DEV Community: Yanko Aleksandrov

How to Run AI Locally: Models, Hardware, and Real-World Speed

Yanko Aleksandrov — Thu, 09 Jul 2026 07:30:10 +0000

How to Run AI Locally: Models, Hardware, and Real-World Speed

Running AI locally has gone from a niche experiment to something ordinary people actually do. If you have been wondering whether you can run AI locally on your own hardware — without a cloud subscription, without your data leaving the building — the answer in 2026 is yes. And you do not need a server room to do it.

This guide covers how to run AI locally: which models work, what hardware you actually need, and what real-world performance looks like for everyday tasks.

Why Run AI Locally at All?

The case for local AI comes down to three things: privacy, cost, and always-on availability.

Cloud AI tools are fast and convenient, but every prompt you send travels to a data center somewhere. For personal notes, client data, internal documents, or anything you would not paste into a public form, that matters. Running AI locally means your data stays on your device — full stop.

Cost is the other factor. A stack of monthly AI subscriptions adds up. A one-time hardware purchase that runs AI indefinitely can be cheaper over two or three years, depending on how much you use it.

Finally, local AI is always on. No outages, no rate limits, no quota resets at midnight.

What Models Can You Run Locally?

The local AI model ecosystem has grown significantly. The most common options:

Small to medium open-weight models (3B–14B parameters)
These run well on consumer-grade hardware with 8–16GB of RAM or GPU memory. Good for summarisation, Q&A, writing assistance, code help, and light automation. Models in this range include various Llama, Mistral, Gemma, and Phi families.

Quantised versions of larger models
Quantisation reduces a model's memory footprint by lowering numerical precision. A 30B or 70B model quantised to 4-bit can fit in 8–16GB. Quality is slightly lower than the full-precision version, but the gap has narrowed considerably.

Specialised models
Some models are fine-tuned for coding, function calling, or tool use. If your workflow is specific — writing code, answering questions from a document, or running structured automations — a smaller specialised model can outperform a larger general-purpose one.

Optional cloud providers alongside local
Running locally does not mean you can never use a cloud model. A well-designed local AI setup lets you route requests to a cloud provider (like Claude or GPT) when you want a stronger model, and handle everything else locally. This hybrid approach gives you the best of both worlds.

What Hardware Do You Actually Need to Run AI Locally?

This is where most people get confused. The honest answer: it depends on what you want to run and how fast you need responses.

A standard laptop or desktop (CPU only)
You can run small quantised models on any modern laptop. Expect 1–5 tokens per second on a CPU — slow for a conversation, but usable for background tasks.

A machine with a dedicated GPU
A mid-range GPU with 8–12GB of VRAM dramatically improves speed. You can run 7B–13B models at 20–50 tokens per second, which feels close to real-time.

Dedicated AI hardware (edge inference boards)
Boards built for AI inference — like the NVIDIA Jetson Orin Nano Super — are designed to deliver consistent AI performance at low power. The Jetson Orin Nano Super 8GB offers around 67 TOPS (tera-operations per second) and runs on roughly 20W. It is not a gaming GPU, but for always-on AI assistants that need to run 24/7 without heating a room or running up an electricity bill, the efficiency trade-off makes sense.

Minimum practical specs for a usable local AI setup:

8GB RAM (16GB recommended for larger models)
20GB+ free storage for models
Any modern CPU (ARM or x86)
Optional: a GPU or dedicated AI accelerator for faster inference

Real-World Speed: What to Expect

Speed in local AI is measured in tokens per second (tok/s). One token is roughly ¾ of a word.

Hardware	Model size	Typical speed
CPU only (laptop)	7B Q4	2–6 tok/s
Mid-range GPU (RTX 3060)	7B Q4	40–80 tok/s
Jetson Orin Nano Super	7B Q4	10–20 tok/s
High-end GPU (RTX 4090)	13B Q4	60–100+ tok/s

For reference, reading speed is around 4–5 words per second, or roughly 5–7 tokens per second. Anything above that feels near-instant in a chat interface.

The Jetson-class hardware sits in the 10–20 tok/s range — fast enough for real conversation, email drafts, document summaries, and automation tasks, at a fraction of the power draw of a full GPU workstation.

What Can You Actually Do With Local AI?

Once you run AI locally, the practical use cases multiply fast:

Summarise documents and emails without uploading them anywhere
Draft and edit text with a private writing assistant
Answer questions from your own files (RAG-style retrieval)
Automate repetitive tasks — checking inboxes, responding to templates, organising data
Write and review code without it leaving your machine
Control smart home or local services through an agent that acts on your behalf

The constraint is always speed and model quality. Local models at the 7B–13B range are genuinely capable for most everyday tasks. For the heaviest reasoning or the most complex writing, you might still route to a cloud model — but for 80–90% of daily use, local handles it cleanly.

The Easiest Way to Run AI Locally

If you want to run AI locally without spending a weekend on configuration, the options are:

DIY on a spare PC — install Ollama or LM Studio, download a model, and start experimenting. Free, but requires setup time and ongoing maintenance.
A dedicated AI appliance — hardware that comes with the software pre-installed and configured. You plug it in, scan a QR code, and it is running. ClawBox is one example: a Jetson Orin Nano Super 8GB with 512GB NVMe and OpenClaw pre-installed for €549. The appeal is not the specs — it is that you do not configure anything.

The DIY route gives you more control. The appliance route gives you your time back.

FAQ

Can I run AI locally on a Raspberry Pi?
Yes, with limitations. Small quantised models (1B–3B) run on a Pi 5, but speeds are slow — 1–3 tok/s. Usable for scripts and automation, not great for real-time conversation.

Does local AI work without an internet connection?
Yes. Once the model is downloaded, it runs entirely offline. You only need an internet connection if you route to a cloud provider.

How much storage do models take?
A 7B model at 4-bit quantisation is roughly 4–5GB. A 13B model is around 8GB. Plan for 20–50GB if you want to keep several models available.

Is local AI as good as ChatGPT?
For many tasks, yes — and for private tasks, it is the only option that keeps your data fully offline. For the most complex reasoning, frontier cloud models still have an edge, which is why a hybrid local-plus-cloud setup is often the best of both.

Running AI locally is no longer a project for researchers and hobbyists. The hardware is accessible, the models are capable, and the tooling has caught up. Whether you build your own setup or start with something pre-configured, the question is not whether you can run AI locally — it is which approach fits your workflow.

Put AI to work on hardware you own — [)

ClawBox #OpenClaw #LocalAI #EdgeAI

Offline AI Assistant: Running AI With No Cloud and Full Privacy

Yanko Aleksandrov — Wed, 08 Jul 2026 07:30:10 +0000

Offline AI Assistant: Running AI With No Cloud and Full Privacy

You want an AI assistant that answers your questions, drafts your text, and reasons over your files — but you do not want every prompt streamed to someone else's servers. An offline AI assistant makes that possible: a capable model running on hardware you own, where your prompts and data never leave the device. This guide explains what is genuinely achievable offline today, where the privacy gains are real, and the honest limits you should plan around before you unplug from the cloud.

What an Offline AI Assistant Actually Is

An offline AI assistant is an open-weight language model running entirely on local hardware — no network call required to generate a response. Instead of sending your text to a remote API, the model weights live on your machine, and inference happens on a local GPU or AI accelerator.

The last two years made this practical for ordinary hardware. Open-weight model families like Llama, Qwen, Mistral, and Gemma ship in compact sizes (roughly 3B to 14B parameters) that are quantized to fit in 6–10 GB of memory. Paired with a runtime such as Ollama or llama.cpp, these models answer questions, summarize documents, write and refactor code, and hold a conversation — all on a device sitting on your desk.

The key distinction: an offline AI assistant does not depend on the cloud to function. It can still reach out to a frontier API when you choose, but its baseline operation is fully local.

The Privacy Benefit Is Real and Concrete

The strongest reason to run an offline AI assistant is privacy, and here the benefit is not marketing — it is architectural. When inference runs locally, your prompt is processed on your own silicon and the response is generated there too. Nothing is transmitted, logged on a third-party server, retained for training, or exposed to a provider's outage or breach.

That matters for anyone handling material they would not paste into a public chatbox: client records, legal drafts, medical notes, proprietary source code, financial models, or simply personal correspondence. With a local model, the privacy boundary is the box itself. You are not trusting a policy promise that data "won't be used for training" — the data physically never leaves.

This is why a local-first approach appeals to people building a private AI setup at home or in a small office. The trust model collapses from "many parties and a network" down to "the hardware in front of me."

What Is Realistically Possible Offline

Set expectations correctly and an offline AI assistant is genuinely useful for daily work. On modern local hardware you can reliably expect:

Conversational Q&A and reasoning with a 7B–14B model that handles most everyday prompts competently.
Document summarization and drafting — feed in notes, emails, or reports and get clean output.
Coding help — completion, explanation, and refactoring with code-tuned models.
Retrieval-augmented generation (RAG) over your own files, so the assistant answers from your documents while everything stays local.
Automation and agent workflows that run scripts, manage tasks, and chain steps without a cloud dependency.

The quality gap between a good local model and a frontier cloud model has narrowed sharply for these bread-and-butter tasks. For summarizing a meeting, drafting a reply, or fixing a function, a well-chosen local model is often indistinguishable from the cloud — and it never sends your content anywhere.

The Honest Limits You Should Plan Around

A responsible look at offline AI also names the trade-offs. Local models are not frontier models, and pretending otherwise sets you up for disappointment.

Raw capability ceiling. The largest, most capable models (the ones behind the leading cloud assistants) have hundreds of billions of parameters and will not fit on consumer hardware. For the hardest reasoning, the most nuanced writing, or specialized domain depth, a frontier cloud model still wins.
Context window. Local models on modest memory typically run shorter context windows. Feeding an entire codebase or a 300-page document in one shot is where local setups strain.
Speed under load. Throughput depends on your accelerator. A small efficient device gives comfortable interactive speed for a single user, but it is not a data-center serving thousands of tokens per second.
Maintenance. You own the updates — pulling new model versions, managing storage, and tuning the runtime are now your job, not a vendor's.

The honest framing is local-first with optional cloud: run everything you can locally for privacy and independence, and reach for a frontier API only on the rare task that genuinely needs it.

Choosing Hardware That Makes It Practical

The thing that turns offline AI from a tinkering project into a dependable assistant is the right hardware. A general-purpose laptop CPU can run small models, but slowly and with battery and heat costs. A dedicated AI accelerator changes the experience — fast responses, quiet operation, and the ability to leave it running.

This is where the ClawBox fits as a guide rather than the hero of your setup. It is built on the NVIDIA Jetson Orin Nano Super (8GB), pairing 67 TOPS of AI compute with a 512GB NVMe drive in a compact unit that draws only about 20W — efficient enough to run continuously. It ships with OpenClaw pre-installed, so the local model stack and assistant runtime are configured out of the box rather than assembled by hand. The design is deliberately local-first with optional cloud: your prompts run on the device by default, and you can route a query to a frontier model like Claude when you decide a particular task warrants it. It is a one-time purchase of €549.

If you are weighing options, the comparisons of local AI hardware and the best hardware for running models locally are a sensible place to calibrate what a given TOPS and memory budget gets you in practice.

FAQ

Can an offline AI assistant really run with no internet at all?
Yes. Once the model weights are downloaded, inference runs entirely on the local device. You only need a network connection to fetch model updates or, optionally, to call a cloud model when you explicitly choose to.

Will a local model be as good as a frontier cloud model?
For everyday tasks — summarizing, drafting, coding help, Q&A — a good 7B–14B local model is often close enough that the difference is hard to notice. For the hardest reasoning or very large context, frontier cloud models still lead, which is why a local-first setup keeps the cloud as an option.

Does keeping things local really protect my privacy?
Yes, structurally. When the model runs on your hardware, prompts and data are processed on-device and never transmitted. The privacy boundary is the machine itself rather than a provider's data-retention policy.

Get Started

An offline AI assistant gives you something the cloud cannot: an assistant whose answers come from hardware you control, with prompts that never leave your desk. Run what you can locally, reach for the cloud only when a task truly demands it, and keep the privacy boundary firmly on your side.

If you want a ready-made, local-first setup that does this out of the box, see how ClawBox is built for private, on-device AI — and explore the docs to understand exactly what runs where.

ClawBox #OpenClaw #LocalAI #EdgeAI

The Best Hardware for OpenClaw in 2026 (Jetson, Mini PC, or DIY?)

Yanko Aleksandrov — Tue, 07 Jul 2026 07:30:10 +0000

The Best Hardware for OpenClaw in 2026 (Jetson, Mini PC, or DIY?)

If you're researching the best hardware for OpenClaw, you've already made the interesting decision: you want an AI assistant that lives on your own machine, not a remote server. The question now is purely practical — which hardware gets you there without wasting money or time?

This article walks through the three realistic paths: an NVIDIA Jetson board, a small x86 mini PC, or a component-level DIY build. We'll be honest about what each option costs, what it can actually run, and where it gets awkward.

Why Hardware Choice Matters for OpenClaw

OpenClaw is a local-first AI agent framework. It runs large language models and tool-use pipelines directly on your device — no cloud inference required for most tasks. When you do want to pull in a frontier model like Claude, OpenClaw lets you add that as an optional cloud provider, but the core workload stays home.

That means the hardware has to carry real compute. A Raspberry Pi won't cut it for anything beyond the smallest quantized models. The sweet spot is a device with dedicated AI acceleration — something measured in TOPS (tera-operations per second) rather than just CPU gigahertz.

Option 1: NVIDIA Jetson — the Best Hardware for OpenClaw if You Want Efficiency

The Jetson family, especially the Orin Nano Super tier and above, is purpose-built for edge AI inference. The Orin Nano Super at 8 GB delivers 67 TOPS of INT8 performance, which is enough to run 7B–13B parameter models at usable speeds, all while drawing roughly 10–20 W at load.

What works well:

Low idle power — you can leave it on 24/7 without a notable electricity bill
The Ampere GPU and DLA (deep learning accelerator) are natively supported by frameworks like llama.cpp and Ollama
Compact form factor; fits on a desk or inside a media cabinet
OpenClaw's Jetson support is well-tested

What's harder:

Jetson modules are not plug-and-play in the consumer sense — you get a compute module that needs a carrier board, heatsink, and housing
Storage is separate; you'll want a fast NVMe drive for model weights
The ecosystem is developer-oriented, so initial setup takes patience

If you want the Jetson experience without the assembly, ClawBox ships with an Orin Nano Super 8 GB, 512 GB NVMe, heatsink, enclosure, and OpenClaw pre-installed for €549 one-time. That's essentially what a well-specced DIY Jetson build lands at anyway — sometimes more — once you add up the carrier board, storage, case, and hours.

Internal link suggestion: What's inside the ClawBox hardware →

Option 2: x86 Mini PC — the Best Hardware for OpenClaw if You Want Flexibility

Small form-factor PCs from Beelink, Minisforum, or similar brands offer a familiar x86 platform. Models with integrated AMD Radeon iGPUs or Intel Arc graphics have improved meaningfully for local LLM inference over the past year.

What works well:

Standard Linux support — no custom kernel patches required
You can run the full desktop OS alongside OpenClaw without compromise
Models like the Minisforum UM890 Pro (AMD Ryzen 9 8945HS, Radeon 780M) can handle 7B models via ROCm or Vulkan backends
Easy to upgrade RAM and storage

What's harder:

Integrated graphics on a mini PC offers nowhere near 67 dedicated TOPS; you're competing on raw CPU/iGPU throughput, which is less efficient
Power draw is higher under load — typically 40–65 W — so always-on operation costs more
Token generation speed for 13B+ models will be noticeably slower than Jetson-tier dedicated inference hardware

A mini PC makes sense if you already own one, or if you need it to double as a general-purpose Linux desktop. If AI inference is the primary job, you're paying for a lot of compute you won't use efficiently.

Option 3: DIY Jetson Build — the Best Hardware for OpenClaw if You Enjoy Tinkering

Buying a Jetson module (Orin NX, Orin Nano Super) plus a third-party carrier board (Seeed Studio, Waveshare, Connect Tech) and assembling everything yourself gives you maximum control.

What works well:

You choose exactly the carrier board features you need (PCIe slots, camera headers, GPIO)
Potential cost savings if you already have some components
Educational value — you'll understand every layer of the stack

What's harder:

Carrier boards in the Orin Super tier typically run €150–250; the module itself is €200–350 depending on RAM; add NVMe storage (€60–100), heatsink (€30–60), and enclosure (€30–80)
Total DIY BOM lands close to — or above — a finished appliance, especially when you factor in time
JetPack version compatibility, kernel patches, and CUDA path configuration are not trivial; plan for several evenings of setup

For developers who want to learn the Jetson platform deeply, DIY is worth it. For people who want OpenClaw running rather than being configured, it's a longer road than it looks.

Comparing the Three Paths

	Jetson Appliance (ClawBox)	x86 Mini PC	DIY Jetson
Setup time	Minutes	Hours	Days
Dedicated AI TOPS	67	~15–20 (iGPU)	40–100+
Idle power	~5–8 W	~15–25 W	~5–8 W
OpenClaw pre-installed	Yes	No	No
Upgrade path	Limited	High	Medium
Starting price	€549	€300–600	€450–700+

The table isn't meant to declare a winner — it maps options to intent. If you want the best hardware for OpenClaw right now with minimal friction, the appliance path wins on setup time and inference efficiency. If you value flexibility or already have hardware, the mini PC or DIY route has merit.

Local-First with Optional Cloud

One thing worth clarifying: "local-first" doesn't mean cloud-never. OpenClaw lets you connect cloud providers like Claude or OpenAI when you need frontier-model capability for a specific task — then routes everything else locally. You stay in control of which workloads leave the device.

This is different from cloud-only setups where you have no local fallback, and different from pure offline setups where you can't access stronger models when the task genuinely needs them. The best hardware for OpenClaw is hardware that makes this hybrid approach practical — which means enough local compute to handle 80–90% of everyday tasks on-device.

Internal link suggestion: How OpenClaw handles local vs cloud routing →

FAQ

Q: What's the minimum RAM to run OpenClaw?
OpenClaw itself is lightweight. The limiting factor is the model: 7B models quantized to 4-bit need roughly 4–6 GB of available GPU/unified memory. 8 GB is the practical floor for comfortable operation; 16 GB opens up 13B models.

Q: Can I run OpenClaw on a Raspberry Pi 5?
OpenClaw will install, but inference on models larger than 1–3B parameters will be too slow for real-time use. The Pi 5 has no dedicated neural accelerator, so LLM throughput is limited by CPU speed.

Q: Is the Jetson Orin Nano Super the best hardware for OpenClaw at its price tier?
For dedicated always-on AI workloads under 20 W, the Orin Nano Super is currently one of the strongest options at its price point. Alternatives like Hailo or Rockchip NPU boards exist but have different software ecosystems and may require more custom integration work with OpenClaw.

Next Step

If you've read this far, you're ready to make a decision. Pick the path that matches your time budget and technical appetite — or skip the research entirely and start using OpenClaw today.

Explore ClawBox at →

ClawBox #OpenClaw #LocalAI #EdgeAI

Self-Hosted AI: Why Run Your Assistant on Hardware You Own

Yanko Aleksandrov — Mon, 06 Jul 2026 07:30:10 +0000

Self-Hosted AI: Why Run Your Assistant on Hardware You Own

Self hosted AI means running your assistant on a computer you control instead of renting time on someone else's servers. For a growing number of developers, tinkerers, and small teams, that shift is becoming the obvious choice. When your model and your data live under your own roof, you decide what gets stored, what leaves the building, and how the whole thing behaves. This guide walks through why self hosted AI is worth considering, where it genuinely shines, where it asks more of you, and who it actually suits.

You are the one running the show here. The goal of this article is to give you a clear, honest map so you can decide whether owning your AI stack fits your life, your work, and your budget.

What "Self-Hosted AI" Actually Means

A self hosted AI setup runs the language model and the agent software on local hardware: a machine on your desk or in your rack. Requests don't have to travel to a third-party API to get a response. Many practical builds are local-first with optional cloud, meaning routine work happens on-device and you can still reach out to a frontier model like Claude when a task needs more horsepower.

That hybrid is the sweet spot for most people. You keep everyday queries, file access, and automation private and fast, while keeping a door open to the cloud for the heavy lifting. You're not forced into an all-or-nothing decision.

The Real Benefits

Privacy and Data Control

The clearest win is that your inputs stay with you. Notes, code, customer details, and personal documents never need to be sent to an external service for routine processing. If you handle anything sensitive, that boundary matters. You set the retention rules, and there's no opaque pipeline deciding what to log. For many readers this single point is the reason they look into private AI in the first place.

Control Over Your Stack

When you own the hardware, you own the choices. You pick the models, swap them when better ones ship, tune system prompts, and wire the assistant into your own tools and scripts. Nothing changes underneath you without your say-so. There's no surprise deprecation of the exact model your workflow depends on, because you decide when to upgrade.

Latency That Stays Predictable

Local inference doesn't depend on a round trip across the internet or on how busy a provider's servers are that afternoon. For short, frequent interactions, responses feel immediate and consistent. Predictability is often more valuable than raw peak speed, especially when the assistant is part of an everyday loop.

Cost That Levels Off Over Time

Per-call pricing scales with how much you use it. Owning the hardware flips that math: you pay once for the machine and your ongoing cost is mostly electricity. A low-power appliance pulling around 20 watts is cheap to leave running. Heavy daily users tend to feel this difference the most, since their workload would otherwise rack up metered charges month after month.

The Honest Trade-Offs

Self hosted AI is not free of friction, and pretending otherwise would do you a disservice.

Setup effort. A do-it-yourself build means choosing components, installing drivers, configuring the runtime, and getting the agent software talking to your models. None of it is exotic, but it takes time and a willingness to read documentation. If you enjoy that, it's part of the fun. If you don't, it's a real cost.

Ongoing maintenance. You become the operator. Updates, the occasional broken dependency, storage management, and backups land on your plate. It's modest for a single appliance, but it's not zero.

Model limits on local hardware. A compact local device runs efficient, quantized models very well, and those are more than capable for assistants, coding help, summarization, and automation. They are not the same as the largest frontier models. This is exactly why a local-first with optional cloud design is sensible: keep the bulk of work local, and route the rare task that needs a giant model to a service like Claude.

Going in with clear eyes on these three points is the difference between a setup you love and one that gathers dust.

The Appliance Route vs DIY

You have two honest paths to self hosted AI.

The DIY route gives you maximum flexibility and the satisfaction of building it yourself. You source parts, assemble, and configure everything. It's rewarding, and it's the right call if customization is the whole point for you.

The appliance route trades some of that flexibility for a setup that's ready out of the box. ClawBox is one example: an NVIDIA Jetson Orin Nano Super with 8GB of memory, a 512GB NVMe drive, and 67 TOPS of compute in a package that draws roughly 20 watts. It ships with OpenClaw pre-installed, so the agent layer is already wired up. It's local-first with optional cloud, runs as a one-time €549 purchase, and is built to sit quietly and run all day. If you'd rather skip the assembly and driver wrangling and get straight to using your assistant, the appliance path saves you the setup phase. You can compare the hardware tradeoffs in more depth on the best hardware guide.

Neither path is "better" in the abstract. The DIY builder values the journey; the appliance buyer values the destination. Knowing which you are makes the decision easy.

Who Self-Hosted AI Actually Suits

This isn't for everyone, and that's fine. It fits you well if:

You care about keeping your data on your own hardware.
You use an assistant often enough that metered costs add up.
You want a stable stack that won't shift under your feet.
You like the idea of an always-on assistant wired into your own tools.

It's a weaker fit if you only reach for an assistant occasionally, never touch sensitive data, and would rather not own any hardware at all. In that case a hosted service may serve you just fine. Being honest about your usage pattern is the best filter.

If you're leaning toward owning your setup, the Jetson-based approach and the broader local AI hardware overview are good next reads, and the docs cover the practical details.

FAQ

Does self-hosted AI mean I can never use cloud models?
No. A sensible setup is local-first with optional cloud. Day-to-day work runs on your hardware, and you can still call a frontier model like Claude when a task genuinely needs it. You get privacy and control by default, with a fallback for the heavy jobs.

Can a small local device really run a useful assistant?
Yes. Efficient, quantized models run well on compact hardware like a Jetson Orin Nano Super and handle assistant tasks, coding help, summarization, and automation comfortably. They aren't the largest frontier models, which is precisely why the optional-cloud door stays open.

How much maintenance does it take?
For a single appliance, it's modest: occasional updates, backups, and storage housekeeping. A pre-configured appliance with the software already installed removes most of the initial setup burden, leaving light ongoing upkeep.

Ready to Own Your Assistant?

Self hosted AI puts privacy, control, predictable latency, and leveling costs in your hands, with honest trade-offs in setup and maintenance you go in knowing about. If owning your stack sounds right, take a look at what an appliance approach offers and decide your path at [).

ClawBox #OpenClaw #LocalAI #EdgeAI

How to Run Claude Locally on Your Own Hardware

Yanko Aleksandrov — Sun, 05 Jul 2026 07:30:10 +0000

How to Run Claude Locally on Your Own Hardware

You want to run Claude locally — fast responses, your data staying on your desk, no quota anxiety. Here's the honest version up front: you can't run Claude's actual weights offline. Claude is a closed cloud model, and Anthropic does not release its parameters for local download. But that doesn't mean you're stuck choosing between "everything in the cloud" or "nothing at all." With a local-first setup, you run capable open-weight models on your own hardware for most work, and call Claude as an optional cloud provider only when you want its specific strengths. This guide explains what "run Claude locally" realistically means, how the architecture works, and what hardware makes it practical.

What "Run Claude Locally" Actually Means

When people search for how to run Claude locally, they usually want one of three things: privacy, speed, or independence from a subscription meter. The good news is you can get most of that without Claude's weights ever leaving Anthropic's servers.

The realistic model is local-first with optional cloud. A local-first agent runs open-weight models — like Llama, Qwen, or Mistral variants — directly on hardware you own. Those models handle the bulk of everyday tasks: summarizing, drafting, classifying, answering questions about your files. When a task genuinely benefits from a frontier cloud model, the agent routes that single request to Claude's API and brings the answer back. You stay in control of what goes out and what stays home.

So "running Claude locally" is shorthand for "running a local-first AI stack on your hardware that can also reach Claude when you choose to." That's a far more useful and honest framing than pretending you can extract a cloud model onto a box under your desk.

Why Open-Weight Models Cover Most of the Work

Modern open-weight models in the 7B–14B range are dramatically more capable than the models of even a year ago. For a large share of real tasks — note-taking, code completion, document Q&A, classification, routine automation — a well-chosen open model running locally is fast, private, and entirely yours. No request leaves your network.

Running these models locally gives you three concrete wins:

Privacy by default. Prompts and documents are processed on-device. Nothing is logged on a third-party server unless you deliberately send it there.
Predictable cost. Local inference draws electricity, not API credits. You scale usage without watching a meter.
Low latency. No round-trip to a data center for the common case.

You can learn more about how on-device inference works in practice on the private AI overview. The point isn't that open models replace Claude — it's that they handle enough of the workload that Claude becomes a precision tool you reach for deliberately, not a dependency you pay for on every keystroke.

Calling Claude as an Optional Cloud Provider

For tasks where a frontier model earns its keep — complex reasoning, long-context analysis, nuanced writing — you'll still want Claude. A local-first agent makes this a configuration choice, not an architecture rewrite.

Here's how the routing works in a sensible setup:

A request comes in to your local agent.
The agent decides — by rule, by task type, or by your explicit instruction — whether to answer locally or escalate.
If it escalates, it sends only that request to Claude's API over an encrypted connection and returns the response.

You supply your own Anthropic API key, so the cloud relationship is direct and transparent: you see exactly what's billed and exactly what was sent. Everything else stays local. This is what local-first with optional cloud means in practice — the default is your hardware, and Claude is opt-in per task.

If you're choosing between providers, the model-selection logic lives in the agent layer, so you can swap Claude for another cloud model — or turn cloud off entirely — without rebuilding anything.

The Hardware That Makes Local-First Practical

A local-first stack needs hardware that can run open-weight models at usable speed without turning into a space heater or a server-room project. This is where most DIY attempts stall: a gaming GPU is loud and power-hungry, a cheap mini-PC is too slow, and a cloud VM defeats the entire purpose.

ClawBox is built for exactly this gap. It's a compact edge device with:

NVIDIA Jetson Orin Nano Super (8GB) — purpose-built for on-device AI inference
67 TOPS of compute for running open-weight models locally
512GB NVMe storage for models, context, and your data
~20W typical draw — quiet, cool, always-on friendly
OpenClaw pre-installed — the local-first agent that handles routing between local models and optional cloud providers like Claude
€549 one-time for the hardware

OpenClaw is the piece that ties it together: it runs your local models, manages context, and lets you wire in Claude as an optional provider when you want it. The Jetson platform is what makes running real models on ~20 watts feasible — you can read more about that pairing on the OpenClaw on Jetson page, or compare options on the best hardware for local AI guide.

Setting It Up Without the Headaches

The reason people give up on local AI isn't the idea — it's the assembly. Drivers, CUDA versions, model quantization, agent frameworks, and API plumbing add up to a weekend you didn't budget. A pre-configured device removes that friction: OpenClaw and its dependencies are already installed and tuned for the Jetson, so you go from unboxing to running local models in minutes, then add your Claude API key whenever you want cloud escalation.

For configuration specifics — adding providers, choosing local models, setting routing rules — the documentation walks through each step. You stay the decision-maker; the box just removes the yak-shaving.

FAQ

Can I run Claude's actual model offline on ClawBox?
No. Claude is a closed cloud model and Anthropic does not release its weights. ClawBox runs open-weight models locally and lets you call Claude's API as an optional cloud provider when you choose to.

Do I need a Claude subscription to use ClawBox?
No. ClawBox is local-first — open-weight models run on the device with no cloud account required. Claude is optional: if you want it, you connect your own Anthropic API key. The €549 hardware purchase is one-time.

Is my data sent to the cloud?
Only when you explicitly route a request to a cloud provider. By default, everything runs on-device, so prompts and documents stay on your hardware.

Ready to Go Local-First?

You don't have to choose between privacy and capability. Run open-weight models on your own hardware for the everyday work, and keep Claude one configuration away for when you need it — all on a quiet, ~20W box that's yours outright.

See the full specs and start your local-first setup at [).

ClawBox #OpenClaw #LocalAI #EdgeAI

How to Set Up OpenClaw: A Step-by-Step Beginner’s Guide

Yanko Aleksandrov — Sat, 04 Jul 2026 07:30:10 +0000

How to Set Up OpenClaw: A Step-by-Step Beginner's Guide

If you want to run your own AI agent on hardware you control, you're in the right place. This guide walks you through how to set up OpenClaw from scratch: the prerequisites, the install, your first configuration, connecting a channel, and running your first task. You don't need to be a Linux expert. You just need a little patience and a willingness to follow the steps in order. By the end, you'll have a working local-first AI agent that you can message and put to work.

OpenClaw is an open-source agent runtime. It does the heavy lifting of connecting a language model to your tools, your messaging apps, and your tasks. Your job here is simply to be the person who gets it running and points it at something useful. Think of this guide as your map, and OpenClaw as the engine.

What You Need Before You Start

Before learning how to set up OpenClaw, get your prerequisites in order. Setup goes much smoother when these are ready up front:

A capable machine. OpenClaw runs well on a small edge device or a regular computer. For local inference you want a GPU or an accelerated edge board with enough memory. If you plan to lean on cloud models instead, a modest CPU box is fine.
A 64-bit Linux environment. Most installs target Linux. A recent Ubuntu or Debian release is a safe choice.
Network access and basic terminal comfort. You'll run a handful of commands and edit a config file.
An optional cloud model key. OpenClaw is local-first with optional cloud, so you can run a local model for privacy and offline use, or plug in a hosted model like Claude when you want extra reasoning power. Having a key ready lets you try both.

If you'd rather skip the hardware decision entirely, this is exactly where a ClawBox saves you time. It ships with OpenClaw pre-installed, so you plug in, scan a code, and go instead of building the stack yourself. More on that below.

Step 1: Install OpenClaw

With prerequisites ready, the first real step in how to set up OpenClaw is installation. The general flow looks like this:

Get the runtime. Pull the OpenClaw package or repository onto your machine following the official install instructions. There's usually a single bootstrap command or a clone-and-run sequence.
Let it resolve dependencies. The installer brings down the runtime and its supporting components. On a fresh machine this can take a few minutes, so let it finish without interrupting.
Verify it's there. Once install completes, confirm the runtime responds. Running its version or status command is the quickest sanity check that everything landed correctly.

If a step fails, the most common causes are an out-of-date system or a missing base dependency. Update your packages and try again before assuming something deeper is wrong. The official docs are the canonical reference if you hit a snag.

Step 2: Create Your First Configuration

OpenClaw needs to know two things to be useful: which model to think with, and who it's allowed to talk to. That lives in your configuration.

Choose your model. Decide whether your agent reasons locally, via cloud, or both. Local-first keeps data on your machine; an optional cloud model gives you more horsepower for complex tasks. You can set a primary and a fallback so the agent stays responsive.
Set your identity and defaults. Give the agent a name, a working directory, and any baseline behavior you want. Keep this minimal at first. You can layer in more later once you understand how it behaves.
Store credentials safely. If you're using a cloud model, your API key goes into the configuration or an environment file, not into a public place. Treat it like a password.

Save the file, restart the runtime so it picks up your changes, and you have a configured agent ready to connect to the outside world.

Step 3: Connect a Channel

An agent you can't message isn't much use yet. The next step in how to set up OpenClaw is connecting a channel so you can actually talk to it. A channel is just the surface where you and the agent exchange messages, such as a chat app or a local interface.

Pick one channel to start. Don't wire up everything at once. Choose the single place you'll naturally message from.
Authorize the connection. This usually means pasting a token or scanning a pairing code so the channel and your agent trust each other. Follow the prompts the runtime gives you.
Send a test message. Once linked, say hello. A reply confirms the loop is closed: your message reaches the agent, the model thinks, and the answer comes back to you.

If the agent doesn't respond, check that the runtime is still running and that your channel credential is valid. Most first-time connection issues come down to a typo in a token or a service that needs a restart.

Step 4: Run Your First Task

Now for the satisfying part. Ask your agent to do something real. Start small and concrete so you can clearly see the result.

Try a self-contained request first, like summarizing a piece of text or answering a question. This confirms the model is reasoning correctly.
Then try a task that touches your machine or tools, like reading a file or checking a status. This confirms the agent can act, not just chat.
Watch how it works, then expand. Each successful task teaches you what to ask for next. Over time you'll hand off bigger jobs with confidence.

That's the whole arc: install, configure, connect, and run. Everything else is refinement.

The Shortcut: Skip Straight to Step 4

Here's the honest version. Steps 1 through 3 are very doable, but they take time, and hardware choices trip up a lot of beginners. That's the problem a ClawBox is built to remove.

ClawBox is a small dedicated device that ships with OpenClaw already installed and configured. Inside is an NVIDIA Jetson Orin Nano Super 8GB with 512GB NVMe storage, delivering around 67 TOPS of AI performance while drawing only about 20W. It's local-first with optional cloud, so you can run models privately on the box or reach out to a hosted model like Claude when you want more reasoning. You plug it in, scan a code, and you're effectively at Step 4. It's a one-time €549, and there's no separate machine to spec or maintain.

You can compare it against building your own rig on the best hardware and local AI hardware guides if you want to weigh the trade-offs yourself.

Frequently Asked Questions

Do I need to be a programmer to set up OpenClaw?
No. The setup is mostly running a few commands and editing one configuration file. If you can follow instructions in a terminal, you can get OpenClaw running. The hardest part is usually choosing hardware, which a pre-built box removes entirely.

Does OpenClaw require the cloud to work?
No. OpenClaw is local-first with optional cloud. You can run a model directly on your own hardware for privacy and offline use, and only reach out to a hosted model like Claude when a task benefits from extra reasoning. The choice stays yours.

How long does setup take?
On your own hardware, plan for an hour or two including downloads, configuration, and your first test. On a device that ships with OpenClaw pre-installed, you're looking at minutes from unboxing to your first task.

Ready to Get Started?

Setting up OpenClaw is well within reach, whether you build it yourself or start from a box that's already configured. If you'd rather skip the setup and go straight to running tasks, a ClawBox gives you OpenClaw pre-installed on capable, low-power hardware for a one-time €549. Explore the device and the docs at [) and put your own local-first AI agent to work today.

ClawBox #OpenClaw #LocalAI #EdgeAI

Declare Independence From the Cloud: Own Your AI This 4th of July

Yanko Aleksandrov — Fri, 03 Jul 2026 15:20:04 +0000

This 4th of July, the fireworks are about something a little different: independence from the cloud. Most of the AI tools people rely on every day live on someone else's servers, billed by the month, processing your data in a data center you will never see. There is another way — owning the hardware your AI runs on, keeping your data at home, and paying once instead of forever. Here is the case for declaring your own independence, and a holiday reason to start now.

What "Independence From the Cloud" Actually Means

Cloud AI is convenient, and for plenty of tasks it is the right tool. But convenience comes with quiet trade-offs: your prompts travel to external servers, your costs recur every month, and your access depends on a provider's uptime, pricing, and policies staying favorable.

Independence from the cloud means flipping that arrangement. Instead of renting access to AI, you run it on hardware you own. Your data stays on your network. Your costs are a one-time purchase rather than a subscription that never ends. And your assistant keeps working whether or not a provider has an outage, raises prices, or changes terms.

It does not mean cutting yourself off entirely. The most practical setups are local-first with optional cloud providers — you handle most work on your own hardware and reach for a frontier cloud model (like Claude) only when you specifically want the extra capability. You stay in control of what leaves your device and what does not.

Three Reasons Ownership Beats Renting

Privacy by architecture. When AI runs on your own box, your documents, messages, and notes are processed locally. A local model physically cannot send your data to a third party because it is not connected to one unless you choose to connect it. For business data, client information, or anything personal, that boundary is concrete rather than a policy promise.

Cost that stops climbing. A stack of AI subscriptions adds up — one plan becomes three, per-seat pricing grows with your team, and token usage spikes the month you actually get productive. Owning the hardware turns an open-ended monthly bill into a fixed, one-time cost. Over two or three years, the math usually favors ownership for anyone who uses AI daily.

Always-on reliability. A box on your desk does not rate-limit you at midnight or go down during peak hours. It runs on your schedule, handles background automation while you sleep, and is ready the moment you need it.

What You Can Actually Do With Your Own AI Box

Owning the hardware is only worth it if the thing is useful. A well-configured local AI assistant can:

Summarize long documents, contracts, and emails without uploading them anywhere
Draft and edit text with a private writing assistant
Answer questions from your own files
Automate repetitive tasks — inbox triage, templated replies, data entry
Run browser automation that acts on your behalf
Stay available 24/7 for everyone on your home or office network

For the majority of everyday tasks, a capable local model handles the work cleanly. For the heaviest reasoning, you can route to a cloud model on demand — your choice, per request.

The Plug-and-Play Path: ClawBox

The DIY route to a private AI setup is real and rewarding if you enjoy the process: pick hardware, install a runtime, download models, wire up integrations, and maintain it over time. For everyone who would rather skip straight to using it, there is a pre-configured option.

ClawBox is a plug-and-play AI hardware box — an NVIDIA Jetson Orin Nano Super 8GB with a 512GB NVMe drive and OpenClaw pre-installed. It delivers around 67 TOPS of AI performance while drawing roughly 20 watts, so it can sit on a desk and run around the clock without noise, heat, or a meaningful electricity bill. You plug it in, scan a QR code to connect it to your network and messaging app, and your assistant is running.

It is local-first by design, with the option to connect a cloud provider when you want one. The €549 price is a one-time purchase, not a subscription — which is exactly the point of declaring independence from recurring cloud bills.

A 4th of July Reason to Start

To mark Independence Day, ClawBox is 15% off through July 6 with code JULY4 — that brings it from €549 to €466.65. If you have been meaning to move your AI onto hardware you actually own, this is a good week to do it.

Apply the discount automatically at checkout here: [)

FAQ

Does owning an AI box mean I can never use cloud models?
No. The practical approach is local-first with optional cloud routing. You run most tasks locally and reach for a cloud model only when you want its extra capability — and you decide which requests leave your device.

Is a local AI box hard to set up?
DIY setups take some time and technical comfort. A pre-configured box like ClawBox is designed to be running within minutes of unboxing — plug in, scan a QR code, done.

Will it really save money versus subscriptions?
If you use AI daily, a one-time hardware cost typically beats stacked monthly subscriptions over two to three years. The exact break-even depends on how much you currently spend.

Does the discount apply to everyone or just US customers?
The JULY4 promo is a holiday offer available through July 6 — apply code JULY4 at checkout. ClawBox ships internationally via DHL Express.

Independence Day is a fitting moment to rethink who owns your tools. Renting AI from the cloud will always have its place, but owning the hardware your assistant runs on gives you privacy, fixed costs, and an assistant that answers to you. This week, there is a holiday discount to make the first step easier.

Put AI to work on hardware you own — [)

ClawBox #July4 #LocalAI #EdgeAI

OpenClaw Hardware Requirements: What You Actually Need to Run It 24/7

Yanko Aleksandrov — Fri, 03 Jul 2026 08:16:20 +0000

OpenClaw Hardware Requirements: What You Actually Need to Run It 24/7

If you want to run OpenClaw at home or in a small office, the first real question is hardware. Understanding the OpenClaw hardware requirements up front saves you from buying a machine that throttles under load, runs hot, or quietly inflates your electricity bill because it was never meant to stay on around the clock. You are the one who has to live with that box every day, so let's walk through exactly what matters: CPU, RAM, GPU and TOPS, storage, power draw, and the always-on considerations that most "minimum specs" lists skip.

This guide is honest about trade-offs. Some of these numbers depend on your model sizes and how many agents you run in parallel. The goal here is to give you a clear mental model so you can match the hardware to your workload, whether you assemble it yourself or pick a purpose-built box.

The Short Version of OpenClaw Hardware Requirements

OpenClaw is an agent runtime. It coordinates tasks, calls models, runs tools, and keeps sessions alive. The heaviest cost is usually inference: running a language or vision model locally. If you offload inference to the cloud, your local hardware needs drop a lot. If you want everything private and on-device, the GPU and memory bar goes up.

A workable baseline for local-first operation looks like this:

A modern multi-core CPU (4+ cores) so the runtime, tools, and OS never starve each other.
8 GB of RAM as a practical floor for small local models plus the runtime; more if you load larger models or run several agents.
An accelerator with real AI throughput (measured in TOPS) if you want on-device inference, not just CPU fallback.
Fast NVMe storage, not a spinning disk, because model weights and logs are read and written constantly.
A power and thermal envelope you can leave on 24/7 without worry.

The rest of this article expands each of these so you can size your own setup.

CPU and RAM: The Foundation

The CPU does more than people expect in an agent system. Even when a GPU or NPU handles inference, the CPU orchestrates everything: parsing tool calls, managing concurrent sessions, handling network I/O, and pre- and post-processing data. A weak CPU shows up as sluggish responses even when your accelerator is idle.

Four physical cores is a sensible minimum. Below that, a single busy agent can stall the rest of the system. If you plan to run multiple agents or long tool chains in parallel, more cores help directly.

RAM is the other half of the foundation. The runtime itself is modest, but model weights, context windows, and caches add up fast. Small local models can fit comfortably in 8 GB alongside the OS and runtime. Larger models, longer contexts, or several concurrent sessions push you higher. If you intend to keep everything resident in memory for low latency, plan for headroom rather than the exact floor. Our private AI hardware guide goes deeper on memory sizing for on-device models.

GPU, TOPS, and Local Inference

This is where local AI hardware decisions get made. "TOPS" stands for trillions of operations per second, a rough measure of how much AI math an accelerator can do. CPU-only inference works for tiny models but quickly becomes painful for anything interactive.

For responsive local inference you want a dedicated accelerator, whether that's a discrete GPU or an integrated NPU built for AI workloads. As a reference point, the ClawBox uses an NVIDIA Jetson Orin Nano Super 8GB that delivers 67 TOPS. That is enough to run small-to-mid local models with usable latency while staying inside a tiny power budget.

The honest trade-off: more TOPS and more VRAM let you run larger models faster, but they cost more in money, heat, and watts. Many people land on a hybrid approach. Run a capable local model for everyday private tasks, and reach for a cloud model like Claude when you need maximum capability. OpenClaw supports this directly: it is local-first with optional cloud, so you are not forced to size your hardware for the absolute largest model you might ever call. Our OpenClaw on Jetson page covers what that accelerator class can and cannot do locally.

Storage: Why NVMe Matters

Storage is the spec people underspend on, and they regret it. Model weights are large files, often several gigabytes each, and they get read into memory on load. Logs, session state, vector data, and caches are written continuously when agents are active.

A SATA SSD works, but NVMe is meaningfully faster for model loading and reduces the lag when switching models or cold-starting a session. A spinning hard drive is a poor fit for an always-on agent box; the random read pattern will bottleneck you.

Capacity matters too. Between the OS, the runtime, multiple model weights, and accumulating logs, storage fills faster than expected. A 512 GB NVMe drive, like the one in the ClawBox, leaves comfortable room for several models plus operational data without constant housekeeping. If you self-build, treat 512 GB as a reasonable starting point and scale up if you hoard models.

Power Draw and Always-On Considerations

Here is the part generic spec sheets ignore: an agent box is meant to stay on. That changes the calculus entirely. A repurposed gaming PC can run OpenClaw, but a 300–500W machine humming day and night is loud, hot, and expensive to keep powered.

Three things matter for 24/7 operation:

Power draw. A box that idles and works within a low envelope is cheaper to run and easier to leave on. The ClawBox operates at roughly 20W, which is a fraction of a typical desktop and trivial to keep running continuously.
Thermals and noise. Always-on hardware needs to dissipate heat without screaming fans. Low-power designs run cool and quiet, which matters when the box lives in your home or office.
Reliability. Continuous operation rewards simple, purpose-built systems over towers full of moving parts. Fewer components running hot means fewer failures over months of uptime.

If you compare the lifetime electricity cost of a 20W box against a few-hundred-watt desktop running non-stop, the gap is real money over a year. For an always-on workload, efficiency is not a nice-to-have; it is a core requirement. See our best hardware for local AI breakdown for how power and performance trade off across options.

Build It Yourself or Skip the Sizing

You can absolutely meet these OpenClaw hardware requirements with parts you assemble: a capable CPU, enough RAM, an AI accelerator with real TOPS, an NVMe drive, and a power-efficient design. If you enjoy the build and want full control, that path is open and well documented.

The trade-off is your time and the risk of mis-sizing. Buy too little accelerator and inference crawls. Buy too much desktop and you pay for it every night in watts. Getting the balance right takes research and some trial and error.

The ClawBox exists for people who would rather skip that and start working. It is a plug-and-play box with OpenClaw pre-installed: an NVIDIA Jetson Orin Nano Super 8GB, 67 TOPS, 512GB NVMe, around 20W power draw, for €549 one-time. It is local-first with optional cloud, so your private workloads stay on-device and you can call a cloud model like Claude when you choose. You are still the one running the system; the box just removes the sizing guesswork. The full setup documentation shows what comes ready out of the box.

FAQ

Do I need a GPU to run OpenClaw?
Not strictly. OpenClaw can run with cloud inference and modest local hardware. But if you want fast, private, on-device inference, an accelerator with real TOPS makes a large difference to responsiveness.

How much RAM is enough?
8 GB is a practical floor for the runtime plus small local models. Larger models, longer contexts, or several concurrent agents push you higher. Plan headroom rather than the bare minimum.

Can I really leave it running 24/7 without a big electricity bill?
Yes, if you choose efficient hardware. A roughly 20W box costs very little to keep on continuously, unlike a few-hundred-watt desktop. Power efficiency is the single most overlooked factor for always-on agent setups.

Get Started

Match the hardware to your workload: enough CPU and RAM to keep the runtime responsive, an accelerator sized to the models you actually run, fast NVMe storage, and a power envelope you can leave on without thinking about it. Whether you build it or buy it, those are the requirements that matter.

If you'd rather skip the sizing and start running OpenClaw today, take a look at the ClawBox at [).

ClawBox #OpenClaw #LocalAI #EdgeAI

OpenClaw vs Claude: What’s the Difference (and When to Use Each)

Yanko Aleksandrov — Thu, 02 Jul 2026 17:28:53 +0000

OpenClaw vs Claude: What's the Difference (and When to Use Each)

If you've been researching AI agents and keep seeing both names, here's the short answer to the OpenClaw vs Claude question: they aren't competitors, and you don't have to pick one over the other. OpenClaw is an open-source agent framework you run yourself. Claude is a cloud large language model (LLM) built by Anthropic. OpenClaw is the system that plans, calls tools, and gets work done; Claude is one of the "brains" OpenClaw can plug into when you want cloud-grade reasoning. Understanding the split makes it much easier to decide where each one fits in your setup.

This guide breaks down what each one actually is, why they're complementary rather than rival products, and how to think about running them together on your own hardware.

What OpenClaw Actually Is

OpenClaw is an open-source agent framework. Think of it as the orchestration layer: it manages conversations, holds context and memory, connects to tools and APIs, runs skills, and executes multi-step tasks on your behalf. You self-host it, which means it runs on a machine you control rather than on someone else's servers.

Because OpenClaw is the framework and not the model, it isn't locked to any single AI provider. It can route requests to a local model running on your own device, or it can hand the hard reasoning off to a cloud provider when you ask it to. That flexibility is the whole point: you decide where the work happens.

What OpenClaw does not do is replace the language model itself. It needs a model to think with. That model can live locally on your hardware, or it can be a cloud service like Claude. Which brings us to the other half of the comparison.

What Claude Is

Claude is a family of large language models made by Anthropic, delivered as a cloud service through an API. When you send Claude a prompt, your request travels to Anthropic's servers, the model generates a response, and it comes back to you. It's known for strong reasoning, long context windows, and careful, well-structured output.

Claude is a model, not a framework. On its own it answers prompts and uses tools you define, but it doesn't self-host, manage your local files, or run continuously on a box in your office. To turn Claude into an always-on agent that does real work in your environment, you need an orchestration layer around it. OpenClaw is exactly that kind of layer.

So the honest framing of OpenClaw vs Claude is less "which is better" and more "which job are we talking about." One is the agent system. The other is a cloud brain that system can borrow.

OpenClaw vs Claude: How They Work Together

Here's where it clicks. OpenClaw can use Claude as an optional cloud provider. You run OpenClaw locally, and for tasks that benefit from heavy cloud reasoning, you point it at Claude's API. For everyday tasks, you can keep things on a local model so they stay on your hardware.

This is what we mean by local-first with optional cloud. Routine work, private documents, and quick tasks can run on the model living on your own device. When a job calls for the extra horsepower of a frontier cloud model, OpenClaw can route that single request to Claude and bring the answer back. You're not forced into an all-cloud or all-local setup — you choose per task.

That hybrid approach is the practical reason the OpenClaw vs Claude debate is the wrong question. The useful setup uses both: OpenClaw as the guide that runs the show, Claude as one capable option on the menu of brains it can call.

When to Use Each

You're the one driving here, so it helps to match the tool to the moment:

Reach for local-first (OpenClaw on your own hardware) when privacy matters, you want predictable behavior, you're doing high-volume or always-on tasks, or you simply want the work to stay on a machine you own. Home automation, personal assistants, document handling, and tinkering all fit here.
Reach for Claude (cloud) when a task needs the strongest possible reasoning, a very long context window, or capabilities your local model can't match yet. Complex analysis, nuanced writing, and tricky multi-step planning are good candidates.
Use both together when you want the best of each: OpenClaw orchestrating locally, quietly handing the heavy thinking to Claude only when it's worth it. This is the sweet spot for most people who want control and capability.

The good news is you don't have to commit up front. With OpenClaw as your framework, switching or mixing providers is a configuration choice, not a rebuild.

Where ClawBox Fits

Self-hosting OpenClaw sounds great until you hit the setup: choosing hardware, flashing an OS, installing dependencies, and tuning it all to run an AI agent reliably. That's the part that stops a lot of people before they start.

ClawBox is built to remove that friction. It's a plug-and-play AI hardware box with OpenClaw pre-installed, so you skip the assembly and go straight to using your agent. Under the hood it runs an NVIDIA Jetson Orin Nano Super 8GB with 512GB NVMe storage, delivering roughly 67 TOPS of AI performance at about 20W of power draw. It's a one-time purchase at €549, and it's local-first with optional cloud — your everyday work can run on the box, and you can point it at a cloud provider like Claude whenever a task calls for it.

In other words, ClawBox gives you the OpenClaw side of the equation ready to go, while keeping the door open to Claude on demand. If you want to see how the hardware is built for this, the OpenClaw on Jetson page and our local AI hardware overview both go deeper, and the private AI page explains the keep-it-on-your-hardware angle.

FAQ

Is OpenClaw a replacement for Claude?
No. OpenClaw is an agent framework that orchestrates tasks and tools; Claude is a cloud LLM that does the reasoning. OpenClaw needs a model to think with, and Claude can be one of those models. They're complementary.

Do I need a Claude subscription to use OpenClaw?
No. OpenClaw is local-first and can run on a model hosted on your own hardware. Claude is an optional cloud provider you can add when a task benefits from it — you choose per task, not all-or-nothing.

Can ClawBox use Claude?
Yes. ClawBox ships with OpenClaw pre-installed and runs local-first, and you can point it at optional cloud providers like Claude when you want extra cloud reasoning for a specific job.

The Bottom Line

The OpenClaw vs Claude comparison resolves into a simple idea: OpenClaw is the self-hosted framework that runs your agent, and Claude is one optional cloud brain it can borrow. Use local-first for privacy and everyday work, lean on Claude when a task demands frontier reasoning, and combine them when you want both. You stay in control of where the work happens.

If you'd rather skip the setup and start with a box that already has OpenClaw ready to run — local-first, with Claude and other cloud providers as an option — take a look at ClawBox. You can also compare the best hardware for self-hosted agents or browse the docs to see how it all fits together.

ClawBox #OpenClaw #LocalAI #EdgeAI

What Is OpenClaw? A Plain-English Guide to the Open-Source AI Assistant

Yanko Aleksandrov — Wed, 01 Jul 2026 07:58:15 +0000

What Is OpenClaw? A Plain-English Guide to the Open-Source AI Assistant

If you've been wondering what is OpenClaw, here's the short answer: OpenClaw is an open-source AI assistant you run yourself. Instead of routing everything through a remote service you don't control, OpenClaw lets the assistant live on your own hardware, where it can read your files, automate tasks, and talk to other tools — while you decide exactly when, and whether, anything leaves your machine. It's local-first by design, with optional cloud providers (like Claude) available when you want extra horsepower.

This guide breaks down what OpenClaw actually is, how it works, who it's for, and how you can get it running without becoming a systems administrator.

What Is OpenClaw, Really?

At its core, OpenClaw is software that turns a capable AI model into a practical assistant. It can hold a conversation, but it can also do things: organize documents, run scripts, manage your smart-home devices, summarize what's in your inbox, or kick off multi-step workflows on your behalf.

The "open-source" part matters. Because the code is open, you can inspect how it works, see how your data flows, and trust that there are no hidden surprises. That transparency is the foundation of why people choose to run it themselves rather than handing everything to a closed service.

When people ask what is OpenClaw compared to a typical chatbot, the clearest distinction is ownership. A standard cloud assistant lives on someone else's servers. OpenClaw runs on hardware you control — your laptop, a server, or a dedicated box at home — which puts you in the driver's seat. You're the hero of the workflow; OpenClaw is the guide that helps you get there.

How OpenClaw Works: Local-First With Optional Cloud

OpenClaw is built around a simple principle: keep things local by default, and reach out to the cloud only when you choose to.

In practice, that means the assistant can run models directly on your own machine, so your prompts, files, and context stay with you. When a task calls for a larger model or a specialized capability, you can connect an optional cloud provider such as Claude. You decide which provider to use, for which task, and you can switch it off entirely.

This "local-first with optional cloud" approach gives you the best of both worlds: privacy and control for everyday work, plus the option to tap into bigger models when a job genuinely needs them. Nothing is forced. The default leans toward keeping your data close, and the cloud is a tool you opt into rather than a requirement.

If you want to dig into how this is set up, the ClawBox docs walk through configuration step by step.

What Can You Actually Do With OpenClaw?

The honest answer is that OpenClaw is a general-purpose assistant, so what you do with it depends on your goals. Common uses include:

Personal knowledge work — summarizing documents, drafting emails, searching across your own files, and answering questions grounded in your data.
Automation — running repeatable tasks and multi-step workflows so you don't have to do them by hand.
Home and device control — connecting to smart-home tools and other services to act on your behalf.
Development and tinkering — because it's open-source, builders can extend it, add integrations, and shape it to fit their setup.

The point isn't a fixed feature list. It's that you have a capable assistant running on hardware you own, ready to be pointed at whatever matters to you.

Why People Run OpenClaw Themselves

There are a few practical reasons self-hosting appeals to people asking what is OpenClaw and whether it's worth running locally.

Privacy and control. When the assistant runs on your own hardware, you decide what stays local and what (if anything) goes to a cloud provider. For sensitive work, that control is the whole point. If privacy is your main driver, the private AI overview explains the local-first model in more detail.

Predictable ownership. You own the hardware and the software. Your setup doesn't disappear if a vendor changes course, and you're not locked into a single provider's roadmap.

Transparency. Open-source means you (or someone you trust) can look under the hood. There's no mystery about how the system behaves.

Flexibility. You can run it lean on local models or scale up by plugging in a cloud provider for heavier tasks — and change your mind whenever you like.

The Easiest Way to Run OpenClaw: ClawBox

Running an AI assistant on your own hardware can mean wrestling with drivers, model installs, and configuration. If that's not how you want to spend your weekend, this is where a ready-made box helps.

ClawBox is a plug-and-play AI hardware box with OpenClaw pre-installed. It's built on the NVIDIA Jetson Orin Nano Super (8GB) with a 512GB NVMe drive, delivering 67 TOPS of AI performance at roughly 20W of power draw — small, quiet, and energy-light enough to leave running at home. It's a one-time purchase at €549, and it ships ready to go: power it on, and your local-first assistant is there waiting, with optional cloud providers available when you want them.

The appeal is simplicity. You skip the setup grind and get straight to using OpenClaw. If you're weighing the hardware side, the local AI hardware guide and the OpenClaw on Jetson page cover what's under the hood and why this configuration fits the job.

Frequently Asked Questions

Is OpenClaw free?
OpenClaw itself is open-source software, so the project is openly available. Running it requires hardware capable of the work you want to do, and if you choose to use an optional cloud provider like Claude, that provider may have its own usage costs. The local-first approach means you can do a great deal without sending anything to the cloud.

Do I need to be technical to use OpenClaw?
Not necessarily. The software can be installed and configured by people comfortable with setup, but a pre-configured option like ClawBox removes that barrier — OpenClaw comes pre-installed, so you can start using it right away.

Does OpenClaw keep my data private?
By design, OpenClaw is local-first, meaning it runs on your own hardware and keeps data local by default. You choose whether to connect an optional cloud provider for specific tasks, so you stay in control of what leaves your machine.

Get Started With OpenClaw

Now that you have a plain-English answer to what is OpenClaw — an open-source, local-first AI assistant you actually own — the next step is deciding how to run it. If you want the simplest path, a ready-made box gets you there without the setup headache.

Explore ClawBox to see how a plug-and-play box with OpenClaw pre-installed can put a private, capable AI assistant on your desk today.

Automate Your Printer with AI (ClawBox + OpenClaw)

Yanko Aleksandrov — Thu, 25 Jun 2026 10:30:04 +0000

Printing from code usually means driver hell: CUPS quirks, vendor drivers, and a queue that silently fails. We wanted something simpler — send a chat message, get a printed page.

What we built

ClawBox runs OpenClaw on a small Jetson Orin Nano box you own. We hooked a plain USB printer to it and wired the agent so it can print documents, shipping labels and files straight from a Telegram/WhatsApp message — no manual steps, no driver wrestling on your laptop.

Why it is handy

Print shipping labels the moment an order comes in
Send a file to print from your phone, anywhere
Keep the printer logic on a dedicated always-on box instead of your main machine

It is local-first (the box is yours), with optional cloud AI providers when a task needs them.

Watch the full walkthrough

https://www.youtube.com/watch?v=VqWGHKSHH3k

More about the hardware: https://clawbox.tech?utm_source=devto&utm_medium=social&utm_campaign=printer-video

Running a local AI agent on an 8GB Jetson Orin Nano (2026)

Yanko Aleksandrov — Sat, 20 Jun 2026 08:00:04 +0000

Running a local AI agent on an 8GB Jetson Orin Nano (2026)

Local AI has a reputation for needing expensive hardware. After running OpenClaw on an 8GB Jetson Orin Nano for months, here’s the practical reality.

What the 8GB Orin Nano handles well

Small-to-mid local models for chat, summarization, and routing
Browser automation (including sites that block headless bots)
Voice and messaging integrations (Telegram, WhatsApp, Discord)
An always-on agent loop running 24/7 at low power draw

Where the honest limits are

The largest frontier models won’t run fully local on 8GB — use optional cloud providers for those
Heavy parallel workloads want more unified memory

The local-first pattern that works

Run routing, automation, and lightweight inference locally; reach for a cloud model only when a task genuinely needs it. You keep control and privacy for the everyday work, and scale up on demand.

Skipping the setup pain

Getting all of this configured by hand is 10–20 hours. ClawBox ships the Jetson pre-configured with OpenClaw so you plug in and go — hardware you own, AI that works for you.

Canonical: https://clawbox.tech/blog?utm_source=devto&utm_medium=social&utm_campaign=weekly_plan_jun2026