I design and operate networks with a packet-level mindset: dependable routing, clean segmentation, measurable performance, and recovery paths that behave under pressure.
Network engineering is a visibility problem as much as a configuration problem. The goal is to make paths understandable before incidents become mysteries.
I work across routing, switching, security controls, monitoring and incident response, translating topology and requirements into configurations that are testable, documented and maintainable.
My operating style is deliberately methodical: isolate the layer, validate the signal, change the smallest useful thing, then verify the path again.
Capability clusters are presented as network layers rather than generic percentage bars.
IP addressing, static routing, OSPF concepts, path selection, route summarization and segmentation.
VLANs, trunks, STP fundamentals, port configuration and structured LAN design.
ACLs, firewall policy thinking, secure access patterns and reduction of unnecessary exposure.
Latency, packet loss, interface health, logs and telemetry turned into actionable signals.
Branch connectivity, tunnel troubleshooting, resilient paths and practical service restoration.
Python, API workflows, configuration standards and repeatable validation that reduce drift.
A career progression built around infrastructure reliability, layered troubleshooting and operational ownership.
Own multi-site routing strategy, network reliability, migration planning and incident command across critical environments.
Modernized campus and data-center switching, introduced telemetry standards and reduced change-related incidents.
Handled NOC escalation, WAN troubleshooting, VPN operations and structured root-cause reviews for a distributed estate.
Supported LAN and WAN delivery, monitoring, rack builds and technical documentation while developing packet-level troubleshooting skills.
Representative initiatives framed as topology problems: the constraint, the route, and the measurable outcome.
Mapped asymmetric paths, tightened route preferences and introduced clearer health signals so branch failover could be validated instead of assumed.
Reworked VLAN and ACL structure to separate critical workloads while keeping operational access practical.
Standardized interface, latency and packet-loss telemetry to shorten the path from alert to root cause.