314 lines
13 KiB
C++
314 lines
13 KiB
C++
#include <gtest/gtest.h>
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#include <algorithm>
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#include <QJsonDocument>
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#include <QJsonObject>
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#include "dto/MeasurementDto.hpp"
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using namespace geopro::data::dto;
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static QJsonObject obj(const char* json) {
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return QJsonDocument::fromJson(json).object();
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}
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// scatter/graph 的 data：electrodeList + scatterGraphData.rows（17 列定位数组，取自真实夹具前 3 行）。
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static const char* kScatterData = R"({
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"electrodeList": [
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{"electrodeNo":1,"horizontalDistance":0,"slopeDistance":0,"pseudoDepth":0},
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{"electrodeNo":2,"horizontalDistance":1.08,"slopeDistance":1.2459494894830485,"pseudoDepth":0},
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{"electrodeNo":3,"horizontalDistance":3.15,"slopeDistance":3.3194843662393243,"pseudoDepth":0}
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],
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"scatterGraphData": {
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"hasCoordinate": true,
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"rows": [
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[2.115013167852418,2.2827169278611863,null,-1.2,242.952988,2.385,4.116,0,"1453611521843200",24.288,1,4,2,3,12.5664,1,242.952988],
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[5.124875148343908,5.300065674086864,null,-2.4,-1066.592407,1.873,13.377,0,"1453611521843201",23.12,1,7,3,5,25.1327,2,-1066.592407],
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[7.994418521491841,8.175900836015376,null,-3.6,100.239388,2.001,9.976,0,"1453611521843202",21.987,1,10,4,7,37.6991,3,100.239388]
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],
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"__rowsTotal": 576
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}
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})";
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// colorGradation/getDetail{type:3} 的 data：与反演同构混合格式 colorBar（hex + rgba alpha 0–1）。
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static const char* kColorBarData = R"json({
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"properties": {
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"lvlSchemeType": "normal",
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"colorBar": [
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["0.00", "#00008B"],
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["1.51", "rgba(0, 0, 170, 1)"],
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["208.40", "#FF0000"],
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["1323.20", "rgba(48, 0, 48, 1)"]
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]
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}
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})json";
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// measurement/rows 的 data：filedList（列定义）+ rowList（含 vmap 摊平），取自真实夹具前 2 行。
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static const char* kRowsData = R"({
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"filedList": [
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{"fieldCode":"a","name":"A"},
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{"fieldCode":"b","name":"B"},
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{"fieldCode":"k","name":"K"},
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{"fieldCode":"R","name":"电阻"},
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{"fieldCode":"R0","name":"视电阻率"}
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],
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"rowList": [
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{"id":"1453611521843200","rowNo":1,"displayStatus":0,"a":1,"b":4,"k":12.5664,
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"vmap":{"R":19.333542,"V":10223.44531,"I":528.793213,"R0_RD":0,"SP":127.640175,"R0":242.952988}},
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{"id":"1453611521843201","rowNo":2,"displayStatus":0,"a":1,"b":7,"k":25.1327,
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"vmap":{"R":2.974368,"V":1822.526123,"I":612.743958,"R0_RD":0,"SP":92.380089,"R0":74.753899}}
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],
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"__rowListTotal": 576
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})";
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TEST(MeasurementDto, ParsesScatterPositionalRows) {
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auto p = parseMeasurementScatter(obj(kScatterData), obj(kColorBarData));
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const auto& s = p.scatter;
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// 3 个散点；连续上色（cauto，与反演原数据同路径，已无 discreteColor 字段）
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// + 图例与反演统一为底部横条。
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EXPECT_FALSE(p.verticalLegend); // measurement 图例改用底部横条（与反演一致）
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ASSERT_EQ(s.x.size(), 3u);
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ASSERT_EQ(s.y.size(), 3u);
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ASSERT_EQ(s.v.size(), 3u);
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// x = col1 斜距；y = col3 伪深度（负）；色值 = col16。
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EXPECT_DOUBLE_EQ(s.x[0], 2.2827169278611863);
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EXPECT_DOUBLE_EQ(s.y[0], -1.2);
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EXPECT_LT(s.y[0], 0.0); // 伪深度向下为负
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EXPECT_DOUBLE_EQ(s.v[0], 242.952988);
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EXPECT_DOUBLE_EQ(s.x[2], 8.175900836015376);
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EXPECT_DOUBLE_EQ(s.y[2], -3.6);
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// cauto 关键事实：负异常值（col16）原样保留——视图 setDataRange 据此得 cmin<0，
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// 使中段视电阻率（≈25–250）归一化到色阶中部（深品红/紫），与原版 Plotly 一致。
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EXPECT_DOUBLE_EQ(s.v[1], -1066.592407);
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EXPECT_LT(s.v[1], 0.0); // 负异常值未被过滤
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const double vMin = std::min({s.v[0], s.v[1], s.v[2]});
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EXPECT_DOUBLE_EQ(vMin, -1066.592407); // 数据范围下界为负 → cmin<0
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// A/B/M/N = col10-13。
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ASSERT_EQ(s.a.size(), 3u);
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EXPECT_DOUBLE_EQ(s.a[0], 1.0);
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EXPECT_DOUBLE_EQ(s.b[0], 4.0);
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EXPECT_DOUBLE_EQ(s.m[0], 2.0);
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EXPECT_DOUBLE_EQ(s.n[0], 3.0);
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// 电极 X = electrodeList.slopeDistance。
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ASSERT_EQ(s.electrodeX.size(), 3u);
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EXPECT_DOUBLE_EQ(s.electrodeX[0], 0.0);
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EXPECT_DOUBLE_EQ(s.electrodeX[1], 1.2459494894830485);
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// 电极编号 = electrodeList.electrodeNo（1-based），与 electrodeX 一一对应（供 hover num）。
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ASSERT_EQ(s.electrodeNo.size(), 3u);
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EXPECT_DOUBLE_EQ(s.electrodeNo[0], 1.0);
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EXPECT_DOUBLE_EQ(s.electrodeNo[1], 2.0);
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EXPECT_DOUBLE_EQ(s.electrodeNo[2], 3.0);
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}
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TEST(MeasurementDto, ParsesScatterPointMetadata) {
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// [i]信息 / 显隐持久化用元数据：id(col8) / displayStatus(col7) / row(col15) / pseu(col16)。
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auto p = parseMeasurementScatter(obj(kScatterData), obj(kColorBarData));
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const auto& s = p.scatter;
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ASSERT_EQ(s.id.size(), 3u);
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EXPECT_EQ(s.id[0], "1453611521843200");
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EXPECT_EQ(s.id[1], "1453611521843201");
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ASSERT_EQ(s.displayStatus.size(), 3u);
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EXPECT_EQ(s.displayStatus[0], 0); // col7=0 → 可见
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ASSERT_EQ(s.row.size(), 3u);
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EXPECT_DOUBLE_EQ(s.row[0], 1.0); // DataRow = col15
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EXPECT_DOUBLE_EQ(s.row[2], 3.0);
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ASSERT_EQ(s.pseu.size(), 3u);
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EXPECT_DOUBLE_EQ(s.pseu[0], 242.952988); // Pseu_Resis = col16
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}
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// scatter/graph 含 scatterGraphConf 时：工具条下拉项 + 默认选中 + x/y 本地重绘备选列。
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static const char* kScatterDataWithConf = R"({
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"electrodeList": [
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{"electrodeNo":1,"horizontalDistance":0,"slopeDistance":0,"pseudoDepth":0}
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],
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"scatterGraphConf": {
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"x": [
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{"fieldCode":"horizontalDistance","name":"平距"},
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{"fieldCode":"slopeDistance","name":"斜距"}
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],
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"y": [
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{"fieldCode":"Layer No","name":"层数"},
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{"fieldCode":"pseudoDepth","name":"伪深度"},
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{"fieldCode":"elevationPseudoDepth","name":"伪深度+高程"}
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],
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"v": [
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{"fieldCode":"I","name":"电流"},
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{"fieldCode":"R0","name":"视电阻率"},
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{"fieldCode":"SP","name":"自然电位"}
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],
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"vcalculationMethod": [
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{"fieldCode":null,"name":"线性"},
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{"fieldCode":null,"name":"对数"},
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{"fieldCode":null,"name":"导数"}
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]
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},
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"scatterGraphData": {
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"rows": [
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[2.115013167852418,2.2827169278611863,null,-1.2,242.952988,2.385,4.116,0,"id0",24.288,1,4,2,3,12.5664,1,242.952988]
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]
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}
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})";
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TEST(MeasurementDto, ParsesScatterToolbarConfAndDefaults) {
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auto p = parseMeasurementScatter(obj(kScatterDataWithConf), obj(kColorBarData));
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const auto& tb = p.toolbar;
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EXPECT_FALSE(tb.empty());
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ASSERT_EQ(tb.x.size(), 2u);
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ASSERT_EQ(tb.y.size(), 3u);
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ASSERT_EQ(tb.v.size(), 3u);
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ASSERT_EQ(tb.method.size(), 3u);
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// 选项名/码（顺序保留）。
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EXPECT_EQ(tb.x[0].code.toStdString(), "horizontalDistance");
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EXPECT_EQ(tb.x[0].name.toStdString(), std::string("平距"));
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EXPECT_EQ(tb.x[1].code.toStdString(), "slopeDistance");
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EXPECT_EQ(tb.method[0].name.toStdString(), std::string("线性"));
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EXPECT_TRUE(tb.method[0].code.isEmpty()); // method 的 fieldCode 为 null
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// 默认选中：斜距 / 伪深度 / 视电阻率 / 线性。
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EXPECT_EQ(tb.defaultX.toStdString(), "slopeDistance");
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EXPECT_EQ(tb.defaultY.toStdString(), "pseudoDepth");
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EXPECT_EQ(tb.defaultV.toStdString(), "R0");
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EXPECT_EQ(tb.defaultMethod.toStdString(), std::string("线性"));
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}
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TEST(MeasurementDto, CarriesAltColumnsForLocalReplot) {
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auto p = parseMeasurementScatter(obj(kScatterDataWithConf), obj(kColorBarData));
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// x 备选：平距(col0) / 斜距(col1)；y 备选：伪深度(col3) / 伪深度+高程(col9)。
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ASSERT_EQ(p.altXHorizontal.size(), 1u);
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ASSERT_EQ(p.altXSlope.size(), 1u);
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ASSERT_EQ(p.altYPseudo.size(), 1u);
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ASSERT_EQ(p.altYElevationPseudo.size(), 1u);
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EXPECT_DOUBLE_EQ(p.altXHorizontal[0], 2.115013167852418);
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EXPECT_DOUBLE_EQ(p.altXSlope[0], 2.2827169278611863);
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EXPECT_DOUBLE_EQ(p.altYPseudo[0], -1.2);
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EXPECT_DOUBLE_EQ(p.altYElevationPseudo[0], 24.288);
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}
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TEST(MeasurementDto, ToolbarEmptyWhenNoConf) {
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// 无 scatterGraphConf（反演原数据形状）：工具条空 → 视图渲染反演工具条。
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auto p = parseMeasurementScatter(obj(kScatterData), obj(kColorBarData));
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EXPECT_TRUE(p.toolbar.empty());
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}
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TEST(MeasurementDto, ParsesScatterColorBarOpaque) {
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auto p = parseMeasurementScatter(obj(kScatterData), obj(kColorBarData));
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auto stops = p.scale.stops();
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ASSERT_EQ(stops.size(), 4u);
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// 首/末值。
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EXPECT_DOUBLE_EQ(stops.front().first, 0.0);
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EXPECT_DOUBLE_EQ(stops.back().first, 1323.20);
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// 首色 #00008B（深蓝），末色 rgba(48,0,48,1)（alpha=1 → 255，不透明）。
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EXPECT_EQ(stops.front().second.r, 0);
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EXPECT_EQ(stops.front().second.g, 0);
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EXPECT_EQ(stops.front().second.b, 0x8B);
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EXPECT_EQ(stops.front().second.a, 255);
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EXPECT_EQ(stops.back().second.r, 48);
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EXPECT_EQ(stops.back().second.g, 0);
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EXPECT_EQ(stops.back().second.b, 48);
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EXPECT_EQ(stops.back().second.a, 255); // 回归：alpha=1 须映射为 255 不透明
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}
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TEST(MeasurementDto, CapturesColorBarTemplateId) {
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// 色阶 getDetail 顶层 templateId → ScatterPayload.templateId（保存色阶回带，对照原版）。
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auto withTpl = parseMeasurementScatter(
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obj(kScatterData),
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obj(R"json({"templateId":"tpl-123","properties":{"colorBar":[["0.00","#00008B"]]}})json"));
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EXPECT_EQ(withTpl.templateId.toStdString(), "tpl-123");
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// 缺省 templateId → 空串（原版亦可空）。
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auto noTpl = parseMeasurementScatter(obj(kScatterData), obj(kColorBarData));
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EXPECT_TRUE(noTpl.templateId.isEmpty());
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}
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TEST(MeasurementDto, ParsesTableColumnsAndVmapFlattened) {
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auto t = parseMeasurementTable(obj(kRowsData));
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// 列来自 filedList（5 列）+ 末尾追加“隐藏/显示”开关列 = 6 列。
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ASSERT_EQ(t.columns.size(), 6u);
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EXPECT_EQ(t.columns[0].code.toStdString(), "a");
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EXPECT_EQ(t.columns[0].title.toStdString(), "A");
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EXPECT_EQ(t.columns[4].code.toStdString(), "R0");
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EXPECT_EQ(t.columns[4].title.toStdString(), std::string("视电阻率"));
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// 2 行；total 来自 __rowListTotal。
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ASSERT_EQ(t.rows.size(), 2u);
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EXPECT_EQ(t.total, 576);
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// 顶层列（a/b/k）从行对象取；vmap 列（R/R0）从 vmap 摊平。
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ASSERT_EQ(t.rows[0].size(), 6u);
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EXPECT_EQ(t.rows[0][0].toStdString(), "1"); // a（整数无小数点）
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EXPECT_EQ(t.rows[0][1].toStdString(), "4"); // b
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EXPECT_EQ(t.rows[0][3].toStdString(), "19.333542"); // R from vmap
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EXPECT_EQ(t.rows[0][4].toStdString(), "242.952988"); // R0 from vmap
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EXPECT_EQ(t.rows[1][4].toStdString(), "74.753899");
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}
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TEST(MeasurementDto, AppendsHideShowToggleColumn) {
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auto t = parseMeasurementTable(obj(kRowsData));
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// 末列为“隐藏/显示”，kind=Toggle，code=displayStatus。
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ASSERT_EQ(t.columns.size(), 6u);
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const auto& toggle = t.columns.back();
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EXPECT_EQ(toggle.title.toStdString(), std::string("隐藏/显示"));
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EXPECT_EQ(toggle.code.toStdString(), "displayStatus");
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EXPECT_EQ(toggle.kind, geopro::core::TableColumnKind::Toggle);
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// displayStatus==0 ⇒ ON/可见（"1"），全部 ON。
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ASSERT_EQ(t.rows.size(), 2u);
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EXPECT_EQ(t.rows[0].back().toStdString(), "1");
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EXPECT_EQ(t.rows[1].back().toStdString(), "1");
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}
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TEST(MeasurementDto, ToggleOffWhenDisplayStatusNonZero) {
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// displayStatus!=0 ⇒ OFF（"0"）。
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auto t = parseMeasurementTable(obj(R"({
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"filedList": [{"fieldCode":"a","name":"A"}],
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"rowList": [
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{"id":"x","a":1,"displayStatus":0},
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{"id":"y","a":2,"displayStatus":1}
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]
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})"));
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ASSERT_EQ(t.columns.size(), 2u);
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EXPECT_EQ(t.columns.back().kind, geopro::core::TableColumnKind::Toggle);
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ASSERT_EQ(t.rows.size(), 2u);
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EXPECT_EQ(t.rows[0].back().toStdString(), "1"); // displayStatus 0 → ON
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EXPECT_EQ(t.rows[1].back().toStdString(), "0"); // displayStatus 1 → OFF
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}
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TEST(MeasurementDto, MeasurementListIsToggleInteractiveWithRowIds) {
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// M2：measurement 列表（filedList 驱动）→ toggleInteractive=true + 每行点 id。
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auto t = parseMeasurementTable(obj(R"({
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"filedList": [{"fieldCode":"a","name":"A"}],
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"rowList": [
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{"id":"x","a":1,"displayStatus":0},
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{"id":1453611521843201,"a":2,"displayStatus":1}
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]
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})"));
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EXPECT_TRUE(t.toggleInteractive);
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ASSERT_EQ(t.rowIds.size(), 2u);
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EXPECT_EQ(t.rowIds[0].toStdString(), "x");
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EXPECT_EQ(t.rowIds[1].toStdString(), "1453611521843201"); // 数字 id 转字符串
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}
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TEST(MeasurementDto, GridListNotToggleInteractive) {
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// grid/trajectory 列表（gridHeaderDisplay 驱动）→ 无 Toggle 列、不可交互、无 rowIds。
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auto t = parseMeasurementTable(obj(R"({
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"gridHeaderDisplay": [{"fieldCode":"a","name":"A"}],
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"rowList": [ {"a":1}, {"a":2} ]
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})"));
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EXPECT_FALSE(t.toggleInteractive);
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EXPECT_TRUE(t.rowIds.empty());
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for (const auto& c : t.columns)
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EXPECT_NE(c.kind, geopro::core::TableColumnKind::Toggle);
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}
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