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United States · United States · Most people turn on a VPN because they do not want their internet provider following every site, app and service they use. That is exactly what a VPN is meant to change.
Still, there is one detail worth being clear about: in most cases, your provider can tell that you are connected to a VPN. It cannot normally read the traffic inside that connection or get a neat list of the videos you watched, pages you opened and messages you sent. But it can see an encrypted connection between your device and a VPN server. Knowing this makes it easier to understand what a VPN protects well, and where its limits are.
Your provider assigns an IP address to your home or mobile connection. It sees when your device goes online, how long it remains connected and how much data it sends and receives. When you use a VPN, it can also see the address of the VPN server your device connects to.
If you watch a high-quality stream for several hours, the provider may see a large amount of encrypted traffic. If you download a file, it may see data moving in the same direction. It cannot normally see the file itself or the stream you chose, but the size and timing of the connection are not hidden.
Some VPN protocols also have patterns that network filters can recognize. This is mainly relevant on networks that actively restrict VPN use, such as certain workplaces, schools or countries. Recognition does not give the provider access to encrypted traffic. It only tells it that the connection may be a VPN.
Without a VPN, your device makes direct connections to websites, streaming platforms, messengers, games and other online services. HTTPS protects the contents of most of these connections, but the provider may still be able to see which services your device connects to.
A VPN changes the route. Your device first creates an encrypted tunnel to the VPN server, then the traffic leaves from that server. Your provider sees the tunnel rather than individual direct connections to every website and app.
The contents of that traffic are protected inside the tunnel. The provider should not be able to read the article you open, the video you watch, the message you send or the file you download. When DNS is also routed through the VPN, it should not receive separate DNS requests that reveal the domains you are trying to visit.
The provider still knows your home IP address, because it assigned it. A VPN hides that address from the sites and services you connect to, not from the provider itself.
When you visit a website without a VPN, the site receives your normal public IP address. It can use that address to estimate your region, identify your provider or apply local access rules. The address may also become one of many signals used for advertising, account security or fraud detection.
With a VPN, the website sees the VPN server's IP address instead. Your home IP is not passed along to the site.
This is particularly relevant for P2P and torrenting. Torrent clients connect to other participants in a swarm, and those participants can usually see the IP address used by your client. If you are not using a VPN, that can be your home IP address.
Browser private mode, HTTPS and encrypted DNS do not change this, because they do not route the P2P connection through another server. A VPN does. Other peers see the VPN server's address rather than the address assigned to your home connection. That does not make illegal sharing acceptable or remove responsibility for what you download. It simply keeps your normal IP address out of the torrent swarm.
Some networks do not stop at seeing encrypted traffic. They try to identify VPN connections and interfere with them. They may block known server IP addresses or look for familiar patterns in the first seconds of a connection.
Trust.Zone V2 includes modern protocols: VLESS, Shadowsocks, Trojan and Handshake Fragmentation for networks where a standard VPN protocol may be easier to recognise or block. These features use different approaches, but they share one purpose: to reduce the signs that traffic is coming from a conventional VPN connection.
Handshake Fragmentation changes the way connection data is sent at the start of a session. This can make simple filtering rules less effective. VLESS, Shadowsocks and Trojan can make encrypted traffic look closer to ordinary secure web traffic, rather than a familiar VPN pattern that a filter can quickly flag. When basic VPN connections are blocked or unstable, these options can make the connection harder to classify and more likely to keep working.
A VPN protects the route between your device and the VPN server. It does not remove the information you give directly to a service. If you sign in to an account, that platform still knows it is your account. Cookies, browser fingerprinting, app permissions and advertising IDs can also identify you separately from your IP address.
Split Tunneling needs the same kind of common sense. It lets you decide which apps or websites use the VPN and which use your normal connection. For example, you may want a local banking app or a work website to use your usual location.
Trust.Zone V2 lets you create Smart Split Tunneling rules for apps and individual websites. That makes the feature more useful, but every rule has a consequence: anything sent outside the VPN tunnel uses your regular connection and your usual IP address.
A VPN only protects traffic while it is connected. If the connection drops, a device may try to continue through the normal internet connection. This can expose your regular IP address, especially during a long download or P2P session.
Trust.Zone V2's Kill Switch blocks internet access if the VPN disconnects unexpectedly, then allows traffic again when the protected connection returns. Preferred DNS offers another layer of control by keeping DNS requests inside the VPN setup instead of sending them separately through the provider.
