For a lightweight, headless starting point, use Raspberry Pi OS Lite on a Raspberry Pi, configure SSH and network access while imaging it, and match the power supply and boot media to the board. That gives you a manageable Linux host without a desktop, but it does not establish that the board can encode your nursery rhyme videos continuously.
Treat the hardware as a candidate to test, not a ready-made 24/7 encoder. YouTube’s ingest guidance tells you what a stream should send; only a representative test on your own board and files can tell you whether your chosen pipeline stays stable.
Start with a headless operating system
A machine that will sit beside your router or display does not need a full graphical desktop simply to boot, connect to a network and run a streaming process. Raspberry Pi recommends Raspberry Pi OS Lite for a headless installation that does not need a desktop environment. You can check the current options in the Raspberry Pi OS documentation.
Lite is a practical starting point because it reduces the number of desktop components you need to manage. It does not make encoding effortless or give the board extra processing capacity. Your work still includes preparing the stream, managing the files, protecting the stream key and checking that the broadcast remains healthy.
A graphical application may be more familiar if you intend to create scenes, add overlays or adjust audio by hand. In that case, compare the requirements of the application and the board before choosing an OS. OBS, for example, lists Linux display-system and graphics requirements and cautions that meeting its basic requirements does not guarantee streaming at a desired resolution, frame rate or scene complexity. Its system requirements are a reminder to test the actual workload, not proof that a particular Pi will run it.
If you are choosing hardware as well as software, first list the jobs the host must do: play a finished file, transcode it, mix several sources, or generate graphics. The equipment choices for a YouTube stream are worth considering alongside the OS. A Pi offers a compact, low-footprint path, while a more capable general-purpose Linux host may be easier to justify if your tests show the workload is unstable. There is no fair performance comparison here without testing the same source and pipeline on both.
For a nursery rhyme channel, also decide whether the material is a finished, compatible video or a collection that needs live assembly. A single prepared file is a different task from decoding, combining and encoding multiple clips. Do not assume that because a file plays smoothly on a laptop it will stream smoothly from a small board.
Prepare SSH while you image the card
Set up remote access before you put the board in its final location. Raspberry Pi’s imaging workflow allows you to configure network access and a remote-management method during setup; use its official getting-started guide for the current imaging steps. Enabling SSH at this stage avoids needing a keyboard and monitor after the board has been installed.
SSH provides a command-line session from another computer on the same reachable network. You can use it to check whether the system has booted, inspect logs, update configuration and stop or restart a process. It is not a stream-health monitor by itself: a successful login does not tell you whether YouTube is receiving useful video and audio.
Choose a strong account password, keep access limited to the people who need it, and avoid exposing remote login directly to the public internet unless you understand and have deliberately secured that arrangement. If you use Raspberry Pi Connect instead, follow the current account and device setup instructions. The official guide notes that VNC is incompatible with Raspberry Pi OS Lite, so do not plan a Lite installation around VNC desktop access.
Write down the practical recovery path before you leave the machine running: how to reach it over SSH, how to inspect whether the stream process is active, and how to recover access if the network configuration changes. Keep a local copy of the configuration you need, but do not put the YouTube stream key in a public repository, a shared document or a screenshot. Treat it like a password.
Make network access predictable
A live channel depends on a usable route from the host to YouTube. Configure Wi-Fi during imaging if that is the only practical connection, or use Ethernet if the board can be placed near the router. Ethernet removes the wireless hop, but it cannot prevent a router, broadband or power failure. Wi-Fi may be the more workable choice when cable routing is difficult; test it from the board’s final position rather than beside the access point.
Check that the host reconnects after a router restart and after a power cycle. A successful first connection is not enough for an always-on plan. Your test should include a deliberate network interruption so you can see what the streaming process does, whether it reconnects, and what action you must take if it does not. Do not mistake an automatic restart of a local process for proof that the broadcast has resumed correctly.
If the stream will run from a small business, home or community space, consider who controls the router and whether its settings may change. Reserve or record a predictable way to find the board on the local network, using the router’s facilities where available. Keep the setup simple enough that another trusted person can locate the host and check it if you are away.
An Ethernet cable is an optional reliability choice, not a guarantee. A UPS is also optional: size it for the real load and the length of outage you want to bridge, and account for the board, storage and any network equipment that must remain powered. There is no universal runtime for this setup, so measure the intended arrangement rather than assuming a small UPS will keep a channel online all night.
Match the power supply to the exact board
Use the supply recommended for the precise Raspberry Pi model you own. Raspberry Pi’s getting-started guide lists different requirements by model: Pi 5 at 5 V and 5 A with a 27 W USB-C supply, Pi 4 at 5 V and 3 A with a 15 W supply, and Pi 3 at 5 V and 2.5 A with a 12.5 W supply. Check the current recommendation for your own board in the official guide rather than buying by connector shape alone.
A supply that can provide the required output helps avoid power-related instability, but it cannot prove that an encoder workload is within the board’s capacity. Use a sound cable and a stable outlet, and avoid adding USB devices without considering their power draw. If the board signals an undervoltage condition or behaves differently under load, investigate power and workload separately rather than assuming one explains the other.
For an installation that must survive brief interruptions, a UPS can provide a controlled window to keep the board and network equipment running. That choice brings extra cost, battery maintenance and a need to know the actual load. It does not turn a consumer setup into a guaranteed service, and it cannot prevent a broadband outage beyond its runtime.
If you are still deciding which board to buy, do not select a model on the assumption that a more recent board will encode your particular source continuously. The documentation specifies power and product details, not an independently tested result for your nursery rhyme catalogue, chosen codec and broadcast settings. Make the test plan part of the purchase decision.
Choose boot media and keep large videos separate
Raspberry Pi’s getting-started guide recommends at least 8 GB of storage for Raspberry Pi OS Lite. That is boot-media guidance for the operating system, not a recommendation for keeping a large catalogue of videos on the same card. Check the official getting-started guidance when preparing the card, then estimate separate media storage from the actual files you plan to use.
A microSD card is a convenient boot medium, but keeping a large video library on it can make replacement and backup less straightforward. You can keep the OS on the boot card and use separate storage for the media, provided the board and your chosen playback method support it. Before leaving the stream unattended, test that the video storage is mounted at startup and that the playback process handles a missing or unreadable file sensibly.
Keep a copy of your OS setup notes and the source videos somewhere other than the boot card. If that card fails, the stream may stop even when the media is intact; if the media drive fails, the OS may still boot but have nothing useful to play. Treat those as separate recovery problems. A spare prepared boot card can shorten recovery, but only if you keep its configuration current and know how to restore access securely.
Do not rely on a card’s advertised capacity as evidence of endurance for a particular always-on workload. The sources for this setup do not establish a storage model or endurance rating that suits every use. Monitor for read errors, keep backups, and verify the exact arrangement over an extended representative test before depending on it.
Validate the video path before calling it continuous
The most important decision is whether your machine can send the intended content without doing unnecessary work. YouTube lists H.264, H.265 and AV1 video, AAC or MP3 audio, constant bitrate (CBR), and a recommended two-second keyframe interval that should not exceed four seconds. It recommends RTMPS. Read the current YouTube live encoder settings before choosing output settings.
For one concrete reference point, YouTube’s table gives H.264 at 720p30 a minimum bitrate of 2 Mbps and a recommended bitrate of 6 Mbps. These are platform ingest figures, not evidence that a Pi can encode that output continuously. Do not use them as a board benchmark or as a promise about the quality of your source material.
If your nursery rhyme video is already encoded in a format and settings your selected pipeline can send, avoid decoding and re-encoding it without a reason. Re-encoding consumes resources and can change the output; whether you can pass through a prepared file depends on your playback and streaming pipeline. The available sources do not validate a particular FFmpeg command for this job. Confirm the behaviour with the exact file and tools you intend to use rather than copying a command that assumes different inputs.
Build a representative test, not a short demonstration with an easy file. Include the actual audio and video, the intended stream settings, the storage location and network connection. If your catalogue includes files with different frame rates, resolutions, audio formats or lengths, test the types that are most demanding or most likely to expose a problem. Watch for dropped frames, audio drift, process exits, overheating or power warnings, and check YouTube’s stream-health feedback while the test is live.
Run long enough to encounter the transitions your real schedule will include: reaching the end of a file, looping or moving to the next item, and recovering from a deliberately interrupted network connection. A successful test does not guarantee future uptime, but it provides evidence about this specific board, file set and configuration. If the machine cannot hold the test steadily, simplify the pipeline or move the job to a more capable host rather than trusting it to improve unattended.
Plan stream boundaries, credentials and rights
Use the YouTube stream URL and key in the encoder configuration, and protect the key as a credential. Limit who can read the configuration, avoid pasting the key into public support posts and rotate it if it is exposed. YouTube’s live streaming guidance covers the platform workflow; check it again if the interface or account requirements change.
An always-on service also needs a plan for what happens when the broadcast stops. YouTube says streams under 12 hours are automatically archived when stopped. That behaviour matters if you intend to run a single continuous broadcast: a reconnect or deliberate restart can create a boundary and an archive, and you should decide whether that fits your channel and audience. Read the current YouTube live stream archiving guidance and plan how you will restart, verify the new broadcast and manage the resulting recordings.
Clear the actual recordings, arrangements, performances and visual material for the intended public stream and any monetisation. A nursery rhyme’s age does not establish that a particular recording or illustration is free to use. YouTube’s rights-management settings do not establish that you hold the necessary permissions. Check the rights for each asset and the terms that apply to continuous live use before you broadcast or monetise it.
If you would rather not leave a local computer responsible for the stream, StreamNeo can remove the specific task of keeping your own host powered and restarting a dropped broadcast: you upload a video, provide your YouTube stream key, and the stream runs while your computer is off. It is YouTube-only, so it does not replace checking content rights or deciding how you want to handle stream boundaries and archives.
If a separate channel would help keep children’s programming distinct from your other uploads, consider the trade-offs in whether to make a separate channel for a 24/7 stream. For a different operating route, the guide to creating a 24/7 stream from a Linux VPS can help you compare a locally managed board with a remote Linux host. Neither choice removes the need to test the file, stream settings and recovery process.
Before committing, compare the operating options on the pricing page. When the file and channel are ready, start free — 24-hour trial, no card.
FAQ
Can a Raspberry Pi run a 24/7 YouTube livestream?
It may be a suitable host, but the answer depends on the board, files and streaming pipeline. Test representative material with your intended settings and monitor stream health before relying on it unattended; platform ingest guidance is not a hardware performance test.
Which Linux distribution is light enough for a YouTube stream?
Raspberry Pi recommends Raspberry Pi OS Lite when a headless machine does not need a desktop environment. Lite reduces the need for desktop components, but it does not establish that a particular board can encode your video continuously.
How do I loop nursery rhymes on YouTube Live?
Prepare a playback and streaming pipeline that can send your files in settings YouTube accepts, then test file transitions and recovery with the actual catalogue. YouTube lists its supported codecs and ingest recommendations in its encoder guidance; do not assume that a loop command or format will work without testing your chosen tools.
Does a 24/7 stream stay as one YouTube archive?
Not necessarily. YouTube says streams under 12 hours are automatically archived when stopped, so a restart or stream boundary can affect the recording. Check the current YouTube guidance and decide how you will handle boundaries before treating the channel as continuous.