gitrusprus/DotsToSirface
1
0
Fork 0
Code Issues Pull Requests Actions Packages Projects Releases Wiki Activity

до изменения генератора датасета

Browse Source 
Co-authored-by: Cursor <cursoragent@cursor.com>
This commit is contained in:
Ваше Имя
2026-07-24 13:12:17 +03:00
co-authored by Cursor
parent 0614ea384a
commit a6e8ba31bd
4 changed files with 67 additions and 107 deletions
Download Patch File Download Diff File Expand all files Collapse all files
frontend/web/src/composables/useGboSimulator.js
+11 -3
View File
@@ -63,6 +63,14 @@ function sampleHeight(meshInfo, x, y) {
return (h00 * (1 - tx) + h10 * tx) * (1 - ty) + (h01 * (1 - tx) + h11 * tx) * ty;
}
/** Flat seafloor datum (without corridor relief). AUV altitude is measured from this. */
function referenceSeafloorZ(meshInfo) {
if (!meshInfo) return -5;
const base = Number(meshInfo.baseZ);
if (Number.isFinite(base)) return base;
return sampleHeight(meshInfo, 0, 0);
}
/**
* @param {import('vue').Ref} containerRef main 3D view
* @param {import('vue').Ref} surveyRef bottom-right survey surface panel
@@ -959,7 +967,7 @@ export function useGboSimulator(containerRef, surveyRef) {
function placeAuv(x, y, depth, headingDeg) {
if (!auvPivot) return;
const floorZ = sampleHeight(meshInfo, x, y);
const floorZ = referenceSeafloorZ(meshInfo);
auvPivot.position.set(x, y, floorZ + Math.max(0.3, Number(depth) || 2.5));
headingRad = degToRad(headingDeg);
auvPivot.rotation.set(0, 0, headingRad);
@@ -1016,8 +1024,8 @@ export function useGboSimulator(containerRef, surveyRef) {
traveled += step;
const nx = auvPivot.position.x + Math.cos(headingRad) * step;
const ny = auvPivot.position.y + Math.sin(headingRad) * step;
const floorZ = sampleHeight(meshInfo, nx, ny);
auvPivot.position.set(nx, ny, floorZ + auvDepth);
// Constant altitude vs flat datum — do not follow seafloor relief.
auvPivot.position.set(nx, ny, referenceSeafloorZ(meshInfo) + auvDepth);
updateRays(true);
updateTrail();
onStatus({
frontend/web/src/composables/useMleSimulator.js
+44 -92
View File
@@ -63,6 +63,14 @@ function sampleHeight(meshInfo, x, y) {
return (h00 * (1 - tx) + h10 * tx) * (1 - ty) + (h01 * (1 - tx) + h11 * tx) * ty;
}
/** Flat seafloor datum (without corridor relief). AUV altitude is measured from this. */
function referenceSeafloorZ(meshInfo) {
if (!meshInfo) return -5;
const base = Number(meshInfo.baseZ);
if (Number.isFinite(base)) return base;
return sampleHeight(meshInfo, 0, 0);
}
/**
* @param {import('vue').Ref} containerRef main 3D view
* @param {import('vue').Ref} surveyRef bottom-right survey surface panel
@@ -257,8 +265,8 @@ export function useMleSimulator(containerRef, surveyRef) {
}
/**
* Preview of seafloor/object contacts the AUV will meet along the survey track.
* Starts at current echosounder footprint and extends forward by surveyLength.
* Preview of the future survey swath on the seafloor only (relief / unevenness).
* Does not wrap or outline the bottom object — object contacts appear only during motion.
*/
function buildPathReliefPreview() {
clearPathRelief();
@@ -277,87 +285,30 @@ export function useMleSimulator(containerRef, surveyRef) {
const startY = auvPivot.position.y;
const depth = Math.max(0.3, Number(auvDepth) || 2.5);
// Station 0: real beam hits (where rays touch seafloor/object now).
const currentHits = castBeamHits();
const positions = new Float32Array(nAlong * nAcross * 3);
const colors = new Float32Array(nAlong * nAcross * 3);
const flat = new THREE.Color(0x2f6b52);
const mid = new THREE.Color(0xe6a820);
const hot = new THREE.Color(0xfff176);
const objTint = new THREE.Color(0xff6b2d);
const writeVertex = (row, col, x, y, z, intensity, isObject) => {
const writeVertex = (row, col, x, y, z, intensity) => {
const o = (row * nAcross + col) * 3;
positions[o] = x;
positions[o + 1] = y;
positions[o + 2] = z + 0.08; // slightly above so it reads over the wireframe
let c;
if (isObject) {
c = objTint;
} else if (intensity < 0.35) {
c = flat.clone().lerp(mid, intensity / 0.35);
} else {
c = mid.clone().lerp(hot, Math.min(1, (intensity - 0.35) / 0.65));
}
// Keep the whole swath visible; boost alpha via brightness on relief.
const c =
intensity < 0.35
? flat.clone().lerp(mid, intensity / 0.35)
: mid.clone().lerp(hot, Math.min(1, (intensity - 0.35) / 0.65));
colors[o] = c.r;
colors[o + 1] = c.g;
colors[o + 2] = c.b;
};
for (let col = 0; col < nAcross; col += 1) {
const u = nAcross === 1 ? 0.5 : col / (nAcross - 1);
if (currentHits.length) {
const src = currentHits[Math.min(currentHits.length - 1, Math.round(u * (currentHits.length - 1)))];
const intensity = reliefIntensity(src.x, src.y);
writeVertex(0, col, src.x, src.y, src.z, Math.max(intensity, src.isObject ? 1 : 0.2), !!src.isObject);
} else {
const angle = -swath * 0.5 + swath * u;
const dirX = Math.sin(angle) * acrossX;
const dirY = Math.sin(angle) * acrossY;
const dirZ = -Math.cos(angle);
// fallback probe from AUV
let hitX = startX;
let hitY = startY;
let hitZ = sampleHeight(meshInfo, startX, startY);
const originZ = hitZ + depth;
const step = Math.max(0.3, maxRange / 180);
let px = startX;
let py = startY;
let pz = originZ;
for (let s = 0; s < 220; s += 1) {
px += dirX * step;
py += dirY * step;
pz += dirZ * step;
const floorZ = sampleHeight(meshInfo, px, py);
if (pz <= floorZ) {
hitX = px;
hitY = py;
hitZ = floorZ;
break;
}
}
writeVertex(0, col, hitX, hitY, hitZ, Math.max(0.15, reliefIntensity(hitX, hitY)), false);
}
}
// Forward stations: predicted beam footprint along the future track.
for (let row = 1; row < nAlong; row += 1) {
const along = (row / (nAlong - 1)) * length;
const ax = startX + hx * along;
const ay = startY + hy * along;
const floorHere = sampleHeight(meshInfo, ax, ay);
const originZ = floorHere + depth;
for (let col = 0; col < nAcross; col += 1) {
const u = nAcross === 1 ? 0.5 : col / (nAcross - 1);
const angle = -swath * 0.5 + swath * u;
const dirX = Math.sin(angle) * acrossX;
const dirY = Math.sin(angle) * acrossY;
const dirZ = -Math.cos(angle);
const probeSeafloorHit = (ax, ay, originZ, dirX, dirY, dirZ) => {
let hitX = ax;
let hitY = ay;
let hitZ = floorHere;
let isObject = false;
let hitZ = sampleHeight(meshInfo, ax, ay);
const step = Math.max(0.3, maxRange / 180);
let px = ax;
let py = ay;
@@ -375,24 +326,24 @@ export function useMleSimulator(containerRef, surveyRef) {
break;
}
}
// Object occlusion preview: if object mesh is above floor along beam, tint as object.
if (objectPivot) {
const origin = new THREE.Vector3(ax, ay, originZ);
const dir = new THREE.Vector3(dirX, dirY, dirZ).normalize();
raycaster.set(origin, dir);
raycaster.far = maxRange;
const intersects = raycaster.intersectObject(objectPivot, true);
if (intersects.length) {
const dFloor = Math.hypot(hitX - ax, hitY - ay, hitZ - originZ);
if (intersects[0].distance < dFloor) {
hitX = intersects[0].point.x;
hitY = intersects[0].point.y;
hitZ = intersects[0].point.z;
isObject = true;
}
}
}
writeVertex(row, col, hitX, hitY, hitZ, Math.max(0.12, reliefIntensity(hitX, hitY)), isObject);
return { hitX, hitY, hitZ };
};
// Stations along track: seafloor footprint only (ignore object mesh until simulation).
// Beam origins stay at constant altitude above the flat datum (not terrain-following).
const originZ = referenceSeafloorZ(meshInfo) + depth;
for (let row = 0; row < nAlong; row += 1) {
const along = nAlong === 1 ? 0 : (row / (nAlong - 1)) * length;
const ax = startX + hx * along;
const ay = startY + hy * along;
for (let col = 0; col < nAcross; col += 1) {
const u = nAcross === 1 ? 0.5 : col / (nAcross - 1);
const angle = -swath * 0.5 + swath * u;
const dirX = Math.sin(angle) * acrossX;
const dirY = Math.sin(angle) * acrossY;
const dirZ = -Math.cos(angle);
const { hitX, hitY, hitZ } = probeSeafloorHit(ax, ay, originZ, dirX, dirY, dirZ);
writeVertex(row, col, hitX, hitY, hitZ, Math.max(0.12, reliefIntensity(hitX, hitY)));
}
}
@@ -893,7 +844,7 @@ export function useMleSimulator(containerRef, surveyRef) {
function placeAuv(x, y, depth, headingDeg) {
if (!auvPivot) return;
const floorZ = sampleHeight(meshInfo, x, y);
const floorZ = referenceSeafloorZ(meshInfo);
auvPivot.position.set(x, y, floorZ + Math.max(0.3, Number(depth) || 2.5));
headingRad = degToRad(headingDeg);
auvPivot.rotation.set(0, 0, headingRad);
@@ -915,7 +866,7 @@ export function useMleSimulator(containerRef, surveyRef) {
);
}
function castBeamHits() {
function castBeamHits({ includeObject = true } = {}) {
if (!auvPivot || !meshInfo) return [];
const origin = auvPivot.position.clone();
const count = Math.max(1, Math.min(256, Number(beamCount) || 45));
@@ -923,7 +874,7 @@ export function useMleSimulator(containerRef, surveyRef) {
const maxRange = Math.max(1, Number(detectionRangeM) || DETECTION_RANGE_DEFAULT);
raycaster.far = maxRange;
const across = new THREE.Vector3(-Math.sin(headingRad), Math.cos(headingRad), 0);
if (objectPivot) objectPivot.updateMatrixWorld(true);
if (includeObject && objectPivot) objectPivot.updateMatrixWorld(true);
const hits = [];
for (let i = 0; i < count; i += 1) {
@@ -952,10 +903,10 @@ export function useMleSimulator(containerRef, surveyRef) {
}
}
// Object first-hit (mesh raycast) — echosounder return if closer than seafloor
// Object first-hit (mesh raycast) — only during simulation / survey accumulation
let objPoint = null;
let objDist = Infinity;
if (objectPivot) {
if (includeObject && objectPivot) {
raycaster.set(origin, beamDir);
const intersects = raycaster.intersectObject(objectPivot, true);
if (intersects.length && intersects[0].distance <= maxRange) {
@@ -996,7 +947,8 @@ export function useMleSimulator(containerRef, surveyRef) {
}
if (!auvPivot || !meshInfo) return;
const origin = auvPivot.position.clone();
const hits = castBeamHits();
// Before motion starts, rays and path preview ignore the object (seafloor only).
const hits = castBeamHits({ includeObject: !!accumulateSurvey || running });
const positions = new Float32Array(hits.length * 2 * 3);
for (let i = 0; i < hits.length; i += 1) {
const o = i * 6;
@@ -1060,8 +1012,8 @@ export function useMleSimulator(containerRef, surveyRef) {
traveled += step;
const nx = auvPivot.position.x + Math.cos(headingRad) * step;
const ny = auvPivot.position.y + Math.sin(headingRad) * step;
const floorZ = sampleHeight(meshInfo, nx, ny);
auvPivot.position.set(nx, ny, floorZ + auvDepth);
// Constant altitude vs flat datum — do not follow seafloor relief.
auvPivot.position.set(nx, ny, referenceSeafloorZ(meshInfo) + auvDepth);
updateRays(true);
updateTrail();
onStatus({
frontend/web/src/views/GboView.vue
+2 -2
View File
@@ -221,11 +221,11 @@ function onShotSurvey() {
<input v-model.number="store.auvX" type="number" step="0.5" :disabled="store.running" />
</label>
<label class="field">
<span>Y (старт)</span>
<span>Y</span>
<input v-model.number="store.auvY" type="number" step="0.5" :disabled="store.running" />
</label>
<label class="field">
<span>Высота над дном, м</span>
<span>Высота над дном (без неровностей), м</span>
<input v-model.number="store.auvDepth" type="number" min="0.3" step="0.1" :disabled="store.running" />
</label>
<label class="field">
frontend/web/src/views/MleView.vue
+2 -2
View File
@@ -241,11 +241,11 @@ function onShotSurvey() {
<input v-model.number="store.auvX" type="number" step="0.5" :disabled="store.running" />
</label>
<label class="field">
<span>Y (старт)</span>
<span>Y</span>
<input v-model.number="store.auvY" type="number" step="0.5" :disabled="store.running" />
</label>
<label class="field">
<span>Высота над дном, м</span>
<span>Высота над дном (без неровностей), м</span>
<input v-model.number="store.auvDepth" type="number" min="0.3" step="0.1" :disabled="store.running" />
</label>
<label class="field">