AirGapDeposition Namespace Reference

Classes
class	velocityField

Functions
	run_simulation (kernel, new_layer, total_time, output_interval, name)

Variables
float	extent = 30.0
float	gridDelta = 0.5
tuple	bounds = (-extent, extent, -extent, extent)
tuple	boundaryCons
	substrate = vls.Domain(bounds, boundaryCons, gridDelta)
tuple	origin = (0.0, 0.0)
tuple	planeNormal = (0.0, 1.0)
	mesh = vls.Mesh()
	minNodeDistFactor
	trench = vls.Domain(bounds, boundaryCons, gridDelta)
tuple	minCorner = (-extent / 6.0, -25.0)
tuple	maxCorner = (extent / 6.0, 1.0)
	surfaceMeshBox = vls.ToSurfaceMesh(trench, mesh, minNodeDistFactor=0.02)
	surfaceMeshTrench = vls.ToSurfaceMesh(substrate, mesh, minNodeDistFactor=0.02)
	substrateFE = vls.Domain(substrate)
	newLayerFE = vls.Domain(substrateFE)
	substrateRK2 = vls.Domain(substrate)
	newLayerRK2 = vls.Domain(substrateRK2)
	substrateRK = vls.Domain(substrate)
	newLayerRK = vls.Domain(substrateRK)
	velocities = velocityField()
float	totalSimulationTime = 16.5
float	outputInterval = 0.5
	advectionKernelFE = vls.Advect()
	passedTimeFE
	advectionKernelRK2 = vls.Advect()
	passedTimeRK2
	advectionKernelRK = vls.Advect()
	passedTimeRK
	writer = vls.WriteVisualizationMesh()
	multiMeshKernel = vls.ToMultiSurfaceMesh(minNodeDistFactor=0.02)
	multiMesh = vls.Mesh()

Function Documentation

run_simulation()

run_simulation	(		kernel,
			new_layer,
			total_time,
			output_interval,
			name )

Variable Documentation

advectionKernelFE

AirGapDeposition.advectionKernelFE = vls.Advect()

advectionKernelRK

AirGapDeposition.advectionKernelRK = vls.Advect()

advectionKernelRK2

AirGapDeposition.advectionKernelRK2 = vls.Advect()

boundaryCons

tuple AirGapDeposition.boundaryCons

Initial value:

=  (
    vls.BoundaryConditionEnum.REFLECTIVE_BOUNDARY,
    vls.BoundaryConditionEnum.INFINITE_BOUNDARY,
)

bounds

tuple AirGapDeposition.bounds = (-extent, extent, -extent, extent)

extent

float AirGapDeposition.extent = 30.0

gridDelta

float AirGapDeposition.gridDelta = 0.5

maxCorner

tuple AirGapDeposition.maxCorner = (extent / 6.0, 1.0)

mesh

AirGapDeposition.mesh = vls.Mesh()

minCorner

tuple AirGapDeposition.minCorner = (-extent / 6.0, -25.0)

minNodeDistFactor

AirGapDeposition.minNodeDistFactor

multiMesh

AirGapDeposition.multiMesh = vls.Mesh()

multiMeshKernel

AirGapDeposition.multiMeshKernel = vls.ToMultiSurfaceMesh(minNodeDistFactor=0.02)

newLayerFE

AirGapDeposition.newLayerFE = vls.Domain(substrateFE)

newLayerRK

AirGapDeposition.newLayerRK = vls.Domain(substrateRK)

newLayerRK2

AirGapDeposition.newLayerRK2 = vls.Domain(substrateRK2)

origin

tuple AirGapDeposition.origin = (0.0, 0.0)

outputInterval

float AirGapDeposition.outputInterval = 0.5

passedTimeFE

AirGapDeposition.passedTimeFE

Initial value:

=  run_simulation(
    advectionKernelFE, newLayerFE, totalSimulationTime, outputInterval, "FE"
)

passedTimeRK

AirGapDeposition.passedTimeRK

Initial value:

=  run_simulation(
    advectionKernelRK, newLayerRK, totalSimulationTime, outputInterval, "RK3"
)

passedTimeRK2

AirGapDeposition.passedTimeRK2

Initial value:

=  run_simulation(
    advectionKernelRK2, newLayerRK2, totalSimulationTime, outputInterval, "RK2"
)

planeNormal

tuple AirGapDeposition.planeNormal = (0.0, 1.0)

substrate

AirGapDeposition.substrate = vls.Domain(bounds, boundaryCons, gridDelta)

substrateFE

AirGapDeposition.substrateFE = vls.Domain(substrate)

substrateRK

AirGapDeposition.substrateRK = vls.Domain(substrate)

substrateRK2

AirGapDeposition.substrateRK2 = vls.Domain(substrate)

surfaceMeshBox

AirGapDeposition.surfaceMeshBox = vls.ToSurfaceMesh(trench, mesh, minNodeDistFactor=0.02)

surfaceMeshTrench

AirGapDeposition.surfaceMeshTrench = vls.ToSurfaceMesh(substrate, mesh, minNodeDistFactor=0.02)

totalSimulationTime

float AirGapDeposition.totalSimulationTime = 16.5

trench

AirGapDeposition.trench = vls.Domain(bounds, boundaryCons, gridDelta)

velocities

AirGapDeposition.velocities = velocityField()

writer

AirGapDeposition.writer = vls.WriteVisualizationMesh()