Technical & Engineering FAQ

A Windows Cloud VPS is an isolated virtual machine running on top of a Type-1 hypervisor (such as KVM or VMware ESXi) with its own dedicated kernel, virtualized hardware, dedicated RAM, and root Administrator rights. You can install custom drivers, mount network storage, and modify OS registry settings without affecting other tenants.

A Shared Windows RDP, by contrast, is a multi-user Remote Desktop Services (RDS) session hosted on a single shared Windows Server instance. Users share the same operating system kernel, CPU pool, and memory space under standard user privileges. Shared RDP is significantly cheaper ($3–$9/mo) but lacks root administrative rights and is vulnerable to noisy-neighbor resource starvation if another user initiates heavy workloads.

The Remote Desktop Protocol relies heavily on single-threaded graphical processing loops for window composition, font antialiasing, bitmap decompression, and input event serialization. When you drag a window or scroll a webpage over RDP, high clock speed (such as 4.5GHz to 5.7GHz on modern AMD Ryzen or Intel Core processors) delivers instant, low-latency UI frame updates. Having 32 low-frequency cores (2.2GHz) will not make the interface smoother because the desktop composition thread cannot be parallelized across multiple cores.

Network Level Authentication (NLA) requires the client to authenticate with the remote Windows host via CredSSP (Credential Security Support Provider) before the full RDP session and graphical logon screen are established. Exposing default port 3389 without NLA enables automated botnets to exploit severe remote code execution vulnerabilities (such as BlueKeep / CVE-2019-0708) and exhaust server memory through continuous unauthenticated handshake floods. In our testing, providers with NLA enforced by default receive our highest security grade.

Many hosting providers label their plans “Pure NVMe SSD” while secretly attaching virtual instances to shared network storage (such as HDD-backed Ceph or heavily oversubscribed SATA arrays with a small SSD caching layer). We execute direct I/O FIO stress tests that completely bypass the operating system buffer cache. By measuring the 99th percentile (p99) latency of 4K random writes over a sustained 30-minute window, true PCIe 4.0/5.0 NVMe drives maintain < 0.8ms latency, whereas throttled or fake setups spike beyond 35ms.

Synthetic marketing benchmarks typically advertise sequential speeds at Queue Depth 32 or 64 (e.g., “7,000 MB/s!”). However, real desktop operating systems and single-user applications rarely have 64 concurrent I/O operations pending simultaneously. Everyday activities—such as launching an IDE, unzipping an archive, or writing browser history logs—issue synchronous I/O requests at Queue Depth 1. A drive with blistering sequential burst rates but poor QD=1 random write latency will feel frustratingly sluggish in practice.

A true Forex VPS is physically colocated within the same datacenters that house the major foreign exchange interbank matching engines—predominantly Equinix LD4 (London / Slough) for EUR/GBP currency pairs and Equinix NY4 (Secaucus, NJ) for USD/equities. Colocating your Expert Advisor (EA) inside LD4 or NY4 reduces network transit times to brokers like IC Markets, Pepperstone, and XM to sub-1.5 milliseconds, compared to 85–150ms from standard domestic broadband.

No. Network latency (the time it takes your order packet to travel from your VPS to the broker gateway) is only one component of total execution time. The second critical component is broker matching latency and market liquidity depth. During major macroeconomic news releases (such as US Non-Farm Payrolls or interest rate decisions), liquidity providers widen spreads or pull quotes entirely, causing orders to slip regardless of having a 0.8ms network ping. However, minimizing network transit guarantees your order arrives ahead of competing retail traders.

To run a 70-billion parameter model (such as LLaMA-3 70B or DeepSeek-R1 distilled 70B) in 4-bit quantization (AWQ/GPTQ), you require at least 40GB to 48GB of unified VRAM (e.g. dual RTX 4090s or a single NVIDIA A6000 Ada). Running in unquantized 16-bit (BF16/FP16) requires ~145GB of VRAM, mandating at least dual NVIDIA A100/H100 80GB SXM nodes interconnected via NVLink. Running models across PCIe bus channels without NVLink causes severe token-per-second degradation during multi-head attention cache exchange.

PCIe cards plug into standard motherboard slots and communicate through the CPU root complex at maximum bidirectional speeds of 64 GB/s (PCIe Gen4) or 128 GB/s (PCIe Gen5). SXM5 GPUs (such as the NVIDIA H100 80GB SXM5) are soldered to high-density HGX baseboards connected directly via dedicated NVLink bridges delivering up to 900 GB/s bidirectional GPU-to-GPU bandwidth. For single-card inference, PCIe is cost-effective; for distributed multi-GPU training or tensor-parallel inference, SXM5 is non-negotiable.

Absolutely not. All benchmark ranks, telemetry tables, and score cards published on RDPChoice are calculated deterministically by our Python analytics engine directly from raw log files (Geekbench JSON, FIO summary outputs, ICMP ping latency matrices). No commercial entity or affiliate partner has the ability to purchase rank adjustments, modify test parameters, or suppress poor benchmark results.