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Author SHA1 Message Date
91f8652ece fix fix 2023-10-26 20:24:43 -07:00
0ec0d24302 the goober 2023-10-26 20:20:12 -07:00
f7ee18076a iter wrong code but it has no red squiggle 2023-10-26 20:16:45 -07:00
ee7df7787a stack :( 2023-10-26 20:01:26 -07:00
db5f4e1da3 fix usage 2023-10-26 20:01:26 -07:00
01a8efe4d4 return fixed length array and len to avoid heap allocation 2023-10-26 19:51:14 -07:00
32 changed files with 1408 additions and 3030 deletions

829
Cargo.lock generated

File diff suppressed because it is too large Load Diff

@ -1,6 +1,6 @@
[package]
name = "strafe-client"
version = "0.9.0"
version = "0.8.0"
edition = "2021"
# See more keys and their definitions at https://doc.rust-lang.org/cargo/reference/manifest.html
@ -18,7 +18,7 @@ rbx_binary = "0.7.1"
rbx_dom_weak = "2.5.0"
rbx_reflection_database = "0.2.7"
rbx_xml = "0.13.1"
wgpu = "0.18.0"
wgpu = "0.17.0"
winit = { version = "0.29.2", features = ["rwh_05"] }
#[profile.release]

@ -1,9 +1,18 @@
use crate::integer::Planar64Vec3;
#[derive(Debug,Clone,Copy,Hash,Eq,PartialEq)]
pub enum AabbFace{
Right,//+X
Top,
Back,
Left,
Bottom,
Front,
}
#[derive(Clone)]
pub struct Aabb{
min:Planar64Vec3,
max:Planar64Vec3,
pub min:Planar64Vec3,
pub max:Planar64Vec3,
}
impl Default for Aabb {
@ -13,6 +22,17 @@ impl Default for Aabb {
}
impl Aabb{
const VERTEX_DATA:[Planar64Vec3;8]=[
Planar64Vec3::int( 1,-1,-1),
Planar64Vec3::int( 1, 1,-1),
Planar64Vec3::int( 1, 1, 1),
Planar64Vec3::int( 1,-1, 1),
Planar64Vec3::int(-1,-1, 1),
Planar64Vec3::int(-1, 1, 1),
Planar64Vec3::int(-1, 1,-1),
Planar64Vec3::int(-1,-1,-1),
];
pub fn grow(&mut self,point:Planar64Vec3){
self.min=self.min.min(point);
self.max=self.max.max(point);
@ -28,11 +48,34 @@ impl Aabb{
pub fn intersects(&self,aabb:&Aabb)->bool{
(self.min.cmplt(aabb.max)&aabb.min.cmplt(self.max)).all()
}
pub fn size(&self)->Planar64Vec3{
self.max-self.min
pub fn normal(face:AabbFace)->Planar64Vec3{
match face {
AabbFace::Right=>Planar64Vec3::int(1,0,0),
AabbFace::Top=>Planar64Vec3::int(0,1,0),
AabbFace::Back=>Planar64Vec3::int(0,0,1),
AabbFace::Left=>Planar64Vec3::int(-1,0,0),
AabbFace::Bottom=>Planar64Vec3::int(0,-1,0),
AabbFace::Front=>Planar64Vec3::int(0,0,-1),
}
}
pub fn unit_vertices()->[Planar64Vec3;8] {
return Self::VERTEX_DATA;
}
// pub fn face(&self,face:AabbFace)->Aabb {
// let mut aabb=self.clone();
// //in this implementation face = worldspace aabb face
// match face {
// AabbFace::Right => aabb.min.x=aabb.max.x,
// AabbFace::Top => aabb.min.y=aabb.max.y,
// AabbFace::Back => aabb.min.z=aabb.max.z,
// AabbFace::Left => aabb.max.x=aabb.min.x,
// AabbFace::Bottom => aabb.max.y=aabb.min.y,
// AabbFace::Front => aabb.max.z=aabb.min.z,
// }
// return aabb;
// }
pub fn center(&self)->Planar64Vec3{
self.min.midpoint(self.max)
return self.min.midpoint(self.max)
}
//probably use floats for area & volume because we don't care about precision
// pub fn area_weight(&self)->f32{

@ -9,34 +9,22 @@ use crate::aabb::Aabb;
//start with bisection into octrees because a bad bvh is still 1000x better than no bvh
//sort the centerpoints on each axis (3 lists)
//bv is put into octant based on whether it is upper or lower in each list
enum BvhNodeContent{
Branch(Vec<BvhNode>),
Leaf(usize),
}
impl Default for BvhNodeContent{
fn default()->Self{
Self::Branch(Vec::new())
}
}
#[derive(Default)]
pub struct BvhNode{
content:BvhNodeContent,
children:Vec<Self>,
models:Vec<usize>,
aabb:Aabb,
}
impl BvhNode{
pub fn the_tester<F:FnMut(usize)>(&self,aabb:&Aabb,f:&mut F){
match &self.content{
&BvhNodeContent::Leaf(model)=>f(model),
BvhNodeContent::Branch(children)=>for child in children{
//this test could be moved outside the match statement
//but that would test the root node aabb
//you're probably not going to spend a lot of time outside the map,
//so the test is extra work for nothing
if aabb.intersects(&child.aabb){
child.the_tester(aabb,f);
}
},
for &model in &self.models{
f(model);
}
for child in &self.children{
if aabb.intersects(&child.aabb){
child.the_tester(aabb,f);
}
}
}
}
@ -49,15 +37,10 @@ fn generate_bvh_node(boxen:Vec<(usize,Aabb)>)->BvhNode{
let n=boxen.len();
if n<20{
let mut aabb=Aabb::default();
let nodes=boxen.into_iter().map(|b|{
aabb.join(&b.1);
BvhNode{
content:BvhNodeContent::Leaf(b.0),
aabb:b.1,
}
}).collect();
let models=boxen.into_iter().map(|b|{aabb.join(&b.1);b.0}).collect();
BvhNode{
content:BvhNodeContent::Branch(nodes),
children:Vec::new(),
models,
aabb,
}
}else{
@ -72,9 +55,9 @@ fn generate_bvh_node(boxen:Vec<(usize,Aabb)>)->BvhNode{
sort_y.push((*i,center.y()));
sort_z.push((*i,center.z()));
}
sort_x.sort_by(|tup0,tup1|tup0.1.cmp(&tup1.1));
sort_y.sort_by(|tup0,tup1|tup0.1.cmp(&tup1.1));
sort_z.sort_by(|tup0,tup1|tup0.1.cmp(&tup1.1));
sort_x.sort_by(|tup0,tup1|tup0.1.partial_cmp(&tup1.1).unwrap());
sort_y.sort_by(|tup0,tup1|tup0.1.partial_cmp(&tup1.1).unwrap());
sort_z.sort_by(|tup0,tup1|tup0.1.partial_cmp(&tup1.1).unwrap());
let h=n/2;
let median_x=sort_x[h].1;
let median_y=sort_y[h].1;
@ -116,7 +99,8 @@ fn generate_bvh_node(boxen:Vec<(usize,Aabb)>)->BvhNode{
node
}).collect();
BvhNode{
content:BvhNodeContent::Branch(children),
children,
models:Vec::new(),
aabb,
}
}

@ -3,11 +3,11 @@ pub type INWorker<'a,Task>=CompatNWorker<'a,Task>;
pub struct CompatNWorker<'a,Task>{
data:std::marker::PhantomData<Task>,
f:Box<dyn FnMut(Task)+Send+'a>,
f:Box<dyn FnMut(Task)+'a>,
}
impl<'a,Task> CompatNWorker<'a,Task>{
pub fn new(f:impl FnMut(Task)+Send+'a)->CompatNWorker<'a,Task>{
pub fn new(f:impl FnMut(Task)+'a)->CompatNWorker<'a,Task>{
Self{
data:std::marker::PhantomData,
f:Box::new(f),

@ -1,119 +0,0 @@
use crate::physics::Body;
use crate::model_physics::{FEV,MeshQuery,DirectedEdge};
use crate::integer::{Time,Planar64};
use crate::zeroes::zeroes2;
enum Transition<F,E:DirectedEdge,V>{
Miss,
Next(FEV<F,E,V>,Time),
Hit(F,Time),
}
fn next_transition<F:Copy,E:Copy+DirectedEdge,V:Copy>(fev:&FEV<F,E,V>,time:Time,mesh:&impl MeshQuery<F,E,V>,body:&Body,time_limit:Time)->Transition<F,E,V>{
//conflicting derivative means it crosses in the wrong direction.
//if the transition time is equal to an already tested transition, do not replace the current best.
let mut best_time=time_limit;
let mut best_transtition=Transition::Miss;
match fev{
&FEV::<F,E,V>::Face(face_id)=>{
//test own face collision time, ignoring roots with zero or conflicting derivative
//n=face.normal d=face.dot
//n.a t^2+n.v t+n.p-d==0
let (n,d)=mesh.face_nd(face_id);
//TODO: use higher precision d value?
//use the mesh transform translation instead of baking it into the d value.
for t in zeroes2((n.dot(body.position)-d)*2,n.dot(body.velocity)*2,n.dot(body.acceleration)){
let t=body.time+Time::from(t);
if time<=t&&t<best_time&&n.dot(body.extrapolated_velocity(t))<Planar64::ZERO{
best_time=t;
best_transtition=Transition::Hit(face_id,t);
break;
}
}
//test each edge collision time, ignoring roots with zero or conflicting derivative
for &directed_edge_id in mesh.face_edges(face_id).iter(){
let edge_n=mesh.directed_edge_n(directed_edge_id);
let n=n.cross(edge_n);
let verts=mesh.edge_verts(directed_edge_id.as_undirected());
//WARNING: d is moved out of the *2 block because of adding two vertices!
for t in zeroes2(n.dot(body.position*2-(mesh.vert(verts[0])+mesh.vert(verts[1]))),n.dot(body.velocity)*2,n.dot(body.acceleration)){
let t=body.time+Time::from(t);
if time<=t&&t<best_time&&n.dot(body.extrapolated_velocity(t))<Planar64::ZERO{
best_time=t;
best_transtition=Transition::Next(FEV::<F,E,V>::Edge(directed_edge_id.as_undirected()),t);
break;
}
}
}
//if none:
},
&FEV::<F,E,V>::Edge(edge_id)=>{
//test each face collision time, ignoring roots with zero or conflicting derivative
let edge_n=mesh.edge_n(edge_id);
let edge_verts=mesh.edge_verts(edge_id);
let delta_pos=body.position*2-(mesh.vert(edge_verts[0])+mesh.vert(edge_verts[1]));
for (i,&edge_face_id) in mesh.edge_faces(edge_id).iter().enumerate(){
let face_n=mesh.face_nd(edge_face_id).0;
//edge_n gets parity from the order of edge_faces
let n=face_n.cross(edge_n)*((i as i64)*2-1);
//WARNING yada yada d *2
for t in zeroes2(n.dot(delta_pos),n.dot(body.velocity)*2,n.dot(body.acceleration)){
let t=body.time+Time::from(t);
if time<=t&&t<best_time&&n.dot(body.extrapolated_velocity(t))<Planar64::ZERO{
best_time=t;
best_transtition=Transition::Next(FEV::<F,E,V>::Face(edge_face_id),t);
break;
}
}
}
//test each vertex collision time, ignoring roots with zero or conflicting derivative
for (i,&vert_id) in edge_verts.iter().enumerate(){
//vertex normal gets parity from vert index
let n=edge_n*(1-2*(i as i64));
for t in zeroes2((n.dot(body.position-mesh.vert(vert_id)))*2,n.dot(body.velocity)*2,n.dot(body.acceleration)){
let t=body.time+Time::from(t);
if time<=t&&t<best_time&&n.dot(body.extrapolated_velocity(t))<Planar64::ZERO{
best_time=t;
best_transtition=Transition::Next(FEV::<F,E,V>::Vert(vert_id),t);
break;
}
}
}
//if none:
},
&FEV::<F,E,V>::Vert(vert_id)=>{
//test each edge collision time, ignoring roots with zero or conflicting derivative
for &directed_edge_id in mesh.vert_edges(vert_id).iter(){
//edge is directed away from vertex, but we want the dot product to turn out negative
let n=-mesh.directed_edge_n(directed_edge_id);
for t in zeroes2((n.dot(body.position-mesh.vert(vert_id)))*2,n.dot(body.velocity)*2,n.dot(body.acceleration)){
let t=body.time+Time::from(t);
if time<=t&&t<best_time&&n.dot(body.extrapolated_velocity(t))<Planar64::ZERO{
best_time=t;
best_transtition=Transition::Next(FEV::<F,E,V>::Edge(directed_edge_id.as_undirected()),t);
break;
}
}
}
//if none:
},
}
best_transtition
}
pub enum CrawlResult<F,E:DirectedEdge,V>{
Miss(FEV<F,E,V>),
Hit(F,Time),
}
pub fn crawl_fev<F:Copy,E:Copy+DirectedEdge,V:Copy>(mut fev:FEV<F,E,V>,mesh:&impl MeshQuery<F,E,V>,relative_body:&Body,start_time:Time,time_limit:Time)->CrawlResult<F,E,V>{
let mut time=start_time;
for _ in 0..20{
match next_transition(&fev,time,mesh,relative_body,time_limit){
Transition::Miss=>return CrawlResult::Miss(fev),
Transition::Next(next_fev,next_time)=>(fev,time)=(next_fev,next_time),
Transition::Hit(face,time)=>return CrawlResult::Hit(face,time),
}
}
//TODO: fix all bugs
println!("Too many iterations! Using default behaviour instead of crashing...");
CrawlResult::Miss(fev)
}

@ -1,38 +1,24 @@
use std::borrow::Cow;
use wgpu::{util::DeviceExt,AstcBlock,AstcChannel};
use crate::model_graphics::{GraphicsVertex,GraphicsModelColor4,GraphicsModelInstance,GraphicsModelSingleTexture,IndexedGraphicsModelSingleTexture,IndexedGroupFixedTexture};
use crate::model_graphics::{GraphicsVertex,ModelGraphicsColor4,ModelGraphicsInstance,ModelGraphicsSingleTexture,IndexedModelGraphicsSingleTexture,IndexedGroupFixedTexture};
#[derive(Clone)]
pub struct GraphicsModelUpdate{
pub struct ModelUpdate{
transform:Option<glam::Mat4>,
color:Option<glam::Vec4>,
}
struct Entity{
index_count:u32,
index_buf:wgpu::Buffer,
}
fn create_entities<T:bytemuck::Pod>(device:&wgpu::Device,entities:&Vec<Vec<T>>)->Vec<Entity>{
entities.iter().map(|indices|{
let index_buf=device.create_buffer_init(&wgpu::util::BufferInitDescriptor{
label:Some("Index"),
contents:bytemuck::cast_slice(indices),
usage:wgpu::BufferUsages::INDEX,
});
Entity{
index_buf,
index_count:indices.len() as u32,
}
}).collect()
struct Entity {
index_count: u32,
index_buf: wgpu::Buffer,
}
struct GraphicsModel{
entities:Vec<Entity>,
model_buf:wgpu::Buffer,
vertex_buf:wgpu::Buffer,
bind_group:wgpu::BindGroup,
index_format:wgpu::IndexFormat,
instances:Vec<GraphicsModelInstance>,
struct ModelGraphics {
instances: Vec<ModelGraphicsInstance>,
vertex_buf: wgpu::Buffer,
entities: Vec<Entity>,
bind_group: wgpu::BindGroup,
model_buf: wgpu::Buffer,
}
pub struct GraphicsSamplers{
@ -71,6 +57,12 @@ fn perspective_rh(fov_x_slope: f32, fov_y_slope: f32, z_near: f32, z_far: f32) -
)
}
impl GraphicsCamera{
pub fn new(screen_size:glam::UVec2,fov:glam::Vec2)->Self{
Self{
screen_size,
fov,
}
}
pub fn proj(&self)->glam::Mat4{
perspective_rh(self.fov.x, self.fov.y, 0.5, 2000.0)
}
@ -110,7 +102,7 @@ pub struct GraphicsState{
camera:GraphicsCamera,
camera_buf: wgpu::Buffer,
temp_squid_texture_view: wgpu::TextureView,
models: Vec<GraphicsModel>,
models: Vec<ModelGraphics>,
depth_view: wgpu::TextureView,
staging_belt: wgpu::util::StagingBelt,
}
@ -214,15 +206,15 @@ impl GraphicsState{
let indexed_models_len=indexed_models.models.len();
let mut unique_texture_models=Vec::with_capacity(indexed_models_len);
for model in indexed_models.models.into_iter(){
//convert ModelInstance into GraphicsModelInstance
let instances:Vec<GraphicsModelInstance>=model.instances.into_iter().filter_map(|instance|{
//convert ModelInstance into ModelGraphicsInstance
let instances:Vec<ModelGraphicsInstance>=model.instances.into_iter().filter_map(|instance|{
if instance.color.w==0.0{
None
}else{
Some(GraphicsModelInstance{
Some(ModelGraphicsInstance{
transform: instance.transform.into(),
normal_transform: Into::<glam::Mat3>::into(instance.transform.matrix3).inverse().transpose(),
color:GraphicsModelColor4::from(instance.color),
color:ModelGraphicsColor4::from(instance.color),
})
}
}).collect();
@ -241,7 +233,7 @@ impl GraphicsState{
//create new texture_index
let texture_index=unique_textures.len();
unique_textures.push(group.texture);
unique_texture_models.push(IndexedGraphicsModelSingleTexture{
unique_texture_models.push(IndexedModelGraphicsSingleTexture{
unique_pos:model.unique_pos.iter().map(|&v|*Into::<glam::Vec3>::into(v).as_ref()).collect(),
unique_tex:model.unique_tex.iter().map(|v|*v.as_ref()).collect(),
unique_normal:model.unique_normal.iter().map(|&v|*Into::<glam::Vec3>::into(v).as_ref()).collect(),
@ -375,10 +367,10 @@ impl GraphicsState{
//creating the vertex map is slightly different because the vertices are directly hashable
let map_vertex_id:Vec<u32>=model.unique_vertices.iter().map(|unmapped_vertex|{
let vertex=crate::model::IndexedVertex{
pos:map_pos_id[unmapped_vertex.pos as usize],
tex:map_tex_id[unmapped_vertex.tex as usize],
normal:map_normal_id[unmapped_vertex.normal as usize],
color:map_color_id[unmapped_vertex.color as usize],
pos:map_pos_id[unmapped_vertex.pos as usize] as u32,
tex:map_tex_id[unmapped_vertex.tex as usize] as u32,
normal:map_normal_id[unmapped_vertex.normal as usize] as u32,
color:map_color_id[unmapped_vertex.color as usize] as u32,
};
(if let Some(&vertex_id)=vertex_id_from.get(&vertex){
vertex_id
@ -396,7 +388,7 @@ impl GraphicsState{
}
}
//push model into dedup
deduplicated_models.push(IndexedGraphicsModelSingleTexture{
deduplicated_models.push(IndexedModelGraphicsSingleTexture{
unique_pos,
unique_tex,
unique_normal,
@ -406,7 +398,7 @@ impl GraphicsState{
groups:vec![IndexedGroupFixedTexture{
polys
}],
instances:vec![GraphicsModelInstance{
instances:vec![ModelGraphicsInstance{
transform:glam::Mat4::IDENTITY,
normal_transform:glam::Mat3::IDENTITY,
color
@ -424,9 +416,10 @@ impl GraphicsState{
//de-index models
let deduplicated_models_len=deduplicated_models.len();
let models:Vec<GraphicsModelSingleTexture>=deduplicated_models.into_iter().map(|model|{
let models:Vec<ModelGraphicsSingleTexture>=deduplicated_models.into_iter().map(|model|{
let mut vertices = Vec::new();
let mut index_from_vertex = std::collections::HashMap::new();//::<IndexedVertex,usize>
let mut entities = Vec::new();
//this mut be combined in a more complex way if the models use different render patterns per group
let mut indices = Vec::new();
for group in model.groups {
@ -437,7 +430,7 @@ impl GraphicsState{
if let Some(&i)=index_from_vertex.get(&vertex_index){
indices.push(i);
}else{
let i=vertices.len();
let i=vertices.len() as u16;
let vertex=&model.unique_vertices[vertex_index as usize];
vertices.push(GraphicsVertex{
pos: model.unique_pos[vertex.pos as usize],
@ -452,16 +445,11 @@ impl GraphicsState{
}
}
}
GraphicsModelSingleTexture{
entities.push(indices);
ModelGraphicsSingleTexture{
instances:model.instances,
entities:if (u32::MAX as usize)<vertices.len(){
panic!("Model has too many vertices!")
}else if (u16::MAX as usize)<vertices.len(){
crate::model_graphics::Entities::U32(vec![indices.into_iter().map(|vertex_id|vertex_id as u32).collect()])
}else{
crate::model_graphics::Entities::U16(vec![indices.into_iter().map(|vertex_id|vertex_id as u16).collect()])
},
vertices,
entities,
texture:model.texture,
}
}).collect();
@ -514,17 +502,20 @@ impl GraphicsState{
usage: wgpu::BufferUsages::VERTEX,
});
//all of these are being moved here
self.models.push(GraphicsModel{
self.models.push(ModelGraphics{
instances:instances_chunk.to_vec(),
vertex_buf,
index_format:match &model.entities{
crate::model_graphics::Entities::U32(_)=>wgpu::IndexFormat::Uint32,
crate::model_graphics::Entities::U16(_)=>wgpu::IndexFormat::Uint16,
},
entities:match &model.entities{
crate::model_graphics::Entities::U32(entities)=>create_entities(device,entities),
crate::model_graphics::Entities::U16(entities)=>create_entities(device,entities),
},
entities: model.entities.iter().map(|indices|{
let index_buf = device.create_buffer_init(&wgpu::util::BufferInitDescriptor {
label: Some("Index"),
contents: bytemuck::cast_slice(&indices),
usage: wgpu::BufferUsages::INDEX,
});
Entity {
index_buf,
index_count: indices.len() as u32,
}
}).collect(),
bind_group: model_bind_group,
model_buf,
});
@ -629,7 +620,6 @@ impl GraphicsState{
mag_filter: wgpu::FilterMode::Linear,
min_filter: wgpu::FilterMode::Linear,
mipmap_filter: wgpu::FilterMode::Linear,
anisotropy_clamp:16,
..Default::default()
});
@ -945,19 +935,17 @@ impl GraphicsState{
b: 0.3,
a: 1.0,
}),
store:wgpu::StoreOp::Store,
store: true,
},
})],
depth_stencil_attachment: Some(wgpu::RenderPassDepthStencilAttachment {
view: &self.depth_view,
depth_ops: Some(wgpu::Operations {
load: wgpu::LoadOp::Clear(1.0),
store:wgpu::StoreOp::Discard,
store: false,
}),
stencil_ops: None,
}),
timestamp_writes:Default::default(),
occlusion_query_set:Default::default(),
});
rpass.set_bind_group(0, &self.bind_groups.camera, &[]);
@ -968,9 +956,9 @@ impl GraphicsState{
rpass.set_bind_group(2, &model.bind_group, &[]);
rpass.set_vertex_buffer(0, model.vertex_buf.slice(..));
for entity in model.entities.iter(){
rpass.set_index_buffer(entity.index_buf.slice(..),model.index_format);
rpass.draw_indexed(0..entity.index_count,0,0..model.instances.len() as u32);
for entity in model.entities.iter() {
rpass.set_index_buffer(entity.index_buf.slice(..), wgpu::IndexFormat::Uint16);
rpass.draw_indexed(0..entity.index_count, 0, 0..model.instances.len() as u32);
}
}
@ -985,22 +973,22 @@ impl GraphicsState{
}
const MODEL_BUFFER_SIZE:usize=4*4 + 12 + 4;//let size=std::mem::size_of::<ModelInstance>();
const MODEL_BUFFER_SIZE_BYTES:usize=MODEL_BUFFER_SIZE*4;
fn get_instances_buffer_data(instances:&[GraphicsModelInstance]) -> Vec<f32> {
fn get_instances_buffer_data(instances:&[ModelGraphicsInstance]) -> Vec<f32> {
let mut raw = Vec::with_capacity(MODEL_BUFFER_SIZE*instances.len());
for (i,mi) in instances.iter().enumerate(){
let mut v = raw.split_off(MODEL_BUFFER_SIZE*i);
//model transform
raw.extend_from_slice(&AsRef::<[f32; 4*4]>::as_ref(&mi.transform)[..]);
//normal transform
raw.extend_from_slice(AsRef::<[f32; 3]>::as_ref(&mi.normal_transform.x_axis));
raw.extend_from_slice(&[0.0]);
raw.extend_from_slice(AsRef::<[f32; 3]>::as_ref(&mi.normal_transform.y_axis));
raw.extend_from_slice(&[0.0]);
raw.extend_from_slice(AsRef::<[f32; 3]>::as_ref(&mi.normal_transform.z_axis));
raw.extend_from_slice(&[0.0]);
//color
raw.extend_from_slice(AsRef::<[f32; 4]>::as_ref(&mi.color.get()));
raw.append(&mut v);
let mut v = raw.split_off(MODEL_BUFFER_SIZE*i);
//model transform
raw.extend_from_slice(&AsRef::<[f32; 4*4]>::as_ref(&mi.transform)[..]);
//normal transform
raw.extend_from_slice(AsRef::<[f32; 3]>::as_ref(&mi.normal_transform.x_axis));
raw.extend_from_slice(&[0.0]);
raw.extend_from_slice(AsRef::<[f32; 3]>::as_ref(&mi.normal_transform.y_axis));
raw.extend_from_slice(&[0.0]);
raw.extend_from_slice(AsRef::<[f32; 3]>::as_ref(&mi.normal_transform.z_axis));
raw.extend_from_slice(&[0.0]);
//color
raw.extend_from_slice(AsRef::<[f32; 4]>::as_ref(&mi.color.get()));
raw.append(&mut v);
}
raw
}
}

@ -1,6 +1,6 @@
pub enum Instruction{
Render(crate::physics::PhysicsOutputState,crate::integer::Time,glam::IVec2),
//UpdateModel(crate::graphics::GraphicsModelUpdate),
//UpdateModel(crate::graphics::ModelUpdate),
Resize(winit::dpi::PhysicalSize<u32>,crate::settings::UserSettings),
GenerateModels(crate::model::IndexedModelInstances),
ClearModels,
@ -22,7 +22,6 @@ pub fn new<'a>(
device:wgpu::Device,
queue:wgpu::Queue,
)->crate::compat_worker::INWorker<'a,Instruction>{
let mut resize=None;
crate::compat_worker::INWorker::new(move |ins:Instruction|{
match ins{
Instruction::GenerateModels(indexed_model_instances)=>{
@ -32,20 +31,13 @@ pub fn new<'a>(
graphics.clear();
},
Instruction::Resize(size,user_settings)=>{
resize=Some((size,user_settings));
println!("Resizing to {:?}",size);
config.width=size.width.max(1);
config.height=size.height.max(1);
surface.configure(&device,&config);
graphics.resize(&device,&config,&user_settings);
}
Instruction::Render(physics_output,predicted_time,mouse_pos)=>{
if let Some((size,user_settings))=&resize{
println!("Resizing to {:?}",size);
let t0=std::time::Instant::now();
config.width=size.width.max(1);
config.height=size.height.max(1);
surface.configure(&device,&config);
graphics.resize(&device,&config,user_settings);
println!("Resize took {:?}",t0.elapsed());
}
//clear every time w/e
resize=None;
//this has to go deeper somehow
let frame=match surface.get_current_texture(){
Ok(frame)=>frame,

@ -25,10 +25,7 @@ impl<I> InstructionCollector<I>{
instruction:None
}
}
#[inline]
pub fn time(&self)->Time{
self.time
}
pub fn collect(&mut self,instruction:Option<TimedInstruction<I>>){
match instruction{
Some(unwrap_instruction)=>{

@ -1,9 +1,7 @@
//integer units
#[derive(Clone,Copy,Hash,Eq,PartialEq,PartialOrd,Debug)]
#[derive(Clone,Copy,Hash,PartialEq,PartialOrd,Debug)]
pub struct Time(i64);
impl Time{
pub const MIN:Self=Self(i64::MIN);
pub const MAX:Self=Self(i64::MAX);
pub const ZERO:Self=Self(0);
pub const ONE_SECOND:Self=Self(1_000_000_000);
pub const ONE_MILLISECOND:Self=Self(1_000_000);
@ -105,23 +103,23 @@ impl Ratio64{
None
}else{
let d=gcd(num.unsigned_abs(),den);
Some(Self{num:num/(d as i64),den:den/d})
Some(Self{num:num/d as i64,den:den/d})
}
}
#[inline]
pub fn mul_int(&self,rhs:i64)->i64{
rhs*self.num/(self.den as i64)
rhs*self.num/self.den as i64
}
#[inline]
pub fn rhs_div_int(&self,rhs:i64)->i64{
rhs*(self.den as i64)/self.num
rhs*self.den as i64/self.num
}
#[inline]
pub fn mul_ref(&self,rhs:&Ratio64)->Ratio64{
let (num,den)=(self.num*rhs.num,self.den*rhs.den);
let d=gcd(num.unsigned_abs(),den);
Self{
num:num/(d as i64),
num:num/d as i64,
den:den/d,
}
}
@ -209,8 +207,8 @@ impl TryFrom<f32> for Ratio64{
std::num::FpCategory::Nan=>Err(Self::Error::Nan),
std::num::FpCategory::Infinite=>Err(Self::Error::Infinite),
std::num::FpCategory::Zero=>Ok(Self::ZERO),
std::num::FpCategory::Subnormal
|std::num::FpCategory::Normal=>ratio64_from_mes(integer_decode_f32(value)),
std::num::FpCategory::Subnormal=>Err(Self::Error::Subnormal),
std::num::FpCategory::Normal=>ratio64_from_mes(integer_decode_f32(value)),
}
}
}
@ -222,8 +220,8 @@ impl TryFrom<f64> for Ratio64{
std::num::FpCategory::Nan=>Err(Self::Error::Nan),
std::num::FpCategory::Infinite=>Err(Self::Error::Infinite),
std::num::FpCategory::Zero=>Ok(Self::ZERO),
std::num::FpCategory::Subnormal
|std::num::FpCategory::Normal=>ratio64_from_mes(integer_decode_f64(value)),
std::num::FpCategory::Subnormal=>Err(Self::Error::Subnormal),
std::num::FpCategory::Normal=>ratio64_from_mes(integer_decode_f64(value)),
}
}
}
@ -234,7 +232,7 @@ impl std::ops::Mul<Ratio64> for Ratio64{
let (num,den)=(self.num*rhs.num,self.den*rhs.den);
let d=gcd(num.unsigned_abs(),den);
Self{
num:num/(d as i64),
num:num/d as i64,
den:den/d,
}
}
@ -317,8 +315,8 @@ impl Angle32{
pub fn clamp(&self,theta_min:Self,theta_max:Self)->Self{
//((max-min as u32)/2 as i32)+min
let midpoint=((
(theta_max.0 as u32)
.wrapping_sub(theta_min.0 as u32)
u32::from_ne_bytes(theta_max.0.to_ne_bytes())
.wrapping_sub(u32::from_ne_bytes(theta_min.0.to_ne_bytes()))
/2
) as i32)//(u32::MAX/2) as i32 ALWAYS works
.wrapping_add(theta_min.0);
@ -416,8 +414,6 @@ pub struct Planar64(i64);
impl Planar64{
pub const ZERO:Self=Self(0);
pub const ONE:Self=Self(1<<32);
pub const MAX:Self=Self(i64::MAX);
pub const MIN:Self=Self(i64::MIN);
#[inline]
pub const fn int(num:i32)->Self{
Self(Self::ONE.0*num as i64)
@ -430,14 +426,9 @@ impl Planar64{
pub const fn get(&self)->i64{
self.0
}
#[inline]
pub fn sqrt(&self)->Self{
Planar64(unsafe{(((self.0 as i128)<<32) as f64).sqrt().to_int_unchecked()})
}
#[inline]
pub const fn signum_i64(&self)->i64{
((self.0&(1<<63)!=0) as i64)*2-1
}
}
const PLANAR64_ONE_FLOAT32:f32=(1u64<<32) as f32;
const PLANAR64_CONVERT_TO_FLOAT32:f32=1.0/PLANAR64_ONE_FLOAT32;
@ -451,7 +442,7 @@ impl Into<f32> for Planar64{
impl From<Ratio64> for Planar64{
#[inline]
fn from(ratio:Ratio64)->Self{
Self((((ratio.num as i128)<<32)/(ratio.den as i128)) as i64)
Self((((ratio.num as i128)<<32)/ratio.den as i128) as i64)
}
}
#[derive(Debug)]
@ -459,8 +450,26 @@ pub enum Planar64TryFromFloatError{
Nan,
Infinite,
Subnormal,
HighlyNegativeExponent,
HighlyPositiveExponent,
HighlyNegativeExponent(i16),
HighlyPositiveExponent(i16),
}
#[inline]
fn planar64_from_mes((m,e,s):(u64,i16,i8))->Result<Planar64,Planar64TryFromFloatError>{
let e32=e+32;
if e32<0&&(m>>-e32)==0{//shifting m will underflow to 0
Ok(Planar64::ZERO)
// println!("m{} e{} s{}",m,e,s);
// println!("f={}",(m as f64)*(2.0f64.powf(e as f64))*(s as f64));
// Err(Planar64TryFromFloatError::HighlyNegativeExponent(e))
}else if (64-m.leading_zeros() as i16)+e32<64{//shifting m will not overflow
if e32<0{
Ok(Planar64((m as i64)*(s as i64)>>-e32))
}else{
Ok(Planar64((m as i64)*(s as i64)<<e32))
}
}else{//if shifting m will overflow (prev check failed)
Err(Planar64TryFromFloatError::HighlyPositiveExponent(e))
}
}
impl TryFrom<f32> for Planar64{
type Error=Planar64TryFromFloatError;
@ -470,15 +479,8 @@ impl TryFrom<f32> for Planar64{
std::num::FpCategory::Nan=>Err(Self::Error::Nan),
std::num::FpCategory::Infinite=>Err(Self::Error::Infinite),
std::num::FpCategory::Zero=>Ok(Self::ZERO),
std::num::FpCategory::Subnormal
|std::num::FpCategory::Normal=>{
let planar=value*PLANAR64_ONE_FLOAT32;
if planar<(i64::MIN as f32)||(i64::MAX as f32)<planar{
Err(Self::Error::HighlyPositiveExponent)
}else{
Ok(Planar64(unsafe{planar.to_int_unchecked()}))
}
}
std::num::FpCategory::Subnormal=>Err(Self::Error::Subnormal),
std::num::FpCategory::Normal=>planar64_from_mes(integer_decode_f32(value)),
}
}
}
@ -490,15 +492,8 @@ impl TryFrom<f64> for Planar64{
std::num::FpCategory::Nan=>Err(Self::Error::Nan),
std::num::FpCategory::Infinite=>Err(Self::Error::Infinite),
std::num::FpCategory::Zero=>Ok(Self::ZERO),
std::num::FpCategory::Subnormal
|std::num::FpCategory::Normal=>{
let planar=value*PLANAR64_ONE_FLOAT64;
if planar<(i64::MIN as f64)||(i64::MAX as f64)<planar{
Err(Self::Error::HighlyPositiveExponent)
}else{
Ok(Planar64(unsafe{planar.to_int_unchecked()}))
}
}
std::num::FpCategory::Subnormal=>Err(Self::Error::Subnormal),
std::num::FpCategory::Normal=>planar64_from_mes(integer_decode_f64(value)),
}
}
}
@ -523,12 +518,6 @@ impl std::ops::Add<Planar64> for Planar64{
Planar64(self.0+rhs.0)
}
}
impl std::ops::AddAssign<Planar64> for Planar64{
#[inline]
fn add_assign(&mut self,rhs:Self){
*self=*self+rhs;
}
}
impl std::ops::Sub<Planar64> for Planar64{
type Output=Planar64;
#[inline]
@ -568,7 +557,7 @@ impl std::ops::Div<Planar64> for Planar64{
type Output=Planar64;
#[inline]
fn div(self, rhs: Planar64) -> Self::Output {
Planar64((((self.0 as i128)<<32)/(rhs.0 as i128)) as i64)
Planar64((((self.0 as i128)<<32)/rhs.0 as i128) as i64)
}
}
// impl PartialOrd<i64> for Planar64{
@ -593,10 +582,6 @@ impl Planar64Vec3{
pub const MIN:Self=Planar64Vec3(glam::I64Vec3::MIN);
pub const MAX:Self=Planar64Vec3(glam::I64Vec3::MAX);
#[inline]
pub const fn new(x:Planar64,y:Planar64,z:Planar64)->Self{
Self(glam::i64vec3(x.0,y.0,z.0))
}
#[inline]
pub const fn int(x:i32,y:i32,z:i32)->Self{
Self(glam::i64vec3((x as i64)<<32,(y as i64)<<32,(z as i64)<<32))
}
@ -649,26 +634,6 @@ impl Planar64Vec3{
)>>32) as i64)
}
#[inline]
pub fn dot128(&self,rhs:Self)->i128{
(self.0.x as i128)*(rhs.0.x as i128)+
(self.0.y as i128)*(rhs.0.y as i128)+
(self.0.z as i128)*(rhs.0.z as i128)
}
#[inline]
pub fn cross(&self,rhs:Self)->Planar64Vec3{
Planar64Vec3(glam::i64vec3(
(((self.0.y as i128)*(rhs.0.z as i128)-(self.0.z as i128)*(rhs.0.y as i128))>>32) as i64,
(((self.0.z as i128)*(rhs.0.x as i128)-(self.0.x as i128)*(rhs.0.z as i128))>>32) as i64,
(((self.0.x as i128)*(rhs.0.y as i128)-(self.0.y as i128)*(rhs.0.x as i128))>>32) as i64,
))
}
#[inline]
pub fn walkable(&self,slope:Planar64,up:Self)->bool{
let y=self.dot(up);
let x=self.cross(up).length();
x*slope<y
}
#[inline]
pub fn length(&self)->Planar64{
let radicand=(self.0.x as i128)*(self.0.x as i128)+(self.0.y as i128)*(self.0.y as i128)+(self.0.z as i128)*(self.0.z as i128);
Planar64(unsafe{(radicand as f64).sqrt().to_int_unchecked()})
@ -803,17 +768,6 @@ impl std::ops::Mul<Time> for Planar64Vec3{
))
}
}
impl std::ops::Div<Planar64> for Planar64Vec3{
type Output=Planar64Vec3;
#[inline]
fn div(self,rhs:Planar64)->Self::Output{
Planar64Vec3(glam::i64vec3(
(((self.0.x as i128)<<32)/(rhs.0 as i128)) as i64,
(((self.0.y as i128)<<32)/(rhs.0 as i128)) as i64,
(((self.0.z as i128)<<32)/(rhs.0 as i128)) as i64,
))
}
}
impl std::ops::Div<i64> for Planar64Vec3{
type Output=Planar64Vec3;
#[inline]
@ -827,7 +781,7 @@ impl std::ops::Div<i64> for Planar64Vec3{
}
///[-1.0,1.0] = [-2^32,2^32]
#[derive(Clone,Copy,Hash,Eq,PartialEq)]
#[derive(Clone,Copy)]
pub struct Planar64Mat3{
x_axis:Planar64Vec3,
y_axis:Planar64Vec3,
@ -843,6 +797,16 @@ impl Default for Planar64Mat3{
}
}
}
impl std::ops::Mul<Planar64Vec3> for Planar64Mat3{
type Output=Planar64Vec3;
#[inline]
fn mul(self,rhs:Planar64Vec3) -> Self::Output {
self.x_axis*rhs.x()
+self.y_axis*rhs.y()
+self.z_axis*rhs.z()
}
}
impl Planar64Mat3{
#[inline]
pub fn from_cols(x_axis:Planar64Vec3,y_axis:Planar64Vec3,z_axis:Planar64Vec3)->Self{
@ -860,14 +824,6 @@ impl Planar64Mat3{
}
}
#[inline]
pub const fn from_diagonal(diagonal:Planar64Vec3)->Self{
Self{
x_axis:Planar64Vec3::raw(diagonal.0.x,0,0),
y_axis:Planar64Vec3::raw(0,diagonal.0.y,0),
z_axis:Planar64Vec3::raw(0,0,diagonal.0.z),
}
}
#[inline]
pub fn from_rotation_yx(yaw:Angle32,pitch:Angle32)->Self{
let xtheta=yaw.0 as f64*ANGLE32_TO_FLOAT64_RADIANS;
let (xs,xc)=xtheta.sin_cos();
@ -897,49 +853,6 @@ impl Planar64Mat3{
Planar64Vec3(glam::i64vec3(s,0,c)),
)
}
#[inline]
pub const fn inverse(&self)->Self{
let det=(
-self.x_axis.0.z as i128*self.y_axis.0.y as i128*self.z_axis.0.x as i128
+self.x_axis.0.y as i128*self.y_axis.0.z as i128*self.z_axis.0.x as i128
+self.x_axis.0.z as i128*self.y_axis.0.x as i128*self.z_axis.0.y as i128
-self.x_axis.0.x as i128*self.y_axis.0.z as i128*self.z_axis.0.y as i128
-self.x_axis.0.y as i128*self.y_axis.0.x as i128*self.z_axis.0.z as i128
+self.x_axis.0.x as i128*self.y_axis.0.y as i128*self.z_axis.0.z as i128
)>>32;
Self{
x_axis:Planar64Vec3::raw((((-(self.y_axis.0.z as i128*self.z_axis.0.y as i128)+self.y_axis.0.y as i128*self.z_axis.0.z as i128)<<32)/det) as i64,(((self.x_axis.0.z as i128*self.z_axis.0.y as i128-self.x_axis.0.y as i128*self.z_axis.0.z as i128)<<32)/det) as i64,(((-(self.x_axis.0.z as i128*self.y_axis.0.y as i128)+self.x_axis.0.y as i128*self.y_axis.0.z as i128)<<32)/det) as i64),
y_axis:Planar64Vec3::raw((((self.y_axis.0.z as i128*self.z_axis.0.x as i128-self.y_axis.0.x as i128*self.z_axis.0.z as i128)<<32)/det) as i64,(((-(self.x_axis.0.z as i128*self.z_axis.0.x as i128)+self.x_axis.0.x as i128*self.z_axis.0.z as i128)<<32)/det) as i64,(((self.x_axis.0.z as i128*self.y_axis.0.x as i128-self.x_axis.0.x as i128*self.y_axis.0.z as i128)<<32)/det) as i64),
z_axis:Planar64Vec3::raw((((-(self.y_axis.0.y as i128*self.z_axis.0.x as i128)+self.y_axis.0.x as i128*self.z_axis.0.y as i128)<<32)/det) as i64,(((self.x_axis.0.y as i128*self.z_axis.0.x as i128-self.x_axis.0.x as i128*self.z_axis.0.y as i128)<<32)/det) as i64,(((-(self.x_axis.0.y as i128*self.y_axis.0.x as i128)+self.x_axis.0.x as i128*self.y_axis.0.y as i128)<<32)/det) as i64),
}
}
#[inline]
pub const fn inverse_times_det(&self)->Self{
Self{
x_axis:Planar64Vec3::raw(((-(self.y_axis.0.z as i128*self.z_axis.0.y as i128)+self.y_axis.0.y as i128*self.z_axis.0.z as i128)>>32) as i64,((self.x_axis.0.z as i128*self.z_axis.0.y as i128-self.x_axis.0.y as i128*self.z_axis.0.z as i128)>>32) as i64,((-(self.x_axis.0.z as i128*self.y_axis.0.y as i128)+self.x_axis.0.y as i128*self.y_axis.0.z as i128)>>32) as i64),
y_axis:Planar64Vec3::raw(((self.y_axis.0.z as i128*self.z_axis.0.x as i128-self.y_axis.0.x as i128*self.z_axis.0.z as i128)>>32) as i64,((-(self.x_axis.0.z as i128*self.z_axis.0.x as i128)+self.x_axis.0.x as i128*self.z_axis.0.z as i128)>>32) as i64,((self.x_axis.0.z as i128*self.y_axis.0.x as i128-self.x_axis.0.x as i128*self.y_axis.0.z as i128)>>32) as i64),
z_axis:Planar64Vec3::raw(((-(self.y_axis.0.y as i128*self.z_axis.0.x as i128)+self.y_axis.0.x as i128*self.z_axis.0.y as i128)>>32) as i64,((self.x_axis.0.y as i128*self.z_axis.0.x as i128-self.x_axis.0.x as i128*self.z_axis.0.y as i128)>>32) as i64,((-(self.x_axis.0.y as i128*self.y_axis.0.x as i128)+self.x_axis.0.x as i128*self.y_axis.0.y as i128)>>32) as i64),
}
}
#[inline]
pub const fn transpose(&self)->Self{
Self{
x_axis:Planar64Vec3::raw(self.x_axis.0.x,self.y_axis.0.x,self.z_axis.0.x),
y_axis:Planar64Vec3::raw(self.x_axis.0.y,self.y_axis.0.y,self.z_axis.0.y),
z_axis:Planar64Vec3::raw(self.x_axis.0.z,self.y_axis.0.z,self.z_axis.0.z),
}
}
#[inline]
pub const fn determinant(&self)->Planar64{
Planar64(((
-self.x_axis.0.z as i128*self.y_axis.0.y as i128*self.z_axis.0.x as i128
+self.x_axis.0.y as i128*self.y_axis.0.z as i128*self.z_axis.0.x as i128
+self.x_axis.0.z as i128*self.y_axis.0.x as i128*self.z_axis.0.y as i128
-self.x_axis.0.x as i128*self.y_axis.0.z as i128*self.z_axis.0.y as i128
-self.x_axis.0.y as i128*self.y_axis.0.x as i128*self.z_axis.0.z as i128
+self.x_axis.0.x as i128*self.y_axis.0.y as i128*self.z_axis.0.z as i128
)>>64) as i64)
}
}
impl Into<glam::Mat3> for Planar64Mat3{
#[inline]
@ -971,15 +884,6 @@ impl std::fmt::Display for Planar64Mat3{
)
}
}
impl std::ops::Mul<Planar64Vec3> for Planar64Mat3{
type Output=Planar64Vec3;
#[inline]
fn mul(self,rhs:Planar64Vec3) -> Self::Output {
self.x_axis*rhs.x()
+self.y_axis*rhs.y()
+self.z_axis*rhs.z()
}
}
impl std::ops::Div<i64> for Planar64Mat3{
type Output=Planar64Mat3;
#[inline]
@ -993,7 +897,7 @@ impl std::ops::Div<i64> for Planar64Mat3{
}
///[-1.0,1.0] = [-2^32,2^32]
#[derive(Clone,Copy,Default,Hash,Eq,PartialEq)]
#[derive(Clone,Copy,Default)]
pub struct Planar64Affine3{
pub matrix3:Planar64Mat3,//includes scale above 1
pub translation:Planar64Vec3,
@ -1048,7 +952,7 @@ impl std::fmt::Display for Planar64Affine3{
#[test]
fn test_sqrt(){
let r=Planar64::int(400);
assert_eq!(1717986918400,r.get());
println!("r{}",r.get());
let s=r.sqrt();
assert_eq!(85899345920,s.get());
println!("s{}",s.get());
}

@ -14,15 +14,12 @@ fn class_is_a(class: &str, superclass: &str) -> bool {
return false
}
fn recursive_collect_superclass(objects: &mut std::vec::Vec<rbx_dom_weak::types::Ref>,dom: &rbx_dom_weak::WeakDom, instance: &rbx_dom_weak::Instance, superclass: &str){
let mut stack=vec![instance];
while let Some(item)=stack.pop(){
for &referent in item.children(){
if let Some(c)=dom.get_by_ref(referent){
if class_is_a(c.class.as_str(),superclass){
objects.push(c.referent());//copy ref
}
stack.push(c);
for &referent in instance.children() {
if let Some(c) = dom.get_by_ref(referent) {
if class_is_a(c.class.as_str(), superclass) {
objects.push(c.referent());//copy ref
}
recursive_collect_superclass(objects,dom,c,superclass);
}
}
}
@ -48,19 +45,13 @@ fn get_attributes(name:&str,can_collide:bool,velocity:Planar64Vec3,force_interse
"Water"=>{
force_can_collide=false;
//TODO: read stupid CustomPhysicalProperties
intersecting.water=Some(crate::model::IntersectingWater{density:Planar64::ONE,viscosity:Planar64::ONE/10,velocity});
intersecting.water=Some(crate::model::IntersectingWater{density:Planar64::ONE,viscosity:Planar64::ONE/10,current:velocity});
},
"Accelerator"=>{
//although the new game supports collidable accelerators, this is a roblox compatability map loader
force_can_collide=false;
general.accelerator=Some(crate::model::GameMechanicAccelerator{acceleration:velocity});
},
// "UnorderedCheckpoint"=>general.teleport_behaviour=Some(crate::model::TeleportBehaviour::StageElement(crate::model::GameMechanicStageElement{
// mode_id:0,
// stage_id:0,
// force:false,
// behaviour:crate::model::StageElementBehaviour::Unordered
// })),
"SetVelocity"=>general.trajectory=Some(crate::model::GameMechanicSetTrajectory::Velocity(velocity)),
"MapFinish"=>{force_can_collide=false;general.zone=Some(crate::model::GameMechanicZone{mode_id:0,behaviour:crate::model::ZoneBehaviour::Finish})},
"MapAnticheat"=>{force_can_collide=false;general.zone=Some(crate::model::GameMechanicZone{mode_id:0,behaviour:crate::model::ZoneBehaviour::Anitcheat})},
@ -120,13 +111,6 @@ fn get_attributes(name:&str,can_collide:bool,velocity:Planar64Vec3,force_interse
_=>panic!("regex3[1] messed up bad"),
}
}
// else if let Some(captures)=lazy_regex::regex!(r"^(OrderedCheckpoint)(\d+)$")
// .captures(other){
// match &captures[1]{
// "OrderedCheckpoint"=>general.checkpoint=Some(crate::model::GameMechanicCheckpoint::Ordered{mode_id:0,checkpoint_id:captures[2].parse::<u32>().unwrap()}),
// _=>panic!("regex3[1] messed up bad"),
// }
// }
}
}
//need some way to skip this
@ -226,9 +210,9 @@ type RobloxWedgeDescription=[Option<RobloxFaceTextureDescription>;5];
type RobloxCornerWedgeDescription=[Option<RobloxFaceTextureDescription>;5];
#[derive(Clone,Eq,Hash,PartialEq)]
enum RobloxBasePartDescription{
Sphere(RobloxPartDescription),
Sphere,
Part(RobloxPartDescription),
Cylinder(RobloxPartDescription),
Cylinder,
Wedge(RobloxWedgeDescription),
CornerWedge(RobloxCornerWedgeDescription),
}
@ -265,18 +249,6 @@ pub fn generate_indexed_models(dom:rbx_dom_weak::WeakDom) -> crate::model::Index
{
let model_transform=planar64_affine3_from_roblox(cf,size);
if model_transform.matrix3.determinant()==Planar64::ZERO{
let mut parent_ref=object.parent();
let mut full_path=object.name.clone();
while let Some(parent)=dom.get_by_ref(parent_ref){
full_path=format!("{}.{}",parent.name,full_path);
parent_ref=parent.parent();
}
println!("Zero determinant CFrame at location {}",full_path);
println!("matrix3:{}",model_transform.matrix3);
continue;
}
//push TempIndexedAttributes
let mut force_intersecting=false;
let mut temp_indexing_attributes=Vec::new();
@ -285,12 +257,14 @@ pub fn generate_indexed_models(dom:rbx_dom_weak::WeakDom) -> crate::model::Index
spawn_point=model_transform.transform_point3(Planar64Vec3::ZERO)+Planar64Vec3::Y*5/2;
Some(crate::model::TempIndexedAttributes::Start(crate::model::TempAttrStart{mode_id:0}))
},
"UnorderedCheckpoint"=>Some(crate::model::TempIndexedAttributes::UnorderedCheckpoint(crate::model::TempAttrUnorderedCheckpoint{mode_id:0})),
other=>{
let regman=lazy_regex::regex!(r"^(BonusStart|Spawn|ForceSpawn|WormholeOut)(\d+)$");
let regman=lazy_regex::regex!(r"^(BonusStart|Spawn|ForceSpawn|OrderedCheckpoint|WormholeOut)(\d+)$");
if let Some(captures) = regman.captures(other) {
match &captures[1]{
"BonusStart"=>Some(crate::model::TempIndexedAttributes::Start(crate::model::TempAttrStart{mode_id:captures[2].parse::<u32>().unwrap()})),
"Spawn"|"ForceSpawn"=>Some(crate::model::TempIndexedAttributes::Spawn(crate::model::TempAttrSpawn{mode_id:0,stage_id:captures[2].parse::<u32>().unwrap()})),
"OrderedCheckpoint"=>Some(crate::model::TempIndexedAttributes::OrderedCheckpoint(crate::model::TempAttrOrderedCheckpoint{mode_id:0,checkpoint_id:captures[2].parse::<u32>().unwrap()})),
"WormholeOut"=>Some(crate::model::TempIndexedAttributes::Wormhole(crate::model::TempAttrWormhole{wormhole_id:captures[2].parse::<u32>().unwrap()})),
_=>None,
}
@ -319,7 +293,6 @@ pub fn generate_indexed_models(dom:rbx_dom_weak::WeakDom) -> crate::model::Index
panic!("Part has no Shape!");
}
},
"TrussPart"=>primitives::Primitives::Cube,
"WedgePart"=>primitives::Primitives::Wedge,
"CornerWedgePart"=>primitives::Primitives::CornerWedge,
_=>{
@ -414,9 +387,9 @@ pub fn generate_indexed_models(dom:rbx_dom_weak::WeakDom) -> crate::model::Index
f5,//Cube::Front
]=part_texture_description;
let basepart_texture_description=match shape{
primitives::Primitives::Sphere=>RobloxBasePartDescription::Sphere([f0,f1,f2,f3,f4,f5]),
primitives::Primitives::Sphere=>RobloxBasePartDescription::Sphere,
primitives::Primitives::Cube=>RobloxBasePartDescription::Part([f0,f1,f2,f3,f4,f5]),
primitives::Primitives::Cylinder=>RobloxBasePartDescription::Cylinder([f0,f1,f2,f3,f4,f5]),
primitives::Primitives::Cylinder=>RobloxBasePartDescription::Cylinder,
//use front face texture first and use top face texture as a fallback
primitives::Primitives::Wedge=>RobloxBasePartDescription::Wedge([
f0,//Cube::Right->Wedge::Right
@ -442,10 +415,9 @@ pub fn generate_indexed_models(dom:rbx_dom_weak::WeakDom) -> crate::model::Index
let model_id=indexed_models.len();
model_id_from_description.insert(basepart_texture_description.clone(),model_id);//borrow checker going crazy
indexed_models.push(match basepart_texture_description{
RobloxBasePartDescription::Sphere(part_texture_description)
|RobloxBasePartDescription::Cylinder(part_texture_description)
|RobloxBasePartDescription::Part(part_texture_description)=>{
let mut cube_face_description=primitives::CubeFaceDescription::default();
RobloxBasePartDescription::Sphere=>primitives::unit_sphere(),
RobloxBasePartDescription::Part(part_texture_description)=>{
let mut cube_face_description=primitives::CubeFaceDescription::new();
for (face_id,roblox_face_description) in part_texture_description.iter().enumerate(){
cube_face_description.insert(
match face_id{
@ -464,8 +436,9 @@ pub fn generate_indexed_models(dom:rbx_dom_weak::WeakDom) -> crate::model::Index
}
primitives::generate_partial_unit_cube(cube_face_description)
},
RobloxBasePartDescription::Cylinder=>primitives::unit_cylinder(),
RobloxBasePartDescription::Wedge(wedge_texture_description)=>{
let mut wedge_face_description=primitives::WedgeFaceDescription::default();
let mut wedge_face_description=primitives::WedgeFaceDescription::new();
for (face_id,roblox_face_description) in wedge_texture_description.iter().enumerate(){
wedge_face_description.insert(
match face_id{
@ -484,7 +457,7 @@ pub fn generate_indexed_models(dom:rbx_dom_weak::WeakDom) -> crate::model::Index
primitives::generate_partial_unit_wedge(wedge_face_description)
},
RobloxBasePartDescription::CornerWedge(cornerwedge_texture_description)=>{
let mut cornerwedge_face_description=primitives::CornerWedgeFaceDescription::default();
let mut cornerwedge_face_description=primitives::CornerWedgeFaceDescription::new();
for (face_id,roblox_face_description) in cornerwedge_texture_description.iter().enumerate(){
cornerwedge_face_description.insert(
match face_id{

@ -7,15 +7,12 @@ mod worker;
mod zeroes;
mod integer;
mod physics;
mod sniffer;
mod graphics;
mod settings;
mod primitives;
mod instruction;
mod load_roblox;
mod face_crawler;
mod compat_worker;
mod model_physics;
mod model_graphics;
mod physics_worker;
mod graphics_worker;
@ -67,44 +64,49 @@ fn load_file(path: std::path::PathBuf)->Option<model::IndexedModelInstances>{
pub fn default_models()->model::IndexedModelInstances{
let mut indexed_models = Vec::new();
indexed_models.append(&mut model::generate_indexed_model_list_from_obj(obj::ObjData::load_buf(&include_bytes!("../models/teslacyberv3.0.obj")[..]).unwrap(),glam::Vec4::ONE));
indexed_models.push(primitives::unit_sphere());
indexed_models.push(primitives::unit_cylinder());
indexed_models.push(primitives::unit_cube());
println!("models.len = {:?}", indexed_models.len());
//quad monkeys
indexed_models[0].instances.push(model::ModelInstance{
transform:integer::Planar64Affine3::try_from(glam::Affine3A::from_translation(glam::vec3(10.,0.,-10.))).unwrap(),
..Default::default()
});
//quad monkeys
indexed_models[1].instances.push(model::ModelInstance{
transform:integer::Planar64Affine3::try_from(glam::Affine3A::from_translation(glam::vec3(10.,5.,10.))).unwrap(),
..Default::default()
});
indexed_models[0].instances.push(model::ModelInstance{
indexed_models[1].instances.push(model::ModelInstance{
transform:integer::Planar64Affine3::try_from(glam::Affine3A::from_translation(glam::vec3(20.,5.,10.))).unwrap(),
color:glam::vec4(1.0,0.0,0.0,1.0),
..Default::default()
});
indexed_models[0].instances.push(model::ModelInstance{
indexed_models[1].instances.push(model::ModelInstance{
transform:integer::Planar64Affine3::try_from(glam::Affine3A::from_translation(glam::vec3(10.,5.,20.))).unwrap(),
color:glam::vec4(0.0,1.0,0.0,1.0),
..Default::default()
});
indexed_models[0].instances.push(model::ModelInstance{
indexed_models[1].instances.push(model::ModelInstance{
transform:integer::Planar64Affine3::try_from(glam::Affine3A::from_translation(glam::vec3(20.,5.,20.))).unwrap(),
color:glam::vec4(0.0,0.0,1.0,1.0),
..Default::default()
});
//decorative monkey
indexed_models[0].instances.push(model::ModelInstance{
indexed_models[1].instances.push(model::ModelInstance{
transform:integer::Planar64Affine3::try_from(glam::Affine3A::from_translation(glam::vec3(15.,10.,15.))).unwrap(),
color:glam::vec4(0.5,0.5,0.5,0.5),
attributes:model::CollisionAttributes::Decoration,
..Default::default()
});
//teapot
indexed_models[1].instances.push(model::ModelInstance{
indexed_models[2].instances.push(model::ModelInstance{
transform:integer::Planar64Affine3::try_from(glam::Affine3A::from_scale_rotation_translation(glam::vec3(0.5, 1.0, 0.2),glam::quat(-0.22248298016985793,-0.839457167990537,-0.05603504040830783,-0.49261857546227916),glam::vec3(-10.,7.,10.))).unwrap(),
..Default::default()
});
//ground
indexed_models[2].instances.push(model::ModelInstance{
indexed_models[3].instances.push(model::ModelInstance{
transform:integer::Planar64Affine3::try_from(glam::Affine3A::from_translation(glam::vec3(0.,0.,0.))*glam::Affine3A::from_scale(glam::vec3(160.0, 1.0, 160.0))).unwrap(),
..Default::default()
});

@ -50,10 +50,10 @@ pub struct IndexedModelInstances{
}
//stage description referencing flattened ids is spooky, but the map loading is meant to be deterministic.
pub struct ModeDescription{
//TODO: put "default" style modifiers in mode
//pub style:StyleModifiers,
pub start:usize,//start=model_id
pub spawns:Vec<usize>,//spawns[spawn_id]=model_id
pub ordered_checkpoints:Vec<usize>,//ordered_checkpoints[checkpoint_id]=model_id
pub unordered_checkpoints:Vec<usize>,//unordered_checkpoints[checkpoint_id]=model_id
pub spawn_from_stage_id:std::collections::HashMap::<u32,usize>,
pub ordered_checkpoint_from_checkpoint_id:std::collections::HashMap::<u32,usize>,
}
@ -61,6 +61,9 @@ impl ModeDescription{
pub fn get_spawn_model_id(&self,stage_id:u32)->Option<&usize>{
self.spawns.get(*self.spawn_from_stage_id.get(&stage_id)?)
}
pub fn get_ordered_checkpoint_model_id(&self,checkpoint_id:u32)->Option<&usize>{
self.ordered_checkpoints.get(*self.ordered_checkpoint_from_checkpoint_id.get(&checkpoint_id)?)
}
}
//I don't want this code to exist!
#[derive(Clone)]
@ -73,88 +76,84 @@ pub struct TempAttrSpawn{
pub stage_id:u32,
}
#[derive(Clone)]
pub struct TempAttrOrderedCheckpoint{
pub mode_id:u32,
pub checkpoint_id:u32,
}
#[derive(Clone)]
pub struct TempAttrUnorderedCheckpoint{
pub mode_id:u32,
}
#[derive(Clone)]
pub struct TempAttrWormhole{
pub wormhole_id:u32,
}
pub enum TempIndexedAttributes{
Start(TempAttrStart),
Spawn(TempAttrSpawn),
OrderedCheckpoint(TempAttrOrderedCheckpoint),
UnorderedCheckpoint(TempAttrUnorderedCheckpoint),
Wormhole(TempAttrWormhole),
}
//you have this effect while in contact
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub struct ContactingLadder{
pub sticky:bool
}
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub enum ContactingBehaviour{
Surf,
Cling,//usable as a zipline, or other weird and wonderful things
Ladder(ContactingLadder),
Elastic(u32),//[1/2^32,1] 0=None (elasticity+1)/2^32
Surf,
Ladder(ContactingLadder),
Elastic(u32),//[1/2^32,1] 0=None (elasticity+1)/2^32
}
//you have this effect while intersecting
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub struct IntersectingWater{
pub viscosity:Planar64,
pub density:Planar64,
pub velocity:Planar64Vec3,
pub current:Planar64Vec3,
}
//All models can be given these attributes
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub struct GameMechanicAccelerator{
pub acceleration:Planar64Vec3
}
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub enum GameMechanicBooster{
Affine(Planar64Affine3),//capable of SetVelocity,DotVelocity,normal booster,bouncy part,redirect velocity, and much more
Velocity(Planar64Vec3),//straight up boost velocity adds to your current velocity
Energy{direction:Planar64Vec3,energy:Planar64},//increase energy in direction
}
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub enum TrajectoryChoice{
HighArcLongDuration,//underhand lob at target: less horizontal speed and more air time
LowArcShortDuration,//overhand throw at target: more horizontal speed and less air time
}
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub enum GameMechanicSetTrajectory{
//Speed-type SetTrajectory
AirTime(Time),//air time (relative to gravity direction) is invariant across mass and gravity changes
Height(Planar64),//boost height (relative to gravity direction) is invariant across mass and gravity changes
DotVelocity{direction:Planar64Vec3,dot:Planar64},//set your velocity in a specific direction without touching other directions
//Velocity-type SetTrajectory
TargetPointTime{//launch on a trajectory that will land at a target point in a set amount of time
target_point:Planar64Vec3,
time:Time,//short time = fast and direct, long time = launch high in the air, negative time = wrong way
},
TargetPointSpeed{//launch at a fixed speed and land at a target point
TrajectoryTargetPoint{//launch at a fixed speed and land at a target point
target_point:Planar64Vec3,
speed:Planar64,//if speed is too low this will fail to reach the target. The closest-passing trajectory will be chosen instead
trajectory_choice:TrajectoryChoice,
},
Velocity(Planar64Vec3),//SetVelocity
DotVelocity{direction:Planar64Vec3,dot:Planar64},//set your velocity in a specific direction without touching other directions
}
impl GameMechanicSetTrajectory{
fn is_velocity(&self)->bool{
match self{
GameMechanicSetTrajectory::AirTime(_)
|GameMechanicSetTrajectory::Height(_)
|GameMechanicSetTrajectory::DotVelocity{direction:_,dot:_}=>false,
GameMechanicSetTrajectory::TargetPointTime{target_point:_,time:_}
|GameMechanicSetTrajectory::TargetPointSpeed{target_point:_,speed:_,trajectory_choice:_}
|GameMechanicSetTrajectory::Velocity(_)=>true,
}
}
}
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub enum ZoneBehaviour{
//Start is indexed
//Checkpoints are indexed
Finish,
Anitcheat,
}
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub struct GameMechanicZone{
pub mode_id:u32,
pub behaviour:ZoneBehaviour,
@ -165,36 +164,24 @@ pub struct GameMechanicZone{
// InRange(Planar64,Planar64),
// OutsideRange(Planar64,Planar64),
// }
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub enum StageElementBehaviour{
//Spawn,//The behaviour of stepping on a spawn setting the spawnid
SpawnAt,//must be standing on top to get effect. except cancollide false
Trigger,
Teleport,
Platform,
//Checkpoint acts like a trigger if you haven't hit all the checkpoints yet.
//Note that all stage elements act like this for the next stage.
Checkpoint,
//OrderedCheckpoint. You must pass through all of these in ascending order.
//If you hit them out of order it acts like a trigger.
//Do not support backtracking at all for now.
Ordered{
checkpoint_id:u32,
},
//UnorderedCheckpoint. You must pass through all of these in any order.
Unordered,
//If you get reset by a jump limit
JumpLimit(u32),
//Speedtrap(TrapCondition),//Acts as a trigger with a speed condition
//Spawn,//The behaviour of stepping on a spawn setting the spawnid
SpawnAt,
Trigger,
Teleport,
Platform,
JumpLimit(u32),
//Speedtrap(TrapCondition),//Acts as a trigger with a speed condition
}
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub struct GameMechanicStageElement{
pub mode_id:u32,
pub stage_id:u32,//which spawn to send to
pub force:bool,//allow setting to lower spawn id i.e. 7->3
pub behaviour:StageElementBehaviour
}
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub struct GameMechanicWormhole{
//destination does not need to be another wormhole
//this defines a one way portal to a destination model transform
@ -202,13 +189,13 @@ pub struct GameMechanicWormhole{
pub destination_model_id:u32,
//(position,angles)*=origin.transform.inverse()*destination.transform
}
#[derive(Clone,Hash,Eq,PartialEq)]
#[derive(Clone)]
pub enum TeleportBehaviour{
StageElement(GameMechanicStageElement),
Wormhole(GameMechanicWormhole),
}
//attributes listed in order of handling
#[derive(Default,Clone,Hash,Eq,PartialEq)]
#[derive(Default,Clone)]
pub struct GameMechanicAttributes{
pub zone:Option<GameMechanicZone>,
pub booster:Option<GameMechanicBooster>,
@ -218,28 +205,14 @@ pub struct GameMechanicAttributes{
}
impl GameMechanicAttributes{
pub fn any(&self)->bool{
self.zone.is_some()
||self.booster.is_some()
self.booster.is_some()
||self.trajectory.is_some()
||self.zone.is_some()
||self.teleport_behaviour.is_some()
||self.accelerator.is_some()
}
pub fn is_wrcp(&self,current_mode_id:u32)->bool{
self.trajectory.as_ref().map_or(false,|t|t.is_velocity())
&&match &self.teleport_behaviour{
Some(TeleportBehaviour::StageElement(
GameMechanicStageElement{
mode_id,
stage_id:_,
force:true,
behaviour:StageElementBehaviour::Trigger|StageElementBehaviour::Teleport
}
))=>current_mode_id==*mode_id,
_=>false,
}
}
}
#[derive(Default,Clone,Hash,Eq,PartialEq)]
#[derive(Default,Clone)]
pub struct ContactingAttributes{
//friction?
pub contact_behaviour:Option<ContactingBehaviour>,
@ -249,7 +222,7 @@ impl ContactingAttributes{
self.contact_behaviour.is_some()
}
}
#[derive(Default,Clone,Hash,Eq,PartialEq)]
#[derive(Default,Clone)]
pub struct IntersectingAttributes{
pub water:Option<IntersectingWater>,
}

@ -11,7 +11,7 @@ pub struct GraphicsVertex {
pub struct IndexedGroupFixedTexture{
pub polys:Vec<IndexedPolygon>,
}
pub struct IndexedGraphicsModelSingleTexture{
pub struct IndexedModelGraphicsSingleTexture{
pub unique_pos:Vec<[f32; 3]>,
pub unique_tex:Vec<[f32; 2]>,
pub unique_normal:Vec<[f32; 3]>,
@ -19,41 +19,37 @@ pub struct IndexedGraphicsModelSingleTexture{
pub unique_vertices:Vec<IndexedVertex>,
pub texture:Option<u32>,//RenderPattern? material/texture/shader/flat color
pub groups: Vec<IndexedGroupFixedTexture>,
pub instances:Vec<GraphicsModelInstance>,
pub instances:Vec<ModelGraphicsInstance>,
}
pub enum Entities{
U32(Vec<Vec<u32>>),
U16(Vec<Vec<u16>>),
}
pub struct GraphicsModelSingleTexture{
pub instances:Vec<GraphicsModelInstance>,
pub vertices:Vec<GraphicsVertex>,
pub entities:Entities,
pub texture:Option<u32>,
pub struct ModelGraphicsSingleTexture{
pub instances: Vec<ModelGraphicsInstance>,
pub vertices: Vec<GraphicsVertex>,
pub entities: Vec<Vec<u16>>,
pub texture: Option<u32>,
}
#[derive(Clone,PartialEq)]
pub struct GraphicsModelColor4(glam::Vec4);
impl GraphicsModelColor4{
pub struct ModelGraphicsColor4(glam::Vec4);
impl ModelGraphicsColor4{
pub const fn get(&self)->glam::Vec4{
self.0
}
}
impl From<glam::Vec4> for GraphicsModelColor4{
impl From<glam::Vec4> for ModelGraphicsColor4{
fn from(value:glam::Vec4)->Self{
Self(value)
}
}
impl std::hash::Hash for GraphicsModelColor4{
impl std::hash::Hash for ModelGraphicsColor4{
fn hash<H: std::hash::Hasher>(&self,state:&mut H) {
for &f in self.0.as_ref(){
bytemuck::cast::<f32,u32>(f).hash(state);
}
}
}
impl Eq for GraphicsModelColor4{}
impl Eq for ModelGraphicsColor4{}
#[derive(Clone)]
pub struct GraphicsModelInstance{
pub struct ModelGraphicsInstance{
pub transform:glam::Mat4,
pub normal_transform:glam::Mat3,
pub color:GraphicsModelColor4,
}
pub color:ModelGraphicsColor4,
}

@ -1,744 +1 @@
use crate::integer::{Planar64,Planar64Vec3};
use std::borrow::{Borrow,Cow};
#[derive(Debug,Clone,Copy,Hash,Eq,PartialEq)]
pub struct VertId(usize);
#[derive(Debug,Clone,Copy,Hash,Eq,PartialEq)]
pub struct EdgeId(usize);
pub trait UndirectedEdge{
type DirectedEdge:Copy+DirectedEdge;
fn as_directed(&self,parity:bool)->Self::DirectedEdge;
}
impl UndirectedEdge for EdgeId{
type DirectedEdge=DirectedEdgeId;
fn as_directed(&self,parity:bool)->DirectedEdgeId{
DirectedEdgeId(self.0|((parity as usize)<<(usize::BITS-1)))
}
}
pub trait DirectedEdge{
type UndirectedEdge:Copy+UndirectedEdge;
fn as_undirected(&self)->Self::UndirectedEdge;
fn parity(&self)->bool;
//this is stupid but may work fine
fn reverse(&self)-><<Self as DirectedEdge>::UndirectedEdge as UndirectedEdge>::DirectedEdge{
self.as_undirected().as_directed(!self.parity())
}
}
/// DirectedEdgeId refers to an EdgeId when undirected.
#[derive(Debug,Clone,Copy,Hash,Eq,PartialEq)]
pub struct DirectedEdgeId(usize);
impl DirectedEdge for DirectedEdgeId{
type UndirectedEdge=EdgeId;
fn as_undirected(&self)->EdgeId{
EdgeId(self.0&!(1<<(usize::BITS-1)))
}
fn parity(&self)->bool{
self.0&(1<<(usize::BITS-1))!=0
}
}
#[derive(Debug,Clone,Copy,Hash,Eq,PartialEq)]
pub struct FaceId(usize);
//Vertex <-> Edge <-> Face -> Collide
pub enum FEV<F,E:DirectedEdge,V>{
Face(F),
Edge(E::UndirectedEdge),
Vert(V),
}
//use Unit32 #[repr(C)] for map files
struct Face{
normal:Planar64Vec3,
dot:Planar64,
}
struct Vert(Planar64Vec3);
pub trait MeshQuery<FACE:Clone,EDGE:Clone+DirectedEdge,VERT:Clone>{
fn edge_n(&self,edge_id:EDGE::UndirectedEdge)->Planar64Vec3{
let verts=self.edge_verts(edge_id);
self.vert(verts[1].clone())-self.vert(verts[0].clone())
}
fn directed_edge_n(&self,directed_edge_id:EDGE)->Planar64Vec3{
let verts=self.edge_verts(directed_edge_id.as_undirected());
(self.vert(verts[1].clone())-self.vert(verts[0].clone()))*((directed_edge_id.parity() as i64)*2-1)
}
fn vert(&self,vert_id:VERT)->Planar64Vec3;
fn face_nd(&self,face_id:FACE)->(Planar64Vec3,Planar64);
fn face_edges(&self,face_id:FACE)->Cow<Vec<EDGE>>;
fn edge_faces(&self,edge_id:EDGE::UndirectedEdge)->Cow<[FACE;2]>;
fn edge_verts(&self,edge_id:EDGE::UndirectedEdge)->Cow<[VERT;2]>;
fn vert_edges(&self,vert_id:VERT)->Cow<Vec<EDGE>>;
fn vert_faces(&self,vert_id:VERT)->Cow<Vec<FACE>>;
}
struct FaceRefs{
edges:Vec<DirectedEdgeId>,
//verts:Vec<VertId>,
}
struct EdgeRefs{
faces:[FaceId;2],//left, right
verts:[VertId;2],//bottom, top
}
struct VertRefs{
faces:Vec<FaceId>,
edges:Vec<DirectedEdgeId>,
}
pub struct PhysicsMesh{
faces:Vec<Face>,
verts:Vec<Vert>,
face_topology:Vec<FaceRefs>,
edge_topology:Vec<EdgeRefs>,
vert_topology:Vec<VertRefs>,
}
#[derive(Default,Clone)]
struct VertRefGuy{
edges:std::collections::HashSet<DirectedEdgeId>,
faces:std::collections::HashSet<FaceId>,
}
#[derive(Clone,Hash,Eq,PartialEq)]
struct EdgeRefVerts([VertId;2]);
impl EdgeRefVerts{
fn new(v0:VertId,v1:VertId)->(Self,bool){
(if v0.0<v1.0{
Self([v0,v1])
}else{
Self([v1,v0])
},v0.0<v1.0)
}
}
struct EdgeRefFaces([FaceId;2]);
impl EdgeRefFaces{
fn new()->Self{
Self([FaceId(0);2])
}
fn push(&mut self,i:usize,face_id:FaceId){
self.0[i]=face_id;
}
}
struct FaceRefEdges(Vec<DirectedEdgeId>);
#[derive(Default)]
struct EdgePool{
edge_guys:Vec<(EdgeRefVerts,EdgeRefFaces)>,
edge_id_from_guy:std::collections::HashMap<EdgeRefVerts,usize>,
}
impl EdgePool{
fn push(&mut self,edge_ref_verts:EdgeRefVerts)->(&mut EdgeRefFaces,EdgeId){
let edge_id=if let Some(&edge_id)=self.edge_id_from_guy.get(&edge_ref_verts){
edge_id
}else{
let edge_id=self.edge_guys.len();
self.edge_guys.push((edge_ref_verts.clone(),EdgeRefFaces::new()));
self.edge_id_from_guy.insert(edge_ref_verts,edge_id);
edge_id
};
(&mut unsafe{self.edge_guys.get_unchecked_mut(edge_id)}.1,EdgeId(edge_id))
}
}
impl From<&crate::model::IndexedModel> for PhysicsMesh{
fn from(indexed_model:&crate::model::IndexedModel)->Self{
assert!(indexed_model.unique_pos.len()!=0,"Mesh cannot have 0 vertices");
let verts=indexed_model.unique_pos.iter().map(|v|Vert(v.clone())).collect();
let mut vert_ref_guys=vec![VertRefGuy::default();indexed_model.unique_pos.len()];
let mut edge_pool=EdgePool::default();
let mut face_i=0;
let mut faces=Vec::new();
let mut face_ref_guys=Vec::new();
for group in indexed_model.groups.iter(){for poly in group.polys.iter(){
let face_id=FaceId(face_i);
//one face per poly
let mut normal=Planar64Vec3::ZERO;
let len=poly.vertices.len();
let face_edges=poly.vertices.iter().enumerate().map(|(i,&vert_id)|{
let vert0_id=indexed_model.unique_vertices[vert_id as usize].pos as usize;
let vert1_id=indexed_model.unique_vertices[poly.vertices[(i+1)%len] as usize].pos as usize;
//https://www.khronos.org/opengl/wiki/Calculating_a_Surface_Normal (Newell's Method)
let v0=indexed_model.unique_pos[vert0_id];
let v1=indexed_model.unique_pos[vert1_id];
normal+=Planar64Vec3::new(
(v0.y()-v1.y())*(v0.z()+v1.z()),
(v0.z()-v1.z())*(v0.x()+v1.x()),
(v0.x()-v1.x())*(v0.y()+v1.y()),
);
//get/create edge and push face into it
let (edge_ref_verts,is_sorted)=EdgeRefVerts::new(VertId(vert0_id),VertId(vert1_id));
let (edge_ref_faces,edge_id)=edge_pool.push(edge_ref_verts);
//polygon vertices as assumed to be listed clockwise
//populate the edge face on the left or right depending on how the edge vertices got sorted
edge_ref_faces.push(!is_sorted as usize,face_id);
//index edges & face into vertices
{
let vert_ref_guy=unsafe{vert_ref_guys.get_unchecked_mut(vert0_id)};
vert_ref_guy.edges.insert(edge_id.as_directed(is_sorted));
vert_ref_guy.faces.insert(face_id);
unsafe{vert_ref_guys.get_unchecked_mut(vert1_id)}.edges.insert(edge_id.as_directed(!is_sorted));
}
//return directed_edge_id
edge_id.as_directed(is_sorted)
}).collect();
//choose precision loss randomly idk
normal=normal/len as i64;
let mut dot=Planar64::ZERO;
for &v in poly.vertices.iter(){
dot+=normal.dot(indexed_model.unique_pos[indexed_model.unique_vertices[v as usize].pos as usize]);
}
faces.push(Face{normal,dot:dot/len as i64});
face_ref_guys.push(FaceRefEdges(face_edges));
face_i+=1;
}}
//conceivably faces, edges, and vertices exist now
Self{
faces,
verts,
face_topology:face_ref_guys.into_iter().map(|face_ref_guy|{
FaceRefs{edges:face_ref_guy.0}
}).collect(),
edge_topology:edge_pool.edge_guys.into_iter().map(|(edge_ref_verts,edge_ref_faces)|
EdgeRefs{faces:edge_ref_faces.0,verts:edge_ref_verts.0}
).collect(),
vert_topology:vert_ref_guys.into_iter().map(|vert_ref_guy|
VertRefs{
edges:vert_ref_guy.edges.into_iter().collect(),
faces:vert_ref_guy.faces.into_iter().collect(),
}
).collect(),
}
}
}
impl PhysicsMesh{
pub fn verts<'a>(&'a self)->impl Iterator<Item=Planar64Vec3>+'a{
self.verts.iter().map(|Vert(pos)|*pos)
}
}
impl MeshQuery<FaceId,DirectedEdgeId,VertId> for PhysicsMesh{
fn face_nd(&self,face_id:FaceId)->(Planar64Vec3,Planar64){
(self.faces[face_id.0].normal,self.faces[face_id.0].dot)
}
//ideally I never calculate the vertex position, but I have to for the graphical meshes...
fn vert(&self,vert_id:VertId)->Planar64Vec3{
self.verts[vert_id.0].0
}
fn face_edges(&self,face_id:FaceId)->Cow<Vec<DirectedEdgeId>>{
Cow::Borrowed(&self.face_topology[face_id.0].edges)
}
fn edge_faces(&self,edge_id:EdgeId)->Cow<[FaceId;2]>{
Cow::Borrowed(&self.edge_topology[edge_id.0].faces)
}
fn edge_verts(&self,edge_id:EdgeId)->Cow<[VertId;2]>{
Cow::Borrowed(&self.edge_topology[edge_id.0].verts)
}
fn vert_edges(&self,vert_id:VertId)->Cow<Vec<DirectedEdgeId>>{
Cow::Borrowed(&self.vert_topology[vert_id.0].edges)
}
fn vert_faces(&self,vert_id:VertId)->Cow<Vec<FaceId>>{
Cow::Borrowed(&self.vert_topology[vert_id.0].faces)
}
}
pub struct TransformedMesh<'a>{
mesh:&'a PhysicsMesh,
transform:&'a crate::integer::Planar64Affine3,
normal_transform:&'a crate::integer::Planar64Mat3,
transform_det:Planar64,
}
impl TransformedMesh<'_>{
pub fn new<'a>(
mesh:&'a PhysicsMesh,
transform:&'a crate::integer::Planar64Affine3,
normal_transform:&'a crate::integer::Planar64Mat3,
transform_det:Planar64,
)->TransformedMesh<'a>{
TransformedMesh{
mesh,
transform,
normal_transform,
transform_det,
}
}
fn farthest_vert(&self,dir:Planar64Vec3)->VertId{
let mut best_dot=Planar64::MIN;
let mut best_vert=VertId(0);
for (i,vert) in self.mesh.verts.iter().enumerate(){
let p=self.transform.transform_point3(vert.0);
let d=dir.dot(p);
if best_dot<d{
best_dot=d;
best_vert=VertId(i);
}
}
best_vert
}
}
impl MeshQuery<FaceId,DirectedEdgeId,VertId> for TransformedMesh<'_>{
fn face_nd(&self,face_id:FaceId)->(Planar64Vec3,Planar64){
let (n,d)=self.mesh.face_nd(face_id);
let transformed_n=*self.normal_transform*n;
let transformed_d=d+transformed_n.dot(self.transform.translation)/self.transform_det;
(transformed_n/self.transform_det,transformed_d)
}
fn vert(&self,vert_id:VertId)->Planar64Vec3{
self.transform.transform_point3(self.mesh.vert(vert_id))
}
#[inline]
fn face_edges(&self,face_id:FaceId)->Cow<Vec<DirectedEdgeId>>{
self.mesh.face_edges(face_id)
}
#[inline]
fn edge_faces(&self,edge_id:EdgeId)->Cow<[FaceId;2]>{
self.mesh.edge_faces(edge_id)
}
#[inline]
fn edge_verts(&self,edge_id:EdgeId)->Cow<[VertId;2]>{
self.mesh.edge_verts(edge_id)
}
#[inline]
fn vert_edges(&self,vert_id:VertId)->Cow<Vec<DirectedEdgeId>>{
self.mesh.vert_edges(vert_id)
}
#[inline]
fn vert_faces(&self,vert_id:VertId)->Cow<Vec<FaceId>>{
self.mesh.vert_faces(vert_id)
}
}
//Note that a face on a minkowski mesh refers to a pair of fevs on the meshes it's summed from
//(face,vertex)
//(edge,edge)
//(vertex,face)
#[derive(Clone,Copy)]
pub enum MinkowskiVert{
VertVert(VertId,VertId),
}
#[derive(Clone,Copy)]
pub enum MinkowskiEdge{
VertEdge(VertId,EdgeId),
EdgeVert(EdgeId,VertId),
//EdgeEdge when edges are parallel
}
impl UndirectedEdge for MinkowskiEdge{
type DirectedEdge=MinkowskiDirectedEdge;
fn as_directed(&self,parity:bool)->Self::DirectedEdge{
match self{
MinkowskiEdge::VertEdge(v0,e1)=>MinkowskiDirectedEdge::VertEdge(*v0,e1.as_directed(parity)),
MinkowskiEdge::EdgeVert(e0,v1)=>MinkowskiDirectedEdge::EdgeVert(e0.as_directed(parity),*v1),
}
}
}
#[derive(Clone,Copy)]
pub enum MinkowskiDirectedEdge{
VertEdge(VertId,DirectedEdgeId),
EdgeVert(DirectedEdgeId,VertId),
//EdgeEdge when edges are parallel
}
impl DirectedEdge for MinkowskiDirectedEdge{
type UndirectedEdge=MinkowskiEdge;
fn as_undirected(&self)->Self::UndirectedEdge{
match self{
MinkowskiDirectedEdge::VertEdge(v0,e1)=>MinkowskiEdge::VertEdge(*v0,e1.as_undirected()),
MinkowskiDirectedEdge::EdgeVert(e0,v1)=>MinkowskiEdge::EdgeVert(e0.as_undirected(),*v1),
}
}
fn parity(&self)->bool{
match self{
MinkowskiDirectedEdge::VertEdge(_,e)
|MinkowskiDirectedEdge::EdgeVert(e,_)=>e.parity(),
}
}
}
#[derive(Debug,Clone,Copy,Hash,Eq,PartialEq)]
pub enum MinkowskiFace{
VertFace(VertId,FaceId),
EdgeEdge(EdgeId,EdgeId,bool),
FaceVert(FaceId,VertId),
//EdgeFace
//FaceEdge
//FaceFace
}
pub struct MinkowskiMesh<'a>{
mesh0:&'a TransformedMesh<'a>,
mesh1:&'a TransformedMesh<'a>,
}
//infinity fev algorithm state transition
enum Transition{
Done,//found closest vert, no edges are better
Vert(MinkowskiVert),//transition to vert
}
enum EV{
Vert(MinkowskiVert),
Edge(MinkowskiEdge),
}
impl MinkowskiMesh<'_>{
pub fn minkowski_sum<'a>(mesh0:&'a TransformedMesh,mesh1:&'a TransformedMesh)->MinkowskiMesh<'a>{
MinkowskiMesh{
mesh0,
mesh1,
}
}
fn farthest_vert(&self,dir:Planar64Vec3)->MinkowskiVert{
MinkowskiVert::VertVert(self.mesh0.farthest_vert(dir),self.mesh1.farthest_vert(-dir))
}
fn next_transition_vert(&self,vert_id:MinkowskiVert,best_distance_squared:&mut Planar64,infinity_dir:Planar64Vec3,point:Planar64Vec3)->Transition{
let mut best_transition=Transition::Done;
for &directed_edge_id in self.vert_edges(vert_id).iter(){
let edge_n=self.directed_edge_n(directed_edge_id);
//is boundary uncrossable by a crawl from infinity
let edge_verts=self.edge_verts(directed_edge_id.as_undirected());
//select opposite vertex
let test_vert_id=edge_verts[directed_edge_id.parity() as usize];
//test if it's closer
let diff=point-self.vert(test_vert_id);
if crate::zeroes::zeroes1(edge_n.dot(diff),edge_n.dot(infinity_dir)).len()==0{
let distance_squared=diff.dot(diff);
if distance_squared<*best_distance_squared{
best_transition=Transition::Vert(test_vert_id);
*best_distance_squared=distance_squared;
}
}
}
best_transition
}
fn final_ev(&self,vert_id:MinkowskiVert,best_distance_squared:&mut Planar64,infinity_dir:Planar64Vec3,point:Planar64Vec3)->EV{
let mut best_transition=EV::Vert(vert_id);
let diff=point-self.vert(vert_id);
for &directed_edge_id in self.vert_edges(vert_id).iter(){
let edge_n=self.directed_edge_n(directed_edge_id);
//is boundary uncrossable by a crawl from infinity
//check if time of collision is outside Time::MIN..Time::MAX
let d=edge_n.dot(diff);
if crate::zeroes::zeroes1(d,edge_n.dot(infinity_dir)).len()==0{
//test the edge
let edge_nn=edge_n.dot(edge_n);
if Planar64::ZERO<=d&&d<=edge_nn{
let distance_squared={
let c=diff.cross(edge_n);
c.dot(c)/edge_nn
};
if distance_squared<=*best_distance_squared{
best_transition=EV::Edge(directed_edge_id.as_undirected());
*best_distance_squared=distance_squared;
}
}
}
}
best_transition
}
fn crawl_boundaries(&self,mut vert_id:MinkowskiVert,infinity_dir:Planar64Vec3,point:Planar64Vec3)->EV{
let mut best_distance_squared={
let diff=point-self.vert(vert_id);
diff.dot(diff)
};
loop{
match self.next_transition_vert(vert_id,&mut best_distance_squared,infinity_dir,point){
Transition::Done=>return self.final_ev(vert_id,&mut best_distance_squared,infinity_dir,point),
Transition::Vert(new_vert_id)=>vert_id=new_vert_id,
}
}
}
/// This function drops a vertex down to an edge or a face if the path from infinity did not cross any vertex-edge boundaries but the point is supposed to have already crossed a boundary down from a vertex
fn infinity_fev(&self,infinity_dir:Planar64Vec3,point:Planar64Vec3)->FEV::<MinkowskiFace,MinkowskiDirectedEdge,MinkowskiVert>{
//start on any vertex
//cross uncrossable vertex-edge boundaries until you find the closest vertex or edge
//cross edge-face boundary if it's uncrossable
match self.crawl_boundaries(self.farthest_vert(infinity_dir),infinity_dir,point){
//if a vert is returned, it is the closest point to the infinity point
EV::Vert(vert_id)=>FEV::<MinkowskiFace,MinkowskiDirectedEdge,MinkowskiVert>::Vert(vert_id),
EV::Edge(edge_id)=>{
//cross to face if the boundary is not crossable and we are on the wrong side
let edge_n=self.edge_n(edge_id);
// point is multiplied by two because vert_sum sums two vertices.
let delta_pos=point*2-{
let &[v0,v1]=self.edge_verts(edge_id).borrow();
self.vert(v0)+self.vert(v1)
};
for (i,&face_id) in self.edge_faces(edge_id).iter().enumerate(){
let face_n=self.face_nd(face_id).0;
//edge-face boundary nd, n facing out of the face towards the edge
let boundary_n=face_n.cross(edge_n)*(i as i64*2-1);
let boundary_d=boundary_n.dot(delta_pos);
//check if time of collision is outside Time::MIN..Time::MAX
//infinity_dir can always be treated as a velocity
if (boundary_d)<=Planar64::ZERO&&crate::zeroes::zeroes1(boundary_d,boundary_n.dot(infinity_dir)*2).len()==0{
//both faces cannot pass this condition, return early if one does.
return FEV::<MinkowskiFace,MinkowskiDirectedEdge,MinkowskiVert>::Face(face_id);
}
}
FEV::<MinkowskiFace,MinkowskiDirectedEdge,MinkowskiVert>::Edge(edge_id)
},
}
}
fn closest_fev_not_inside(&self,mut infinity_body:crate::physics::Body)->Option<FEV::<MinkowskiFace,MinkowskiDirectedEdge,MinkowskiVert>>{
infinity_body.infinity_dir().map_or(None,|dir|{
let infinity_fev=self.infinity_fev(-dir,infinity_body.position);
//a line is simpler to solve than a parabola
infinity_body.velocity=dir;
infinity_body.acceleration=Planar64Vec3::ZERO;
//crawl in from negative infinity along a tangent line to get the closest fev
match crate::face_crawler::crawl_fev(infinity_fev,self,&infinity_body,crate::integer::Time::MIN,infinity_body.time){
crate::face_crawler::CrawlResult::Miss(fev)=>Some(fev),
crate::face_crawler::CrawlResult::Hit(_,_)=>None,
}
})
}
pub fn predict_collision_in(&self,relative_body:&crate::physics::Body,time_limit:crate::integer::Time)->Option<(MinkowskiFace,crate::integer::Time)>{
self.closest_fev_not_inside(relative_body.clone()).map_or(None,|fev|{
//continue forwards along the body parabola
match crate::face_crawler::crawl_fev(fev,self,relative_body,relative_body.time,time_limit){
crate::face_crawler::CrawlResult::Miss(_)=>None,
crate::face_crawler::CrawlResult::Hit(face,time)=>Some((face,time)),
}
})
}
pub fn predict_collision_out(&self,relative_body:&crate::physics::Body,time_limit:crate::integer::Time)->Option<(MinkowskiFace,crate::integer::Time)>{
//create an extrapolated body at time_limit
let infinity_body=crate::physics::Body::new(
relative_body.extrapolated_position(time_limit),
-relative_body.extrapolated_velocity(time_limit),
relative_body.acceleration,
-time_limit,
);
self.closest_fev_not_inside(infinity_body).map_or(None,|fev|{
//continue backwards along the body parabola
match crate::face_crawler::crawl_fev(fev,self,&-relative_body.clone(),-time_limit,-relative_body.time){
crate::face_crawler::CrawlResult::Miss(_)=>None,
crate::face_crawler::CrawlResult::Hit(face,time)=>Some((face,-time)),//no need to test -time<time_limit because of the first step
}
})
}
pub fn predict_collision_face_out(&self,relative_body:&crate::physics::Body,time_limit:crate::integer::Time,contact_face_id:MinkowskiFace)->Option<(MinkowskiEdge,crate::integer::Time)>{
//no algorithm needed, there is only one state and two cases (Edge,None)
//determine when it passes an edge ("sliding off" case)
let mut best_time=time_limit;
let mut best_edge=None;
let face_n=self.face_nd(contact_face_id).0;
for &directed_edge_id in self.face_edges(contact_face_id).iter(){
let edge_n=self.directed_edge_n(directed_edge_id);
//f x e points in
let n=face_n.cross(edge_n);
let verts=self.edge_verts(directed_edge_id.as_undirected());
let d=n.dot(self.vert(verts[0])+self.vert(verts[1]));
//WARNING! d outside of *2
for t in crate::zeroes::zeroes2((n.dot(relative_body.position))*2-d,n.dot(relative_body.velocity)*2,n.dot(relative_body.acceleration)){
let t=relative_body.time+crate::integer::Time::from(t);
if relative_body.time<t&&t<best_time&&n.dot(relative_body.extrapolated_velocity(t))<Planar64::ZERO{
best_time=t;
best_edge=Some(directed_edge_id);
break;
}
}
}
best_edge.map(|e|(e.as_undirected(),best_time))
}
}
impl MeshQuery<MinkowskiFace,MinkowskiDirectedEdge,MinkowskiVert> for MinkowskiMesh<'_>{
fn face_nd(&self,face_id:MinkowskiFace)->(Planar64Vec3,Planar64){
match face_id{
MinkowskiFace::VertFace(v0,f1)=>{
let (n,d)=self.mesh1.face_nd(f1);
(-n,d-n.dot(self.mesh0.vert(v0)))
},
MinkowskiFace::EdgeEdge(e0,e1,parity)=>{
let edge0_n=self.mesh0.edge_n(e0);
let edge1_n=self.mesh1.edge_n(e1);
let &[e0v0,e0v1]=self.mesh0.edge_verts(e0).borrow();
let &[e1v0,e1v1]=self.mesh1.edge_verts(e1).borrow();
let n=edge0_n.cross(edge1_n);
let e0d=n.dot(self.mesh0.vert(e0v0)+self.mesh0.vert(e0v1));
let e1d=n.dot(self.mesh1.vert(e1v0)+self.mesh1.vert(e1v1));
(n*(parity as i64*4-2),(e0d-e1d)*(parity as i64*2-1))
},
MinkowskiFace::FaceVert(f0,v1)=>{
let (n,d)=self.mesh0.face_nd(f0);
(n,d-n.dot(self.mesh1.vert(v1)))
},
}
}
fn vert(&self,vert_id:MinkowskiVert)->Planar64Vec3{
match vert_id{
MinkowskiVert::VertVert(v0,v1)=>{
self.mesh0.vert(v0)-self.mesh1.vert(v1)
},
}
}
fn face_edges(&self,face_id:MinkowskiFace)->Cow<Vec<MinkowskiDirectedEdge>>{
match face_id{
MinkowskiFace::VertFace(v0,f1)=>{
Cow::Owned(self.mesh1.face_edges(f1).iter().map(|&edge_id1|{
MinkowskiDirectedEdge::VertEdge(v0,edge_id1.reverse())
}).collect())
},
MinkowskiFace::EdgeEdge(e0,e1,parity)=>{
let e0v=self.mesh0.edge_verts(e0);
let e1v=self.mesh1.edge_verts(e1);
//could sort this if ordered edges are needed
//probably just need to reverse this list according to parity
Cow::Owned(vec![
MinkowskiDirectedEdge::VertEdge(e0v[0],e1.as_directed(parity)),
MinkowskiDirectedEdge::EdgeVert(e0.as_directed(!parity),e1v[0]),
MinkowskiDirectedEdge::VertEdge(e0v[1],e1.as_directed(!parity)),
MinkowskiDirectedEdge::EdgeVert(e0.as_directed(parity),e1v[1]),
])
},
MinkowskiFace::FaceVert(f0,v1)=>{
Cow::Owned(self.mesh0.face_edges(f0).iter().map(|&edge_id0|{
MinkowskiDirectedEdge::EdgeVert(edge_id0,v1)
}).collect())
},
}
}
fn edge_faces(&self,edge_id:MinkowskiEdge)->Cow<[MinkowskiFace;2]>{
match edge_id{
MinkowskiEdge::VertEdge(v0,e1)=>{
//faces are listed backwards from the minkowski mesh
let v0e=self.mesh0.vert_edges(v0);
let &[e1f0,e1f1]=self.mesh1.edge_faces(e1).borrow();
Cow::Owned([(e1f1,false),(e1f0,true)].map(|(edge_face_id1,face_parity)|{
let mut best_edge=None;
let mut best_d=Planar64::ZERO;
let edge_face1_n=self.mesh1.face_nd(edge_face_id1).0;
let edge_face1_nn=edge_face1_n.dot(edge_face1_n);
for &directed_edge_id0 in v0e.iter(){
let edge0_n=self.mesh0.directed_edge_n(directed_edge_id0);
//must be behind other face.
let d=edge_face1_n.dot(edge0_n);
if d<Planar64::ZERO{
let edge0_nn=edge0_n.dot(edge0_n);
//divide by zero???
let dd=d*d/(edge_face1_nn*edge0_nn);
if best_d<dd{
best_d=dd;
best_edge=Some(directed_edge_id0);
}
}
}
best_edge.map_or(
MinkowskiFace::VertFace(v0,edge_face_id1),
|directed_edge_id0|MinkowskiFace::EdgeEdge(directed_edge_id0.as_undirected(),e1,directed_edge_id0.parity()^face_parity)
)
}))
},
MinkowskiEdge::EdgeVert(e0,v1)=>{
//tracking index with an external variable because .enumerate() is not available
let v1e=self.mesh1.vert_edges(v1);
let &[e0f0,e0f1]=self.mesh0.edge_faces(e0).borrow();
Cow::Owned([(e0f0,true),(e0f1,false)].map(|(edge_face_id0,face_parity)|{
let mut best_edge=None;
let mut best_d=Planar64::ZERO;
let edge_face0_n=self.mesh0.face_nd(edge_face_id0).0;
let edge_face0_nn=edge_face0_n.dot(edge_face0_n);
for &directed_edge_id1 in v1e.iter(){
let edge1_n=self.mesh1.directed_edge_n(directed_edge_id1);
let d=edge_face0_n.dot(edge1_n);
if d<Planar64::ZERO{
let edge1_nn=edge1_n.dot(edge1_n);
let dd=d*d/(edge_face0_nn*edge1_nn);
if best_d<dd{
best_d=dd;
best_edge=Some(directed_edge_id1);
}
}
}
best_edge.map_or(
MinkowskiFace::FaceVert(edge_face_id0,v1),
|directed_edge_id1|MinkowskiFace::EdgeEdge(e0,directed_edge_id1.as_undirected(),directed_edge_id1.parity()^face_parity)
)
}))
},
}
}
fn edge_verts(&self,edge_id:MinkowskiEdge)->Cow<[MinkowskiVert;2]>{
match edge_id{
MinkowskiEdge::VertEdge(v0,e1)=>{
Cow::Owned(self.mesh1.edge_verts(e1).map(|vert_id1|{
MinkowskiVert::VertVert(v0,vert_id1)
}))
},
MinkowskiEdge::EdgeVert(e0,v1)=>{
Cow::Owned(self.mesh0.edge_verts(e0).map(|vert_id0|{
MinkowskiVert::VertVert(vert_id0,v1)
}))
},
}
}
fn vert_edges(&self,vert_id:MinkowskiVert)->Cow<Vec<MinkowskiDirectedEdge>>{
match vert_id{
MinkowskiVert::VertVert(v0,v1)=>{
let mut edges=Vec::new();
//detect shared volume when the other mesh is mirrored along a test edge dir
let v0f=self.mesh0.vert_faces(v0);
let v1f=self.mesh1.vert_faces(v1);
let v0f_n:Vec<Planar64Vec3>=v0f.iter().map(|&face_id|self.mesh0.face_nd(face_id).0).collect();
let v1f_n:Vec<Planar64Vec3>=v1f.iter().map(|&face_id|self.mesh1.face_nd(face_id).0).collect();
let the_len=v0f.len()+v1f.len();
for &directed_edge_id in self.mesh0.vert_edges(v0).iter(){
let n=self.mesh0.directed_edge_n(directed_edge_id);
let nn=n.dot(n);
//make a set of faces
let mut face_normals=Vec::with_capacity(the_len);
//add mesh0 faces as-is
face_normals.clone_from(&v0f_n);
for face_n in &v1f_n{
//add reflected mesh1 faces
face_normals.push(*face_n-n*(face_n.dot(n)*2/nn));
}
if is_empty_volume(face_normals){
edges.push(MinkowskiDirectedEdge::EdgeVert(directed_edge_id,v1));
}
}
for &directed_edge_id in self.mesh1.vert_edges(v1).iter(){
let n=self.mesh1.directed_edge_n(directed_edge_id);
let nn=n.dot(n);
let mut face_normals=Vec::with_capacity(the_len);
face_normals.clone_from(&v1f_n);
for face_n in &v0f_n{
face_normals.push(*face_n-n*(face_n.dot(n)*2/nn));
}
if is_empty_volume(face_normals){
edges.push(MinkowskiDirectedEdge::VertEdge(v0,directed_edge_id));
}
}
Cow::Owned(edges)
},
}
}
fn vert_faces(&self,_vert_id:MinkowskiVert)->Cow<Vec<MinkowskiFace>>{
unimplemented!()
}
}
fn is_empty_volume(normals:Vec<Planar64Vec3>)->bool{
let len=normals.len();
for i in 0..len-1{
for j in i+1..len{
let n=normals[i].cross(normals[j]);
let mut d_comp=None;
for k in 0..len{
if k!=i&&k!=j{
let d=n.dot(normals[k]);
if let Some(comp)=&d_comp{
if *comp*d<Planar64::ZERO{
return true;
}
}else{
d_comp=Some(d);
}
}
}
}
}
return false;
}
#[test]
fn test_is_empty_volume(){
assert!(!is_empty_volume([Planar64Vec3::X,Planar64Vec3::Y,Planar64Vec3::Z].to_vec()));
assert!(is_empty_volume([Planar64Vec3::X,Planar64Vec3::Y,Planar64Vec3::Z,Planar64Vec3::NEG_X].to_vec()));
}
#[test]
fn build_me_a_cube(){
let unit_cube=crate::primitives::unit_cube();
let mesh=PhysicsMesh::from(&unit_cube);
//println!("mesh={:?}",mesh);
}
//

File diff suppressed because it is too large Load Diff

@ -126,21 +126,17 @@ const CORNERWEDGE_DEFAULT_NORMALS:[Planar64Vec3;5]=[
Planar64Vec3::int( 0,-1, 0),//CornerWedge::Bottom
Planar64Vec3::int( 0, 0,-1),//CornerWedge::Front
];
//HashMap fits this use case perfectly but feels like using a sledgehammer to drive a nail
pub fn unit_sphere()->crate::model::IndexedModel{
unit_cube()
}
#[derive(Default)]
pub struct CubeFaceDescription([Option<FaceDescription>;6]);
impl CubeFaceDescription{
pub fn insert(&mut self,index:CubeFace,value:FaceDescription){
self.0[index as usize]=Some(value);
}
pub fn pairs(self)->std::iter::FilterMap<std::iter::Enumerate<std::array::IntoIter<Option<FaceDescription>,6>>,impl FnMut((usize,Option<FaceDescription>))->Option<(usize,FaceDescription)>>{
self.0.into_iter().enumerate().filter_map(|v|v.1.map(|u|(v.0,u)))
let mut indexed_model=crate::model::generate_indexed_model_list_from_obj(obj::ObjData::load_buf(&include_bytes!("../models/suzanne.obj")[..]).unwrap(),Color4::ONE).remove(0);
for pos in indexed_model.unique_pos.iter_mut(){
*pos=*pos/2;
}
indexed_model
}
pub type CubeFaceDescription=std::collections::HashMap::<CubeFace,FaceDescription>;
pub fn unit_cube()->crate::model::IndexedModel{
let mut t=CubeFaceDescription::default();
let mut t=CubeFaceDescription::new();
t.insert(CubeFace::Right,FaceDescription::default());
t.insert(CubeFace::Top,FaceDescription::default());
t.insert(CubeFace::Back,FaceDescription::default());
@ -149,21 +145,17 @@ pub fn unit_cube()->crate::model::IndexedModel{
t.insert(CubeFace::Front,FaceDescription::default());
generate_partial_unit_cube(t)
}
const TEAPOT_TRANSFORM:crate::integer::Planar64Mat3=crate::integer::Planar64Mat3::int_from_cols_array([0,1,0, -1,0,0, 0,0,1]);
pub fn unit_cylinder()->crate::model::IndexedModel{
unit_cube()
}
#[derive(Default)]
pub struct WedgeFaceDescription([Option<FaceDescription>;5]);
impl WedgeFaceDescription{
pub fn insert(&mut self,index:WedgeFace,value:FaceDescription){
self.0[index as usize]=Some(value);
}
pub fn pairs(self)->std::iter::FilterMap<std::iter::Enumerate<std::array::IntoIter<Option<FaceDescription>,5>>,impl FnMut((usize,Option<FaceDescription>))->Option<(usize,FaceDescription)>>{
self.0.into_iter().enumerate().filter_map(|v|v.1.map(|u|(v.0,u)))
let mut indexed_model=crate::model::generate_indexed_model_list_from_obj(obj::ObjData::load_buf(&include_bytes!("../models/teapot.obj")[..]).unwrap(),Color4::ONE).remove(0);
for pos in indexed_model.unique_pos.iter_mut(){
*pos=TEAPOT_TRANSFORM*(*pos)/10;
}
indexed_model
}
pub type WedgeFaceDescription=std::collections::HashMap::<WedgeFace,FaceDescription>;
pub fn unit_wedge()->crate::model::IndexedModel{
let mut t=WedgeFaceDescription::default();
let mut t=WedgeFaceDescription::new();
t.insert(WedgeFace::Right,FaceDescription::default());
t.insert(WedgeFace::TopFront,FaceDescription::default());
t.insert(WedgeFace::Back,FaceDescription::default());
@ -171,18 +163,9 @@ pub fn unit_wedge()->crate::model::IndexedModel{
t.insert(WedgeFace::Bottom,FaceDescription::default());
generate_partial_unit_wedge(t)
}
#[derive(Default)]
pub struct CornerWedgeFaceDescription([Option<FaceDescription>;5]);
impl CornerWedgeFaceDescription{
pub fn insert(&mut self,index:CornerWedgeFace,value:FaceDescription){
self.0[index as usize]=Some(value);
}
pub fn pairs(self)->std::iter::FilterMap<std::iter::Enumerate<std::array::IntoIter<Option<FaceDescription>,5>>,impl FnMut((usize,Option<FaceDescription>))->Option<(usize,FaceDescription)>>{
self.0.into_iter().enumerate().filter_map(|v|v.1.map(|u|(v.0,u)))
}
}
pub type CornerWedgeFaceDescription=std::collections::HashMap::<CornerWedgeFace,FaceDescription>;
pub fn unit_cornerwedge()->crate::model::IndexedModel{
let mut t=CornerWedgeFaceDescription::default();
let mut t=CornerWedgeFaceDescription::new();
t.insert(CornerWedgeFace::Right,FaceDescription::default());
t.insert(CornerWedgeFace::TopBack,FaceDescription::default());
t.insert(CornerWedgeFace::TopLeft,FaceDescription::default());
@ -206,6 +189,18 @@ impl std::default::Default for FaceDescription{
}
}
}
impl FaceDescription{
pub fn new(texture:u32,transform:glam::Affine2,color:Color4)->Self{
Self{texture:Some(texture),transform,color}
}
pub fn from_texture(texture:u32)->Self{
Self{
texture:Some(texture),
transform:glam::Affine2::IDENTITY,
color:Color4::ONE,
}
}
}
//TODO: it's probably better to use a shared vertex buffer between all primitives and use indexed rendering instead of generating a unique vertex buffer for each primitive.
//implementation: put all roblox primitives into one model.groups <- this won't work but I forget why
pub fn generate_partial_unit_cube(face_descriptions:CubeFaceDescription)->crate::model::IndexedModel{
@ -217,7 +212,7 @@ pub fn generate_partial_unit_cube(face_descriptions:CubeFaceDescription)->crate:
let mut groups=Vec::new();
let mut transforms=Vec::new();
//note that on a cube every vertex is guaranteed to be unique, so there's no need to hash them against existing vertices.
for (face_id,face_description) in face_descriptions.pairs(){
for (face,face_description) in face_descriptions.into_iter(){
//assume that scanning short lists is faster than hashing.
let transform_index=if let Some(transform_index)=transforms.iter().position(|&transform|transform==face_description.transform){
transform_index
@ -238,6 +233,14 @@ pub fn generate_partial_unit_cube(face_descriptions:CubeFaceDescription)->crate:
generated_color.push(face_description.color);
color_index
} as u32;
let face_id=match face{
CubeFace::Right => 0,
CubeFace::Top => 1,
CubeFace::Back => 2,
CubeFace::Left => 3,
CubeFace::Bottom => 4,
CubeFace::Front => 5,
};
//always push normal
let normal_index=generated_normal.len() as u32;
generated_normal.push(CUBE_DEFAULT_NORMALS[face_id]);
@ -324,7 +327,7 @@ pub fn generate_partial_unit_wedge(face_descriptions:WedgeFaceDescription)->crat
let mut groups=Vec::new();
let mut transforms=Vec::new();
//note that on a cube every vertex is guaranteed to be unique, so there's no need to hash them against existing vertices.
for (face_id,face_description) in face_descriptions.pairs(){
for (face,face_description) in face_descriptions.into_iter(){
//assume that scanning short lists is faster than hashing.
let transform_index=if let Some(transform_index)=transforms.iter().position(|&transform|transform==face_description.transform){
transform_index
@ -345,6 +348,13 @@ pub fn generate_partial_unit_wedge(face_descriptions:WedgeFaceDescription)->crat
generated_color.push(face_description.color);
color_index
} as u32;
let face_id=match face{
WedgeFace::Right => 0,
WedgeFace::TopFront => 1,
WedgeFace::Back => 2,
WedgeFace::Left => 3,
WedgeFace::Bottom => 4,
};
//always push normal
let normal_index=generated_normal.len() as u32;
generated_normal.push(WEDGE_DEFAULT_NORMALS[face_id]);
@ -429,7 +439,7 @@ pub fn generate_partial_unit_cornerwedge(face_descriptions:CornerWedgeFaceDescri
let mut groups=Vec::new();
let mut transforms=Vec::new();
//note that on a cube every vertex is guaranteed to be unique, so there's no need to hash them against existing vertices.
for (face_id,face_description) in face_descriptions.pairs(){
for (face,face_description) in face_descriptions.into_iter(){
//assume that scanning short lists is faster than hashing.
let transform_index=if let Some(transform_index)=transforms.iter().position(|&transform|transform==face_description.transform){
transform_index
@ -450,6 +460,13 @@ pub fn generate_partial_unit_cornerwedge(face_descriptions:CornerWedgeFaceDescri
generated_color.push(face_description.color);
color_index
} as u32;
let face_id=match face{
CornerWedgeFace::Right => 0,
CornerWedgeFace::TopBack => 1,
CornerWedgeFace::TopLeft => 2,
CornerWedgeFace::Bottom => 3,
CornerWedgeFace::Front => 4,
};
//always push normal
let normal_index=generated_normal.len() as u32;
generated_normal.push(CORNERWEDGE_DEFAULT_NORMALS[face_id]);

@ -41,7 +41,6 @@ fn create_instance()->SetupContextPartial1{
instance:wgpu::Instance::new(wgpu::InstanceDescriptor{
backends,
dx12_shader_compiler,
..Default::default()
}),
}
}
@ -170,7 +169,6 @@ impl SetupContextPartial4{
.expect("Surface isn't supported by the adapter.");
let surface_view_format=config.format.add_srgb_suffix();
config.view_formats.push(surface_view_format);
config.present_mode=wgpu::PresentMode::AutoNoVsync;
self.surface.configure(&self.device, &config);
SetupContext{

@ -1,134 +0,0 @@
//file format "sniff"
/* spec
//begin global header
//global metadata (32 bytes)
b"SNFB"
u32 format_version
u64 priming_bytes
//how many bytes of the file must be read to guarantee all of the expected
//format-specific metadata is available to facilitate streaming the remaining contents
//used by the database to guarantee that it serves at least the bare minimum
u128 resource_uuid
//identifies the file from anywhere for any other file
//global block layout (variable size)
u64 num_blocks
for block_id in 0..num_blocks{
u64 first_byte
}
//end global header
//begin blocks
//each block is compressed with zstd or gz or something
*/
/* block types
BLOCK_MAP_HEADER:
DefaultStyleInfo style_info
//bvh goes here
u64 num_nodes
//node 0 parent node is implied to be None
for node_id in 1..num_nodes{
u64 parent_node
}
u64 num_spacial_blocks
for spacial_block_id in 0..num_spacial_blocks{
u64 node_id
u64 block_id //data block
Aabb block_extents
}
//ideally spacial blocks are sorted from distance to start zone
//texture blocks are inserted before the first spacial block they are used in
BLOCK_MAP_RESOURCE:
//an individual one of the following:
- model (IndexedModel)
- shader (compiled SPIR-V)
- image (JpegXL)
- sound (Opus)
- video (AV1)
- animation (Trey thing)
BLOCK_MAP_OBJECT:
//an individual one of the following:
- model instance
- located resource
//for a list of resources, parse the object.
//alternatively, BLOCK_MAP_REGION lists a group of objects to be decoded all at once
BLOCK_BOT_HEADER:
u128 map_resource_uuid //which map is this bot running
u128 time_resource_uuid //resource database time
//don't include style info in bot header because it's in the physics state
//blocks are laid out in chronological order, but indices may jump around.
u64 num_segments
for _ in 0..num_segments{
i64 time //physics_state timestamp
u64 block_id
}
BLOCK_BOT_SEGMENT:
//format version indicates what version of these structures to use
PhysicsState physics_state
//to read, greedily decode instructions until eof
loop{
//delta encode as much as possible (time,mousepos)
//strafe ticks are implied
//physics can be implied in an input-only bot file
TimedInstruction<PhysicsInstruction> instruction
}
BLOCK_DEMO_HEADER:
//timeline of loading maps, player equipment, bots
*/
struct InputInstructionCodecState{
mouse_pos:glam::IVec2,
time:crate::integer::Time,
}
//8B - 12B
impl InputInstructionCodecState{
pub fn encode(&mut self,ins:&crate::instruction::TimedInstruction<crate::physics::InputInstruction>)->([u8;12],usize){
let dt=ins.time-self.time;
self.time=ins.time;
let mut data=[0u8;12];
[data[0],data[1],data[2],data[3]]=(dt.nanos() as u32).to_le_bytes();//4B
//instruction id packed with game control parity bit. This could be 1 byte but it ruins the alignment
[data[4],data[5],data[6],data[7]]=ins.instruction.id().to_le_bytes();//4B
match &ins.instruction{
&crate::physics::InputInstruction::MoveMouse(m)=>{//4B
let dm=m-self.mouse_pos;
[data[8],data[9]]=(dm.x as i16).to_le_bytes();
[data[10],data[11]]=(dm.y as i16).to_le_bytes();
self.mouse_pos=m;
(data,12)
},
//0B
crate::physics::InputInstruction::MoveRight(_)
|crate::physics::InputInstruction::MoveUp(_)
|crate::physics::InputInstruction::MoveBack(_)
|crate::physics::InputInstruction::MoveLeft(_)
|crate::physics::InputInstruction::MoveDown(_)
|crate::physics::InputInstruction::MoveForward(_)
|crate::physics::InputInstruction::Jump(_)
|crate::physics::InputInstruction::Zoom(_)
|crate::physics::InputInstruction::Reset
|crate::physics::InputInstruction::Idle=>(data,8),
}
}
}
//everything must be 4 byte aligned, it's all going to be compressed so don't think too had about saving less than 4 bytes
//TODO: Omit (mouse only?) instructions that don't surround an actual physics instruction
fn write_input_instruction<W:std::io::Write>(state:&mut InputInstructionCodecState,w:&mut W,ins:&crate::instruction::TimedInstruction<crate::physics::InputInstruction>)->Result<usize,std::io::Error>{
//TODO: insert idle instruction if gap is over u32 nanoseconds
//TODO: don't write idle instructions
//OR: end the data block! the full state at the start of the next block will contain an absolute timestamp
let (data,size)=state.encode(ins);
w.write(&data[0..size])//8B-12B
}

8
src/sweep.rs Normal file

@ -0,0 +1,8 @@
//something that implements body + hitbox + transform can predict collision
impl crate::sweep::PredictCollision for Model {
fn predict_collision(&self,other:&Model) -> Option<crate::event::EventStruct> {
//math!
None
}
}

@ -175,10 +175,10 @@ impl<'a,Task:Send+'a> INWorker<'a,Task>{
#[test]//How to run this test with printing: cargo test --release -- --nocapture
fn test_worker() {
println!("hiiiii");
// Create the worker thread
let test_body=crate::physics::Body::new(crate::integer::Planar64Vec3::ONE,crate::integer::Planar64Vec3::ONE,crate::integer::Planar64Vec3::ONE,crate::integer::Time::ZERO);
let worker=QRWorker::new(crate::physics::Body::default(),
|_|crate::physics::Body::new(crate::integer::Planar64Vec3::ONE,crate::integer::Planar64Vec3::ONE,crate::integer::Planar64Vec3::ONE,crate::integer::Time::ZERO)
let worker=QRWorker::new(crate::physics::Body::with_pva(crate::integer::Planar64Vec3::ZERO,crate::integer::Planar64Vec3::ZERO,crate::integer::Planar64Vec3::ZERO),
|_|crate::physics::Body::with_pva(crate::integer::Planar64Vec3::ONE,crate::integer::Planar64Vec3::ONE,crate::integer::Planar64Vec3::ONE)
);
// Send tasks to the worker
@ -194,7 +194,7 @@ fn test_worker() {
// sender.send("STOP".to_string()).unwrap();
// Sleep to allow the worker thread to finish processing
thread::sleep(std::time::Duration::from_millis(10));
thread::sleep(std::time::Duration::from_secs(2));
// Send a new task
let task = crate::instruction::TimedInstruction{
@ -203,8 +203,8 @@ fn test_worker() {
};
worker.send(task).unwrap();
//assert_eq!(test_body,worker.grab_clone());
println!("value={}",worker.grab_clone());
// wait long enough to see print from final task
thread::sleep(std::time::Duration::from_millis(10));
thread::sleep(std::time::Duration::from_secs(1));
}

@ -2,39 +2,32 @@
use crate::integer::Planar64;
#[inline]
pub fn zeroes2(a0:Planar64,a1:Planar64,a2:Planar64) -> Vec<Planar64>{
pub fn zeroes2(a0:Planar64,a1:Planar64,a2:Planar64)->([Planar64;2],usize){
if a2==Planar64::ZERO{
return zeroes1(a0, a1);
let ([ret],ret_len)=zeroes1(a0,a1);
return ([ret,Planar64::ZERO],ret_len);
}
let radicand=a1.get() as i128*a1.get() as i128-a2.get() as i128*a0.get() as i128*4;
if 0<radicand {
if 0<radicand{
//start with f64 sqrt
//failure case: 2^63 < sqrt(2^127)
let planar_radicand=Planar64::raw(unsafe{(radicand as f64).sqrt().to_int_unchecked()});
//TODO: one or two newtons
//sort roots ascending and avoid taking the difference of large numbers
match (Planar64::ZERO<a2,Planar64::ZERO<a1){
(true, true )=>vec![(-a1-planar_radicand)/(a2*2),(a0*2)/(-a1-planar_radicand)],
(true, false)=>vec![(a0*2)/(-a1+planar_radicand),(-a1+planar_radicand)/(a2*2)],
(false,true )=>vec![(a0*2)/(-a1-planar_radicand),(-a1-planar_radicand)/(a2*2)],
(false,false)=>vec![(-a1+planar_radicand)/(a2*2),(a0*2)/(-a1+planar_radicand)],
if Planar64::ZERO<a2{
([(-a1-planar_radicand)/(a2*2),(-a1+planar_radicand)/(a2*2)],2)
}else{
([(-a1+planar_radicand)/(a2*2),(-a1-planar_radicand)/(a2*2)],2)
}
} else if radicand==0 {
return vec![a1/(a2*-2)];
} else {
return vec![];
}else if radicand==0{
([a1/(a2*-2),Planar64::ZERO],1)
}else{
([Planar64::ZERO,Planar64::ZERO],0)
}
}
#[inline]
pub fn zeroes1(a0:Planar64,a1:Planar64) -> Vec<Planar64> {
pub fn zeroes1(a0:Planar64,a1:Planar64)->([Planar64;1],usize){
if a1==Planar64::ZERO{
return vec![];
return ([Planar64::ZERO],0);
}else{
let q=((-a0.get() as i128)<<32)/(a1.get() as i128);
if i64::MIN as i128<=q&&q<=i64::MAX as i128{
return vec![Planar64::raw(q as i64)];
}else{
return vec![];
}
return ([-a0/a1],1);
}
}

@ -1 +0,0 @@
mangohud ../target/release/strafe-client bhop_maps/5692113331.rbxm

@ -1 +0,0 @@
/run/media/quat/Files/Documents/map-files/verify-scripts/maps/bhop_all/

@ -1 +0,0 @@
cargo build --release --target x86_64-pc-windows-gnu

@ -1,4 +0,0 @@
mkdir -p ../target/demo
mv ../target/x86_64-pc-windows-gnu/release/strafe-client.exe ../target/demo/strafe-client.exe
rm ../target/demo.7z
7z a -t7z -mx=9 -mfb=273 -ms -md=31 -myx=9 -mtm=- -mmt -mmtf -md=1536m -mmf=bt3 -mmc=10000 -mpb=0 -mlc=0 ../target/demo.7z ../target/demo

@ -1 +0,0 @@
mangohud ../target/release/strafe-client "$1"

@ -1,4 +0,0 @@
[camera]
sensitivity_x=98384
fov_y=1.0
#fov_x_from_y_ratio=1.33333333333333333333333333333333

@ -1 +0,0 @@
/run/media/quat/Files/Documents/map-files/verify-scripts/maps/surf_all/

@ -1 +0,0 @@
/run/media/quat/Files/Documents/map-files/verify-scripts/textures/dds/

@ -1 +0,0 @@
mangohud ../target/release/strafe-client bhop_maps/5692152916.rbxm

@ -1 +0,0 @@
mangohud ../target/release/strafe-client surf_maps/5692145408.rbxm