Scope: system vs application
A VPN captures everything the device sends — browsers, messengers, background apps. A proxy handles only the program configured to use it; everything else goes out directly.
Guides
A VPN encrypts all traffic from your device and routes it through a remote server at the operating-system level. A proxy relays traffic for one application — usually a browser — and most proxies add no encryption of their own. Both change your visible IP address; only a VPN protects the connection itself.
A VPN captures everything the device sends — browsers, messengers, background apps. A proxy handles only the program configured to use it; everything else goes out directly.
A VPN wraps traffic in its own encryption between you and the server. HTTP and SOCKS5 proxies relay bytes as they are — anyone on the path sees what the application itself did not encrypt.
VPNs are for privacy and untrusted networks. Proxies remain the tool of choice for scraping, multi-account work, and per-app routing, where cheap disposable IPs matter more than encryption.
A VPN operates at the network layer. Its client creates a virtual network interface, and the operating system routes all traffic — every app, every port, DNS lookups included — through the encrypted tunnel. You switch it on once and nothing on the device bypasses it.
A proxy operates at the application layer. You configure a specific program — a browser, a download manager, a bot — to send its requests through the proxy server, and only that program's traffic is affected. Your mail client, system updates, and every other app keep using your real connection. That per-app scope is a limitation for privacy and a feature for tooling: it lets one machine speak to the internet from several addresses at once.
This is the sharpest difference. A VPN encrypts everything between your device and the server with its own protocol layer — WireGuard or an Xray-class transport — so your internet provider and any network in between see only ciphertext to a single address.
A plain HTTP or SOCKS5 proxy encrypts nothing by itself. If the site you visit uses HTTPS, that TLS encryption still applies end to end — but the proxy connection reveals your destinations to the local network, and anything unencrypted travels readable. A proxy hides your IP from the website; it does not hide your activity from the network you are sitting on. With a VPN, both are covered at once.
An HTTP proxy understands web traffic specifically. It can be smart about it — cache responses, filter URLs, add headers — which is exactly why offices use them and why they can also see and modify what passes through in plain HTTP.
SOCKS5 is lower-level and protocol-agnostic: it forwards arbitrary TCP (and UDP) connections without inspecting them. That makes it the standard choice for anything that is not a browser — messengers, torrent clients, custom software. SOCKS5 supports username-and-password authentication but, like HTTP proxies, adds no encryption; it is a relay, not a tunnel.
Proxies solve problems a VPN handles poorly. When a task needs many IP addresses — price monitoring, ad verification, managing several accounts on one platform — you can rotate through thousands of proxy IPs cheaply, while a VPN gives you one exit address shared with other users.
They are also the right tool for selective routing: sending one application through another country while everything else stays local, or giving each browser profile its own address. Residential and mobile proxy IPs look like ordinary home users to websites, which keeps them working where data-center ranges are blocked. None of this needs encryption — the traffic is HTTPS anyway — so the proxy's simplicity is not a real loss there.
For one person protecting one connection, a VPN is usually cheaper: a few dollars a month covers unlimited traffic on several devices. Proxies are priced per IP or per gigabyte; a single shared proxy costs little, but residential traffic is billed by volume and gets expensive fast. The comparison flips for fleets — buying hundreds of VPN accounts makes no sense, and hundreds of proxy IPs is routine.
On security, the asymmetry is structural. A VPN provider sees your traffic metadata, so its logging policy matters — but the tunnel at least protects you from the network. A proxy operator sits in the same trusted position with no tunnel around you, and free public proxies are the worst of both: unknown operators who can read, log, or modify any non-HTTPS traffic passing through.
A proxy is enough when the only thing you need is a different IP address for a specific application, and the traffic inside is already HTTPS: checking search results from another city, testing a geo-targeted page, running a scraper. Paying for a VPN's encryption adds nothing to those jobs.
A proxy is not enough the moment the network itself is untrusted or your privacy is the point: public Wi-Fi, a provider that logs browsing, or any situation where you want every app covered without configuring each one. That is VPN territory — one tunnel, everything inside it. Aurora's approach reflects this split: it is built as a system-wide tunnel with no activity logs, not as an IP-rotation tool.
A VPN routes all your traffic through one encrypted server you chose and trust — fast enough for everyday use. Tor bounces traffic through three volunteer relays with layered encryption, so no single relay knows both who you are and where you are going. Tor trades most of your speed for that property.
A VPN service pays real money for servers, bandwidth and staff. When the app is free and has no visible income, that money usually comes from you in another form: your browsing data, injected ads, or your device being resold as an exit point for other people's traffic.
In most countries, yes: using a VPN is legal and completely ordinary. Businesses run on VPN connections every day. A minority of countries restrict or license VPN services, and those rules change, so check current local regulation where you live or travel. And a legal tool never legalizes illegal actions done through it.