T05 — ride_accumulator.dart with the cross-batch anchor intact (12 tests). T06 — ride_export.dart, GPX 1.1 and GeoJSON (15 tests), parsed with real parsers rather than substring matching. T07 — parity harness extended to cover export byte output. GPX and GeoJSON are byte-identical across Kotlin and Dart: same length, same FNV hash, including the escaped hostile name and all %.7f/%.1f formatting. Two harness bugs found and fixed while building it. String.hashCode is not comparable across Java and Dart, so text comparison used FNV-1a instead. And a missing jar let a failed Kotlin compile pass as a green run -- run.sh now checks for the artifact and exits non-zero, the same failure mode as the v2 sweep that hid a compile error behind /dev/null. Phase 1 done: 79 tests passing, analyze clean. Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
205 lines
6.3 KiB
Dart
205 lines
6.3 KiB
Dart
import 'package:flutter_test/flutter_test.dart';
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import 'package:rippr/src/domain/models.dart';
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import 'package:rippr/src/recording/ride_accumulator.dart';
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import 'package:rippr/src/stats/ride_statistics.dart';
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/// Ported from `com.rippr.AccumulatorTest`.
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///
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/// As in `ride_statistics_test.dart`, the one RNG-driven case uses the shared LCG rather
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/// than either language's `Random`, so the fixture is identical across implementations.
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class _Lcg {
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_Lcg(this._s);
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int _s;
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double nextDouble() {
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_s = _s * 6364136223846793005 + 1442695040888963407;
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final bits = (_s >>> 11) & ((1 << 53) - 1);
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return bits / (1 << 53);
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}
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}
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void main() {
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var nextId = 1;
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TrackPoint point({
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int segmentId = 1,
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required int ts,
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double lat = 51.0,
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double speed = 40.0,
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double alt = 1000.0,
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}) =>
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TrackPoint(
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id: nextId++,
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tripId: 1,
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segmentId: segmentId,
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timestamp: ts,
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latitude: lat,
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longitude: -114.0,
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speedKmh: speed,
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altitudeM: alt,
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);
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List<TrackPoint> run(int n,
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{int segmentId = 1, int startTs = 0, double startLat = 51.0}) =>
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List.generate(
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n,
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(i) => point(
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segmentId: segmentId,
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ts: startTs + i * 1000,
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lat: startLat + i * 0.0001),
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);
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setUp(() => nextId = 1);
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group('the cross-batch anchor — the subtle bug this class exists to avoid', () {
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test('distance across many small batches matches one big batch', () {
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final points = run(100);
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final batched = Accumulator();
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for (var i = 0; i < points.length; i += 7) {
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batched.fold(points.sublist(i, (i + 7).clamp(0, points.length)));
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}
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final single = Accumulator()..fold(points);
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expect(batched.distanceM, closeTo(single.distanceM, 1e-6),
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reason:
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'losing the anchor between flushes silently under-reports distance');
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});
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test('accumulated distance agrees with the batch statistics', () {
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final points = run(100);
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final acc = Accumulator();
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for (var i = 0; i < points.length; i += 25) {
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acc.fold(points.sublist(i, (i + 25).clamp(0, points.length)));
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}
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final summary = computeSummary(points);
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expect(acc.distanceM, closeTo(summary.distanceM, 0.5));
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expect(acc.movingMillis, summary.movingMillis);
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expect(acc.maxSpeedKmh, closeTo(summary.maxSpeedKmh, 1e-6));
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expect(acc.pointCount, summary.pointCount);
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});
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});
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group('segment boundaries', () {
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test('distance does not span a segment boundary', () {
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// Second segment starts a full degree of latitude away — a trailered gap.
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final acc = Accumulator();
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acc.fold(run(5, segmentId: 1, startLat: 51.0));
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acc.fold(run(5, segmentId: 2, startTs: 600000, startLat: 52.0));
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expect(acc.distanceM, lessThan(200.0),
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reason: 'the ~111 km gap leaked into distance: ${acc.distanceM} m');
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});
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test('onSegmentChanged clears the anchor even within one batch stream', () {
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final acc = Accumulator();
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acc.fold(run(5, segmentId: 1, startLat: 51.0));
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acc.onSegmentChanged();
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acc.fold(run(5, segmentId: 1, startTs: 600000, startLat: 52.0));
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expect(acc.distanceM, lessThan(200.0),
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reason: 'anchor was not cleared: ${acc.distanceM} m');
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});
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});
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group('moving time', () {
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test('moving time ignores samples below the speed noise floor', () {
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final acc = Accumulator();
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acc.fold(List.generate(30, (i) => point(ts: i * 1000, speed: 40.0)));
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acc.fold(
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List.generate(30, (i) => point(ts: (30 + i) * 1000, speed: 0.0)));
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expect(acc.movingMillis, 29000);
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});
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test('a long gap between fixes does not inject phantom moving time', () {
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final acc = Accumulator();
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acc.fold([
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point(ts: 0, speed: 90.0),
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point(ts: 120000, lat: 51.001, speed: 90.0),
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]);
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expect(acc.movingMillis, 0);
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});
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});
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group('elevation', () {
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test('elevation gain is visible before the climb ends', () {
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// A steady ascent that never turns back down. Reading the committed total alone
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// would report zero, so the live figure has to include the pending run.
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final acc = Accumulator();
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acc.fold(List.generate(101, (i) => point(ts: i * 1000, alt: 1000.0 + i)));
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expect(acc.elevationGain(), closeTo(100.0, 6.0));
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});
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test('a parked bike does not accumulate phantom climbing', () {
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final rng = _Lcg(7);
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final acc = Accumulator();
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acc.fold(List.generate(
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600,
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(i) => point(
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ts: i * 1000,
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speed: 0.0,
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alt: 1000.0 + (rng.nextDouble() * 16.0 - 8.0)),
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));
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expect(acc.elevationGain(), lessThan(60.0),
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reason: 'phantom climbing: ${acc.elevationGain()} m');
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});
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});
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group('restore', () {
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test('restore continues from persisted totals rather than starting over', () {
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final acc = Accumulator();
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acc.restore(
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distanceM: 5000.0,
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movingMillis: 300000,
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maxSpeedKmh: 95.0,
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elevationGainM: 120.0,
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pointCount: 600,
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lastPoint: null,
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);
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acc.fold(run(11));
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expect(acc.distanceM, greaterThan(5000.0), reason: 'distance went backwards');
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expect(acc.distanceM, closeTo(5111.2, 5.0));
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expect(acc.pointCount, 611);
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expect(acc.maxSpeedKmh, closeTo(95.0, 1e-6));
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expect(acc.elevationGain(), greaterThanOrEqualTo(120.0),
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reason: 'persisted elevation was lost');
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});
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test('restore keeps a higher persisted max speed', () {
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final acc = Accumulator();
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acc.restore(
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distanceM: 0.0,
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movingMillis: 0,
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maxSpeedKmh: 150.0,
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elevationGainM: 0.0,
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pointCount: 0,
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lastPoint: null,
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);
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acc.fold(run(5));
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expect(acc.maxSpeedKmh, closeTo(150.0, 1e-6));
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});
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});
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test('reset clears everything', () {
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final acc = Accumulator();
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acc.fold(run(20));
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acc.reset();
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expect(acc.distanceM, closeTo(0.0, 1e-9));
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expect(acc.movingMillis, 0);
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expect(acc.maxSpeedKmh, closeTo(0.0, 1e-9));
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expect(acc.pointCount, 0);
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expect(acc.elevationGain(), closeTo(0.0, 1e-9));
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});
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test('folding an empty batch is a no-op', () {
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final acc = Accumulator();
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acc.fold(const []);
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expect(acc.pointCount, 0);
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expect(acc.distanceM, closeTo(0.0, 1e-9));
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});
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}
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