Dedicated Datacenter Proxies with Unlimited Bandwidth, on IP Blocks We Own

One hop: the simplest request path we sell

There is no gateway in front of a dedicated proxy. Your client connects straight to your assigned IP on port 4443 (or 1443 for SOCKS5), the proxy service on that machine authenticates you, and your request egresses from the very address you connected to. That last property matters more than it sounds. Where a proxy answers on a load balancer and egresses from a different address, any workflow in which a partner has whitelisted 'your' IP quietly breaks; here the two are the same address, and it is verified end to end on both HTTP and SOCKS5. One hop also means fewer components between you and the target: nothing rotates, nothing reassigns, and behavior is identical on the first request and every request after it.

Dedicated means dedicated

Each IP is assigned to one customer. Traffic leaves from the exact address you connected to (verified end to end, on both HTTP and SOCKS5), and the ownership check runs on every connection, so another customer's credential cannot egress from your address.

Subnet diversity that is actually diverse

A thousand addresses packed into one or two /24s are treated by anti-bot systems as a single entity, so the thousandth proxy is worth very little more than the first. Because we allocate from our own blocks, orders are spread across subnets by default, and larger orders can specify the spread they need. Check it the same way a target does: sort your allocation by prefix and count the distinct /24s.

Unlimited bandwidth on a dedicated IP, per-proxy pricing

Datacenter proxies are billed per proxy per month with no bandwidth metering: you pay per IP rather than per gigabyte. That makes them the right tool for sustained, high-volume work where a per-gigabyte product would get expensive fast: bulk crawling, monitoring, automation and internal tooling. Concurrency is not metered either, and dedicated datacenter proxies carry unlimited threads behind the per-source-IP safety brake that applies across the platform.

Where the crossover actually falls depends on how much data your workload moves, and it is worth working out before you pick a product: compare unmetered dedicated against per-GB rotation.

Where dedicated datacenter loses

The weakness of every datacenter proxy, ours included, is that the address is publicly registered to a hosting range, and sophisticated targets classify on exactly that. Retail sites with serious bot protection, social platforms, sneaker and ticketing targets: these commonly refuse or challenge hosting ranges wholesale, and owning the block does not change what the block is. If your target behaves that way, the fix is a different product, not more datacenter IPs; that is what the residential pool is for. Geography is the other honest limit: our owned blocks sit in the United States, Italy and Spain, so a workload that needs exits in other markets needs residential coverage instead. Within its lane (APIs, most ordinary websites, infrastructure you control), nothing else in the catalog moves sustained volume as cheaply.

When an IP is burned

Blocks are almost always per-target: an address a marketplace has soured on still works everywhere else, so the first response to a block is scope, not panic. With an allocation of dedicated IPs the practical moves are, in order: spread the affected workload across the rest of your allocation, since subnet-diverse addresses do not fall together; slow down against that target, because most datacenter blocks are earned by request rate rather than by IP type alone; and if a specific address is genuinely dead for the traffic you bought it for, swap it (paid plans can refresh an IP for a fresh one from the pool, subject to a monthly allowance). What a dedicated product does give you is a clean slate going forward: from the day an address is assigned, its reputation is a record of your behavior only.

Whitelist or credentials: choosing an authentication mode

Both modes are available on every static proxy, and they suit different shapes of infrastructure. IP whitelisting means registering your server's egress address once and connecting with no credentials at all: the cleanest option for long-lived servers with static addresses, and the only mode that keeps secrets out of process lists and connection strings entirely. Username and password travel with the request instead, which is what you want when the source moves: laptops, CI runners, containers on rotating egress, or third-party tools that only accept a proxy URL. The two are alternatives, not layers; pick per environment, and note that a whitelisted address authorizes anyone who can originate traffic from it, so treat NAT'd office networks with appropriate suspicion.

Protocols and authentication

HTTP(S) and SOCKS5 on the same credential, with username/password or IP whitelist authentication. Whitelisting is useful for servers with static addresses; username auth is easier when your source IP moves.

How to test before you scale

The right evaluation for a static product is against your actual target, from the actual subnets you would use. Start with the smallest tier, confirm the mechanical basics with an IP echo (the address you connect to should be the address the target sees, on both the HTTP and SOCKS5 ports), then run a realistic slice of your workload for long enough to see the target's steady-state behavior, not just its first impression. Watch for the failure mode that matters on datacenter products: challenges or blocks that correlate with the range rather than with your behavior. If the smallest tier passes, scaling is linear (more addresses from the same blocks behaving the same way), and larger orders can specify the subnet spread they need.