Immich platform comparison
Raspberry Pi vs Mini PC for Immich: Which Server Makes More Sense?
Raspberry Pi and mini PCs can both host lightweight self-hosted services, but Immich adds video transcoding, machine learning, database work, and storage I/O that expose meaningful platform differences.
Quick answer
What to buy for this Immich workload
Choose a Raspberry Pi when low power, ARM experimentation, and a small library matter most. Choose a mini PC when you want easier x86 software compatibility, stronger media acceleration options, more CPU headroom, and a simpler path to larger libraries.
Live Amazon hardware
Current products that fit the categories in this guide
Listings come from this Immich sprint’s dedicated Amazon catalogue. Accessories, barebones mini PCs, ambiguous NAS bundles, wrong-capacity storage, and mismatched GPU models are excluded by the normalizer.
Buying decision
Choose the system architecture before chasing specifications
The purchase decision should include external storage, power supply, cooling, and any adapters required by the Pi. A seemingly inexpensive board can approach mini-PC cost once the complete server is assembled.
Interactive sizing
Raspberry Pi vs Mini PC Decision Tool
Use your workload to get a hardware tier before comparing products. The result is planning guidance, not a substitute for checking the current Immich compatibility documentation.
Compatibility checklist
Four checks before you purchase
Workload first
Size users, library growth, video share, and background jobs before choosing hardware.
Fast application storage
Keep the database and generated application data on reliable SSD storage where practical.
Protected media capacity
Plan usable capacity after redundancy, reserve space, growth, and backup copies.
Verified acceleration
Confirm the exact hardware, drivers, operating system, and Immich acceleration path before purchase.
The real comparison is complete-system cost
Compare the complete server, not the headline device price. A Raspberry Pi may still need a power supply, case, cooling, reliable boot storage, SSD adapter, and external media storage. Many mini PCs include those basics, so total system cost can be closer than the board prices suggest.
Board price is not total server price. Compare complete system cost, performance, storage, networking, acceleration, and expansion. Raspberry Pi is attractive for low-power experiments; mini PCs usually offer more straightforward x86 performance and growth headroom. For “The real comparison is complete-system cost,” include power, cooling, SSD attachment, enclosure, and network accessories so Raspberry Pi and mini-PC options are compared as complete working systems.
CPU performance and background jobs
A modern mini PC generally provides more CPU headroom for imports, database work, and background jobs. Raspberry Pi can run lighter deployments, but the performance difference becomes more noticeable when several Immich jobs overlap or the library grows beyond a casual test installation.
Platform choice affects more than benchmark speed. Compare complete system cost, performance, storage, networking, acceleration, and expansion. Raspberry Pi is attractive for low-power experiments; mini PCs usually offer more straightforward x86 performance and growth headroom. “CPU performance and background jobs” should include software architecture, device support, storage reliability, and how easily the system can be expanded when the library becomes larger.
Video transcoding differences
Video handling is one of the clearest platform differences. Immich’s current hardware-transcoding documentation should be checked before assuming a Pi can use its media hardware in the same way as supported x86 systems. A mini PC can offer a more straightforward supported path.
A small ARM server can be a deliberate low-power choice rather than a budget compromise. Compare complete system cost, performance, storage, networking, acceleration, and expansion. Raspberry Pi is attractive for low-power experiments; mini PCs usually offer more straightforward x86 performance and growth headroom. Under “Video transcoding differences,” keep the intended workload modest and avoid assuming that every x86 acceleration tutorial maps directly to Raspberry Pi hardware.
Machine-learning options
Machine-learning support also depends on the acceleration path and the exact platform. Raspberry Pi can process work on CPU or use supported external/remote approaches, while many mini PCs offer x86 CPU performance plus integrated or discrete accelerator options.
Mini PCs often win on integration rather than raw novelty. Compare complete system cost, performance, storage, networking, acceleration, and expansion. Raspberry Pi is attractive for low-power experiments; mini PCs usually offer more straightforward x86 performance and growth headroom. Use “Machine-learning options” to weigh internal NVMe, memory options, x86 compatibility, and media-engine choices against the Pi’s flexibility and very low-power appeal.
RAM and memory ceilings
RAM capacity is fixed or constrained differently on SBCs and mini PCs. An 8GB Pi may be enough for a small dedicated installation, but a mini PC with 16GB or 32GB and upgradeable memory leaves more room for the database, containers, and additional self-hosted services.
Board price is not total server price. Compare complete system cost, performance, storage, networking, acceleration, and expansion. Raspberry Pi is attractive for low-power experiments; mini PCs usually offer more straightforward x86 performance and growth headroom. For “RAM and memory ceilings,” include power, cooling, SSD attachment, enclosure, and network accessories so Raspberry Pi and mini-PC options are compared as complete working systems.
Storage attachment and reliability
Original media should not depend on a fragile microSD card. If you choose a Pi, use reliable SSD or network storage for important data and plan cables and power accordingly. A mini PC usually offers internal NVMe storage, which simplifies the application and database layer.
Platform choice affects more than benchmark speed. Compare complete system cost, performance, storage, networking, acceleration, and expansion. Raspberry Pi is attractive for low-power experiments; mini PCs usually offer more straightforward x86 performance and growth headroom. “Storage attachment and reliability” should include software architecture, device support, storage reliability, and how easily the system can be expanded when the library becomes larger.
Networking and bulk imports
Both platforms can use gigabit networking, while many current mini PCs include 2.5GbE. Faster Ethernet is useful for NAS-backed libraries and large imports, but only when the switch and storage target support the same speed.
A small ARM server can be a deliberate low-power choice rather than a budget compromise. Compare complete system cost, performance, storage, networking, acceleration, and expansion. Raspberry Pi is attractive for low-power experiments; mini PCs usually offer more straightforward x86 performance and growth headroom. Under “Networking and bulk imports,” keep the intended workload modest and avoid assuming that every x86 acceleration tutorial maps directly to Raspberry Pi hardware.
Power use and cooling
Raspberry Pi is excellent when extremely low power and quiet operation are priorities, though attached USB storage and accessories add their own consumption. Mini PCs still idle efficiently and may finish heavy jobs faster, so annual energy should be considered alongside peak watts.
Mini PCs often win on integration rather than raw novelty. Compare complete system cost, performance, storage, networking, acceleration, and expansion. Raspberry Pi is attractive for low-power experiments; mini PCs usually offer more straightforward x86 performance and growth headroom. Use “Power use and cooling” to weigh internal NVMe, memory options, x86 compatibility, and media-engine choices against the Pi’s flexibility and very low-power appeal.
ARM versus x86 software friction
ARM and x86 both have strong software ecosystems, but community instructions and third-party container images may not always be identical. If you want the broadest choice of desktop-class tools, virtualization options, and accelerators, an x86 mini PC usually reduces friction.
Board price is not total server price. Compare complete system cost, performance, storage, networking, acceleration, and expansion. Raspberry Pi is attractive for low-power experiments; mini PCs usually offer more straightforward x86 performance and growth headroom. For “ARM versus x86 software friction,” include power, cooling, SSD attachment, enclosure, and network accessories so Raspberry Pi and mini-PC options are compared as complete working systems.
Backup and expansion
Expansion is not only about CPU. Ask how you will add more storage, backup interfaces, faster networking, or a hardware accelerator. The Pi exposes flexible I/O for experimentation, while a mini PC often provides a cleaner packaged path for RAM and NVMe upgrades.
Platform choice affects more than benchmark speed. Compare complete system cost, performance, storage, networking, acceleration, and expansion. Raspberry Pi is attractive for low-power experiments; mini PCs usually offer more straightforward x86 performance and growth headroom. “Backup and expansion” should include software architecture, device support, storage reliability, and how easily the system can be expanded when the library becomes larger.
Small-library use case for Raspberry Pi
A Raspberry Pi makes the most sense for a small, mostly-photo library, a learning project, or a user who values ARM and low power more than fast background processing. Keep expectations aligned with that workload rather than forcing it into a large multi-user server role.
A small ARM server can be a deliberate low-power choice rather than a budget compromise. Compare complete system cost, performance, storage, networking, acceleration, and expansion. Raspberry Pi is attractive for low-power experiments; mini PCs usually offer more straightforward x86 performance and growth headroom. Under “Small-library use case for Raspberry Pi,” keep the intended workload modest and avoid assuming that every x86 acceleration tutorial maps directly to Raspberry Pi hardware.
Why a mini PC is often the easier growth path
A mini PC is usually the easier growth path because it combines stronger general-purpose compute, internal SSD storage, more memory options, and broader acceleration choices in one box. That does not make the Pi invalid; it makes the mini PC the lower-friction default for many new buyers.
Mini PCs often win on integration rather than raw novelty. Compare complete system cost, performance, storage, networking, acceleration, and expansion. Raspberry Pi is attractive for low-power experiments; mini PCs usually offer more straightforward x86 performance and growth headroom. Use “Why a mini PC is often the easier growth path” to weigh internal NVMe, memory options, x86 compatibility, and media-engine choices against the Pi’s flexibility and very low-power appeal.
Questions people ask
Immich hardware questions for this workload
Can Raspberry Pi 5 run Immich?
A Raspberry Pi 5 can host a modest Immich deployment when storage and workload expectations are appropriate, but buyers should verify the current ARM installation and acceleration limitations before treating it like an x86 mini PC. Compare the complete Pi and mini-PC systems after storage, power, cooling, memory, networking, and acceleration constraints are included—not just their headline purchase prices.
Is a mini PC faster than Raspberry Pi 5 for Immich?
The right answer depends on library size, video share, users, background-job urgency, storage architecture, and the exact hardware configuration. Compare the complete Pi and mini-PC systems after storage, power, cooling, memory, networking, and acceleration constraints are included—not just their headline purchase prices.
Can Raspberry Pi use Immich hardware transcoding?
Immich’s current hardware-transcoding documentation does not list Raspberry Pi as a supported hardware-transcoding target, so do not buy a Pi assuming its media hardware will work through the same supported path as an x86 iGPU. Compare the complete Pi and mini-PC systems after storage, power, cooling, memory, networking, and acceleration constraints are included—not just their headline purchase prices.
How much RAM does Raspberry Pi need for Immich?
Immich’s current requirements page lists 6GB as a minimum and 8GB as recommended; a new family server often benefits from 16GB or more when background jobs and other containers share the host. Compare the complete Pi and mini-PC systems after storage, power, cooling, memory, networking, and acceleration constraints are included—not just their headline purchase prices.
Should I store Immich photos on a microSD card?
The right answer depends on library size, video share, users, background-job urgency, storage architecture, and the exact hardware configuration. Compare the complete Pi and mini-PC systems after storage, power, cooling, memory, networking, and acceleration constraints are included—not just their headline purchase prices.
Is Raspberry Pi cheaper than a mini PC after accessories?
Sometimes, but compare the complete bill of materials. A Pi may need power, cooling, enclosure, SSD hardware, and storage that a configured mini PC already includes. Compare the complete Pi and mini-PC systems after storage, power, cooling, memory, networking, and acceleration constraints are included—not just their headline purchase prices.
Which platform is better for machine learning?
The right answer depends on library size, video share, users, background-job urgency, storage architecture, and the exact hardware configuration. Compare the complete Pi and mini-PC systems after storage, power, cooling, memory, networking, and acceleration constraints are included—not just their headline purchase prices.
Can both use NAS storage?
The right answer depends on library size, video share, users, background-job urgency, storage architecture, and the exact hardware configuration. Compare the complete Pi and mini-PC systems after storage, power, cooling, memory, networking, and acceleration constraints are included—not just their headline purchase prices.
Which uses less electricity?
Raspberry Pi can be exceptionally efficient, but a modern mini PC can also idle at low power and finish heavy jobs faster. Compare complete-system idle and load consumption rather than board TDP alone. Compare the complete Pi and mini-PC systems after storage, power, cooling, memory, networking, and acceleration constraints are included—not just their headline purchase prices.
Which is better for a growing family photo library?
A mini PC is usually the lower-friction growth choice because it offers stronger general-purpose compute, more memory options, internal NVMe, and broader acceleration paths, while a Pi remains attractive for deliberately light workloads. Compare the complete Pi and mini-PC systems after storage, power, cooling, memory, networking, and acceleration constraints are included—not just their headline purchase prices.
References and methodology
Verify changing requirements before you buy
Cloudzat separates product classes, rejects accessories and ambiguous configurations, and uses the sprint’s dedicated Amazon catalogue. Prices are displayed only when a current featured offer is returned; otherwise the page links to Amazon buying options without inventing a price.
- Immich requirements
- Immich hardware transcoding
- Immich machine-learning acceleration
- Immich backup and restore
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