Automate aerodynamic simulations for each candidate nozzle or ejector geometry.
Nozzles & Ejectors Aerodynamic Performance Optimization
SmartDO is used to optimize airway, nozzle and ejector geometry by connecting design parameters with CFD analysis and automated search algorithms. Shape modification can significantly improve pressure, velocity, flow uniformity and overall aerodynamic efficiency.
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Improve pressure, velocity and mass-flow performance through shape optimization.
Reduce separation, recirculation, turbulence loss and pressure drop where applicable.
Technical Optimization Objectives
SmartDO can evaluate multiple aerodynamic objectives and design constraints within one automated optimization process.
Mass-Flow Improvement
Optimize throat area, inlet profile and exit geometry to increase useful flow rate.
Pressure Recovery
Improve static pressure recovery while controlling adverse pressure gradients.
Velocity Uniformity
Reduce non-uniform flow distribution and improve downstream aerodynamic quality.
Ejector Performance
Optimize mixing chamber, primary nozzle and diffuser geometry for entrainment performance.
Typical SmartDO Workflow
The optimization process links parametric geometry, CFD analysis, performance objectives and engineering limitations.
Parameterize the Flow Path
Define inlet diameter, throat size, diffuser angle, curvature and other geometric variables.
Run Aerodynamic Simulation
Calculate pressure, velocity, turbulence, mass flow and flow separation behaviour.
Apply Design Constraints
Control package size, manufacturability, pressure limits, operating range and geometry boundaries.
Identify the Best Geometry
SmartDO searches for a design that improves aerodynamic performance while satisfying constraints.
Optimize Your Nozzle or Ejector Design
Use SmartDO to automate CFD-based shape optimization for improved flow performance, pressure control and aerodynamic efficiency.

