Setting Traefik on unRAID

This is a basic Traefik setup. Follow these steps to setup Traefik as reverse proxy on unRAID.

We will be using Traefik 2.x as reverse proxy on unRAID v 6.9.x. we will be setting up unRAID ui and Traefik dashboard to show traffic can be routed to any container running on unRAID.

DNS records configuration

We need to create DNS records, all pointing to unRAID box. We will be using unRAID default “local” domain running on Since we own domain so our DNS records would be; -> ->

How and where to configure these depends on the DNS server, for example PI-HOLE etc.

Reconfiguring unRAID HTTP Port

unRAID web ui is using port 80 but Traefik will be listening on port 80. We need to reconfigure this port.

Go to Settings -> Management Access, and change HTTP port to 8080 from 80.

In case Traefik container is not working, we can always access unRAID server at

Traefik configuration

In order to configure Trafik we will be using a mix of dynamic configuration (via Docker labels), and static configuration (via configuration files).

Place the following yml configuration files in your appdata share.


  dashboard: true
  insecure: true

    address: ":80"

  docker: {}
    filename: /etc/traefik/dynamic_conf.yml
    watch: true


      - http
      service: unraid
      rule: "Host(``)"
        - url: ""

Make sure yml has two space indentation.

Setup Traefik Container

Go to the Docker tab in unRAID and ADD CONTAINER.
We need to fill in the following configuration:

Name: traefik
Repository: traefik:latest
Network Type: bridge

Add a port mapping from 80 → 80, so that Traefik can listen for incoming HTTP traffic.

Add a path where we mount our /mnt/user/appdata/traefik to /etc/traefik so that Traefik can actually read our configuration.

Add another path where we mount our Docker socket /var/run/docker.sock to /var/run/docker.sockRead-only is sufficient here.

This is required so Traefik can listed for new containers and read their labels, which is used for the dynamic configuration part. We are using this exact mechanism to expose the Treafik dashboard now.

Add a label
• key = traefik.http.routers.api.entrypoints
• value = http

Add another label
• key = traefik.http.routers.api.service
• value = api@internal

And a final label
• key = traefik.http.routers.api.rule
• value = Host(``)

Our container configuration should look like this;

Run container, and view container log to make sure its running. You will see something like this;

The screen will scroll with new logs. Traefik is up and running.

Open browser, we are able to access unRAID at, and the Traefik dashboard at


Reddit reference

SQL Server basic command

This is a handy list of basic commands;

Append a new column to table

ALTER TABLE table_name
ADD column_name data_type column_constraint;

Append multiple columns to a table

ALTER TABLE table_name
    column_name_1 data_type_1 column_constraint_1,
    column_name_2 data_type_2 column_constraint_2,
    column_name_n data_type_n column_constraint_n;

Create a new table

CREATE TABLE table_name (
    colulmn_name data_type_1 IDENTITY PRIMARY KEY,
    colulmn_name data_type_2 NOT NULL,
    column_name data_type_3  NULL

Move Pi-Hole databases and list to different location

Create a new folder in new location, for example pihole-db.

mkdir pihole-db
# make sure folder has this permission
chmod 775 pihole-db
# change user/group to pihole on this folder
chown pihole:pihole pihole-db

We will be creating symlink (symbolic link) by copying database to pihole-db.

# Pihole-FTL.db
# stop Pihole service
sudo service pihole-FTL stop
cp /etc/pihole/pihole-FTL.db /srv/pihole-data
chown pihole:pihole pihole-FTL.db
# rm /etc/pihole/pihole-FTL.db
# create link in /etc/pihole
ln -s /srv/pihole-db/pihole-FTL.db pihole-FTL.db
# change owner/group of symlinks
sudo chown -h pihole:pihole pihole-FTL.db

# start the service
sudo service pihole-FTL start
# check service status
# systemctl status pihole-FTL

Open browser, navigate to a site and see if pihole-FTL works.

Pihole-FTL started working. Let’s move others;

# gravity.db
sudo service pihole-FTL stop
cp /etc/pihole/gravity.db /srv/pihole-db
ls -l /srv/pihole-db
chown pihole:pihole /srv/pihole-db/gravity.db
rm /etc/pihole/gravity.db
# create symlink in /etc/pihole
ln -s /srv/pihole-db/gravity.db gravity.db
# change owner/group of symlinks
sudo chown -h pihole:pihole gravity.db

# verify
sudo service pihole-FTL start

# macvendor.db
sudo service pihole-FTL stop
cp /etc/pihole/macvendor.db /srv/pihole-db
ls -l /srv/pihole-db

chown pihole:pihole /srv/pihole-db/macvendor.db
rm /etc/pihole/macvendor.db
# create symlink in /etc/pihole
ln -s /srv/pihole-db/macvendor.db macvendor.db
sudo chown -h pihole:pihole macvendor.db
# verify
sudo service pihole-FTL start

sudo service pihole-FTL stop
cp /etc/pihole/ /srv/pihole-db
ls -l /srv/pihole-db

rm /etc/pihole/
# create symlink in /etc/pihole
ln -s /srv/pihole-db/
# verify
sudo service pihole-FTL start

Make sure you have changed owner and group of sym(Symbolic) links of these databases.

sudo chown -h pihole:pihole pihole-FTL.db
sudo chown -h pihole:pihole macvendor.db
sudo chown -h pihole:pihole gravity.db

Make sure you can see these permissions;

To reset, run this command;

chmod 664 gravity.db

Here is your modified file system;

To rebuild gravity database, run this and see the time stamp;

pihole -g

For macvendor database refer to this;


Setting up Pi-hole as a recursive DNS server solution

Install this;

sudo apt install unbound

run this command;

nano /etc/unbound/unbound.conf.d/pi-hole.conf

copy and paste this from pi-hole site;

    # If no logfile is specified, syslog is used
    # logfile: "/var/log/unbound/unbound.log"
    verbosity: 0

    port: 5335
    do-ip4: yes
    do-udp: yes
    do-tcp: yes

    # May be set to yes if you have IPv6 connectivity
    do-ip6: no

    # You want to leave this to no unless you have *native* IPv6. With 6to4 and
    # Terredo tunnels your web browser should favor IPv4 for the same reasons
    prefer-ip6: no

    # Use this only when you downloaded the list of primary root servers!
    # If you use the default dns-root-data package, unbound will find it automatically
    #root-hints: "/var/lib/unbound/root.hints"

    # Trust glue only if it is within the server's authority
    harden-glue: yes

    # Require DNSSEC data for trust-anchored zones, if such data is absent, the zone becomes BOGUS
    harden-dnssec-stripped: yes

    # Don't use Capitalization randomization as it known to cause DNSSEC issues sometimes
    # see for further details
    use-caps-for-id: no

    # Reduce EDNS reassembly buffer size.
    # IP fragmentation is unreliable on the Internet today, and can cause
    # transmission failures when large DNS messages are sent via UDP. Even
    # when fragmentation does work, it may not be secure; it is theoretically
    # possible to spoof parts of a fragmented DNS message, without easy
    # detection at the receiving end. Recently, there was an excellent study
    # >>> Defragmenting DNS - Determining the optimal maximum UDP response size for DNS <<<
    # by Axel Koolhaas, and Tjeerd Slokker (
    # in collaboration with NLnet Labs explored DNS using real world data from the
    # the RIPE Atlas probes and the researchers suggested different values for
    # IPv4 and IPv6 and in different scenarios. They advise that servers should
    # be configured to limit DNS messages sent over UDP to a size that will not
    # trigger fragmentation on typical network links. DNS servers can switch
    # from UDP to TCP when a DNS response is too big to fit in this limited
    # buffer size. This value has also been suggested in DNS Flag Day 2020.
    edns-buffer-size: 1232

    # Perform prefetching of close to expired message cache entries
    # This only applies to domains that have been frequently queried
    prefetch: yes

    # One thread should be sufficient, can be increased on beefy machines. In reality for most users running on small networks or on a single machine, it should be unnecessary to seek performance enhancement by increasing num-threads above 1.
    num-threads: 1

    # Ensure kernel buffer is large enough to not lose messages in traffic spikes
    so-rcvbuf: 1m

    # Ensure privacy of local IP ranges
    private-address: fd00::/8
    private-address: fe80::/10

save file CTRL+X.

Start local recursive server and test that it’s operational;

sudo service unbound restart
dig @ -p 5335

The first query may be quite slow, but subsequent queries, also to other domains under the same TLD, should be fairly quick.

You should also consider adding


to a config file like /etc/dnsmasq.d/99-edns.conf to signal FTL to adhere to this limit.

Test Valiation

You can test DNSSEC validation using

dig @ -p 5335
dig @ -p 5335

The first command should give a status report of SERVFAIL and no IP address. The second should give NOERROR plus an IP address.

Configure Pi-hole

Finally, configure Pi-hole to use your recursive DNS server by specifying as the Custom DNS (IPv4):

Make sure this is the only record you have. For further info, refer to this;

Docker vs Podman

2022 might be the year of DevOps alternatives, including cloud providers, CI/CD tools and even containers. Speaking of containers, Podman looks like a promising alternative to Docker. Let’s see how they differ from each other.


The Docker installation includes the Docker Daemon, the Docker API, and the Docker CLIDocker Daemon is a process which creates and manages the Docker images, containers, networks and volumes. It becomes a single point of failure since this process owns all of the child processses (docker containers).
If you decide to install the Docker Desktop version (Mac or Windows), you might also get an option to enable local Kubernetes cluster feature.

Basically, Docker uses a client-server model and operates as a all-in-one solution for container orchestration.

On the other side, Podman is a daemon-less tool for developing, managing and running OCI-compatible (Docker is OCI-compatible as well) containers.
Podman directly interacts with image registries, containers and volume storages, whereas Docker do this through the Daemon, hence Podman doesn’t need a daemon (uses Systemd instead to support running containers in the background).
The containers are run under the user starting the containers, which brings up to the second point, Security.


By default Docker Daemon runs as a root user, which is so bad. It enables a privilege escalation. By any means, you could run Docker in a rootless mode and isolate containers with user namespaces, but it takes a while to configure it.

While Podman could be run as a root as well, running Podman as a nonprivileged user is a foundational feature, and it’s easier to setup.

Building images

Docker uses a native built-in command line tool to build images:

docker build  .

Podman relies on third-party tools, for instance Buildah is the most popular choice.


Although Docker CE is free and open source, recently Docker comes up with a Subscription-based pricing plan, which mostly impacts medium and large enterprises.

Podman is free and open source.

Container Orchestration

Docker comes with a Docker Swarm container orchestrator.

Podman doesn’t support Docker Swarm. Added support for docker-compose though.


Official Docker documentation.

Official Podman documentation.


Which one is the right one for you?! For beginners, Docker is a no-brainer, but once you start going down into the container rabbit hole, Podman would be the next wise choice.