eBPF in Action: A Roundup of Top eBPF Observability Tools


In the dynamic and rapidly evolving landscape of modern computing, the importance of observability has grown exponentially. The ability to gain deep insights into system behavior, network interactions, application performance, and more has become a crucial element in maintaining the integrity and efficiency of complex technological ecosystems.

In this era of digital complexity, eBPF (extended Berkeley Packet Filter) emerges as a game-changing technology, redefining the boundaries of observability. By offering a lightweight yet powerful means to collect and analyze data at various layers of the system, eBPF has ushered in a new era of observability tools that provide unparalleled insights into the inner workings of our digital world.

Exploring the Landscape of eBPF Observability Tools

In this article, we embark on a journey through a curated selection of top-tier eBPF observability tools. Each tool harnesses the capabilities of eBPF to address specific challenges in the observability space. From network traffic analysis to application performance optimization, these tools exemplify the versatility and power of eBPF in enabling real-time insights and proactive monitoring. Here are some of the top eBPF observability tools:


groundcover takes the forefront as a dedicated eBPF observability tool, designed to cater to the needs of developers and engineers. It provides real-time visibility into packet-level data, unraveling the intricate nuances of network behavior. The integration of comprehensive insights and potent functionalities solidifies groundcover’s role in upholding network performance, security, and resilience – whether in conventional setups or the dynamic realms of cloud and Kubernetes – maintaining cost-effectiveness, precision, and uncompromised scalability.

Its user-friendly interface enables efficient filtering and analyzing of packets, facilitating the identification of network latency anomalies and potential security breaches. With its extensive insights and powerful features, groundcover becomes an indispensable tool for maintaining optimal network performance and ensuring the robustness of network security.


Nestled at the intersection of eBPF and Kubernetes, Cilium stands as a prominent eBPF observability tool, purpose-built for the world of microservices. Leveraging the capabilities of eBPF, Cilium introduces dynamic network policies, automated load balancing, and advanced observability mechanisms. 

This empowers administrators to gain real-time insights into inter-service communication, fostering security and efficiency within intricate Kubernetes architectures. By seamlessly integrating eBPF’s potential with Kubernetes environments, Cilium bridges the gap between traditional network management and the dynamic landscape of modern container orchestration.


Pixie stands out as a true game-changer by harnessing eBPF’s capabilities to optimize application performance. Developers are provided with instantaneous insights into their application code, without the need for intrusive changes. Through dynamic tracing and visualization, Pixie facilitates the real-time identification of performance bottlenecks and issues, allowing developers to quickly optimize their code for enhanced efficiency and responsiveness. This instant visibility into application behavior empowers developers to make informed decisions and streamline their development process.


Tetragon is uniquely positioned to provide eBPF-driven observability within containerized environments. By leveraging eBPF tracing, Tetragon offers in-depth visibility into the interactions within Docker and Kubernetes deployments. This includes monitoring resource utilization, tracking application behavior, and understanding the overall system dynamics within containers. With its ability to navigate the complexities of container orchestration, Tetragon becomes an indispensable tool for DevOps teams striving to ensure the performance, stability, and security of their containerized applications.


In the domain of Kubernetes networking, Hubble emerges as an eBPF-powered powerhouse. It offers comprehensive insights into network traffic between pods and namespaces, enabling administrators to pinpoint communication bottlenecks and maintain the health of Kubernetes networks. Through its advanced eBPF-driven observability, Hubble empowers DevOps teams to troubleshoot network-related issues with precision and confidence.

Sysinternals Sysmon for Linux

Sysinternals Sysmon for Linux bridges the gap between Windows and Linux systems by bringing eBPF-powered observability to the Linux environment. It offers a seamless transition for administrators familiar with Windows Sysinternals tools. By enabling real-time tracking of process executions, file changes, and network connections, it equips Linux administrators with advanced monitoring capabilities, enhancing their ability to detect and respond to security incidents.


DeepFlow introduces a unique perspective by focusing on eBPF-enabled HTTP traffic analysis. This tool dives deep into the intricacies of application-layer communication over the HTTP protocol. By providing insights into request-response patterns, latency metrics, and broader application behavior, DeepFlow empowers developers and operators to optimize their applications for enhanced performance and responsiveness in the realm of web services.


The array of eBPF tools presented in this listicle collectively paint a vivid picture of the ongoing transformation in system monitoring and optimization. Spanning across network traffic analysis, microservices orchestration, application performance enhancement, container visibility, Kubernetes network insights, and comprehensive system event monitoring, these tools stand as exemplars of eBPF’s potential to reshape observability strategies.

As the eBPF ecosystem continues to evolve and mature, these tools stand as testimony to its capacity to redefine how administrators, developers, and DevOps teams navigate the intricate terrain of modern computing environments. The collaborative efforts of innovators, engineers, and visionaries have led to the creation of tools that not only address contemporary challenges but also pave the way for the future of observability.