Master's research in progressAn in-progress Master's study of contention-aware work-stealing scheduler design. The work examines how task-queue structure, block-oriented access patterns, steal policies, task granularity, and workload skew affect multicore scheduling behavior.
Parallel Computing And Concurrent Scheduling
Studying contention-aware work stealing, task-queue design, synchronization behavior, reproducible scheduler benchmarks, and multicore performance evaluation through an active Master's research study.
Distributed Systems And Observability
Exploring how services expose useful pressure signals through metrics, logs, traces, queues, load tests, and runtime dashboards before scaling decisions are trusted.
AI-Assisted Infrastructure
Studying how AI-enabled workflows can support infrastructure operations while preserving approval gates, audit trails, rollback behavior, and human control.
Intelligent Scheduling And Autoscaling
Investigating how workload profiles, latency, saturation, queue depth, and cost signals can inform future scheduling and autoscaling policies.
Research-Oriented Engineering Labs
Building small, inspectable systems that turn complex ideas into measurable experiments across browser execution, monitoring, automation, and distributed behavior.
AI Engineering
Agentic AI workflow architecture with permissions, approval gates, audit trails, retries, and recovery paths
AI Engineering
LLM-assisted developer productivity and workflow automation for engineering teams
AI Engineering
Observability foundations for AI workloads, queues, traces, metrics, logs, cost visibility, and scaling signals
AI Engineering
Intelligent software systems that combine backend architecture, cloud infrastructure, and AI-enabled decision support