Offshore Bare Metal Servers

Every cloud instance and VPS runs on top of a hypervisor — a software layer that creates and manages virtual machines. This hypervisor consumes CPU cycles, memory, and I/O bandwidth, introducing overhead that reduces the performance available to your workload. Depending on the hypervisor and workload type, this overhead ranges from 5% to 30%, with I/O-intensive workloads suffering the most from virtualization's interrupt handling and memory management overhead.

Bare metal eliminates this entirely. Your operating system boots directly on the physical hardware, with direct access to the CPU's instruction set (including hardware virtualization extensions if you want to run your own hypervisor), physical memory without balloon drivers or memory overcommit, and storage devices without a virtual I/O layer adding latency to every disk operation. The result is consistent, predictable performance without the variability introduced by hypervisor scheduling.

For latency-sensitive applications — high-frequency trading, real-time audio/video processing, gaming servers, or database workloads where microseconds matter — bare metal provides measurably lower and more consistent latency. The absence of a hypervisor eliminates the jitter caused by VM scheduling, vCPU contention, and hypervisor-level interrupts that can cause unpredictable latency spikes in virtualized environments.

Bare metal servers give you direct access to hardware features that are hidden or restricted in virtual environments. Hardware virtualization extensions (VT-x, AMD-V) are available for running your own hypervisor with nested virtualization. Hardware AES-NI instructions accelerate encryption at line speed. CPU performance counters are accessible for detailed profiling and performance analysis. NUMA topology is exposed accurately for memory-locality optimization.

Network hardware is directly accessible, enabling features like DPDK (Data Plane Development Kit) for kernel-bypass networking that achieves near-theoretical-maximum throughput with minimal CPU overhead. SR-IOV network interfaces can be used for PCIe passthrough in your own virtual machines. Hardware timestamping provides nanosecond-precision timing for network measurement and synchronization applications.

Storage access goes through the native NVMe driver stack without any virtualization indirection. This means you get the full random IOPS and sequential throughput of your NVMe drives, with consistent low-latency access that is not affected by other tenants or hypervisor scheduling. For databases and storage-intensive applications, the difference between bare metal and virtualized NVMe access is significant — often 20-40% better random I/O performance on bare metal.

Choose bare metal when performance consistency matters as much as raw performance. Cloud instances and VPS products may benchmark well in short tests, but their performance degrades under sustained load as the hypervisor manages competing demands from other tenants. Bare metal delivers the same performance at 3 AM with no load as it does at 3 PM during peak traffic — there are no other tenants to compete with.

Choose bare metal for workloads with specific hardware requirements. If your application needs access to GPU passthrough, hardware random number generators, specific CPU instruction sets, particular NUMA configurations, or direct NIC access for DPDK, bare metal is your only option. Virtualized environments abstract away hardware details that some applications depend on.

Choose bare metal for security-sensitive workloads where the hypervisor itself is a threat model concern. Spectre, Meltdown, and related CPU vulnerabilities demonstrated that hypervisors can leak data between tenants through hardware side channels. While mitigations exist, they reduce performance and do not eliminate all attack vectors. Bare metal completely eliminates cross-tenant attack surfaces because there are no other tenants on your hardware.

Our bare metal lineup spans the full range of enterprise hardware. Entry-level bare metal servers start with Intel Xeon E-2236 (6 cores), 32 GB ECC RAM, 512 GB NVMe, and 1 Gbps unmetered bandwidth — providing a solid foundation for web applications, small databases, or development environments that benefit from consistent bare metal performance without breaking the budget.

Mid-range bare metal servers include AMD EPYC 7313P (16 cores), 128 GB ECC RAM, 2x 1 TB NVMe RAID 1, and 1 Gbps unmetered bandwidth. These machines handle production workloads with ease: busy web applications, medium-sized databases, Docker hosts, or CI/CD build servers. The 16 EPYC cores with large L3 cache deliver excellent multi-threaded performance with strong single-thread capability.

Enterprise bare metal configurations feature AMD EPYC 7763 (64 cores) or dual-socket platforms, 256-512 GB ECC RAM, large NVMe arrays in RAID 10, and 10 Gbps unmetered bandwidth. These are our most powerful machines, suitable for the most demanding applications: large-scale databases, high-throughput data processing, enterprise virtualization (running your own hypervisor), or any workload that needs the maximum available compute, memory, and I/O from a single physical machine. All bare metal servers include DMCA-ignored hosting, IPMI out-of-band management, and cryptocurrency payment options.