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PRJ-001 // RESEARCH & DEVELOPMENT

Wind Harnessing Technology

A novel concept for automotive energy recovery, replacing the radiator fan with a small-scale, high-speed wind turbine. CFD-driven airfoil optimization for low-velocity, constrained-flow environments.

UNIVERSITY OF WATERLOO · MECHANICAL RESEARCH

Wind harnessing turbine CFD analysis
speed

Analysis

ANSYS CFD

design_services

Design

SolidWorks CAD

science

Domain

Aerodynamics

// PROJECT OVERVIEW

Recovering parasitic airflow.

The objective: rethink energy recovery in high-airflow, constrained environments. The radiator fan in a typical automotive cooling system pushes a continuous, turbulent volume of air, most of which dissipates as heat without recovering useful work.

By replacing the conventional fan with a small-scale, high-speed wind turbine sized for the cooling pack, parasitic losses can be captured as electrical output. The challenge: precisely tune blade profiles to operate efficiently inside a turbulent wake region without impeding the cooling airflow the engine still needs.

The work involved iterative blade-geometry studies in SolidWorks, paired with ANSYS CFD characterization of pressure, velocity, and angle-of-attack across the operating envelope.

Key Highlights

bolt

Energy recovery from cooling-pack airflow

tune

Iterative CFD-driven blade tuning

verified

Calibrated against turbulent wake conditions

Technical Documentation

CFD pressure field
FIG 1. CFD PRESSURE FIELD
CFD velocity vectors
FIG 2. VELOCITY VECTORS
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