use super::{PrismaticPositionConstraint, PrismaticPositionGroundConstraint}; use crate::dynamics::{IntegrationParameters, PrismaticJoint, RigidBody}; use crate::math::{Isometry, Real, SIMD_WIDTH}; // TODO: this does not uses SIMD optimizations yet. #[derive(Debug)] pub(crate) struct WPrismaticPositionConstraint { constraints: [PrismaticPositionConstraint; SIMD_WIDTH], } impl WPrismaticPositionConstraint { pub fn from_params( rbs1: [&RigidBody; SIMD_WIDTH], rbs2: [&RigidBody; SIMD_WIDTH], cparams: [&PrismaticJoint; SIMD_WIDTH], ) -> Self { Self { constraints: array![|ii| PrismaticPositionConstraint::from_params(rbs1[ii], rbs2[ii], cparams[ii]); SIMD_WIDTH], } } pub fn solve(&self, params: &IntegrationParameters, positions: &mut [Isometry]) { for constraint in &self.constraints { constraint.solve(params, positions); } } } #[derive(Debug)] pub(crate) struct WPrismaticPositionGroundConstraint { constraints: [PrismaticPositionGroundConstraint; SIMD_WIDTH], } impl WPrismaticPositionGroundConstraint { pub fn from_params( rbs1: [&RigidBody; SIMD_WIDTH], rbs2: [&RigidBody; SIMD_WIDTH], cparams: [&PrismaticJoint; SIMD_WIDTH], flipped: [bool; SIMD_WIDTH], ) -> Self { Self { constraints: array![|ii| PrismaticPositionGroundConstraint::from_params(rbs1[ii], rbs2[ii], cparams[ii], flipped[ii]); SIMD_WIDTH], } } pub fn solve(&self, params: &IntegrationParameters, positions: &mut [Isometry]) { for constraint in &self.constraints { constraint.solve(params, positions); } } }