# OpenTelemetry eBPF Instrumentation > Learn how to use OpenTelemetry eBPF Instrumentation for automatic instrumentation. --- LLMS index: [llms.txt](/llms.txt) --- OpenTelemetry libraries provide telemetry collection for popular programming languages and frameworks. However, getting started with distributed tracing can be complex. In some compiled languages like Go or Rust, you must manually add tracepoints to the code. OpenTelemetry eBPF Instrumentation (OBI) is an auto-instrumentation tool to easily get started with Application Observability. OBI uses eBPF to automatically inspect application executables and the OS networking layer, and capture trace spans related to web transactions and Rate Errors Duration (RED) metrics for Linux HTTP/S and gRPC services. All data capture occurs without any modifications to application code or configuration. OBI offers the following features: - **Wide language support**: Java (JDK 8+), .NET, Go, Python, Ruby, Node.js, C, C++, and Rust - **Lightweight**: No code changes required, no libraries to install, no restarts needed - **Efficient instrumentation**: Traces and metrics are captured by eBPF probes with minimal overhead - **Distributed tracing**: Distributed trace spans are captured and reported to a collector - **Log enrichment**: Enrich JSON logs with trace context for correlation - **Kubernetes-native**: Provides configuration-free auto-instrumentation for Kubernetes applications - **Visibility into encrypted communications**: Capture transactions over TLS/SSL without decryption - **Context propagation**: Propagate trace context across services automatically - **Protocol support**: HTTP/S, gRPC, gRPC-Web, JSON-RPC, MQTT, NATS, AMQP 1.0, Memcached, and more - **Database instrumentation**: PostgreSQL (including pgx driver), MySQL, MSSQL, MongoDB, Redis, Couchbase (N1QL/SQL++ and KV protocol) - **GenAI instrumentation**: Trace and metrics for OpenAI, Anthropic Claude, Google AI Studio (Gemini), AWS Bedrock, Qwen (DashScope), MCP over JSON-RPC, and embedding and rerank APIs for Voyage AI, Cohere, and Jina AI - **Low cardinality metrics**: Prometheus-compatible metrics with low cardinality for cost reduction - **Network observability**: Capture network flows between services with host-level TCP RTT statistics - **Enhanced service discovery**: Improved service name lookup with DNS resolution - **Collector integration**: Run OBI as an OpenTelemetry Collector receiver component ## Recent highlights (v0.9.0) OBI v0.9.0 expands protocol coverage, emitted telemetry, and GenAI instrumentation: - **New messaging protocol support**: Added NATS and AMQP 1.0 tracing and metrics - **Expanded database coverage**: Added MSSQL protocol support, including prepared statement handling and error extraction - **Broader GenAI coverage**: Added Qwen (DashScope), MCP over JSON-RPC, embedding providers (Voyage AI, Cohere, Jina AI), and rerank providers (Cohere, Jina AI, Voyage AI, and Qwen) - **New stats metrics**: Added TCP failed connection metrics alongside the existing TCP RTT metrics - **Telemetry schema registry**: Added a Weaver-compatible schema registry for OBI-emitted metrics and attributes - **Span and service graph alignment**: OBI now documents and emits span-metrics and service-graph telemetry aligned with the collector-contrib connectors For a complete list of changes and upgrade notes, see the [release notes](https://github.com/open-telemetry/opentelemetry-ebpf-instrumentation/releases/tag/v0.9.0). If you want to explore the upstream examples, see the [NGINX walkthrough](https://github.com/open-telemetry/opentelemetry-ebpf-instrumentation/tree/v0.9.0/examples/nginx) and the [Apache walkthrough](https://github.com/open-telemetry/opentelemetry-ebpf-instrumentation/tree/v0.9.0/examples/apache). ## How OBI works The following diagram shows the high-level OBI architecture and where eBPF instrumentation fits into the telemetry pipeline. ![OBI eBPF architecture](./ebpf-arch.svg) ## Compatibility OBI supports Linux environments that meet the following requirements: | Requirement | Supported | | :--------------- | :-------------------------------------------------------------------- | | CPU architecture | `amd64`, `arm64` | | Linux kernel | `5.8+`, or RHEL-family Linux `4.18+` with the required eBPF backports | | Kernel features | BTF | | Privileges | Root, or the Linux capabilities required by the enabled OBI features | OBI publishes the following supported release artifacts: | Artifact | Supported platforms | | :----------------------------------------------- | :--------------------------- | | `obi` binary archive | Linux `amd64`, Linux `arm64` | | `k8s-cache` binary archive | Linux `amd64`, Linux `arm64` | | `otel/ebpf-instrument` container image | Linux `amd64`, Linux `arm64` | | `otel/ebpf-instrument-k8s-cache` container image | Linux `amd64`, Linux `arm64` | OBI can be deployed on standalone Linux hosts, in containers, and on Kubernetes when the environment meets the requirements above. OBI does not support non-Linux operating systems, Linux architectures other than `amd64` and `arm64`, Linux environments without BTF, or kernel versions earlier than Linux `5.8` outside the documented RHEL-family `4.18+` exception. Feature-specific support details are documented in these guides: - [Distributed traces](distributed-traces/): context propagation support, runtime-specific requirements, and distributed tracing limitations - [Export data](configure/export-data/): protocol, database, messaging, GenAI, GPU, and Go library instrumentation support ## Limitations OBI provides application and protocol observability without code changes, but it does not replace language-level instrumentation in every scenario. Use language agents or manual instrumentation when you need custom spans, application-specific attributes, business events, or other in-process telemetry that eBPF-based instrumentation cannot derive automatically. OBI can automatically capture network and protocol activity, but it cannot always recover application-specific details that are not visible from eBPF observation points. Some features also have additional caveats or narrower support than the core platform requirements. For details, refer to the feature-specific documentation for [distributed traces](distributed-traces/) and [exported instrumentation](configure/export-data/). For a comprehensive list of capabilities required by OBI, refer to [Security, permissions and capabilities](security/). ## Get started with OBI - Follow the [setup](setup/) documentation to get started with OBI either with Docker or Kubernetes. - Learn about [trace-log correlation](./trace-log-correlation/) to connect traces with application logs and enrich JSON logs with trace context. - Discover how to run [OBI as a Collector receiver](./configure/collector-receiver/) for centralized telemetry processing. ## Troubleshooting - See the [troubleshooting](./troubleshooting) guide for help with common issues. --- Section pages: - [Configure OBI](/docs/zero-code/obi/configure/): Learn how to configure OBI. - [Network metrics](/docs/zero-code/obi/network/): Configuring OBI to observe point-to-point network metrics. - [Set up OBI](/docs/zero-code/obi/setup/): Learn how to set up and run OBI. - [OBI exported metrics](/docs/zero-code/obi/metrics/): Learn about the HTTP/gRPC metrics OBI can export. - [Distributed traces with OBI](/docs/zero-code/obi/distributed-traces/): Learn about OBI's distributed traces support. - [Measuring total request times, instead of service times](/docs/zero-code/obi/requesttime/): How to measure total request times from the point of view of the client - [OBI security, permissions, and capabilities](/docs/zero-code/obi/security/): Privileges and capabilities required by OBI - [Troubleshooting](/docs/zero-code/obi/troubleshooting/): Troubleshooting OBI common issues and errors - [OBI and Cilium compatibility](/docs/zero-code/obi/cilium-compatibility/): Compatibility notes when running OBI alongside Cilium - [OBI metrics cardinality](/docs/zero-code/obi/cardinality/): Overview of how to calculate the cardinality of metrics produced by a default OBI installation, considering the size and complexity of the instrumented environment. - [Trace-log correlation](/docs/zero-code/obi/trace-log-correlation/): Learn how OBI correlates application logs with distributed traces for faster debugging and troubleshooting.