What “total online anonymity” usually means

The phrase “total online anonymity” is often used to suggest that you cannot be identified at all. In practice, anonymity is not absolute: identification can happen through many layers besides your public IP address. A VPN may reduce one common signal (your IP as seen by websites), but it does not automatically remove other signals such as logged-in account information, browser/device identifiers, network context, or mistakes in configuration.

So, if someone describes a VPN as achieving “total online anonymity,” treat that as marketing language rather than a guarantee. A more accurate goal is: limit what websites can learn about you directly, especially via IP-based tracking, while staying aware that other identification routes can still exist.

How a VPN typically works (and where anonymity stops)

A standard VPN (virtual private network) creates an encrypted tunnel between your device and a VPN server. While enabled, much of your web traffic appears to originate from the VPN server’s IP address rather than your own.

That changes what can be inferred from the network layer:

  • Websites and online services you visit may see the VPN server IP instead of your local/public IP.
  • Your ISP may still know that you’re connecting to a VPN endpoint, but the VPN aims to reduce visibility into the destinations and content.

However, the idea of “total anonymity” runs into limits:

  • Account correlation: If you log into services (email, social networks, shopping sites), those providers can still connect your activity to your identity.
  • Browser/device signals: Tracking can use cookies, login state, and “fingerprinting” signals that are not fixed to your IP.
  • DNS and routing details: If DNS requests or other traffic are not handled properly, leaks can occur that reveal browsing context.
  • Non-web traffic: Not all applications behave the same; some may bypass the VPN depending on OS settings or client configuration.
  • Human behavior: Repeating distinctive actions (search terms, visit patterns, posting content) can also make you identifiable.

Because of these factors, the most reliable expectation is “reduced exposure of your IP to websites,” not “no identification possible.”

Differences you should verify for any VPN claim

Since “Five eno VPN” is presented in the question as a specific product name, you should be cautious about interpreting its marketing claims. When evaluating a VPN’s privacy promise, focus on verifiable behaviors rather than labels like “anonymity” or “incognito.”

Key differences you can check (without needing provider-specific promises):

  1. IP visibility: When the VPN is on, your external IP as detected by common IP-check sites should change to the VPN server’s address.
  2. DNS behavior: Many setups either route DNS through the VPN or use a provider-controlled resolver. If DNS queries go out through your normal network path, services may infer activity via DNS.
  3. Leak-prone browser features: Some environments expose network details through technologies like WebRTC. If WebRTC-style public IP exposure occurs in your browser, it can undermine the IP-hidden goal.
  4. Kill-switch / protection: If the VPN disconnects and traffic continues unprotected, your destinations could become visible again. Look for protection mechanisms in the client settings.
  5. Application coverage: Confirm whether your main browsers and apps run through the VPN, not just the browser.

If a claim implies that privacy is “total,” ask what exactly is protected (IP address, DNS, traffic destinations, accounts) and what remains outside the threat model.

Practical checks you can run today

Use these checks to confirm what the VPN is actually doing in your own setup. They are practical because they test observable outcomes.

  1. Check your visible IP (with VPN on vs off). Turn the VPN off, check your IP, then turn it on and repeat. If the IP does not change at all, your traffic may not be going through the VPN.

  2. Check for WebRTC-style IP exposure in the browser. If your browser reports local/public IP information even while the VPN is enabled, treat it as a potential leakage signal and review browser/network settings.

  3. Test DNS path behavior. Look for tools or browser diagnostics that indicate whether DNS requests are being handled by the VPN path. If DNS requests appear to bypass the VPN, anonymity expectations should be reduced.

  4. Confirm traffic isn’t continuing after disconnect. Briefly toggle the VPN connection and watch whether your network requests continue to flow unprotected. If they do, your “privacy during outages” is weaker than expected.

  5. Reduce account-based correlation in your own use. Even with a VPN, logging into accounts can defeat anonymity goals. For stronger privacy, limit logins and avoid mixing identities across sessions.

Read the privacy result correctly

If these checks show that your IP and DNS look consistent with VPN routing, you can reasonably say your setup reduces IP-based exposure. If you cannot verify DNS handling or you see IP exposure via browser/network features, the “total online anonymity” interpretation should be considered unrealistic.

“Anonymity” and “privacy” are often used loosely. In a threat-model view:

  • Privacy is about reducing what others can learn.
  • Anonymity is about making it hard to connect actions to you.

A VPN primarily helps with a network-layer piece of privacy (IP-address visibility). It is usually not a complete solution for account correlation, device fingerprinting, or identity linkage through behavior.

If you want “anonymous browsing” outcomes, combine technical controls (VPN routing, DNS handling, leak prevention) with behavioral controls (account hygiene, consistent browsing patterns, limiting identifying interactions).