An open-source observability tool for Kubernetes applications that automatically collects telemetry using eBPF and provides in-cluster edge compute.
Pixie is an open-source observability tool designed specifically for Kubernetes applications. It provides instant visibility into the high-level state of a cluster and allows deep drilling into detailed views like individual requests and performance profiles, all without requiring manual instrumentation. It uses eBPF to automatically collect telemetry data and processes it locally within the cluster.
Kubernetes developers and operators who need immediate, deep observability into their applications and infrastructure without manual instrumentation. It is particularly useful for teams managing microservices architectures in production environments.
Developers choose Pixie because it eliminates the need for manual instrumentation through auto-telemetry via eBPF, processes data in-cluster to minimize resource usage, and offers a flexible Pythonic query language (PxL) for custom analysis across UI, CLI, and APIs.
Instant Kubernetes-Native Application Observability
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Uses eBPF to automatically collect full-body requests, resource metrics, and network data without manual code changes, eliminating instrumentation overhead as emphasized in the 'Auto-telemetry' feature.
Processes and stores all telemetry data locally within the cluster, using less than 5% of cluster CPU to minimize resource usage and latency.
Offers PxL, a Pythonic query language usable across UI, CLI, and APIs, enabling custom data analysis and visualization for tailored observability needs.
Integrates network monitoring, infrastructure health, service performance, database profiling, and continuous application profiling into a single tool for holistic Kubernetes insights.
Designed solely for Kubernetes environments, making it ineffective for monitoring applications deployed on other platforms like VMs, serverless, or traditional data centers.
Data is stored in-cluster with no native long-term retention; for historical analysis, users must set up external integrations or custom exports, adding complexity.
Auto-tracing is limited to a predefined list of protocols; unsupported ones like some database or messaging protocols require manual workarounds or lack visibility.
Relies on eBPF, which requires compatible Linux kernels and may raise security red flags in regulated environments due to its kernel-level access and potential attack surface.