Particles interactions computation. More...

#include "resources/Scripts/types/types.h"
#include "resources/Scripts/KernelFunctions/Kernel.h"

Include dependency graph for Interactions.cl:

Macros
#define	__CLEARY__ 10.f

#define	_GRADP_ grad_p[i].XYZ

#define	_LAPU_ lap_u[i].XYZ

#define	_DIVU_ div_u[i]

Functions
__kernel void	entry (const __global int imove, const __global int imirrored, const __global vec r, const __global vec u, const __global float rho, const __global float m, const __global float p, __global vec grad_p, __global vec lap_u, __global float div_u, __global uint icell, __global uint ihoc, uint N, uivec4 n_cells)
	Particles interactions computation.

Detailed Description

Particles interactions computation.

Macro Definition Documentation

◆ CLEARY

#define __CLEARY__ 10.f

◆ _DIVU_

#define _DIVU_ div_u[i]

◆ _GRADP_

#define _GRADP_ grad_p[i].XYZ

◆ _LAPU_

#define _LAPU_ lap_u[i].XYZ

Function Documentation

◆ entry()

__kernel void entry	(	const __global int *	imove,
		const __global int *	imirrored,
		const __global vec *	r,
		const __global vec *	u,
		const __global float *	rho,
		const __global float *	m,
		const __global float *	p,
		__global vec *	grad_p,
		__global vec *	lap_u,
		__global float *	div_u,
		__global uint *	icell,
		__global uint *	ihoc,
		uint	N,
		uivec4	n_cells
	)

Particles interactions computation.

Compute the rates of variation due to the fluid (fixed particles will be included here).

During this stage some other operations are performed as well, like the values interpolation in the boundaries (for DeLeffe boundary conditions), the sensors meassurement, or the Shepard factor computation.

Parameters

imove	Moving flags. imove > 0 for regular fluid particles. imove = 0 for sensors. imove < 0 for boundary elements/particles.
imirrored	0 if the particle has not been mirrored, 1 otherwise.
r	Position \( \mathbf{r} \).
u	Velocity \( \mathbf{u} \).
rho	Density \( \rho \).
m	Mass \( m \).
p	Pressure \( p \).
grad_p	Pressure gradient \( \frac{\nabla p}{rho} \).
lap_u	Velocity laplacian \( \frac{\Delta \mathbf{u}}{rho} \).
div_u	Velocity divergence \( \rho \nabla \cdot \mathbf{u} \).
icell	Cell where each particle is located.
ihoc	Head of chain for each cell (first particle found).
N	Number of particles.
n_cells	Number of cells in each direction

Here is the call graph for this function:

Macros

Functions