ViníciusRomualdoFULL-STACK SOFTWARE ENGINEER

Ownership claims, provider webhooks, and local records had to remain coherent across an asynchronous journey with multiple failure modes.

Treat consistency as an explicit lifecycle, with idempotency and reconciliation instead of relying on the illusion of one synchronous request.

Event-driven state transitions, idempotent consumers, and recovery paths aligned local and external state while keeping each step observable.

Led the backend work from architectural design and data modeling through integrations, infrastructure, rollout, and production observability.

Audit records were essential, but repeated service-level implementations multiplied code, inconsistencies, and maintenance cost.

Create and maintain the team’s first shared library so services could adopt one contract without rebuilding the same capability.

A common audit contract and reusable capture layer separated the shared rules from each product flow while preserving observability.

Created and maintained the team’s first shared library, reducing duplicated implementation and making a common contract easier for services to adopt.

Legacy flows carried production knowledge and business risk that could not simply be moved into a new service all at once.

Separate responsibilities and migrate gradually, making compatibility, observability, and recovery part of the modernization plan.

API- and event-based boundaries reduced coupling while parallel paths and operational signals supported a controlled transition.

Worked directly on evolving legacy flows while keeping gradual migration, observability, and recovery as explicit parts of the change.

Decommissioning a service was a long and delicate process spread across manual checks and multiple internal systems, making dependencies, risks, and required steps difficult to see.

Replace the fragmented checklist with an AI-assisted workflow that gathers context before proposing action while keeping engineers in control of the final decisions.

Model Context Protocol (MCP) servers connected the tool to internal platforms, aggregating service ownership, dependencies, runtime signals, and operational context into a unified view.

Developed the internal tool and guided flow that turns cross-system discovery into an actionable decommissioning plan that is easier to understand and execute.