Phillip Joseph mostly deals with Acoustics, Airfoil, Trailing edge, Aeroacoustics and Mechanics. His study in Acoustics is interdisciplinary in nature, drawing from both Low frequency and Electronic engineering. His research integrates issues of Laminar flow, Vortex shedding, NACA airfoil, Noise reduction and Wind tunnel in his study of Airfoil.
His study looks at the relationship between Trailing edge and topics such as Noise, which overlap with Serration. His study looks at the relationship between Aeroacoustics and fields such as Leading edge, as well as how they intersect with chemical problems. His study in the field of Turbulence and Heat transfer also crosses realms of Drop and Disc brake.
His primary scientific interests are in Acoustics, Airfoil, Noise, Trailing edge and Sound power. Phillip Joseph studies Acoustics, namely Aeroacoustics. His study explores the link between Airfoil and topics such as Turbulence that cross with problems in Rotor.
His Noise study combines topics in areas such as Electronic engineering and Simulation. His research in Trailing edge intersects with topics in Vortex shedding, Sawtooth wave, Wind tunnel and Boundary layer. His studies examine the connections between Sound power and genetics, as well as such issues in Sound pressure, with regards to Acoustic wave.
His scientific interests lie mostly in Acoustics, Leading edge, Airfoil, Noise and Mechanics. His Acoustics study incorporates themes from Trailing edge, Quantization and Near and far field. He has researched Leading edge in several fields, including Vortex, Vorticity, Noise control, Serration and Noise reduction.
His Airfoil research is multidisciplinary, incorporating perspectives in Chord, Surface pressure, Reduction, Turbulence and Stall. His work in Noise addresses issues such as Post stall, which are connected to fields such as Drag and Lift. His work in the fields of Pressure spectrum overlaps with other areas such as Cascade.
His scientific interests lie mostly in Acoustics, Leading edge, Airfoil, Noise reduction and Serration. His research brings together the fields of Water pipe and Acoustics. The concepts of his Airfoil study are interwoven with issues in Noise, Turbulence, Reynolds number and Stall.
Phillip Joseph interconnects Wave propagation, Frequency response, Wavenumber and Pressure measurement in the investigation of issues within Noise. Phillip Joseph has included themes like Noise control, Wavelength and Aeroacoustics in his Serration study. His Aeroacoustics research includes themes of Amplitude and Superposition principle.
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A model of the correlation function of leak noise in buried plastic pipes
Y. Gao;M.J. Brennan;P.F. Joseph;J.M. Muggleton.
Journal of Sound and Vibration (2004)
On the selection of acoustic/vibration sensors for leak detection in plastic water pipes
Y. Gao;M.J. Brennan;P.F. Joseph;J.M. Muggleton.
Journal of Sound and Vibration (2005)
A comparison of time delay estimators for the detection of leak noise signals in plastic water distribution pipes
Y. Gao;M.J. Brennan;P.F. Joseph.
Journal of Sound and Vibration (2006)
On the reduction of aerofoil-turbulence interaction noise associated with wavy leading edges
Jae Wook Kim;Sina Haeri;Phillip F. Joseph.
Journal of Fluid Mechanics (2016)
A numerical method for the calculation of dynamic response and acoustic radiation from an underwater structure
Q. Zhou;P.F. Joseph.
Journal of Sound and Vibration (2005)
Experimental and numerical investigation of turbulence-airfoil noise reduction using wavy edges
V. Clair;C. Polacsek;T. Le Garrec;G. Reboul.
AIAA Journal (2013)
On the mechanisms of serrated airfoil trailing edge noise reduction
Mathieu Gruber;Phillip F. Joseph.
aiaa ceas aeroacoustics conference (2011)
An experimental study of airfoil instability tonal noise with trailing edge serrations
Tze Pei Chong;Phillip F. Joseph.
Journal of Sound and Vibration (2013)
Performance and mechanism of sinusoidal leading edge serrations for the reduction of turbulence–aerofoil interaction noise
P. Chaitanya;P. Joseph;S. Narayanan;C. Vanderwel.
Journal of Fluid Mechanics (2017)
Active cancellation at a point in a pure tone diffuse sound field
S.J. Elliott;P. Joseph;A.J. Bullmore;P.A. Nelson.
Journal of Sound and Vibration (1988)
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