`8942287` renamed `ProxyMode::System` to `ProxyMode::Default`, changing the
persisted wire value from `"system"` to `"default"`. No migration rewrites
the existing `service_settings` row and `ProxyMode` has no alias, so any
install that ever saved proxy settings on an earlier build now holds a row
this build cannot deserialize:
unknown variant `system`, expected `default` or `custom`
`proxy_settings_secret` turned that into a hard error, and it is the first
statement of every outbound client factory, so on upgrade the failure hits
model calls, plugin installs, search, and the Cursor upstream proxy alike.
It is also unrecoverable from the UI. `proxy_settings` reads the same row,
so the settings page cannot render the proxy card, and `set_proxy_settings`
reads the existing row before it writes, so the user cannot overwrite the
row that broke them. Only editing SQLite by hand clears it.
Read the row through a fallback that logs and returns the default instead.
The affected rows are exactly the ones whose mode meant "no outbound proxy",
which is what the default already is, so nothing is silently changed for
them; a genuinely corrupt row costs the user a re-entered address instead of
a dead install.
Deliberately not `#[serde(alias = "system")]`: `8942287` added a test
asserting that value no longer parses, and this keeps that true while making
the persisted row survivable.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
- Updated the default proxy mode in `api.ts`, `ProxySettingsCard.tsx`, and `SettingsPage.tsx` to "default".
- Adjusted related translations in `catalog.json`, `en-US.json`, and `zh-CN.json`.
- Modified the `ProxyMode` enum in `settings.rs` to reflect the change from "system" to "default".
- Enhanced proxy handling in the server code to support the new default mode.
- output.rs: the read_lints test helper (#398) builds ToolCall without
the argument_error field added in d83e14a, so the lib-test target
does not compile
- connect_wire.rs: cursor::router takes NetworkClients since 2dad593
- runtime.rs: clippy::nonminimal_bool from 5cdf642
- update/mod.rs: clippy::needless_return in the Windows arm, ddaa61c
A provider that reuses a tool call id across two rounds of one run
wedges the run permanently. `ToolDispatcher::start_batch` skips any call
whose id is in `ToolBatchState::completed`, so the second call is never
dispatched and never produces a `ToolCompletion`, while
`tool_round::execute` blocks waiting for `calls.len()` results with no
timeout on that path. The client sees the tool call appear and then
nothing: no completion, no further output, no end-stream frame.
The `completed` set is built once per run and never cleared, so it is
run-scoped. A tool call id is only unique within a round, which the
schema already states as `UNIQUE (round_id, call_id)`; the sibling
runtime completed-map is likewise already cleared per round at
output.rs:615.
Clear `completed` when `ExecuteToolRound` begins a new round, tracked
independently of `active_round` so it does not depend on the order in
which ToolRoundStarted and ExecuteToolRound are observed. Replaying a
round still skips the calls that round already committed.
The practical trigger is openai_chat.rs:196, which synthesizes
`call-{index}` from a per-stream index when a provider omits tool call
ids, so `call-0` recurs on every model call. That file is left alone
here.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
- Modified the content security policy in `tauri.conf.json` to include `https:` in the `img-src` directive, enhancing security by allowing images from secure sources.
- Changed the `ADS_ENDPOINT` from a local server URL to the production URL for ads.
- Commented out the local server URL for clarity and future reference.
- Added `app_version` field to `ControlService` and updated its initialization to include the app version.
- Modified the `ADS_ENDPOINT` to point to a local server for development purposes.
- Refactored conversation command and output handling to utilize a new `RunFinish` enum for better state management.
- Enhanced the conversation runtime to handle queued user messages after a turn has ended, ensuring smooth transitions between turns.
- Added tests to validate the new behavior of queued messages and transport handling.
- Updated the `append` function to include a flag for replacing closing requests, improving request handling.
- Refactored the `run_sse_handler` and `bidi_handler` functions to utilize a new tracing mechanism, enhancing observability.
- Introduced a new `trace_outcome` function to standardize tracing outcomes for requests.
- Removed the `CursorTraceRecorder` in favor of a new `CursorTraceService` for better performance and non-blocking behavior.
- Added tests to validate the new tracing functionality and ensure correct behavior during request processing.
- Introduced a new module for managing process resource limits, specifically for raising the open file limit on Unix systems.
- Added a `NetworkClients` struct to handle reusable outbound HTTP clients, improving network request management.
- Updated various components, including `ControlService` and `CursorProxy`, to utilize the new network client structure for better client handling.
- Enhanced the API router to accept network clients, ensuring consistent client usage across different services.
- Added tests to validate the integration of network clients and resource limits functionality.
- Introduced `UsageSnapshot` event to track token usage during conversation runs.
- Updated `RunEngine` to emit usage snapshots, providing better visibility into token consumption.
- Refactored compaction logic to utilize a new `compaction_estimate` function for improved token budget management.
- Added tests to validate timeout constants for blob synchronization and ensure correct behavior of usage tracking during compaction.
- Added a new test to validate the projection of reasoning response items to valid input items in the Codex API.
- Introduced `CallRecorder` to track network requests and responses during plugin interactions.
- Updated the `PluginRegistry` and `PluginWorker` to support call recording, ensuring that reasoning items are correctly processed and recorded.
- Refactored the `responses_input` function to handle reasoning items more effectively, improving the overall response handling logic.
- Added tracking for interaction events in the `Output` struct, including `summary_started` and `token_delta`.
- Updated the `run` function to push relevant interaction events to the `interaction_events` vector.
- Enhanced the automatic compaction test to verify the immediate reset of cursor usage and the correct logging of interaction events.
- Introduced `ContextUsageAnchor` struct to track context input tokens and message count for conversations.
- Updated token estimation functions to utilize the context usage anchor, enhancing accuracy in estimating tokens for projected messages.
- Refactored compaction logic to incorporate context usage anchor, allowing for more efficient management of token budgets during model runs.
- Added tests to validate the behavior of the context usage anchor across different scenarios, including model switching and message additions.
- Updated the `merge_usage` function to include `total_tokens` in the usage merging process.
- Implemented logic to calculate `total_tokens` based on the sum of `context_input_tokens` and `output_tokens`.
- Added a new test to verify that streamed usage correctly includes cached input in the total token count.
- Removed the `retry_count` field from `ProviderConfig` as it is no longer needed.
- Introduced `argument_error` field in `ToolCall` to capture errors related to tool arguments.
- Updated various components to handle argument errors more gracefully, including in the `ToolDispatcher` and `ConversationOutput`.
- Enhanced tests to validate the new error handling and ensure proper functionality of tool calls.
- Added `estimate_context_tokens` function to calculate provider-visible context size based on prompt specifications and projected messages.
- Updated `CheckpointBuilder` to record estimated context tokens during message processing.
- Refactored compaction logic to utilize the new token estimation, ensuring proper context management during model runs.
- Introduced tests to validate context estimation and compaction behavior under various scenarios.