query_id stringlengths 26 53 | case_id stringlengths 17 44 | raw_text stringlengths 334 505 | parsed_text stringlengths 590 778 | video video 9.5 23.5 |
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backwardFacingStep2d_Re1025_s010__full__0 | backwardFacingStep2d_Re1025_s010 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is laminar, the domain spans about 6.275 by 2.031, the Reynolds number is about 1025, the reference velocity is about 0.9174, the kinematic viscosity is about 0.000895, colors encode velocity magnitud... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re1175_s004_r2__full__0 | backwardFacingStep2d_Re1175_s004_r2 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is laminar, the domain spans about 5.856 by 2.264, the Reynolds number is about 1175, the reference velocity is about 1.346, the kinematic viscosity is about 0.001146, colors encode velocity magnitude... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re11850_s008_r2__full__0 | backwardFacingStep2d_Re11850_s008_r2 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 5.324 by 1.881, the Reynolds number is about 11850, the reference velocity is about 1.319, the kinematic viscosity is about 0.0001113, colors encode velocity magni... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re1475_s012__full__0 | backwardFacingStep2d_Re1475_s012 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is laminar, the domain spans about 5.837 by 1.881, the Reynolds number is about 1475, the reference velocity is about 0.9384, the kinematic viscosity is about 0.0006362, colors encode velocity magnitu... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re2350_s014__full__0 | backwardFacingStep2d_Re2350_s014 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is laminar, the domain spans about 6.588 by 2.183, the Reynolds number is about 2350, the reference velocity is about 1.236, the kinematic viscosity is about 0.0005259, colors encode velocity magnitud... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re3375_s006_r2__full__0 | backwardFacingStep2d_Re3375_s006_r2 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is laminar, the domain spans about 6.921 by 2.218, the Reynolds number is about 3375, the reference velocity is about 1.349, the kinematic viscosity is about 0.0003997, colors encode velocity magnitud... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re3450_s016__full__0 | backwardFacingStep2d_Re3450_s016 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is laminar, the domain spans about 6.983 by 2.333, the Reynolds number is about 3450, the reference velocity is about 0.9131, the kinematic viscosity is about 0.0002647, colors encode velocity magnitu... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re3500_s007_r2__full__0 | backwardFacingStep2d_Re3500_s007_r2 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is laminar, the domain spans about 6.648 by 1.93, the Reynolds number is about 3500, the reference velocity is about 0.7009, the kinematic viscosity is about 0.0002003, colors encode velocity magnitud... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re3700_s001_r2__full__0 | backwardFacingStep2d_Re3700_s001_r2 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is laminar, the domain spans about 6.897 by 1.96, the Reynolds number is about 3700, the reference velocity is about 0.7393, the kinematic viscosity is about 0.0001998, colors encode velocity magnitud... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re3950_s013__full__0 | backwardFacingStep2d_Re3950_s013 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 6.213 by 1.945, the Reynolds number is about 3950, the reference velocity is about 0.7918, the kinematic viscosity is about 0.0002005, colors encode velocity magni... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re4500_s018__full__0 | backwardFacingStep2d_Re4500_s018 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 5.693 by 1.925, the Reynolds number is about 4500, the reference velocity is about 0.708, the kinematic viscosity is about 0.0001573, colors encode velocity magnit... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re4525_s005__full__0 | backwardFacingStep2d_Re4525_s005 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 6.57 by 2.164, the Reynolds number is about 4525, the reference velocity is about 0.9034, the kinematic viscosity is about 0.0001996, colors encode velocity magnit... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re4575_s011__full__0 | backwardFacingStep2d_Re4575_s011 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 5.747 by 1.993, the Reynolds number is about 4575, the reference velocity is about 0.9154, the kinematic viscosity is about 0.0002001, colors encode velocity magni... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re5050_s003__full__0 | backwardFacingStep2d_Re5050_s003 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 6.895 by 2.271, the Reynolds number is about 5050, the reference velocity is about 1.005, the kinematic viscosity is about 0.0001991, colors encode velocity magnit... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re5100_s019__full__0 | backwardFacingStep2d_Re5100_s019 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 6.598 by 1.896, the Reynolds number is about 5100, the reference velocity is about 1.016, the kinematic viscosity is about 0.0001993, colors encode velocity magnit... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re510_s006__full__0 | backwardFacingStep2d_Re510_s006 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is laminar, the domain spans about 6.946 by 2.254, the Reynolds number is about 510, the reference velocity is about 1.342, the kinematic viscosity is about 0.002631, colors encode velocity magnitude,... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re5650_s003_r2__full__0 | backwardFacingStep2d_Re5650_s003_r2 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 6.923 by 2.021, the Reynolds number is about 5650, the reference velocity is about 1.125, the kinematic viscosity is about 0.0001991, colors encode velocity magnit... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re5950_s015__full__0 | backwardFacingStep2d_Re5950_s015 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 5.815 by 2.199, the Reynolds number is about 5950, the reference velocity is about 1.185, the kinematic viscosity is about 0.0001992, colors encode velocity magnit... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re6150_s009__full__0 | backwardFacingStep2d_Re6150_s009 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 6.087 by 2.13, the Reynolds number is about 6150, the reference velocity is about 1.232, the kinematic viscosity is about 0.0002003, colors encode velocity magnitu... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re660_s002_r2__full__0 | backwardFacingStep2d_Re660_s002_r2 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is laminar, the domain spans about 6.447 by 2.025, the Reynolds number is about 660, the reference velocity is about 0.9352, the kinematic viscosity is about 0.001417, colors encode velocity magnitude... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re6750_s021__full__0 | backwardFacingStep2d_Re6750_s021 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 7.014 by 2.308, the Reynolds number is about 6750, the reference velocity is about 1.345, the kinematic viscosity is about 0.0001993, colors encode velocity magnit... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re680_s008__full__0 | backwardFacingStep2d_Re680_s008 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is laminar, the domain spans about 5.654 by 2.192, the Reynolds number is about 680, the reference velocity is about 0.9332, the kinematic viscosity is about 0.001372, colors encode velocity magnitude... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re6850_s005_r2__full__0 | backwardFacingStep2d_Re6850_s005_r2 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 6.146 by 2.357, the Reynolds number is about 6850, the reference velocity is about 1.371, the kinematic viscosity is about 0.0002002, colors encode velocity magnit... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re7150_s001__full__0 | backwardFacingStep2d_Re7150_s001 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 6.446 by 1.846, the Reynolds number is about 7150, the reference velocity is about 1.431, the kinematic viscosity is about 0.0002002, colors encode velocity magnit... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re7150_s007__full__0 | backwardFacingStep2d_Re7150_s007 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 6.017 by 2.072, the Reynolds number is about 7150, the reference velocity is about 1.432, the kinematic viscosity is about 0.0002002, colors encode velocity magnit... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
backwardFacingStep2d_Re7250_s020__full__0 | backwardFacingStep2d_Re7250_s020 | Identify the fluid mechanics benchmark video showing channel flow over a backward-facing step, the view is 2D, the flow is turbulent, the domain spans about 5.441 by 2.159, the Reynolds number is about 7250, the reference velocity is about 1.304, the kinematic viscosity is about 0.0001798, colors encode velocity magnit... | Find the 2D fluid mechanics video of channel flow over a backward-facing step, showing a separated shear layer and a recirculation zone forming behind the step. Physically, the flow separates at the step edge and reattaches downstream, trapping a slowly rotating recirculation bubble. The color map represents velocity m... | |
buoyancy2d_Re1025_s033__full__0 | buoyancy2d_Re1025_s033 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9845 by 0.9777, the Reynolds number is about 1025, the reference velocity is about 0.00743, the kinematic viscosity is about 0.0004878, colors encode veloci... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1100_s013_r2__full__0 | buoyancy2d_Re1100_s013_r2 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.002 by 1.005, the Reynolds number is about 1100, the reference velocity is about 0.02434, the kinematic viscosity is about 0.0004545, colors encode velocity... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1100_s034__full__0 | buoyancy2d_Re1100_s034 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.044 by 0.9478, the Reynolds number is about 1100, the reference velocity is about 0.01457, the kinematic viscosity is about 0.0004545, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1175_s035__full__0 | buoyancy2d_Re1175_s035 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.033 by 0.995, the Reynolds number is about 1175, the reference velocity is about 0.003578, the kinematic viscosity is about 0.0004255, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1250_s014_r2__full__0 | buoyancy2d_Re1250_s014_r2 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.007 by 1.073, the Reynolds number is about 1250, the reference velocity is about 0.002064, the kinematic viscosity is about 0.0004, colors encode velocity m... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re125_s000__full__0 | buoyancy2d_Re125_s000 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.035 by 0.9885, the Reynolds number is about 125, the reference velocity is about 0.02469, the kinematic viscosity is about 0.004, colors encode velocity mag... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re125_s000_r2__full__0 | buoyancy2d_Re125_s000_r2 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.086 by 1.054, the Reynolds number is about 125, the reference velocity is about 0.0145, the kinematic viscosity is about 0.004, colors encode velocity magni... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1275_s036__full__0 | buoyancy2d_Re1275_s036 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9203 by 1, the Reynolds number is about 1275, the reference velocity is about 0.0273, the kinematic viscosity is about 0.0003922, colors encode velocity mag... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re130_s001__full__0 | buoyancy2d_Re130_s001 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.041 by 1.058, the Reynolds number is about 130, the reference velocity is about 0.02294, the kinematic viscosity is about 0.003846, colors encode velocity m... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re135_s002__full__0 | buoyancy2d_Re135_s002 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9691 by 0.9819, the Reynolds number is about 135, the reference velocity is about 0.002028, the kinematic viscosity is about 0.003704, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1375_s037__full__0 | buoyancy2d_Re1375_s037 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9342 by 1.089, the Reynolds number is about 1375, the reference velocity is about 0.004894, the kinematic viscosity is about 0.0003636, colors encode veloci... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1450_s038__full__0 | buoyancy2d_Re1450_s038 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.03 by 0.9826, the Reynolds number is about 1450, the reference velocity is about 0.01596, the kinematic viscosity is about 0.0003448, colors encode velocity... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re145_s001_r2__full__0 | buoyancy2d_Re145_s001_r2 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9639 by 0.9647, the Reynolds number is about 145, the reference velocity is about 0.007995, the kinematic viscosity is about 0.003448, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re145_s003__full__0 | buoyancy2d_Re145_s003 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9728 by 1.091, the Reynolds number is about 145, the reference velocity is about 0.03787, the kinematic viscosity is about 0.003448, colors encode velocity ... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1550_s015_r2__full__0 | buoyancy2d_Re1550_s015_r2 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9462 by 1.064, the Reynolds number is about 1550, the reference velocity is about 0.01644, the kinematic viscosity is about 0.0003226, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1550_s039__full__0 | buoyancy2d_Re1550_s039 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.061 by 0.9994, the Reynolds number is about 1550, the reference velocity is about 0.00899, the kinematic viscosity is about 0.0003226, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re155_s004__full__0 | buoyancy2d_Re155_s004 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.06 by 1.014, the Reynolds number is about 155, the reference velocity is about 0.01229, the kinematic viscosity is about 0.003226, colors encode velocity ma... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1575_s016_r2__full__0 | buoyancy2d_Re1575_s016_r2 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.021 by 1.061, the Reynolds number is about 1575, the reference velocity is about 0.008763, the kinematic viscosity is about 0.0003175, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1575_s040__full__0 | buoyancy2d_Re1575_s040 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.096 by 1.048, the Reynolds number is about 1575, the reference velocity is about 0.02462, the kinematic viscosity is about 0.0003175, colors encode velocity... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re170_s005__full__0 | buoyancy2d_Re170_s005 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9463 by 0.9915, the Reynolds number is about 170, the reference velocity is about 0.02, the kinematic viscosity is about 0.002941, colors encode velocity ma... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1725_s041__full__0 | buoyancy2d_Re1725_s041 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.059 by 0.9532, the Reynolds number is about 1725, the reference velocity is about 0.006702, the kinematic viscosity is about 0.0002899, colors encode veloci... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re175_s006__full__0 | buoyancy2d_Re175_s006 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.023 by 0.9895, the Reynolds number is about 175, the reference velocity is about 0.03444, the kinematic viscosity is about 0.002857, colors encode velocity ... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re185_s007__full__0 | buoyancy2d_Re185_s007 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9399 by 1.059, the Reynolds number is about 185, the reference velocity is about 0.01896, the kinematic viscosity is about 0.002703, colors encode velocity ... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re1900_s042__full__0 | buoyancy2d_Re1900_s042 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.103 by 0.9255, the Reynolds number is about 1900, the reference velocity is about 0.01455, the kinematic viscosity is about 0.0002632, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re190_s008__full__0 | buoyancy2d_Re190_s008 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9388 by 0.9848, the Reynolds number is about 190, the reference velocity is about 0.03478, the kinematic viscosity is about 0.002632, colors encode velocity... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re215_s009__full__0 | buoyancy2d_Re215_s009 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1 by 1.007, the Reynolds number is about 215, the reference velocity is about 0.037, the kinematic viscosity is about 0.002326, colors encode velocity magnitu... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re2175_s043__full__0 | buoyancy2d_Re2175_s043 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9325 by 0.9491, the Reynolds number is about 2175, the reference velocity is about 0.006034, the kinematic viscosity is about 0.0002299, colors encode veloc... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re220_s010__full__0 | buoyancy2d_Re220_s010 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.011 by 1.056, the Reynolds number is about 220, the reference velocity is about 0.01091, the kinematic viscosity is about 0.002273, colors encode velocity m... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re240_s011__full__0 | buoyancy2d_Re240_s011 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9968 by 1.07, the Reynolds number is about 240, the reference velocity is about 0.02988, the kinematic viscosity is about 0.002083, colors encode velocity m... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re2425_s044__full__0 | buoyancy2d_Re2425_s044 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9256 by 1.12, the Reynolds number is about 2425, the reference velocity is about 0.007446, the kinematic viscosity is about 0.0002062, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re250_s012__full__0 | buoyancy2d_Re250_s012 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9288 by 1.075, the Reynolds number is about 250, the reference velocity is about 0.004542, the kinematic viscosity is about 0.002, colors encode velocity ma... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re2675_s045__full__0 | buoyancy2d_Re2675_s045 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.006 by 1.039, the Reynolds number is about 2675, the reference velocity is about 0.02018, the kinematic viscosity is about 0.0001869, colors encode velocity... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re275_s013__full__0 | buoyancy2d_Re275_s013 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9745 by 1.092, the Reynolds number is about 275, the reference velocity is about 0.0008934, the kinematic viscosity is about 0.001818, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re280_s014__full__0 | buoyancy2d_Re280_s014 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.054 by 1.071, the Reynolds number is about 280, the reference velocity is about 0.001058, the kinematic viscosity is about 0.001786, colors encode velocity ... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re2975_s046__full__0 | buoyancy2d_Re2975_s046 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.036 by 1.094, the Reynolds number is about 2975, the reference velocity is about 0.02272, the kinematic viscosity is about 0.0001681, colors encode velocity... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re310_s015__full__0 | buoyancy2d_Re310_s015 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9627 by 1.006, the Reynolds number is about 310, the reference velocity is about 0.02114, the kinematic viscosity is about 0.001613, colors encode velocity ... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re3300_s047__full__0 | buoyancy2d_Re3300_s047 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9363 by 0.9309, the Reynolds number is about 3300, the reference velocity is about 0.03114, the kinematic viscosity is about 0.0001515, colors encode veloci... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re330_s016__full__0 | buoyancy2d_Re330_s016 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.011 by 1.057, the Reynolds number is about 330, the reference velocity is about 0.003233, the kinematic viscosity is about 0.001515, colors encode velocity ... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re340_s017__full__0 | buoyancy2d_Re340_s017 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9957 by 0.9307, the Reynolds number is about 340, the reference velocity is about 0.02398, the kinematic viscosity is about 0.001471, colors encode velocity... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re360_s018__full__0 | buoyancy2d_Re360_s018 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.015 by 1.101, the Reynolds number is about 360, the reference velocity is about 0.02187, the kinematic viscosity is about 0.001389, colors encode velocity m... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re3625_s048__full__0 | buoyancy2d_Re3625_s048 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9276 by 1.029, the Reynolds number is about 3625, the reference velocity is about 0.02281, the kinematic viscosity is about 0.0001379, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re400_s019__full__0 | buoyancy2d_Re400_s019 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.004 by 1.034, the Reynolds number is about 400, the reference velocity is about 0.03623, the kinematic viscosity is about 0.00125, colors encode velocity ma... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re4125_s049__full__0 | buoyancy2d_Re4125_s049 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9707 by 0.9482, the Reynolds number is about 4125, the reference velocity is about 0.03326, the kinematic viscosity is about 0.0001212, colors encode veloci... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re420_s020__full__0 | buoyancy2d_Re420_s020 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9389 by 0.9523, the Reynolds number is about 420, the reference velocity is about 0.00326, the kinematic viscosity is about 0.00119, colors encode velocity ... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re430_s021__full__0 | buoyancy2d_Re430_s021 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.114 by 0.9248, the Reynolds number is about 430, the reference velocity is about 0.03766, the kinematic viscosity is about 0.001163, colors encode velocity ... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re440_s022__full__0 | buoyancy2d_Re440_s022 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.075 by 1.013, the Reynolds number is about 440, the reference velocity is about 0.01798, the kinematic viscosity is about 0.001136, colors encode velocity m... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re480_s023__full__0 | buoyancy2d_Re480_s023 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9491 by 0.9875, the Reynolds number is about 480, the reference velocity is about 0.007814, the kinematic viscosity is about 0.001042, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re510_s024__full__0 | buoyancy2d_Re510_s024 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.103 by 0.9271, the Reynolds number is about 510, the reference velocity is about 0.004197, the kinematic viscosity is about 0.0009804, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re540_s025__full__0 | buoyancy2d_Re540_s025 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9518 by 0.9266, the Reynolds number is about 540, the reference velocity is about 0.009183, the kinematic viscosity is about 0.0009259, colors encode veloci... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re590_s026__full__0 | buoyancy2d_Re590_s026 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.033 by 0.9698, the Reynolds number is about 590, the reference velocity is about 0.00155, the kinematic viscosity is about 0.0008475, colors encode velocity... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re620_s027__full__0 | buoyancy2d_Re620_s027 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9357 by 1.069, the Reynolds number is about 620, the reference velocity is about 0.02958, the kinematic viscosity is about 0.0008065, colors encode velocity... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re670_s028__full__0 | buoyancy2d_Re670_s028 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 0.9982 by 0.9784, the Reynolds number is about 670, the reference velocity is about 0.03971, the kinematic viscosity is about 0.0007463, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re760_s029__full__0 | buoyancy2d_Re760_s029 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.093 by 1.05, the Reynolds number is about 760, the reference velocity is about 0.02494, the kinematic viscosity is about 0.0006579, colors encode velocity m... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re800_s030__full__0 | buoyancy2d_Re800_s030 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.112 by 1.114, the Reynolds number is about 800, the reference velocity is about 0.0163, the kinematic viscosity is about 0.000625, colors encode velocity ma... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re860_s031__full__0 | buoyancy2d_Re860_s031 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.058 by 0.9661, the Reynolds number is about 860, the reference velocity is about 0.007513, the kinematic viscosity is about 0.0005814, colors encode velocit... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
buoyancy2d_Re960_s032__full__0 | buoyancy2d_Re960_s032 | Identify the fluid mechanics benchmark video showing buoyancy-driven convection above a heated patch, the view is 2D, the flow is laminar, the domain spans about 1.069 by 0.942, the Reynolds number is about 960, the reference velocity is about 0.03564, the kinematic viscosity is about 0.0005208, colors encode velocity ... | Find the 2D fluid mechanics video of buoyancy-driven convection above a heated patch, showing warm fluid rising from the heated region in buoyant plumes. Physically, heated fluid becomes lighter and rises, entraining cooler fluid and forming unsteady thermal plumes. The color map represents velocity magnitude, so risin... | |
cavity2d_turb_Re10000_s012_r2__full__0 | cavity2d_turb_Re10000_s012_r2 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 1.036 by 1.002, the Reynolds number is about 10000, the reference velocity is about 0.8343, the kinematic viscosity is about 8.343e-05, colors encode velocity magnitude, the peak ... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re10200_s021__full__0 | cavity2d_turb_Re10200_s021 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 1.026 by 1.058, the Reynolds number is about 10200, the reference velocity is about 0.8659, the kinematic viscosity is about 8.489e-05, colors encode velocity magnitude, the peak ... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re10350_s022__full__0 | cavity2d_turb_Re10350_s022 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 0.9684 by 1.075, the Reynolds number is about 10350, the reference velocity is about 1.275, the kinematic viscosity is about 0.0001232, colors encode velocity magnitude, the peak ... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re10750_s009_r2__full__0 | cavity2d_turb_Re10750_s009_r2 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 0.9911 by 1.094, the Reynolds number is about 10750, the reference velocity is about 0.877, the kinematic viscosity is about 8.159e-05, colors encode velocity magnitude, the peak ... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re10750_s023__full__0 | cavity2d_turb_Re10750_s023 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 1.041 by 1.069, the Reynolds number is about 10750, the reference velocity is about 1.362, the kinematic viscosity is about 0.0001267, colors encode velocity magnitude, the peak s... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re11150_s025__full__0 | cavity2d_turb_Re11150_s025 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 0.9547 by 0.9636, the Reynolds number is about 11150, the reference velocity is about 1.377, the kinematic viscosity is about 0.0001235, colors encode velocity magnitude, the peak... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re11350_s036__full__0 | cavity2d_turb_Re11350_s036 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 1.034 by 1.004, the Reynolds number is about 11350, the reference velocity is about 0.9451, the kinematic viscosity is about 8.327e-05, colors encode velocity magnitude, the peak ... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re11400_s024__full__0 | cavity2d_turb_Re11400_s024 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 0.9734 by 1.084, the Reynolds number is about 11400, the reference velocity is about 0.9499, the kinematic viscosity is about 8.332e-05, colors encode velocity magnitude, the peak... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re11550_s026__full__0 | cavity2d_turb_Re11550_s026 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 0.933 by 1.082, the Reynolds number is about 11550, the reference velocity is about 0.7682, the kinematic viscosity is about 6.651e-05, colors encode velocity magnitude, the peak ... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re11600_s010_r2__full__0 | cavity2d_turb_Re11600_s010_r2 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 1.02 by 1.089, the Reynolds number is about 11600, the reference velocity is about 1.236, the kinematic viscosity is about 0.0001066, colors encode velocity magnitude, the peak sp... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re11850_s032__full__0 | cavity2d_turb_Re11850_s032 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 1.089 by 0.951, the Reynolds number is about 11850, the reference velocity is about 0.9859, the kinematic viscosity is about 8.32e-05, colors encode velocity magnitude, the peak s... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re12000_s027__full__0 | cavity2d_turb_Re12000_s027 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 0.9294 by 1.065, the Reynolds number is about 12000, the reference velocity is about 1.439, the kinematic viscosity is about 0.0001199, colors encode velocity magnitude, the peak ... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re12400_s012__full__0 | cavity2d_turb_Re12400_s012 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 1.064 by 1.04, the Reynolds number is about 12400, the reference velocity is about 1.034, the kinematic viscosity is about 8.337e-05, colors encode velocity magnitude, the peak sp... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re12550_s011_r2__full__0 | cavity2d_turb_Re12550_s011_r2 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 1.062 by 1.038, the Reynolds number is about 12550, the reference velocity is about 0.9919, the kinematic viscosity is about 7.904e-05, colors encode velocity magnitude, the peak ... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re12650_s029__full__0 | cavity2d_turb_Re12650_s029 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 1.046 by 1.09, the Reynolds number is about 12650, the reference velocity is about 1.219, the kinematic viscosity is about 9.638e-05, colors encode velocity magnitude, the peak sp... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re12750_s030__full__0 | cavity2d_turb_Re12750_s030 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 0.9331 by 1.078, the Reynolds number is about 12750, the reference velocity is about 1.1, the kinematic viscosity is about 8.626e-05, colors encode velocity magnitude, the peak sp... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re13200_s048__full__0 | cavity2d_turb_Re13200_s048 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 0.9621 by 0.9711, the Reynolds number is about 13200, the reference velocity is about 1.101, the kinematic viscosity is about 8.341e-05, colors encode velocity magnitude, the peak... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... | |
cavity2d_turb_Re13550_s000_r2__full__0 | cavity2d_turb_Re13550_s000_r2 | Identify the fluid mechanics benchmark video showing a lid-driven cavity flow, the view is 2D, the flow is turbulent, the domain spans about 1.043 by 1.058, the Reynolds number is about 13550, the reference velocity is about 1.129, the kinematic viscosity is about 8.335e-05, colors encode velocity magnitude, the peak s... | Find the 2D fluid mechanics video of a lid-driven cavity flow, showing the moving lid dragging fluid into a large rotating vortex. Physically, the shear imposed by the sliding lid drives a primary vortex with weaker counter-rotating corner eddies. The color map represents velocity magnitude, so the brightest band follo... |
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Physics Bench Fluid Eval 700
This export mirrors the organization of gowitheflowlab/fluid-test:
- each scenario is a separate dataset config directory;
- each config contains
train-00000-of-00001.parquet; - parquet columns are
query_id,case_id,raw_text,parsed_text, and embeddedvideo; - each case keeps only the full self-contained query row, matching the one-row-per-case format used by
gowitheflowlab/physics-bench-dynamics-1900. - raw and parsed query text use the same user-query and normalized-query convention as
gowitheflowlab/physics-bench-dynamics-1900.
Total cases: 700 Total query rows: 700
Scenario counts:
backwardFacingStep2d: 26 cases, 26 full-query rowsbuoyancy2d: 56 cases, 56 full-query rowscavity2d_turb: 58 cases, 58 full-query rowsdye2d: 100 cases, 100 full-query rowsflowpastcylinder2d: 56 cases, 56 full-query rowsflowpastsquare2d: 44 cases, 44 full-query rowsjetaxi: 53 cases, 53 full-query rowsjetaxi_turb: 47 cases, 47 full-query rowslidDrivenCavity3d: 42 cases, 42 full-query rowsnaca0012airfoil2d: 100 cases, 100 full-query rowsrayleighBenard2d: 44 cases, 44 full-query rowssuddenContraction2d: 14 cases, 14 full-query rowssuddenExpansion2d: 21 cases, 21 full-query rowssuddenExpansion2d_nn_hb: 18 cases, 18 full-query rowssuddenExpansion2d_nn_powerlaw: 21 cases, 21 full-query rows
All embedded videos are H.264 (avc1, yuv420p).
Query version: fluid_eval_queries_v2_dynamics_aligned_raw_parsed (5-sentence natural-language parsed_text, aligned with physics-bench-dynamics-1900).
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