Files
planet/backend/app/api/v1/visualization.py

1125 lines
41 KiB
Python

"""Visualization API - GeoJSON endpoints for 3D Earth display
Unified API for all visualization data sources.
Returns GeoJSON format compatible with Three.js, CesiumJS, and Unreal Cesium.
"""
from datetime import UTC, datetime
import math
from fastapi import APIRouter, HTTPException, Depends, Query
from sqlalchemy.ext.asyncio import AsyncSession
from sqlalchemy import select, func
from typing import List, Dict, Any, Optional
from app.core.collected_data_fields import get_record_field
from app.core.satellite_tle import build_tle_lines_from_elements
from app.core.time import to_iso8601_utc
from app.db.session import get_db
from app.models.bgp_anomaly import BGPAnomaly
from app.models.bgp_incident import BGPIncident
from app.models.collected_data import CollectedData
from app.services.bgp_collectors import build_bgp_collector_coverage
from app.services.cable_graph import build_graph_from_data, CableGraph, haversine_distance
from app.services.collectors.bgp_common import RIPE_RIS_COLLECTOR_COORDS
router = APIRouter()
# ============== Converter Functions ==============
def convert_cable_to_geojson(records: List[CollectedData]) -> Dict[str, Any]:
"""Convert cable records to GeoJSON FeatureCollection"""
features = []
for record in records:
metadata = record.extra_data or {}
route_coords = metadata.get("route_coordinates", [])
if not route_coords:
continue
all_lines = []
# Handle both old format (flat array) and new format (array of arrays)
if route_coords and isinstance(route_coords[0], list):
# New format: array of arrays (MultiLineString structure)
if route_coords and isinstance(route_coords[0][0], list):
# Array of arrays of arrays - multiple lines
for line in route_coords:
line_coords = []
for point in line:
if len(point) >= 2:
try:
lon = float(point[0])
lat = float(point[1])
line_coords.append([lon, lat])
except (ValueError, TypeError):
continue
if len(line_coords) >= 2:
all_lines.append(line_coords)
else:
# Old format: flat array of points - treat as single line
line_coords = []
for point in route_coords:
if len(point) >= 2:
try:
lon = float(point[0])
lat = float(point[1])
line_coords.append([lon, lat])
except (ValueError, TypeError):
continue
if len(line_coords) >= 2:
all_lines.append(line_coords)
if not all_lines:
continue
# Use MultiLineString format to preserve cable segments
features.append(
{
"type": "Feature",
"geometry": {"type": "MultiLineString", "coordinates": all_lines},
"properties": {
"id": record.id,
"cable_id": record.name,
"source_id": record.source_id,
"Name": record.name,
"name": record.name,
"owner": metadata.get("owners"),
"owners": metadata.get("owners"),
"rfs": metadata.get("rfs"),
"RFS": metadata.get("rfs"),
"status": metadata.get("status", "active"),
"length": get_record_field(record, "value"),
"length_km": get_record_field(record, "value"),
"SHAPE__Length": get_record_field(record, "value"),
"url": metadata.get("url"),
"color": metadata.get("color"),
"year": metadata.get("year"),
},
}
)
return {"type": "FeatureCollection", "features": features}
def convert_landing_point_to_geojson(records: List[CollectedData], city_to_cable_ids_map: Dict[int, List[int]] = None, cable_id_to_name_map: Dict[int, str] = None) -> Dict[str, Any]:
features = []
for record in records:
try:
latitude = get_record_field(record, "latitude")
longitude = get_record_field(record, "longitude")
lat = float(latitude) if latitude else None
lon = float(longitude) if longitude else None
except (ValueError, TypeError):
continue
if lat is None or lon is None:
continue
metadata = record.extra_data or {}
city_id = metadata.get("city_id")
props = {
"id": record.id,
"source_id": record.source_id,
"name": record.name,
"country": get_record_field(record, "country"),
"city": get_record_field(record, "city"),
"is_tbd": metadata.get("is_tbd", False),
}
cable_names = []
if city_to_cable_ids_map and city_id in city_to_cable_ids_map:
for cable_id in city_to_cable_ids_map[city_id]:
if cable_id_to_name_map and cable_id in cable_id_to_name_map:
cable_names.append(cable_id_to_name_map[cable_id])
if cable_names:
props["cable_names"] = cable_names
features.append(
{
"type": "Feature",
"geometry": {"type": "Point", "coordinates": [lon, lat]},
"properties": props,
}
)
return {"type": "FeatureCollection", "features": features}
def convert_satellite_to_geojson(records: List[CollectedData]) -> Dict[str, Any]:
"""Convert satellite TLE records to GeoJSON"""
features = []
for record in records:
metadata = record.extra_data or {}
norad_id = metadata.get("norad_cat_id")
if not norad_id:
continue
tle_line1 = metadata.get("tle_line1")
tle_line2 = metadata.get("tle_line2")
if not tle_line1 or not tle_line2:
tle_line1, tle_line2 = build_tle_lines_from_elements(
norad_cat_id=norad_id,
epoch=metadata.get("epoch"),
inclination=metadata.get("inclination"),
raan=metadata.get("raan"),
eccentricity=metadata.get("eccentricity"),
arg_of_perigee=metadata.get("arg_of_perigee"),
mean_anomaly=metadata.get("mean_anomaly"),
mean_motion=metadata.get("mean_motion"),
)
features.append(
{
"type": "Feature",
"id": norad_id,
"geometry": {"type": "Point", "coordinates": [0, 0, 0]},
"properties": {
"id": record.id,
"norad_cat_id": norad_id,
"name": record.name,
"international_designator": metadata.get("international_designator"),
"epoch": metadata.get("epoch"),
"inclination": metadata.get("inclination"),
"raan": metadata.get("raan"),
"eccentricity": metadata.get("eccentricity"),
"arg_of_perigee": metadata.get("arg_of_perigee"),
"mean_anomaly": metadata.get("mean_anomaly"),
"mean_motion": metadata.get("mean_motion"),
"bstar": metadata.get("bstar"),
"classification_type": metadata.get("classification_type"),
"tle_line1": tle_line1,
"tle_line2": tle_line2,
"data_type": "satellite_tle",
},
}
)
return {"type": "FeatureCollection", "features": features}
def dedupe_satellite_records(records: List[CollectedData]) -> List[CollectedData]:
"""Keep only the newest record for each satellite identity."""
latest_by_key: Dict[str, CollectedData] = {}
for record in records:
metadata = record.extra_data or {}
norad_id = metadata.get("norad_cat_id")
dedupe_key = (
str(norad_id)
if norad_id not in (None, "")
else str(record.source_id or record.entity_key or record.name or record.id)
)
existing = latest_by_key.get(dedupe_key)
if existing is None or (record.id or 0) > (existing.id or 0):
latest_by_key[dedupe_key] = record
return sorted(latest_by_key.values(), key=lambda item: item.id or 0, reverse=True)
def dedupe_collected_records(records: List[CollectedData]) -> List[CollectedData]:
"""Keep only the newest record for each collected entity."""
latest_by_key: Dict[str, CollectedData] = {}
for record in records:
dedupe_key = str(
record.source_id
or record.entity_key
or record.name
or record.id
)
existing = latest_by_key.get(dedupe_key)
if existing is None or (record.id or 0) > (existing.id or 0):
latest_by_key[dedupe_key] = record
return sorted(latest_by_key.values(), key=lambda item: item.id or 0, reverse=True)
def convert_supercomputer_to_geojson(records: List[CollectedData]) -> Dict[str, Any]:
"""Convert TOP500 supercomputer records to GeoJSON"""
features = []
for record in records:
try:
latitude = get_record_field(record, "latitude")
longitude = get_record_field(record, "longitude")
lat = float(latitude) if latitude and latitude != "0.0" else None
lon = (
float(longitude) if longitude and longitude != "0.0" else None
)
except (ValueError, TypeError):
lat, lon = None, None
metadata = record.extra_data or {}
features.append(
{
"type": "Feature",
"id": record.id,
"geometry": {"type": "Point", "coordinates": [lon or 0, lat or 0]},
"properties": {
"id": record.id,
"name": record.name,
"rank": metadata.get("rank"),
"r_max": get_record_field(record, "rmax"),
"r_peak": get_record_field(record, "rpeak"),
"cores": get_record_field(record, "cores"),
"power": get_record_field(record, "power"),
"country": get_record_field(record, "country"),
"city": get_record_field(record, "city"),
"data_type": "supercomputer",
},
}
)
return {"type": "FeatureCollection", "features": features}
def convert_gpu_cluster_to_geojson(records: List[CollectedData]) -> Dict[str, Any]:
"""Convert GPU cluster records to GeoJSON"""
features = []
for record in records:
try:
latitude = get_record_field(record, "latitude")
longitude = get_record_field(record, "longitude")
lat = float(latitude) if latitude else None
lon = float(longitude) if longitude else None
except (ValueError, TypeError):
lat, lon = None, None
metadata = record.extra_data or {}
features.append(
{
"type": "Feature",
"id": record.id,
"geometry": {"type": "Point", "coordinates": [lon or 0, lat or 0]},
"properties": {
"id": record.id,
"name": record.name,
"country": get_record_field(record, "country"),
"city": get_record_field(record, "city"),
"metadata": metadata,
"data_type": "gpu_cluster",
},
}
)
return {"type": "FeatureCollection", "features": features}
def convert_bgp_anomalies_to_geojson(
records: List[BGPAnomaly],
geography_hints: Optional[Dict[str, Dict[str, Any]]] = None,
) -> Dict[str, Any]:
features = []
geography_hints = geography_hints or {}
for record in records:
evidence = record.evidence or {}
hint = geography_hints.get(str(record.entity_key or record.id), {})
collectors = evidence.get("collectors") or record.peer_scope or []
if not collectors:
nested = evidence.get("events") or []
collectors = [
str((item or {}).get("collector") or "").strip()
for item in nested
if (item or {}).get("collector")
]
collectors = [collector for collector in collectors if collector]
if not collectors:
collectors = []
as_path = []
if isinstance(evidence.get("as_path"), list):
as_path = evidence.get("as_path") or []
if not as_path:
nested = evidence.get("events") or []
for item in nested:
candidate_path = (item or {}).get("as_path")
if isinstance(candidate_path, list) and candidate_path:
as_path = candidate_path
break
impacted_regions = []
seen_regions = set()
for collector_name in collectors:
collector_location = RIPE_RIS_COLLECTOR_COORDS.get(str(collector_name))
if not collector_location:
continue
region_key = (
collector_location.get("country"),
collector_location.get("city"),
)
if region_key in seen_regions:
continue
seen_regions.add(region_key)
impacted_regions.append(
{
"collector": collector_name,
"country": collector_location.get("country"),
"city": collector_location.get("city"),
"latitude": collector_location.get("latitude"),
"longitude": collector_location.get("longitude"),
}
)
geography_regions = _normalize_geo_regions(hint.get("regions") or [])
geography_mode = hint.get("geography_mode") or "collector_centroid"
collector = collectors[0] if collectors else None
location = geography_regions[0] if geography_regions else None
if location is None and collector:
location = RIPE_RIS_COLLECTOR_COORDS.get(str(collector))
if location is None:
nested = evidence.get("events") or []
for item in nested:
collector_name = (item or {}).get("collector")
if collector_name and collector_name in RIPE_RIS_COLLECTOR_COORDS:
location = RIPE_RIS_COLLECTOR_COORDS[collector_name]
collector = collector_name
geography_mode = "collector_centroid"
break
if location is None:
continue
features.append(
{
"type": "Feature",
"geometry": {
"type": "Point",
"coordinates": [location["longitude"], location["latitude"]],
},
"properties": {
"id": record.id,
"collector": collector,
"city": location.get("city"),
"country": location.get("country"),
"source": record.source,
"anomaly_type": record.anomaly_type,
"severity": record.severity,
"status": record.status,
"prefix": record.prefix,
"origin_asn": record.origin_asn,
"new_origin_asn": record.new_origin_asn,
"collectors": collectors,
"collector_count": len(collectors) or 1,
"as_path": as_path,
"impacted_regions": impacted_regions,
"geography_mode": geography_mode,
"confidence": record.confidence,
"summary": record.summary,
"created_at": to_iso8601_utc(record.created_at),
},
}
)
return {"type": "FeatureCollection", "features": features}
async def build_anomaly_geography_hints(
db: AsyncSession,
records: List[BGPAnomaly],
) -> Dict[str, Dict[str, Any]]:
hints: Dict[str, Dict[str, Any]] = {}
for record in records:
hint = _extract_evidence_geography_hint(record.evidence or {})
if hint:
hints[str(record.entity_key or record.id)] = hint
return hints
def convert_bgp_collectors_to_geojson(
coverage_by_collector: Dict[str, Dict[str, Any]] | None = None,
) -> Dict[str, Any]:
features = []
coverage_by_collector = coverage_by_collector or {}
for collector, location in sorted(RIPE_RIS_COLLECTOR_COORDS.items()):
coverage = coverage_by_collector.get(collector, {})
features.append(
{
"type": "Feature",
"geometry": {
"type": "Point",
"coordinates": [location["longitude"], location["latitude"]],
},
"properties": {
"collector": collector,
"city": coverage.get("city") or location.get("city"),
"country": coverage.get("country") or location.get("country"),
"status": "online",
"observation_count": coverage.get("observation_count", 0),
"prefix_count": coverage.get("prefix_count", 0),
"origin_asn_count": coverage.get("origin_asn_count", 0),
"peer_asn_count": coverage.get("peer_asn_count", 0),
"recent_15m_observation_count": coverage.get("recent_15m_observation_count", 0),
"recent_24h_observation_count": coverage.get("recent_24h_observation_count", 0),
"recent_7d_observation_count": coverage.get("recent_7d_observation_count", 0),
"recent_15m_prefix_count": coverage.get("recent_15m_prefix_count", 0),
"recent_24h_prefix_count": coverage.get("recent_24h_prefix_count", 0),
"recent_7d_prefix_count": coverage.get("recent_7d_prefix_count", 0),
"top_event_types": coverage.get("top_event_types", []),
"latest_observed_at": coverage.get("latest_observed_at"),
"latest_event_type": coverage.get("latest_event_type"),
"baseline_scope": coverage.get(
"baseline_scope",
{
"countries": [location.get("country")] if location.get("country") else [],
"cities": [location.get("city")] if location.get("city") else [],
},
),
},
}
)
return {"type": "FeatureCollection", "features": features}
def _incident_estimated_center(valid_regions: List[Dict[str, Any]]) -> Dict[str, float]:
x = 0.0
y = 0.0
z = 0.0
for region in valid_regions:
lat_rad = math.radians(float(region["latitude"]))
lon_rad = math.radians(float(region["longitude"]))
x += math.cos(lat_rad) * math.cos(lon_rad)
y += math.cos(lat_rad) * math.sin(lon_rad)
z += math.sin(lat_rad)
total = float(len(valid_regions))
if total <= 0:
return {"latitude": 0.0, "longitude": 0.0}
x /= total
y /= total
z /= total
hyp = math.sqrt((x * x) + (y * y))
if hyp == 0:
return {"latitude": 0.0, "longitude": 0.0}
return {
"latitude": math.degrees(math.atan2(z, hyp)),
"longitude": math.degrees(math.atan2(y, x)),
}
def _incident_estimated_radius_km(center: Dict[str, float], valid_regions: List[Dict[str, Any]]) -> float:
center_coords = (float(center["longitude"]), float(center["latitude"]))
distances = [
haversine_distance(
center_coords,
(float(region["longitude"]), float(region["latitude"])),
)
for region in valid_regions
]
return round(max(distances) if distances else 0.0, 1)
def _normalize_geo_regions(regions: List[Dict[str, Any]]) -> List[Dict[str, Any]]:
normalized: list[dict[str, Any]] = []
seen: set[tuple[Any, ...]] = set()
for region in regions:
if not isinstance(region, dict):
continue
latitude = region.get("latitude")
longitude = region.get("longitude")
if not isinstance(latitude, (int, float)) or not isinstance(longitude, (int, float)):
continue
item = {
"collector": region.get("collector"),
"country": region.get("country"),
"city": region.get("city"),
"latitude": float(latitude),
"longitude": float(longitude),
}
key = (
item["collector"],
item["country"],
item["city"],
item["latitude"],
item["longitude"],
)
if key in seen:
continue
seen.add(key)
normalized.append(item)
return normalized
def _extract_evidence_geography_hint(evidence: Dict[str, Any]) -> Dict[str, Any] | None:
prefix_geo_regions = []
prefix_regions = []
asn_regions = []
evidence_prefix_geography = evidence.get("prefix_geography") or {}
prefix_geo_regions.extend(
_normalize_geo_regions(evidence_prefix_geography.get("regions") or [])
)
prefix_scope = evidence.get("prefix_scope") or {}
prefix_regions.extend(_normalize_geo_regions(prefix_scope.get("regions") or []))
for profile_key in ("origin_asn_profile", "new_origin_asn_profile"):
profile = evidence.get(profile_key) or {}
latitude = profile.get("latitude")
longitude = profile.get("longitude")
if isinstance(latitude, (int, float)) and isinstance(longitude, (int, float)):
asn_regions.append(
{
"country": profile.get("country"),
"city": profile.get("city"),
"latitude": float(latitude),
"longitude": float(longitude),
}
)
prefix_geo_regions = _normalize_geo_regions(prefix_geo_regions)
prefix_regions = _normalize_geo_regions(prefix_regions)
asn_regions = _normalize_geo_regions(asn_regions)
if prefix_geo_regions:
return {"regions": prefix_geo_regions, "geography_mode": "prefix_geography"}
if prefix_regions:
return {"regions": prefix_regions, "geography_mode": "prefix_scope"}
if asn_regions:
return {"regions": asn_regions, "geography_mode": "asn_region"}
return None
async def build_incident_geography_hints(
db: AsyncSession,
records: List[BGPIncident],
) -> Dict[str, Dict[str, Any]]:
evidence_refs = sorted(
{
str(ref)
for record in records
for ref in (record.evidence_refs or [])
if ref
}
)
anomalies = []
if evidence_refs:
result = await db.execute(
select(BGPAnomaly).where(BGPAnomaly.entity_key.in_(evidence_refs))
)
anomalies = result.scalars().all()
anomaly_by_key = {
str(anomaly.entity_key): anomaly
for anomaly in anomalies
if anomaly.entity_key
}
hints: Dict[str, Dict[str, Any]] = {}
for record in records:
merged_hint: Dict[str, Any] | None = None
priority = {"prefix_geography": 3, "prefix_scope": 2, "asn_region": 1}
for ref in record.evidence_refs or []:
anomaly = anomaly_by_key.get(str(ref))
if anomaly is None:
continue
hint = _extract_evidence_geography_hint(anomaly.evidence or {})
if hint is None:
continue
if merged_hint is None:
merged_hint = {
"regions": list(hint["regions"]),
"geography_mode": hint["geography_mode"],
}
continue
if priority[hint["geography_mode"]] > priority[merged_hint["geography_mode"]]:
merged_hint = {
"regions": list(hint["regions"]),
"geography_mode": hint["geography_mode"],
}
elif priority[hint["geography_mode"]] == priority[merged_hint["geography_mode"]]:
merged_hint["regions"].extend(hint["regions"])
if merged_hint:
merged_hint["regions"] = _normalize_geo_regions(merged_hint["regions"])
hints[record.incident_key] = merged_hint
return hints
def convert_bgp_incidents_to_geojson(
records: List[BGPIncident],
geography_hints: Optional[Dict[str, Dict[str, Any]]] = None,
) -> Dict[str, Any]:
features = []
for record in records:
hint = (geography_hints or {}).get(record.incident_key, {})
regions = hint.get("regions") or (record.affected_regions or [])
if not regions:
continue
valid_regions = _normalize_geo_regions(regions)
if not valid_regions:
continue
estimated_center = _incident_estimated_center(valid_regions)
estimated_radius_km = _incident_estimated_radius_km(estimated_center, valid_regions)
features.append(
{
"type": "Feature",
"geometry": {
"type": "Point",
"coordinates": [
estimated_center["longitude"],
estimated_center["latitude"],
],
},
"properties": {
"id": record.id,
"incident_key": record.incident_key,
"incident_type": record.incident_type,
"title": record.title,
"summary": record.summary,
"severity": record.severity,
"status": record.status,
"confidence": record.confidence,
"affected_prefixes": record.affected_prefixes or [],
"affected_asns": record.affected_asns or [],
"affected_collectors": record.affected_collectors or [],
"affected_regions": valid_regions,
"estimated_center": estimated_center,
"estimated_radius_km": estimated_radius_km,
"geography_mode": hint.get("geography_mode") or "collector_centroid",
"related_cables": record.related_cables or [],
"related_ixps": record.related_ixps or [],
"created_at": to_iso8601_utc(record.created_at),
"started_at": to_iso8601_utc(record.started_at),
},
}
)
return {"type": "FeatureCollection", "features": features}
# ============== API Endpoints ==============
@router.get("/geo/cables")
async def get_cables_geojson(db: AsyncSession = Depends(get_db)):
"""获取海底电缆 GeoJSON 数据 (LineString)"""
try:
stmt = select(CollectedData).where(CollectedData.source == "arcgis_cables")
result = await db.execute(stmt)
records = dedupe_collected_records(list(result.scalars().all()))
if not records:
raise HTTPException(
status_code=404,
detail="No cable data found. Please run the arcgis_cables collector first.",
)
return convert_cable_to_geojson(records)
except HTTPException:
raise
except Exception as e:
raise HTTPException(status_code=500, detail=f"Internal error: {str(e)}")
@router.get("/geo/landing-points")
async def get_landing_points_geojson(db: AsyncSession = Depends(get_db)):
try:
landing_stmt = select(CollectedData).where(CollectedData.source == "arcgis_landing_points")
landing_result = await db.execute(landing_stmt)
records = dedupe_collected_records(list(landing_result.scalars().all()))
relation_stmt = select(CollectedData).where(CollectedData.source == "arcgis_cable_landing_relation")
relation_result = await db.execute(relation_stmt)
relation_records = dedupe_collected_records(list(relation_result.scalars().all()))
cable_stmt = select(CollectedData).where(CollectedData.source == "arcgis_cables")
cable_result = await db.execute(cable_stmt)
cable_records = dedupe_collected_records(list(cable_result.scalars().all()))
city_to_cable_ids_map = {}
for rel in relation_records:
if rel.extra_data:
city_id = rel.extra_data.get("city_id")
cable_id = rel.extra_data.get("cable_id")
if city_id is not None and cable_id is not None:
if city_id not in city_to_cable_ids_map:
city_to_cable_ids_map[city_id] = []
if cable_id not in city_to_cable_ids_map[city_id]:
city_to_cable_ids_map[city_id].append(cable_id)
cable_id_to_name_map = {}
for cable in cable_records:
if cable.extra_data:
cable_id = cable.extra_data.get("cable_id")
cable_name = cable.name
if cable_id and cable_name:
cable_id_to_name_map[cable_id] = cable_name
if not records:
raise HTTPException(
status_code=404,
detail="No landing point data found. Please run the arcgis_landing_points collector first.",
)
return convert_landing_point_to_geojson(records, city_to_cable_ids_map, cable_id_to_name_map)
except HTTPException:
raise
except Exception as e:
raise HTTPException(status_code=500, detail=f"Internal error: {str(e)}")
@router.get("/geo/all")
async def get_all_geojson(db: AsyncSession = Depends(get_db)):
cables_stmt = select(CollectedData).where(CollectedData.source == "arcgis_cables")
cables_result = await db.execute(cables_stmt)
cables_records = dedupe_collected_records(list(cables_result.scalars().all()))
points_stmt = select(CollectedData).where(CollectedData.source == "arcgis_landing_points")
points_result = await db.execute(points_stmt)
points_records = dedupe_collected_records(list(points_result.scalars().all()))
relation_stmt = select(CollectedData).where(CollectedData.source == "arcgis_cable_landing_relation")
relation_result = await db.execute(relation_stmt)
relation_records = dedupe_collected_records(list(relation_result.scalars().all()))
city_to_cable_ids_map = {}
for rel in relation_records:
if rel.extra_data:
city_id = rel.extra_data.get("city_id")
cable_id = rel.extra_data.get("cable_id")
if city_id is not None and cable_id is not None:
if city_id not in city_to_cable_ids_map:
city_to_cable_ids_map[city_id] = []
if cable_id not in city_to_cable_ids_map[city_id]:
city_to_cable_ids_map[city_id].append(cable_id)
cable_id_to_name_map = {}
for cable in cables_records:
if cable.extra_data:
cable_id = cable.extra_data.get("cable_id")
cable_name = cable.name
if cable_id and cable_name:
cable_id_to_name_map[cable_id] = cable_name
cables = (
convert_cable_to_geojson(cables_records)
if cables_records
else {"type": "FeatureCollection", "features": []}
)
points = (
convert_landing_point_to_geojson(points_records, city_to_cable_ids_map, cable_id_to_name_map)
if points_records
else {"type": "FeatureCollection", "features": []}
)
return {
"cables": cables,
"landing_points": points,
"stats": {
"cable_count": len(cables.get("features", [])) if cables else 0,
"landing_point_count": len(points.get("features", [])) if points else 0,
},
}
@router.get("/geo/satellites")
async def get_satellites_geojson(
limit: Optional[int] = Query(
None,
ge=1,
description="Maximum number of satellites to return. Omit for no limit.",
),
db: AsyncSession = Depends(get_db),
):
"""获取卫星 TLE GeoJSON 数据"""
stmt = (
select(CollectedData)
.where(CollectedData.source == "celestrak_tle")
.where(CollectedData.name != "Unknown")
.order_by(CollectedData.id.desc())
)
result = await db.execute(stmt)
records = dedupe_satellite_records(list(result.scalars().all()))
if limit is not None:
records = records[:limit]
if not records:
return {"type": "FeatureCollection", "features": [], "count": 0}
geojson = convert_satellite_to_geojson(list(records))
return {
**geojson,
"count": len(geojson.get("features", [])),
}
@router.get("/geo/supercomputers")
async def get_supercomputers_geojson(
limit: int = 500,
db: AsyncSession = Depends(get_db),
):
"""获取 TOP500 超算中心 GeoJSON 数据"""
stmt = (
select(CollectedData)
.where(CollectedData.source == "top500")
.where(CollectedData.name != "Unknown")
.order_by(CollectedData.id.desc())
)
result = await db.execute(stmt)
records = dedupe_collected_records(list(result.scalars().all()))
records = records[:limit]
if not records:
return {"type": "FeatureCollection", "features": [], "count": 0}
geojson = convert_supercomputer_to_geojson(list(records))
return {
**geojson,
"count": len(geojson.get("features", [])),
}
@router.get("/geo/gpu-clusters")
async def get_gpu_clusters_geojson(
limit: int = 100,
db: AsyncSession = Depends(get_db),
):
"""获取 GPU 集群 GeoJSON 数据"""
stmt = (
select(CollectedData)
.where(CollectedData.source == "epoch_ai_gpu")
.where(CollectedData.name != "Unknown")
.order_by(CollectedData.id.desc())
)
result = await db.execute(stmt)
records = dedupe_collected_records(list(result.scalars().all()))
records = records[:limit]
if not records:
return {"type": "FeatureCollection", "features": [], "count": 0}
geojson = convert_gpu_cluster_to_geojson(list(records))
return {
**geojson,
"count": len(geojson.get("features", [])),
}
@router.get("/geo/bgp-anomalies")
async def get_bgp_anomalies_geojson(
severity: Optional[str] = Query(None),
status: Optional[str] = Query("active"),
limit: int = Query(200, ge=1, le=1000),
db: AsyncSession = Depends(get_db),
):
stmt = select(BGPAnomaly).order_by(BGPAnomaly.created_at.desc()).limit(limit)
if severity:
stmt = stmt.where(BGPAnomaly.severity == severity)
if status:
stmt = stmt.where(BGPAnomaly.status == status)
result = await db.execute(stmt)
records = list(result.scalars().all())
geography_hints = await build_anomaly_geography_hints(db, records)
geojson = convert_bgp_anomalies_to_geojson(records, geography_hints)
return {**geojson, "count": len(geojson.get("features", []))}
@router.get("/geo/bgp-incidents")
async def get_bgp_incidents_geojson(
severity: Optional[str] = Query(None),
status: Optional[str] = Query("active"),
limit: int = Query(100, ge=1, le=500),
db: AsyncSession = Depends(get_db),
):
stmt = select(BGPIncident).order_by(BGPIncident.created_at.desc()).limit(limit)
if severity:
stmt = stmt.where(BGPIncident.severity == severity)
if status:
stmt = stmt.where(BGPIncident.status == status)
result = await db.execute(stmt)
records = list(result.scalars().all())
geography_hints = await build_incident_geography_hints(db, records)
geojson = convert_bgp_incidents_to_geojson(records, geography_hints)
return {**geojson, "count": len(geojson.get("features", []))}
@router.get("/geo/bgp-collectors")
async def get_bgp_collectors_geojson(db: AsyncSession = Depends(get_db)):
coverage = await build_bgp_collector_coverage(
db,
source_filter=("ris_live_bgp", "bgpstream_bgp"),
)
coverage_by_collector = {
item["collector"]: item
for item in coverage
if item.get("collector")
}
geojson = convert_bgp_collectors_to_geojson(coverage_by_collector)
return {**geojson, "count": len(geojson.get("features", []))}
@router.get("/all")
async def get_all_visualization_data(db: AsyncSession = Depends(get_db)):
"""获取所有可视化数据的统一端点
Returns GeoJSON FeatureCollections for all data types:
- satellites: 卫星 TLE 数据
- cables: 海底电缆
- landing_points: 登陆点
- supercomputers: TOP500 超算
- gpu_clusters: GPU 集群
"""
cables_stmt = select(CollectedData).where(CollectedData.source == "arcgis_cables")
cables_result = await db.execute(cables_stmt)
cables_records = dedupe_collected_records(list(cables_result.scalars().all()))
points_stmt = select(CollectedData).where(CollectedData.source == "arcgis_landing_points")
points_result = await db.execute(points_stmt)
points_records = dedupe_collected_records(list(points_result.scalars().all()))
satellites_stmt = (
select(CollectedData)
.where(CollectedData.source == "celestrak_tle")
.where(CollectedData.name != "Unknown")
)
satellites_result = await db.execute(satellites_stmt)
satellites_records = dedupe_satellite_records(list(satellites_result.scalars().all()))
supercomputers_stmt = (
select(CollectedData)
.where(CollectedData.source == "top500")
.where(CollectedData.name != "Unknown")
)
supercomputers_result = await db.execute(supercomputers_stmt)
supercomputers_records = dedupe_collected_records(list(supercomputers_result.scalars().all()))
gpu_stmt = (
select(CollectedData)
.where(CollectedData.source == "epoch_ai_gpu")
.where(CollectedData.name != "Unknown")
)
gpu_result = await db.execute(gpu_stmt)
gpu_records = dedupe_collected_records(list(gpu_result.scalars().all()))
cables = (
convert_cable_to_geojson(cables_records)
if cables_records
else {"type": "FeatureCollection", "features": []}
)
landing_points = (
convert_landing_point_to_geojson(points_records)
if points_records
else {"type": "FeatureCollection", "features": []}
)
satellites = (
convert_satellite_to_geojson(satellites_records)
if satellites_records
else {"type": "FeatureCollection", "features": []}
)
supercomputers = (
convert_supercomputer_to_geojson(supercomputers_records)
if supercomputers_records
else {"type": "FeatureCollection", "features": []}
)
gpu_clusters = (
convert_gpu_cluster_to_geojson(gpu_records)
if gpu_records
else {"type": "FeatureCollection", "features": []}
)
return {
"generated_at": to_iso8601_utc(datetime.now(UTC)),
"version": "1.0",
"data": {
"satellites": satellites,
"cables": cables,
"landing_points": landing_points,
"supercomputers": supercomputers,
"gpu_clusters": gpu_clusters,
},
"stats": {
"total_features": (
len(satellites.get("features", []))
+ len(cables.get("features", []))
+ len(landing_points.get("features", []))
+ len(supercomputers.get("features", []))
+ len(gpu_clusters.get("features", []))
),
"satellites": len(satellites.get("features", [])),
"cables": len(cables.get("features", [])),
"landing_points": len(landing_points.get("features", [])),
"supercomputers": len(supercomputers.get("features", [])),
"gpu_clusters": len(gpu_clusters.get("features", [])),
},
}
# Cache for cable graph
_cable_graph: Optional[CableGraph] = None
async def get_cable_graph(db: AsyncSession) -> CableGraph:
"""Get or build cable graph (cached)"""
global _cable_graph
if _cable_graph is None:
cables_stmt = select(CollectedData).where(CollectedData.source == "arcgis_cables")
cables_result = await db.execute(cables_stmt)
cables_records = list(cables_result.scalars().all())
points_stmt = select(CollectedData).where(CollectedData.source == "arcgis_landing_points")
points_result = await db.execute(points_stmt)
points_records = list(points_result.scalars().all())
cables_data = convert_cable_to_geojson(cables_records)
points_data = convert_landing_point_to_geojson(points_records)
_cable_graph = build_graph_from_data(cables_data, points_data)
return _cable_graph
@router.post("/geo/path")
async def find_path(
start: List[float],
end: List[float],
db: AsyncSession = Depends(get_db),
):
"""Find shortest path between two coordinates via cable network"""
if not start or len(start) != 2:
raise HTTPException(status_code=400, detail="Start must be [lon, lat]")
if not end or len(end) != 2:
raise HTTPException(status_code=400, detail="End must be [lon, lat]")
graph = await get_cable_graph(db)
result = graph.find_shortest_path(start, end)
if not result:
raise HTTPException(
status_code=404,
detail="No path found between these points. They may be too far from any landing point.",
)
return result