3D simulation of nanopowder growth & transport

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3D simulation of nanopowder growth & transport

By Conventional method
(Method-I*)

By Present method
(Method-III*)

Iso-surfaces: log[n_p(#/m³)] = 18.3, 19.0, 19.7

Iso-surfaces: log[n_p(#/m³)] = 18.3, 19.0, 19.7

Iso-surface: log[n_p(#/m³)] = 18.5 (colors: mean diameters)

Iso-surface: log[n_p(#/m³)] = 18.5 (colors: mean diameters)

Number density on y = 0 (z > 0) and z = 0 (y > 0)

Number density on y = 0 (z > 0) and z = 0 (y > 0)

Mean diameter on y = 0 (z > 0) and z = 0 (y > 0)

Mean diameter on y = 0 (z > 0) and z = 0 (y > 0)

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*Masaya Shigeta: "Turbulence modelling of thermal plasma flows",
Journal of Physics D: Applied Physics, Vol. 49, (2016), pp. 493001.

See also ... (OPEN ACCESS)
Masaya Shigeta: Journal of Flow Control, Measurement & Visualization,
Vol. 6, (2018), pp. 107-123.

By Conventional method (Method-I*)	By Present method (Method-III*)
*Iso-surfaces: log[n_p(#/m³)] = 18.3, 19.0, 19.7*	*Iso-surfaces: log[n_p(#/m³)] = 18.3, 19.0, 19.7*
*Iso-surface: log[n_p(#/m³)] = 18.5 (colors: mean diameters)*	*Iso-surface: log[n_p(#/m³)] = 18.5 (colors: mean diameters)*
Number density on y = 0 (z > 0) and z = 0 (y > 0)	Number density on y = 0 (z > 0) and z = 0 (y > 0)
Mean diameter on y = 0 (z > 0) and z = 0 (y > 0)	Mean diameter on y = 0 (z > 0) and z = 0 (y > 0)