Files
whetstone_DSL/editor/tests/step583_test.cpp

129 lines
4.8 KiB
C++

// Step 583: Sprint 32 Integration + Summary (8 tests)
#include "Sprint32IntegrationSummary.h"
#include <iostream>
static int passed = 0, failed = 0;
#define TEST(name) { std::cout << " " << #name << "... "; }
#define PASS() { std::cout << "PASS\n"; ++passed; }
#define FAIL(msg) { std::cout << "FAIL: " << msg << "\n"; ++failed; }
#define CHECK(cond, msg) if (!(cond)) { FAIL(msg); return; } else {}
static bool hasNote(const Sprint32IntegrationResult& r, const std::string& note) {
for (const auto& n : r.notes) if (n == note) return true;
return false;
}
static Sprint32Signals allPass() {
Sprint32Signals s;
s.markdownSpecParser = true;
s.requirementNormalization = true;
s.scopeMilestoneDecomposer = true;
s.architectReviewSurface = true;
s.phase32aIntegration = true;
s.taskitemGeneratorV2 = true;
s.confidenceAmbiguityAnnotation = true;
s.acceptanceCriteriaBinding = true;
s.intakeQueueSimulationHarness = true;
return s;
}
void test_all_signals_pass_sprint() {
TEST(all_signals_pass_sprint);
auto r = Sprint32IntegrationSummary::summarize(allPass());
CHECK(r.phase32aPass, "phase32a should pass");
CHECK(r.phase32bPass, "phase32b should pass");
CHECK(r.sprint32Pass, "sprint32 should pass");
PASS();
}
void test_phase32a_failure_blocks_sprint() {
TEST(phase32a_failure_blocks_sprint);
auto s = allPass();
s.architectReviewSurface = false;
auto r = Sprint32IntegrationSummary::summarize(s);
CHECK(!r.phase32aPass, "phase32a should fail");
CHECK(!r.sprint32Pass, "sprint32 should fail");
CHECK(hasNote(r, "fail:step577_architect_review_surface"), "step577 failure note expected");
PASS();
}
void test_phase32b_failure_blocks_sprint() {
TEST(phase32b_failure_blocks_sprint);
auto s = allPass();
s.acceptanceCriteriaBinding = false;
auto r = Sprint32IntegrationSummary::summarize(s);
CHECK(!r.phase32bPass, "phase32b should fail");
CHECK(!r.sprint32Pass, "sprint32 should fail");
CHECK(hasNote(r, "fail:step581_acceptance_criteria_binding"), "step581 failure note expected");
PASS();
}
void test_success_notes_emitted_on_full_pass() {
TEST(success_notes_emitted_on_full_pass);
auto r = Sprint32IntegrationSummary::summarize(allPass());
CHECK(hasNote(r, "sprint32:architect_intake_pipeline_ready"), "success note missing");
CHECK(hasNote(r, "sprint32:taskitem_queue_quality_signals_ready"), "success note missing");
CHECK(hasNote(r, "sprint32:markdown_to_constrained_execution_stable"), "success note missing");
PASS();
}
void test_blocked_phase_notes_emitted_on_failure() {
TEST(blocked_phase_notes_emitted_on_failure);
auto s = allPass();
s.markdownSpecParser = false;
s.taskitemGeneratorV2 = false;
auto r = Sprint32IntegrationSummary::summarize(s);
CHECK(hasNote(r, "phase32a:blocked"), "phase32a blocked note expected");
CHECK(hasNote(r, "phase32b:blocked"), "phase32b blocked note expected");
PASS();
}
void test_multiple_failure_notes_aggregate() {
TEST(multiple_failure_notes_aggregate);
auto s = allPass();
s.requirementNormalization = false;
s.phase32aIntegration = false;
s.intakeQueueSimulationHarness = false;
auto r = Sprint32IntegrationSummary::summarize(s);
CHECK(hasNote(r, "fail:step575_requirement_normalization"), "step575 failure note missing");
CHECK(hasNote(r, "fail:step578_phase32a_integration"), "step578 failure note missing");
CHECK(hasNote(r, "fail:step582_intake_queue_simulation_harness"), "step582 failure note missing");
PASS();
}
void test_all_false_signals_fail_all_phases() {
TEST(all_false_signals_fail_all_phases);
Sprint32Signals s;
auto r = Sprint32IntegrationSummary::summarize(s);
CHECK(!r.phase32aPass && !r.phase32bPass && !r.sprint32Pass, "all phases should fail");
PASS();
}
void test_single_phase32b_failure_keeps_phase32a_passed() {
TEST(single_phase32b_failure_keeps_phase32a_passed);
auto s = allPass();
s.confidenceAmbiguityAnnotation = false;
auto r = Sprint32IntegrationSummary::summarize(s);
CHECK(r.phase32aPass, "phase32a should remain pass");
CHECK(!r.phase32bPass, "phase32b should fail");
PASS();
}
int main() {
std::cout << "Step 583: Sprint 32 Integration + Summary\n";
test_all_signals_pass_sprint(); // 1
test_phase32a_failure_blocks_sprint(); // 2
test_phase32b_failure_blocks_sprint(); // 3
test_success_notes_emitted_on_full_pass(); // 4
test_blocked_phase_notes_emitted_on_failure(); // 5
test_multiple_failure_notes_aggregate(); // 6
test_all_false_signals_fail_all_phases(); // 7
test_single_phase32b_failure_keeps_phase32a_passed();// 8
std::cout << "\nResults: " << passed << "/" << (passed + failed) << " passed\n";
return failed == 0 ? 0 : 1;
}