#include #include "fgc/ChannelHistory.h" #include "fgc/ChannelTopics.h" #include using namespace fgc; TEST_CASE("ChannelHistory counts each delivery outcome separately") { ChannelHistory h; h.record(true, Delivery::Ok, "t/a", "1"); h.record(true, Delivery::Ok, "t/a", "2"); h.record(true, Delivery::Dropped, "t/a", "3"); h.record(true, Delivery::Failed, "t/a", "4"); h.record(false, Delivery::Ok, "t/b", "in"); ChannelStats s = h.stats(); CHECK(s.published_ok == 2); CHECK(s.published_dropped == 1); // the silent-drop path: the number that matters CHECK(s.published_failed == 1); CHECK(s.received == 1); // inbound never touches the publish counters } TEST_CASE("ChannelHistory returns messages oldest first and keeps their fields") { ChannelHistory h; h.record(true, Delivery::Dropped, "t/first", "a"); h.record(false, Delivery::Ok, "t/second", "b"); auto r = h.recent(); REQUIRE(r.size() == 2); CHECK(r[0].topic == "t/first"); CHECK(r[0].outbound); CHECK(r[0].delivery == Delivery::Dropped); CHECK(r[0].payload == "a"); CHECK(r[1].topic == "t/second"); CHECK_FALSE(r[1].outbound); CHECK(r[1].timestamp_ms > 0); } TEST_CASE("ChannelHistory evicts the oldest beyond its capacity") { ChannelHistory h; const int n = static_cast(ChannelHistory::kCapacity) + 10; for (int i = 0; i < n; ++i) h.record(true, Delivery::Ok, "t", std::to_string(i)); auto r = h.recent(); REQUIRE(r.size() == ChannelHistory::kCapacity); CHECK(r.front().payload == std::to_string(n - static_cast(ChannelHistory::kCapacity))); CHECK(r.back().payload == std::to_string(n - 1)); // Counters are cumulative; they must not be bounded by the ring. CHECK(h.stats().published_ok == n); } TEST_CASE("ChannelHistory tracks connects, losses and the last status sent") { ChannelHistory h; CHECK(h.stats().connects == 0); CHECK(h.stats().last_connect_ms == 0); h.noteConnect(); h.noteLoss(); h.noteConnect(); h.noteStatus("1"); ChannelStats s = h.stats(); CHECK(s.connects == 2); CHECK(s.last_connect_ms > 0); CHECK(s.last_loss_ms > 0); CHECK(s.last_status_payload == "1"); } TEST_CASE("topic and payload builders match the documented wire format") { CHECK(towerTopic("Tower", kTopicCamEvent) == "GGS/FWT/Tower/CamEvent"); CamEvent c; c.tower = "Tower"; c.camera = "RGB"; c.heading_decideg = 1373; c.pitch_decideg = 300; c.timestamp_ms = 1719312345678LL; const std::string j = camEventJson(c); CHECK(j.find("\"fwt\":\"Tower\"") != std::string::npos); CHECK(j.find("\"cam\":\"RGB\"") != std::string::npos); CHECK(j.find("\"hdg\":1373") != std::string::npos); CHECK(j.find("\"pit\":300") != std::string::npos); CHECK(j.find("\"time\":1719312345678") != std::string::npos); // The quality gate is gone; nothing should still be publishing a verdict. CHECK(j.find("degraded") == std::string::npos); // A colour camera's event carries none of the thermal fields. CHECK(j.find("\"cal\"") == std::string::npos); CHECK(j == "{ \"fwt\":\"Tower\", \"cam\":\"RGB\", \"hdg\":1373, \"pit\":300, " "\"time\":1719312345678 }"); } TEST_CASE("a thermal CamEvent carries profile, packets, temperatures and hot spot") { CamEvent c; c.tower = "Tower"; c.camera = "TIR"; c.heading_decideg = 1234; c.pitch_decideg = -30; c.timestamp_ms = 1791234567890LL; ThermalEventFields t; t.cal = 0; t.missed = 2; t.stats_ok = true; t.tmax_decic = 3015; t.tmed_decic = 187; t.hotx = 0.73594; t.hoty = 0.5833; c.thermal = t; CHECK(camEventJson(c) == "{ \"fwt\":\"Tower\", \"cam\":\"TIR\", \"hdg\":1234, \"pit\":-30, " "\"time\":1791234567890, \"cal\":0, \"missed\":2, \"tmax\":3015, \"tmed\":187, " "\"hotx\":0.7359, \"hoty\":0.5833 }"); // Without valid pixels the profile and packets still go out, the rest as null. c.thermal->stats_ok = false; const std::string j = camEventJson(c); CHECK(j.find("\"cal\":0, \"missed\":2, \"tmax\":null, \"tmed\":null, \"hotx\":null, " "\"hoty\":null }") != std::string::npos); } TEST_CASE("CamEvent names are escaped") { CamEvent c; c.tower = "a\"b"; c.camera = "RGB"; CHECK(camEventJson(c).find("\"fwt\":\"a\\\"b\"") != std::string::npos); }