
Explore common performance patterns in distributed systems and learn automated detection techniques using CNCF's Keptn project for CI/CD pipelines, focusing on SLI/SLO-based quality gates.

Explore distributed consensus through "Skinny," a lock service. Learn Paxos protocol, design a simple consensus protocol, and tackle implementation challenges in distributed systems.

Insights on building an SRE team in a large enterprise, addressing challenges, establishing standards, and focusing on business priorities like security and cloud cost control.

Explores challenges and impacts of pervasive automation in SRE, discussing human factors, potential harm, and strategies for effective implementation in complex socio-technical systems.

Strategies for maximizing SRE impact with limited resources. Learn to leverage data, tools, and communication for effective small-scale SRE implementation and organizational influence.

Veteran systems engineer shares invaluable lessons from two decades of failures, offering insights on designing, running, and troubleshooting large-scale online services to help others avoid costly mistakes.

Explore secure pod-to-pod communication using Mutual TLS, focusing on certificate management, implementation in Golang and Java applications, and integration with Kubernetes for streamlined security.

Redesigning OS modularity using Rust, Theseus reduces inter-component state dependencies, enabling live evolution and fault recovery for core components beyond existing systems.

Explore RedLeaf, a Rust-based OS leveraging language safety for fine-grained isolation. Learn about innovative approaches to fault isolation, driver recovery, and performance in operating system design.

Innovative consensus protocol leveraging RDMA for microsecond-scale replication and rapid fail-over in latency-sensitive applications, significantly outperforming existing systems.

KungFu: adaptive distributed machine learning library for TensorFlow. Enables real-time parameter tuning using high-level policies, efficient monitoring, and asynchronous communication for improved training performance.

Explore a new CPU scheduler that achieves better quality of service through fast core allocation, outperforming resource partitioning systems in managing microsecond-scale interference between tasks.

Explores Frenzy, a novel programmable NIC design with high-performance switching interconnect and hybrid push/pull packet scheduler, addressing limitations in multi-tenant networks and diverse offloads.

Explore AIFM, a high-performance system enabling efficient use of remote memory in datacenters. Learn about its API, runtime, and benefits for applications facing memory constraints.

Ansor: A framework for generating high-performance tensor programs in deep learning, improving execution speed across various hardware platforms through innovative search strategies and optimization techniques.

Innovative consensus protocol for replicated state machines that maintains normal latency despite slowdown of any single replica, using pilot and copilot for redundancy and fast takeovers.

Explore LinnOS, an OS using neural networks to predict SSD performance, enhancing storage application efficiency and outperforming industrial mechanisms with minimal overhead.

Explores performance-optimal read-only transactions in distributed storage systems, introducing PORT design with version clocks for improved consistency and efficiency in applications like Scylla-PORT and Eiger-PORT.

Overload control scheme for microsecond-scale RPCs, using server-driven admission control with credits based on queueing delay. Employs demand speculation and piggybacking to optimize performance.

Explore a novel approach to machine learning inference systems that achieves predictable end-to-end performance, supporting thousands of models while meeting strict latency targets and request-level SLOs.

Explores efficient mitigation of transient execution attacks using the unmapped speculation contract, presenting Ward kernel design for improved performance without compromising security.