A Raspberry Pi 5 can be a lower-cost way to run a 24/7 YouTube stream if you already own suitable hardware, your internet connection is dependable and your chosen settings fit the device. A cloud VM avoids leaving equipment at home, but its compute price is only part of the bill: continuous video also uses outbound data, which can exceed an included allowance.
There is no universal monthly-cost winner. Compare the same stream over the same period, including hardware, electricity, any incremental internet charge, cloud transfer and the time you will spend maintaining either setup. The result depends on your settings, region, local rates and what you already own.
Why there is no universal monthly-cost winner
The two approaches put costs in different places. A Pi build has an upfront purchase, then uses electricity and a local internet connection. A VM has a recurring compute charge and may add transfer, storage or other charges. If you already have a Pi, its purchase price is a sunk cost for a forward-looking comparison; if you need to buy one, leaving it out makes the first-year estimate misleading.
There is also a difference between cost and suitability. The cheapest VM listing is not proof that it can encode your chosen video, just as a published Pi encoding benchmark is not proof that your complete stream will stay live without interruption. Both options need testing with your actual file, encoder settings, audio and network.
A home setup may make sense when you have stable upload capacity, can keep the equipment powered and connected, and are comfortable checking it after an update or outage. A VM may suit you better if you do not want a computer running at home or your home connection is the weak link, provided the VM is sized for the work and its transfer terms fit your bitrate.
If your video is a fixed loop rather than a camera feed, consider how the source format affects the setup. The practical points in this guide to streaming a 24/7 creek and forest ambience video apply to other loop channels too: the source file and the broadcast settings are related, but they are not the same thing.
Set the stream assumptions before pricing
Write down the settings before opening a calculator or comparing plan cards. At minimum, record resolution, frame rate, codec, video bitrate, audio bitrate, monthly operating hours and whether the stream is a static loop, a playlist or changing live content. Use one configuration for both alternatives. Reducing bitrate can change transfer cost, but it can also change the picture and should be tested rather than treated as a free saving.
For H.264 at 1080p30, YouTube Help lists 5 Mbps as a minimum video bitrate and 14 Mbps as recommended. YouTube also recommends constant bitrate, a two-second keyframe interval (not over four seconds), and RTMPS. These are platform recommendations, not a requirement to use one particular computer or provider. See YouTube's encoder guidance and test a representative section of your own content, including its audio and motion.
Estimate the hours using the period you want to compare. A 30-day month has 720 hours; a 31-day month has 744. A year is not exactly twelve identical calendar months, so state whether your worksheet uses 360 days, 365 days or twelve 30-day months. Keeping the convention consistent matters more than false precision.
Also record the assumptions specific to each option: Pi components and measured wall draw for the local build; VM size and region for the cloud; local currency per kWh; and transfer included and charged by the cloud provider. If ordinary broadband costs the same whether or not you stream, count only an upgrade or other incremental charge. A monthly plan price without these details is not a total-cost estimate.
Estimate Raspberry Pi 5 hardware and power
A complete Pi 5 build needs more than the board. Include boot media, a suitable USB-C supply and any cooling or case you choose. Raspberry Pi says the Pi 5 has no onboard storage and supports boot from microSD; its guidance recommends a 27 W USB-C supply rated at 5 V and 5 A. Raspberry Pi also recommends active cooling for best performance. Those are manufacturer recommendations; your actual accessory choices and local prices belong in your worksheet.
Separate the upfront equipment line from ongoing power. The energy formula is:
monthly electricity = average wall watts ÷ 1,000 × 24 × days × local currency per kWh
Use a plug-in power meter to measure the assembled device while it runs your actual stream. Do not substitute the power supply's maximum rating for measured consumption: a 27 W supply rating is not a claim that the Pi draws 27 W continuously. Measure a representative period after the system has warmed up, and note whether the reading includes any attached storage, fan or other peripherals.
For illustration, if your measured whole-build draw is W watts and your local rate is R currency units per kWh, a 30-day estimate is W ÷ 1,000 × 720 × R. Leave W and R as values you supply rather than borrowing a generic number from a different country or build. Electricity tariffs, taxes and household billing can vary, and the research for this comparison does not establish a suitable universal rate.
For a newly purchased build, add the actual local cost of the board and the components you need. Divide the total by the chosen comparison period only if you want an equivalent monthly cost; keep the raw upfront figure visible as well. If you own some parts already, mark them as already owned instead of pretending they cost nothing to replace. That distinction makes first-year and later recurring costs easier to understand.
Account for internet and maintenance
A local Pi sends the encoded stream through your home upload connection. The broadband bill is not automatically an added streaming cost if you would pay it anyway, but reliability and capacity still matter. Check upload performance at the time you expect to broadcast, and consider what happens if the router loses power, the ISP has an outage or another person at home uses the connection heavily.
Include an incremental broadband line only when the stream leads you to change plans, add a backup connection or pay another recurring charge. Do not count the entire household broadband bill as a cost caused by streaming unless the stream is the reason you have it. Conversely, do not omit a real upgrade simply because broadband is normally a household expense.
Maintenance is less tidy to price, but it is real. A local device may need an operating-system update, a replacement card, a cable or a manual restart after a fault. A cloud VM also needs configuration, updates and checks; it does not remove the need to verify encoder output, YouTube stream health or recovery behaviour. Assigning a monetary value to your own time is optional, but note the expected work and who will do it.
For a playlist that must pick up at a sensible point after an encoder restart, plan that behaviour rather than assuming a restart returns to the right file. The steps in how to make OBS resume a YouTube playlist after a restart are relevant when OBS is part of your local arrangement. A recovery plan is not the same as a guarantee that every interruption will be invisible to viewers.
Estimate cloud VM compute and outbound transfer
Cloud compute is only one line. Amazon Lightsail's published Linux bundle table lists a $5-per-month plan with 0.5 GB memory, 2 vCPUs, 20 GB storage and 1 TB transfer, and a $7-per-month plan with 1 GB memory, 2 vCPUs, 40 GB storage and 2 TB transfer, as listed on AWS's site in September 2026. These are plan specifications, not evidence that either bundle can encode a particular stream. Check the region-specific listing and confirm the workload before selecting a VM.
AWS says Lightsail plans accrue hourly charges up to the monthly plan cap and that the least expensive plan starts at $0.0067 per hour ($5 per month), as listed on AWS's site in September 2026. AWS also says a stopped instance continues to accrue charges until deleted. Read the Lightsail pricing and plan information and its billing terms for your region rather than assuming that stopping a VM pauses the bill.
Bitrate drives the transfer calculation. For decimal gigabytes, estimated payload is:
bitrate Mbps × 3,600 × hours ÷ 8,000 = GB
At a constant 5 Mbps for 30 days (720 hours), this gives about 1,620 GB, or 1.62 decimal TB. At 14 Mbps it gives about 4,536 GB, or 4.54 decimal TB. Those are arithmetic estimates of video payload, not measured traffic or a provider invoice. Actual traffic and provider billing can differ because of protocol overhead, restarts and billing definitions.
The calculation shows why a bundle's headline compute price is not enough. The 5 Mbps estimate is above the 1 TB allowance listed for the $5 plan; the 14 Mbps estimate is above the 2 TB allowance listed for the $7 plan. Verify the current transfer rules, regional availability and overage billing before treating either monthly amount as your total. A different bitrate changes the estimate proportionally, but it does not establish that the VM can encode that stream.
Add any applicable storage, static IP, software or other charges to the provider's compute and transfer lines. A cloud worksheet should show the VM price, included transfer, estimated data, any applicable extra transfer charge and other required items separately. The total depends on the provider's billing rules and your selected region; do not infer a complete monthly total from a bundle's advertised price alone.
Compare totals over the same period
Use a single worksheet and enter your own local rates and provider terms. This layout keeps one-time and recurring items visible rather than hiding them in a headline monthly figure.
| Cost line | Raspberry Pi 5 at home | Cloud VM |
|---|---|---|
| Upfront | Board and required accessories not already owned | Setup time or any required initial configuration cost |
| Recurring compute or equipment | No VM compute charge; allocate new hardware over the period if desired | VM price for the selected size and region |
| Electricity | Measured wall watts ÷ 1,000 × hours × local rate | Usually not a separate household electricity line for you; use provider charges |
| Internet / transfer | Incremental broadband or backup-link cost, if any | Payload estimate compared with included transfer and overage terms |
| Ongoing work | Updates, checks, replacements and restart handling | Updates, checks, storage/IP charges and restart handling |
For the local option, calculate hardware not already owned + accessories + period electricity + incremental internet + any other actual costs. For the VM, calculate period compute + applicable outbound transfer + required storage/IP/software + any other actual charges. If you want to compare the recurring phase after buying hardware, show that separately from the first period that includes a new build.
For example, someone who already owns a Pi and has broadband that does not need upgrading may find the local cash outlay lower, because the comparison excludes costs already incurred. Someone buying the complete build should include it. A VM can look inexpensive at the compute line and still cost more once transfer is counted; it can also be worth the recurring bill when avoiding home equipment and connection dependencies matters more. These are conditional outcomes, not a ranking.
Use matching operating hours, bitrate and period. If you compare a 30-day transfer estimate with a calendar-month cloud allowance, say so and check the provider's billing period. Keep estimates rounded sensibly: the inputs themselves are not precise enough to justify an exact-looking total. For choices between settings, how a 720p loop stream changes monthly cost provides a useful companion comparison, but you should still calculate transfer for your own bitrate and provider.
Read the Pi 5 benchmark as a benchmark
Raspberry Pi Ltd's H.264 encoding performance note says the Pi 5 has no hardware H.264 encoder and relies on libx264 software encoding on its quad-core 2.4 GHz Arm Cortex-A76 processor. The same note reports real-time 1080p30 encoding under tested conditions: a low-latency setting used as little as 60% of one CPU core, while a high-quality preset used approximately 100–150% of one core. The reported result is useful evidence that a Pi 5 can encode in specified circumstances, not a blanket statement about every configuration.
The test conditions matter. Your file, preset, overlays, audio and video processing, cooling, operating software and network can all change the workload or whether the broadcast remains healthy. A CPU result does not test your home router, ISP, power supply, YouTube configuration or recovery after an outage. Raspberry Pi's H.264 performance note should be read for the conditions behind the figures.
Treat the benchmark as a starting point for a trial run. Test the intended resolution, frame rate, bitrate and preset with representative motion and audio, watch the encoder's CPU and temperature behaviour, and check YouTube stream health. Then leave the setup running long enough to encounter ordinary household and network conditions. A successful test is useful for sizing and tuning; it is not a promise of uninterrupted 24/7 operation.
YouTube's encoder instructions require you to enter the server URL and stream key in the encoder. YouTube says streams under 12 hours are automatically archived; a continuous channel should therefore plan for restarts and archive segmentation rather than assume one perpetual broadcast. Consult YouTube's live encoder setup guidance for current instructions. Your cost comparison should include the effort of that operating plan, whether the encoder is local or in the cloud.
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 to YouTube 24/7?
It can encode H.264 in real time at 1080p30 under the settings tested by Raspberry Pi Ltd, but that finding does not guarantee a particular 24/7 setup. Test your own source, cooling, network, encoder settings and restart plan, and monitor stream health.
Is a Raspberry Pi cheaper than a cloud VM?
It can be, especially if you already own the hardware and do not need a broadband upgrade. A new build adds upfront cost, while a VM adds recurring compute and potentially substantial outbound transfer charges; compare both over the same period and with the same bitrate.
How much data does a 24/7 YouTube stream use?
At a constant 5 Mbps, 30 days of payload is about 1.62 decimal TB; at 14 Mbps it is about 4.54 TB. These are arithmetic estimates before protocol overhead or provider billing differences, not an exact monthly bill.
What should I measure before choosing?
For a Pi, measure wall power while the complete build runs your intended stream and check upload stability. For a VM, confirm the selected region's compute, included transfer and overage terms, then test the actual encoder workload instead of assuming a low-cost plan is sufficient.