
Anthony Fontanetta contributed to the PURPL-Purdue/Turbopump repository by developing and refining simulation tools for turbopump nozzle sizing and performance analysis. Over three months, he overhauled the throat-area calculation to improve simulation fidelity, implemented Python-based nozzle sizing scripts, and updated engineering constants to support both cold gas and hot-fire turbine paths. His work focused on enhancing numerical accuracy, clarifying outputs, and streamlining code by removing unused MATLAB scripts. Leveraging skills in CFD, thermodynamics, and engineering calculations, Anthony’s technical approach reduced design iteration time and improved maintainability, resulting in more reliable and business-relevant simulation outcomes for turbopump development.
February 2025 monthly summary for PURPL-Purdue/Turbopump. Focused on improving nozzle sizing accuracy and output usability for turbopump design. Implemented Nozzle Sizing Calculation Improvements with updated mass flow constant, clarified and unit-updated outputs, and revised formulas for exhaust velocity and exit area. This work reduces design iteration time and improves downstream integration.
February 2025 monthly summary for PURPL-Purdue/Turbopump. Focused on improving nozzle sizing accuracy and output usability for turbopump design. Implemented Nozzle Sizing Calculation Improvements with updated mass flow constant, clarified and unit-updated outputs, and revised formulas for exhaust velocity and exit area. This work reduces design iteration time and improves downstream integration.
January 2025 Monthly Summary for PURPL-Purdue/Turbopump. Focused on codebase cleanliness, nozzle sizing tooling, and calibration updates to support cold testing. These changes improve maintainability, reduce confusion, and accelerate iteration cycles for nozzle design and testing.
January 2025 Monthly Summary for PURPL-Purdue/Turbopump. Focused on codebase cleanliness, nozzle sizing tooling, and calibration updates to support cold testing. These changes improve maintainability, reduce confusion, and accelerate iteration cycles for nozzle design and testing.
Concise monthly summary for 2024-11: Delivered a physics-informed overhaul of the throat-area calculation (A_throat) for PURPL-Purdue/Turbopump, enhancing simulation fidelity and business relevance. The change improves predictions for both cold gas integration and hot-fire turbine paths by refining throat area computation using characteristic velocity and initial pressure, updating constants for initial and exit pressures, and adjusting related parameters such as nozzle count and shaft power. The work was validated through commits that clearly document the improvements and provide traceability.
Concise monthly summary for 2024-11: Delivered a physics-informed overhaul of the throat-area calculation (A_throat) for PURPL-Purdue/Turbopump, enhancing simulation fidelity and business relevance. The change improves predictions for both cold gas integration and hot-fire turbine paths by refining throat area computation using characteristic velocity and initial pressure, updating constants for initial and exit pressures, and adjusting related parameters such as nozzle count and shaft power. The work was validated through commits that clearly document the improvements and provide traceability.

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