2017
DOI: 10.1016/j.ijheatmasstransfer.2016.08.027
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Numerical analyses of transient flow characteristics within each nozzle hole of an asymmetric diesel injector

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Cited by 27 publications
(9 citation statements)
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“…In the fourth approach we find works such as Poorghasemi [28], which achieves a model that simulates 3D combustion and predicts emissions for direct injection (DI) and the controlled compression ignition method (RCCI) or Dezhi work Zhou [29] that studies the effect of injection timing on the start injection rate on emissions and combustion characteristics in a direct injection compression engine (DICI). Yu [30] that follows a multiphase model large eddy simulation-volume of fluid (LES-VOF) or the work of Fuying Xue [31] that opts for a homogeneous flow approach and fluid volume method to analyze the flow in each orifice in an asymmetric injection nozzle using a liquid-gas phase flow model. But the trend is clear to opt for CFD analysis, in this group we have worked like those of Marčič [32] who model the liquid jet phase using CFD and effects of eccentric movements [33].…”
Section: Discussionmentioning
confidence: 99%
“…In the fourth approach we find works such as Poorghasemi [28], which achieves a model that simulates 3D combustion and predicts emissions for direct injection (DI) and the controlled compression ignition method (RCCI) or Dezhi work Zhou [29] that studies the effect of injection timing on the start injection rate on emissions and combustion characteristics in a direct injection compression engine (DICI). Yu [30] that follows a multiphase model large eddy simulation-volume of fluid (LES-VOF) or the work of Fuying Xue [31] that opts for a homogeneous flow approach and fluid volume method to analyze the flow in each orifice in an asymmetric injection nozzle using a liquid-gas phase flow model. But the trend is clear to opt for CFD analysis, in this group we have worked like those of Marčič [32] who model the liquid jet phase using CFD and effects of eccentric movements [33].…”
Section: Discussionmentioning
confidence: 99%
“…As recently reported in [19], many other contributors [48,49] have considered the experiment of Winklhofer as a significant reference case. This experiment is based on the investigation of an optically accessible channel (inlet section 0.300 × 0.301 mm; outlet section 0.284 × 0.301 mm; 1 mm length, 0.02 mm inlet curvature radius).…”
Section: Cavitation Model Assessmentmentioning
confidence: 99%
“…The results reported in the literature have highlighted that the flow field upstream of the holes is directly affected by the needle position during injection. In more detail, the position of the needle determines the flow characteristics at each hole inlet, influencing the downstream fuel flow [18][19][20].…”
Section: Introductionmentioning
confidence: 99%
“…A group-hole nozzle (GHN) is a variation of this design, in which rather than being uniformly spaced, the nozzle holes are spaced closely together to form a group, with the groups, if more than one, being spaced around the tip. Because of their potential benefits to fuel consumption and emissions [16], GHNs, particularly in the form of a twin-hole nozzle (THN), have recently been a focus of interest [9,10,[16][17][18][19][20]. An important feature of GHNs is they enhance spray to spray interaction whether through direct merging of closely spaced sprays [9], or indirectly through modification to air entrainment into individual but unmerged sprays as they compete for the surrounding air.…”
Section: Introductionmentioning
confidence: 99%
“…For example, relative to a SHN with the same orifice diameter, the increased mass discharge which accompanies the increased number of holes in a GHN is likely to lead to reduced nozzle sac pressure [17]. Aside from altering nozzle exit velocities [13], this could also alter the nozzle needle lift profile particularly affecting the initial opening and closing transients [13,21].…”
Section: Introductionmentioning
confidence: 99%