Your IP is not your name
A public IP address reveals your approximate location and internet provider — not your name, street, or browsing history. Only your provider can map the address back to a subscriber.
Guides
To hide your IP address, route your traffic through another server so websites see its address instead of yours. A VPN does this for everything on the device, a proxy for one app, and Tor for maximum obfuscation at the cost of speed. Hiding your IP changes what sites see, not who you are.
A public IP address reveals your approximate location and internet provider — not your name, street, or browsing history. Only your provider can map the address back to a subscriber.
A VPN, a proxy, Tor, and a mobile connection behind CGNAT all put a different address in front of you. They differ in scope, speed, and how much you have to trust the operator in the middle.
Cookies, account logins, and browser fingerprinting identify you regardless of your address. Changing your IP removes one signal out of many. Treat it as a privacy layer, not an invisibility switch.
Less than most people fear, and more than nothing. A public IP address maps to a country reliably, to a city with an error that can span tens of kilometers, and to the network operator that owns the address block. Geolocation databases are built from routing data and self-reported information, so the city they show is often the location of your provider's equipment, not your home.
What an IP does not reveal: your name, your street address, or what you did on other websites. That mapping exists only in your provider's records, and reaching it normally requires a legal request to that provider. A website operator sees an address, an approximate region, and an operator name.
The practical concern is aggregation. Your address stays fairly stable for days or weeks, so third parties can correlate visits across sites into one profile. That correlation, not the address itself, is what hiding your IP breaks.
A VPN encrypts all traffic from your device and sends it to a VPN server, which forwards it onward. Every website then sees the server's address instead of yours, and your internet provider sees only an encrypted stream to one endpoint. It covers the whole device: browsers, apps, background services.
The costs are real but modest. Speed drops because traffic takes an extra hop and gets encrypted; with a modern protocol such as WireGuard the overhead is usually small, and latency grows roughly by the distance to the server. You also shift trust: the VPN operator now sits where your provider used to sit, which is why its logging policy matters more than its marketing.
One honest limitation: VPN server addresses are publicly known as data-center ranges. Some streaming services and shops block or restrict them, so a VPN can occasionally make a site treat you with more suspicion, not less.
A proxy replaces your address for a single application, typically a browser, and usually without encrypting anything. It is quick to set up, but the rest of the device keeps its real address, and an HTTP proxy operator can read unencrypted traffic passing through it. Free public proxies add unknown operators and frequent traffic injection on top.
Tor routes your traffic through three volunteer-run relays, each knowing only its neighbors, so no single point sees both you and your destination. That gives the strongest address obfuscation available to ordinary users. The price is speed: multiple hops across continents put page loads in the seconds, and many sites block or challenge Tor exit addresses outright.
The rule of thumb: proxy for one quick task in one app, VPN for everyday full-device use, Tor when obfuscation matters more than usability.
Partly, and by accident. Mobile operators run CGNAT, carrier-grade NAT, which puts hundreds or thousands of subscribers behind one shared public address. A website that logs the address you connect from cannot tell you apart from everyone else sharing it, and the address changes as you move between cells or reconnect.
This is weaker than it sounds. Your operator still knows exactly which subscriber generated which connection, because CGNAT keeps translation logs for that purpose. Nothing extra is encrypted, and the address still resolves to your operator and country. CGNAT is crowd cover against casual website-side logging, not privacy from your carrier.
Because websites stopped relying on IP addresses for identity years ago. The moment you sign in to an account, the service knows who you are on any address, and cookies survive an address change completely. Switch on a VPN while logged in and, from those services' point of view, only your apparent location changed.
Browser fingerprinting goes further: screen resolution, fonts, time zone, graphics stack, and dozens of other properties combine into a signature that is often unique enough to recognize a returning visitor with no cookies at all. A fingerprint follows you across every IP address you will ever use.
So hiding your IP solves specific problems: it decouples browsing from your home address block, stops geolocation, and blinds your provider to destinations. Anonymity would additionally require a clean browser profile, no logins, and discipline. Most people just need to know which problem each tool solves.
Verify, do not assume. After enabling a VPN or proxy, the address the world sees should belong to the server, not your provider. Our free lookup at /what-is-my-ip/ shows your current public address, its geolocation, and the owning network in seconds.
Leaks are the second half of the check. WebRTC, the browser mechanism behind voice and video calls, can disclose addresses through channels that bypass proxies and misconfigured VPN setups; run the test at /webrtc-leak-test/ with protection enabled. DNS is the other classic leak: if lookups still reach your provider's resolvers, it sees every domain you visit despite the tunnel.
"No logs" almost never means a service records nothing. It usually means no activity logs: no record of the sites you visit or the data you transfer. Connection metadata, diagnostics, and payment records are separate categories, and every provider defines them differently. The privacy policy, not the slogan, tells you which ones are kept.
A VPN protocol defines how your device and the server build an encrypted tunnel. WireGuard is the fastest and simplest, OpenVPN the most mature and flexible, IKEv2/IPsec the best at surviving network switches on mobile, and Xray/VLESS over TLS makes tunnel traffic look like ordinary HTTPS. Each trades something for its strength.
A kill switch blocks all internet traffic the moment a VPN tunnel drops, so apps cannot silently fall back to your regular connection. Without it, even a two-second disconnect exposes your real IP address. Even while the tunnel is up, DNS requests, WebRTC in the browser, and IPv6 traffic can leak around it. Each leak has a simple test and a fix.