Files
ngit-grasp/tests/nip09_multi_maintainer.rs
T

678 lines
24 KiB
Rust

//! NIP-09 multi-maintainer announcement-cascade integration tests.
//!
//! These tests verify hard-delete cascade behaviour in the relay's main DB when
//! multiple maintainers announce the same repository identifier.
//!
//! Covered here:
//! - Same-identifier announcements by different maintainers
//! - Dependent event retention when at least one referenced announcement survives
//! - Dependent event hard-deletion when all referenced announcements are deleted
//! - Different maintainer-subset anchors surviving a middle-maintainer deletion
//!
//! Serving note: these tests use the maintainer-exception path for the second
//! and third announcement (`maintainers` tag + non-local `relays` tag), because
//! independent second-announcement git promotion is not currently reliable in
//! this fixture setup.
mod common;
use common::{
announcement_coordinate, announcement_served_by_coordinate, build_deletion,
publish_served_announcement_for_identifier, publish_served_repo_with_maintainers, TestRelay,
};
use grasp_audit::{AuditClient, AuditConfig};
use nostr_sdk::prelude::*;
use std::time::Duration;
#[tokio::test]
async fn test_two_maintainers_one_deletes_shared_event_survives() {
let relay = TestRelay::start().await;
let client_a = AuditClient::new(relay.url(), AuditConfig::isolated())
.await
.expect("create maintainer A client");
let client_b =
AuditClient::new_with_keys(relay.url(), AuditConfig::isolated(), Keys::generate())
.await
.expect("create maintainer B client");
let (announcement_a, repo_id) = publish_served_repo_with_maintainers(
&client_a,
"multi-maint-a",
&[client_b.public_key().to_hex()],
)
.await;
let announcement_b = publish_served_announcement_for_identifier(&client_b, &repo_id).await;
let coordinate_a = announcement_coordinate(&announcement_a, &repo_id);
let coordinate_b = announcement_coordinate(&announcement_b, &repo_id);
let patch = client_a
.event_builder(Kind::from(1617), "shared patch")
.tag(Tag::custom("a", vec![coordinate_a.clone()]))
.tag(Tag::custom("a", vec![coordinate_b.clone()]))
.build(client_a.keys())
.expect("build patch");
client_a
.send_event(patch.clone())
.await
.expect("relay should accept patch");
tokio::time::sleep(Duration::from_millis(300)).await;
for (label, id) in [
("announcement_a", announcement_a.id),
("announcement_b", announcement_b.id),
("patch", patch.id),
] {
assert!(
client_a
.is_event_on_relay(id)
.await
.expect("query event before deletion"),
"{label} ({id}) must be served before deletion"
);
}
assert!(
announcement_served_by_coordinate(&client_a, &announcement_a, &repo_id).await,
"announcement A must be served by coordinate before deletion"
);
assert!(
announcement_served_by_coordinate(&client_b, &announcement_b, &repo_id).await,
"announcement B must be served by coordinate before deletion"
);
let deletion_a = build_deletion(&client_a, &[], std::slice::from_ref(&coordinate_a));
client_a
.send_event(deletion_a)
.await
.expect("relay should accept announcement A deletion");
tokio::time::sleep(Duration::from_millis(600)).await;
let announcement_a_survived = client_a
.is_event_on_relay(announcement_a.id)
.await
.expect("query announcement A after deletion");
let announcement_b_survived = client_b
.is_event_on_relay(announcement_b.id)
.await
.expect("query announcement B after deletion");
let patch_survived = client_a
.is_event_on_relay(patch.id)
.await
.expect("query patch after deletion");
let announcement_a_by_coordinate =
announcement_served_by_coordinate(&client_a, &announcement_a, &repo_id).await;
let announcement_b_by_coordinate =
announcement_served_by_coordinate(&client_b, &announcement_b, &repo_id).await;
relay.stop().await;
assert!(
!announcement_a_survived,
"announcement A must be hard-deleted"
);
assert!(announcement_b_survived, "announcement B must survive");
assert!(
patch_survived,
"patch anchored to announcement B must survive"
);
assert!(
!announcement_a_by_coordinate,
"announcement A coordinate must not be served after deletion"
);
assert!(
announcement_b_by_coordinate,
"announcement B coordinate must remain served after deleting A"
);
}
#[tokio::test]
async fn test_event_anchored_only_to_deleted_maintainer_is_removed() {
let relay = TestRelay::start().await;
let client_a = AuditClient::new(relay.url(), AuditConfig::isolated())
.await
.expect("create maintainer A client");
let client_b =
AuditClient::new_with_keys(relay.url(), AuditConfig::isolated(), Keys::generate())
.await
.expect("create maintainer B client");
let (announcement_a, repo_id) = publish_served_repo_with_maintainers(
&client_a,
"multi-anchored-only-a",
&[client_b.public_key().to_hex()],
)
.await;
let announcement_b = publish_served_announcement_for_identifier(&client_b, &repo_id).await;
let coordinate_a = announcement_coordinate(&announcement_a, &repo_id);
let patch = client_a
.event_builder(Kind::from(1617), "patch anchored only to A")
.tag(Tag::custom("a", vec![coordinate_a.clone()]))
.build(client_a.keys())
.expect("build patch");
client_a
.send_event(patch.clone())
.await
.expect("relay should accept patch");
tokio::time::sleep(Duration::from_millis(300)).await;
for (label, id) in [
("announcement_a", announcement_a.id),
("announcement_b", announcement_b.id),
("patch", patch.id),
] {
assert!(
client_a
.is_event_on_relay(id)
.await
.expect("query event before deletion"),
"{label} ({id}) must be served before deletion"
);
}
let deletion_a = build_deletion(&client_a, &[], std::slice::from_ref(&coordinate_a));
client_a
.send_event(deletion_a)
.await
.expect("relay should accept announcement A deletion");
tokio::time::sleep(Duration::from_millis(600)).await;
let announcement_a_survived = client_a
.is_event_on_relay(announcement_a.id)
.await
.expect("query announcement A after deletion");
let announcement_b_survived = client_b
.is_event_on_relay(announcement_b.id)
.await
.expect("query announcement B after deletion");
let patch_survived = client_a
.is_event_on_relay(patch.id)
.await
.expect("query patch after deletion");
relay.stop().await;
assert!(
!announcement_a_survived,
"announcement A must be hard-deleted"
);
assert!(announcement_b_survived, "announcement B must survive");
assert!(
!patch_survived,
"patch anchored only to deleted announcement A must be hard-deleted"
);
}
#[tokio::test]
async fn test_two_maintainers_both_delete_unanchored_events_removed() {
let relay = TestRelay::start().await;
let client_a = AuditClient::new(relay.url(), AuditConfig::isolated())
.await
.expect("create maintainer A client");
let client_b =
AuditClient::new_with_keys(relay.url(), AuditConfig::isolated(), Keys::generate())
.await
.expect("create maintainer B client");
let (announcement_a, repo_id) = publish_served_repo_with_maintainers(
&client_a,
"multi-both-delete",
&[client_b.public_key().to_hex()],
)
.await;
let announcement_b = publish_served_announcement_for_identifier(&client_b, &repo_id).await;
let coordinate_a = announcement_coordinate(&announcement_a, &repo_id);
let coordinate_b = announcement_coordinate(&announcement_b, &repo_id);
let patch = client_a
.event_builder(Kind::from(1617), "shared patch doomed")
.tag(Tag::custom("a", vec![coordinate_a.clone()]))
.tag(Tag::custom("a", vec![coordinate_b.clone()]))
.build(client_a.keys())
.expect("build patch");
client_a
.send_event(patch.clone())
.await
.expect("relay should accept patch");
tokio::time::sleep(Duration::from_millis(300)).await;
for (label, id) in [
("announcement_a", announcement_a.id),
("announcement_b", announcement_b.id),
("patch", patch.id),
] {
assert!(
client_a
.is_event_on_relay(id)
.await
.expect("query event before deletion"),
"{label} ({id}) must be served before deletion"
);
}
let deletion_a = build_deletion(&client_a, &[], std::slice::from_ref(&coordinate_a));
let deletion_b = build_deletion(&client_b, &[], std::slice::from_ref(&coordinate_b));
client_a
.send_event(deletion_a)
.await
.expect("relay should accept announcement A deletion");
client_b
.send_event(deletion_b)
.await
.expect("relay should accept announcement B deletion");
tokio::time::sleep(Duration::from_millis(600)).await;
let announcement_a_survived = client_a
.is_event_on_relay(announcement_a.id)
.await
.expect("query announcement A after deletion");
let announcement_b_survived = client_b
.is_event_on_relay(announcement_b.id)
.await
.expect("query announcement B after deletion");
let patch_survived = client_a
.is_event_on_relay(patch.id)
.await
.expect("query patch after deletion");
let announcement_a_by_coordinate =
announcement_served_by_coordinate(&client_a, &announcement_a, &repo_id).await;
let announcement_b_by_coordinate =
announcement_served_by_coordinate(&client_b, &announcement_b, &repo_id).await;
relay.stop().await;
assert!(
!announcement_a_survived && !announcement_b_survived,
"both announcements must be hard-deleted"
);
assert!(
!patch_survived,
"patch must be hard-deleted after both anchoring announcements are deleted"
);
assert!(
!announcement_a_by_coordinate && !announcement_b_by_coordinate,
"neither announcement coordinate should remain served"
);
}
#[tokio::test]
async fn test_three_maintainers_middle_deletes_event_survives() {
let relay = TestRelay::start().await;
let client_a = AuditClient::new(relay.url(), AuditConfig::isolated())
.await
.expect("create maintainer A client");
let client_b =
AuditClient::new_with_keys(relay.url(), AuditConfig::isolated(), Keys::generate())
.await
.expect("create maintainer B client");
let client_c =
AuditClient::new_with_keys(relay.url(), AuditConfig::isolated(), Keys::generate())
.await
.expect("create maintainer C client");
let (announcement_a, repo_id) = publish_served_repo_with_maintainers(
&client_a,
"multi-three-a",
&[
client_b.public_key().to_hex(),
client_c.public_key().to_hex(),
],
)
.await;
let announcement_b = publish_served_announcement_for_identifier(&client_b, &repo_id).await;
let announcement_c = publish_served_announcement_for_identifier(&client_c, &repo_id).await;
let coordinate_a = announcement_coordinate(&announcement_a, &repo_id);
let coordinate_b = announcement_coordinate(&announcement_b, &repo_id);
let coordinate_c = announcement_coordinate(&announcement_c, &repo_id);
let patch = client_a
.event_builder(Kind::from(1617), "triple-anchored patch")
.tag(Tag::custom("a", vec![coordinate_a]))
.tag(Tag::custom("a", vec![coordinate_b.clone()]))
.tag(Tag::custom("a", vec![coordinate_c]))
.build(client_a.keys())
.expect("build patch");
client_a
.send_event(patch.clone())
.await
.expect("relay should accept patch");
tokio::time::sleep(Duration::from_millis(300)).await;
for (label, id) in [
("announcement_a", announcement_a.id),
("announcement_b", announcement_b.id),
("announcement_c", announcement_c.id),
("patch", patch.id),
] {
assert!(
client_a
.is_event_on_relay(id)
.await
.expect("query event before deletion"),
"{label} ({id}) must be served before deletion"
);
}
let deletion_b = build_deletion(&client_b, &[], std::slice::from_ref(&coordinate_b));
client_b
.send_event(deletion_b)
.await
.expect("relay should accept announcement B deletion");
tokio::time::sleep(Duration::from_millis(600)).await;
let announcement_a_survived = client_a
.is_event_on_relay(announcement_a.id)
.await
.expect("query announcement A after deletion");
let announcement_b_survived = client_b
.is_event_on_relay(announcement_b.id)
.await
.expect("query announcement B after deletion");
let announcement_c_survived = client_c
.is_event_on_relay(announcement_c.id)
.await
.expect("query announcement C after deletion");
let patch_survived = client_a
.is_event_on_relay(patch.id)
.await
.expect("query patch after deletion");
relay.stop().await;
assert!(announcement_a_survived, "announcement A must survive");
assert!(
!announcement_b_survived,
"announcement B must be hard-deleted"
);
assert!(announcement_c_survived, "announcement C must survive");
assert!(
patch_survived,
"patch must survive because it remains anchored to announcements A and C"
);
}
#[tokio::test]
async fn test_three_maintainers_subset_anchors_survive_middle_deletion() {
let relay = TestRelay::start().await;
let client_a = AuditClient::new(relay.url(), AuditConfig::isolated())
.await
.expect("create maintainer A client");
let client_b =
AuditClient::new_with_keys(relay.url(), AuditConfig::isolated(), Keys::generate())
.await
.expect("create maintainer B client");
let client_c =
AuditClient::new_with_keys(relay.url(), AuditConfig::isolated(), Keys::generate())
.await
.expect("create maintainer C client");
let (announcement_a, repo_id) = publish_served_repo_with_maintainers(
&client_a,
"multi-subset-a",
&[
client_b.public_key().to_hex(),
client_c.public_key().to_hex(),
],
)
.await;
let announcement_b = publish_served_announcement_for_identifier(&client_b, &repo_id).await;
let announcement_c = publish_served_announcement_for_identifier(&client_c, &repo_id).await;
let coordinate_a = announcement_coordinate(&announcement_a, &repo_id);
let coordinate_b = announcement_coordinate(&announcement_b, &repo_id);
let coordinate_c = announcement_coordinate(&announcement_c, &repo_id);
let event_ab = client_a
.event_builder(Kind::from(1617), "event anchored to A+B")
.tag(Tag::custom("a", vec![coordinate_a.clone()]))
.tag(Tag::custom("a", vec![coordinate_b.clone()]))
.build(client_a.keys())
.expect("build event anchored to A+B");
let event_bc = client_a
.event_builder(Kind::from(1617), "event anchored to B+C")
.tag(Tag::custom("a", vec![coordinate_b.clone()]))
.tag(Tag::custom("a", vec![coordinate_c.clone()]))
.build(client_a.keys())
.expect("build event anchored to B+C");
let event_ac = client_a
.event_builder(Kind::from(1617), "event anchored to A+C")
.tag(Tag::custom("a", vec![coordinate_a.clone()]))
.tag(Tag::custom("a", vec![coordinate_c.clone()]))
.build(client_a.keys())
.expect("build event anchored to A+C");
for event in [&event_ab, &event_bc, &event_ac] {
client_a
.send_event(event.clone())
.await
.expect("relay should accept subset-anchored event");
}
tokio::time::sleep(Duration::from_millis(300)).await;
for (label, id) in [
("announcement_a", announcement_a.id),
("announcement_b", announcement_b.id),
("announcement_c", announcement_c.id),
("event_ab", event_ab.id),
("event_bc", event_bc.id),
("event_ac", event_ac.id),
] {
assert!(
client_a
.is_event_on_relay(id)
.await
.expect("query event before deletion"),
"{label} ({id}) must be served before deletion"
);
}
let deletion_b = build_deletion(&client_b, &[], std::slice::from_ref(&coordinate_b));
client_b
.send_event(deletion_b)
.await
.expect("relay should accept announcement B deletion");
tokio::time::sleep(Duration::from_millis(600)).await;
let announcement_a_survived = client_a
.is_event_on_relay(announcement_a.id)
.await
.expect("query announcement A after deletion");
let announcement_b_survived = client_b
.is_event_on_relay(announcement_b.id)
.await
.expect("query announcement B after deletion");
let announcement_c_survived = client_c
.is_event_on_relay(announcement_c.id)
.await
.expect("query announcement C after deletion");
let event_ab_survived = client_a
.is_event_on_relay(event_ab.id)
.await
.expect("query event AB after deletion");
let event_bc_survived = client_a
.is_event_on_relay(event_bc.id)
.await
.expect("query event BC after deletion");
let event_ac_survived = client_a
.is_event_on_relay(event_ac.id)
.await
.expect("query event AC after deletion");
let announcement_b_by_coordinate =
announcement_served_by_coordinate(&client_b, &announcement_b, &repo_id).await;
relay.stop().await;
assert!(announcement_a_survived, "announcement A must survive");
assert!(
!announcement_b_survived,
"announcement B must be hard-deleted"
);
assert!(announcement_c_survived, "announcement C must survive");
assert!(
event_ab_survived,
"event A+B must survive due to alternative anchor A"
);
assert!(
event_bc_survived,
"event B+C must survive due to alternative anchor C"
);
assert!(
event_ac_survived,
"event A+C must survive because both anchors remain"
);
assert!(
!announcement_b_by_coordinate,
"announcement B coordinate must not be served after deletion"
);
}
#[tokio::test]
async fn test_shared_subgraph_survives_when_one_anchor_path_removed() {
let relay = TestRelay::start().await;
let client_a = AuditClient::new(relay.url(), AuditConfig::isolated())
.await
.expect("create maintainer A client");
let client_b =
AuditClient::new_with_keys(relay.url(), AuditConfig::isolated(), Keys::generate())
.await
.expect("create maintainer B client");
let (announcement_a, repo_id) = publish_served_repo_with_maintainers(
&client_a,
"multi-shared-subgraph",
&[client_b.public_key().to_hex()],
)
.await;
let announcement_b = publish_served_announcement_for_identifier(&client_b, &repo_id).await;
let coordinate_a = announcement_coordinate(&announcement_a, &repo_id);
let coordinate_b = announcement_coordinate(&announcement_b, &repo_id);
// Top-level dependents under different anchoring conditions.
let top_shared = client_a
.event_builder(Kind::from(1617), "top shared A+B")
.tag(Tag::custom("a", vec![coordinate_a.clone()]))
.tag(Tag::custom("a", vec![coordinate_b.clone()]))
.build(client_a.keys())
.expect("build top shared event");
let top_unique_a = client_a
.event_builder(Kind::from(1617), "top unique A")
.tag(Tag::custom("a", vec![coordinate_a.clone()]))
.build(client_a.keys())
.expect("build top unique A event");
// Shared descendant references both tops and should survive through top_shared.
// Under acceptance-reachability cascade, retaining shared_descendant also
// retains top_unique_a because a kept node references it.
let shared_descendant = client_a
.event_builder(Kind::from(1111), "shared descendant")
.tag(Tag::custom("e", vec![top_shared.id.to_hex()]))
.tag(Tag::custom("e", vec![top_unique_a.id.to_hex()]))
.build(client_a.keys())
.expect("build shared descendant");
// Once top_unique_a is retained by the shared descendant, this unique
// descendant remains acceptable because it references a kept node.
let unique_descendant = client_a
.event_builder(Kind::from(1111), "unique descendant")
.tag(Tag::custom("e", vec![top_unique_a.id.to_hex()]))
.build(client_a.keys())
.expect("build unique descendant");
for event in [
&top_shared,
&top_unique_a,
&shared_descendant,
&unique_descendant,
] {
client_a
.send_event(event.clone())
.await
.expect("relay should accept shared-subgraph event");
}
tokio::time::sleep(Duration::from_millis(350)).await;
for (label, id) in [
("announcement_a", announcement_a.id),
("announcement_b", announcement_b.id),
("top_shared", top_shared.id),
("top_unique_a", top_unique_a.id),
("shared_descendant", shared_descendant.id),
("unique_descendant", unique_descendant.id),
] {
assert!(
client_a
.is_event_on_relay(id)
.await
.expect("query event before deletion"),
"{label} ({id}) must be served before deletion"
);
}
let deletion_a = build_deletion(&client_a, &[], std::slice::from_ref(&coordinate_a));
client_a
.send_event(deletion_a)
.await
.expect("relay should accept announcement A deletion");
tokio::time::sleep(Duration::from_millis(700)).await;
let announcement_a_survived = client_a
.is_event_on_relay(announcement_a.id)
.await
.expect("query announcement A after deletion");
let announcement_b_survived = client_b
.is_event_on_relay(announcement_b.id)
.await
.expect("query announcement B after deletion");
let top_shared_survived = client_a
.is_event_on_relay(top_shared.id)
.await
.expect("query top shared after deletion");
let top_unique_a_survived = client_a
.is_event_on_relay(top_unique_a.id)
.await
.expect("query top unique A after deletion");
let shared_descendant_survived = client_a
.is_event_on_relay(shared_descendant.id)
.await
.expect("query shared descendant after deletion");
let unique_descendant_survived = client_a
.is_event_on_relay(unique_descendant.id)
.await
.expect("query unique descendant after deletion");
relay.stop().await;
assert!(
!announcement_a_survived,
"announcement A must be hard-deleted"
);
assert!(announcement_b_survived, "announcement B must survive");
assert!(
top_shared_survived,
"top shared event must survive because anchor B remains"
);
assert!(
top_unique_a_survived,
"top unique A event must survive because retained shared_descendant references it"
);
assert!(
shared_descendant_survived,
"shared descendant must survive through still-anchored top_shared path"
);
assert!(
unique_descendant_survived,
"unique descendant must survive because retained top_unique_A remains acceptable"
);
}