We use cookies and similar technologies to improve your experience, analyze site traffic, and personalize content. By clicking "Accept All", you consent to our use of cookies. You can manage your preferences or learn more in our Privacy Policy.
Privacy & Cookie Settings
We respect your privacy and give you control over your data. Choose which cookies you want to allow:
These cookies are necessary for the website to function and cannot be disabled. They are set in response to actions made by you such as setting your privacy preferences, logging in, or filling in forms.
These cookies help us understand how visitors interact with our website by collecting and reporting information anonymously. This helps us improve our services.
Providers: Google Analytics, Plausible Analytics (privacy-friendly)
These cookies are used to track visitors across websites to display relevant advertisements and measure campaign effectiveness.
Providers: LinkedIn, Twitter/X, Reddit
These cookies enable the website to remember choices you make (such as your language preference or region) to provide enhanced, more personalized features.
Your Privacy Rights
Right to Access: You can request a copy of your personal data
Right to Deletion: You can request deletion of your data
Right to Object: You can object to processing of your data
Right to Portability: You can request your data in a portable format
Monitoring tells you the server is dead. Observability tells you why the database query failed only for users in Oslo. We dissect the architecture of 'unknown unknowns' using OpenTelemetry, Prometheus, and high-IOPS infrastructure.
Stop accepting default configurations. A deep dive into kernel limits, NGINX upstream keepalives, and TCP stack optimization to reduce latency below 10ms for Nordic workloads.
I recently watched a 'secure' cluster get owned in under five minutes due to a default capability. Here is the battle-tested guide to container security, focusing on rootless execution, immutable filesystems, and why hosting jurisdiction in Norway is your last line of defense.
Vertical scaling has a hard ceiling. When your primary node hits 100% I/O utilization, throwing more RAM at the problem won't save you. We analyze architectural patterns for sharding PostgreSQL and MySQL on high-performance infrastructure.
Centralized clouds are killing your application's responsiveness. Learn how to deploy high-performance edge computing architectures in Norway using K3s, WireGuard, and NVMe-backed VPS to solve latency and GDPR challenges.
Your build pipeline shouldn't take a coffee break. We dissect the I/O bottlenecks killing your deployment speed, from Docker layer caching to NVMe throughput, and explain why a dedicated runner in Oslo beats shared SaaS every time.
Manual deployments are professional negligence. We break down a battle-tested GitOps pipeline using ArgoCD and Kubernetes, specifically optimized for Norwegian data compliance and high-performance NVMe infrastructure.
Stop guessing why your application is slow. A battle-hardened guide to implementing Prometheus, Grafana, and Nginx tracing to eliminate bottlenecks, ensuring GDPR compliance and sub-millisecond latency in the Nordic region.
Monitoring tells you the server is online. Observability tells you why the checkout API is failing for users in Bergen. In this deep dive, we move beyond simple uptime checks to implement full-stack observability using OpenTelemetry, Prometheus, and Grafana on high-performance infrastructure.
React's Virtual DOM is overhead you can't afford. We analyze SolidJS's fine-grained reactivity, implement SSR, and explain why high-performance frontends fail on standard VPS hosting.
Physics is undefeated. For Norwegian businesses, relying on 'eu-central-1' creates unavoidable latency. We explore practical edge computing use cases, NIX peering, and the server configs needed to handle real-time data in 2022.
Stop guessing why your application is slow. A battle-hardened DevOps guide to Application Performance Monitoring (APM) in 2022, focusing on the USE method, Linux kernel metrics, and why data sovereignty is your biggest bottleneck.
Centralized cloud architectures are hitting a latency wall. Discover how deploying edge nodes in Norway solves specific IoT and GDPR challenges, with practical K3s and WireGuard implementations.
Default configurations are the enemy of low latency. Learn how to tune the Linux kernel, Nginx upstreams, and TLS termination to handle 10k+ RPS without choking, specifically tailored for the Nordic infrastructure landscape.
Cloudflare Workers solve the latency problem for logic, but your origin server remains the bottleneck. Here is how to architect a sub-10ms stack using V8 isolates and high-performance NVMe infrastructure in Norway.
SaaS monitoring tools are draining your budget and exporting data outside the EEA. Learn how to deploy a battle-hardened Prometheus and Grafana stack on high-performance NVMe infrastructure in Norway.
Why the centralized cloud is failing Nordic real-time applications and how to build a 'Near-Edge' architecture using K3s, WireGuard, and Oslo-based infrastructure.
Physics is non-negotiable. For Norwegian DevOps teams facing rugged geography and strict GDPR laws, Edge Computing isn't a buzzword—it's survival. We break down real-world architectures using WireGuard, K3s, and MQTT to bridge the gap between remote fjords and Oslo data centers.
It's 3 AM. Your dashboard shows all systems green, but customers are screaming about 502 errors. This is the monitoring gap. We dissect the critical shift from 'checking health' to 'understanding behavior' in a post-Schrems II world.
Distributed systems fail. Retries are hard. In this deep dive, we explore how to implement Temporal.io for resilient microservices orchestration, why 'Workflow as Code' beats ad-hoc queues, and how to architect the backing infrastructure for high I/O throughput in a post-Schrems II landscape.
Is your monthly cloud bill growing faster than your user base? Discover actionable strategies to slash infrastructure costs, leveraging rightsizing, local compliance, and predictable VPS architectures.
Microservices solve one problem but create a networking nightmare. Learn how to implement Istio for observability and mTLS without destroying your latency, specifically tailored for Norwegian compliance and high-performance infrastructure.
Default container configurations are a security minefield. From dropping root privileges to navigating the post-Schrems II landscape in Norway, here is the battle-hardened guide to locking down your Docker and Kubernetes workloads.
Stop leaking user data to US-based monitoring SaaS. Learn how to deploy a high-performance, GDPR-compliant Prometheus and Grafana stack on NVMe VPS in Oslo.
Moving from monoliths to microservices introduces network complexity that destroys generic cloud instances. We explore the Circuit Breaker pattern, API Gateways, and why KVM virtualization is non-negotiable for distributed systems in the post-Schrems II era.
Microservices solve scalability but introduce observability chaos. This guide covers implementing a service mesh in 2021 to handle mTLS, traffic splitting, and tracing without destroying your latency budget.
Is your AWS bill growing faster than your user base? We analyze the hidden costs of cloud infrastructure, from egress fees to IOPS limits, and detail how moving workloads to Norwegian KVM instances can slash TCO while solving Schrems II compliance headaches.
Stop accepting default configurations. A deep dive into Linux kernel tuning, Nginx optimizations, and why hardware isolation matters for sub-millisecond API response times.
Public cloud serverless functions offer convenience but introduce latency and GDPR nightmares after Schrems II. Here is how to architect a compliant, high-performance OpenFaaS cluster on CoolVDS NVMe instances.
Containers are not virtual machines. Learn battle-tested strategies to lock down your containerized infrastructure, from kernel capabilities to the Norwegian data border.