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chore: cargo clippy fixes

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This commit is contained in:
Jeremy Wall 2025-07-02 14:54:02 -05:00
parent a73b5ac597
commit 78f114254c
4 changed files with 269 additions and 247 deletions
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75
exp1/src/serve.rs
View File

@ -1,6 +1,12 @@
use std::{collections::HashMap, sync::Arc};
use axum::{extract::Path, http, response::{Html, IntoResponse}, routing::get, Json, Router};
use axum::{
extract::Path,
http,
response::{Html, IntoResponse},
routing::get,
Json, Router,
};
use offline_web_model::{Graph, Reference};
@ -9,7 +15,10 @@ async fn all_references(root_ref: Arc<Reference>) -> Json<Arc<Reference>> {
Json(root_ref)
}
async fn ref_path(refs: Arc<HashMap<String, Arc<Reference>>>, Path(path): Path<String>) -> Json<Arc<Reference>> {
async fn ref_path(
refs: Arc<HashMap<String, Arc<Reference>>>,
Path(path): Path<String>,
) -> Json<Arc<Reference>> {
let path = format!("/item/{}", path);
match refs.get(&path) {
Some(r) => Json(r.clone()),
@ -33,37 +42,51 @@ async fn get_client_js() -> impl IntoResponse {
}
pub fn endpoints(graph: Graph) -> Router {
Router::new().nest(
"/api/v1",
Router::new().nest(
"/ref",
Router::new()
.nest(
"/api/v1",
Router::new()
.route("/all/username", get({
let state = graph.root.clone();
move || all_references(state)
}))
.route("/item/{*path}", get({
let refs = graph.refs.clone();
move |path| ref_path(refs, path)
}))
).nest(
"/object",
Router::new()
.route("/{addr}", get({
let objects = graph.objects.clone();
move |addr| object_path(objects, addr)
}))
),
)
.route("/lib/client.js", get(get_client_js))
.route("/ui/", get(|| async { Html(include_str!("../static/index.html")).into_response() }))
.nest(
"/ref",
Router::new()
.route(
"/all/username",
get({
let state = graph.root.clone();
move || all_references(state)
}),
)
.route(
"/item/{*path}",
get({
let refs = graph.refs.clone();
move |path| ref_path(refs, path)
}),
),
)
.nest(
"/object",
Router::new().route(
"/{addr}",
get({
let objects = graph.objects.clone();
move |addr| object_path(objects, addr)
}),
),
),
)
.route("/lib/client.js", get(get_client_js))
.route(
"/ui/",
get(|| async { Html(include_str!("../static/index.html")).into_response() }),
)
}
// TODO(jwall): Javascript test script
pub async fn serve() {
// run our app with hyper, listening globally on port 3000
let graph = Graph::random_graph();
let listener = tokio::net::TcpListener::bind("127.0.0.1:3000")
.await
.unwrap();

1
exp2/src/main.rs
View File

@ -1,4 +1,3 @@
mod serve;
#[tokio::main(flavor = "current_thread")]

125
offline-web-model/src/lib.rs
View File

@ -1,4 +1,4 @@
use std::{cmp::Ordering, collections::HashMap, sync::Arc};
use std::{collections::HashMap, sync::Arc};
use blake2::{Blake2b512, Digest};
use rand::Rng;
@ -37,7 +37,7 @@ impl Reference {
// Calculate the reference_id from the content_address and path
let hasher = Self::initial_hash(&content_address, &name);
let calculated_id = format!("{:x}", hasher.finalize());
Self {
id: calculated_id,
content_address,
@ -61,12 +61,8 @@ impl Reference {
let mut cloned = self.clone();
cloned.dependents.push(dep);
// We ensure that our dependents are always sorted lexicographically by name.
cloned.dependents.sort_by(|left, right| if left.name == right.name {
Ordering::Equal
} else if left.name < right.name {
Ordering::Less
} else {
Ordering::Greater
cloned.dependents.sort_by(|left, right| {
left.name.cmp(&right.name)
});
// Recalculate the ID based on dependents, content_address, and path
let mut hasher = Self::initial_hash(&self.content_address, &self.name);
@ -77,7 +73,6 @@ impl Reference {
cloned
}
/// Converts this Reference into an Arc-wrapped Reference for shared ownership.
///
/// This is useful when a Reference needs to be shared across multiple owners
@ -97,9 +92,9 @@ impl Reference {
/// # Returns
/// `true` if this Reference has no dependents, `false` otherwise
pub fn is_leaf(&self) -> bool {
return self.dependents.is_empty();
self.dependents.is_empty()
}
fn initial_hash(content_address: &Option<String>, path: &String) -> Blake2b512 {
let mut hasher = Blake2b512::new();
if let Some(content_address) = content_address {
@ -119,9 +114,7 @@ pub struct Graph {
pub fn random_object() -> (String, Vec<u8>) {
let mut rng = rand::rng();
let random_size = rng.random_range(50..=4096);
let random_bytes: Vec<u8> = (0..random_size)
.map(|_| rng.random::<u8>())
.collect();
let random_bytes: Vec<u8> = (0..random_size).map(|_| rng.random::<u8>()).collect();
let mut hasher = Blake2b512::new();
hasher.update(&random_bytes);
@ -147,7 +140,7 @@ impl Graph {
pub fn get_reference(&self, path: &str) -> Option<Arc<Reference>> {
self.refs.get(path).cloned()
}
/// Gets an object by its content address
pub fn get_object(&self, content_address: &str) -> Option<&Vec<u8>> {
self.objects.get(content_address)
@ -158,97 +151,101 @@ impl Graph {
///
/// The reference ID is calculated from the content address, name, and any dependents,
/// ensuring that it's truly content-addressable.
pub fn update_object_reference(&mut self, name: &String, new_content: Vec<u8>) -> Result<(), String> {
pub fn update_object_reference(
&mut self,
name: &String,
new_content: Vec<u8>,
) -> Result<(), String> {
// Create a mutable copy of our maps
let mut refs = HashMap::new();
for (k, v) in self.refs.as_ref() {
refs.insert(k.clone(), v.clone());
}
let mut objects = HashMap::new();
for (k, v) in self.objects.as_ref() {
objects.insert(k.clone(), v.clone());
}
// Find the reference to update
let ref_to_update = refs.get(name).ok_or_else(|| format!("Reference with name {} not found", name))?;
let ref_to_update = refs
.get(name)
.ok_or_else(|| format!("Reference with name {} not found", name))?;
// Calculate hash for the new content
let mut hasher = Blake2b512::new();
hasher.update(&new_content);
let new_address = format!("{:x}", hasher.finalize());
// Create a new reference with the updated content address
// The ID will be calculated based on the content address, name, and dependents
let mut updated_ref = Reference::new(
Some(new_address.clone()),
name.to_string()
);
let mut updated_ref = Reference::new(Some(new_address.clone()), name.to_string());
// Add all dependents to the updated reference
for dep in &ref_to_update.dependents {
updated_ref = updated_ref.add_dep(dep.clone());
}
let updated_ref = updated_ref.to_arc();
// Update objects map with new content
objects.insert(new_address.clone(), new_content);
// Update references map with new reference
refs.insert(name.to_string(), updated_ref.clone());
// Find and update all parent references that contain this reference
self.update_parent_references(&mut refs, name);
// Update the Arc maps
self.refs = Arc::new(refs);
self.objects = Arc::new(objects);
Ok(())
}
/// TODO(jwall): Add new reference
/// Recursively updates parent references when a child reference changes
fn update_parent_references(&mut self, refs: &mut HashMap<String, Arc<Reference>>, updated_name: &str) {
fn update_parent_references(
&mut self,
refs: &mut HashMap<String, Arc<Reference>>,
updated_name: &str,
) {
// Find all references that have the updated reference as a dependent
let parent_names: Vec<String> = refs
.iter()
.filter(|(_, r)| r.dependents.iter().any(|dep| dep.name == updated_name))
.map(|(name, _)| name.clone())
.collect();
for parent_name in parent_names {
if let Some(parent_ref) = refs.get(&parent_name) {
// Create a new reference with the same content address and name
let mut updated_parent = Reference::new(
parent_ref.content_address.clone(),
parent_ref.name.clone()
);
let mut updated_parent =
Reference::new(parent_ref.content_address.clone(), parent_ref.name.clone());
// Add all dependents, replacing the updated one
for dep in &parent_ref.dependents {
// Update the root reference if needed
if dep.name == updated_name {
// Use the updated reference
updated_parent = updated_parent.add_dep(refs.get(updated_name).unwrap().clone());
updated_parent =
updated_parent.add_dep(refs.get(updated_name).unwrap().clone());
} else {
// Keep the existing dependent
updated_parent = updated_parent.add_dep(dep.clone());
}
}
// The ID is automatically calculated in the add_dep method
let updated_parent = Arc::new(updated_parent);
if updated_parent.name == self.root.name {
self.root = updated_parent.clone();
}
// Update the references map
refs.insert(parent_name.clone(), updated_parent);
// Recursively update parents of this parent
self.update_parent_references(refs, &parent_name);
}
@ -259,56 +256,48 @@ impl Graph {
let root_name = String::from("ref/0");
let mut objects = HashMap::new();
let mut refs = HashMap::new();
// Create the root reference
let mut root_ref = Reference::new(
Some(String::from("root_content")),
root_name.clone(),
);
let mut root_ref = Reference::new(Some(String::from("root_content")), root_name.clone());
// Create 10 item references
for i in 1..=10 {
let item_name = format!("/item/{}", i);
let mut item_ref = Reference::new(
Some(format!("item_content_{}", i)),
item_name.clone(),
);
let mut item_ref =
Reference::new(Some(format!("item_content_{}", i)), item_name.clone());
// Create 10 subitems for each item
for j in 1..=10 {
let (address, content) = random_object();
let subitem_name = format!("/item/{}/subitem/{}", i, j);
// Create a leaf reference
let leaf_ref = Reference::new(
Some(address.clone()),
subitem_name,
).to_arc();
let leaf_ref = Reference::new(Some(address.clone()), subitem_name).to_arc();
// Add the leaf reference as a dependent to the item reference
item_ref = item_ref.add_dep(leaf_ref.clone());
// Store the content in the objects map
objects.insert(address.clone(), content);
// Store the leaf reference in the refs map
refs.insert(leaf_ref.name.clone(), leaf_ref);
}
// Convert the item reference to Arc and add it to the root reference
let arc_item_ref = item_ref.to_arc();
root_ref = root_ref.add_dep(arc_item_ref.clone());
// Store the item reference in the refs map
refs.insert(arc_item_ref.name.clone(), arc_item_ref);
}
// Convert the root reference to Arc
let arc_root_ref = root_ref.to_arc();
// Store the root reference in the refs map
refs.insert(arc_root_ref.name.clone(), arc_root_ref.clone());
Graph {
root: arc_root_ref,
refs: Arc::new(refs),

315
offline-web-model/src/test.rs
View File

@ -2,19 +2,20 @@ use std::collections::HashMap;
use std::collections::HashSet;
use std::sync::Arc;
use crate::{Graph, Reference, random_object};
fn get_deterministic_candidate(graph: &Graph) -> Arc<Reference> {
// Pick a deterministic leaf node to update (first lexicographically)
let mut refs: Vec<Arc<Reference>> = graph.refs.values()
let mut refs: Vec<Arc<Reference>> = graph
.refs
.values()
.filter(|r| r.name != graph.root.name && r.is_leaf())
.map(|r| r.clone())
.collect();
// Sort by name to ensure deterministic ordering
refs.sort_by(|a, b| a.name.cmp(&b.name));
refs[0].clone()
}
@ -23,25 +24,30 @@ fn get_deterministic_candidate(graph: &Graph) -> Arc<Reference> {
fn test_dependencies_updated_when_nodes_added() {
// Create a simple graph
let mut graph = create_test_graph();
// Get the initial content address of the root
let initial_root_id = graph.root.id.clone();
let candidate = get_deterministic_candidate(&graph);
// Update the leaf node with deterministic content
let new_content = b"deterministic_test_content".to_vec();
graph.update_object_reference(&candidate.name, new_content).unwrap();
graph
.update_object_reference(&candidate.name, new_content)
.unwrap();
// Verify that the leaf node's ID has changed
let updated_leaf = graph.get_reference(&candidate.name).unwrap();
assert_ne!(updated_leaf.id, candidate.id,
"Leaf node ID should change when content is updated");
assert_ne!(
updated_leaf.id, candidate.id,
"Leaf node ID should change when content is updated"
);
// Verify that the root's ID has changed
assert_ne!(graph.root.id, initial_root_id,
"Root ID should change when a dependent node is updated");
assert_ne!(
graph.root.id, initial_root_id,
"Root ID should change when a dependent node is updated"
);
}
/// Tests that the root of the graph is not itself a dependency of any other node
@ -49,12 +55,14 @@ fn test_dependencies_updated_when_nodes_added() {
fn test_root_not_a_dependency() {
let graph = create_test_graph();
let root_name = graph.root.name.clone();
// Check all references to ensure none have the root as a dependent
for (_, reference) in graph.refs.as_ref() {
for dep in &reference.dependents {
assert_ne!(dep.name, root_name,
"Root should not be a dependency of any other node");
assert_ne!(
dep.name, root_name,
"Root should not be a dependency of any other node"
);
}
}
}
@ -63,26 +71,29 @@ fn test_root_not_a_dependency() {
#[test]
fn test_all_nodes_connected_to_root() {
let graph = create_test_graph();
// Collect all nodes reachable from the root
let mut reachable = HashSet::new();
fn collect_reachable(node: &Arc<Reference>, reachable: &mut HashSet<String>) {
reachable.insert(node.name.clone());
for dep in &node.dependents {
if !reachable.contains(&dep.name) {
collect_reachable(dep, reachable);
}
}
}
collect_reachable(&graph.root, &mut reachable);
// Check that all nodes in the graph are reachable from the root
for (name, _) in graph.refs.as_ref() {
assert!(reachable.contains(name),
"All nodes should be reachable from the root: {}", name);
assert!(
reachable.contains(name),
"All nodes should be reachable from the root: {}",
name
);
}
}
@ -91,56 +102,47 @@ fn create_test_graph() -> Graph {
let root_name = String::from("/root");
let mut objects = HashMap::new();
let mut refs = HashMap::new();
// Create the root reference
let mut root_ref = Reference::new(
Some(String::from("root_content")),
root_name.clone(),
);
let mut root_ref = Reference::new(Some(String::from("root_content")), root_name.clone());
// Create 3 item references
for i in 1..=3 {
let item_name = format!("/item/{}", i);
let mut item_ref = Reference::new(
Some(format!("item_content_{}", i)),
item_name.clone(),
);
let mut item_ref = Reference::new(Some(format!("item_content_{}", i)), item_name.clone());
// Create 3 subitems for each item
for j in 1..=3 {
let (address, content) = random_object();
let subitem_name = format!("/item/{}/subitem/{}", i, j);
// Create a leaf reference
let leaf_ref = Reference::new(
Some(address.clone()),
subitem_name,
).to_arc();
let leaf_ref = Reference::new(Some(address.clone()), subitem_name).to_arc();
// Add the leaf reference as a dependent to the item reference
item_ref = item_ref.add_dep(leaf_ref.clone());
// Store the content in the objects map
objects.insert(address.clone(), content);
// Store the leaf reference in the refs map
refs.insert(leaf_ref.name.clone(), leaf_ref);
}
// Convert the item reference to Arc and add it to the root reference
let arc_item_ref = item_ref.to_arc();
root_ref = root_ref.add_dep(arc_item_ref.clone());
// Store the item reference in the refs map
refs.insert(arc_item_ref.name.clone(), arc_item_ref);
}
// Convert the root reference to Arc
let arc_root_ref = root_ref.to_arc();
// Store the root reference in the refs map
refs.insert(arc_root_ref.name.clone(), arc_root_ref.clone());
Graph {
root: arc_root_ref,
refs: Arc::new(refs),
@ -152,91 +154,106 @@ fn create_test_graph() -> Graph {
#[test]
fn test_content_addressable_properties() {
let mut graph = create_test_graph();
// Update a leaf node with the same content
let leaf_path = "/item/1/subitem/1".to_string();
let initial_leaf = graph.get_reference(&leaf_path).unwrap();
if let Some(content_address) = initial_leaf.content_address.clone() {
// Get the content for this address
let content = graph.get_object(&content_address).unwrap().clone();
// Update with the same content
graph.update_object_reference(&leaf_path, content).unwrap();
}
// Verify that nothing changed since the content is the same
let updated_leaf = graph.get_reference(&leaf_path).unwrap();
assert_eq!(updated_leaf.content_address, initial_leaf.content_address,
"Content address should not change when content remains the same");
assert_eq!(
updated_leaf.content_address, initial_leaf.content_address,
"Content address should not change when content remains the same"
);
}
/// Tests that the graph correctly handles ID calculation
#[test]
fn test_id_calculation() {
let mut graph = create_test_graph();
// Update a leaf node
let leaf_path = "/item/1/subitem/1".to_string();
let initial_leaf = graph.get_reference(&leaf_path).unwrap();
graph.update_object_reference(&leaf_path, "new content".as_bytes().to_vec()).unwrap();
graph
.update_object_reference(&leaf_path, "new content".as_bytes().to_vec())
.unwrap();
// Verify that the ID changed
let updated_leaf = graph.get_reference(&leaf_path).unwrap();
assert_ne!(updated_leaf.id, initial_leaf.id,
"Reference ID should change when content changes");
assert_ne!(
updated_leaf.id, initial_leaf.id,
"Reference ID should change when content changes"
);
// Verify that parent ID changed
let parent_path = "/item/1".to_string();
let parent = graph.get_reference(&parent_path).unwrap();
// Create a reference with the same properties to calculate expected ID
let mut test_ref = Reference::new(
parent.content_address.clone(),
parent.name.clone(),
);
let mut test_ref = Reference::new(parent.content_address.clone(), parent.name.clone());
// Add the same dependents
for dep in &parent.dependents {
test_ref = test_ref.add_dep(dep.clone());
}
// Verify the ID calculation is consistent
assert_eq!(parent.id, test_ref.id,
"ID calculation should be consistent for the same reference properties");
assert_eq!(
parent.id, test_ref.id,
"ID calculation should be consistent for the same reference properties"
);
}
/// Tests that the root ID always changes when any reference is updated
#[test]
fn test_root_id_changes_for_any_reference_update() {
let mut graph = create_test_graph();
// Get all non-root references sorted by name for deterministic iteration
let mut all_refs: Vec<(String, String)> = graph.refs.as_ref()
let mut all_refs: Vec<(String, String)> = graph
.refs
.as_ref()
.iter()
.filter(|(name, _)| **name != graph.root.name)
.map(|(name, ref_arc)| (name.clone(), ref_arc.id.clone()))
.collect();
all_refs.sort_by(|a, b| a.0.cmp(&b.0));
// Test each reference update
for (ref_name, original_ref_id) in all_refs {
// Record the current root ID
let initial_root_id = graph.root.id.clone();
// Update the reference with new content
let new_content = format!("updated_content_for_{}", ref_name).into_bytes();
graph.update_object_reference(&ref_name, new_content).unwrap();
graph
.update_object_reference(&ref_name, new_content)
.unwrap();
// Verify the reference itself changed
let updated_ref = graph.get_reference(&ref_name).unwrap();
assert_ne!(updated_ref.id, original_ref_id,
"Reference {} should have changed ID after update", ref_name);
assert_ne!(
updated_ref.id, original_ref_id,
"Reference {} should have changed ID after update",
ref_name
);
// Verify the root ID changed
assert_ne!(graph.root.id, initial_root_id,
"Root ID should change when reference {} is updated", ref_name);
assert_ne!(
graph.root.id, initial_root_id,
"Root ID should change when reference {} is updated",
ref_name
);
}
}
@ -244,69 +261,61 @@ fn test_root_id_changes_for_any_reference_update() {
#[test]
fn test_reference_ids_stable_regardless_of_dependency_order() {
// Create test dependencies
let dep_a = Reference::new(
Some(String::from("content_a")),
String::from("/dep_a"),
).to_arc();
let dep_b = Reference::new(
Some(String::from("content_b")),
String::from("/dep_b"),
).to_arc();
let dep_c = Reference::new(
Some(String::from("content_c")),
String::from("/dep_c"),
).to_arc();
let dep_d = Reference::new(
Some(String::from("content_d")),
String::from("/dep_d"),
).to_arc();
let dep_a = Reference::new(Some(String::from("content_a")), String::from("/dep_a")).to_arc();
let dep_b = Reference::new(Some(String::from("content_b")), String::from("/dep_b")).to_arc();
let dep_c = Reference::new(Some(String::from("content_c")), String::from("/dep_c")).to_arc();
let dep_d = Reference::new(Some(String::from("content_d")), String::from("/dep_d")).to_arc();
// Create base reference
let base_ref = Reference::new(
Some(String::from("base_content")),
String::from("/base"),
);
let base_ref = Reference::new(Some(String::from("base_content")), String::from("/base"));
// Test multiple different orders of adding the same dependencies
let orders = vec![
vec![dep_a.clone(), dep_b.clone(), dep_c.clone(), dep_d.clone()], // alphabetical
vec![dep_d.clone(), dep_c.clone(), dep_b.clone(), dep_a.clone()], // reverse alphabetical
vec![dep_b.clone(), dep_d.clone(), dep_a.clone(), dep_c.clone()], // random order 1
vec![dep_c.clone(), dep_a.clone(), dep_d.clone(), dep_b.clone()], // random order 2
vec![dep_d.clone(), dep_a.clone(), dep_b.clone(), dep_c.clone()], // random order 3
vec![dep_a.clone(), dep_b.clone(), dep_c.clone(), dep_d.clone()], // alphabetical
vec![dep_d.clone(), dep_c.clone(), dep_b.clone(), dep_a.clone()], // reverse alphabetical
vec![dep_b.clone(), dep_d.clone(), dep_a.clone(), dep_c.clone()], // random order 1
vec![dep_c.clone(), dep_a.clone(), dep_d.clone(), dep_b.clone()], // random order 2
vec![dep_d.clone(), dep_a.clone(), dep_b.clone(), dep_c.clone()], // random order 3
];
let mut all_ids = Vec::new();
for (i, order) in orders.iter().enumerate() {
let mut test_ref = base_ref.clone();
// Add dependencies in this specific order
for dep in order {
test_ref = test_ref.add_dep(dep.clone());
}
all_ids.push(test_ref.id.clone());
// Verify that dependencies are always sorted lexicographically regardless of add order
for j in 0..test_ref.dependents.len() - 1 {
let current = &test_ref.dependents[j];
let next = &test_ref.dependents[j + 1];
assert!(current.name < next.name,
"Dependencies should be lexicographically ordered. Order {}: Found '{}' before '{}'",
i, current.name, next.name);
assert!(
current.name < next.name,
"Dependencies should be lexicographically ordered. Order {}: Found '{}' before '{}'",
i,
current.name,
next.name
);
}
}
// Verify all IDs are identical
let first_id = &all_ids[0];
for (i, id) in all_ids.iter().enumerate() {
assert_eq!(id, first_id,
"Reference ID should be stable regardless of dependency add order. Order {} produced different ID", i);
assert_eq!(
id, first_id,
"Reference ID should be stable regardless of dependency add order. Order {} produced different ID",
i
);
}
}
@ -314,7 +323,7 @@ fn test_reference_ids_stable_regardless_of_dependency_order() {
#[test]
fn test_dependencies_lexicographically_ordered() {
let graph = create_test_graph();
// Check all references to ensure their dependents are lexicographically ordered
for (_, reference) in graph.refs.as_ref() {
if reference.dependents.len() > 1 {
@ -322,44 +331,46 @@ fn test_dependencies_lexicographically_ordered() {
for i in 0..reference.dependents.len() - 1 {
let current = &reference.dependents[i];
let next = &reference.dependents[i + 1];
assert!(current.name < next.name,
"Dependencies should be lexicographically ordered by name. Found '{}' before '{}'",
current.name, next.name);
assert!(
current.name < next.name,
"Dependencies should be lexicographically ordered by name. Found '{}' before '{}'",
current.name,
next.name
);
}
}
}
// Also verify that when we add dependencies, they maintain the correct order
let mut test_ref = Reference::new(
Some(String::from("test_content")),
String::from("/test_ordering"),
);
// Add dependencies in non-lexicographical order
let dep_c = Reference::new(
Some(String::from("c_content")),
String::from("/c"),
).to_arc();
let dep_a = Reference::new(
Some(String::from("a_content")),
String::from("/a"),
).to_arc();
let dep_b = Reference::new(
Some(String::from("b_content")),
String::from("/b"),
).to_arc();
let dep_c = Reference::new(Some(String::from("c_content")), String::from("/c")).to_arc();
let dep_a = Reference::new(Some(String::from("a_content")), String::from("/a")).to_arc();
let dep_b = Reference::new(Some(String::from("b_content")), String::from("/b")).to_arc();
// Add in non-lexicographical order
test_ref = test_ref.add_dep(dep_c.clone());
test_ref = test_ref.add_dep(dep_a.clone());
test_ref = test_ref.add_dep(dep_b.clone());
// Verify they are stored in lexicographical order
assert_eq!(test_ref.dependents[0].name, "/a", "First dependent should be '/a'");
assert_eq!(test_ref.dependents[1].name, "/b", "Second dependent should be '/b'");
assert_eq!(test_ref.dependents[2].name, "/c", "Third dependent should be '/c'");
}
// Verify they are stored in lexicographical order
assert_eq!(
test_ref.dependents[0].name, "/a",
"First dependent should be '/a'"
);
assert_eq!(
test_ref.dependents[1].name, "/b",
"Second dependent should be '/b'"
);
assert_eq!(
test_ref.dependents[2].name, "/c",
"Third dependent should be '/c'"
);
}