Does the example generator ever produce public IP addresses?

No. It is limited to RFC documentation ranges (TEST-NET and 2001:db8::/32) and RFC 1918 private IPv4 blocks, so no public Internet target appears in the output.

How many example addresses can I generate at once?

You can request between 1 and 100 addresses per click. The generator deduplicates the batch internally, so the final list will not contain repeats even if you ask for the full 100.

Will two clicks give me the same example list?

Not usually. The tool uses the browser's Web Crypto API for randomness, so consecutive batches draw different blocks and host values. If you need a reproducible example, copy the result instead of regenerating it.

Are private example addresses guaranteed to be unused on my network?

No. Private addresses are only locally meaningful and can already be in use on your LAN, VPN, or lab. Review the generated list against your existing subnet, DHCP pool, and deployed hosts before assigning any value.

Does the example list leave my browser?

No. Generation happens locally in the browser and the tool does not contact, reserve, or ping any address. Nothing from the list is uploaded anywhere.

Random IP Generator Example: Output From Each Mode

A random IP generator example is a sample IP address drawn from a reserved RFC range — 192.0.2.0/24, 198.51.100.0/24, or 203.0.113.0/24 for IPv4 documentation, 10.0.0.0/8, 172.16.0.0/12, or 192.168.0.0/16 for private IPv4, or 2001:db8::/32 for IPv6 documentation — so writers and developers can drop a believable address into a tutorial, fixture, or screenshot without naming a real public host. The whole point of the example is safety: a TEST-NET address like 203.0.113.42 cannot be routed on the public Internet, so no real device receives the traffic, and a private address like 10.0.0.5 only resolves inside your own LAN, VPN, or lab. A generator that follows these reserved ranges is fundamentally different from a script that picks four random numbers between 0 and 255 and joins them with dots, which can easily produce a live address belonging to a stranger, a CDN edge node, or a government registry. The Random IP Address Generator picks blocks and host values through the browser's Web Crypto API, enforces uniqueness inside the result, and skips network and broadcast octets so every value it returns is a usable example rather than a malformed entry. Below is what the output actually looks like in each of the three modes and how to capture it cleanly for your own document or test plan.

What a "Random IP Generator Example" Looks Like in Practice

When someone searches for a random IP generator example, they usually want to see the kind of address the tool will produce before they click. The output is always a dotted-quad IPv4 like 192.0.2.84 or an IPv6 string like 2001:db8:1f4a:3c2e:9a01:abcd:4321:ff00, and it always falls inside one of a small number of address blocks that were set aside by the IETF for documentation, testing, and private networking. Three families appear in the result list:

TEST-NET IPv4 documentation ranges, which are safe to use in any public-facing example because they are not routed on the Internet.
RFC 1918 private IPv4 ranges, which are safe inside a LAN but can collide with a host you already run.
The IPv6 documentation prefix 2001:db8::/32, which is the IPv6 analogue of the TEST-NET blocks.

Because the generator only samples inside these blocks, every line you copy out of it can go straight into a Markdown tutorial, a JSON fixture, a database seed file, or a screenshot caption without surprising anyone on the Internet. The format stays stable over time, so an example you write today will still look like an example five years from now when a reader revisits the document.

The Three Example Modes Side by Side

Each mode is built around a different reserved range, and the right one depends on whether the address needs to be unambiguously safe in public or whether it needs to look like something a real router could see inside a private network.

Mode	Range	Source RFC	Best for
IPv4 documentation	192.0.2.0/24, 198.51.100.0/24, 203.0.113.0/24	RFC 5737	Tutorials, public docs, screenshots
Private IPv4	10.0.0.0/8, 172.16.0.0/12, 192.168.0.0/16	RFC 1918	LAN, VPN, and lab fixtures
IPv6 documentation	2001:db8::/32	RFC 3849	IPv6 examples, dual-stack demos

If a reader will copy the address from a public article and try to use it, the IPv4 documentation mode is the safest default. If the address is going into a configuration that runs against a private network, the private IPv4 mode produces values that match the local routing tables that real software expects. If the document needs to demonstrate dual-stack behaviour, the IPv6 mode returns values from the single prefix reserved for examples.

How to Generate an Example List

Choose IPv4 documentation, Private IPv4, or IPv6 documentation from the mode selector on the Random IP Address Generator page.
Enter the number of addresses you want in the count field, between 1 and 100.
Select Generate addresses. The tool picks blocks and host values through browser Web Crypto, skips the network and broadcast octets, and removes duplicates inside the result with a bounded retry loop.
Copy the resulting list to your clipboard and paste it into the document, fixture, or lab plan that needs it.
If you generated private IPv4 addresses, review the list against your existing subnet, VPN, DHCP pool, and any hosts already deployed so you do not assign a value that is already live on your network.

Every step runs locally. The tool does not contact any address, does not claim ownership of any value, and does not transmit the list off your machine — it simply assembles a deduplicated batch inside the browser tab and hands it back to you.

Why Each Example Mode Is Useful

The three modes look similar at a glance, but the workflow they support is different. The table below maps common tasks to the mode that produces the cleanest result, and it gives a one-line reason you can paste into a style guide if your team needs a default.

Task	Best mode	Why
Writing a public blog post or README	IPv4 documentation	Nobody can scan or route the address from the article.
Seeding a local database for tests	Private IPv4	Mirrors what a real LAN fixture would contain.
Building dual-stack documentation	IPv6 documentation	Keeps IPv4 and IPv6 examples in the same reserved family.
Mocking log lines for a SIEM demo	IPv4 documentation	Stays recognisable as an example even months later.
Configuring a VPN or home lab	Private IPv4	Matches the address space your router already understands.
Showing a code snippet in a slide deck	IPv4 documentation	Stays readable at small font sizes without the CIDR noise.

A useful habit is to label the mode you used at the top of the document, so a reader who copies the address knows it is documentation-only and does not try to route it on a production device.

Rules Behind the Example Addresses

Random IP generators that aim for safety follow a few concrete rules. The Random IP Address Generator implements each one, and it helps to know what is happening under the hood so you can defend the choice of example values if a reviewer asks.

Block selection is restricted. Only the three TEST-NET blocks from RFC 5737, the three private blocks from RFC 1918, or the 2001:db8::/32 prefix from RFC 3849 are eligible. The formal definitions live in the IETF's RFC 3849 documentation and the IANA IPv4 Special-Purpose Registry.
Network and broadcast octets are skipped. In a /24 block there are 256 addresses total; excluding the .0 network address and the .255 broadcast address leaves 256 − 2 = 254 usable example values per block. The generator enforces that boundary so a value like 192.0.2.0 or 192.0.2.255 never appears in the result.
Uniqueness is enforced inside the batch. If the rejection-sampled random index lands on a value that is already in the current list, the loop retries. With a maximum batch of 100, the search space stays small enough that the retry finishes quickly even when you ask for the full batch.
No public IPv4 targets are generated. The tool intentionally does not pick arbitrary public addresses, because a random public IPv4 frequently belongs to someone else's live service.
Nothing leaves the browser. Generation uses the Web Crypto API on the client, and the list is never uploaded, reserved, pinged, or otherwise probed.

When an Example IP Won't Be Enough

Example addresses are perfect for documentation, fixtures, and offline development, but they are not a substitute for a real address plan. A few situations need more than a randomly sampled value:

Operational deployment. Before you assign any address on a live network, run it through a subnet calculator and your environment's IP address management process to confirm it falls inside an unused subnet.
Routing policy. Documentation ranges are not routable on the public Internet, so any plan that relies on real reachability has to use addresses assigned by your provider.
Compliance evidence. Audit logs and regulator-facing reports usually need addresses that can be traced to a real allocation, not a TEST-NET placeholder.
Stress tests against the public Internet. Sending traffic at example addresses is harmless, but it also proves nothing about a real target. Use a dedicated testing range for that.

For a deeper reference on what the generator accepts and rejects at a glance, the Random IP Generator cheat sheet organises the same RFC ranges and host-octet rules as a quick reference card. Both pages describe the same reserved blocks, so you can hand the cheat sheet to a colleague who only needs the ranges and keep this example walkthrough for whoever needs to see the actual output.