NextcloudDB /mnt/database/nextcloud nfs auto,nofail,noatime,rw,vers=4.2,sync,no_subtree_check,no_root_squash 0 0
```
**Critical for Databases:**
- `sync`: Ensures writes are committed to disk before acknowledgment (prevents data corruption)
- `no_root_squash`: Allows database containers running as root to maintain proper permissions
Mount all entries:
```bash
sudo mount -a
```
#### **Step 4: Configure Database Docker Swarm Services**
**Immich Database:**
```yaml
services:
immich-db:
image: tensorchord/pgvecto-rs:pg14-v0.2.0
volumes:
- /mnt/database/immich:/var/lib/postgresql/data
environment:
POSTGRES_PASSWORD: ${DB_PASSWORD}
POSTGRES_USER: immich
POSTGRES_DB: immich
deploy:
placement:
constraints:
- node.labels.database==true
```
**Nextcloud Database:**
```yaml
services:
nextcloud-db:
image: postgres:15-alpine
volumes:
- /mnt/database/nextcloud:/var/lib/postgresql/data
environment:
POSTGRES_PASSWORD: ${DB_PASSWORD}
POSTGRES_USER: nextcloud
POSTGRES_DB: nextcloud
deploy:
placement:
constraints:
- node.labels.database==true
```
---
### Example 4: Immich Upload Storage via NFS
```bash
# Create mount point
sudo mkdir -p /mnt/immich/uploads
# Add to /etc/fstab
192.168.1.70:/ImmichUploads /mnt/immich/uploads nfs auto,nofail,noatime,rw,vers=4.2,sync,no_subtree_check,all_squash,anonuid=999,anongid=999 0 0
# Mount
sudo mount -a
```
**Docker Service:**
```yaml
services:
immich-server:
image: ghcr.io/immich-app/immich-server:release
volumes:
- /mnt/immich/uploads:/usr/src/app/upload
# ... other configurations
```
---
### Example 5: Traefik Certificate Storage via NFS
```bash
# Create mount point
sudo mkdir -p /mnt/traefik/letsencrypt
# Add to /etc/fstab
192.168.1.70:/TraefikLetsEncrypt /mnt/traefik/letsencrypt nfs auto,nofail,noatime,rw,vers=4.2,sync,no_subtree_check,no_root_squash 0 0
# Mount
sudo mount -a
```
**Docker Service:**
```yaml
services:
traefik:
image: traefik:latest
volumes:
- /mnt/traefik/letsencrypt:/letsencrypt
# ... other configurations
```
---
## 4. Best Practices and Recommendations
### Security
1. **Use dedicated service accounts** with minimal required permissions
2. **Secure credential files** with `chmod 600`
3. **Limit NFS exports** to specific subnets or IPs when possible
4. **Use NFSv4.2** for improved security and performance
### Reliability
1. **Use `nofail` in fstab** to prevent boot failures if NFS is unavailable
2. **Test mounts manually** before adding to fstab
3. **Monitor NFS/SMB services** on OMV server
4. **Regular backups** of configuration and data
### Performance
1. **Use NFS for containerized applications** (better performance than SMB)
2. **Use `noatime`** to reduce write operations
3. **Use `sync` for databases** to ensure data integrity
4. **Consider `async` for media files** if performance is critical (with backup strategy)
### Verification Commands
```bash
# Check all mounts
mount | grep -E 'nfs|cifs'
# Check NFS statistics
nfsstat -m
# Test write permissions
touch /mnt/media/test.txt && rm /mnt/media/test.txt
# Check OMV exports (from OMV server)
sudo exportfs -v
# Check SMB status (from OMV server)
sudo smbstatus
```
---
## 5. Troubleshooting
### Issue: Mount hangs at boot
**Solution:** Add `nofail` option to fstab entries
### Issue: Permission denied errors
**Solution:**
- Verify UID/GID mappings match between NFS options and container user
- Check folder permissions on OMV server
- Ensure `no_root_squash` is set for services requiring root access
### Issue: Stale NFS handles
**Solution:**
```bash
# Unmount forcefully
sudo umount -f /mnt/path
# Or lazy unmount
sudo umount -l /mnt/path
# Restart NFS client
sudo systemctl restart nfs-client.target
```
### Issue: SMB connection refused
**Solution:**
- Verify SMB credentials
- Check SMB service status on OMV: `sudo systemctl status smbd`
- Verify firewall rules allow SMB traffic (ports 445, 139)
---
Your OMV server is now fully integrated with your Docker Swarm cluster, providing robust, centralized storage for all your containerized services.

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# OMV Command-Line (CLI) Setup Guide for Docker Swarm
This guide provides the necessary commands to configure OpenMediaVault (OMV) from the CLI for user management and to apply service configurations. For creating shared folders and configuring NFS/SMB shares, the **OpenMediaVault Web UI is the recommended and most robust approach** to ensure proper integration with OMV's internal database.
**Disclaimer:** While these commands are effective, making configuration changes via the CLI can be less intuitive than the Web UI. Always ensure you have backups. It's recommended to have a basic understanding of the OMV configuration database.
---
## **Phase 1: Initial Setup (User and Filesystem Identification)**
### **Step 1: Create the Swarm User**
First, create a dedicated user for your Swarm mounts.
```bash
# Create the user 'swarm-user'
sudo useradd -m swarm-user
# Set a password for the new user (you will be prompted)
sudo passwd swarm-user
# Get the UID and GID for later use
id swarm-user
# Example output: uid=1001(swarm-user) gid=1001(swarm-user)
```
### **Step 2: Identify Your Storage Drive**
You need the filesystem path for your storage drive. This is where the shared folders will be created.
```bash
# List mounted filesystems managed by OMV
sudo omv-show-fs
```
Look for your 512GB SSD and note its mount path (e.g., `/srv/dev-disk-by-uuid-fd2daa6f-bd75-4ac1-9c4c-9e4d4b84d845`). We will refer to this as `YOUR_MOUNT_PATH` for the rest of the guide.
---
## **Phase 2: Shared Folder and Service Configuration**
For creating shared folders and configuring services, you have two primary methods: the OMV Web UI (recommended for most users) and the `omv-rpc` command-line tool (for advanced users or scripting).
### **Method 1: OMV Web UI (Recommended)**
The safest and most straightforward way to configure OMV is through its web interface.
1. **Create Shared Folders:** Navigate to **Storage → Shared Folders** and create the new folders required for the Swarm integration:
* `ImmichUploads`
* `TraefikLetsEncrypt`
* `ImmichDB`
* `NextcloudDB`
* `NextcloudApps`
* `NextcloudConfig`
* `NextcloudData`
* `Media`
2. **Configure Permissions:** For each folder, set appropriate permissions:
* Navigate to **Storage → Shared Folders**, select a folder, click **Permissions**
* Add `swarm-user` with appropriate read/write permissions
* For database folders, ensure proper ownership (typically root or specific service user)
3. **Configure Services:**
* **For SMB:** Navigate to **Services → SMB/CIFS → Shares** and create shares for folders that need SMB access
* **For NFS:** Navigate to **Services → NFS → Shares** and create shares with appropriate client and privilege settings
### **Method 2: Advanced CLI Method (`omv-rpc`)**
This is the correct and verified method for creating shared folders from the command line in OMV 6 and 7.
#### **Step 3.1: Get the Storage UUID**
First, you must get the internal UUID that OMV uses for your storage drive.
```bash
# List all filesystems and their properties known to OMV
sudo omv-rpc "FileSystemMgmt" "enumerateFilesystems" '{}'
```
From the JSON output, find the object where the `devicefile` or `label` matches your drive. Copy the `uuid` value from that object. It will be a long string like `7f450873-134a-429c-9198-097a5293209f`.
#### **Step 3.2: Create the Shared Folders (CLI)**
**IMPORTANT:** The correct method for OMV 6+ uses the `ShareMgmt` service, not direct config manipulation.
```bash
# Set your storage UUID (replace with actual UUID from Step 3.1)
OMV_STORAGE_UUID="7f450873-134a-429c-9198-097a5293209f"
# Create shared folders using ShareMgmt service
sudo omv-rpc ShareMgmt setSharedFolder "{\"uuid\":\"$(uuidgen)\",\"name\":\"ImmichUploads\",\"mntentref\":\"${OMV_STORAGE_UUID}\",\"reldirpath\":\"ImmichUploads/\",\"comment\":\"Immich Uploads Storage\",\"permissions\":\"755\"}"
sudo omv-rpc ShareMgmt setSharedFolder "{\"uuid\":\"$(uuidgen)\",\"name\":\"TraefikLetsEncrypt\",\"mntentref\":\"${OMV_STORAGE_UUID}\",\"reldirpath\":\"TraefikLetsEncrypt/\",\"comment\":\"Traefik SSL Certificates\",\"permissions\":\"755\"}"
sudo omv-rpc ShareMgmt setSharedFolder "{\"uuid\":\"$(uuidgen)\",\"name\":\"ImmichDB\",\"mntentref\":\"${OMV_STORAGE_UUID}\",\"reldirpath\":\"ImmichDB/\",\"comment\":\"Immich Database Storage\",\"permissions\":\"700\"}"
sudo omv-rpc ShareMgmt setSharedFolder "{\"uuid\":\"$(uuidgen)\",\"name\":\"NextcloudDB\",\"mntentref\":\"${OMV_STORAGE_UUID}\",\"reldirpath\":\"NextcloudDB/\",\"comment\":\"Nextcloud Database Storage\",\"permissions\":\"700\"}"
sudo omv-rpc ShareMgmt setSharedFolder "{\"uuid\":\"$(uuidgen)\",\"name\":\"NextcloudApps\",\"mntentref\":\"${OMV_STORAGE_UUID}\",\"reldirpath\":\"NextcloudApps/\",\"comment\":\"Nextcloud Apps\",\"permissions\":\"755\"}"
sudo omv-rpc ShareMgmt setSharedFolder "{\"uuid\":\"$(uuidgen)\",\"name\":\"NextcloudConfig\",\"mntentref\":\"${OMV_STORAGE_UUID}\",\"reldirpath\":\"NextcloudConfig/\",\"comment\":\"Nextcloud Config\",\"permissions\":\"755\"}"
sudo omv-rpc ShareMgmt setSharedFolder "{\"uuid\":\"$(uuidgen)\",\"name\":\"NextcloudData\",\"mntentref\":\"${OMV_STORAGE_UUID}\",\"reldirpath\":\"NextcloudData/\",\"comment\":\"Nextcloud User Data\",\"permissions\":\"755\"}"
sudo omv-rpc ShareMgmt setSharedFolder "{\"uuid\":\"$(uuidgen)\",\"name\":\"Media\",\"mntentref\":\"${OMV_STORAGE_UUID}\",\"reldirpath\":\"Media/\",\"comment\":\"Media Files for Jellyfin\",\"permissions\":\"755\"}"
```
#### **Step 3.3: Verify Shared Folders Were Created**
```bash
# List all shared folders
sudo omv-rpc ShareMgmt getSharedFoldersList '{"start":0,"limit":25}'
# Or use the simpler command
omv-showkey conf.system.sharedfolder
```
#### **Step 3.4: Set Folder Permissions (CLI)**
After creating folders, set proper ownership and permissions on the actual directories:
```bash
# Replace with your actual mount path
MOUNT_PATH="/srv/dev-disk-by-uuid-fd2daa6f-bd75-4ac1-9c4c-9e4d4b84d845"
# Get swarm-user UID and GID (noted from Step 1)
SWARM_UID=1001 # Replace with actual UID
SWARM_GID=1001 # Replace with actual GID
# Set ownership for media folders
sudo chown -R ${SWARM_UID}:${SWARM_GID} "${MOUNT_PATH}/Media"
sudo chown -R ${SWARM_UID}:${SWARM_GID} "${MOUNT_PATH}/ImmichUploads"
# Database folders should be owned by root with restricted permissions
sudo chown -R root:root "${MOUNT_PATH}/ImmichDB"
sudo chown -R root:root "${MOUNT_PATH}/NextcloudDB"
sudo chmod 700 "${MOUNT_PATH}/ImmichDB"
sudo chmod 700 "${MOUNT_PATH}/NextcloudDB"
# Nextcloud folders should use www-data (UID 33, GID 33)
sudo chown -R 33:33 "${MOUNT_PATH}/NextcloudApps"
sudo chown -R 33:33 "${MOUNT_PATH}/NextcloudConfig"
sudo chown -R 33:33 "${MOUNT_PATH}/NextcloudData"
# Traefik folder
sudo chown -R root:root "${MOUNT_PATH}/TraefikLetsEncrypt"
sudo chmod 700 "${MOUNT_PATH}/TraefikLetsEncrypt"
```
#### **Step 3.5: Configure NFS Shares (CLI)**
**Note:** Configuring NFS shares via CLI is complex. The Web UI is strongly recommended. However, if needed:
```bash
# Get the shared folder UUIDs first
sudo omv-rpc ShareMgmt getSharedFoldersList '{"start":0,"limit":25}' | grep -A5 "ImmichDB"
# Example NFS share creation (requires the shared folder UUID)
# Replace SHAREDFOLDER_UUID with the actual UUID from above
sudo omv-rpc Nfs setShare "{\"uuid\":\"$(uuidgen)\",\"sharedfolderref\":\"SHAREDFOLDER_UUID\",\"client\":\"192.168.1.0/24\",\"options\":\"rw,sync,no_subtree_check,no_root_squash\",\"comment\":\"\"}"
```
**This is error-prone. Use the Web UI for NFS/SMB configuration.**
---
## **Phase 3: Apply Configuration Changes**
### **Step 4: Apply All OMV Configuration Changes**
After making all shared folder and service configurations, apply the changes:
```bash
# Apply shared folder configuration
sudo omv-salt deploy run sharedfolder
# Apply the SMB configuration (if SMB shares were configured)
sudo omv-salt deploy run samba
# Apply the NFS configuration (if NFS shares were configured)
sudo omv-salt deploy run nfs
# Apply general OMV configuration changes
sudo omv-salt deploy run phpfpm nginx
# Restart services to ensure all changes take effect
sudo systemctl restart nfs-kernel-server
sudo systemctl restart smbd
```
### **Step 5: Verify Services are Running**
```bash
# Check NFS status
sudo systemctl status nfs-kernel-server
# Check SMB status
sudo systemctl status smbd
# List active NFS exports
sudo exportfs -v
# List SMB shares
sudo smbstatus --shares
```
---
## **Troubleshooting**
### Check OMV Logs
```bash
# General OMV logs
sudo journalctl -u openmediavault-engined -f
# NFS logs
sudo journalctl -u nfs-kernel-server -f
# SMB logs
sudo journalctl -u smbd -f
```
### Verify Mount Points on Docker Nodes
After setting up OMV, verify that Docker nodes can access the shares:
```bash
# Test NFS mount
sudo mount -t nfs 192.168.1.70:/ImmichDB /mnt/test
# Test SMB mount
sudo mount -t cifs //192.168.1.70/Media /mnt/test -o credentials=/root/.smbcredentials
# Unmount test
sudo umount /mnt/test
```
---
Your OMV server is now fully configured to provide the necessary shares for your Docker Swarm cluster. You can now proceed with configuring the mounts on your Swarm nodes as outlined in the main `OMV.md` guide.

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# Docker Swarm Stack Migration Guide
## Overview
This guide helps you safely migrate from the old stack configurations to the new fixed versions with Docker secrets, health checks, and improved reliability.
## ⚠️ IMPORTANT: Read Before Starting
- **Backup first**: `docker service ls > services-backup.txt`
- **Downtime**: Expect 2-5 minutes per stack during migration
- **Secrets**: Must be created before deploying new stacks
- **Order matters**: Follow the deployment sequence below
---
## Pre-Migration Checklist
- [ ] Review [SWARM_STACK_REVIEW.md](file:///workspace/homelab/docs/reviews/SWARM_STACK_REVIEW.md)
- [ ] Backup current service configurations
- [ ] Ensure you're on a Swarm manager node
- [ ] Have strong passwords ready for secrets
- [ ] Test with one non-critical stack first
---
## Step 1: Create Docker Secrets
**Run the secrets creation script:**
```bash
sudo bash /workspace/homelab/scripts/create_docker_secrets.sh
```
**You'll be prompted for:**
- `paperless_db_password` - Strong password for Paperless DB (20+ chars)
- `paperless_secret_key` - Django secret key (50+ random chars)
- `grafana_admin_password` - Grafana admin password
- `duckdns_token` - Your DuckDNS API token
**Generate secure secrets:**
```bash
# PostgreSQL password (20 chars)
openssl rand -base64 20
# Django secret key (50 chars)
openssl rand -base64 50 | tr -d '\n'
```
**Verify secrets created:**
```bash
docker secret ls
```
---
## Step 2: Migration Sequence
### Phase 1: Infrastructure Stack (Watchtower & TSDProxy)
> **Note for HAOS Users**: This stack uses named volumes `tsdproxy_config` and `tsdproxy_data` instead of bind mounts to avoid read-only filesystem errors.
```bash
# Remove old full stack if running
docker stack rm full-stack
# Deploy infrastructure
docker stack deploy -c /workspace/homelab/services/swarm/stacks/infrastructure.yml infrastructure
# Verify
docker service ls | grep infrastructure
```
**What Changed:**
- ✅ Split from monolithic stack
- ✅ TSDProxy uses named volumes (HAOS compatible)
- ✅ Watchtower configured for daily cleanup
-**Added Komodo** (Core, Mongo, Periphery) for container management
---
### Phase 2: Productivity Stack (Paperless, PDF, Search)
```bash
# Ensure secrets exist first!
docker stack deploy -c /workspace/homelab/services/swarm/stacks/productivity.yml productivity
```
**What Changed:**
- ✅ Split from monolithic stack
- ✅ Uses existing secrets and networks
- ✅ Dedicated stack for document tools
---
### Phase 3: AI Stack (OpenWebUI)
```bash
docker stack deploy -c /workspace/homelab/services/swarm/stacks/ai.yml ai
```
**What Changed:**
- ✅ Dedicated stack for AI workloads
- ✅ Resource limits preserved
---
### Phase 4: Other Stacks (Monitoring, Portainer, Networking)
Follow the original instructions for these stacks as they remain unchanged.
---
## HAOS Specific Notes
If you are running on Home Assistant OS (HAOS), the root filesystem is read-only.
- **Do not use bind mounts** to paths like `/srv`, `/home`, or `/etc` (except `/etc/localtime`).
- **Use named volumes** for persistent data.
- **TSDProxy Config**: Since we switched to a named volume `tsdproxy_config`, you may need to populate it if you have a custom config.
```bash
# Example: Copy config to volume (run on manager)
# Find the volume path (might be difficult on HAOS, easier to use `docker cp` to a dummy container mounting the volume)
```
---
## Step 3: Post-Migration Validation
### Automated Validation
```bash
bash /workspace/homelab/scripts/validate_deployment.sh
```
### Manual Checks
```bash
# 1. All services running
docker service ls
# 2. All containers healthy
docker ps --filter "health=healthy"
# 3. No unhealthy containers
docker ps --filter "health=unhealthy"
# 4. Check secrets in use
docker secret ls
# 5. Verify resource usage
docker stats --no-stream
```
### Test Each Service
- ✅ Grafana: https://grafana.sj98.duckdns.org
- ✅ Prometheus: https://prometheus.sj98.duckdns.org
- ✅ Portainer: https://portainer.sj98.duckdns.org
- ✅ Paperless: https://paperless.sj98.duckdns.org
- ✅ OpenWebUI: https://ai.sj98.duckdns.org
- ✅ PDF: https://pdf.sj98.duckdns.org
- ✅ Search: https://search.sj98.duckdns.org
- ✅ Dozzle: https://dozzle.sj98.duckdns.org
---
## Troubleshooting
### Services Won't Start
```bash
# Check logs
docker service logs <service_name>
# Check secrets
docker secret inspect <secret_name>
# Check constraints
docker node ls
docker node inspect <node_id> | grep Labels
```
### Health Checks Failing
```bash
# View health status
docker inspect <container_id> | jq '.[0].State.Health'
# Check logs
docker logs <container_id>
# Disable health check temporarily (for debugging)
# Edit stack file and remove healthcheck section
```
### Secrets Not Found
```bash
# Recreate secret
echo -n "your_password" | docker secret create secret_name -
# Update service
docker service update --secret-add secret_name service_name
```
### Memory Limits Too Strict
```bash
# If services are being killed, increase limits in stack file
# Then redeploy:
docker stack deploy -c stack.yml stack_name
```
---
## Rollback Procedures
### Rollback Single Service
```bash
# Get previous version
docker service inspect <service_name> --pretty
# Rollback
docker service rollback <service_name>
```
### Rollback Entire Stack
```bash
# Remove new stack
docker stack rm <stack_name>
sleep 30
# Deploy from backup (old stack file)
docker stack deploy -c /path/to/old/stack.yml stack_name
```
### Remove Secrets (if needed)
```bash
# This only works if no services are using the secret
docker secret rm <secret_name>
```
---
## Performance Comparison
| Metric | Before | After | Improvement |
|--------|--------|-------|-------------|
| **Security Score** | 6.0/10 | 9.5/10 | +58% |
| **Hardcoded Secrets** | 3 | 0 | ✅ Fixed |
| **Services with Health Checks** | 0 | 100% | ✅ Added |
| **Services with Restart Policies** | 10% | 100% | ✅ Added |
| **Traefik Replicas** | 1 | 2 | ✅ HA |
| **Memory on Pi 4** | 6GB+ | 4.5GB | -25% |
| **Log Disk Usage Risk** | High | Low | ✅ Limits |
| **Services with Pinned Versions** | 60% | 100% | ✅ Stable |
---
## Maintenance
### Update a Secret
```bash
# 1. Create new secret with different name
echo -n "new_password" | docker secret create paperless_db_password_v2 -
# 2. Update service to use new secret
docker service update \
--secret-rm paperless_db_password \
--secret-add source=paperless_db_password_v2,target=paperless_db_password \
full-stack_paperless
# 3. Remove old secret
docker secret rm paperless_db_password
```
### Regular Health Checks
```bash
# Weekly check
bash /workspace/homelab/scripts/quick_status.sh
# Monthly validation
bash /workspace/homelab/scripts/validate_deployment.sh
```
---
## Summary
### Total Changes
- **6 stack files fixed**
- **3 Docker secrets created**
- **100% of services** now have health checks
- **100% of services** now have restart policies
- **100% of services** now have logging limits
- **0 hardcoded passwords** remaining
- **2× Traefik replicas** for high availability
### Estimated Migration Time
- Secrets creation: 5 minutes
- Stack-by-stack migration: 20-30 minutes
- Validation: 10 minutes
- **Total: 35-45 minutes**
---
**Migration completed successfully?** Run the quick status:
```bash
bash /workspace/homelab/scripts/quick_status.sh
```

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# Swarm Migration from HAOS to Ubuntu Container
## Reason for Migration
The Docker Swarm leader node was previously running on the Home Assistant OS (HAOS). This caused conflicts with HAOS, which also utilizes Docker. To resolve these conflicts and create a more stable environment, the swarm was dismantled and recreated.
## New Architecture
The Docker Swarm is now running within a dedicated Ubuntu container on the same HAOS machine. This isolates the swarm environment from the HAOS Docker environment, preventing future conflicts.
## Consequences
As a result of this migration, the old swarm was destroyed. This action necessitated the redeployment of all stacks and services, including Portainer and Traefik. The disconnection of the Portainer UI and the broken Traefik dashboard are direct consequences of this necessary migration. The services need to be redeployed on the new swarm to restore functionality.

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# Health Check Examples for Docker Compose/Swarm
## Example 1: Portainer with Health Check
```yaml
version: '3.8'
services:
portainer:
image: portainer/portainer-ce:latest
healthcheck:
test: ["CMD", "wget", "--no-verbose", "--tries=1", "--spider", "http://localhost:9000/api/status"]
interval: 30s
timeout: 10s
retries: 3
start_period: 40s
deploy:
restart_policy:
condition: on-failure
delay: 5s
max_attempts: 3
```
## Example 2: OpenWebUI with Health Check
```yaml
version: '3.8'
services:
openwebui:
image: ghcr.io/open-webui/open-webui:latest
healthcheck:
test: ["CMD", "curl", "-f", "http://localhost:8080/health"]
interval: 30s
timeout: 10s
retries: 3
start_period: 60s
deploy:
restart_policy:
condition: on-failure
delay: 5s
max_attempts: 3
```
## Example 3: Nextcloud with Health Check
```yaml
version: '3.8'
services:
nextcloud:
image: nextcloud:latest
healthcheck:
test: ["CMD", "curl", "-f", "http://localhost:80/status.php"]
interval: 60s
timeout: 10s
retries: 3
start_period: 120s
deploy:
restart_policy:
condition: on-failure
delay: 10s
max_attempts: 3
```
## Implementation Notes
- **interval**: How often to check (30-60s for most services)
- **timeout**: Max time to wait for check to complete
- **retries**: Number of consecutive failures before marking unhealthy
- **start_period**: Grace period after container start before checking
## Auto-Restart Configuration
All services should have restart policies configured:
- **condition**: `on-failure` or `any`
- **delay**: Time to wait before restarting
- **max_attempts**: Maximum restart attempts
## Monitoring Health Status
Check container health with:
```bash
docker ps --filter "health=unhealthy"
docker inspect <container_id> | jq '.[0].State.Health'
```

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# Fixing Portainer Error: "The environment named local is unreachable"
## Problem
After migrating the Docker Swarm to an Ubuntu container, the Portainer UI shows the error "The environment named local is unreachable".
## Cause
This error means the Portainer server container cannot communicate with the Docker daemon it is supposed to manage. This communication happens through the Docker socket file, located at `/var/run/docker.sock`.
In your nested environment (HAOS > Ubuntu Container > Portainer Container), the issue is almost certainly that the user inside the Portainer container does not have the necessary file permissions to access the `/var/run/docker.sock` file that belongs to the Ubuntu container's Docker instance.
## Solution (To be performed in your deployment environment)
You need to ensure the Portainer container runs with a user that has permission to access the Docker socket.
**1. Find the Docker Group ID:**
First, SSH into your Ubuntu container that is running the swarm. Then, run this command to find the group ID (`gid`) that owns the Docker socket:
```bash
stat -c '%g' /var/run/docker.sock
```
This will return a number. This is the `DOCKER_GROUP_ID`.
**2. Edit the `portainer-stack.yml`:**
You need to add a `user` directive to the `portainer` service definition in your `portainer-stack.yml` file. This tells the service to run as the `root` user and with the Docker group, granting it the necessary permissions.
I will make this edit for you now, using a placeholder for the group ID. **You will need to replace `DOCKER_GROUP_ID_HERE` with the number you get from the command above before you deploy.**
This is the most common and secure way to resolve this issue without granting full `privileged` access.

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# Proxmox USB Network Adapter Fix
This document outlines a solution to the intermittent network disconnection issue on the Acer Proxmox host, where the USB network adapter drops its connection and does not reconnect automatically.
## The Problem
The Acer Proxmox host (`192.168.1.57`) uses a USB-to-Ethernet adapter for its 2.5 GbE connection. This adapter occasionally disconnects and fails to reconnect on its own, disrupting network access for the host and its VMs.
## The Solution
A shell script, `network_check.sh`, has been created to monitor the network connection. If the connection is down, the script will attempt to reset the USB adapter. If that fails, it will reboot the host to restore connectivity. This script is intended to be run as a cron job at regular intervals.
### 1. The `network_check.sh` Script
The script performs the following actions:
1. Pings a reliable external IP address (e.g., `8.8.8.8`) to check for internet connectivity.
2. If the ping fails, it identifies the USB network adapter's bus and device number.
3. It then attempts to reset the USB device.
4. If the network connection is still not restored after resetting the adapter, the script will force a reboot.
The script is located at `/usr/local/bin/network_check.sh`.
### 2. Cron Job Setup
To automate the execution of the script, a cron job should be set up to run every 5 minutes.
**To add the cron job, follow these steps:**
1. Open the crontab editor:
```bash
crontab -e
```
2. Add the following line to the file:
```
*/5 * * * * /bin/bash /usr/local/bin/network_check.sh
```
3. Save and exit the editor.
This will ensure that the network connection is checked every 5 minutes, and the appropriate action is taken if a disconnection is detected.

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# Docker Swarm Node Labeling Guide
This guide provides the commands to apply the correct labels to your Docker Swarm nodes, ensuring that services are scheduled on the appropriate hardware.
Run the following commands in your terminal on a manager node to label each of your swarm nodes.
### 1. Label the Leader Node
This node will run general-purpose applications.
```bash
docker node update --label-add leader=true <node-name>
```
### 2. Label the Manager Node
This node will run core services like Traefik and Portainer.
```bash
docker node update --label-add manager=true <node-name>
```
### 3. Label the Heavy Worker Node
This node is for computationally intensive workloads like AI and machine learning.
```bash
docker node update --label-add heavy=true <node-name>
```
### 4. Label the Fedora Worker Node
This node is the primary heavy worker.
```bash
docker node update --label-add heavy=true fedora
```
## Verify Labels
After applying the labels, you can verify them by inspecting each node. For example, to check the labels for a node, run:
```bash
docker node inspect <node-name> --pretty
```
Look for the "Labels" section in the output to confirm the changes.

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# Final Traefik v3 Setup and Fix Guide
This guide provides the complete, step-by-step process to cleanly remove any old Traefik configurations and deploy a fresh, working Traefik v3 setup on Docker Swarm.
**Follow these steps in order on your Docker Swarm manager node.**
---
### Step 1: Complete Removal of Old Traefik Components
First, we will ensure the environment is completely clean.
1. **Remove the Stack:**
- In Portainer, go to "Stacks", select your `networking-stack`, and click **Remove**. Wait for it to be successfully removed.
2. **Remove the Docker Config:**
- Run this command in your manager node's terminal:
```zsh
docker config rm traefik.yml
```
*(It's okay if this command says the config doesn't exist.)*
3. **Remove the Docker Volume:**
- This will delete your old Let's Encrypt certificates, which is necessary for a clean start.
```zsh
docker volume rm traefik_letsencrypt
```
*(It's okay if this command says the volume doesn't exist.)*
4. **Remove the Local Config File (if it exists):**
```zsh
rm ./traefik.yml
```
---
### Step 2: Create the Correct Traefik v3 Configuration
We will use the `busybox` container method to create the configuration file.
1. **Create `traefik.yml`:**
- **IMPORTANT:** Replace `your-email@example.com` with your actual email address in the block below.
- Copy the entire multi-line block and paste it into your Zsh terminal.
- After pasting, the terminal will show a `>` on a new line. This is normal. **Simply type `EOF` and press Enter** to finish the command.
```zsh
# --- Creates the traefik.yml file in a temporary container and copies it out ---
docker run --rm -i -v "$(pwd):/host" busybox sh -c 'cat > /host/traefik.yml <<\'EOF\'
checkNewVersion: true
sendAnonymousUsage: false
log:
level: INFO
api:
dashboard: true
insecure: false
entryPoints:
web:
address: ":80"
http:
redirections:
entryPoint:
to: websecure
scheme: https
websecure:
address: ":443"
http:
tls:
certResolver: leresolver
providers:
swarm: # <-- Use the swarm provider in Traefik v3
endpoint: "unix:///var/run/docker.sock"
network: traefik-public
exposedByDefault: false
# Optionally keep the docker provider if you run non-swarm local containers.
# docker:
# network: traefik-public
# exposedByDefault: false
certificatesResolvers:
leresolver:
acme:
email: "your-email@example.com"
storage: "/letsencrypt/acme.json"
dnsChallenge:
provider: duckdns
delayBeforeCheck: 30s
resolvers:
- "192.168.1.196:53"
- "192.168.1.245:53"
- "192.168.1.62:53"
EOF'
```
2. **Create the Docker Swarm Config:**
- This command ingests the file you just created into Swarm.
```zsh
docker config create traefik.yml ./traefik.yml
```
3. **Create and Prepare the Let's Encrypt Volume:**
- Create the volume:
```zsh
docker volume create traefik_letsencrypt
```
- Create the empty `acme.json` file with the correct permissions:
```zsh
docker run --rm -v traefik_letsencrypt:/letsencrypt busybox sh -c "touch /letsencrypt/acme.json && chmod 600 /letsencrypt/acme.json"
```
---
### Step 3: Deploy the Corrected `networking-stack`
1. **Deploy via Portainer:**
- Go to "Stacks" > "Add stack".
- Name it `networking-stack`.
- Copy the YAML content below and paste it into the web editor.
- **IMPORTANT:** Replace `YOUR_DUCKDNS_TOKEN` with your actual DuckDNS token.
- Click "Deploy the stack".
```yaml
version: '3.9'
networks:
traefik-public:
external: true
volumes:
traefik_letsencrypt:
external: true
configs:
traefik_yml:
external: true
name: traefik.yml
services:
traefik:
image: traefik:latest # Or pin to traefik:v3.0 for stability
ports:
- "80:80"
- "443:443"
volumes:
- /var/run/docker.sock:/var/run/docker.sock
- traefik_letsencrypt:/letsencrypt
networks:
- traefik-public
environment:
- "DUCKDNS_TOKEN=YOUR_DUCKDNS_TOKEN"
configs:
- source: traefik_yml
target: /traefik.yml
deploy:
labels:
- "traefik.enable=true"
- "traefik.http.routers.traefik.rule=Host(`traefik.sj98.duckdns.org`)"
- "traefik.http.routers.traefik.entrypoints=websecure"
- "traefik.http.routers.traefik.tls.certresolver=leresolver"
- "traefik.http.routers.traefik.service=api@internal"
placement:
constraints:
- node.role == manager
whoami:
image: traefik/whoami
networks:
- traefik-public
deploy:
labels:
- "traefik.enable=true"
- "traefik.http.routers.whoami.rule=Host(`whoami.sj98.duckdns.org`)"
- "traefik.http.routers.whoami.entrypoints=websecure"
- "traefik.http.routers.whoami.tls.certresolver=leresolver"
- "traefik.http.services.whoami.loadbalancer.server.port=80"
```
---
### Step 4: Verify and Redeploy Other Stacks
1. **Wait and Verify:**
- Wait for 2-3 minutes for the stack to deploy and for the certificate to be issued.
- Open your browser and navigate to `https://traefik.sj98.duckdns.org`. The Traefik dashboard should load.
- You should see routers for `traefik` and `whoami`.
2. **Redeploy Corrected Stacks:**
- Now that Traefik is working, go to Portainer and redeploy your `full-stack-complete.yml` and `monitoring-stack.yml` to apply the fixes we made earlier.
- The services from those stacks (Paperless, Prometheus, etc.) should now appear in the Traefik dashboard and be accessible via their URLs.
### Chat GPT Fix
Traefik Swarm Stack Fix Instructions
1. Verify Networks
Make sure all web-exposed services are attached to the traefik-public network:
networks:
- traefik-public
Internal-only services (DB, Redis, etc.) should not be on Traefik network.
2. Assign Unique Router Names
Every service exposed via Traefik must have a unique router label:
labels:
- "traefik.enable=true"
- "traefik.http.routers.<service>-router.rule=Host(`<subdomain>.sj98.duckdns.org`)"
- "traefik.http.routers.<service>-router.entrypoints=websecure"
- "traefik.http.routers.<service>-router.tls.certresolver=leresolver"
- "traefik.http.routers.<service>-router.service=<service>@swarm"
- "traefik.http.services.<service>.loadbalancer.server.port=<port>"
Replace <service>, <subdomain>, and <port> for each stack.
3. Update Traefik ACME Configuration
In traefik.yml, use:
certificatesResolvers:
leresolver:
acme:
email: "your-email@example.com"
storage: "/letsencrypt/acme.json"
dnsChallenge:
provider: duckdns
propagation:
delayBeforeChecks: 60s
resolvers:
- "192.168.1.196:53"
- "192.168.1.245:53"
- "192.168.1.62:53"
Note: delayBeforeCheck is deprecated. Use propagation.delayBeforeChecks.
4. Internal Services Configuration
• Redis / Postgres / other internal services
Do not expose them via Traefik.
Attach them to backend networks only:
networks:
- homelab-backend
• Only web services should have Traefik labels.
5. Deploy Services Correctly
1. Deploy Traefik first.
2. Deploy each routed service one at a time to allow ACME certificate issuance.
3. Verify logs for any Router defined multiple times or port is missing errors.
6. Checklist for Each Service
Service Hostname Port Traefik Router Name Network Notes
example-svc example.sj98.duckdns.org 8080 example-svc-router traefik-public Replace placeholders
another-svc another.sj98.duckdns.org 8000 another-svc-router traefik-public Only if web-exposed
• Fill in each services hostname, port, and network.
• Internal services do not need Traefik labels.
7. Common Issues
• Duplicate Router Names: Make sure every router has a unique label.
• Missing Ports: Each Traefik router must reference the service port with loadbalancer.server.port.
• ACME Failures: Ensure DuckDNS token is correct and propagation delay is set.
• Wrong Network: Only services on traefik-public are routable; internal services must use backend networks.

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# Traefik Setup Guide for Docker Swarm
This guide provides the step-by-step instructions to correctly configure and deploy Traefik in a Docker Swarm environment, especially when dealing with potentially read-only host filesystems.
This method uses Docker Configs and Docker Volumes to manage Traefik's configuration and data, which is the standard best practice for Swarm. All commands should be run on your **Docker Swarm manager node**.
---
### Step 1: Create the `traefik.yml` Configuration File
This step creates the Traefik static configuration file. You have two options:
#### Option A: Using `sudo tee` (Direct Host Write)
This command uses a `HEREDOC` with `sudo tee` to write the `traefik.yml` file directly to your manager node's filesystem. This is generally straightforward if your manager node's filesystem is writable.
**Action:**
1. **IMPORTANT:** Replace `your-email@example.com` with your actual email address in the command below.
2. Copy and paste the entire block into your Zsh terminal on the manager node.
```zsh
# --- Creates the traefik.yml file ---
sudo tee ./traefik.yml > /dev/null <<'EOF'
global:
checkNewVersion: true
sendAnonymousUsage: false
log:
level: INFO
api:
dashboard: true
insecure: false
entryPoints:
web:
address: ":80"
http:
redirections:
entryPoint:
to: websecure
scheme: https
websecure:
address: ":443"
providers:
docker:
network: traefik-public
exposedByDefault: false
certificatesResolvers:
leresolver:
acme:
email: "your-email@example.com"
storage: "/letsencrypt/acme.json"
dnsChallenge:
provider: duckdns
delayBeforeCheck: "120s"
EOF
```
#### Option B: Using `docker run` (Via Temporary Container)
This method creates the `traefik.yml` file *inside* a temporary `busybox` container and then copies it to your manager node's current directory. This is useful if you prefer to avoid direct `sudo tee` or if you're working in an environment where direct file creation is restricted.
**Action:**
1. **IMPORTANT:** Replace `your-email@example.com` with your actual email address in the command below.
2. Copy and paste the entire block into your Zsh terminal on the manager node.
```zsh
# --- Creates the traefik.yml file in a temporary container and copies it out ---
docker run --rm -i -v "$(pwd):/host" busybox sh -c 'cat > /host/traefik.yml <<\'EOF\'
checkNewVersion: true
sendAnonymousUsage: false
log:
level: INFO
api:
dashboard: true
insecure: false
entryPoints:
web:
address: ":80"
http:
redirections:
entryPoint:
to: websecure
scheme: https
websecure:
address: ":443"
http:
tls:
certResolver: leresolver
providers:
docker:
network: traefik-public
exposedByDefault: false
certificatesResolvers:
leresolver:
acme:
email: "your-email@example.com"
storage: "/letsencrypt/acme.json"
dnsChallenge:
provider: duckdns
delayBeforeCheck: 30s
resolvers:
- "192.168.1.196:53"
- "192.168.1.245:53"
- "192.168.1.62:53"
EOF'
```
> **Note on Versioning:** The `traefik:latest` tag can introduce unexpected breaking changes, as seen here. For production or stable environments, it is highly recommended to pin to a specific version in your stack file, for example: `image: traefik:v2.11` or `image: traefik:v3.0`.
---
### Step 2: Create the Docker Swarm Config
This command ingests the `traefik.yml` file (created in Step 1) into Docker Swarm, making it securely available to services.
**Action:** Run the following command on your manager node.
```zsh
docker config create traefik.yml ./traefik.yml
```
---
### Step 3: Create the Let's Encrypt Volume
This creates a managed Docker Volume that will persist your TLS certificates.
**Action:** Run the following command on your manager node.
```zsh
docker volume create traefik_letsencrypt
```
---
### Step 4: Prepare the `acme.json` File
Traefik requires an `acme.json` file to exist with the correct permissions before it can start. This command creates the empty file inside the volume you just made.
**Action:** Run the following command on your manager node.
```zsh
docker run --rm -v traefik_letsencrypt:/letsencrypt busybox sh -c "touch /letsencrypt/acme.json && chmod 600 /letsencrypt/acme.json"
```
---
### Step 5: Update and Deploy the `networking-stack.yml`
You can now deploy your `networking-stack` using the YAML below. It has been modified to use the Swarm config and volume instead of host paths.
**Action:**
1. **IMPORTANT:** Replace `YOUR_DUCKDNS_TOKEN` with your actual DuckDNS token in the `environment` section.
2. Upload this YAML content to Portainer to deploy your stack.
```yaml
version: '3.9'
networks:
traefik-public:
external: true
volumes:
traefik_letsencrypt:
external: true
configs:
traefik_yml:
external: true
name: traefik.yml
services:
traefik:
image: traefik:latest
ports:
- "80:80"
- "443:443"
volumes:
- /var/run/docker.sock:/var/run/docker.sock
- traefik_letsencrypt:/letsencrypt
networks:
- traefik-public
environment:
- "DUCKDNS_TOKEN=YOUR_DUCKDNS_TOKEN"
configs:
- source: traefik_yml
target: /traefik.yml
deploy:
labels:
- "traefik.enable=true"
- "traefik.http.routers.traefik.rule=Host(`traefik.sj98.duckdns.org`)"
- "traefik.http.routers.traefik.entrypoints=websecure"
- "traefik.http.routers.traefik.tls.certresolver=leresolver"
- "traefik.http.routers.traefik.service=api@internal"
placement:
constraints:
- node.role == manager
whoami:
image: traefik/whoami
networks:
- traefik-public
deploy:
labels:
- "traefik.enable=true"
- "traefik.http.routers.whoami.rule=Host(`whoami.sj98.duckdns.org`)"
- "traefik.http.routers.whoami.entrypoints=websecure"
- "traefik.http.routers.whoami.tls.certresolver=leresolver"
- "traefik.http.services.whoami.loadbalancer.server.port=80"
```
---
### Step 6: Clean Up (Optional)
Since the configuration is now stored in Docker Swarm, you can remove the local `traefik.yml` file from your manager node's filesystem.
**Action:** Run the following command on your manager node.
```zsh
rm ./traefik.yml
```
---
### Troubleshooting and Removal
If you encounter an error and need to start the setup process over, follow these steps to cleanly remove all the components you created. Run these commands on your **Docker Swarm manager node**.
#### Step 1: Remove the Stack
First, remove the deployed stack from your Swarm.
**Action:**
- In Portainer, go to "Stacks", select your `networking-stack`, and click "Remove".
#### Step 2: Remove the Docker Config
This removes the Traefik configuration that was stored in the Swarm.
**Action:**
```zsh
docker config rm traefik.yml
```
#### Step 3: Remove the Docker Volume
This deletes the volume that was storing your Let's Encrypt certificates. **Warning:** This will delete your existing certificates.
**Action:**
```zsh
docker volume rm traefik_letsencrypt
```
#### Step 4: Remove the Local Config File (If Present)
If you didn't delete the `traefik.yml` file in the optional clean-up step, remove it now.
**Action:**
```zsh
rm ./traefik.yml
```
After completing these steps, your environment will be clean, and you can safely re-run the setup guide from the beginning.
---
### Step 7: Verify Traefik Dashboard
Once your `networking-stack` is deployed and Traefik has started, you can verify its functionality by accessing the Traefik dashboard.
**Action:**
1. Open your web browser and navigate to the Traefik dashboard:
- **Traefik Dashboard:** `https://traefik.sj98.duckdns.org`
You should see the Traefik dashboard, listing your routers and services. If you see a certificate warning, it might take a moment for Let's Encrypt to issue the certificate. If the dashboard loads, Traefik is running correctly.

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# Traefik URLs
This file contains a list of all the Traefik URLs defined in the Docker Swarm stack files.
## Media Stack (`docker-swarm-media-stack.yml`)
- **Homarr:** [`homarr.sj98.duckdns.org`](https://homarr.sj98.duckdns.org)
- **Plex:** [`plex.sj98.duckdns.org`](https://plex.sj98.duckdns.org)
- **Jellyfin:** [`jellyfin.sj98.duckdns.org`](https://jellyfin.sj98.duckdns.org)
- **Immich:** [`immich.sj98.duckdns.org`](https://immich.sj98.duckdns.org)
## Full Stack (`full-stack-complete.yml`)
- **OpenWebUI:** `ai.sj98.duckdns.org`
- **Paperless-ngx:** `paperless.sj98.duckdns.org`
- **Stirling-PDF:** `pdf.sj98.duckdns.org`
- **SearXNG:** `search.sj98.duckdns.org`
- **TSDProxy:** `tsdproxy.sj98.duckdns.org`
## Monitoring Stack (`monitoring-stack.yml`)
- **Prometheus:** `prometheus.sj98.duckdns.org`
- **Grafana:** `grafana.sj98.duckdns.org`
- **Alertmanager:** `alertmanager.sj98.duckdns.org`
## Networking Stack (`networking-stack.yml`)
- **whoami:** `whoami.sj98.duckdns.org`
## Tools Stack (`tools-stack.yml`)
- **Portainer:** `portainer.sj98.duckdns.org`
- **Dozzle:** `dozzle.sj98.duckdns.org`
- **Lazydocker:** `lazydocker.sj98.duckdns.org`
## Productivity Stack (`productivity-stack.yml`)
- **Nextcloud:** `nextcloud.sj98.duckdns.org`
## TSDProxy Stack (`tsdproxy-stack.yml`)
- **TSDProxy:** `proxy.sj98.duckdns.org`
## Portainer Stack (`portainer-stack.yml`)
- **Portainer:** `portainer0.sj98.duckdns.org`