Technical insights and best practices for Performance Optimization
Stop blaming your application code. In 90% of latency cases, your API Gateway is choking on default kernel settings and noisy neighbor hardware. Here is the rigorous guide to tuning the TCP stack, Nginx, and infrastructure for Norway's high-compliance market.
Stop letting the 'microservices tax' kill your user experience. We dive deep into kernel tuning, NGINX keepalives, and why hardware isolation is the only metric that matters for P99 latency.
Latency isn't just network distance; it's kernel configuration. We dissect critical API Gateway tuning for 2022, covering Linux TCP stacks, NGINX buffering, and why hardware isolation matters.
Don't let default configurations throttle your API. We dive deep into Linux kernel tuning, Nginx upstream keepalives, and the hardware reality of hosting in Norway post-Schrems II.
Default configurations are destroying your throughput. A deep dive into kernel-level tuning, NGINX optimizations, and why local NVMe infrastructure is the only compliant path forward in post-Schrems II Norway.
Stop blaming your backend code for high latency. Learn how to tune kernel parameters, optimize Nginx workers, and leverage NVMe-backed KVM instances to handle 10k+ RPS with sub-millisecond overhead in a post-Schrems II landscape.
Ping checks aren't enough. In 2021, professional grade monitoring requires observability into system calls, database latencies, and sovereignty over your metrics. Here is how to build a robust APM stack on Norwegian infrastructure.
Stop blaming your CPU. In 2021, the real bottleneck for high-load applications is storage I/O. We analyze the leap to PCIe 4.0, specific Linux kernel tuning for NVMe, and why physical proximity to the NIX in Oslo matters for total system latency.
Latency isn't just a nuisance; it's an abandonment trigger. We dissect kernel-level optimizations for NGINX and Kong, the impact of NVMe I/O on throughput, and why data residency in Norway (Schrems II) is your hidden performance weapon.
Stop accepting default configurations. A deep dive into Linux kernel tuning, Nginx optimizations, and why hardware isolation matters for sub-millisecond API response times.
Intel has held the crown for decades, but the Zen architecture changed the math. We breakdown why AMD EPYC combined with PCIe 4.0 NVMe is the new standard for Norwegian hosting infrastructure, featuring real-world tuning examples.
Uptime is a vanity metric. If your API takes 500ms to respond, you are already down. Here is how to implement a GDPR-compliant observability stack in Norway without relying on US-based SaaS.
Default configurations are killing your API performance. We dive deep into Linux kernel tuning, NGINX worker optimization, and why NVMe storage is non-negotiable for low-latency workloads in the post-Schrems II era.
A battle-hardened guide to optimizing Nginx and Linux kernels for high-throughput API gateways. We cover file descriptors, socket recycling, and why hardware isolation matters in a post-Schrems II world.
Default Nginx configurations are bottling your throughput. In the wake of Schrems II, we dive deep into kernel-level tuning, TLS 1.3 optimization, and hardware requirements for high-performance API gateways in Norway.
A battle-hardened guide to kernel tuning, NGINX optimization, and infrastructure selection for high-performance API delivery in a post-Schrems II landscape.
Is your API gateway becoming the bottleneck of your microservices architecture? We dive deep into kernel-level tuning, Nginx configuration, and the critical importance of NVMe storage to slash latency. Written for the reality of September 2020.
A deep dive into kernel-level optimizations, NGINX directives, and hardware requirements for low-latency API gateways. Essential reading for Norwegian DevOps navigating high-load environments and Schrems II compliance.
Latency is the silent killer of microservices. In this deep dive, we explore kernel-level tuning, NGINX optimizations, and the impact of the recent Schrems II ruling on your infrastructure choices.
Your API Gateway is likely the bottleneck you haven't tuned. We dive deep into Linux kernel adjustments, NGINX upstream keepalives, and why NVMe I/O is non-negotiable for low-latency routing in 2020.
A battle-tested guide to kernel-level optimizations and Nginx configurations for high-throughput API Gateways. Learn how to handle concurrency without latency spikes.
Your microservices aren't slow; your gateway configuration is. A deep dive into kernel tuning, upstream keepalives, and selecting the right infrastructure for low-latency APIs in the Nordics.
Is your API gateway becoming the bottleneck? We dive deep into kernel-level tuning, Nginx optimization, and the critical role of NVMe storage to handle high-concurrency loads without latency spikes.
Default configurations are the enemy of performance. We dissect the Linux kernel, Nginx upstream keepalives, and NVMe I/O bottlenecks to help you drop latency on your Norwegian VPS.
Default configurations are killing your API performance. We dive deep into NGINX worker settings, Linux kernel TCP hardening, and why NVMe storage is non-negotiable for high-throughput gateways in 2020.
A battle-hardened guide to tuning Nginx and Linux kernels for high-throughput API gateways. We cover upstream keepalives, TLS 1.3 adoption, and why hardware isolation determines your tail latency.
Default configurations are killing your API performance. We deep dive into kernel parameters, NGINX tuning, and the hardware reality required for low-latency requests in the Norwegian market.
Latency kills conversion. This technical deep-dive covers 2019-era APM strategies, from Nginx log parsing to Prometheus metrics, specifically tailored for Nordic infrastructure and GDPR compliance.
Your API Gateway is likely the bottleneck. We dissect kernel-level tuning, Nginx upstream keepalives, and TLS 1.3 optimization to shave milliseconds off your p99 latency.
Physics doesn't negotiate. For Nordic IoT and real-time apps, centralized cloud regions in Frankfurt are simply too far away. Here is how we architect low-latency edge nodes using NVMe and NIX peering.