GÖDel Scheduler: A Multi-Workload Scheduler for Kubernetes 🎯 Key Innovations: - **Unified Scheduling**: GÖDel Scheduler integrates both online and offline workloads into a single management framework for improved efficiency. - **Optimistic Concurrency**: Implemented to efficiently handle resource conflicts during scheduling. - **Two-layer Scheduling Abstraction**: Allows for scaling and flexibility in scheduling tasks across diverse computing needs. - **Job Level Affinity**: Advanced affinity management based on network topologies to optimize communication in large-scale jobs. - **Resource Reservation**: Manages idle resources, enabling offline jobs to borrow resources during low-usage periods. 💡 Notable Features: - **Dispatcher and Binder System**: Handles scheduling and resource allocation more effectively than traditional methods. - **Rich Plugin Architecture**: Provides customization for unique performance and scheduling requirements through a pluggable framework. - **Microtopology Scheduling**: Supports NUMA-aware scheduling for latency-sensitive applications. 🛠️ Perfect for: - Cloud-native architects - DevOps teams - Data scientists and machine learning engineers - Infrastructure operators managing large-scale Kubernetes clusters ⚡️ Impact: - Improved overall resource utilization by 35%. - Enhanced scheduling efficiency, achieving sub-1 minute latency amidst larger clusters up to 20,000 nodes. - Reduced resource fragmentation by 20%, leading to more efficient resource allocation. - Significant operational cost savings through automation and optimized resource transfers in production. 🔍 Preview of the Talk: In this session, Bing Li, @Yue Yin, and Lintong Jiang from ByteDance unveil the GÖDel Scheduler, a groundbreaking open-source solution aimed at addressing common pitfalls in workload management within Kubernetes environments. The talk showcases the innovative two-layer scheduling approach and various advanced features such as job-level affinity and resource reservation that enhance scheduling efficacy and resource utilization. The insights gathered from their extensive in-house experience provide valuable perspectives on modern cloud-native operational challenges and potential solutions. Watch the full session: https://lnkd.in/gvcYeKpa
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understanding the core concepts of Kubernetes, including the Control Plane and Node Plane, is crucial for anyone diving into container orchestration : 1- Control Plane: The Control Plane, also known as the Master Node, is responsible for managing the Kubernetes cluster. It is where the central coordination and decision-making occur. Components of the Control Plane include: - API Server: Acts as the front end for Kubernetes, handling all operations within the cluster. - Scheduler: Assigns Pods to nodes based on resource availability and other constraints. - Controller Manager: Watches the state of the cluster via the API server and works to ensure that the desired state matches the actual state. - etcd: Consistent and highly-available key-value store used as Kubernetes' backing store for all cluster data. 2- Node Plane: The Node Plane consists of all the worker nodes in the cluster. Each node runs services necessary to manage the networking and running of Pods. Components of the Node Plane include: - Kubelet: An agent that runs on each node and is responsible for maintaining the state of Pods, ensuring they are running and healthy. - Container Runtime: Software responsible for running containers, such as Docker. - Kube Proxy: Maintains network rules on nodes, enabling communication between Pods across the cluster. By understanding the roles and responsibilities of these two planes, users can better grasp how Kubernetes manages containerized applications across a distributed environment, ensuring scalability, reliability, and flexibility.
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What are some of the best practices for working with pods in Kubernetes? Some of the best practices to adopt while working with pods are as follows: 🔄 1. Leverage Controllers Use Deployments, ReplicaSets, or StatefulSets for streamlined management of Pods, ensuring scalability and reliability in production. 💡 2. Implement Health Checks Set up: Liveness Probes: To detect and restart unresponsive Pods. Readiness Probes: To ensure Pods are ready to handle traffic before serving requests. 🚦 3. Set Resource Constraints Define CPU and Memory Requests to allocate resources fairly. Configure Limits to prevent resource contention and protect cluster stability. 📂 4. Use Namespaces for Organization Separate resources by environments like dev, test, and prod. Maintain a clean and manageable cluster setup. 📊 5. Monitor Continuously Use tools like Prometheus, Grafana, and the Kubernetes Dashboard for: Real-time performance tracking. Proactive troubleshooting and issue resolution. Following these practices, you can optimize your Kubernetes environment for reliability, performance, and scalability! 🚀
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Today, I came across an essential tool used in Kubernetes called Reloader. This tool automatically restarts pods when there are changes to ConfigMaps or Secrets, making updates seamless and minimizing manual intervention. Kubernetes does not natively support automatic pod reloads when these resources are updated, so reloaders are used to bridge this gap. One popular option we use is Stakater Reloader. To set it up, you can install the following manifest on your cluster: kubectl apply -f https://lnkd.in/gwF7Sg23 Once installed, simply add the following annotation in the pod or deployment manifest to enable automatic reloading: annotations: reloader.stakater.com/auto: "true" This setup helps ensure that your applications always run with the latest configurations.
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Question: You'd like to deploy a new version of your application in Kubernetes using a canary strategy. How would you achieve this? Answer: Step 1: Create a new Deployment for the canary release, specifying the latest version of the application. Step 2: Scale down the new deployment to a small percentage (e.g., 5% of the total traffic) using kubectl scale deployment <canary-deployment> --replicas=1. Step 3: Use Service to load-balance between the original deployment and the canary deployment. The traffic will be split between the original and canary pods. Step 4: Monitor the performance of the canary deployment using tools like Prometheus or other monitoring services. Step 5: If the canary performs well, gradually scale up the canary deployment using kubectl scale and, eventually, replace the original deployment with the new version. Step 6: If the canary has issues, roll back to the previous stable version using kubectl rollout undo deployment <canary-deployment>.
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Exciting news! Our latest blog post discusses the limitations of Docker Compose and why it's essential to explore additional tools and strategies for efficient container orchestration. As containerized applications continue to grow in complexity, it's vital to understand the full landscape of options available. This post will guide you through why Docker Compose alone may not meet all your deployment needs and what alternatives you should consider. Dive into the full article here: https://ift.tt/1h0vdA3
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Axiom is the perfect alternative when you’ve outgrown CloudWatch! 🚀 Here's why teams are making the switch: └ Up to 70% savings on log management costs └ Ingest, store, and query 100% of your event data — no sampling required └ Advanced queries with APL, including simple nested JSON parsing └ Faster, more efficient performance with no data loss or delays └ Easy integration with Kubernetes, Docker, Fluentd, and more Say goodbye to CloudWatch limitations and hello to Axiom’s flexible, scalable observability solution. Learn more → https://axi.sh/cloudwatch
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🚀 Introducing K8 Mate: Your Ultimate Kubernetes Visualization Tool 🌐 We're excited to announce the launch of K8 Mate 🎉, a comprehensive tool designed to simplify Kubernetes monitoring and visualization! K8 Mate brings clarity to your Kubernetes clusters, offering an intuitive interface and a suite of powerful features tailored to enhance your DevOps experience. 🔑 Key Features: 🔔 Custom Alerts: Stay ahead of issues with custom alerts, utilizing Prometheus for real-time monitoring of cluster health and performance metrics. 🌳 Tree Visualization: Easily explore your cluster's architecture with our tree visualization, detailing nodes, services, pods, and containers. 📊 Grafana Integration: Leverage Grafana's live graph visualization to track and analyze metrics with ease, directly within K8 Mate. 🖥️ Interactive Dashboards: Utilize a clean, interactive interface to navigate through various Kubernetes components, providing a clear understanding of your cluster's state. 🤖 Automated Anomaly Detection: Automatically detect and analyze anomalies, simplifying root cause analysis to keep your clusters running smoothly. 🔗 Seamless Integration: Integrates effortlessly with existing Kubernetes setups, providing immediate insights without the hassle. K8 Mate is here to make Kubernetes management more intuitive and efficient. Give it a try and experience a new level of clarity in your Kubernetes operations! 🎊 👉 Check out our page at: k8mate.vercel.app 👉 Dive into the code on GitHub: https://lnkd.in/ggn6r5Xk
K8 Mate - Kubernetes Visualization Tool
k8mate.vercel.app
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Watching the Watchers: How We Do Continuous Reliability at Grafana Labs 🎯 Key Innovations: - Continuous Reliability: Shifts focus from mere observability to building reliable systems that can recover and grow from failures. - Mimir Clusters: Capable of holding 1.3 billion time series metrics reliably. - Scalable Loki Clusters: Handling 324 TB of logs daily with efficient design choices. 💡 Notable Features: - Monitoring Dashboards: Grafana dashboards specifically designed to monitor Grafana Cloud performance. - Auto Remediation: Mechanism to auto-scale databases based on detected issues. - Pyroscope: Continuous profiling tool that helps identify performance regressions. 🛠️ Perfect for: - Site Reliability Engineers (SREs) - Cloud Infrastructure Teams - DevOps Professionals - Product Development Teams ⚡️ Impact: - Significant cost savings (over $100,000) from solving production incidents. - Enhanced system reliability and observability through proactive monitoring and automated fixes. - Culture of continuous improvement fostering innovation within engineering teams. 🔍 Preview of the Talk: Nicole van der Hoeven explains Grafana Labs' approach to continuous reliability, emphasizing the need for robust systems that evolve over time. By sharing real incidents and the lessons learned, she highlights technical innovations like Mimir and Loki clusters, and promotes a culture geared towards proactive monitoring and learning from failures. The key takeaway is that observability should be a means to achieve continuous reliability, not an end in itself. Watch the full session: https://lnkd.in/gJ4CJ44N
Watching the Watchers: How We Do Continuous Reliability at Grafana Labs - Nicole van der Hoeven
https://www.youtube.com/
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The third and final article on OpenTelemetry: How to Collect Kubernetes Metrics. Enjoy the read!
My Tips and Tricks for leveraging OpenTelemetry with a LGM stack to securely gather K8S telemetry…
link.medium.com
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Learn: Key concepts Using the command The HPA limitation when scaling to 0, and A demo of scaling down a deployment to 0 using KEDA.
Kubectl Scale Deployment to 0
stormforge.io
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