chore: more refactoring for the graph module

main
Antonio De Lucreziis 3 weeks ago
parent ad2dd339ff
commit e6913b7852

@ -13,8 +13,8 @@ where
DirectedAcyclicGraph(AdjacencyGraph::new()) DirectedAcyclicGraph(AdjacencyGraph::new())
} }
fn to_adjecency_graph(&self) -> AdjacencyGraph<V> { fn to_adjecency_graph(&self) -> &AdjacencyGraph<V> {
self.0.clone() &self.0
} }
fn nodes(&self) -> BTreeSet<V> { fn nodes(&self) -> BTreeSet<V> {

@ -21,8 +21,8 @@ where
} }
} }
fn to_adjecency_graph(&self) -> AdjacencyGraph<V> { fn to_adjecency_graph(&self) -> &AdjacencyGraph<V> {
self.clone() &self
} }
fn nodes(&self) -> BTreeSet<V> { fn nodes(&self) -> BTreeSet<V> {
@ -103,9 +103,7 @@ where
undirected.add_edge(to.clone(), from.clone()); undirected.add_edge(to.clone(), from.clone());
} }
UndirectedGraph { UndirectedGraph(undirected)
directed: undirected,
}
} }
pub fn has_edge(&self, from: &V, to: &V) -> bool { pub fn has_edge(&self, from: &V, to: &V) -> bool {

@ -24,7 +24,7 @@ where
graph graph
} }
fn to_adjecency_graph(&self) -> AdjacencyGraph<V>; fn to_adjecency_graph(&self) -> &AdjacencyGraph<V>;
fn nodes(&self) -> BTreeSet<V>; fn nodes(&self) -> BTreeSet<V>;
fn adjacencies(&self) -> BTreeMap<V, BTreeSet<V>>; fn adjacencies(&self) -> BTreeMap<V, BTreeSet<V>>;
@ -65,16 +65,13 @@ where
adjacencies: BTreeMap<V, BTreeSet<V>>, adjacencies: BTreeMap<V, BTreeSet<V>>,
} }
#[derive(Debug)] #[derive(Debug, Clone)]
pub struct UndirectedGraph<V> pub struct UndirectedGraph<V>(AdjacencyGraph<V>)
where where
V: Clone, V: Clone;
{
pub directed: AdjacencyGraph<V>,
}
#[derive(Debug)] #[derive(Debug, Clone)]
pub struct DirectedAcyclicGraph<V>(pub AdjacencyGraph<V>) pub struct DirectedAcyclicGraph<V>(AdjacencyGraph<V>)
where where
V: Clone; V: Clone;

@ -15,47 +15,45 @@ where
where where
Self: Sized, Self: Sized,
{ {
UndirectedGraph { UndirectedGraph(AdjacencyGraph::new())
directed: AdjacencyGraph::new(),
}
} }
fn to_adjecency_graph(&self) -> AdjacencyGraph<V> { fn to_adjecency_graph(&self) -> &AdjacencyGraph<V> {
self.directed.clone() &self.0
} }
fn nodes(&self) -> BTreeSet<V> { fn nodes(&self) -> BTreeSet<V> {
self.directed.nodes() self.0.nodes()
} }
fn adjacencies(&self) -> BTreeMap<V, BTreeSet<V>> { fn adjacencies(&self) -> BTreeMap<V, BTreeSet<V>> {
self.directed.adjacencies() self.0.adjacencies()
} }
fn neighbors(&self, from: &V) -> BTreeSet<V> { fn neighbors(&self, from: &V) -> BTreeSet<V> {
self.directed.neighbors(from) self.0.neighbors(from)
} }
fn edges(&self) -> BTreeSet<(V, V)> { fn edges(&self) -> BTreeSet<(V, V)> {
self.directed.edges() self.0.edges()
} }
fn add_node(&mut self, node: V) { fn add_node(&mut self, node: V) {
self.directed.add_node(node); self.0.add_node(node);
} }
fn add_edge(&mut self, from: V, to: V) { fn add_edge(&mut self, from: V, to: V) {
self.directed.add_edge(from.clone(), to.clone()); self.0.add_edge(from.clone(), to.clone());
self.directed.add_edge(to, from); self.0.add_edge(to, from);
} }
fn remove_node(&mut self, node: &V) { fn remove_node(&mut self, node: &V) {
self.directed.remove_node(node); self.0.remove_node(node);
} }
fn remove_edge(&mut self, from: &V, to: &V) { fn remove_edge(&mut self, from: &V, to: &V) {
self.directed.remove_edge(from, to); self.0.remove_edge(from, to);
self.directed.remove_edge(to, from); self.0.remove_edge(to, from);
} }
} }
@ -64,22 +62,22 @@ where
V: Ord + Eq + Clone + Debug, V: Ord + Eq + Clone + Debug,
{ {
pub fn add_edge(&mut self, from: V, to: V) { pub fn add_edge(&mut self, from: V, to: V) {
self.directed.add_edge(from.clone(), to.clone()); self.0.add_edge(from.clone(), to.clone());
self.directed.add_edge(to.clone(), from.clone()); self.0.add_edge(to.clone(), from.clone());
} }
pub fn remove_edge(&mut self, from: &V, to: &V) { pub fn remove_edge(&mut self, from: &V, to: &V) {
self.directed.remove_edge(from, to); self.0.remove_edge(from, to);
self.directed.remove_edge(to, from); self.0.remove_edge(to, from);
} }
pub fn connected_components(&self) -> Vec<Vec<V>> { pub fn connected_components(&self) -> Vec<Vec<V>> {
let mut visited = BTreeSet::new(); let mut visited = BTreeSet::new();
let mut result = Vec::new(); let mut result = Vec::new();
let pb = ProgressBar::new(self.directed.nodes.len() as u64); let pb = ProgressBar::new(self.0.nodes.len() as u64);
for node in self.directed.nodes.iter() { for node in self.0.nodes.iter() {
if visited.contains(node) { if visited.contains(node) {
continue; continue;
} }
@ -114,7 +112,7 @@ where
pub fn compact_chains(&mut self) { pub fn compact_chains(&mut self) {
let mut visited = BTreeSet::new(); let mut visited = BTreeSet::new();
let nodes = self.directed.nodes.clone(); let nodes = self.0.nodes.clone();
let pb = ProgressBar::new(nodes.len() as u64); let pb = ProgressBar::new(nodes.len() as u64);
@ -180,7 +178,7 @@ where
println!("Compacted {} nodes", compacted_count); println!("Compacted {} nodes", compacted_count);
self.directed.gc(); self.0.gc();
pb.finish(); pb.finish();
} }

@ -115,9 +115,9 @@ fn main() -> std::io::Result<()> {
let dag = graph.dag(); let dag = graph.dag();
compute_edge_types(&dag.0); compute_edge_types(&dag);
let ccs = compute_ccs(&dag.0); let ccs = compute_ccs(&dag);
println!("Picking largest connected component..."); println!("Picking largest connected component...");
// pick the largest connected component // pick the largest connected component
@ -351,12 +351,15 @@ fn compute_orientation_histogram(graph: &impl Graph<(String, Orientation)>) {
println!(); println!();
} }
fn compute_ccs<V>(graph: &AdjacencyGraph<V>) -> Vec<Vec<V>> fn compute_ccs<V>(graph: &impl Graph<V>) -> Vec<Vec<V>>
where where
V: Ord + Eq + Clone + Debug, V: Ord + Eq + Clone + Debug,
{ {
println!("Computing connected components..."); println!("Computing connected components...");
let ccs = graph.undirected().connected_components(); let ccs = graph
.to_adjecency_graph()
.undirected()
.connected_components();
println!("Computing sizes histogram..."); println!("Computing sizes histogram...");
let hist: BTreeMap<_, _> = ccs let hist: BTreeMap<_, _> = ccs

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