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More questions →How to Choose and Set Up a Web Interface for Ollama
Ollama runs models locally and exposes them through a command-line tool and a local API, but it does not ship a full browser-based chat UI. A web interface adds chat history, model switching, prompt management, and often multi-user access on top of that API. The main decision is whether to self-host a platform like Open WebUI or use a lighter desktop/browser frontend, and the main setup task is pointing that interface at your Ollama server's API endpoint (by default http://localhost:11434). This guide covers what each option gives you, how to connect them, and how to fix the most common connection problems.
What a web interface actually adds to Ollama
Ollama itself is designed as a local model runner and API server. A web interface sits in front of it and provides:
- Chat history — persistent conversations you can revisit, rename, and search, instead of terminal scrollback.
- Model switching — a dropdown to move between pulled models without restarting anything.
- Prompt and preset management — saved system prompts, reusable templates, and per-conversation settings.
- Multi-user access — accounts, roles, and shared workspaces, which matters if more than one person uses the machine.
- Document and file handling — many interfaces let you attach files or run retrieval over your own documents.
If you only ever run one model in a terminal and don't need history, you may not need a web interface at all. The value shows up as soon as you want persistence, multiple models, or more than one user.
The main options
| Option | Type | Best for | Trade-off |
|---|---|---|---|
| Open WebUI | Self-hosted web platform | Teams, multi-user, feature-rich chat | Requires running a server (often Docker) |
| Lightweight browser frontends | Local web app | Single user who wants a simple chat page | Fewer features, less active development |
| Desktop chat apps | Native app | Users who prefer no browser/server setup | Less control over hosting and access |
Open WebUI is the most commonly referenced self-hosted option in this space. Its own description frames it around running AI "on your own terms," connecting any model, extending with code, and keeping data under your control — which is the core pitch of self-hosting versus a hosted chat service.
Connecting an interface to your local Ollama server
The connection is almost always the same idea: the interface needs the URL of Ollama's HTTP API.
-
Confirm Ollama is running and reachable. Ollama listens on port
11434by default. Verify the API responds before touching any UI:curl http://localhost:11434/api/tagsA JSON list of your pulled models means the server is up. A connection error means the problem is Ollama, not the interface.
-
Start the interface. If you're self-hosting Open WebUI, the common path is Docker. The key detail is that the container must be able to reach Ollama's host —
localhostinside a container is the container itself, not your machine. -
Set the Ollama API endpoint in the interface's settings. Point it at the address where Ollama is actually reachable:
- Same machine, interface not containerized:
http://localhost:11434 - Interface in Docker, Ollama on the host: use the host's address (for example
http://host.docker.internal:11434on Docker Desktop), notlocalhost. - Ollama on another machine: use that machine's IP or hostname.
- Same machine, interface not containerized:
-
Verify. Open the model selector in the interface. Your pulled models should appear. Send a short test message and confirm a response comes back.
The single most common setup mistake is using localhost from inside a container. If the interface loads but shows no models, this is the first thing to check.
Self-hosting vs. desktop app: how to decide
Use the same dimensions to compare:
- Privacy and control — Self-hosting keeps conversations and data on infrastructure you manage. Desktop apps also run locally, but you depend on the app's own data handling. If data residency matters, self-hosting gives you the most direct control.
- Setup effort — A desktop app is usually install-and-go. Self-hosting typically means Docker, a port, and an API endpoint to configure. Choose self-hosting if you're comfortable with that; choose a desktop app if you want zero server management.
- Multi-user and access — Self-hosted platforms like Open WebUI are built for multiple accounts and shared access. Desktop apps are generally single-user.
- Features and extensibility — Self-hosted platforms tend to offer more: prompt libraries, document handling, and code-based extensions. Desktop apps trade features for simplicity.
If you're one person on one machine who wants a chat window, a desktop or lightweight browser frontend is the lower-effort choice. If you want shared access, history, and room to extend, self-host.
Common setup problems and fixes
Connection refused
The interface can't reach Ollama. Confirm Ollama is running (curl http://localhost:11434/api/tags), then check that the endpoint in the interface matches where Ollama actually listens. If the interface runs in a container, replace localhost with the host address.
Models don't appear in the list
Usually the same root cause as connection refused, but silent. The interface connected to something but got no model list. Re-check the endpoint, and confirm you've actually pulled models with ollama pull <model>.
CORS errors in the browser If a browser-based frontend calls Ollama directly, cross-origin restrictions can block it. The fix depends on the interface: many proxy requests through their own backend (avoiding CORS entirely), while direct browser calls may require configuring Ollama's allowed origins. Prefer an interface that proxies through its server if you hit this.
Works locally, fails from another device Ollama binds to localhost by default, so other machines can't reach it. To allow remote access you must configure Ollama to listen on a non-localhost address, and then use that address in the interface. Only do this on a trusted network, since it exposes your model server.
Interface loads but responses are slow or time out Large models on limited hardware can exceed request timeouts. Confirm the model runs acceptably from the command line first; if it's slow there, the interface isn't the problem.
A practical starting path
- Pull at least one model and confirm it works:
ollama run <model>. - Verify the API:
curl http://localhost:11434/api/tags. - Decide single-user (desktop/lightweight frontend) vs. multi-user (self-hosted platform like Open WebUI).
- Start the interface, set the Ollama endpoint to an address that's actually reachable from where the interface runs, and confirm your models appear.
- Send a test message, then fix connection issues using the section above.
The decision comes down to one question: do you need shared, persistent, extensible access, or just a chat window? Self-host for the former, use a desktop app for the latter — and in both cases, the setup succeeds or fails on getting the Ollama API endpoint right.
How to Run an LLM Locally: Install, Load a Model, and Chat
You can run an LLM locally by installing a local inference runtime (Ollama is the simplest starting point), pulling a quantized model that fits your available VRAM or RAM, verifying the model responds from the command line, and optionally attaching a web interface like Open WebUI for a chat-style experience. This works on a modern laptop or desktop with enough memory; the main constraint is how much VRAM (GPU) or system RAM you have, since that determines the largest model you can load.
Step 1: Check your hardware before downloading anything
Model size is the deciding factor. A model that doesn't fit in memory will either fail to load or fall back to slow CPU inference.
| Your available memory | Practical model range | Notes |
|---|---|---|
| 8 GB VRAM | 7B–8B quantized | Comfortable for most 7B/8B models at 4-bit quantization |
| 12–16 GB VRAM | up to ~13B quantized | Good balance of quality and speed |
| 24 GB VRAM | up to ~30B quantized | Larger models become usable |
| CPU-only, 16 GB RAM | 7B quantized | Works, but expect slow token generation |
Quantization (often labeled Q4, Q5, Q8) shrinks a model's memory footprint at some cost to quality. A 4-bit (Q4) version of a 7B model is the common entry point because it fits in modest hardware while staying usable.
Check your GPU memory first (on NVIDIA, nvidia-smi; on macOS, the unified memory reported in System Information). If you have no discrete GPU, plan around a 7B quantized model and accept slower output.
Step 2: Install a local inference runtime
Ollama is the lowest-friction option and is the runtime most commonly paired with Open WebUI. Install it from the official Ollama site for your OS, then confirm the service is running:
ollama --version
Expected result: the version prints without error. If the command isn't found, the install didn't complete or the binary isn't on your PATH.
Alternatives exist if you want more control over the inference stack — llama.cpp is a common choice for running GGUF-format models directly — but Ollama handles model download, quantization selection, and serving for you, which is why it's the recommended starting point.
Step 3: Pull a model and confirm it loads
Download a quantized model by name. For example, a 7B-class model:
ollama pull <model-name>
The pull downloads the model file to disk. Two things to watch:
- Disk space: quantized 7B models are typically several GB; larger models scale up from there. Confirm free space before pulling.
- Memory at load time: the download succeeding does not mean the model will run. Loading is where VRAM/RAM limits surface.
After the pull completes, list what you have:
ollama list
Expected result: your model appears in the list with its size.
Step 4: Run your first inference from the command line
Start an interactive session:
ollama run <model-name>
Then type a prompt and press Enter. Expected result: the model streams a response back in the terminal.
If it works, you've confirmed the full path — runtime, model file, and inference — before adding any UI layer. This isolates problems: if something breaks later, you know the core stack is fine.
Common failures and what they mean
- Model loads but generates very slowly: it's likely running on CPU instead of GPU. Check that your GPU is detected by the runtime.
- Out-of-memory error on load: the model is too large for your VRAM/RAM. Drop to a smaller parameter count or a more aggressive quantization (e.g., Q4 instead of Q8).
- Pull stalls or fails: usually a network or disk-space issue, not a model problem.
- Command not found: the runtime isn't installed or isn't on your PATH.
Step 5: Add a web interface (optional)
The command line is enough to verify everything works, but a browser-based chat interface is more comfortable for ongoing use. Open WebUI is a self-hosted option that connects to a local runtime and provides a chat experience, prompt management, and model switching.
Open WebUI's own description frames it as running AI "on your own terms," connecting any model and extending with code — which matches the local-first workflow here: your runtime serves the model, and the interface sits on top of it.
The general pattern is: keep your inference runtime running, then point the web interface at it. Once connected, you select your pulled model from a dropdown and chat in the browser instead of the terminal.
What to decide before you start
- If you have a GPU with 8 GB+ VRAM: start with a 7B–8B quantized model via Ollama, verify with
ollama run, then add Open WebUI. - If you're CPU-only: expect slower responses; a 7B quantized model is still the realistic starting point.
- If you want maximum control over quantization and formats: consider llama.cpp instead of Ollama, at the cost of more manual setup.
- If you only need to test whether local inference works at all: stop after Step 4 — the command line already proves the stack.
The order matters: hardware check → runtime install → model pull → command-line verification → optional UI. Skipping the command-line step makes it much harder to tell whether a later problem is the model, the runtime, or the interface.
What Is an Ollama UI and Which One Should You Use?
An Ollama UI is a browser-based front end that talks to a local Ollama server, letting you chat with local models without typing CLI commands. Use one if you want conversation history, model switching, and a chat-style interface; stay on the CLI if you only need scripted or one-off prompts. The main choice is between Ollama's own minimal interface and fuller self-hosted platforms like Open WebUI, which adds multi-user support and extensibility.
How an Ollama UI fits together
Ollama runs models and exposes an API on your machine. A UI is a separate web app that sends your prompts to that API and renders the responses.
- Ollama server: loads and runs models, exposes an HTTP API (commonly on port 11434).
- UI layer: a web front end that connects to that API, manages chats, and displays output.
- Your browser: where you actually type prompts and read replies.
Because the UI and the model server are separate, you can swap front ends without changing how models are stored or run.
Why use a browser UI instead of the CLI
The Ollama command line is fine for quick tests, but a UI changes the day-to-day experience:
- Conversation history you can revisit instead of scrolling terminal output.
- Model switching from a dropdown rather than retyping model names.
- Prompt editing and reuse without shell quoting issues.
- Multi-turn context handled visually, so you can see and edit what the model sees.
- Sharing or multi-user access when the UI supports accounts.
If your work is scripted, automated, or embedded in other tools, the CLI or direct API calls remain the better fit.
Main options at a glance
| Option | Setup effort | Best for | Notable traits |
|---|---|---|---|
| Ollama's built-in web UI | Lowest | Quick local chat | Ships with Ollama; minimal features |
| Open WebUI | Moderate (self-hosted) | Multi-user, extensible setups | Connect any model, extend with code, self-hosted |
| Other frontends | Varies | Specific workflows | Feature sets differ by project |
Ollama's built-in interface is the fastest path to a browser chat. Open WebUI is the fuller platform: its own description frames it as a self-hosted AI platform where you "connect any model, extend with code, and protect what matters without compromise." That points to two things a minimal UI usually lacks — model flexibility and extensibility through code.
Choosing between a simple chat and a self-hosted platform
Match the tool to the job:
- Single user, quick local chat: start with Ollama's built-in UI. Least setup, fewest moving parts.
- Multiple users or shared access: choose a platform with accounts and access control, such as Open WebUI.
- Want to extend behavior with code: pick a UI that supports extensions rather than a fixed chat window.
- Need to connect more than one model type: confirm the UI can point at different model backends, not just one server.
The deciding questions are usually: How many people will use it? Do you need to customize it? How much setup are you willing to maintain?
What to check before committing
- Model support: confirm the UI works with the models and backends you actually run.
- Setup and maintenance: self-hosted platforms need ongoing updates and a place to run.
- Access model: single-user versus multi-user changes your hosting and security needs.
- Extensibility: if you plan to add custom behavior, verify the UI supports it before you migrate.
Pricing, hosting requirements, and login details depend on the specific project and your deployment, so verify them against the current documentation for whichever UI you pick rather than assuming defaults.
What Is a Local LLM and How Do You Run One Yourself?
A local LLM is a large language model that runs on hardware you control—your laptop, desktop, or a server you manage—instead of being called through a cloud API. You run one by installing a model runner (Ollama and llama.cpp are the common choices), pulling a model file, and chatting with it through a terminal or a web interface like Open WebUI. The tradeoff is straightforward: you get privacy, offline operation, and no per-token billing, but you supply the RAM, VRAM, and patience. A local setup makes sense when your data shouldn't leave your machine, when you want to work without a connection, or when you're running enough volume that API costs would add up. It's the wrong choice when you need frontier-model reasoning quality or very large context windows.
What "local" actually changes
With a cloud model, your prompt travels to someone else's GPU and the response comes back over the network. With a local LLM, both the model weights and the computation live on your machine. That single difference drives everything else:
- Privacy — prompts and documents never leave your hardware. This is the main reason people choose local for sensitive material.
- Offline use — once the model is downloaded, no internet connection is required.
- No per-token cost — you pay in hardware and electricity rather than per request. There's no metered bill, but there's also no free lunch: the compute is yours to provide.
- Full control — you pick the model, the quantization, and the version, and nothing changes under you unless you change it.
The cost is capability. Small models that fit on consumer hardware are generally less capable than the largest hosted models, especially on hard reasoning, long documents, and complex multi-step tasks.
Hardware reality check
The single biggest constraint is memory. A model has to fit in RAM (or VRAM, if you're using a GPU) alongside the context you're generating. Rough guidance by model size, assuming 4-bit quantization, which is the usual default:
| Model size | Approx. memory needed | What it runs on |
|---|---|---|
| 1–3B | ~1–3 GB | Almost any modern laptop, CPU-only is fine |
| 7–8B | ~5–6 GB | 16 GB laptop, or a GPU with 8 GB VRAM |
| 13–14B | ~9–10 GB | 16–32 GB RAM, or 12 GB+ VRAM |
| 30–34B | ~20–24 GB | 32 GB RAM (slow) or 24 GB VRAM |
| 70B | ~40–48 GB | 64 GB RAM or multiple GPUs |
A few practical notes that the table hides:
- GPU vs CPU is a speed difference, not a capability difference. A 7B model on CPU will answer, just slowly—often a few tokens per second. The same model on a mid-range GPU can be several times faster.
- VRAM is tighter than system RAM. If a model doesn't fit in VRAM, the runner offloads layers to CPU and generation slows sharply. Partial offload works; it just costs speed.
- Context eats memory too. A long conversation or a big pasted document adds to the footprint, so a model that "just fits" may fail once you give it a long prompt.
- Quantization is the lever. A 4-bit version of a model is roughly a quarter the size of the full-precision version with a modest quality cost, which is why it's the standard choice for local use.
A typical modern laptop with 16 GB of RAM runs 7–8B models acceptably on CPU and comfortably if it has a discrete GPU. That's the realistic entry point for most people.
The toolchain: runner plus interface
Local LLM setups have two layers, and keeping them separate makes everything easier to reason about.
The runner loads the model and does the inference. Ollama is the most approachable—it manages model downloads, serves an API, and handles GPU/CPU placement for you. llama.cpp is lower-level and more configurable, and many other tools are built on it.
The interface is what you actually type into. The runner's own CLI works, but a web UI gives you chat history, multiple conversations, and model switching. Open WebUI is a self-hosted interface in this category: it connects to a runner like Ollama and gives you a browser-based chat experience on your own machine. The two pieces are independent—you can swap the interface without touching your models, or change runners without losing your chat setup.
Step-by-step first run
This path assumes a machine with enough memory for a small model (see the table above) and a terminal.
1. Install a runner. Install Ollama for your platform and confirm it's running. The install typically starts a background service that listens on a local port.
2. Pull a small model. Start with something in the 3–8B range so the first run succeeds quickly. Pulling downloads the model file; expect a few gigabytes.
3. Chat in the terminal. Send a prompt and watch the response stream. This verifies the model loads and generates before you add any other moving parts. If this step is slow but working, that's expected on CPU.
4. Add a web interface (optional). Once terminal chat works, install Open WebUI and point it at your runner. You get a browser chat UI with conversation history and model selection. Do this after the runner works, so if something breaks you know which layer is at fault.
5. Verify end to end. Ask a question you know the answer to, then ask a follow-up that depends on the first answer. If the follow-up works, context handling is fine. If it doesn't, you likely have a context or memory limit issue.
Common failure points and fixes
- Out-of-memory errors on load. The model is bigger than your available memory. Drop to a smaller model or a more aggressive quantization, and close other memory-hungry apps.
- It loads but generation is painfully slow. The model is running on CPU or partially offloaded. Check whether your GPU is being used; if not, the model may not fit in VRAM. A smaller model or lower quantization usually fixes this.
- Model won't load at all. Often a corrupted or incomplete download. Re-pull the model.
- Web UI can't reach the runner. Usually a port or host mismatch—the interface is looking at the wrong address, or the runner isn't running. Confirm the runner is up first, then check the address the UI is configured with.
- Works for short prompts, fails on long ones. Context is exceeding memory. Shorten the input or reduce the context window setting.
When a local LLM is the wrong choice
Be honest about the ceiling. Local models are a good fit for drafting, summarizing, classification, extraction, and privacy-sensitive work where "good enough" quality is acceptable. They're a poor fit when:
- You need frontier-model reasoning for hard, multi-step problems where small models visibly fall short.
- You need very large context—book-length documents or long codebases—since context is bounded by your memory.
- You need high throughput across many concurrent users, where a single local machine becomes the bottleneck.
- You want zero setup and maintenance, since you're now responsible for installs, updates, and troubleshooting.
A common pattern is hybrid: keep a local model for private or high-volume routine work, and reach for a hosted model when a task genuinely needs more capability. The two aren't mutually exclusive, and the runner-plus-interface split makes it easy to switch between them.
What Is Open WebUI and How Do You Self-Host It?
Open WebUI is a self-hosted web interface for chatting with large language models. You run it on your own machine or server, point it at one or more model backends (such as Ollama or any OpenAI-compatible API), and use a browser-based chat UI that stays under your control. It fits best when you want a ChatGPT-style interface for local or private models, need to switch between multiple models, or want document upload and user accounts without sending data to a third-party chat service.
What Open WebUI actually is
Open WebUI is the front end, not the model. It does not include an LLM by itself. Instead, it connects to a backend that serves models, and it gives you a richer interface than a raw API or a bare Ollama endpoint.
That distinction matters because it explains most setup problems. If Open WebUI loads but no models appear, the issue is almost always the backend connection, not the UI.
| Layer | What it does | Examples |
|---|---|---|
| Interface | Chat UI, model picker, accounts, document upload | Open WebUI |
| Backend | Serves the actual models over an API | Ollama, OpenAI-compatible endpoints |
| Model | Generates the responses | Llama, Mistral, Qwen, hosted models |
Compared with a raw Ollama or OpenAI-compatible API, Open WebUI adds conversation history, a model selector, user management, and file-based context. Compared with a hosted chat product, it keeps the interface and your data on infrastructure you control.
Typical use cases
- Local LLM chat: run models through Ollama and talk to them in a browser instead of the terminal.
- Multi-model switching: keep several models available and change between them per conversation.
- Self-hosted privacy: keep prompts, uploads, and chat history on your own machine or server.
- Shared access: create user accounts so more than one person can use the same instance.
How to install and run it
The most common setup is Docker, because it bundles the app and its dependencies. The general flow is: install Docker, run the Open WebUI container, make sure it can reach your model backend, then open it in a browser.
Docker-based setup
- Install Docker on the machine that will host the interface.
- Have a model backend ready. For local models, that usually means Ollama running and reachable. For hosted models, you need an OpenAI-compatible endpoint and its API key.
- Run the Open WebUI container, exposing its web port and pointing it at your backend. The exact image tag, port, and environment variable names are given in the official documentation — use those rather than guessing, since they change between releases.
- Open the web UI in your browser at the host and port you exposed.
- Create the first account. The first user to sign up typically becomes the administrator, so do this before exposing the instance to others.
- Confirm models appear in the model selector. If they do, the backend connection works.
Connecting a backend
- Ollama: point Open WebUI at the Ollama service. The key detail is that the address must be reachable from inside the Open WebUI container, which is not always the same as
localhoston the host. - OpenAI-compatible endpoints: supply the base URL and API key in the connection settings. Any service that speaks the OpenAI API format can usually be added this way.
Key features
- Model management: see available models and choose one per conversation.
- RAG / document upload: attach files so the model can use their content as context.
- User accounts: separate logins, useful for shared or team instances.
- Extensibility: the project describes connecting any model and extending with code.
Common setup pitfalls
- No models showing up: the backend is unreachable from the container. Check the address from the container's perspective, not the host's.
- Connection refused to Ollama: Ollama may be listening only on the host loopback. It needs to accept connections from the container's network.
- Can't reach the UI: the port isn't published, or a firewall blocks it.
- First account already taken: someone else claimed the admin account. Reset or recreate the instance before wider exposure.
- Uploads not affecting answers: the document pipeline or the selected model may not support the context you expect.
Deciding whether to use it
Choose Open WebUI if you want a self-hosted chat interface over models you already run or access, and you're comfortable with Docker and basic networking. Skip it if you only need a quick terminal chat with one local model, or if you don't want to maintain a running service. The setup cost is mostly in the backend connection, so budget time for that rather than the UI itself.
Website Overview
Page metadata, canonical configuration and social previews work together to provide more consistent search and sharing presentation.
Domain and Registration
Transfer-protection status is present, helping reduce the risk of unauthorized domain transfers. The domain has about 2 years of registration history; its current configuration provides more context than age alone. The registrar is Cloudflare, Inc., a widely used domain service provider. The domain uses the common .com extension, which is not an independent safety signal.
DNS and Email
Nameservers are provided by Cloudflare, indicating managed DNS hosting. MX records point to the Google Workspace email service. No CNAME was found; the observed records resolve directly to addresses. SPF and DMARC are configured. DKIM status is unknown. TXT records include verification markers for Google. Such markers may also remain after a service stops being used.
TLS and Certificates
The public key uses EC with 256 bits. The server supplied a complete certificate chain. No organization name is present in the certificate; the available fields are consistent with domain validation. The certificate was issued within the Google Trust Services cloud or CDN ecosystem. The certificate's total validity is about 90 days, consistent with a short renewal cycle.
HTTP and Browser Security
The checked browser-security headers were not detected, leaving fewer explicit browser-side safeguards. No X-Powered-By header was found, reducing one common source of backend fingerprinting information. The cf-ray response header indicates a CDN or caching proxy in the delivery path. No obvious internal addresses or debug information were found in the headers. The Server header identifies cloudflare without an exact version.
Technology Stack Analysis
The public page identifies SvelteKit, Google Analytics, Cloudflare without precise versions, leaving fewer clues for version-specific scanning.
Search and Social Sharing
Twitter Card metadata is configured. JSON-LD includes Organization data, helping describe the organization as an entity. The title has 35 characters, within a common display range. A meta description is present, with 107 characters. The observed directives allow indexing and link following.
Hosting and Email
Pages, Search and Sharing
| Meta description | Run AI on your own terms. Connect any model, extend with code, and protect what matters without compromise. |
|---|---|
| Canonical URL | https://openwebui.com |
| Language | English (default) |
| Twitter Card | summary_large_image |
Social Sharing Preview
11 fieldsrobots.txt (opens in a new tab)
6 rulesAll bots 1 allowed · 5 disallowed
//auth/settings/notifications/post/admin
No matching rules.
Sitemaps
2
Registration details RDAP / WHOIS
| Registrar | Cloudflare, Inc. |
|---|---|
| Registered | 2024-02-17 |
| Expires | 2027-02-17 |
| Domain status | client transfer prohibited |
| Nameservers | ignat.ns.cloudflare.com、joselyn.ns.cloudflare.com |
| DNSSEC | unsigned |
DNS records
| Type | Name | Value | TTL | Priority |
|---|---|---|---|---|
| A | openwebui.com | 104.21.39.160 | 300 | — |
| A | openwebui.com | 172.67.146.187 | 300 | — |
| AAAA | openwebui.com | 2606:4700:3031::6815:27a0 | 300 | — |
| AAAA | openwebui.com | 2606:4700:3037::ac43:92bb | 300 | — |
| MX | openwebui.com | smtp.google.com | 300 | 1 |
| NS | openwebui.com | ignat.ns.cloudflare.com | 86400 | — |
| NS | openwebui.com | joselyn.ns.cloudflare.com | 86400 | — |
| TXT | openwebui.com | google-site-verification=U1wj5j28Ys3k6Frx32w7m6cOOy_kdx5GYOKlqtyB96Q | 300 | — |
| TXT | openwebui.com | google-site-verification=XvQIMCXmOBvLsvfYnuaCemFawu5SQtfDRFk7jJg54RU | 300 | — |
| TXT | openwebui.com | v=spf1 include:_spf.google.com -all | 300 | — |
| DMARC | _dmarc.openwebui.com | v=DMARC1; p=none; rua=mailto:[email protected] | 300 | — |
TLS and certificates
| Assessment | Normal configuration |
|---|---|
| Supported protocols | TLSv1.2、TLSv1.3 |
| Negotiated protocol | TLSv1.3 |
| Certificate subject | openwebui.com |
| Issuer | Google Trust Services |
| Valid until | 2026-12-09T08:35 · Remaining when checked: 79 days |
| Verification details | Certificate trust: Passed · Hostname match: Passed |
HTTP response headers
| Header | Value |
|---|---|
| content-type | text/html |
| cache-control | public, max-age=60, s-maxage=300, stale-while-revalidate=86400 |
| server | cloudflare |
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