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Journal Articles
Journal:
Journal of Fluids Engineering
Article Type: Research-Article
J. Fluids Eng. July 2023, 145(7): 071303.
Paper No: FE-22-1582
Published Online: March 24, 2023
Journal Articles
Journal:
Journal of Fluids Engineering
Article Type: Research-Article
J. Fluids Eng. June 2023, 145(6): 061106.
Paper No: FE-22-1483
Published Online: March 24, 2023
Journal Articles
Journal:
Journal of Fluids Engineering
Article Type: Research-Article
J. Fluids Eng. July 2023, 145(7): 071302.
Paper No: FE-22-1494
Published Online: March 24, 2023
Topics:
Cylinders,
Flow control,
Porosity,
Flow (Dynamics),
Drag (Fluid dynamics),
Circular cylinders,
Pressure,
Vorticity
Includes: Supplementary data
Journal Articles
Journal:
Journal of Fluids Engineering
Article Type: Research-Article
J. Fluids Eng. July 2023, 145(7): 071204.
Paper No: FE-22-1341
Published Online: March 24, 2023
Journal Articles
Journal:
Journal of Fluids Engineering
Article Type: Research-Article
J. Fluids Eng. July 2023, 145(7): 071205.
Paper No: FE-22-1620
Published Online: March 24, 2023
Image
in Experimental Study of The Pressure-Time Method With Potential Application for Low-Head Hydropower
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 2 The schematic of the water hammer test rig More
Image
in Experimental Study of The Pressure-Time Method With Potential Application for Low-Head Hydropower
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 3 The location of the instrument More
Image
in Experimental Study of The Pressure-Time Method With Potential Application for Low-Head Hydropower
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 4 Pressure taps arrangement More
Image
in Experimental Study of The Pressure-Time Method With Potential Application for Low-Head Hydropower
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 5 Amplitude of pressure signal in the test rig pressure measurement for two tubing length More
Image
in Experimental Study of The Pressure-Time Method With Potential Application for Low-Head Hydropower
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 6 The pressure oscillation and error of flowrate with different endpoints in the pressure-time method for measured data between sections B and D More
Image
in Experimental Study of The Pressure-Time Method With Potential Application for Low-Head Hydropower
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 7 Histogram of estimated flowrate based on MCM More
Image
in Experimental Study of The Pressure-Time Method With Potential Application for Low-Head Hydropower
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 8 Histogram of estimated error based on MCM-vertical lines area of probability with 95% confidence More
Image
in Experimental Study of The Pressure-Time Method With Potential Application for Low-Head Hydropower
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 9 Flowrate error between section D and E with fourassumptions: constant α and constant friction factor ( α Con − f Con ), constant α and quasi-steady friction factor ( α Con − f QS ), quasi-steady α and constant friction factor ( α QS − f Con ), quasi-steady α , and quasi-ste... More
Image
in Experimental Study of The Pressure-Time Method With Potential Application for Low-Head Hydropower
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 10 Flowrate error for three cases (sections C and D, sections B and C, and sections B and D) with the quasi-steady assumption and friction factor coefficient. The bars represent the random uncertainty with the 95% confidence. More
Image
in Experimental Study of The Pressure-Time Method With Potential Application for Low-Head Hydropower
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 11 The concentric reducer geometry used for derivation of equations More
Image
in Workflow Comparison for Combined 4D MRI/CFD Patient-Specific Cardiovascular Flow Simulations of the Thoracic Aorta
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 1 Illustration of geometry reconstruction workflow from 4D MRI. O1-O4 represent outlets; BCA: brachiocephalic artery, LCCA: left common carotid artery, LSA: left subclavian artery, and DA: descending aorta. More
Image
in Workflow Comparison for Combined 4D MRI/CFD Patient-Specific Cardiovascular Flow Simulations of the Thoracic Aorta
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 2 Computational mesh used for the simulations and associated element quality histogram. Inset shows a cross section of the mesh where the boundary layer elements can be observed. More
Image
in Workflow Comparison for Combined 4D MRI/CFD Patient-Specific Cardiovascular Flow Simulations of the Thoracic Aorta
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 3 Schematic of the 3-element Windkessel model. R 1 and R 2 represent the proximal and distal resistances of branching vessels, respectively. C represents the compliance of the arterial wall. More
Image
in Workflow Comparison for Combined 4D MRI/CFD Patient-Specific Cardiovascular Flow Simulations of the Thoracic Aorta
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 4 Time-averaged velocity field at the domain inlet and corresponding 4D MRI data More
Image
in Workflow Comparison for Combined 4D MRI/CFD Patient-Specific Cardiovascular Flow Simulations of the Thoracic Aorta
> Journal of Fluids Engineering
Published Online: March 24, 2023
Fig. 5 Flow and pressure waveforms in different branches (BCA: brachiocephalic artery, LCCA: left common carotid artery, LSA: left subclavian artery, and DA: descending aorta) More