About the job
Join Our Team at Harmattan AI
At Harmattan AI, we are pioneering the development of autonomous and scalable defense systems, aiming to provide cutting-edge solutions for allied forces. With a recent $200M Series B funding round that has elevated our valuation to $1.4 billion, we are poised for rapid growth and innovation.
Our core values drive us to create technologies that make a real-world impact, pursue excellence relentlessly, and tackle the most challenging technical hurdles. We thrive in a high-performance environment where accountability, precision, and execution are paramount.
As an Aerodynamics Testing Engineer, you will play a crucial role in bridging the gap between theoretical simulations and real-world applications. Your primary responsibility will be to validate the flight dynamics of our advanced UAV platforms, which include long-endurance fixed-wing aircraft and high-speed eVTOLs.
You will lead the design, execution, and analysis of experimental campaigns to ensure that our aircraft meet efficiency, stability, and safety standards. Utilizing rapid prototyping techniques, you will transform aerodynamic concepts into flight-ready prototypes and ground testing models, ensuring a seamless transition from CFD predictions to actual performance.
Collaboration will be key as you work closely with the Mechanical (Meca) team to design and manufacture specialized testing rigs and instrumented prototypes, translating aerodynamic concepts into durable and testable hardware.
Key Responsibilities
Prototype Development: Design and fabricate prototypes using materials such as foam, 3D printing, and composites to optimize aerodynamic shapes.
Flight Testing: Oversee flight test campaigns for both fixed-wing and eVTOL platforms. Define test plans and safety protocols to gather aerodynamic data and conduct flight log analysis for model validation.
Wind Tunnel Experiments: Design and perform wind tunnel tests and static thrust assessments, including the creation of instrumented scale models and automated data acquisition systems to evaluate propulsion efficiency and airframe performance.
Data Correlation: Align simulation data with experimental outcomes to enhance model accuracy. Develop comprehensive Aerodynamic Databases (ADB) to assess vehicle performance across the entire flight envelope.
Instrumentation: Integrate various sensors, including Pitot-static systems and load cells, to facilitate comprehensive performance measurements.

