On The Validation of LES Applied to Internal Combustion Engine Flows: Part 1: Comprehensive Experimental Database

Improved understanding of in-cylinder flows requires knowledge from well-resolved experimental velocimetry measurements and flow simulation modeling. Engine simulations using large eddy simulations (LES) are making large progress and the need for well documented velocimetry measurements for model va...

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Veröffentlicht in:Flow, turbulence and combustion turbulence and combustion, 2014, Vol.92 (1-2), p.269-297
Hauptverfasser: Baum, E., Peterson, B., Böhm, B., Dreizler, A.
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container_end_page 297
container_issue 1-2
container_start_page 269
container_title Flow, turbulence and combustion
container_volume 92
creator Baum, E.
Peterson, B.
Böhm, B.
Dreizler, A.
description Improved understanding of in-cylinder flows requires knowledge from well-resolved experimental velocimetry measurements and flow simulation modeling. Engine simulations using large eddy simulations (LES) are making large progress and the need for well documented velocimetry measurements for model validation is high. This work presents velocimetry measurements from PIV, high-speed PIV, stereoscopic PIV, and tomographic PIV to extensively describe the in-cylinder flow field in a motored optical engine operating at 800 RPM. These measurements also establish a comprehensive database designed for LES model development and validation. Details of the engine, engine accessory components, and well-controlled boundary conditions and engine operation are presented. The first two statistical moments of the flow field are computed and show excellent agreement among the PIV database. Analysis of statistical moments based on limited sample size is presented and is important for modeling validation purposes. High-speed PIV resolved the instantaneous flow field throughout entire engine cycles (i.e. 719 consecutive crank-angles), while tomographic PIV images are further used to investigate the 3D flow field and identify regions of strong vortical structures identified by the Q-criterion. Principle velocity gradient components are computed and emphasize the need to resolve similar spatial scales between experimental and modeling efforts for suitable model validation.
doi_str_mv 10.1007/s10494-013-9468-6
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High-speed PIV resolved the instantaneous flow field throughout entire engine cycles (i.e. 719 consecutive crank-angles), while tomographic PIV images are further used to investigate the 3D flow field and identify regions of strong vortical structures identified by the Q-criterion. Principle velocity gradient components are computed and emphasize the need to resolve similar spatial scales between experimental and modeling efforts for suitable model validation.</description><subject>Applied sciences</subject><subject>Automotive Engineering</subject><subject>Computation</subject><subject>Energy</subject><subject>Energy. 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subjects Applied sciences
Automotive Engineering
Computation
Energy
Energy. Thermal use of fuels
Engineering
Engineering Fluid Dynamics
Engineering Thermodynamics
Engines
Engines and turbines
Equipments for energy generation and conversion: thermal, electrical, mechanical energy, etc
Exact sciences and technology
Fluid dynamics
Fluid- and Aerodynamics
Fundamental areas of phenomenology (including applications)
Heat and Mass Transfer
High speed
Instrumentation for fluid dynamics
Large eddy simulation
Mathematical models
Physics
Velocimetry
Velocity measurement
title On The Validation of LES Applied to Internal Combustion Engine Flows: Part 1: Comprehensive Experimental Database
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