1 Gbps port Dedicated Server Hosting

Full Physical Allocation and Throughput Predictability Under Production Load

AvaHost's 1 Gbps port dedicated server hosting provides bare-metal compute on a single-tenant physical machine, with a full 1 Gbps uplink allocated exclusively to each tenant. Plans start from €85.00/mo and scale to €149.00/mo, with all configurations provisioned within 24 hours of order confirmation. The service is unmanaged by default, giving engineering teams unrestricted root access and full control over the OS, kernel parameters, firewall rules, and installed software stack.

A dedicated 1 Gbps port means the full uplink bandwidth is not shared with neighbouring tenants. Under sustained production loads — bulk data ingestion, large-asset CDN origin serving, or high-concurrency API backends — this translates directly to predictable throughput without the contention penalties inherent in virtualised or shared environments. DDoS protection is included across all plans, providing baseline network-layer resilience without requiring a separate mitigation contract.

This service is designed for SysAdmins and DevOps engineers who require deterministic resource allocation: no vCPU steal time, no noisy-neighbour iowait spikes, and no memory balloon drivers reclaiming RAM under host pressure. If your workload has outgrown VPS Hosting — where CPU and RAM are still shared at the hypervisor level — a dedicated server eliminates that ceiling entirely, delivering the full physical capacity of the machine to a single workload or tenant.

On a dedicated server, every CPU core, every gigabyte of RAM, and the entire 1 Gbps uplink belong to one tenant. There is no hypervisor overhead redistributing resources between competing virtual machines, and no scheduler arbitrating between tenants on the same host. For workloads sensitive to latency variance — relational database clusters, in-memory caching layers, or worker queues processing high message volumes — this physical isolation removes an entire category of performance risk.

• Single-tenant CPU allocationNo steal time from co-resident VMs; CPU scheduler operates purely on local process priorities.
• Dedicated 1 Gbps uplinkFull port capacity available to the tenant; throughput is bounded by application architecture, not shared infrastructure policy.
• DDoS protection includedNetwork-layer mitigation active on all plans, reducing the risk of availability loss from volumetric attacks without additional procurement.

Business outcome: Predictable throughput and CPU availability reduce the operational overhead of capacity planning. Engineering teams can benchmark against actual hardware rather than modelling around variable virtualisation overhead, shortening the iteration cycle when tuning database query plans, connection pool sizes, or worker concurrency settings.

Storage Configuration and I/O Characteristics Across the Plan Range

Storage type varies across available configurations — check the plan selector for the specific drive type attached to each CPU tier. This distinction matters operationally: a write-heavy PostgreSQL instance with frequent WAL flushes has different storage requirements than a read-heavy analytics cache or a bulk file-serving origin. Selecting the correct storage tier at provisioning avoids the disruption of a mid-contract migration.

For database workloads, fsync latency and sequential write throughput are the primary I/O metrics. For high-concurrency web applications, random read IOPS and queue depth under parallel request loads determine whether the storage subsystem becomes a bottleneck before the CPU or network does. Review the hardware specification for each plan in the selector before ordering, particularly if your workload profile is I/O-intensive.

• Plan-specific storageDrive type and capacity differ by configuration; verify against the plan selector rather than assuming a uniform storage tier across all SKUs.
• Bare-metal I/O pathNo virtualisation layer between the OS and the physical drive controller; the kernel's I/O scheduler operates directly on hardware, which is relevant for latency-sensitive storage engines.

Business outcome: Matching storage type to workload profile at provisioning avoids performance degradation that only surfaces under production load, reducing the likelihood of emergency migrations and the associated downtime risk.

Control Panel Options and OS-Level Configuration Flexibility

Dedicated servers are unmanaged by default. The operating system, control panel, and all software configuration are the customer's responsibility. For teams that prefer a managed control panel, paid options include Plesk, cPanel, ispmanager, and DirectAdmin. Customers who prefer open-source or self-managed panels can install these independently or request assistance via managed support, billed at €20/hour.

This model suits engineering teams who already operate infrastructure tooling — Ansible playbooks, Terraform state, Prometheus with node_exporter, or Datadog agents — and do not require a vendor-managed layer between their automation and the OS. Root SSH access is available from provisioning, with no restrictions on kernel modules, custom firewall rules via firewalld or ufw, or non-standard software repositories.

• Unmanaged defaultFull root access; no vendor-imposed software restrictions or mandatory control panel licensing.
• Optional managed supportAvailable at €20/hour for vendor-assisted configuration, OS hardening, or software installation.
• Control panel choicePlesk, cPanel, ispmanager, and DirectAdmin available as paid add-ons; self-managed panels installable without restriction.

Business outcome: Teams running infrastructure-as-code workflows retain full automation compatibility. There is no proprietary agent or managed layer that conflicts with existing CI/CD pipelines, configuration management systems, or monitoring stacks.

Enterprise Workload Positioning: Databases, Transcoding, Compliance Isolation, and API Backends

A 1 Gbps dedicated server suits workloads that combine high CPU utilisation with sustained network throughput requirements. Relational and NoSQL database primaries benefit from physical CPU isolation when handling complex query plans under concurrent session loads. Media transcoding pipelines — where CPU-bound encoding runs in parallel with large file transfers — benefit from both the full uplink and the absence of vCPU contention. Compliance-sensitive workloads requiring physical tenant isolation, rather than hypervisor-enforced separation, are a natural fit for bare-metal provisioning.

API backends serving high request volumes benefit from predictable CPU scheduling and a non-contended network path. When response latency is a contractual SLA metric rather than a best-effort target, removing shared-infrastructure variables from the performance equation reduces the architectural unknowns that must be controlled at the application layer.

For organisations running multi-tier architectures, a dedicated server can serve as the data tier — hosting the primary database, object storage, or message broker — while application-layer services run on Dedicated Servers or VPS nodes. This separation keeps I/O-intensive and CPU-intensive tiers on hardware matched to their respective profiles.

If your current infrastructure sits on shared hosting and you are encountering resource ceilings or neighbour-impact issues, Shared Web Hosting provides the entry point, with a clear upgrade path through VPS to dedicated bare metal as workload demands grow. Payments are accepted via Visa, Mastercard, PayPal, bank transfer, WebMoney, and over 20 cryptocurrencies including BTC, ETH, and USDT, with all prices in EUR on a monthly billing cycle by default.