Pricing
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Buying guide
Before You Order: Five Checks on a Budget Dedicated Server
Low monthly pricing on bare metal normally comes from standardised builds and unmanaged delivery, not from cut corners. The gap between a good budget server and a bad one is still real, though, and almost all of it is visible before you order. These are the five things worth confirming, and where on this page to confirm them.
1. The whole cost, not the headline rate
Check the renewal figure as well as the first-term figure, ask whether any setup or activation charge applies, and read the transfer allowance printed on the badge of each card above. Overage on bandwidth is the most common surprise on a cheap plan. If the configuration you want is not listed, settle it before ordering rather than after.
2. The actual CPU generation and disk type
Every card above spells out the processor model, logical core count, memory and disk. Read those lines literally. A high core count on an older server-class processor behaves very differently from fewer, faster cores, and an HDD-backed plan will not match an NVMe plan on database or other I/O-heavy work however much memory it carries. Pick by the line that matches your bottleneck, not by the largest number on the card.
3. Network quality, not just port speed
Port speed is a ceiling, not a statement about routing. Test the path from where your users actually are before you commit: our Looking Glass runs latency and throughput tests against each location, which tells you far more than any published figure.
4. Who is going to administer it
An unmanaged server is yours from the operating system upwards, which means patching, firewall rules, monitoring and backups sit with you. If nobody on your side wants that work, order a managed configuration rather than discovering the gap at handover.
5. Security options and the upgrade path
Confirm which firewall and DDoS-mitigation options apply to the build you are buying, and ask what moving up looks like when you outgrow it. Being able to move to a larger configuration in the same facility saves a full migration later. Also read the setup window in What every plan includes above and plan your cutover around it instead of assuming same-hour delivery. If none of the listed builds fit, ask us about a custom configuration.
Choosing
Dedicated Server or Cloud VPS: Matching the Machine to the Workload
Bare metal is not automatically the right answer. The honest split is about how predictable your workload is and how much administration you want to own.
| What you are comparing | Dedicated server | Cloud VPS |
|---|---|---|
| Hardware access | A whole physical machine, single tenant | A virtualised slice of a shared machine |
| Resource isolation | Complete | Partial, with a hypervisor in the path |
| Behaviour under sustained load | Flat and predictable | Can vary with neighbours and host contention |
| Scaling | A hardware change or a move to a bigger build | Resize in place |
| OS and kernel control | Full, including custom kernels and virtualisation on top | Limited by the hypervisor |
| Administration load | Yours unless you buy managed | Lower, and easier to rebuild |
| Entry cost | Higher | Lower |
| Best fit | Busy sites, large databases, game and media servers, per-core licensed software | Small to medium workloads and anything still changing shape |
When a dedicated server is the wrong choice
Small sites, early projects with unpredictable traffic and teams without a system administrator are usually better served by a virtual machine. Capacity here is physical, so scaling means changing hardware rather than moving a slider. If you expect to resize every few weeks, start on a cloud VPS and move across once your resource ceiling stops moving.
The signals that you have outgrown a VPS
Sustained CPU steal time, disk latency that spikes when the host is busy, memory pressure that tuning cannot fix, or software licensed per physical core. Those are hardware-isolation problems, and they are what the plans above are for.
Why Choose Us
Why Choose DigiRDP Dedicated Servers?
Bare metal performance with full hardware customization for demanding workloads.
Bare Metal Performance
No virtualization overhead. Get the full power of dedicated hardware — Intel Xeon and AMD EPYC processors delivering maximum compute performance.
Full Customization
Configure your server hardware to exact specifications. Choose your processor, RAM, storage type, and network capacity to match your workload.
Enterprise Hardware
Powered by server-grade components from top-tier manufacturers, housed in Tier 3 and Tier 4 data centers for maximum reliability.
Dedicated Bandwidth
Unshared 1 Gbps network connectivity with options for 10 Gbps dedicated uplinks. No bandwidth throttling, no noisy neighbors.
IPMI / KVM Access
Remote hardware management via IPMI or KVM-over-IP. Reboot, reinstall OS, and manage your server from anywhere in the world.
99.9% uptime target
Our dedicated servers run on our highest-availability infrastructure. Your critical applications stay online.
Use Cases
Who Uses Dedicated Servers?
Dedicated servers deliver maximum power for businesses and applications that demand the highest performance.
High-Traffic Websites
Handle millions of monthly visitors with bare metal performance. No resource sharing means consistent speed under heavy load.
Enterprise Applications
Run ERP systems, CRM platforms, and business-critical applications on dedicated hardware with guaranteed resource availability.
Big Data & Analytics
Process large datasets, run analytics pipelines, and manage data warehouses with high-capacity storage and powerful CPUs.
Video Streaming
Power IPTV platforms, live streaming services, and video-on-demand with high bandwidth and dedicated network connectivity.
Game Server Hosting
Host large-scale multiplayer game servers with bare metal performance, low latency, and zero virtualization overhead.
Machine Learning & AI
Train ML models and run AI workloads on powerful CPU and GPU hardware with high-memory configurations and fast storage.
Specifications
How to Read the Spec Line Before You Order
The specification lines on the cards above are the most useful thing on this page. Here is how to turn them into a decision.
Cores against clock speed
Logical core count and clock speed solve different problems. Many concurrent requests, container workloads, virtualisation and parallel builds benefit from more cores. Single-threaded work such as a trading terminal, a scripted automation loop or a game server tick usually benefits more from a higher clock on fewer cores. Buy for the shape of your load, not for the bigger number.
Memory
Memory capacity matters first, generation second. The cards above state both, and an older generation at a larger capacity is often the better trade for caching, file serving and general web hosting. ECC memory, where a build lists it, corrects single-bit errors instead of letting them corrupt long-running processes, which is worth having under databases and anything that stays up for months.
Disk, the line that decides most workloads
| Disk type | Typical sustained throughput | Where it fits |
|---|---|---|
| HDD | roughly 100–200 MB/s | bulk capacity, backups, archives, media and file serving |
| SATA SSD | roughly 400–550 MB/s | general web and application hosting |
| NVMe SSD | roughly 1,500–3,500 MB/s | databases, busy stores, container and build pipelines |
Random I/O, not sequential throughput, is what a busy database actually feels, and the ordering above holds there too. If your application spends its time waiting on disk, the disk line is the only line that matters.
Operating system
A Linux build carries no operating-system licence, which is why it is the cheaper route to the same hardware. A Windows Server build adds that licence to the monthly figure and generally wants more memory for the same application headroom, so choose it when your software genuinely requires it rather than out of habit. Either way you get full root or administrator access.
Uplink and IP allocation
Each card states the port speed and transfer allowance, and most state the IP allocation. A 1 Gbps port is ample for web hosting, trading terminals, automation and admin workloads; a 10 Gbps uplink earns its cost for streaming, media processing and large-scale data movement. Confirm the usable IP count if your setup needs more than one.
Operations
Managed or Unmanaged, and What DDoS Protection Covers
Two decisions on this page have more effect on your running costs than the hardware itself: who administers the machine, and what the network will absorb on your behalf.
Unmanaged
Unmanaged is the cheaper route and the reason budget bare metal is affordable at all. You receive the hardware, the network and root or administrator access, and everything above that is yours: operating-system installation and updates, firewall rules, service hardening, log and capacity monitoring, and backups. That is a real workload, not a formality. It suits teams who already run servers and want nothing between them and the box.
Managed
Managed delivery moves operating-system updates, security patching, infrastructure monitoring and routine maintenance to our side. It costs more per month and removes most of the operational risk of running a single machine with no system administrator behind it. The honest test is simple: if an urgent kernel patch landed tonight, is there someone on your side who would apply it? If not, the managed option is cheaper than the incident.
DDoS protection: what to ask about
Mitigation is not one feature. Volumetric floods such as UDP and SYN attacks are absorbed upstream at the network edge, and that is the layer most protection operates at. Application-layer attacks that arrive as valid-looking requests need something that understands your traffic, which usually means a reverse proxy or web application firewall you configure yourself.
Two questions are worth asking before you rely on it. First, at what point does mitigation engage, since anything below the detection threshold reaches your server untouched. Second, whether an attack results in scrubbed traffic or a null-route, because null-routing protects the wider network while your service stays offline for the duration. Knowing which applies lets you plan a response instead of improvising one.
Location
Choosing a US Location (and When Another Region Fits Better)
Location is a performance decision before it is anything else. A server in the United States answers North American users fastest and peers broadly enough to serve the rest of the world acceptably, which is why it is the common default for a first dedicated box. It is not always the right default.
| Region | Strongest for | The trade-off |
|---|---|---|
| United States | North American audiences, broad international peering, large bandwidth availability | round trips to European and Asian users add measurable latency |
| Western Europe | EU and UK audiences, and workloads you want kept inside the EU | higher cost per unit of capacity than equivalent US builds |
| Asia-Pacific | regional audiences, where the distance saved is the whole point | fewer configurations and longer paths to Western traffic |
How to decide rather than guess
Look at where your traffic comes from today, then measure rather than assume. The Looking Glass will test latency and throughput from your own connection to each of our locations, and a ten-minute test beats any regional comparison table including this one.
If most of your users are in Europe, a European build will serve them better than a faster US machine: see our Germany dedicated servers and France dedicated servers. If your requirement is capacity or accelerators rather than geography, the storage and GPU builds are configured for that, and the full dedicated range lists every location we run.
FAQ
Frequently Asked Questions
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