Engineering systems · Technical ownership · Delivery

Antoine Gabry

Flight Test Data Analysis Engineer — Kopter Group AG, Zurich

I build, own and operate the technical systems engineering teams depend on — from Python and PostgreSQL data platforms to operational tools — and increasingly take the requirements, architecture and delivery decisions around them. I currently do that in helicopter flight test at Kopter Group.

Where the work is documented in detail.

Each case study covers the problem, the technical decisions, the architecture and how the system behaves in operation.

Professional project

Flight-Test Data Operations

Architecture, development and daily production operation: event-driven orchestration, a priority and dependency model, parallel execution and PostgreSQL execution history.

~15 planned tasks per flight · processed data used by 50–75 engineering users · daily production operation

Read the case study
Professional project

Engineering Infrastructure Integration

Engineering-side requirements, architecture selection and technical acceptance; after the external consultants departed, delivery coordination across corporate IT, network, cybersecurity and cloud teams, including resolution and escalation of cross-organisational blockers.

Multi-year workstream · three architecture options assessed · ~15 servers and workstations in scope · legacy access retained through acceptance

Read the case study
Professional project

Airspace Visibility

Clarified requirements with instrumentation users, designed and built a decoupled Python replacement for a legacy antenna-tracking tool, then supported operational validation and handover.

10 Hz antenna position feed · validation from replay through live flights · documented operational handover

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Personal project

Swiss Parking Intelligence

A public-data product built and run end to end: city-specific adapters, PostgreSQL history, short-term forecast evaluation, a Flask/Leaflet interface and VPS operations.

5 Swiss cities · ~90 facilities · history since approximately September 2025 · live at findparking.ch

Read the case study

Also documented

  • Flight-Test Intelligence — A self-initiated PostgreSQL analytical platform, first implemented in late 2022, with automated ingestion and a shared Python access package.
All projects

Transferable engineering capabilities.

02

Make architecture decisions

Compare technical options against operational, cybersecurity and administrative constraints, then select an engineering-side solution.

See the infrastructure case study
04

Coordinate and hand over

Keep specialist teams aligned through technical acceptance and cutover, and document systems so operators can use and diagnose them independently.

See the operational handover

From flight-physics internships to owning flight-test data operations.

Jun 2022 – Present

Flight Test Data Analysis Engineer

Kopter Group AG · Zurich, Switzerland

  • Own the architecture, development and production operation of Python and PostgreSQL systems that turn high-rate flight-test sensor data into engineering results.
  • Represent flight-test engineering in requirements, architecture selection and technical acceptance for integrating a segregated engineering environment into corporate IT; coordinate specialist teams through blockers and cutover.
  • Current data operations support flight-test engineering investigations; earlier Kopter roles covered aircraft-performance analysis, MATLAB tooling, simulation validation against measured data and certification support.

Earlier roles at Kopter

What the work is built with.

Data and software

PythonPostgreSQLSQLDashFlaskPlotlyMATLAB

Systems and operations

Workflow orchestrationBackground workersData pipelinesDashboards and reportingProduction engineering systemsVPS deployment

Engineering

High-rate sensor and test dataSystem / aircraft performance analysisSimulation validation against measured dataCertification support (CS-27 / AC-27)Real-time positional data and hardware interfaces

Delivery

Requirements definitionArchitecture evaluation and selectionTechnical acceptanceCross-functional coordinationBlocker resolution and escalationCutover planning and operational handoverDocumentation and training