feat(coverage): universal coverage-bbox foundation (config + derivation module) (#59)

Phase 1 of replacing per-adapter geographic scoping with one coverage
bbox. Adds a `coverage.bbox` [W,S,E,N] config and meshai/coverage.py — a
pure, tested derivation layer: geometry primitives (point_in_bbox,
intersects, centroid, grid_points, arcgis_envelope) + static US-state and
avalanche-center bbox tables + resolve_adapter_coverage() mapping one bbox
to each native adapter's effective scope. Central-fed adapters return None
(Central governs). No adapter wiring or GUI yet — foundation only.

Co-authored-by: Matt Johnson <mj@k7zvx.com>
Co-authored-by: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
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malice 2026-07-06 08:27:53 -06:00 committed by GitHub
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@ -792,6 +792,23 @@ class DangerZonesConfig:
f"({sorted(VALID_TOGGLES)})")
@dataclass
class Coverage:
"""Universal geographic coverage bounding box.
A single [west, south, east, north] bbox that drives every native adapter's
effective scope in Phase 2+. Phase 1 defines the shape; no adapter is wired yet.
bbox: [west, south, east, north] = [min_lon, min_lat, max_lon, max_lat].
Empty list means "not configured" adapters fall back to their own scope.
enabled: master switch; when False, adapters fall back to their own scope even
if bbox is populated.
"""
bbox: list = field(default_factory=list) # [west, south, east, north]; empty = not configured
enabled: bool = True # master switch for deriving adapter scope from bbox
@dataclass
class Config:
"""Main configuration container."""
@ -817,6 +834,7 @@ class Config:
dashboard: DashboardConfig = field(default_factory=DashboardConfig)
notifications: NotificationsConfig = field(default_factory=NotificationsConfig)
danger_zones: DangerZonesConfig = field(default_factory=DangerZonesConfig)
coverage: Coverage = field(default_factory=Coverage)
_config_path: Optional[Path] = field(default=None, repr=False)
@ -980,6 +998,8 @@ def _dict_to_dataclass(cls, data: dict):
kwargs[key] = _dict_to_dataclass(EnvironmentalConfig, value)
elif key == "dashboard" and isinstance(value, dict):
kwargs[key] = _dict_to_dataclass(DashboardConfig, value)
elif key == "coverage" and isinstance(value, dict):
kwargs[key] = _dict_to_dataclass(Coverage, value)
elif key == "toggles" and isinstance(value, dict):
# v0.5: notifications.toggles is a dict of family -> NotificationToggle
kwargs[key] = {

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@ -56,6 +56,7 @@ SECTION_TO_FILE: dict[str, str] = {
"llm": "llm.yaml",
"dashboard": "dashboard.yaml",
"danger_zones": "danger_zones.yaml",
"coverage": "config.yaml",
}
# Fields that should be written to local.yaml instead of domain files

359
work/meshai/coverage.py Normal file
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@ -0,0 +1,359 @@
"""Universal coverage bounding-box derivation for MeshAI.
Bbox convention (used consistently throughout this module and the Phase 2+ wiring):
bbox = [west, south, east, north]
= [min_lon, min_lat, max_lon, max_lat]
This matches the order used by the USGS-quake native adapter (env/usgs_quake.py)
and the Roads511/WZDx config fields. It is also the natural ArcGIS envelope order
(xmin, ymin, xmax, ymax).
Central-fed adapters (feed_source="central") ALWAYS return None from
resolve_adapter_coverage Central governs their geographic scope entirely.
All functions here are pure (no I/O, no network, deterministic) so they can be
unit-tested without any runtime environment.
"""
from __future__ import annotations
# ---------------------------------------------------------------------------
# Geometry primitives
# ---------------------------------------------------------------------------
def bbox_is_valid(bbox) -> bool:
"""Return True iff *bbox* is a well-formed [W, S, E, N] bounding box.
Rules:
- Must be a sequence of exactly 4 numbers.
- west < east (non-zero width).
- south < north (non-zero height).
- Latitudes in [-90, 90].
- Longitudes in [-180, 180].
"""
if not isinstance(bbox, (list, tuple)) or len(bbox) != 4:
return False
west, south, east, north = bbox
try:
west, south, east, north = float(west), float(south), float(east), float(north)
except (TypeError, ValueError):
return False
if not (-180 <= west <= 180 and -180 <= east <= 180):
return False
if not (-90 <= south <= 90 and -90 <= north <= 90):
return False
if west >= east:
return False
if south >= north:
return False
return True
def point_in_bbox(lat: float, lon: float, bbox) -> bool:
"""Return True iff (lat, lon) lies inside *bbox* = [W, S, E, N]."""
west, south, east, north = bbox
return south <= lat <= north and west <= lon <= east
def bbox_intersects(a, b) -> bool:
"""Return True iff two [W, S, E, N] bounding boxes overlap (share any area).
Boxes that only share an edge or a corner are considered to *not* intersect
(strict inequality on all four sides).
"""
# a overlaps b iff a's west is west of b's east AND a's east is east of b's west
# AND a's south is south of b's north AND a's north is north of b's south.
a_west, a_south, a_east, a_north = a
b_west, b_south, b_east, b_north = b
return (
a_west < b_east and a_east > b_west
and a_south < b_north and a_north > b_south
)
def centroid(bbox) -> tuple[float, float]:
"""Return the (lat, lon) center of *bbox* = [W, S, E, N]."""
west, south, east, north = bbox
return ((south + north) / 2.0, (west + east) / 2.0)
def grid_points(bbox, cols: int = 3, rows: int = 3) -> list[tuple[float, float]]:
"""Return a cols×rows grid of (lat, lon) sample points across *bbox*.
Points are placed at the *centers* of each grid cell so none sit on the
bounding-box edges. Returned in row-major order (south to north, west to east).
Used by the traffic adapter to distribute flow-query points across the
coverage area.
"""
west, south, east, north = bbox
lon_step = (east - west) / cols
lat_step = (north - south) / rows
points = []
for row in range(rows):
lat = south + (row + 0.5) * lat_step
for col in range(cols):
lon = west + (col + 0.5) * lon_step
points.append((lat, lon))
return points
def arcgis_envelope(bbox) -> dict:
"""Return ArcGIS FeatureServer spatial-filter query params for *bbox*.
The returned dict is ready to merge into a FeatureServer query string:
{"geometry": "xmin,ymin,xmax,ymax",
"geometryType": "esriGeometryEnvelope",
"spatialRel": "esriSpatialRelIntersects",
"inSR": "4326"}
xmin=west, ymin=south, xmax=east, ymax=north (standard ArcGIS convention).
"""
west, south, east, north = bbox
return {
"geometry": f"{west},{south},{east},{north}",
"geometryType": "esriGeometryEnvelope",
"spatialRel": "esriSpatialRelIntersects",
"inSR": "4326",
}
# ---------------------------------------------------------------------------
# US state bbox table
# ---------------------------------------------------------------------------
# Approximate [west, south, east, north] bboxes per 2-letter US state code.
# Err slightly LARGE so border events aren't missed. Values are not exact
# legal boundaries; they are generous bounding rectangles for intersection tests.
US_STATE_BBOXES: dict[str, list[float]] = {
# Western / Mountain states — thorough
"AK": [-180.0, 51.0, -130.0, 71.5],
"AZ": [-114.9, 31.3, -109.0, 37.0],
"CA": [-124.5, 32.5, -114.1, 42.0],
"CO": [-109.1, 36.9, -102.0, 41.1],
"HI": [-160.3, 18.9, -154.8, 22.3],
"ID": [-117.3, 41.9, -111.0, 49.1],
"MT": [-116.1, 44.3, -104.0, 49.1],
"NM": [-109.1, 31.3, -103.0, 37.0],
"NV": [-120.0, 35.0, -114.0, 42.1],
"OR": [-124.6, 41.9, -116.5, 46.3],
"UT": [-114.1, 36.9, -109.0, 42.1],
"WA": [-124.7, 45.5, -116.9, 49.1],
"WY": [-111.1, 40.9, -104.0, 45.1],
# Pacific / Southwest
"AS": [-171.1, -14.6, -168.1, -11.0], # American Samoa
"GU": [144.6, 13.2, 145.0, 13.7], # Guam
"MP": [145.0, 14.9, 146.1, 20.6], # N. Mariana Islands
"PR": [-67.3, 17.9, -65.6, 18.6], # Puerto Rico
"VI": [-65.1, 17.7, -64.6, 18.4], # US Virgin Islands
# Great Plains
"KS": [-102.1, 36.9, -94.6, 40.1],
"ND": [-104.1, 45.9, -96.6, 49.1],
"NE": [-104.1, 39.9, -95.3, 43.1],
"OK": [-103.1, 33.6, -94.4, 37.1],
"SD": [-104.1, 42.4, -96.4, 45.9],
"TX": [-106.7, 25.8, -93.5, 36.6],
# Midwest
"IA": [-96.7, 40.3, -90.1, 43.6],
"IL": [-91.5, 36.9, -87.0, 42.5],
"IN": [-88.1, 37.8, -84.8, 41.8],
"MI": [-90.4, 41.7, -82.4, 48.3],
"MN": [-97.3, 43.5, -89.5, 49.4],
"MO": [-95.8, 35.9, -89.1, 40.6],
"OH": [-84.8, 38.4, -80.5, 42.0],
"WI": [-92.9, 42.5, -86.8, 47.1],
# South
"AL": [-88.5, 30.1, -84.9, 35.0],
"AR": [-94.6, 33.0, -89.6, 36.5],
"FL": [-87.6, 24.4, -80.0, 31.1],
"GA": [-85.6, 30.4, -80.8, 35.0],
"KY": [-89.6, 36.5, -81.9, 39.2],
"LA": [-94.1, 28.9, -88.8, 33.0],
"MS": [-91.7, 30.2, -88.1, 35.0],
"NC": [-84.3, 33.9, -75.5, 36.6],
"SC": [-83.4, 32.0, -78.5, 35.2],
"TN": [-90.3, 34.9, -81.6, 36.7],
"VA": [-83.7, 36.5, -75.2, 39.5],
"WV": [-82.7, 37.2, -77.7, 40.6],
# Northeast
"CT": [-73.7, 41.0, -71.8, 42.1],
"DC": [-77.1, 38.8, -76.9, 39.0],
"DE": [-75.8, 38.4, -75.0, 39.9],
"MA": [-73.5, 41.2, -69.9, 42.9],
"MD": [-79.5, 37.9, -75.0, 39.7],
"ME": [-71.1, 43.0, -66.9, 47.5],
"NH": [-72.6, 42.7, -70.7, 45.3],
"NJ": [-75.6, 38.9, -73.9, 41.4],
"NY": [-79.8, 40.5, -71.9, 45.0],
"PA": [-80.5, 39.7, -74.7, 42.3],
"RI": [-71.9, 41.1, -71.1, 42.0],
"VT": [-73.4, 42.7, -71.5, 45.1],
}
def states_for_bbox(bbox) -> list[str]:
"""Return sorted state codes whose bbox intersects the given coverage bbox.
Uses bbox_intersects; a state whose bounding rectangle overlaps the coverage
rectangle is included. Deduped and sorted alphabetically.
"""
result = []
for code, state_bbox in US_STATE_BBOXES.items():
if bbox_intersects(bbox, state_bbox):
result.append(code)
return sorted(set(result))
# ---------------------------------------------------------------------------
# Avalanche center bbox table
# ---------------------------------------------------------------------------
# Approximate [west, south, east, north] bboxes for US avalanche centers.
# IDs match what the AvalancheConfig.center_ids field expects.
# Err large — we want to include a center if there's any reasonable chance
# its forecast area overlaps the user's coverage box.
AVALANCHE_CENTER_BBOXES: dict[str, list[float]] = {
# Idaho
"SNFAC": [-116.5, 43.0, -113.5, 45.5], # Sawtooth NF (Sun Valley / Stanley area)
"PAC": [-117.0, 43.5, -115.0, 44.8], # Payette Avalanche Center (SW Idaho)
"IPAC": [-117.3, 46.5, -115.0, 49.1], # Idaho Panhandle (N Idaho)
# Montana
"GNFAC": [-112.5, 44.0, -108.5, 46.5], # Gallatin NF (SW Montana / NW Wyoming)
"FAC": [-115.5, 46.5, -112.5, 49.1], # Flathead Avalanche Center (NW Montana)
"WCMAC": [-114.5, 46.0, -111.5, 48.5], # West Central Montana
# Wyoming
"BTAC": [-111.5, 42.5, -109.0, 44.5], # Bridger-Teton (Tetons / Jackson Hole)
# Colorado
"CAIC": [-109.1, 36.9, -102.0, 41.1], # Colorado Avalanche Information Center
"CBAC": [-108.0, 38.0, -105.5, 39.5], # Crested Butte Avalanche Center
# Utah
"UAC": [-114.1, 36.9, -109.0, 42.1], # Utah Avalanche Center
# Washington / Oregon
"NWAC": [-124.7, 45.5, -120.5, 49.1], # Northwest Avalanche Center (WA + OR Cascades)
"COAA": [-122.5, 43.5, -120.0, 45.5], # Central Oregon Avalanche Association
# California
"SAC": [-121.0, 38.5, -119.0, 40.5], # Sierra Avalanche Center (Lake Tahoe)
"ESAC": [-119.5, 37.0, -117.5, 38.8], # Eastern Sierra Avalanche Center (Mammoth)
# New Mexico / Arizona
"NWRFC": [-108.5, 35.5, -105.5, 37.5], # New Mexico (Taos area)
}
def avalanche_centers_for_bbox(bbox) -> list[str]:
"""Return sorted center IDs whose area intersects the given coverage bbox."""
result = []
for center_id, center_bbox in AVALANCHE_CENTER_BBOXES.items():
if bbox_intersects(bbox, center_bbox):
result.append(center_id)
return sorted(set(result))
# ---------------------------------------------------------------------------
# Per-adapter resolver
# ---------------------------------------------------------------------------
# Adapters whose feed_source can be "central"; when it is, coverage is
# governed entirely by Central and we return None.
_CENTRAL_CAPABLE = frozenset({
"fires", "nws", "swpc", "ducting", "avalanche", "usgs", "usgs_quake",
"traffic", "roads511", "wzdx", "firms", "satpass",
})
# Adapters that are inherently global and have no meaningful geographic scope.
_GLOBAL_ADAPTERS = frozenset({"swpc"})
def resolve_adapter_coverage(
adapter: str,
coverage_bbox: list,
feed_source: str = "native",
) -> dict | None:
"""Map one universal coverage bbox to an adapter's effective scope params.
Args:
adapter: The adapter name (e.g. "nws", "fires", "satpass").
coverage_bbox: The [west, south, east, north] coverage bbox from config.
feed_source: "native" or "central". Central-fed adapters always
return None (Central governs coverage).
Returns:
None when the caller should fall back to the adapter's own config:
- feed_source == "central"
- coverage_bbox is empty or invalid
- adapter is global (swpc) or unknown
dict containing ONLY the keys relevant to that adapter:
fires / wfigs / nicf:
{"envelope": arcgis_envelope(bbox), "bbox": bbox}
nws:
{"areas": states_for_bbox(bbox), "bbox": bbox}
wzdx:
{"states": states_for_bbox(bbox), "bbox": bbox}
usgs_quake / firms / roads511 / usgs:
{"bbox": bbox}
avalanche:
{"center_ids": avalanche_centers_for_bbox(bbox)}
traffic:
{"points": grid_points(bbox)}
satpass / ducting:
{"centroid": centroid(bbox)}
"""
# Central governs scope — never override.
if feed_source == "central":
return None
# No valid bbox — caller falls back to adapter's own config.
if not coverage_bbox or not bbox_is_valid(coverage_bbox):
return None
# Global adapters have no geographic scope.
if adapter in _GLOBAL_ADAPTERS:
return None
bbox = list(coverage_bbox) # defensive copy
if adapter in ("fires", "wfigs", "nicf"):
return {
"envelope": arcgis_envelope(bbox),
"bbox": bbox,
}
if adapter == "nws":
return {
"areas": states_for_bbox(bbox),
"bbox": bbox,
}
if adapter == "wzdx":
return {
"states": states_for_bbox(bbox),
"bbox": bbox,
}
if adapter in ("usgs_quake", "firms", "roads511", "usgs"):
return {"bbox": bbox}
if adapter == "avalanche":
return {"center_ids": avalanche_centers_for_bbox(bbox)}
if adapter == "traffic":
return {"points": grid_points(bbox)}
if adapter in ("satpass", "ducting"):
return {"centroid": centroid(bbox)}
# Unknown adapter or inherently global — no coverage override.
return None

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@ -0,0 +1,475 @@
"""Tests for meshai/coverage.py — pure coverage-bbox derivation module.
Bbox convention: [west, south, east, north] = [min_lon, min_lat, max_lon, max_lat].
All functions are pure (no I/O) so no fixtures are needed.
"""
from __future__ import annotations
import pytest
from meshai.coverage import (
AVALANCHE_CENTER_BBOXES,
US_STATE_BBOXES,
arcgis_envelope,
avalanche_centers_for_bbox,
bbox_intersects,
bbox_is_valid,
centroid,
grid_points,
point_in_bbox,
resolve_adapter_coverage,
states_for_bbox,
)
# ---------------------------------------------------------------------------
# Reference boxes used in multiple tests
# ---------------------------------------------------------------------------
# Magic Valley / south-central Idaho
IDAHO_BOX = [-116.5, 42.0, -112.0, 44.0]
# Straddles the ID/OR border (western edge is inside Oregon)
ID_OR_BOX = [-118.0, 43.5, -115.0, 46.0]
# A box clearly out in the Pacific — no US states
PACIFIC_BOX = [-170.0, 20.0, -160.0, 25.0] # hits HI
# Very small Wyoming box (no avalanche centers overlap)
SMALL_WY_BOX = [-106.0, 41.5, -105.5, 42.0]
# ===========================================================================
# bbox_is_valid
# ===========================================================================
def test_valid_box_passes():
assert bbox_is_valid([-116.5, 42.0, -112.0, 44.0]) is True
def test_valid_box_tuple_passes():
assert bbox_is_valid((-116.5, 42.0, -112.0, 44.0)) is True
def test_invalid_wrong_length():
assert bbox_is_valid([-116.5, 42.0, -112.0]) is False
def test_invalid_empty():
assert bbox_is_valid([]) is False
def test_invalid_west_equals_east():
assert bbox_is_valid([-112.0, 42.0, -112.0, 44.0]) is False
def test_invalid_west_greater_than_east():
assert bbox_is_valid([-110.0, 42.0, -116.0, 44.0]) is False
def test_invalid_south_equals_north():
assert bbox_is_valid([-116.5, 44.0, -112.0, 44.0]) is False
def test_invalid_south_greater_than_north():
assert bbox_is_valid([-116.5, 46.0, -112.0, 42.0]) is False
def test_invalid_lat_out_of_range():
assert bbox_is_valid([-116.5, -91.0, -112.0, 44.0]) is False
assert bbox_is_valid([-116.5, 42.0, -112.0, 91.0]) is False
def test_invalid_lon_out_of_range():
assert bbox_is_valid([-181.0, 42.0, -112.0, 44.0]) is False
assert bbox_is_valid([-116.5, 42.0, 181.0, 44.0]) is False
def test_invalid_non_numeric():
assert bbox_is_valid([-116.5, "bad", -112.0, 44.0]) is False
def test_invalid_none():
assert bbox_is_valid(None) is False
# ===========================================================================
# point_in_bbox
# ===========================================================================
def test_point_inside_box():
assert point_in_bbox(43.0, -114.0, IDAHO_BOX) is True
def test_point_on_south_edge():
# On-edge counts as inside (inclusive)
assert point_in_bbox(42.0, -114.0, IDAHO_BOX) is True
def test_point_on_north_edge():
assert point_in_bbox(44.0, -114.0, IDAHO_BOX) is True
def test_point_outside_box_south():
assert point_in_bbox(41.9, -114.0, IDAHO_BOX) is False
def test_point_outside_box_north():
assert point_in_bbox(44.1, -114.0, IDAHO_BOX) is False
def test_point_outside_box_west():
assert point_in_bbox(43.0, -117.0, IDAHO_BOX) is False
def test_point_outside_box_east():
assert point_in_bbox(43.0, -111.0, IDAHO_BOX) is False
# ===========================================================================
# bbox_intersects
# ===========================================================================
def test_overlapping_boxes_intersect():
# Boxes share a large area
a = [-116.0, 42.0, -112.0, 44.0]
b = [-114.0, 43.0, -110.0, 45.0]
assert bbox_intersects(a, b) is True
assert bbox_intersects(b, a) is True # symmetric
def test_disjoint_boxes_do_not_intersect_east_west():
a = [-120.0, 42.0, -116.0, 44.0]
b = [-114.0, 42.0, -110.0, 44.0]
assert bbox_intersects(a, b) is False
def test_disjoint_boxes_do_not_intersect_north_south():
a = [-116.0, 42.0, -112.0, 44.0]
b = [-116.0, 45.0, -112.0, 47.0]
assert bbox_intersects(a, b) is False
def test_touching_edge_does_not_intersect():
# Boxes share only an edge — strict intersection → False
a = [-116.0, 42.0, -112.0, 44.0]
b = [-112.0, 42.0, -108.0, 44.0]
assert bbox_intersects(a, b) is False
def test_identical_boxes_intersect():
a = [-116.0, 42.0, -112.0, 44.0]
assert bbox_intersects(a, a) is True
def test_one_box_contained_in_other():
outer = [-120.0, 40.0, -110.0, 50.0]
inner = [-116.0, 42.0, -112.0, 44.0]
assert bbox_intersects(outer, inner) is True
assert bbox_intersects(inner, outer) is True
# ===========================================================================
# centroid
# ===========================================================================
def test_centroid_basic():
lat, lon = centroid([-116.0, 42.0, -112.0, 44.0])
assert lat == pytest.approx(43.0)
assert lon == pytest.approx(-114.0)
def test_centroid_asymmetric():
lat, lon = centroid([-116.5, 42.0, -112.0, 44.0])
assert lat == pytest.approx(43.0)
assert lon == pytest.approx(-114.25)
# ===========================================================================
# grid_points
# ===========================================================================
def test_grid_points_default_count():
pts = grid_points(IDAHO_BOX)
assert len(pts) == 9 # 3x3
def test_grid_points_custom_count():
pts = grid_points(IDAHO_BOX, cols=4, rows=2)
assert len(pts) == 8
def test_grid_points_all_inside_box():
"""All returned points must lie strictly inside the bbox (not on edges)."""
west, south, east, north = IDAHO_BOX
for lat, lon in grid_points(IDAHO_BOX, cols=3, rows=3):
assert south < lat < north, f"lat {lat} not strictly inside [{south}, {north}]"
assert west < lon < east, f"lon {lon} not strictly inside [{west}, {east}]"
def test_grid_points_1x1_is_centroid():
lat, lon = grid_points(IDAHO_BOX, cols=1, rows=1)[0]
clat, clon = centroid(IDAHO_BOX)
assert lat == pytest.approx(clat)
assert lon == pytest.approx(clon)
def test_grid_points_return_type():
pts = grid_points(IDAHO_BOX)
assert all(isinstance(p, tuple) and len(p) == 2 for p in pts)
# ===========================================================================
# arcgis_envelope
# ===========================================================================
def test_arcgis_envelope_keys():
result = arcgis_envelope(IDAHO_BOX)
assert set(result.keys()) == {"geometry", "geometryType", "spatialRel", "inSR"}
def test_arcgis_envelope_geometry_string():
result = arcgis_envelope([-116.5, 42.0, -112.0, 44.0])
assert result["geometry"] == "-116.5,42.0,-112.0,44.0"
def test_arcgis_envelope_static_fields():
result = arcgis_envelope(IDAHO_BOX)
assert result["geometryType"] == "esriGeometryEnvelope"
assert result["spatialRel"] == "esriSpatialRelIntersects"
assert result["inSR"] == "4326"
def test_arcgis_envelope_known_box():
bbox = [-117.0, 43.0, -113.0, 46.0]
env = arcgis_envelope(bbox)
assert env["geometry"] == "-117.0,43.0,-113.0,46.0"
# ===========================================================================
# states_for_bbox
# ===========================================================================
def test_idaho_box_returns_id():
states = states_for_bbox(IDAHO_BOX)
assert "ID" in states
def test_idaho_box_does_not_return_far_states():
"""A south-central Idaho box should not pull in distant states."""
states = states_for_bbox(IDAHO_BOX)
for far in ("FL", "ME", "TX", "NY"):
assert far not in states, f"unexpected far state {far} in {states}"
def test_id_or_straddling_box_returns_both():
states = states_for_bbox(ID_OR_BOX)
assert "ID" in states
assert "OR" in states
def test_result_is_sorted():
states = states_for_bbox(ID_OR_BOX)
assert states == sorted(states)
def test_result_is_deduped():
states = states_for_bbox(IDAHO_BOX)
assert len(states) == len(set(states))
def test_pacific_box_returns_only_hi():
states = states_for_bbox(PACIFIC_BOX)
# Hawaii bbox is [-160.3, 18.9, -154.8, 22.3]; PACIFIC_BOX overlaps it.
assert "HI" in states
# Continental states should not appear.
for continental in ("ID", "OR", "WA", "CA", "TX"):
assert continental not in states
def test_state_bboxes_table_has_all_50_plus_dc():
"""The table must have at least 51 entries (50 states + DC)."""
# We may also have territories; just require 50 states + DC minimum.
required = {
"AL", "AK", "AZ", "AR", "CA", "CO", "CT", "DE", "DC", "FL",
"GA", "HI", "ID", "IL", "IN", "IA", "KS", "KY", "LA", "ME",
"MD", "MA", "MI", "MN", "MS", "MO", "MT", "NE", "NV", "NH",
"NJ", "NM", "NY", "NC", "ND", "OH", "OK", "OR", "PA", "RI",
"SC", "SD", "TN", "TX", "UT", "VT", "VA", "WA", "WV", "WI", "WY",
}
assert required.issubset(set(US_STATE_BBOXES.keys()))
# ===========================================================================
# avalanche_centers_for_bbox
# ===========================================================================
def test_idaho_box_includes_snfac():
centers = avalanche_centers_for_bbox(IDAHO_BOX)
assert "SNFAC" in centers
def test_result_is_sorted_deduped():
centers = avalanche_centers_for_bbox(IDAHO_BOX)
assert centers == sorted(centers)
assert len(centers) == len(set(centers))
def test_pacific_box_no_continental_centers():
centers = avalanche_centers_for_bbox(PACIFIC_BOX)
for c in ("SNFAC", "CAIC", "UAC"):
assert c not in centers
def test_avalanche_center_bboxes_includes_snfac_key():
assert "SNFAC" in AVALANCHE_CENTER_BBOXES
# ===========================================================================
# resolve_adapter_coverage
# ===========================================================================
# ---- None-returning cases ------------------------------------------------
def test_central_feed_returns_none():
assert resolve_adapter_coverage("nws", IDAHO_BOX, feed_source="central") is None
def test_empty_bbox_returns_none():
assert resolve_adapter_coverage("nws", [], feed_source="native") is None
def test_invalid_bbox_returns_none():
assert resolve_adapter_coverage("nws", [-116.5, 44.0, -112.0, 42.0]) is None
def test_swpc_returns_none():
"""SWPC is global — no geographic scope regardless of bbox."""
assert resolve_adapter_coverage("swpc", IDAHO_BOX) is None
def test_unknown_adapter_returns_none():
assert resolve_adapter_coverage("no_such_adapter", IDAHO_BOX) is None
# ---- fires adapter -------------------------------------------------------
def test_fires_returns_envelope_and_bbox():
result = resolve_adapter_coverage("fires", IDAHO_BOX)
assert result is not None
assert "envelope" in result
assert "bbox" in result
assert result["bbox"] == IDAHO_BOX
env = result["envelope"]
assert "geometry" in env
assert env["geometryType"] == "esriGeometryEnvelope"
# ---- nws adapter ---------------------------------------------------------
def test_nws_returns_areas_and_bbox():
result = resolve_adapter_coverage("nws", IDAHO_BOX)
assert result is not None
assert "areas" in result
assert "bbox" in result
assert "ID" in result["areas"]
assert result["bbox"] == IDAHO_BOX
def test_nws_areas_is_list():
result = resolve_adapter_coverage("nws", IDAHO_BOX)
assert isinstance(result["areas"], list)
# ---- wzdx adapter --------------------------------------------------------
def test_wzdx_returns_states_and_bbox():
result = resolve_adapter_coverage("wzdx", IDAHO_BOX)
assert result is not None
assert "states" in result
assert "bbox" in result
assert "ID" in result["states"]
# ---- bbox-only adapters --------------------------------------------------
@pytest.mark.parametrize("adapter", ["usgs_quake", "firms", "roads511", "usgs"])
def test_bbox_only_adapters(adapter):
result = resolve_adapter_coverage(adapter, IDAHO_BOX)
assert result is not None
assert list(result.keys()) == ["bbox"]
assert result["bbox"] == IDAHO_BOX
# ---- avalanche adapter ---------------------------------------------------
def test_avalanche_returns_center_ids():
result = resolve_adapter_coverage("avalanche", IDAHO_BOX)
assert result is not None
assert "center_ids" in result
assert "SNFAC" in result["center_ids"]
# Should NOT have a bbox key (avalanche uses center IDs, not a raw bbox)
assert "bbox" not in result
# ---- traffic adapter -----------------------------------------------------
def test_traffic_returns_points():
result = resolve_adapter_coverage("traffic", IDAHO_BOX)
assert result is not None
assert "points" in result
pts = result["points"]
assert isinstance(pts, list)
assert len(pts) == 9 # default 3x3 grid
def test_traffic_points_are_tuples():
result = resolve_adapter_coverage("traffic", IDAHO_BOX)
assert all(isinstance(p, tuple) and len(p) == 2 for p in result["points"])
# ---- satpass / ducting adapters ------------------------------------------
@pytest.mark.parametrize("adapter", ["satpass", "ducting"])
def test_satpass_ducting_returns_centroid(adapter):
result = resolve_adapter_coverage(adapter, IDAHO_BOX)
assert result is not None
assert "centroid" in result
lat, lon = result["centroid"]
assert isinstance(lat, float)
assert isinstance(lon, float)
def test_satpass_centroid_is_correct():
result = resolve_adapter_coverage("satpass", [-116.0, 42.0, -112.0, 44.0])
lat, lon = result["centroid"]
assert lat == pytest.approx(43.0)
assert lon == pytest.approx(-114.0)
# ---- defensive copy of bbox ----------------------------------------------
def test_resolve_does_not_mutate_input_bbox():
"""The returned bbox should be a copy; mutating it must not affect the original."""
original = [-116.5, 42.0, -112.0, 44.0]
result = resolve_adapter_coverage("usgs_quake", original)
result["bbox"].append(999) # mutate return value
assert len(original) == 4 # original untouched