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RD Keane, RJ Adrian (1990)
Optimization of Particle Image Velocimeters. Part I: double exposed systemsMeas Sci Technol, 1
T. Verstraete, Z. Alsalihi, R. Braembussche (2007)
Multidisciplinary Optimization of a Radial Compressor for Micro Gas Turbine Applications
James Poncer, R. Bharadwaj, J. Jacob (2002)
PIV MEASUREMENTS IN RIBBED DUCTS WITH AND WITHOUT ROTATION
J. Moore (1973)
A Wake and an Eddy in a Rotating, Radial-Flow Passage—Part 1: Experimental ObservationsJournal of Engineering for Power, 95
P. Bradshaw (1969)
The analogy between streamline curvature and buoyancy in turbulent shear flowJournal of Fluid Mechanics, 36
J. Johnston (1998)
Effects of System Rotation on Turbulence Structure:A Review Relevant to Turbomachinery FlowsInternational Journal of Rotating Machinery, 4
Richard Keane, R. Adrian (1990)
Optimization of particle image velocimeters. I, Double pulsed systemsMeasurement Science and Technology, 1
H. Koyama, K. Uchikawa, H. Nigim (1997)
Effects of Coriolis Force on Flow in Rotating DiffusersAIAA Journal, 35
Richard Keane, R. Adrian (1990)
Optimization of particle image velocimeters, 1404
H. Iacovides, D. Kounadis, B. Launder, Jiankang Li, Zeyuan Xu (2004)
Experimental Study of the Flow and Thermal Development of a Row of Cooling Jets Impinging on a Rotating Concave SurfaceJournal of Turbomachinery-transactions of The Asme, 127
J. Bons, J. Kerrebrock (1999)
1998 Heat Transfer Committee Best Paper Award: Complementary Velocity and Heat Transfer Measurements in a Rotating Cooling Passage With Smooth WallsJournal of Turbomachinery-transactions of The Asme, 121
Carlos García, P. Jackson, Marcelo García (2006)
Confidence intervals in the determination of turbulence parametersExperiments in Fluids, 40
H Bruun (1996)
Hot-Wire Anemometry: Principles and Signal AnalysisMeasurement Science and Technology, 7
J. Westerweel (2000)
Effect of Sensor Geometry on the Performance of PIV Interrogation
S. Wereley, L. Gui, C. Meinhart (2002)
Advanced Algorithms for Microscale Particle Image VelocimetryAIAA Journal, 40
M. Raffel (2002)
Particle Image Velocimetry: A Practical Guide
J. Zhou, R. Adrian, S. Balachandar, T. Kendall (1999)
Mechanisms for generating coherent packets of hairpin vortices in channel flowJournal of Fluid Mechanics, 387
J. Bons, J. Kerrebrock (1998)
Complementary Velocity and Heat Transfer Measurements in a Rotating Cooling Passage With Smooth Walls
J. Bons (1997)
Complementary Velocity and Heat Transfer Measurements in a Rotating Turbine Cooling Passage.
R. Theunissen, A. Sante, M. Riethmuller, R. Braembussche (2008)
Confidence estimation using dependent circular block bootstrapping: application to the statistical analysis of PIV measurementsExperiments in Fluids, 44
H. Iacovides, D. Kounadis, B. Launder, Jiankang Li, Zeyuan Xu (2004)
Experimental Study of the Flow and Thermal Development of a Row of Cooling Jets Impinging on a Rotating Concave Surface (Paper GT2004-t2344)
P. Rothe (1975)
The effects of system rotation on separation, reattachment and performance in two-dimensional diffusers
R. Abernethy, R. Benedict, R. Dowdell (1985)
ASME Measurement UncertaintyJournal of Fluids Engineering-transactions of The Asme, 107
O. Ronneberger, M. Raffel, J. Kompenhans (1998)
Advanced evaluation algorithms for standard and dual plane particle image velocimetry.
J Moore (1973)
A Wake and Eddy in a rotating radial flow passage, Part 1: experimental observations.ASME J Eng Power, 95
F. Scarano, M. Riethmuller (2000)
Advances in iterative multigrid PIV image processingExperiments in Fluids, 29
A new facility to measure the time evolution of 2D velocity fields in a rotating channel is presented, and the accuracy is discussed in detail. Measurements are made by means of a time-resolved PIV system composed of a continuous laser diode, coupled by a fiber optics cable to a laser plane optical module, and a CMOS high-speed camera. Both the PIV system and divergent channel are fixed on a 2.5 m rotating disk. This allows a direct measurement of the relative velocity of flows with Reynolds numbers between 3 × 103 and 3 × 104 and Rotation numbers between 0.0 and 0.52. These values correspond to the flow conditions in small radial impellers and can be independently adjusted by a change of the relative flow velocity and RPM. It is shown that this new facility allows high signal-to-noise ratios, and that the direct acquisition of the data in a rotating frame drastically reduces the measurement error. The accuracy and high spatial and temporal resolution of the measurements allow a detailed analysis of boundary layer characteristics in stationary and rotating conditions.
Experiments in Fluids – Springer Journals
Published: Sep 13, 2007
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