A Mac mini is a conventional desktop choice, while Raspberry Pi 5 is a small-computer route that asks you to assemble and manage more of the setup yourself. Neither manufacturer’s specifications establish that either device will reliably run your exact YouTube playlist stream unattended around the clock.
Choose by starting with the playback and encoding workflow you need, the equipment you already own, and how much troubleshooting you are prepared to do. Then compare purchase cost and whole-system power using your intended workload; a power-supply rating or maximum power figure is not a measured electricity bill.
Which creator each route tends to suit
The Mac mini is more likely to appeal if you want a conventional desktop with internal storage and familiar desktop applications, and are willing to justify its purchase after checking that your workflow needs that platform. Apple lists current Apple-silicon configurations, media engines, HDMI and Ethernet on its Mac mini technical specifications. Those specifications describe the product, not the outcome of a continuous stream using your chosen software.
Raspberry Pi 5 tends to suit someone who is comfortable building a small computer from a board, power supply and boot media, installing an operating system, and diagnosing software or device issues. It can be a practical learning project, especially if you already have a compatible display, keyboard, storage and relevant experience. Its listed processor and decoder do not, by themselves, demonstrate that a particular live-streaming application or encoding path will work as required.
For a devotional channel, lofi station, local news loop or study stream, “playlist stream” can describe very different jobs. One might replay a prepared video file with no on-device encoding; another might mix scenes, captions, audio inputs or changing playlists in real time. A device that suits one case may not suit the other. If the stream uses a prepared file and your main concern is how to keep the broadcast running, our guide to streaming Indian music continuously with a 720p upload connection discusses the network side of that decision.
What Mac mini specifications do—and do not—tell you
Apple’s current specification page describes Mac mini configurations based on Apple silicon and lists hardware media engines, HDMI and Ethernet. It also gives a maximum continuous-power rating of 155 W for the relevant Mac mini specification context. That is a ceiling-style product rating, not a reading of the electricity drawn while sending a playlist to YouTube. It is not a typical-use figure, and it cannot be used to predict your bill.
The presence of media engines may matter if the software and format you actually use can access them. But the manufacturer specification is not a test of OBS, a particular FFmpeg command, a given video file, or long-duration operation with your network and account. You still need to confirm that the software version, selected encoder, resolution, frame rate, audio format and stream settings work together on the configuration you plan to buy.
A desktop’s internal storage and built-in connections can simplify some practical choices: you may have fewer external pieces to arrange than with a board-based setup. That does not remove the need to decide where source files live, what happens when an application closes, how the computer recovers after power returns, and how you notice a dropped broadcast. Do not mistake a more complete desktop product for a tested unattended streaming system.
Before paying for a Mac mini, write down what you need it to do. If you only need to send a pre-encoded loop, a powerful general-purpose computer may not be necessary. If you need desktop editing, other applications or a more involved production workflow as well, those extra uses may make the purchase more reasonable. Compare the exact configuration and local price rather than assuming that the base model has all the storage or connections your work requires.
Raspberry Pi 5 means a board plus a setup
Raspberry Pi’s April 2026 product brief lists Pi 5 with a quad-core 2.4 GHz Arm Cortex-A76 processor, RAM configurations from 1 GB to 16 GB, a 4Kp60 HEVC decoder, Wi-Fi, Gigabit Ethernet and a microSD card slot. These are useful facts about the board’s listed features. In particular, a listed video decoder is not evidence that the board can encode your source in real time, run a chosen software stack, or sustain your intended YouTube workflow unattended.
The board is not the complete setup. Raspberry Pi’s setup documentation recommends a 27 W USB-C power supply for Pi 5 and explains that you need to write an operating-system image to boot media before starting the computer. The Raspberry Pi getting-started documentation is the place to check the current imaging and setup process. A case, cooling, display and input devices may also be relevant during setup, though what you need depends on how you will install and manage the device.
Do not choose a microSD capacity just by copying someone else’s build. The right boot and media-storage arrangement depends on playlist size, whether the video is stored locally or elsewhere, logging behaviour, and whether the Pi would encode the stream itself. Consider what happens if storage fills, becomes unreadable or is removed during maintenance. If the media is large or the stream depends on local files, account for that in both the purchase list and your recovery plan.
The Pi’s relatively explicit build list can help you understand what is missing before you start. It can also mean more decisions and more points to diagnose: power supply, boot card, operating-system image, cooling, network connection, application availability and encoder configuration. If a Pi appeals because you enjoy Linux and want control over each piece, that may be a good fit. If you need a hands-off appliance and do not want to troubleshoot, that same flexibility may become a burden.
Test the exact playback and encoding workflow
Start with the source file and the path from that file to YouTube. Is it a pre-encoded video that a program can transmit without changing its picture, or does the computer need to render scenes and encode video continuously? Does the programme switch between files, add titles, mix live audio, or respond to an operator? Record the actual formats and settings you intend to use rather than testing with a different sample and assuming the result transfers.
The distinction matters because decoding and encoding are separate jobs. Raspberry Pi’s listed HEVC decoder describes decoding support, not a general-purpose promise for hardware encoding or a specific application. Likewise, Apple’s listed media engines do not confirm the behaviour of every encoder or streaming tool. Confirm current application support for the precise operating system and hardware, then test the entire pipeline: source, playback or rendering, audio, encoder, network output and YouTube ingest.
Check YouTube’s current live-streaming requirements and account eligibility directly before building around a particular workflow. Official policies and product behaviour can change, and the research available for this article did not establish whether a given continuous loop, archive setting or unattended operation is permitted for every channel. Use YouTube Help’s live-streaming guidance for current requirements; do not infer approval from a successful local test or another creator’s setup.
For each candidate device, run a controlled test with the actual playlist and intended output settings. Watch for dropped frames, audio drift, application errors, storage growth, temperature warnings and network interruptions. A short test can expose basic configuration problems, but it cannot establish round-the-clock reliability. Before relying on the channel, test recovery too: deliberately check what you can safely recover from, such as an application restart or a network outage, and verify how you will know the broadcast is back.
If your chosen stack uses command-line tools, the guide to using FFmpeg to stream a folder of videos continuously can help you think through the software path. Treat it as workflow guidance, not confirmation that a particular FFmpeg build or command is supported on either device. Your own version, codecs, file behaviour and YouTube settings still need verification.
Weigh setup time and troubleshooting appetite
A fair comparison includes the time you spend preparing the system, not only the time it takes to start a video. With a Mac mini, you still need to install or configure streaming software, make the source available, protect the stream key, arrange network access and decide how to restart the process after a failure. With a Pi, you add the board-specific steps of imaging boot media and assembling the required components, then must verify that your chosen application and encoder work on the operating system and architecture.
Make a small test plan before choosing. Write down who will notice a failed stream, who can restart it, and whether that person knows how to diagnose the cause. Consider a power interruption, router restart, changed playlist file, full storage, application update and unexpected operating-system prompt. A setup that depends on you connecting a screen and keyboard in the middle of the night may be unsuitable if no one is available to do that.
That does not mean one device automatically recovers better. The research behind this comparison did not test either platform’s unattended restart behaviour for a YouTube playlist. Recovery depends on operating-system settings, the streaming application, the way the stream is launched, network conditions and the failure itself. Plan for a controlled restart and test it, rather than assuming the computer will resume the broadcast because it can boot after power returns.
You may also decide that running the stream on a computer you own is not the workflow you want. If the recurring problem is leaving your own machine on and responding when its local stream drops, StreamNeo can remove that particular burden by running an uploaded video as a YouTube live stream while your computer is switched off. It is YouTube-only, and it does not remove the need to prepare the file, check channel requirements or decide whether a fixed video loop suits your channel.
Measure whole-system power; do not assume the bill
The Mac mini’s 155 W maximum continuous-power figure and Raspberry Pi’s recommended 27 W supply describe different things. One is a maximum product rating; the other is a supply recommendation. Neither is a comparable measurement of the complete system while it runs the same playlist, at the same settings, for the same duration. Raspberry Pi introductory material also describes a peak around 12 W in demanding cases, but that is not a like-for-like measurement of a continuous stream either.
If energy use affects your choice, measure wall power for each complete setup under the workload you plan to run. Include the power supply and any attached storage or other equipment needed for the broadcast. Keep the source file, stream settings, network connection and measurement period as similar as possible. Record the result rather than relying on a device label or an online estimate for a different configuration.
Then use your own electricity tariff to estimate operating cost. The calculation needs the measured average draw, the hours you expect to operate, and your rate. If you do not yet have measurements, keep the cost unknown rather than treating the 27 W supply rating as actual consumption or the Mac mini maximum as normal draw. Local tariffs, peripheral choices and workload differences can change the comparison.
Purchase price needs the same care. Compare the exact Mac mini configuration with the Pi board plus appropriate power supply, boot media, case or cooling, and any storage or accessories you need. Prices vary by region and seller, and no like-for-like regional prices or measured stream-load energy figures are established here. Add your time for setup and maintenance if that matters to you; do not call either route cheaper without the actual configuration and measurements.
For a useful side-by-side record, note acquisition cost, measured wall draw, setup time, interruptions observed and recovery steps. Keep “specification”, “measurement” and “unknown” in separate columns. The distinction is useful even if you ultimately pick based on convenience: it prevents a number printed for a component from quietly becoming a claim about the whole channel. For more context on energy measurement, see our explanation of electricity use for an OBS loop on a desktop PC, while remembering that a different PC workload is not a substitute for testing your own system.
A decision process you can use
First, list what the channel actually broadcasts. A prepared file looping unchanged is a different requirement from a live scene composition or a playlist that changes according to schedule. Decide whether your computer must encode in real time and which formats and settings the workflow requires. If you cannot answer those questions, test the software path before choosing hardware.
Next, mark what you already own. Existing storage, a suitable display, input devices, wired networking or a compatible power supply may reduce what you need to buy, but only if the item is suitable for the planned setup. Do not count an accessory as “free” if it is unreliable or must be replaced to keep the channel running. Likewise, if you already have a desktop that can perform the required task, a new machine may add little until you have measured the current system.
Then be candid about maintenance. If you are comfortable with Linux, command-line diagnosis and choosing components, Pi 5 offers a hands-on route with clearly listed board features. If you prefer a conventional desktop platform and already use Apple software, Mac mini may feel more familiar, subject to confirming the exact application and workflow. Neither preference is proof of unattended reliability. Both need a test plan, a way to monitor the stream and a recovery procedure.
Finally, compare actual purchase outlay and measured whole-system power. If either device passes the software test but you have not yet completed a long-duration test, treat that as an unresolved risk rather than a recommendation. A sensible decision can be “not yet”: confirm application support, get a representative workload running, and test what happens when the connection or software fails before you entrust a public channel to it.
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 5 stream a YouTube playlist continuously?
Its published features do not settle that question for your software, files and encoder. Verify current application support and YouTube requirements, then test the exact workflow and its recovery behaviour before depending on it unattended.
Is a Mac mini proven to run a 24/7 YouTube playlist stream?
No. Apple’s specifications describe the computer and its media features, not long-duration operation of your specific streaming setup. A real test is still needed, including power, network and software recovery.
Which one uses less electricity?
There is no comparable measurement here for the same stream workload on both complete systems. Measure wall draw with the intended files, settings and accessories, then apply your own electricity rate rather than comparing a supply recommendation with a maximum rating.
Do I need a microSD card and a separate power supply for Raspberry Pi 5?
Raspberry Pi’s setup guidance calls for writing an operating-system image to boot media, and its documentation recommends a 27 W USB-C supply for Pi 5. Check the current official documentation and confirm the bundle contents before buying, since seller packages differ.