Zouhair E.

1) Identification of Pneumatic Valve for Airbus A320: Conducted the precise analysis and identification of a critical pneumatic valve, ensuring optimal regulation in the A320 air systems. This process improved system reliability and performance.

2) Recalibration of Air Conditioning Model for Embraer E-JET 175: Adjusted and optimized the air conditioning model, ensuring full compliance with safety and efficiency standards, while enhancing passenger comfort.

3) Modeling of Electric Air Conditioning System for Bombardier: Developed an accurate dynamic model for the electric air conditioning system, contributing to better energy management and a reduced carbon footprint for the aircraft.

4) Depressurization Study for Bombardier Global 7500: Carried out a detailed study on depressurization, ensuring structural integrity and passenger safety in critical situations.

Responsibilities and Skills:

Test Preparation and Execution: Prepared and conducted rigorous test procedures for the air conditioning system, ensuring the accuracy and reliability of the results.

Monitoring of Dynamic Test Campaigns: Meticulously monitored dynamic tests, identifying and resolving issues in real-time to ensure project timelines were met.

Modeling and Simulation using MATLAB/SIMULINK: Utilized MATLAB/SIMULINK to create sophisticated dynamic models, contributing to optimized design and a better understanding of system performance.

Correlation of Calculations and Test Results: Ensured accurate correlation between theoretical calculations and test results, which improved the credibility and validity of the developed models.

Writing Technical Reports: Authored comprehensive technical reports, providing detailed evidence and analysis to support design and validation phases.

Projects Completed:

1) Optimization of Flight Test Warning for ATR: Led the analysis and improvement of the 'Flight Test Warning' system, focusing on enhancing safety and operational efficiency. This work played a key role in reducing risks and optimizing flight test processes.

Development of a Compact Autopilot System for Helicopter at Thales: Actively participated in the design and development of an innovative autopilot system for helicopters. My contribution was crucial in miniaturizing and improving the performance of this system, making it more adaptable and efficient.

Responsibilities and Skills:

Analysis and Design of Control Systems: Conducted in-depth analyses of control architecture across different flight modes, contributing to the enhancement of autopilot functionality and reliability.

Management of Specifications and Evolutions: Analyzed specifications and requirements and handled change requests, ensuring the system remains state-of-the-art and meets client expectations.

Development of Software Test Scenarios: Designed test scenarios for flight computers, enabling proactive identification and correction of issues, thereby improving overall software quality.

Programming in Python: Used Python to develop tools and scripts, facilitating test automation and data analysis.

Management of IVV Activity (Integration, Validation, Verification): Ensured the coordination and success of the project's IVV activity, playing a key role in performance validation and standards compliance.

Writing Performance Reports: Authored detailed reports on flight modes, providing crucial insights for development teams and stakeholders.

1) Conversion of CJ610 Turbojet for Hydrogen Use: Played a central role in the innovative conversion of a CJ610 turbojet for hydrogen use, replacing traditional kerosene. My work included designing a control system to manage hydrogen flow rates and pressures, a crucial step in achieving desired speed performance and ensuring system safety.

Development of a Test Bench Control System: Developed an advanced control system for a cutting-edge test bench in Switzerland, enabling the evaluation of various equipment, including hydrogen-powered turbojets, afterburners, cryogenic tanks, and other components. This project involved creating a human-machine interface in C code, automating test procedures, and conducting thorough tests to ensure the system's reliability and accuracy under operational conditions.