Implement giant trees in site2

This commit is contained in:
InfRandomness 2022-02-02 02:33:37 +00:00 committed by Justin Shipsey
parent 18f6077321
commit 54b69e37a5
11 changed files with 247 additions and 40 deletions

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@ -44,6 +44,7 @@ and this project adheres to [Semantic Versioning](https://semver.org/spec/v2.0.0
- A 'point light glow' effect, making lanterns and other point lights more visually pronounced - A 'point light glow' effect, making lanterns and other point lights more visually pronounced
- Generate random name for site2 sites - Generate random name for site2 sites
- Shader dithering to remove banding from scenes with large colour gradients - Shader dithering to remove banding from scenes with large colour gradients
- Convert giant trees to site2
### Changed ### Changed

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@ -44,7 +44,7 @@ fn main() -> Result {
CanvasInfo::with_mock_canvas_info(index.as_index_ref(), world.sim(), |canvas| { CanvasInfo::with_mock_canvas_info(index.as_index_ref(), world.sim(), |canvas| {
for plot in site.plots() { for plot in site.plots() {
if let PlotKind::Dungeon(dungeon) = plot.kind() { if let PlotKind::Dungeon(dungeon) = plot.kind() {
let (prim_tree, fills) = dungeon.render_collect(&site, &canvas.land()); let (prim_tree, fills) = dungeon.render_collect(&site, canvas);
for (prim, fill) in fills { for (prim, fill) in fills {
let aabb = fill.get_bounds(&prim_tree, prim); let aabb = fill.get_bounds(&prim_tree, prim);

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@ -103,7 +103,13 @@ impl Civs {
let (kind, size) = match ctx.rng.gen_range(0..64) { let (kind, size) = match ctx.rng.gen_range(0..64) {
0..=4 => (SiteKind::Castle, 3), 0..=4 => (SiteKind::Castle, 3),
5..=28 if index.features().site2 => (SiteKind::Refactor, 6), 5..=28 if index.features().site2 => (SiteKind::Refactor, 6),
29..=31 => (SiteKind::Tree, 4), 29..=31 => {
if index.features().site2 {
(SiteKind::GiantTree, 4)
} else {
(SiteKind::Tree, 4)
}
},
_ => (SiteKind::Dungeon, 0), _ => (SiteKind::Dungeon, 0),
}; };
let loc = find_site_loc(&mut ctx, None, size, kind)?; let loc = find_site_loc(&mut ctx, None, size, kind)?;
@ -129,6 +135,7 @@ impl Civs {
SiteKind::Castle => (16i32, 5.0), SiteKind::Castle => (16i32, 5.0),
SiteKind::Refactor => (0i32, 0.0), SiteKind::Refactor => (0i32, 0.0),
SiteKind::Tree => (12i32, 8.0), SiteKind::Tree => (12i32, 8.0),
SiteKind::GiantTree => (12i32, 8.0),
}; };
let (raise, raise_dist, make_waypoint): (f32, i32, bool) = match &site.kind { let (raise, raise_dist, make_waypoint): (f32, i32, bool) = match &site.kind {
@ -207,6 +214,11 @@ impl Civs {
SiteKind::Tree => { SiteKind::Tree => {
WorldSite::tree(Tree::generate(wpos, &Land::from_sim(ctx.sim), &mut rng)) WorldSite::tree(Tree::generate(wpos, &Land::from_sim(ctx.sim), &mut rng))
}, },
SiteKind::GiantTree => WorldSite::giant_tree(site2::Site::generate_giant_tree(
&Land::from_sim(ctx.sim),
&mut rng,
wpos,
)),
}); });
sim_site.site_tmp = Some(site); sim_site.site_tmp = Some(site);
let site_ref = &index.sites[site]; let site_ref = &index.sites[site];
@ -1029,6 +1041,7 @@ pub enum SiteKind {
Castle, Castle,
Refactor, Refactor,
Tree, Tree,
GiantTree,
} }
impl SiteKind { impl SiteKind {

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@ -803,47 +803,54 @@ impl ProceduralTree {
} }
// Recursively search for branches or leaves by walking the tree's branch graph. // Recursively search for branches or leaves by walking the tree's branch graph.
fn is_branch_or_leaves_at_inner( fn walk_inner(
&self, &self,
pos: Vec3<f32>, descend: &mut impl FnMut(&Branch, &Branch) -> bool,
parent: &Branch, parent: &Branch,
branch_idx: usize, branch_idx: usize,
) -> (bool, bool, bool, bool) { ) {
let branch = &self.branches[branch_idx]; let branch = &self.branches[branch_idx];
// Always probe the sibling branch, since our AABB doesn't include its bounds // Always probe the sibling branch, since it's not a child of the current
// (it's not one of our children) // branch.
let branch_or_leaves = branch let _branch_or_leaves = branch
.sibling_idx .sibling_idx
.map(|idx| Vec4::<bool>::from(self.is_branch_or_leaves_at_inner(pos, parent, idx))) .map(|idx| self.walk_inner(descend, parent, idx));
.unwrap_or_default();
// Only continue probing this sub-graph of the tree if the sample position falls
// within its AABB
if branch.aabb.contains_point(pos) {
// Probe this branch
let (this, _d2) = branch.is_branch_or_leaves_at(&self.config, pos, parent);
let siblings = branch_or_leaves | Vec4::from(this);
// Only continue probing this sub-graph of the tree if the branch maches a
// criteria (usually that it falls within the region we care about
// sampling)
if descend(branch, parent) {
// Probe the children of this branch // Probe the children of this branch
let children = branch let _children = branch
.child_idx .child_idx
.map(|idx| Vec4::<bool>::from(self.is_branch_or_leaves_at_inner(pos, branch, idx))) .map(|idx| self.walk_inner(descend, branch, idx));
.unwrap_or_default();
// Only allow empties for children if there is no solid at the current depth
(siblings | children).into_tuple()
} else {
branch_or_leaves.into_tuple()
} }
} }
/// Recursively walk the tree's branches, calling the current closure with
/// the branch and its parent. If the closure returns `false`, recursion
/// into the child branches is skipped.
pub fn walk<F: FnMut(&Branch, &Branch) -> bool>(&self, mut f: F) {
self.walk_inner(&mut f, &self.branches[self.trunk_idx], self.trunk_idx);
}
/// Determine whether there are either branches or leaves at the given /// Determine whether there are either branches or leaves at the given
/// position in the tree. /// position in the tree.
#[inline(always)] #[inline(always)]
pub fn is_branch_or_leaves_at(&self, pos: Vec3<f32>) -> (bool, bool, bool, bool) { pub fn is_branch_or_leaves_at(&self, pos: Vec3<f32>) -> (bool, bool, bool, bool) {
let (log, leaf, platform, air) = let mut flags = Vec4::broadcast(false);
self.is_branch_or_leaves_at_inner(pos, &self.branches[self.trunk_idx], self.trunk_idx); self.walk(|branch, parent| {
if branch.aabb.contains_point(pos) {
flags |=
Vec4::<bool>::from(branch.is_branch_or_leaves_at(&self.config, pos, parent).0);
true
} else {
false
}
});
let (log, leaf, platform, air) = flags.into_tuple();
let root = if self.root_aabb.contains_point(pos) { let root = if self.root_aabb.contains_point(pos) {
self.roots.iter().any(|root| { self.roots.iter().any(|root| {
let p = root.line.projected_point(pos); let p = root.line.projected_point(pos);
@ -867,7 +874,7 @@ impl ProceduralTree {
// associated with the parent. This means that the entire tree is laid out in a // associated with the parent. This means that the entire tree is laid out in a
// walkable graph where each branch refers only to two other branches. As a // walkable graph where each branch refers only to two other branches. As a
// result, walking the tree is simply a case of performing double recursion. // result, walking the tree is simply a case of performing double recursion.
struct Branch { pub struct Branch {
line: LineSegment3<f32>, line: LineSegment3<f32>,
wood_radius: f32, wood_radius: f32,
leaf_radius: f32, leaf_radius: f32,
@ -969,6 +976,16 @@ impl Branch {
(mask, d2) (mask, d2)
} }
/// This returns an AABB of both the branch and all of the children of that
/// branch
pub fn get_aabb(&self) -> Aabb<f32> { self.aabb }
pub fn get_line(&self) -> LineSegment3<f32> { self.line }
pub fn get_wood_radius(&self) -> f32 { self.wood_radius }
pub fn get_leaf_radius(&self) -> f32 { self.leaf_radius }
} }
struct Root { struct Root {

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@ -155,7 +155,7 @@ impl World {
}, },
civ::SiteKind::Castle => world_msg::SiteKind::Castle, civ::SiteKind::Castle => world_msg::SiteKind::Castle,
civ::SiteKind::Refactor => world_msg::SiteKind::Town, civ::SiteKind::Refactor => world_msg::SiteKind::Town,
civ::SiteKind::Tree => world_msg::SiteKind::Tree, civ::SiteKind::Tree | civ::SiteKind::GiantTree => world_msg::SiteKind::Tree,
}, },
wpos: site.center * TerrainChunkSize::RECT_SIZE.map(|e| e as i32), wpos: site.center * TerrainChunkSize::RECT_SIZE.map(|e| e as i32),
} }

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@ -198,6 +198,7 @@ fn simulate_return(index: &mut Index, world: &mut WorldSim) -> Result<(), std::i
let mut castles = EconStatistics::default(); let mut castles = EconStatistics::default();
let mut towns = EconStatistics::default(); let mut towns = EconStatistics::default();
let mut dungeons = EconStatistics::default(); let mut dungeons = EconStatistics::default();
let giant_trees = EconStatistics::default();
for site in index.sites.ids() { for site in index.sites.ids() {
let site = &index.sites[site]; let site = &index.sites[site];
match site.kind { match site.kind {
@ -206,6 +207,7 @@ fn simulate_return(index: &mut Index, world: &mut WorldSim) -> Result<(), std::i
SiteKind::Castle(_) => castles += site.economy.pop, SiteKind::Castle(_) => castles += site.economy.pop,
SiteKind::Tree(_) => (), SiteKind::Tree(_) => (),
SiteKind::Refactor(_) => towns += site.economy.pop, SiteKind::Refactor(_) => towns += site.economy.pop,
SiteKind::GiantTree(_) => (),
} }
} }
if towns.valid() { if towns.valid() {
@ -232,6 +234,14 @@ fn simulate_return(index: &mut Index, world: &mut WorldSim) -> Result<(), std::i
dungeons.sum / (dungeons.count as f32) dungeons.sum / (dungeons.count as f32)
); );
} }
if giant_trees.valid() {
info!(
"Giant Trees {:.0}-{:.0} avg {:.0}",
giant_trees.min,
giant_trees.max,
giant_trees.sum / (giant_trees.count as f32)
)
}
check_money(index); check_money(index);
} }

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@ -62,6 +62,7 @@ pub enum SiteKind {
Castle(Castle), Castle(Castle),
Refactor(site2::Site), Refactor(site2::Site),
Tree(tree::Tree), Tree(tree::Tree),
GiantTree(site2::Site),
} }
impl Site { impl Site {
@ -100,6 +101,13 @@ impl Site {
} }
} }
pub fn giant_tree(gt: site2::Site) -> Self {
Self {
kind: SiteKind::GiantTree(gt),
economy: Economy::default(),
}
}
pub fn radius(&self) -> f32 { pub fn radius(&self) -> f32 {
match &self.kind { match &self.kind {
SiteKind::Settlement(s) => s.radius(), SiteKind::Settlement(s) => s.radius(),
@ -107,6 +115,7 @@ impl Site {
SiteKind::Castle(c) => c.radius(), SiteKind::Castle(c) => c.radius(),
SiteKind::Refactor(s) => s.radius(), SiteKind::Refactor(s) => s.radius(),
SiteKind::Tree(t) => t.radius(), SiteKind::Tree(t) => t.radius(),
SiteKind::GiantTree(gt) => gt.radius(),
} }
} }
@ -117,6 +126,7 @@ impl Site {
SiteKind::Castle(c) => c.get_origin(), SiteKind::Castle(c) => c.get_origin(),
SiteKind::Refactor(s) => s.origin, SiteKind::Refactor(s) => s.origin,
SiteKind::Tree(t) => t.origin, SiteKind::Tree(t) => t.origin,
SiteKind::GiantTree(gt) => gt.origin,
} }
} }
@ -127,6 +137,7 @@ impl Site {
SiteKind::Castle(c) => c.spawn_rules(wpos), SiteKind::Castle(c) => c.spawn_rules(wpos),
SiteKind::Refactor(s) => s.spawn_rules(wpos), SiteKind::Refactor(s) => s.spawn_rules(wpos),
SiteKind::Tree(t) => t.spawn_rules(wpos), SiteKind::Tree(t) => t.spawn_rules(wpos),
SiteKind::GiantTree(gt) => gt.spawn_rules(wpos),
} }
} }
@ -137,6 +148,7 @@ impl Site {
SiteKind::Castle(c) => c.name(), SiteKind::Castle(c) => c.name(),
SiteKind::Refactor(s) => s.name(), SiteKind::Refactor(s) => s.name(),
SiteKind::Tree(_) => "Giant Tree", SiteKind::Tree(_) => "Giant Tree",
SiteKind::GiantTree(gt) => gt.name(),
} }
} }
@ -169,6 +181,7 @@ impl Site {
SiteKind::Castle(c) => c.apply_to(canvas.index, canvas.wpos, get_col, canvas.chunk), SiteKind::Castle(c) => c.apply_to(canvas.index, canvas.wpos, get_col, canvas.chunk),
SiteKind::Refactor(s) => s.render(canvas, dynamic_rng), SiteKind::Refactor(s) => s.render(canvas, dynamic_rng),
SiteKind::Tree(t) => t.render(canvas, dynamic_rng), SiteKind::Tree(t) => t.render(canvas, dynamic_rng),
SiteKind::GiantTree(gt) => gt.render(canvas, dynamic_rng),
} }
} }
@ -192,6 +205,7 @@ impl Site {
SiteKind::Castle(c) => c.apply_supplement(dynamic_rng, wpos2d, get_column, supplement), SiteKind::Castle(c) => c.apply_supplement(dynamic_rng, wpos2d, get_column, supplement),
SiteKind::Refactor(_) => {}, SiteKind::Refactor(_) => {},
SiteKind::Tree(_) => {}, SiteKind::Tree(_) => {},
SiteKind::GiantTree(gt) => gt.apply_supplement(dynamic_rng, wpos2d, supplement),
} }
} }

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@ -3,6 +3,7 @@ use crate::{
block::block_from_structure, block::block_from_structure,
site2::util::Dir, site2::util::Dir,
util::{RandomField, Sampler}, util::{RandomField, Sampler},
CanvasInfo,
}; };
use common::{ use common::{
store::{Id, Store}, store::{Id, Store},
@ -504,6 +505,7 @@ impl Fill {
pub struct Painter { pub struct Painter {
prims: RefCell<Store<Primitive>>, prims: RefCell<Store<Primitive>>,
fills: RefCell<Vec<(Id<Primitive>, Fill)>>, fills: RefCell<Vec<(Id<Primitive>, Fill)>>,
render_area: Aabr<i32>,
} }
impl Painter { impl Painter {
@ -789,6 +791,8 @@ impl Painter {
pub fn fill(&self, prim: impl Into<Id<Primitive>>, fill: Fill) { pub fn fill(&self, prim: impl Into<Id<Primitive>>, fill: Fill) {
self.fills.borrow_mut().push((prim.into(), fill)); self.fills.borrow_mut().push((prim.into(), fill));
} }
pub fn render_aabr(&self) -> Aabr<i32> { self.render_area }
} }
#[derive(Copy, Clone)] #[derive(Copy, Clone)]
@ -867,14 +871,18 @@ pub trait Structure {
fn render_collect( fn render_collect(
&self, &self,
site: &Site, site: &Site,
land: &Land, canvas: &CanvasInfo,
) -> (Store<Primitive>, Vec<(Id<Primitive>, Fill)>) { ) -> (Store<Primitive>, Vec<(Id<Primitive>, Fill)>) {
let painter = Painter { let painter = Painter {
prims: RefCell::new(Store::default()), prims: RefCell::new(Store::default()),
fills: RefCell::new(Vec::new()), fills: RefCell::new(Vec::new()),
render_area: Aabr {
min: canvas.wpos,
max: canvas.wpos + TerrainChunkSize::RECT_SIZE.map(|e| e as i32),
},
}; };
self.render(site, land, &painter); self.render(site, &canvas.land(), &painter);
(painter.prims.into_inner(), painter.fills.into_inner()) (painter.prims.into_inner(), painter.fills.into_inner())
} }
} }

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@ -55,7 +55,19 @@ impl Site {
.map(|e| e.abs()) .map(|e| e.abs())
.reduce_max() .reduce_max()
.max(self.tiles.bounds.max.map(|e| e.abs()).reduce_max()) .max(self.tiles.bounds.max.map(|e| e.abs()).reduce_max())
+ 1) // Temporary solution for giving giant_tree's leaves enough space to be painted correctly
// TODO: This will have to be replaced by a system as described on discord :
// https://discord.com/channels/449602562165833758/450064928720814081/937044837461536808
+ if self
.plots
.values()
.any(|p| matches!(&p.kind, PlotKind::GiantTree(_)))
{
// 25 Seems to be big enough for the current scale of 4.0
25
} else {
1
})
* tile::TILE_SIZE as i32) as f32 * tile::TILE_SIZE as i32) as f32
} }
@ -364,6 +376,40 @@ impl Site {
site site
} }
pub fn generate_giant_tree(land: &Land, rng: &mut impl Rng, origin: Vec2<i32>) -> Self {
let mut rng = reseed(rng);
let mut site = Site {
origin,
..Site::default()
};
site.demarcate_obstacles(land);
let giant_tree = plot::GiantTree::generate(&site, Vec2::zero(), land, &mut rng);
site.name = giant_tree.name().to_string();
let size = (giant_tree.radius() / tile::TILE_SIZE as f32).ceil() as i32;
let aabr = Aabr {
min: Vec2::broadcast(-size),
max: Vec2::broadcast(size) + 1,
};
let plot = site.create_plot(Plot {
kind: PlotKind::GiantTree(giant_tree),
root_tile: aabr.center(),
tiles: aabr_tiles(aabr).collect(),
seed: rng.gen(),
});
site.blit_aabr(aabr, Tile {
kind: TileKind::Building,
plot: Some(plot),
hard_alt: None,
});
site
}
pub fn generate_city(land: &Land, rng: &mut impl Rng, origin: Vec2<i32>) -> Self { pub fn generate_city(land: &Land, rng: &mut impl Rng, origin: Vec2<i32>) -> Self {
let mut rng = reseed(rng); let mut rng = reseed(rng);
@ -875,6 +921,13 @@ impl Site {
} }
} }
// TODO: Solve the 'trees are too big' problem and remove this
for (id, plot) in self.plots.iter() {
if matches!(&plot.kind, PlotKind::GiantTree(_)) {
plots.insert(id);
}
}
let mut plots_to_render = plots.into_iter().collect::<Vec<_>>(); let mut plots_to_render = plots.into_iter().collect::<Vec<_>>();
plots_to_render.sort_unstable(); plots_to_render.sort_unstable();
@ -888,10 +941,11 @@ impl Site {
for plot in plots_to_render { for plot in plots_to_render {
let (prim_tree, fills) = match &self.plots[plot].kind { let (prim_tree, fills) = match &self.plots[plot].kind {
PlotKind::House(house) => house.render_collect(self, &canvas.land()), PlotKind::House(house) => house.render_collect(self, canvas),
PlotKind::Workshop(workshop) => workshop.render_collect(self, &canvas.land()), PlotKind::Workshop(workshop) => workshop.render_collect(self, canvas),
PlotKind::Castle(castle) => castle.render_collect(self, &canvas.land()), PlotKind::Castle(castle) => castle.render_collect(self, canvas),
PlotKind::Dungeon(dungeon) => dungeon.render_collect(self, &canvas.land()), PlotKind::Dungeon(dungeon) => dungeon.render_collect(self, canvas),
PlotKind::GiantTree(giant_tree) => giant_tree.render_collect(self, canvas),
_ => continue, _ => continue,
}; };

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@ -1,9 +1,12 @@
mod castle; mod castle;
pub mod dungeon; pub mod dungeon;
mod giant_tree;
mod house; mod house;
mod workshop; mod workshop;
pub use self::{castle::Castle, dungeon::Dungeon, house::House, workshop::Workshop}; pub use self::{
castle::Castle, dungeon::Dungeon, giant_tree::GiantTree, house::House, workshop::Workshop,
};
use super::*; use super::*;
use crate::util::DHashSet; use crate::util::DHashSet;
@ -45,4 +48,5 @@ pub enum PlotKind {
Castle(Castle), Castle(Castle),
Road(Path<Vec2<i32>>), Road(Path<Vec2<i32>>),
Dungeon(Dungeon), Dungeon(Dungeon),
GiantTree(GiantTree),
} }

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@ -0,0 +1,86 @@
use crate::{
layer::tree::{ProceduralTree, TreeConfig},
site::namegen::NameGen,
site2::{Fill, Painter, Site, Structure},
util::FastNoise,
Land, Sampler,
};
use common::terrain::{Block, BlockKind};
use rand::Rng;
use vek::*;
pub struct GiantTree {
name: String,
wpos: Vec3<i32>,
tree: ProceduralTree,
seed: u32,
}
impl GiantTree {
pub fn generate(site: &Site, center_tile: Vec2<i32>, land: &Land, rng: &mut impl Rng) -> Self {
let wpos = site.tile_center_wpos(center_tile);
Self {
name: format!("Tree of {}", NameGen::location(rng).generate()),
// Find the tree's altitude
wpos: wpos.with_z(land.get_alt_approx(wpos) as i32),
tree: {
let config = TreeConfig::giant(rng, 4.0, true);
ProceduralTree::generate(config, rng)
},
seed: rng.gen(),
}
}
pub fn name(&self) -> &str { &self.name }
pub fn radius(&self) -> f32 { 100.0 }
pub fn tree(&self) -> &ProceduralTree { &self.tree }
}
impl Structure for GiantTree {
fn render(&self, _site: &Site, _land: &Land, painter: &Painter) {
let fast_noise = FastNoise::new(self.seed);
let dark = Rgb::new(10, 70, 50).map(|e| e as f32);
let light = Rgb::new(80, 140, 10).map(|e| e as f32);
let leaf_col = Lerp::lerp(
dark,
light,
fast_noise.get((self.wpos.map(|e| e as f64) * 0.05) * 0.5 + 0.5),
);
self.tree.walk(|branch, _| {
let aabr = Aabr {
min: self.wpos.xy() + branch.get_aabb().min.xy().as_(),
max: self.wpos.xy() + branch.get_aabb().max.xy().as_(),
};
if aabr.collides_with_aabr(painter.render_aabr().as_()) {
// TODO : Migrate to using Painter#line() instead
painter
.line(
self.wpos + branch.get_line().start.as_(),
self.wpos + branch.get_line().end.as_(),
branch.get_wood_radius(),
)
.fill(Fill::Block(Block::new(
BlockKind::Wood,
Rgb::new(80, 32, 0),
)));
if branch.get_leaf_radius() > branch.get_wood_radius() {
painter
.line(
self.wpos + branch.get_line().start.as_(),
self.wpos + branch.get_line().end.as_(),
branch.get_leaf_radius(),
)
.fill(Fill::Block(Block::new(
BlockKind::Leaves,
leaf_col.map(|e| e as u8),
)))
}
true
} else {
false
}
});
}
}