Files
msime-windows/server/tests
小莫andfanlusky ab0c14e1bb fix(server): 兼容社区皮肤的共享基底 (#1003)
* fix(server): 兼容社区皮肤的共享基底

* fix(server): 共享基底的选中与悬停色跟随清单覆盖后的配色

- selected / hover 按上游 resolve 规则从覆盖后的 accent / text 派生,非十六进制写法退回基底原色
- system 并入共享基底表,校验与适配只用 FindSharedBase 一处判定
- 皮肤样例校验、schema 文档与 niya-demo 注释同步接受共享基底

---------

Co-authored-by: fanlusky <1730976608@qq.com>
2026-10-16 20:56:06 +08:00
..
2026-06-20 22:11:00 +08:00
2025-04-20 17:44:33 +08:00
2025-04-21 18:32:45 +08:00

Tests

Run the candidate DOM test from the repository root:

node --test server/tests/test-candidate-dom-render.cjs

The test runs the JavaScript renderer from windows_webview2_candidate.cpp. It checks text, order, badges, translations, and fixed candidate color.

This project now includes a lightweight regression test target wired into the main CMake build.

What It Covers

Current tests focus on high-value IME behaviors that are easy to accidentally break during refactors:

  • shuangpin scheme request construction
  • quanpin scheme request construction
  • case-preserving shuangpin segmentation
  • full-helpcode detection
  • engine + shuangpin continuation behavior
  • cloud suggestion trigger timing for shuangpin

The goal is not to fully simulate the whole IME UI pipeline yet. The goal is to protect the core input rules and session behavior.

Build and run

Run these commands from the MSIME-Windows repository root after preparing vcpkg and Boost with python server/scripts/prepare_env.py:

python scripts/product_lock.py fetch-dictionaries --staging-root .
if ($LASTEXITCODE -ne 0) { throw 'Dictionary verification failed' }
$env:LOCALAPPDATA = Join-Path $PWD 'build/test-data/user-local'
$env:METASEQUOIA_IME_DATA_DIR = Join-Path $env:LOCALAPPDATA 'metasequoiaime'
New-Item -ItemType Directory -Force $env:METASEQUOIA_IME_DATA_DIR | Out-Null
Copy-Item MetasequoiaImeDict/out/* $env:METASEQUOIA_IME_DATA_DIR -Force
Copy-Item engine/helpcode/helpcodes $env:METASEQUOIA_IME_DATA_DIR -Recurse -Force
Copy-Item server/assets/tables/* $env:METASEQUOIA_IME_DATA_DIR -Force
Copy-Item server/assets/config/config.toml $env:METASEQUOIA_IME_DATA_DIR -Force
.\server\tests\scripts\llaunch.ps1 -Configuration Release

Use a dedicated PowerShell terminal: these environment variables isolate both Windows helpers and the shared Engine from the installed user's data for the rest of that session. The scripts run CTest; they do not launch the interactive Server, install or register the input method. CI additionally runs the native Win32/x64 pipe probe after building the full Server.

Tests belong to the Server CMake project, which provides the Engine, GUI and third-party targets. server/tests/CMakeLists.txt is an add_subdirectory input, not an independent project. The obsolete test presets have been removed; an old locally generated server/tests/CMakePresets.json is no longer used.

Once test data is prepared, the convenience scripts work from any directory:

.\server\tests\scripts\llaunch.ps1 -Configuration Release  # build, then CTest
.\server\tests\scripts\lrun.ps1 -Configuration Release     # CTest only

Omitting -Configuration selects Debug in server/build; Release uses server/build-release. Both compile MetasequoiaImeServerTests and test_webview_contract in the parent build tree. Configuration, compilation, test failures and an empty CTest registry return failure rather than launching a stale executable or reporting success.

The equivalent direct CTest command from the repository root is:

ctest --test-dir server/build-release -C Release --output-on-failure --no-tests=error

Test Layout

  • tests/src/main.cpp
    • tiny custom test runner
  • tests/includes/test_framework.h
    • lightweight assertion helpers
  • tests/src/test_shuangpin_scheme.cpp
    • shuangpin scheme unit tests
  • tests/src/test_quanpin_scheme.cpp
    • quanpin scheme unit tests
  • tests/src/test_shuangpin_query.cpp
    • query/helper function tests
  • tests/src/test_engine_shuangpin_session.cpp
    • session-level behavior tests

Model path benchmark

Build the Server test target in Release mode. Run the benchmark from a Windows terminal:

cmake --build server/build-release --config Release --target MetasequoiaImeServerTests
server/build-release/bin/Release/MetasequoiaImeServerTests.exe --benchmark-model-path 10000 > model-path.csv

The executable creates small model files in a temporary data directory. It restores METASEQUOIA_IME_DATA_DIR when it exits. It does not load model contents. Each row reports P50, P95, P99, and worst latency in nanoseconds.

hot repeats one path. rotating cycles through 128 paths. The rotating set increases metadata lookup pressure. It does not guarantee an operating system cache miss. first-touch checks each missing path once without benchmark warmup. The operating system can still cache shared parent directories. contended adds a thread that creates and removes files in the model directory. This tests directory activity on the same volume. It does not simulate all disk workloads.

The benchmark calls the production path resolvers used by ApplyConfiguration(). It measures their cost per call. It does not measure full handle_key() latency. The benchmark sets METASEQUOIA_IME_DATA_DIR to an isolated temporary directory. Each resolver call reads this override and builds a path. Normal installations do not set this override. Their directory lookup takes a different path. The disabled-empty-id row returns before data_directory() runs. The data-directory-only row measures data_directory() with the temporary override. Median differences give only a rough scale for the remaining resolver work. Do not subtract percentiles from separate rows to assign costs to path joining or file checks. Use the rows to inspect latency distributions and tail latency across path access patterns. They do not establish the same cost or performance loss in production. Run each case more than once on the target Windows machine. Record the storage type and active disk workload with the CSV results.

When you change input behavior, add a regression test if the change affects:

  • input segmentation
  • space/enter/backspace behavior
  • helpcode handling
  • continuation after candidate selection
  • create-word flow
  • cloud suggestion timing

The best tests in this project are the ones that capture a concrete input example that previously broke.