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Contact Information
Professional Services Skill Category Descriptions
Experience providing Professional Services
ART Projects by GSA Contract SIN #
SIN 871-3 System Design, Engineering and Integration
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SIN 871-4 Test and Evaluation
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Project 15: Advanced Multi-Aircraft Shipboard Landing Model
Summary of Services Performed: Model aerodynamic interaction of multiple aircraft in a
shipboard environment
The goal of this SBIR was to develop physically based advanced aircraft/ship dynamic and
aerodynamic interaction models to support multi-aircraft shipboard landing simulation. The work
emphasized the development of critical modeling components for the multi-aircraft interaction
including an advanced horseshoe vortex model for wing interference and an advanced finite state
dynamic wake module and time-accurate distorted vortex model for rotor wake solution. To fully
address the complicated multi-aircraft/ship interaction, efforts were also made toward a
comprehensive integration of each modeling aspect including ship dynamics, ship airwake, high
fidelity rotorcraft blade element model, accurate landing gear modeling, rotor wake/ship deck
aerodynamic interaction, and rotor wake interference.
The development of multi-aircraft interference modeling and simulation will strongly benefit
aircraft shipboard operations and support the process of design, training, and planning. It will
also benefit commercial airlines for take-off and landing safety and improvement of terminal
area operation efficiency.
Advanced Rotorcraft Technology, Inc.
The following is additional reference information: SBIR Topic Number: N03-034
Title: Advanced Multi-Aircraft Shipboard Landing Model Significant breakthroughs have been made through this SBIR in developing advanced rotor wake
interference models in support of land-based and shipboard rotorcraft operations. Both a high
order finite state dynamic wake interference model and a time-accurate distorted vortex
interference model have been developed for multi-aircraft aerodynamic interaction simulation.
To accurately predict complicated shipboard multi-aircraft interference, the effects of the
unsteady ship airwake were also addressed. An efficient ship airwake model was developed
which can be used as a practical tool for ship airwake and rotor downwash interaction study.
The advanced rotor interference models developed can be applied for aircraft spacing and air
traffic control analysis and simulation. Coupled with an unsteady ship airwake interference
model, the rotor wake interference model can also provide a unified formulation for multiaircraft
shipboard landing analysis and simulation.
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