Honda Motor Co., Ltd.

James T McKillen

Matthew L Metka

Aron K Madsen

Kurtis Ray Horner

Atsushi Ogawa

Fabian J Vigil

Michael R Missig

Karl Forster

Craig Kline

Kurt A Zielinski

Matthew Vernon Roehl

Shujiro Yano

Bob Larson

Yasuyuki Onishi

Mike Unger

Kenichi Teshima

Ann Boh Stockburger

Mayur A Agrawal

A turbulence generation system includes a vane assembly to direct airflow from a nozzle. The vane assembly includes at least two vertically oriented nozzle contraction vanes, a pair of vertically oriented nozzle exit vanes, and at least one horizontally oriented vane. The nozzle contraction vanes are located within the nozzle upstream of a nozzle air outlet. Each nozzle contraction vane rotationally moves independent of the other nozzle contraction vane to generate airflow pressure loss, turbulence and/or flow vectoring. The nozzle exit vanes are downstream of the air outlet and rotationally move to generate higher angles of dynamic yaw or a quick yaw input. The nozzle exit vanes are positioned laterally inward from first and second sidewalls of the nozzle. The horizontally oriented vane is positioned downstream of nozzle contraction vanes and upstream of the nozzle exit vanes and rotationally moves to generate up-wash or downwash.

Turbulence generation system

An aerodynamic system for a vehicle having a plurality of heat exchangers can include a front assembly, a pair of front fenders, a hood, a ducting assembly, and a rear assembly. The front assembly can include air inlets. The air inlets can be in fluid communication with at least one of the heat exchangers. The pair of front fenders can include fender outlets in fluid communication with at least one of the heat exchangers. The ducting assembly can be in fluid communication with at least one of the plurality of heat exchangers. The rear assembly can include raised C-pillars, air inlets adjacent the pair of raised C-pillars, a rear spoiler, a rear diffuser, and rear slot assemblies adjacent the rear spoiler.

Apparatus and methods for manipulating airflow around and through a vehicle

The present invention generally relates to processes for predicting airflow rates. According to some embodiments, some process steps can include developing a three-dimensional computer-aided design model of a test body topology; discretizing the test body topology; discretizing a volume surrounding the test body topology, the volume being bounded by a test chamber; identifying test body components upon which to collect empirical data; obtaining empirical data for identified components; establishing an airflow model; validating the airflow model in comparison to experimental data; obtaining a flow rate from the validated airflow model; and determining whether the mass flow rate is acceptable.

Efficient process for evaluating engine cooling airflow performance

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Marysville, OH, United States of America

James T McKillen