Silicon Steak Shrinks His Homelab With ZimaBoard 2

Thank you to Silicon Steak for putting a simple homelab question to the test: how much server hardware do you actually need?

In Shrink Your Homelab: ZimaBoard 2 Review, he looks at whether the ZimaBoard 2 mini home server can take over jobs that would normally live on a much larger machine. The test moves beyond hardware specs into the workloads that matter in a real homelab: storage, media playback, Minecraft, Pi-hole, self-hosted applications, and day-to-day management.

Watch before reading: the video is useful because the size difference is only the starting point. Watch how Silicon Steak moves from the Intel N150 hardware itself to an actual compact deployment, then tests several very different server workloads on the same machine.

The interesting result is not that one small board can reproduce the raw performance of every tower server. It is that many everyday homelab services do not need tower-class hardware in the first place. A compact x86 system can consolidate several lightweight and moderate workloads while using far less physical space.

Silicon Steak's review therefore becomes less about benchmark chasing and more about right-sizing a home lab server: keep the storage, networking, applications, and services you actually use, without keeping oversized hardware running simply because it was available.

The Intel N150 Is the Starting Point

Silicon Steak begins with the processor at the center of the build. ZimaBoard 2 uses an Intel N150 with four cores, four threads, 6MB cache, and boost frequency up to 3.6GHz.

This is not a desktop-class CPU designed to win heavy rendering benchmarks. For a homelab, the more relevant question is whether it can keep several always-on services responsive without requiring a full desktop system.

ZimaBoard 2 combines that CPU with 8GB or 16GB of LPDDR5 memory, dual 2.5GbE networking, two SATA ports, and PCIe expansion. That combination is what makes it useful as a small server rather than simply a compact PC.

Why Shrink a Homelab at All?

The comparison becomes clearer when Silicon Steak shows the kind of conventional PC hardware that can end up doing server duty.

A repurposed gaming PC can be powerful, but DNS filtering, file services, lightweight containers, dashboards, and small game servers rarely need all of that hardware continuously.

Downsizing makes sense when the workloads fit the smaller machine. The goal is not to make the server tiny at any cost; it is to stop allocating desktop-class hardware to jobs that can run comfortably on a smaller always-on system.

What a Smaller Homelab Looks Like in Practice

The physical difference is obvious once ZimaBoard 2 is moved into the actual server area.

For infrastructure that runs continuously, footprint matters. A server that fits beside the router, switch, UPS, or storage stack is easier to integrate than another full tower.

That smaller footprint becomes more useful when the same device can handle several services rather than replacing one large box with several small ones.

Adding Storage Turns It Into a Compact NAS

Storage is one of the workloads where ZimaBoard 2's server-specific interfaces matter. Silicon Steak pairs the board with local drives instead of relying only on onboard storage.

The board provides two SATA 3.0 ports with power, while PCIe leaves another path for NVMe or other expansion. Dual 2.5GbE networking also gives local storage more headroom than a standard Gigabit connection.

That makes the same machine useful as both a self-hosted application host and network storage server rather than dedicating separate hardware to each role.

Media Streaming Is a Different Test From File Storage

A NAS can move files successfully and still struggle with media workloads. Silicon Steak therefore tests the system from a TV rather than treating storage access as proof that the entire media workflow works.

For a media server, client compatibility matters. Direct Play is relatively light, while transcoding unsupported video, subtitles, or HDR content can add substantially more processing work.

The lesson is simple: test the files and playback devices you actually use. A server that fits one household's mostly Direct Play library may face a very different workload when several clients require transcoding.

Can the Same Small Server Host Minecraft?

Silicon Steak then moves to a completely different workload: Minecraft.

This is where homelab consolidation becomes useful. A service does not need its own physical computer simply because it serves a different purpose.

Storage, media tools, game servers, and network services can coexist when CPU, RAM, storage I/O, and network demand remain within the host's available resources. The limit is the combined workload, not the number of application icons installed.

Pi-hole Shows How Light Some Always-On Services Really Are

The contrast becomes even clearer with Pi-hole. DNS filtering is the kind of infrastructure service that needs to remain available but generally does not justify a large dedicated machine.

Pi-hole itself is lightweight. The more important requirements are reliable storage, a stable network address, and an always-on host.

Putting services like this beside storage and other applications is a better use of the machine's available resources than assigning a separate computer to every lightweight network function.

Self-Hosted Productivity Fits the Same Model

The review also shows a self-hosted notes and knowledge workflow. It is another example of a service that benefits from being continuously available without needing workstation-class hardware.

This is the pattern behind a compact homelab: many individually modest applications share one reliable x86 host.

The ZimaOS App Store covers workloads ranging from networking and media to productivity, home automation, development, and AI. The practical sizing question is therefore how the combined stack uses CPU, memory, storage, and network resources.

One Small Server Does Not Mean Unlimited Workloads

Consolidation works until the combined services exceed the hardware.

The 8GB ZimaBoard 2 832 has more than enough memory for several lightweight applications, while the 16GB 1664 provides additional headroom for larger container stacks and virtual machines. Both use the same Intel N150 processor, so moving to 16GB primarily increases memory capacity rather than CPU performance.

Heavy virtual machines, large software transcoding jobs, local AI models, or workloads that need a powerful discrete GPU belong in a different sizing class. Shrinking the homelab works best when the hardware is matched to the actual services rather than forcing every possible workload onto one node.

Zima Client Keeps the Small Server Visible

A server can disappear physically without becoming difficult to manage. Near the end of the review, Silicon Steak shows the ZimaBoard 2 through Zima Client.

This matters for a compact headless deployment. Once the server is sitting beside the network equipment rather than beside a monitor and keyboard, discovery and browser-based management become part of the daily experience.

What Silicon Steak's Review Shows

The strongest part of this test is the workload mix. Silicon Steak does not judge the ZimaBoard 2 only from its CPU specification.

He looks at a large traditional PC, moves to a much smaller server footprint, adds local storage, then tests media, Minecraft, Pi-hole, productivity software, and system management. That sequence answers a much more useful question than a single benchmark: what can this machine remove from an existing homelab?

For lightweight and moderate always-on services, the ZimaBoard 2 mini home server makes consolidation practical without giving up native SATA, multi-gigabit networking, PCIe expansion, or the flexibility of an x86 platform.

It does not make large servers obsolete. It makes it easier to reserve them for the workloads that actually need them.

FAQ

Can ZimaBoard 2 replace a full homelab server?

It can replace a larger server when the existing workloads fit its Intel N150 CPU, available memory, storage, and networking. Lightweight containers, DNS services, file storage, media tools, and small game-server workloads are very different from heavy VM, GPU, or local AI workloads.

Should I choose ZimaBoard 2 832 or 1664 for a homelab?

Both use the same Intel N150 processor. The 832 provides 8GB RAM and 32GB eMMC, while the 1664 provides 16GB RAM and 64GB eMMC. The 1664 is most useful when the combined application or VM workload needs additional memory headroom.

Can ZimaBoard 2 work as a NAS at the same time?

Yes. It includes two SATA 3.0 ports with power, dual 2.5GbE networking, and PCIe expansion, allowing storage to run alongside other home-server applications.

Can it run Pi-hole with other applications?

Yes. Pi-hole is a comparatively lightweight workload. The more important limit is the total CPU, memory, storage, and network demand from everything sharing the server.

Can ZimaBoard 2 be used as a media server?

Yes, but the workload depends heavily on playback clients. Direct Play is relatively light, while video transcoding, subtitle burn-in, and HDR processing can require substantially more compute.

What is the main advantage of shrinking a homelab?

The goal is not simply to use smaller hardware. It is to consolidate services that do not need a large dedicated machine, reducing physical footprint while keeping storage, networking, and self-hosted applications available on one always-on server.

Watch Silicon Steak's full ZimaBoard 2 review to see the hardware comparison, compact deployment, storage build, and application tests in their original context.