Files
Aether/apps/aether-gateway/src/scheduler/candidate/tests/selection.rs
T

2654 lines
92 KiB
Rust

use std::sync::Arc;
use std::time::Duration;
use aether_data::repository::candidate_selection::InMemoryMinimalCandidateSelectionReadRepository;
use aether_data::repository::candidates::InMemoryRequestCandidateRepository;
use aether_data::repository::provider_catalog::InMemoryProviderCatalogReadRepository;
use aether_data::repository::quota::InMemoryProviderQuotaRepository;
use aether_data_contracts::repository::candidate_selection::{
StoredMinimalCandidateSelectionRow, StoredProviderModelMapping,
};
use aether_data_contracts::repository::candidates::{
RequestCandidateStatus, StoredRequestCandidate,
};
use aether_data_contracts::repository::provider_catalog::StoredProviderCatalogKey;
use aether_data_contracts::repository::quota::StoredProviderQuotaSnapshot;
use aether_scheduler_core::SchedulerMinimalCandidateSelectionCandidate;
use serde_json::json;
use crate::cache::SchedulerAffinityTarget;
use crate::data::auth::GatewayAuthApiKeySnapshot;
use crate::data::candidate_selection::MinimalCandidateSelectionRowSource;
use crate::data::GatewayDataState;
use crate::{AppState, GatewayError};
use super::super::affinity::build_scheduler_affinity_cache_key;
use super::super::runtime::should_skip_provider_quota;
use super::super::selection::{
collect_selectable_candidates as collect_selectable_candidates_impl,
collect_selectable_candidates_with_skip_reasons as collect_selectable_candidates_with_skip_reasons_impl,
is_exact_all_skipped_by_auth_limit, select_minimal_candidate as select_candidate_impl,
};
use super::support::{sample_auth_snapshot, sample_key, sample_provider, sample_row};
async fn select_candidate(
selection_row_source: &(impl MinimalCandidateSelectionRowSource + Sync),
runtime_state: &AppState,
api_format: &str,
global_model_name: &str,
require_streaming: bool,
auth_snapshot: Option<&GatewayAuthApiKeySnapshot>,
now_unix_secs: u64,
) -> Result<Option<SchedulerMinimalCandidateSelectionCandidate>, GatewayError> {
select_candidate_impl(
selection_row_source,
runtime_state,
api_format,
global_model_name,
require_streaming,
None,
auth_snapshot,
None,
now_unix_secs,
false,
)
.await
}
async fn collect_selectable_candidates(
selection_row_source: &(impl MinimalCandidateSelectionRowSource + Sync),
runtime_state: &AppState,
api_format: &str,
global_model_name: &str,
require_streaming: bool,
auth_snapshot: Option<&GatewayAuthApiKeySnapshot>,
now_unix_secs: u64,
) -> Result<Vec<SchedulerMinimalCandidateSelectionCandidate>, GatewayError> {
collect_selectable_candidates_impl(
selection_row_source,
runtime_state,
api_format,
global_model_name,
require_streaming,
None,
auth_snapshot,
None,
now_unix_secs,
false,
)
.await
}
async fn collect_selectable_candidates_with_skip_reasons(
selection_row_source: &(impl MinimalCandidateSelectionRowSource + Sync),
runtime_state: &AppState,
api_format: &str,
global_model_name: &str,
require_streaming: bool,
auth_snapshot: Option<&GatewayAuthApiKeySnapshot>,
now_unix_secs: u64,
) -> Result<
(
Vec<SchedulerMinimalCandidateSelectionCandidate>,
Vec<super::super::SchedulerSkippedCandidate>,
),
GatewayError,
> {
collect_selectable_candidates_with_skip_reasons_impl(
selection_row_source,
runtime_state,
api_format,
global_model_name,
require_streaming,
None,
auth_snapshot,
None,
now_unix_secs,
false,
)
.await
}
fn provider_key_concurrency_row(
provider_id: &str,
endpoint_id: &str,
key_id: &str,
key_name: &str,
provider_priority: i32,
key_priority: i32,
) -> StoredMinimalCandidateSelectionRow {
let mut row = sample_row();
row.provider_id = provider_id.to_string();
row.provider_name = provider_id.to_string();
row.endpoint_id = endpoint_id.to_string();
row.key_id = key_id.to_string();
row.key_name = key_name.to_string();
row.provider_priority = provider_priority;
row.key_internal_priority = key_priority;
row.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": key_priority}));
row
}
fn provider_key_with_concurrent_limit(
key_id: &str,
provider_id: &str,
concurrent_limit: Option<i32>,
) -> StoredProviderCatalogKey {
let mut key = sample_key(key_id, provider_id, Some(10));
key.concurrent_limit = concurrent_limit;
key
}
fn active_provider_key_candidate(
candidate_id: &str,
request_id: &str,
provider_id: &str,
endpoint_id: &str,
key_id: &str,
status: RequestCandidateStatus,
) -> StoredRequestCandidate {
StoredRequestCandidate::new(
candidate_id.to_string(),
request_id.to_string(),
None,
None,
None,
None,
0,
0,
Some(provider_id.to_string()),
Some(endpoint_id.to_string()),
Some(key_id.to_string()),
status,
None,
false,
None,
None,
None,
None,
None,
None,
None,
95_000,
Some(95_000),
None,
)
.expect("candidate should build")
}
fn provider_key_concurrency_state(
rows: Vec<StoredMinimalCandidateSelectionRow>,
keys: Vec<StoredProviderCatalogKey>,
request_candidates: Vec<StoredRequestCandidate>,
) -> AppState {
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(rows));
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![
sample_provider("test-provider-a", None),
sample_provider("test-provider-b", None),
],
Vec::new(),
keys,
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(request_candidates));
AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
)
}
#[test]
fn skips_only_exhausted_monthly_quota_provider() {
let inactive = StoredProviderQuotaSnapshot::new(
"provider-1".to_string(),
"monthly_quota".to_string(),
Some(10.0),
1.0,
Some(30),
Some(1_000),
None,
false,
)
.expect("quota should build");
assert!(!should_skip_provider_quota(&inactive, 2_000));
let expired = StoredProviderQuotaSnapshot::new(
"provider-1".to_string(),
"monthly_quota".to_string(),
Some(10.0),
1.0,
Some(30),
Some(1_000),
Some(1_500),
true,
)
.expect("quota should build");
assert!(!should_skip_provider_quota(&expired, 2_000));
let exhausted = StoredProviderQuotaSnapshot::new(
"provider-1".to_string(),
"monthly_quota".to_string(),
Some(10.0),
10.0,
Some(30),
Some(1_000),
None,
true,
)
.expect("quota should build");
assert!(should_skip_provider_quota(&exhausted, 2_000));
let payg = StoredProviderQuotaSnapshot::new(
"provider-1".to_string(),
"pay_as_you_go".to_string(),
None,
10.0,
None,
None,
None,
true,
)
.expect("quota should build");
assert!(!should_skip_provider_quota(&payg, 2_000));
}
#[tokio::test]
async fn selects_by_provider_priority_when_priority_mode_is_provider() {
let mut provider_first = sample_row();
provider_first.provider_id = "provider-a".to_string();
provider_first.provider_name = "provider-a".to_string();
provider_first.endpoint_id = "endpoint-a".to_string();
provider_first.key_id = "key-a".to_string();
provider_first.key_name = "alpha".to_string();
provider_first.provider_priority = 0;
provider_first.key_internal_priority = 20;
provider_first.key_global_priority_by_format = Some(json!({"openai:chat": 10}));
let mut global_key_first = sample_row();
global_key_first.provider_id = "provider-b".to_string();
global_key_first.provider_name = "provider-b".to_string();
global_key_first.endpoint_id = "endpoint-b".to_string();
global_key_first.key_id = "key-b".to_string();
global_key_first.key_name = "beta".to_string();
global_key_first.provider_priority = 10;
global_key_first.key_internal_priority = 0;
global_key_first.key_global_priority_by_format = Some(json!({"openai:chat": 0}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
provider_first,
global_key_first,
]));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_and_quota_for_tests(candidates, quotas)
.with_system_config_values_for_tests(vec![(
"provider_priority_mode".to_string(),
json!("provider"),
)]),
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "provider-a");
assert_eq!(selected.key_id, "key-a");
}
#[tokio::test]
async fn selects_by_global_key_priority_when_priority_mode_is_global_key() {
let mut provider_first = sample_row();
provider_first.provider_id = "provider-a".to_string();
provider_first.provider_name = "provider-a".to_string();
provider_first.endpoint_id = "endpoint-a".to_string();
provider_first.key_id = "key-a".to_string();
provider_first.key_name = "alpha".to_string();
provider_first.provider_priority = 0;
provider_first.key_internal_priority = 20;
provider_first.key_global_priority_by_format = Some(json!({"openai:chat": 10}));
let mut global_key_first = sample_row();
global_key_first.provider_id = "provider-b".to_string();
global_key_first.provider_name = "provider-b".to_string();
global_key_first.endpoint_id = "endpoint-b".to_string();
global_key_first.key_id = "key-b".to_string();
global_key_first.key_name = "beta".to_string();
global_key_first.provider_priority = 10;
global_key_first.key_internal_priority = 0;
global_key_first.key_global_priority_by_format = Some(json!({"openai:chat": 0}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
provider_first,
global_key_first,
]));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_and_quota_for_tests(candidates, quotas)
.with_system_config_values_for_tests(vec![(
"provider_priority_mode".to_string(),
json!("global_key"),
)]),
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "provider-b");
assert_eq!(selected.key_id, "key-b");
}
#[tokio::test]
async fn scheduler_selection_prefers_required_capability_matches_before_priority_fallback() {
let mut higher_priority_missing_capability = sample_row();
higher_priority_missing_capability.provider_id = "provider-a".to_string();
higher_priority_missing_capability.provider_name = "provider-a".to_string();
higher_priority_missing_capability.endpoint_id = "endpoint-a".to_string();
higher_priority_missing_capability.key_id = "key-a".to_string();
higher_priority_missing_capability.key_name = "alpha".to_string();
higher_priority_missing_capability.provider_priority = 0;
higher_priority_missing_capability.key_internal_priority = 0;
higher_priority_missing_capability.key_capabilities = Some(json!({"cache_1h": false}));
let mut lower_priority_matching_capability = sample_row();
lower_priority_matching_capability.provider_id = "provider-b".to_string();
lower_priority_matching_capability.provider_name = "provider-b".to_string();
lower_priority_matching_capability.endpoint_id = "endpoint-b".to_string();
lower_priority_matching_capability.key_id = "key-b".to_string();
lower_priority_matching_capability.key_name = "beta".to_string();
lower_priority_matching_capability.provider_priority = 10;
lower_priority_matching_capability.key_internal_priority = 10;
lower_priority_matching_capability.key_capabilities = Some(json!({"cache_1h": true}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
higher_priority_missing_capability,
lower_priority_matching_capability,
]));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_and_quota_for_tests(candidates, quotas),
);
let required_capabilities = json!({"cache_1h": true});
let selected = select_candidate_impl(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
Some(&required_capabilities),
None,
None,
100,
false,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "provider-b");
assert_eq!(selected.key_id, "key-b");
}
#[tokio::test]
async fn fixed_order_ignores_cached_scheduler_affinity_promotion() {
let mut first = sample_row();
first.provider_id = "provider-a".to_string();
first.provider_name = "provider-a".to_string();
first.endpoint_id = "endpoint-a".to_string();
first.key_id = "key-a".to_string();
first.key_name = "alpha".to_string();
first.provider_priority = 0;
first.key_internal_priority = 0;
first.key_global_priority_by_format = Some(json!({"openai:chat": 0}));
let mut second = sample_row();
second.provider_id = "provider-b".to_string();
second.provider_name = "provider-b".to_string();
second.endpoint_id = "endpoint-b".to_string();
second.key_id = "key-b".to_string();
second.key_name = "beta".to_string();
second.provider_priority = 1;
second.key_internal_priority = 0;
second.key_global_priority_by_format = Some(json!({"openai:chat": 1}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_and_quota_for_tests(candidates, quotas)
.with_system_config_values_for_tests(vec![(
"scheduling_mode".to_string(),
json!("fixed_order"),
)]),
);
let auth_snapshot = sample_auth_snapshot("affinity-key-1");
state.remember_scheduler_affinity_target(
"scheduler_affinity:affinity-key-1:openai:chat:gpt-4.1",
SchedulerAffinityTarget {
provider_id: "provider-b".to_string(),
endpoint_id: "endpoint-b".to_string(),
key_id: "key-b".to_string(),
},
Duration::from_secs(300),
100,
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
Some(&auth_snapshot),
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "provider-a");
assert_eq!(selected.key_id, "key-a");
}
#[tokio::test]
async fn fixed_order_disables_same_priority_affinity_hash_tiebreaker() {
let mut first = sample_row();
first.provider_id = "provider-a".to_string();
first.provider_name = "provider-a".to_string();
first.endpoint_id = "endpoint-a".to_string();
first.key_id = "key-a".to_string();
first.key_name = "alpha".to_string();
first.provider_priority = 0;
first.key_internal_priority = 0;
first.key_global_priority_by_format = Some(json!({"openai:chat": 0}));
let mut second = sample_row();
second.provider_id = "provider-b".to_string();
second.provider_name = "provider-b".to_string();
second.endpoint_id = "endpoint-b".to_string();
second.key_id = "key-b".to_string();
second.key_name = "beta".to_string();
second.provider_priority = 1;
second.key_internal_priority = 0;
second.key_global_priority_by_format = Some(json!({"openai:chat": 1}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_and_quota_for_tests(candidates, quotas)
.with_system_config_values_for_tests(vec![(
"scheduling_mode".to_string(),
json!("fixed_order"),
)]),
);
let auth_snapshot = sample_auth_snapshot("affinity-key-1");
let selection = collect_selectable_candidates(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
Some(&auth_snapshot),
100,
)
.await
.expect("selection should succeed");
assert_eq!(selection.len(), 2);
assert_eq!(selection[0].provider_id, "provider-a");
assert_eq!(selection[1].provider_id, "provider-b");
}
#[tokio::test]
async fn cache_affinity_promotes_cached_scheduler_affinity_candidate_when_enabled() {
let mut first = sample_row();
first.provider_id = "provider-a".to_string();
first.provider_name = "provider-a".to_string();
first.endpoint_id = "endpoint-a".to_string();
first.key_id = "key-a".to_string();
first.key_name = "alpha".to_string();
first.provider_priority = 0;
first.key_internal_priority = 0;
first.key_global_priority_by_format = Some(json!({"openai:chat": 0}));
let mut second = sample_row();
second.provider_id = "provider-b".to_string();
second.provider_name = "provider-b".to_string();
second.endpoint_id = "endpoint-b".to_string();
second.key_id = "key-b".to_string();
second.key_name = "beta".to_string();
second.provider_priority = 0;
second.key_internal_priority = 0;
second.key_global_priority_by_format = Some(json!({"openai:chat": 0}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_and_quota_for_tests(candidates, quotas)
.with_system_config_values_for_tests(vec![(
"scheduling_mode".to_string(),
json!("cache_affinity"),
)]),
);
let auth_snapshot = sample_auth_snapshot("affinity-key-1");
state.remember_scheduler_affinity_target(
"scheduler_affinity:affinity-key-1:openai:chat:gpt-4.1",
SchedulerAffinityTarget {
provider_id: "provider-b".to_string(),
endpoint_id: "endpoint-b".to_string(),
key_id: "key-b".to_string(),
},
Duration::from_secs(300),
100,
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
Some(&auth_snapshot),
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "provider-b");
assert_eq!(selected.key_id, "key-b");
}
#[tokio::test]
async fn load_balance_selection_does_not_remember_scheduler_affinity() {
let row = sample_row();
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
row,
]));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_and_quota_for_tests(candidates, quotas)
.with_system_config_values_for_tests(vec![(
"scheduling_mode".to_string(),
json!("load_balance"),
)]),
);
let auth_snapshot = sample_auth_snapshot("affinity-key-1");
let cache_key =
build_scheduler_affinity_cache_key(Some(&auth_snapshot), "openai:chat", "gpt-4.1", None)
.expect("scheduler affinity cache key should build");
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
Some(&auth_snapshot),
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.key_id, "key-1");
assert!(state
.read_scheduler_affinity_target(cache_key.as_str(), Duration::from_secs(300))
.is_none());
}
#[tokio::test]
async fn load_balance_ignores_provider_priority_and_cached_affinity() {
let mut first = sample_row();
first.provider_id = "provider-a".to_string();
first.provider_name = "provider-a".to_string();
first.endpoint_id = "endpoint-a".to_string();
first.key_id = "key-a".to_string();
first.key_name = "alpha".to_string();
first.provider_priority = 0;
first.key_internal_priority = 0;
first.key_global_priority_by_format = Some(json!({"openai:chat": 0}));
let mut second = sample_row();
second.provider_id = "provider-b".to_string();
second.provider_name = "provider-b".to_string();
second.endpoint_id = "endpoint-b".to_string();
second.key_id = "key-b".to_string();
second.key_name = "beta".to_string();
second.provider_priority = 100;
second.key_internal_priority = 0;
second.key_global_priority_by_format = Some(json!({"openai:chat": 100}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_and_quota_for_tests(candidates, quotas)
.with_system_config_values_for_tests(vec![(
"scheduling_mode".to_string(),
json!("load_balance"),
)]),
);
let auth_snapshot = sample_auth_snapshot("affinity-key-1");
state.remember_scheduler_affinity_target(
"scheduler_affinity:affinity-key-1:openai:chat:gpt-4.1",
SchedulerAffinityTarget {
provider_id: "provider-b".to_string(),
endpoint_id: "endpoint-b".to_string(),
key_id: "key-b".to_string(),
},
Duration::from_secs(300),
100,
);
let first_pass = collect_selectable_candidates(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
Some(&auth_snapshot),
100,
)
.await
.expect("first pass should succeed");
let mut provider_b_first_seed = None;
for seed in 101..600 {
let pass = collect_selectable_candidates(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
Some(&auth_snapshot),
seed,
)
.await
.expect("seeded pass should succeed");
if pass
.first()
.is_some_and(|candidate| candidate.provider_id == "provider-b")
{
provider_b_first_seed = Some(seed);
break;
}
}
let provider_b_first_seed = provider_b_first_seed
.expect("test seed should allow provider-b to win despite lower priority");
let second_pass = collect_selectable_candidates(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
Some(&auth_snapshot),
provider_b_first_seed,
)
.await
.expect("second pass should succeed");
assert_eq!(first_pass.len(), 2);
assert_eq!(second_pass.len(), 2);
assert_eq!(second_pass[0].provider_id, "provider-b");
}
#[tokio::test]
async fn selects_next_candidate_when_first_provider_quota_is_exhausted() {
let mut first = sample_row();
first.provider_id = "provider-1".to_string();
first.provider_name = "openai-primary".to_string();
first.endpoint_id = "endpoint-1".to_string();
first.key_id = "key-1".to_string();
first.key_name = "primary".to_string();
first.model_provider_model_name = "gpt-4.1-primary".to_string();
first.model_provider_model_mappings = Some(vec![StoredProviderModelMapping {
name: "gpt-4.1-primary".to_string(),
priority: 1,
api_formats: Some(vec!["openai:chat".to_string()]),
endpoint_ids: None,
}]);
first.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 1}));
let mut second = sample_row();
second.provider_id = "provider-2".to_string();
second.provider_name = "openai-secondary".to_string();
second.endpoint_id = "endpoint-2".to_string();
second.key_id = "key-2".to_string();
second.key_name = "secondary".to_string();
second.model_provider_model_name = "gpt-4.1-secondary".to_string();
second.model_provider_model_mappings = Some(vec![StoredProviderModelMapping {
name: "gpt-4.1-secondary".to_string(),
priority: 1,
api_formats: Some(vec!["openai:chat".to_string()]),
endpoint_ids: None,
}]);
second.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 2}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![
StoredProviderQuotaSnapshot::new(
"provider-1".to_string(),
"monthly_quota".to_string(),
Some(10.0),
10.0,
Some(30),
Some(1_000),
None,
true,
)
.expect("quota should build"),
]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_and_quota_for_tests(candidates, quotas),
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
2_000,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "provider-2");
assert_eq!(selected.selected_provider_model_name, "gpt-4.1-secondary");
}
#[tokio::test]
async fn cooled_down_when_recent_failures_are_recorded_for_same_key() {
let mut first = sample_row();
first.provider_id = "provider-1".to_string();
first.provider_name = "openai-primary".to_string();
first.endpoint_id = "endpoint-1".to_string();
first.key_id = "key-1".to_string();
first.key_name = "primary".to_string();
first.model_provider_model_name = "gpt-4.1-primary".to_string();
first.model_provider_model_mappings = Some(vec![StoredProviderModelMapping {
name: "gpt-4.1-primary".to_string(),
priority: 1,
api_formats: Some(vec!["openai:chat".to_string()]),
endpoint_ids: None,
}]);
first.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 1}));
let mut second = sample_row();
second.provider_id = "provider-2".to_string();
second.provider_name = "openai-secondary".to_string();
second.endpoint_id = "endpoint-2".to_string();
second.key_id = "key-2".to_string();
second.key_name = "secondary".to_string();
second.model_provider_model_name = "gpt-4.1-secondary".to_string();
second.model_provider_model_mappings = Some(vec![StoredProviderModelMapping {
name: "gpt-4.1-secondary".to_string(),
priority: 1,
api_formats: Some(vec!["openai:chat".to_string()]),
endpoint_ids: None,
}]);
second.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 2}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![
StoredRequestCandidate::new(
"cand-1".to_string(),
"req-1".to_string(),
None,
None,
None,
None,
0,
0,
Some("provider-1".to_string()),
Some("endpoint-1".to_string()),
Some("key-1".to_string()),
RequestCandidateStatus::Failed,
None,
false,
Some(502),
None,
Some("upstream".to_string()),
Some(100),
None,
None,
None,
95_000,
Some(95_000),
Some(95_000),
)
.expect("candidate should build"),
StoredRequestCandidate::new(
"cand-2".to_string(),
"req-2".to_string(),
None,
None,
None,
None,
0,
0,
Some("provider-1".to_string()),
Some("endpoint-1".to_string()),
Some("key-1".to_string()),
RequestCandidateStatus::Cancelled,
None,
false,
Some(499),
None,
Some("cancelled".to_string()),
Some(80),
None,
None,
None,
98_000,
Some(98_000),
Some(98_000),
)
.expect("candidate should build"),
]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_quota_and_request_candidates_for_tests(
candidates,
quotas,
request_candidates,
),
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "provider-2");
assert_eq!(selected.selected_provider_model_name, "gpt-4.1-secondary");
}
#[tokio::test]
async fn selects_next_candidate_when_first_provider_concurrent_limit_is_reached() {
let mut first = sample_row();
first.provider_id = "provider-a".to_string();
first.provider_name = "openai-a".to_string();
first.endpoint_id = "endpoint-a".to_string();
first.key_id = "key-a".to_string();
first.key_name = "alpha".to_string();
first.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 1}));
let mut second = sample_row();
second.provider_id = "provider-b".to_string();
second.provider_name = "openai-b".to_string();
second.endpoint_id = "endpoint-b".to_string();
second.key_id = "key-b".to_string();
second.key_name = "beta".to_string();
second.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 2}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![
sample_provider("provider-a", Some(1)),
sample_provider("provider-b", None),
],
Vec::new(),
Vec::new(),
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![
StoredRequestCandidate::new(
"cand-1".to_string(),
"req-1".to_string(),
None,
None,
None,
None,
0,
0,
Some("provider-a".to_string()),
Some("endpoint-a".to_string()),
Some("key-a".to_string()),
RequestCandidateStatus::Streaming,
None,
false,
None,
None,
None,
None,
None,
None,
None,
95_000,
Some(95_000),
None,
)
.expect("candidate should build"),
]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "provider-b");
assert_eq!(selected.key_id, "key-b");
}
#[tokio::test]
async fn provider_key_concurrency_selects_next_key_when_first_provider_key_concurrent_limit_is_reached(
) {
let state = provider_key_concurrency_state(
vec![
provider_key_concurrency_row(
"test-provider-a",
"endpoint-a",
"provider-key-a",
"alpha",
0,
0,
),
provider_key_concurrency_row(
"test-provider-a",
"endpoint-a",
"provider-key-b",
"beta",
0,
1,
),
],
vec![
provider_key_with_concurrent_limit("provider-key-a", "test-provider-a", Some(1)),
provider_key_with_concurrent_limit("provider-key-b", "test-provider-a", Some(1)),
],
vec![active_provider_key_candidate(
"cand-provider-key-a",
"req-provider-key-a",
"test-provider-a",
"endpoint-a",
"provider-key-a",
RequestCandidateStatus::Streaming,
)],
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "test-provider-a");
assert_eq!(selected.key_id, "provider-key-b");
}
#[tokio::test]
async fn provider_key_concurrency_selects_next_provider_when_all_provider_keys_concurrent_limit_reached(
) {
let state = provider_key_concurrency_state(
vec![
provider_key_concurrency_row(
"test-provider-a",
"endpoint-a",
"provider-key-a",
"alpha",
0,
0,
),
provider_key_concurrency_row(
"test-provider-a",
"endpoint-a",
"provider-key-b",
"beta",
0,
1,
),
provider_key_concurrency_row(
"test-provider-b",
"endpoint-b",
"provider-key-c",
"gamma",
1,
0,
),
],
vec![
provider_key_with_concurrent_limit("provider-key-a", "test-provider-a", Some(1)),
provider_key_with_concurrent_limit("provider-key-b", "test-provider-a", Some(1)),
provider_key_with_concurrent_limit("provider-key-c", "test-provider-b", Some(1)),
],
vec![
active_provider_key_candidate(
"cand-provider-key-a",
"req-provider-key-a",
"test-provider-a",
"endpoint-a",
"provider-key-a",
RequestCandidateStatus::Pending,
),
active_provider_key_candidate(
"cand-provider-key-b",
"req-provider-key-b",
"test-provider-a",
"endpoint-a",
"provider-key-b",
RequestCandidateStatus::Streaming,
),
],
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "test-provider-b");
assert_eq!(selected.key_id, "provider-key-c");
}
#[tokio::test]
async fn provider_key_concurrency_returns_none_when_all_provider_keys_concurrent_limit_reached() {
let state = provider_key_concurrency_state(
vec![
provider_key_concurrency_row(
"test-provider-a",
"endpoint-a",
"provider-key-a",
"alpha",
0,
0,
),
provider_key_concurrency_row(
"test-provider-a",
"endpoint-a",
"provider-key-b",
"beta",
0,
1,
),
provider_key_concurrency_row(
"test-provider-b",
"endpoint-b",
"provider-key-c",
"gamma",
1,
0,
),
],
vec![
provider_key_with_concurrent_limit("provider-key-a", "test-provider-a", Some(1)),
provider_key_with_concurrent_limit("provider-key-b", "test-provider-a", Some(1)),
provider_key_with_concurrent_limit("provider-key-c", "test-provider-b", Some(1)),
],
vec![
active_provider_key_candidate(
"cand-provider-key-a",
"req-provider-key-a",
"test-provider-a",
"endpoint-a",
"provider-key-a",
RequestCandidateStatus::Pending,
),
active_provider_key_candidate(
"cand-provider-key-b",
"req-provider-key-b",
"test-provider-a",
"endpoint-a",
"provider-key-b",
RequestCandidateStatus::Streaming,
),
active_provider_key_candidate(
"cand-provider-key-c",
"req-provider-key-c",
"test-provider-b",
"endpoint-b",
"provider-key-c",
RequestCandidateStatus::Streaming,
),
],
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed");
assert!(selected.is_none());
let (selected_candidates, skipped_candidates) =
collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed");
assert!(selected_candidates.is_empty());
assert_eq!(skipped_candidates.len(), 3);
assert!(skipped_candidates
.iter()
.all(|skipped| { skipped.skip_reason == "provider_key_concurrency_limit_reached" }));
assert!(!is_exact_all_skipped_by_auth_limit(
&selected_candidates,
&skipped_candidates,
));
}
#[tokio::test]
async fn provider_key_concurrency_collects_exact_skip_reason_for_saturated_provider_keys() {
let state = provider_key_concurrency_state(
vec![
provider_key_concurrency_row(
"test-provider-a",
"endpoint-a",
"provider-key-a",
"alpha",
0,
0,
),
provider_key_concurrency_row(
"test-provider-a",
"endpoint-a",
"provider-key-b",
"beta",
0,
1,
),
],
vec![
provider_key_with_concurrent_limit("provider-key-a", "test-provider-a", Some(1)),
provider_key_with_concurrent_limit("provider-key-b", "test-provider-a", Some(1)),
],
vec![active_provider_key_candidate(
"cand-provider-key-a",
"req-provider-key-a",
"test-provider-a",
"endpoint-a",
"provider-key-a",
RequestCandidateStatus::Pending,
)],
);
let (selected_candidates, skipped_candidates) =
collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed");
assert_eq!(selected_candidates.len(), 1);
assert_eq!(selected_candidates[0].provider_id, "test-provider-a");
assert_eq!(selected_candidates[0].key_id, "provider-key-b");
assert_eq!(skipped_candidates.len(), 1);
assert_eq!(
skipped_candidates[0].candidate.provider_id,
"test-provider-a"
);
assert_eq!(skipped_candidates[0].candidate.key_id, "provider-key-a");
assert_eq!(
skipped_candidates[0].skip_reason,
"provider_key_concurrency_limit_reached",
);
}
#[tokio::test]
async fn returns_none_when_auth_api_key_concurrent_limit_is_reached() {
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
sample_row(),
]));
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![sample_provider("provider-1", None)],
Vec::new(),
Vec::new(),
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![
StoredRequestCandidate::new(
"cand-1".to_string(),
"req-1".to_string(),
Some("user-1".to_string()),
Some("api-key-1".to_string()),
None,
None,
0,
0,
Some("provider-1".to_string()),
Some("endpoint-1".to_string()),
Some("key-1".to_string()),
RequestCandidateStatus::Pending,
None,
false,
None,
None,
None,
None,
None,
None,
None,
95_000,
Some(95_000),
None,
)
.expect("candidate should build"),
]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let mut auth_snapshot = sample_auth_snapshot("api-key-1");
auth_snapshot.api_key_concurrent_limit = Some(1);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
Some(&auth_snapshot),
100,
)
.await
.expect("selection should succeed");
assert!(selected.is_none());
let (selected_candidates, skipped_candidates) =
collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
Some(&auth_snapshot),
100,
)
.await
.expect("selection should succeed");
assert!(is_exact_all_skipped_by_auth_limit(
&selected_candidates,
&skipped_candidates,
));
}
#[tokio::test]
async fn selects_next_candidate_when_first_provider_key_rpm_slots_are_reserved_for_new_user() {
let mut first = sample_row();
first.provider_id = "provider-a".to_string();
first.provider_name = "openai-a".to_string();
first.endpoint_id = "endpoint-a".to_string();
first.key_id = "key-a".to_string();
first.key_name = "alpha".to_string();
first.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 1}));
let mut second = sample_row();
second.provider_id = "provider-b".to_string();
second.provider_name = "openai-b".to_string();
second.endpoint_id = "endpoint-b".to_string();
second.key_id = "key-b".to_string();
second.key_name = "beta".to_string();
second.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 2}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![
sample_provider("provider-a", None),
sample_provider("provider-b", None),
],
Vec::new(),
vec![
sample_key("key-a", "provider-a", Some(10)),
sample_key("key-b", "provider-b", Some(10)),
],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![
StoredRequestCandidate::new(
"cand-1".to_string(),
"req-1".to_string(),
None,
Some("api-key-new-user".to_string()),
None,
None,
0,
0,
Some("provider-a".to_string()),
Some("endpoint-a".to_string()),
Some("key-a".to_string()),
RequestCandidateStatus::Success,
None,
false,
Some(200),
None,
None,
Some(10),
Some(9),
None,
None,
95_000,
Some(95_000),
Some(96_000),
)
.expect("candidate should build"),
]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let auth_snapshot = sample_auth_snapshot("api-key-new-user");
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
Some(&auth_snapshot),
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "provider-b");
assert_eq!(selected.key_id, "key-b");
}
#[tokio::test]
async fn selects_next_candidate_when_first_provider_key_circuit_is_open() {
let mut first = sample_row();
first.provider_id = "provider-a".to_string();
first.provider_name = "openai-a".to_string();
first.endpoint_id = "endpoint-a".to_string();
first.key_id = "key-a".to_string();
first.key_name = "alpha".to_string();
first.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 1}));
let mut second = sample_row();
second.provider_id = "provider-b".to_string();
second.provider_name = "openai-b".to_string();
second.endpoint_id = "endpoint-b".to_string();
second.key_id = "key-b".to_string();
second.key_name = "beta".to_string();
second.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 2}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![
sample_provider("provider-a", None),
sample_provider("provider-b", None),
],
Vec::new(),
vec![
sample_key("key-a", "provider-a", Some(10)).with_health_fields(
Some(serde_json::json!({"openai:chat": {"health_score": 0.2}})),
Some(serde_json::json!({"openai:chat": {"open": true}})),
),
sample_key("key-b", "provider-b", Some(10)),
],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "provider-b");
assert_eq!(selected.key_id, "key-b");
}
#[tokio::test]
async fn exposes_runtime_skipped_candidates_with_skip_reasons() {
let mut first = sample_row();
first.provider_id = "provider-a".to_string();
first.provider_name = "openai-a".to_string();
first.endpoint_id = "endpoint-a".to_string();
first.key_id = "key-a".to_string();
first.key_name = "alpha".to_string();
first.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 1}));
let mut second = sample_row();
second.provider_id = "provider-b".to_string();
second.provider_name = "openai-b".to_string();
second.endpoint_id = "endpoint-b".to_string();
second.key_id = "key-b".to_string();
second.key_name = "beta".to_string();
second.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 2}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![
sample_provider("provider-a", None),
sample_provider("provider-b", None),
],
Vec::new(),
vec![
sample_key("key-a", "provider-a", Some(10)).with_health_fields(
Some(serde_json::json!({"openai:chat": {"health_score": 0.2}})),
Some(serde_json::json!({"openai:chat": {"open": true}})),
),
sample_key("key-b", "provider-b", Some(10)),
],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed");
assert_eq!(selected.len(), 1);
assert_eq!(selected[0].provider_id, "provider-b");
assert_eq!(skipped.len(), 1);
assert_eq!(skipped[0].candidate.provider_id, "provider-a");
assert_eq!(skipped[0].skip_reason, "key_circuit_open");
assert!(!is_exact_all_skipped_by_auth_limit(&selected, &skipped));
}
#[tokio::test]
async fn skips_codex_candidate_when_account_quota_is_exhausted_and_pool_flag_enabled() {
let mut first = sample_row();
first.provider_id = "provider-codex".to_string();
first.provider_name = "codex".to_string();
first.provider_type = "codex".to_string();
first.endpoint_id = "endpoint-codex".to_string();
first.endpoint_api_format = "openai:responses".to_string();
first.key_id = "key-codex".to_string();
first.key_name = "codex-exhausted".to_string();
first.key_auth_type = "oauth".to_string();
first.key_api_formats = Some(vec!["openai:responses".to_string()]);
first.key_global_priority_by_format = Some(serde_json::json!({"openai:responses": 1}));
let mut second = sample_row();
second.provider_id = "provider-openai".to_string();
second.provider_name = "openai".to_string();
second.endpoint_id = "endpoint-openai".to_string();
second.endpoint_api_format = "openai:responses".to_string();
second.key_id = "key-openai".to_string();
second.key_name = "fallback".to_string();
second.key_api_formats = Some(vec!["openai:responses".to_string()]);
second.key_global_priority_by_format = Some(serde_json::json!({"openai:responses": 2}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let mut codex_provider = sample_provider("provider-codex", None);
codex_provider.provider_type = "codex".to_string();
codex_provider.config = Some(serde_json::json!({
"pool_advanced": {
"skip_exhausted_accounts": true
}
}));
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![codex_provider, sample_provider("provider-openai", None)],
Vec::new(),
vec![
{
let mut key = sample_key("key-codex", "provider-codex", Some(10));
key.auth_type = "oauth".to_string();
key.upstream_metadata = Some(serde_json::json!({
"codex": {
"secondary_used_percent": 100.0
}
}));
key
},
sample_key("key-openai", "provider-openai", Some(10)),
],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"openai:responses",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed");
assert_eq!(selected.len(), 2);
assert!(selected
.iter()
.any(|item| item.provider_id == "provider-codex"));
assert!(selected
.iter()
.any(|item| item.provider_id == "provider-openai"));
assert!(skipped.is_empty());
}
#[tokio::test]
async fn keeps_refresh_failed_oauth_candidate_selectable_before_local_auth_resolution() {
let mut first = sample_row();
first.provider_id = "provider-codex".to_string();
first.provider_name = "codex".to_string();
first.provider_type = "codex".to_string();
first.endpoint_id = "endpoint-codex".to_string();
first.endpoint_api_format = "openai:responses".to_string();
first.key_id = "key-codex".to_string();
first.key_name = "codex-invalid".to_string();
first.key_auth_type = "oauth".to_string();
first.key_api_formats = Some(vec!["openai:responses".to_string()]);
first.key_global_priority_by_format = Some(serde_json::json!({"openai:responses": 1}));
let mut second = sample_row();
second.provider_id = "provider-openai".to_string();
second.provider_name = "openai".to_string();
second.endpoint_id = "endpoint-openai".to_string();
second.endpoint_api_format = "openai:responses".to_string();
second.key_id = "key-openai".to_string();
second.key_name = "fallback".to_string();
second.key_api_formats = Some(vec!["openai:responses".to_string()]);
second.key_global_priority_by_format = Some(serde_json::json!({"openai:responses": 2}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let mut codex_provider = sample_provider("provider-codex", None);
codex_provider.provider_type = "codex".to_string();
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![codex_provider, sample_provider("provider-openai", None)],
Vec::new(),
vec![
{
let mut key = sample_key("key-codex", "provider-codex", Some(10));
key.auth_type = "oauth".to_string();
key.expires_at_unix_secs = Some(1_710_000_200);
key.oauth_invalid_at_unix_secs = Some(1_710_000_000);
key.oauth_invalid_reason = Some(
"[REFRESH_FAILED] Token 续期失败 (401): refresh_token 已被使用并轮换,请重新登录授权"
.to_string(),
);
key
},
sample_key("key-openai", "provider-openai", Some(10)),
],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"openai:responses",
"gpt-4.1",
false,
None,
1_710_000_100,
)
.await
.expect("selection should succeed");
assert_eq!(selected.len(), 2);
assert_eq!(selected[0].provider_id, "provider-codex");
assert_eq!(selected[1].provider_id, "provider-openai");
assert!(skipped.is_empty());
}
#[tokio::test]
async fn skips_refresh_failed_oauth_candidate_after_access_token_expiry() {
let mut row = sample_row();
row.provider_id = "provider-codex".to_string();
row.provider_name = "codex".to_string();
row.provider_type = "codex".to_string();
row.endpoint_id = "endpoint-codex".to_string();
row.endpoint_api_format = "openai:responses".to_string();
row.key_id = "key-codex".to_string();
row.key_name = "codex-refresh-failed-expired".to_string();
row.key_auth_type = "oauth".to_string();
row.key_api_formats = Some(vec!["openai:responses".to_string()]);
row.key_global_priority_by_format = Some(serde_json::json!({"openai:responses": 1}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
row,
]));
let mut provider = sample_provider("provider-codex", None);
provider.provider_type = "codex".to_string();
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![provider],
Vec::new(),
vec![{
let mut key = sample_key("key-codex", "provider-codex", Some(10));
key.auth_type = "oauth".to_string();
key.expires_at_unix_secs = Some(1_710_000_000);
key.oauth_invalid_at_unix_secs = Some(1_710_000_000);
key.oauth_invalid_reason = Some(
"[REFRESH_FAILED] Token 续期失败 (401): refresh_token 已被使用并轮换,请重新登录授权"
.to_string(),
);
key
}],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"openai:responses",
"gpt-4.1",
false,
None,
1_710_000_100,
)
.await
.expect("selection should succeed");
assert!(selected.is_empty());
assert_eq!(skipped.len(), 1);
assert_eq!(skipped[0].candidate.key_id, "key-codex");
assert_eq!(skipped[0].skip_reason, "oauth_invalid");
}
#[tokio::test]
async fn skips_oauth_candidate_with_account_block_even_when_refresh_failed_is_present() {
let mut row = sample_row();
row.provider_id = "provider-codex".to_string();
row.provider_name = "codex".to_string();
row.provider_type = "codex".to_string();
row.endpoint_id = "endpoint-codex".to_string();
row.endpoint_api_format = "openai:responses".to_string();
row.key_id = "key-codex".to_string();
row.key_name = "codex-account-blocked-refresh-failed".to_string();
row.key_auth_type = "oauth".to_string();
row.key_api_formats = Some(vec!["openai:responses".to_string()]);
row.key_global_priority_by_format = Some(serde_json::json!({"openai:responses": 1}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
row,
]));
let mut provider = sample_provider("provider-codex", None);
provider.provider_type = "codex".to_string();
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![provider],
Vec::new(),
vec![{
let mut key = sample_key("key-codex", "provider-codex", Some(10));
key.auth_type = "oauth".to_string();
key.expires_at_unix_secs = Some(1_710_000_200);
key.oauth_invalid_at_unix_secs = Some(1_710_000_000);
key.oauth_invalid_reason = Some(
"[REFRESH_FAILED] Token 续期失败 (401): refresh_token 已被使用并轮换,请重新登录授权\n[ACCOUNT_BLOCK] account has been deactivated"
.to_string(),
);
key
}],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"openai:responses",
"gpt-4.1",
false,
None,
1_710_000_100,
)
.await
.expect("selection should succeed");
assert!(selected.is_empty());
assert_eq!(skipped.len(), 1);
assert_eq!(skipped[0].candidate.key_id, "key-codex");
assert_eq!(skipped[0].skip_reason, "oauth_invalid");
}
#[tokio::test]
async fn keeps_request_failed_oauth_candidate_selectable() {
let mut row = sample_row();
row.provider_id = "provider-codex".to_string();
row.provider_name = "codex".to_string();
row.provider_type = "codex".to_string();
row.endpoint_id = "endpoint-codex".to_string();
row.endpoint_api_format = "openai:responses".to_string();
row.key_id = "key-codex".to_string();
row.key_name = "codex-check-failed".to_string();
row.key_auth_type = "oauth".to_string();
row.key_api_formats = Some(vec!["openai:responses".to_string()]);
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
row,
]));
let mut provider = sample_provider("provider-codex", None);
provider.provider_type = "codex".to_string();
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![provider],
Vec::new(),
vec![{
let mut key = sample_key("key-codex", "provider-codex", Some(10));
key.auth_type = "oauth".to_string();
key.oauth_invalid_at_unix_secs = Some(1_710_000_000);
key.oauth_invalid_reason = Some("[REQUEST_FAILED] 账号状态检查失败".to_string());
key
}],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"openai:responses",
"gpt-4.1",
false,
None,
1_710_000_100,
)
.await
.expect("selection should succeed");
assert_eq!(selected.len(), 1);
assert_eq!(selected[0].provider_id, "provider-codex");
assert!(skipped.is_empty());
}
#[tokio::test]
async fn keeps_codex_candidate_selectable_when_oauth_token_is_expired() {
let mut row = sample_row();
row.provider_id = "provider-codex".to_string();
row.provider_name = "codex".to_string();
row.provider_type = "codex".to_string();
row.endpoint_id = "endpoint-codex".to_string();
row.endpoint_api_format = "openai:responses".to_string();
row.key_id = "key-codex".to_string();
row.key_name = "codex-token-expired".to_string();
row.key_auth_type = "oauth".to_string();
row.key_api_formats = Some(vec!["openai:responses".to_string()]);
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
row,
]));
let mut provider = sample_provider("provider-codex", None);
provider.provider_type = "codex".to_string();
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![provider],
Vec::new(),
vec![{
let mut key = sample_key("key-codex", "provider-codex", Some(10));
key.auth_type = "oauth".to_string();
key.oauth_invalid_at_unix_secs = Some(1_710_000_000);
key.oauth_invalid_reason = Some("Codex Token 无效或已过期".to_string());
key
}],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"openai:responses",
"gpt-4.1",
false,
None,
1_710_000_100,
)
.await
.expect("selection should succeed");
assert_eq!(selected.len(), 1);
assert_eq!(selected[0].provider_id, "provider-codex");
assert!(skipped.is_empty());
}
#[tokio::test]
async fn keeps_refreshable_kiro_candidate_selectable_with_runtime_oauth_invalid_marker() {
let mut row = sample_row();
row.provider_id = "provider-kiro".to_string();
row.provider_name = "kiro".to_string();
row.provider_type = "kiro".to_string();
row.endpoint_id = "endpoint-kiro".to_string();
row.endpoint_api_format = "claude:messages".to_string();
row.key_id = "key-kiro".to_string();
row.key_name = "kiro-refreshable".to_string();
row.key_auth_type = "oauth".to_string();
row.key_api_formats = Some(vec!["claude:messages".to_string()]);
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
row,
]));
let mut provider = sample_provider("provider-kiro", None);
provider.provider_type = "kiro".to_string();
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![provider],
Vec::new(),
vec![{
let mut key = sample_key("key-kiro", "provider-kiro", Some(10));
key.auth_type = "oauth".to_string();
key.encrypted_auth_config = Some("encrypted-refreshable-session".to_string());
key.oauth_invalid_at_unix_secs = Some(1_710_000_000);
key.oauth_invalid_reason = Some("Kiro Token 无效或已过期".to_string());
key
}],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"claude:messages",
"gpt-4.1",
false,
None,
1_710_000_100,
)
.await
.expect("selection should succeed");
assert_eq!(selected.len(), 1);
assert_eq!(selected[0].provider_id, "provider-kiro");
assert!(skipped.is_empty());
}
#[tokio::test]
async fn keeps_refreshable_kiro_candidate_selectable_when_oauth_token_expired() {
let mut row = sample_row();
row.provider_id = "provider-kiro".to_string();
row.provider_name = "kiro".to_string();
row.provider_type = "kiro".to_string();
row.endpoint_id = "endpoint-kiro".to_string();
row.endpoint_api_format = "claude:messages".to_string();
row.key_id = "key-kiro".to_string();
row.key_name = "kiro-expired-refreshable".to_string();
row.key_auth_type = "oauth".to_string();
row.key_api_formats = Some(vec!["claude:messages".to_string()]);
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
row,
]));
let mut provider = sample_provider("provider-kiro", None);
provider.provider_type = "kiro".to_string();
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![provider],
Vec::new(),
vec![{
let mut key = sample_key("key-kiro", "provider-kiro", Some(10));
key.auth_type = "oauth".to_string();
key.encrypted_auth_config = Some("encrypted-refreshable-session".to_string());
key.expires_at_unix_secs = Some(1_710_000_000);
key
}],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"claude:messages",
"gpt-4.1",
false,
None,
1_710_000_100,
)
.await
.expect("selection should succeed");
assert_eq!(selected.len(), 1);
assert_eq!(selected[0].provider_id, "provider-kiro");
assert!(skipped.is_empty());
}
#[tokio::test]
async fn keeps_kiro_candidate_selectable_after_refresh_token_failure_until_access_token_expiry() {
let mut row = sample_row();
row.provider_id = "provider-kiro".to_string();
row.provider_name = "kiro".to_string();
row.provider_type = "kiro".to_string();
row.endpoint_id = "endpoint-kiro".to_string();
row.endpoint_api_format = "claude:messages".to_string();
row.key_id = "key-kiro".to_string();
row.key_name = "kiro-refresh-failed".to_string();
row.key_auth_type = "oauth".to_string();
row.key_api_formats = Some(vec!["claude:messages".to_string()]);
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
row,
]));
let mut provider = sample_provider("provider-kiro", None);
provider.provider_type = "kiro".to_string();
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![provider],
Vec::new(),
vec![{
let mut key = sample_key("key-kiro", "provider-kiro", Some(10));
key.auth_type = "oauth".to_string();
key.encrypted_auth_config = Some("encrypted-refreshable-session".to_string());
key.expires_at_unix_secs = Some(1_710_000_200);
key.oauth_invalid_at_unix_secs = Some(1_710_000_000);
key.oauth_invalid_reason = Some(
"[REFRESH_FAILED] Token 续期失败 (401): refresh_token 无效、已过期或已撤销,请重新登录授权"
.to_string(),
);
key
}],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"claude:messages",
"gpt-4.1",
false,
None,
1_710_000_100,
)
.await
.expect("selection should succeed");
assert_eq!(selected.len(), 1);
assert_eq!(selected[0].provider_id, "provider-kiro");
assert!(skipped.is_empty());
}
#[tokio::test]
async fn skips_kiro_candidate_after_refresh_token_failure_and_access_token_expiry() {
let mut row = sample_row();
row.provider_id = "provider-kiro".to_string();
row.provider_name = "kiro".to_string();
row.provider_type = "kiro".to_string();
row.endpoint_id = "endpoint-kiro".to_string();
row.endpoint_api_format = "claude:messages".to_string();
row.key_id = "key-kiro".to_string();
row.key_name = "kiro-refresh-failed-expired".to_string();
row.key_auth_type = "oauth".to_string();
row.key_api_formats = Some(vec!["claude:messages".to_string()]);
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
row,
]));
let mut provider = sample_provider("provider-kiro", None);
provider.provider_type = "kiro".to_string();
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![provider],
Vec::new(),
vec![{
let mut key = sample_key("key-kiro", "provider-kiro", Some(10));
key.auth_type = "oauth".to_string();
key.encrypted_auth_config = Some("encrypted-refreshable-session".to_string());
key.expires_at_unix_secs = Some(1_710_000_000);
key.oauth_invalid_at_unix_secs = Some(1_710_000_000);
key.oauth_invalid_reason = Some(
"[REFRESH_FAILED] Token 续期失败 (401): refresh_token 无效、已过期或已撤销,请重新登录授权"
.to_string(),
);
key
}],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"claude:messages",
"gpt-4.1",
false,
None,
1_710_000_100,
)
.await
.expect("selection should succeed");
assert!(selected.is_empty());
assert_eq!(skipped.len(), 1);
assert_eq!(skipped[0].candidate.key_id, "key-kiro");
assert_eq!(skipped[0].skip_reason, "oauth_invalid");
}
#[tokio::test]
async fn skips_refreshable_kiro_candidate_when_oauth_marker_is_account_block() {
let mut row = sample_row();
row.provider_id = "provider-kiro".to_string();
row.provider_name = "kiro".to_string();
row.provider_type = "kiro".to_string();
row.endpoint_id = "endpoint-kiro".to_string();
row.endpoint_api_format = "claude:messages".to_string();
row.key_id = "key-kiro".to_string();
row.key_name = "kiro-account-blocked".to_string();
row.key_auth_type = "oauth".to_string();
row.key_api_formats = Some(vec!["claude:messages".to_string()]);
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
row,
]));
let mut provider = sample_provider("provider-kiro", None);
provider.provider_type = "kiro".to_string();
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![provider],
Vec::new(),
vec![{
let mut key = sample_key("key-kiro", "provider-kiro", Some(10));
key.auth_type = "oauth".to_string();
key.encrypted_auth_config = Some("encrypted-refreshable-session".to_string());
key.oauth_invalid_at_unix_secs = Some(1_710_000_000);
key.oauth_invalid_reason = Some("账户已封禁: account banned".to_string());
key
}],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"claude:messages",
"gpt-4.1",
false,
None,
1_710_000_100,
)
.await
.expect("selection should succeed");
assert!(selected.is_empty());
assert_eq!(skipped.len(), 1);
assert_eq!(skipped[0].candidate.provider_id, "provider-kiro");
assert_eq!(skipped[0].skip_reason, "oauth_invalid");
}
#[tokio::test]
async fn keeps_codex_candidate_selectable_when_exhausted_account_flag_is_disabled() {
let mut first = sample_row();
first.provider_id = "provider-codex".to_string();
first.provider_name = "codex".to_string();
first.provider_type = "codex".to_string();
first.endpoint_id = "endpoint-codex".to_string();
first.endpoint_api_format = "openai:responses".to_string();
first.key_id = "key-codex".to_string();
first.key_name = "codex-exhausted".to_string();
first.key_auth_type = "oauth".to_string();
first.key_api_formats = Some(vec!["openai:responses".to_string()]);
first.key_global_priority_by_format = Some(serde_json::json!({"openai:responses": 1}));
let mut second = sample_row();
second.provider_id = "provider-openai".to_string();
second.provider_name = "openai".to_string();
second.endpoint_id = "endpoint-openai".to_string();
second.endpoint_api_format = "openai:responses".to_string();
second.key_id = "key-openai".to_string();
second.key_name = "fallback".to_string();
second.key_api_formats = Some(vec!["openai:responses".to_string()]);
second.key_global_priority_by_format = Some(serde_json::json!({"openai:responses": 2}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let mut codex_provider = sample_provider("provider-codex", None);
codex_provider.provider_type = "codex".to_string();
codex_provider.config = Some(serde_json::json!({
"pool_advanced": {}
}));
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![codex_provider, sample_provider("provider-openai", None)],
Vec::new(),
vec![
{
let mut key = sample_key("key-codex", "provider-codex", Some(10));
key.auth_type = "oauth".to_string();
key.upstream_metadata = Some(serde_json::json!({
"codex": {
"secondary_used_percent": 100.0
}
}));
key
},
sample_key("key-openai", "provider-openai", Some(10)),
],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"openai:responses",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed");
assert_eq!(selected.len(), 2);
assert!(selected
.iter()
.any(|candidate| candidate.provider_id == "provider-codex"));
assert!(skipped.is_empty());
}
#[tokio::test]
async fn skips_kiro_candidate_when_account_quota_is_exhausted_and_pool_flag_enabled() {
let mut first = sample_row();
first.provider_id = "provider-kiro".to_string();
first.provider_name = "kiro".to_string();
first.provider_type = "kiro".to_string();
first.endpoint_id = "endpoint-kiro".to_string();
first.endpoint_api_format = "claude:messages".to_string();
first.key_id = "key-kiro".to_string();
first.key_name = "kiro-exhausted".to_string();
first.key_auth_type = "oauth".to_string();
first.key_api_formats = Some(vec!["claude:messages".to_string()]);
first.key_global_priority_by_format = Some(serde_json::json!({"claude:messages": 1}));
let mut second = sample_row();
second.provider_id = "provider-openai".to_string();
second.provider_name = "openai".to_string();
second.endpoint_id = "endpoint-openai".to_string();
second.endpoint_api_format = "claude:messages".to_string();
second.key_id = "key-openai".to_string();
second.key_name = "fallback".to_string();
second.key_api_formats = Some(vec!["claude:messages".to_string()]);
second.key_global_priority_by_format = Some(serde_json::json!({"claude:messages": 2}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let mut kiro_provider = sample_provider("provider-kiro", None);
kiro_provider.provider_type = "kiro".to_string();
kiro_provider.config = Some(serde_json::json!({
"pool_advanced": {
"skip_exhausted_accounts": true
}
}));
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![kiro_provider, sample_provider("provider-openai", None)],
Vec::new(),
vec![
{
let mut key = sample_key("key-kiro", "provider-kiro", Some(10));
key.auth_type = "oauth".to_string();
key.upstream_metadata = Some(serde_json::json!({
"kiro": {
"remaining": 0
}
}));
key
},
sample_key("key-openai", "provider-openai", Some(10)),
],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let (selected, skipped) = collect_selectable_candidates_with_skip_reasons(
state.data.as_ref(),
&state,
"claude:messages",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed");
assert_eq!(selected.len(), 2);
assert!(selected
.iter()
.any(|item| item.provider_id == "provider-kiro"));
assert!(selected
.iter()
.any(|item| item.provider_id == "provider-openai"));
assert!(skipped.is_empty());
}
#[tokio::test]
async fn same_priority_candidates_prefer_healthier_provider_key_before_id_order() {
let mut first = sample_row();
first.provider_id = "provider-a".to_string();
first.provider_name = "openai-a".to_string();
first.endpoint_id = "endpoint-a".to_string();
first.key_id = "key-a".to_string();
first.key_name = "alpha".to_string();
first.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 1}));
let mut second = sample_row();
second.provider_id = "provider-b".to_string();
second.provider_name = "openai-b".to_string();
second.endpoint_id = "endpoint-b".to_string();
second.key_id = "key-b".to_string();
second.key_name = "beta".to_string();
second.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 1}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![
sample_provider("provider-a", None),
sample_provider("provider-b", None),
],
Vec::new(),
vec![
sample_key("key-a", "provider-a", Some(10)).with_health_fields(
Some(serde_json::json!({"openai:chat": {"health_score": 0.30}})),
None,
),
sample_key("key-b", "provider-b", Some(10)).with_health_fields(
Some(serde_json::json!({"openai:chat": {"health_score": 0.95}})),
None,
),
],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "provider-b");
assert_eq!(selected.key_id, "key-b");
}
#[tokio::test]
async fn same_priority_candidates_use_aggregate_health_score_when_api_format_specific_health_is_missing(
) {
let mut first = sample_row();
first.provider_id = "provider-a".to_string();
first.provider_name = "openai-a".to_string();
first.endpoint_id = "endpoint-a".to_string();
first.key_id = "key-a".to_string();
first.key_name = "alpha".to_string();
first.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 1}));
let mut second = sample_row();
second.provider_id = "provider-b".to_string();
second.provider_name = "openai-b".to_string();
second.endpoint_id = "endpoint-b".to_string();
second.key_id = "key-b".to_string();
second.key_name = "beta".to_string();
second.key_global_priority_by_format = Some(serde_json::json!({"openai:chat": 1}));
let candidates = Arc::new(InMemoryMinimalCandidateSelectionReadRepository::seed(vec![
first, second,
]));
let provider_catalog = Arc::new(InMemoryProviderCatalogReadRepository::seed(
vec![
sample_provider("provider-a", None),
sample_provider("provider-b", None),
],
Vec::new(),
vec![
sample_key("key-a", "provider-a", Some(10)).with_health_fields(
Some(serde_json::json!({
"openai:responses": {"health_score": 0.40},
"claude:messages": {"health_score": 0.55}
})),
None,
),
sample_key("key-b", "provider-b", Some(10)).with_health_fields(
Some(serde_json::json!({
"openai:responses": {"health_score": 0.90},
"claude:messages": {"health_score": 0.92}
})),
None,
),
],
));
let quotas = Arc::new(InMemoryProviderQuotaRepository::seed(vec![]));
let request_candidates = Arc::new(InMemoryRequestCandidateRepository::seed(vec![]));
let state = AppState::new()
.expect("state should build")
.with_data_state_for_tests(
GatewayDataState::with_candidate_selection_provider_catalog_quota_and_request_candidates_for_tests(
candidates,
provider_catalog,
quotas,
request_candidates,
),
);
let selected = select_candidate(
state.data.as_ref(),
&state,
"openai:chat",
"gpt-4.1",
false,
None,
100,
)
.await
.expect("selection should succeed")
.expect("candidate should exist");
assert_eq!(selected.provider_id, "provider-b");
assert_eq!(selected.key_id, "key-b");
}