Merge branch 'master' into feat/search-integration

services/logic/README.md

@@ -8,6 +8,7 @@ i nie w bazie.
 - `POST /api/query` → `QueryRequest` → `QueryResponse`
 - `POST /chart/positions` → `{when_utc, lat, lon, objects?}` → pozycje obiektów (LOG-01)
 - `POST /chart/report` → `{when_utc, lat, lon, limit?}` → wynik obliczeń wyszukany w bazie: z pozycji generuje sygnifikatory (planeta w znaku) i zwraca pasujące interpretacje z warstwy danych (zalążek LOG-16/18/19)
+- `POST /chart/positions` → `{when_utc, lat, lon, house_system?}` → pełny horoskop: pozycje (LOG-01) + osie i domy (LOG-05). `house_system`: `whole_sign` (dom.) / `equal` / `porphyry`.
 - `POST /chart/compare` → jak wyżej → raport różnic dwóch silników (LOG-26; wymaga silnika B)
 - `GET /health` (sprawdza też warstwę bazodanową)
 

services/logic/app/engine/chart.py

@@ -0,0 +1,50 @@
+"""Złożenie pełnego horoskopu: pozycje + osie + domy (LOG-01 + LOG-05).
+
+Silnik-agnostyczne: potrzebuje tylko `positions()` oraz (dla osi/domów)
+`sidereal()`. Jeśli silnik nie umie policzyć czasu gwiazdowego, zwraca same
+pozycje.
+"""
+from __future__ import annotations
+
+from app.engine import houses as H
+from app.engine.base import EphemerisEngine
+from app.engine.formats import SIGNS, in_sign, norm360, sign_index
+from app.engine.models import ChartMoment
+
+
+def _fmt(name: str, lon: float) -> dict:
+    return {
+        "name": name,
+        "sign": SIGNS[sign_index(lon)],
+        "in_sign": in_sign(lon),
+        "decimal": round(norm360(lon), 6),
+    }
+
+
+def build_chart(engine: EphemerisEngine, moment: ChartMoment, house_system: str = H.WHOLE_SIGN) -> dict:
+    positions = engine.positions(moment)
+    result: dict = {"engine": engine.name, "positions": [p.as_dict() for p in positions]}
+
+    if not hasattr(engine, "sidereal"):
+        return result
+
+    ramc, eps = engine.sidereal(moment)
+    asc = H.compute_asc(ramc, eps, moment.lat)
+    mc = H.compute_mc(ramc, eps)
+    system = house_system if house_system in H.SYSTEMS else H.WHOLE_SIGN
+    cusp_list = H.cusps(asc, mc, system)
+
+    result["house_system"] = system
+    result["angles"] = {
+        "Asc": _fmt("Asc", asc),
+        "MC": _fmt("MC", mc),
+        "Dsc": _fmt("Dsc", norm360(asc + 180.0)),
+        "IC": _fmt("IC", norm360(mc + 180.0)),
+    }
+    result["cusps"] = [
+        {"house": i + 1, "sign": SIGNS[sign_index(c)], "in_sign": in_sign(c)}
+        for i, c in enumerate(cusp_list)
+    ]
+    for pdict, obj in zip(result["positions"], positions):
+        pdict["house"] = H.assign_house(obj.longitude, cusp_list)
+    return result

services/logic/app/engine/houses.py

@@ -0,0 +1,77 @@
+"""Osie i domy — czysta matematyka sferyczna (LOG-05).
+
+Bezstanowe funkcje: z lokalnego czasu gwiazdowego (RAMC), nachylenia ekliptyki
+(ε) i szerokości geograficznej (φ) wyliczają Ascendent i MC, a stąd cusps domów
+dla prostych systemów (Whole Sign, Equal, Porphyry). Niezależne od silnika —
+silnik dostarcza tylko RAMC i ε.
+"""
+from __future__ import annotations
+
+import math
+
+from app.engine.formats import SIGN_ABBR, norm360, sign_index  # noqa: F401
+
+WHOLE_SIGN = "whole_sign"
+EQUAL = "equal"
+PORPHYRY = "porphyry"
+SYSTEMS = (WHOLE_SIGN, EQUAL, PORPHYRY)
+
+
+def mean_obliquity(tt_jd: float) -> float:
+    """Średnie nachylenie ekliptyki [°] dla daty (Julian TT). Wystarcza do domów."""
+    t = (tt_jd - 2451545.0) / 36525.0
+    arcsec = 84381.448 - 46.8150 * t - 0.00059 * t * t + 0.001813 * t ** 3
+    return arcsec / 3600.0
+
+
+def compute_mc(ramc_deg: float, eps_deg: float) -> float:
+    r, e = math.radians(ramc_deg), math.radians(eps_deg)
+    mc = math.atan2(math.sin(r), math.cos(r) * math.cos(e))
+    return norm360(math.degrees(mc))
+
+
+def compute_asc(ramc_deg: float, eps_deg: float, lat_deg: float) -> float:
+    r, e, phi = math.radians(ramc_deg), math.radians(eps_deg), math.radians(lat_deg)
+    asc = math.atan2(
+        math.cos(r),
+        -(math.sin(r) * math.cos(e) + math.tan(phi) * math.sin(e)),
+    )
+    return norm360(math.degrees(asc))
+
+
+def _trisect(a: float, b: float) -> tuple[float, float]:
+    """Dwa punkty dzielące łuk a→b (w kierunku zodiaku) na trzy równe części."""
+    span = (b - a) % 360.0
+    return norm360(a + span / 3.0), norm360(a + 2.0 * span / 3.0)
+
+
+def cusps(asc: float, mc: float, system: str) -> list[float]:
+    """Zwraca 12 cusps (długości) domów 1..12."""
+    if system == WHOLE_SIGN:
+        start = sign_index(asc) * 30.0
+        return [norm360(start + 30.0 * i) for i in range(12)]
+    if system == EQUAL:
+        return [norm360(asc + 30.0 * i) for i in range(12)]
+    if system == PORPHYRY:
+        dsc, ic = norm360(asc + 180.0), norm360(mc + 180.0)
+        c = [0.0] * 12
+        c[0], c[3], c[6], c[9] = asc, ic, dsc, mc
+        c[1], c[2] = _trisect(asc, ic)      # domy 2,3
+        c[4], c[5] = _trisect(ic, dsc)      # domy 5,6
+        c[7], c[8] = _trisect(dsc, mc)      # domy 8,9
+        c[10], c[11] = _trisect(mc, asc)    # domy 11,12
+        return c
+    raise ValueError(f"nieznany system domów: {system}")
+
+
+def assign_house(lon: float, cusp_list: list[float]) -> int:
+    """Numer domu (1..12), w którym leży dana długość ekliptyczna."""
+    lon = norm360(lon)
+    for i in range(12):
+        start = cusp_list[i]
+        end = cusp_list[(i + 1) % 12]
+        span = (end - start) % 360.0
+        offset = (lon - start) % 360.0
+        if offset < span:
+            return i + 1
+    return 12

services/logic/app/engine/skyfield_engine.py

@@ -88,5 +88,17 @@ class SkyfieldEngine(EphemerisEngine):
             )
         return out
 
+    def sidereal(self, moment: ChartMoment) -> tuple[float, float]:
+        """(RAMC, ε) w stopniach — lokalny apparent sidereal time i nachylenie ekliptyki.
+
+        Materiał wejściowy do osi i domów (LOG-05). RAMC = GAST·15 + długość geo.
+        """
+        from app.engine.houses import mean_obliquity
+
+        t = self.ts.from_datetime(moment.when_utc)
+        ramc = norm360(t.gast * 15.0 + moment.lon)
+        eps = mean_obliquity(t.tt)
+        return ramc, eps
+
     def health(self) -> dict:
         return {"engine": self.name, "status": "ok", "kernel": self.kernel}

services/logic/app/main.py

@@ -37,6 +37,7 @@ class PositionsRequest(BaseModel):
     lat: float = 0.0
     lon: float = 0.0
     objects: list[str] | None = None
+    house_system: str = "whole_sign"   # whole_sign | equal | porphyry
 
 
 @app.post("/api/query", response_model=QueryResponse)
@@ -49,13 +50,13 @@ def query(req: QueryRequest) -> QueryResponse:
 
 @app.post("/chart/positions")
 def chart_positions(req: PositionsRequest) -> dict:
-    """Pozycje obiektów dla danego momentu (LOG-01), liczone aktywnym silnikiem."""
+    """Pełny horoskop: pozycje (LOG-01) + osie i domy (LOG-05), aktywnym silnikiem."""
+    from app.engine.chart import build_chart
     from app.engine.models import ChartMoment
 
     engine = get_engine()
     moment = ChartMoment(when_utc=req.when_utc, lat=req.lat, lon=req.lon)
-    positions = engine.positions(moment, req.objects)
+    return build_chart(engine, moment, req.house_system)
-    return {"engine": engine.name, "positions": [p.as_dict() for p in positions]}
 
 
 @app.post("/chart/compare")

services/logic/tests/test_chart.py

@@ -0,0 +1,27 @@
+"""Integracja: pełny horoskop (pozycje + osie + domy) przez silnik (LOG-01+LOG-05).
+
+Waliduje względem astro.com dla horoskopu referencyjnego.
+"""
+from app.engine.chart import build_chart
+
+
+def test_chart_angles_match_reference(own_engine, reference_moment):
+    chart = build_chart(own_engine, reference_moment, "whole_sign")
+    assert chart["angles"]["Asc"]["sign"] == "Cancer"
+    assert chart["angles"]["MC"]["sign"] == "Pisces"
+
+
+def test_chart_house_assignments_match_reference(own_engine, reference_moment):
+    chart = build_chart(own_engine, reference_moment, "whole_sign")
+    by = {p["name"]: p for p in chart["positions"]}
+    expected = {"Sun": 11, "Moon": 11, "Mercury": 10, "Venus": 10, "Mars": 5,
+                "Jupiter": 7, "Saturn": 5, "Uranus": 6, "Neptune": 7, "Pluto": 5}
+    for name, house in expected.items():
+        assert by[name]["house"] == house, f"{name}: dom {by[name]['house']} != {house}"
+
+
+def test_house_systems_available(own_engine, reference_moment):
+    for system in ("whole_sign", "equal", "porphyry"):
+        chart = build_chart(own_engine, reference_moment, system)
+        assert chart["house_system"] == system
+        assert len(chart["cusps"]) == 12

services/logic/tests/test_houses.py

@@ -0,0 +1,41 @@
+"""Testy osi i domów — czysta matematyka (LOG-05, bez efemeryd)."""
+from app.engine import houses as H
+
+# RAMC i ε policzone Skyfieldem dla horoskopu referencyjnego (30.04.1984, Warszawa)
+RAMC, EPS, LAT = 353.1968, 23.44133, 52.2333
+
+
+def _near(a, b, tol=0.05):
+    return abs(((a - b + 180) % 360) - 180) < tol
+
+
+def test_asc_mc_match_reference():
+    asc = H.compute_asc(RAMC, EPS, LAT)
+    mc = H.compute_mc(RAMC, EPS)
+    assert _near(asc, 112.18)   # Cancer 22°10' (astro.com)
+    assert _near(mc, 352.59)    # Pisces 22°35'
+
+
+def test_whole_sign_starts_on_sign_boundary():
+    cusps = H.cusps(112.18, 352.59, H.WHOLE_SIGN)
+    assert cusps[0] == 90.0     # dom 1 = 0° Raka
+    assert cusps[1] == 120.0
+
+
+def test_equal_cusps_are_30_apart_from_asc():
+    cusps = H.cusps(112.18, 352.59, H.EQUAL)
+    assert abs(cusps[0] - 112.18) < 1e-9
+    assert abs(cusps[1] - 142.18) < 1e-9
+
+
+def test_porphyry_angles_on_cusps():
+    cusps = H.cusps(112.18, 352.59, H.PORPHYRY)
+    assert abs(cusps[0] - 112.18) < 1e-9              # Asc = dom 1
+    assert abs(cusps[9] - 352.59) < 1e-9              # MC = dom 10
+    assert abs(cusps[6] - (112.18 + 180) % 360) < 1e-9  # Dsc = dom 7
+
+
+def test_assign_house_whole_sign():
+    cusps = H.cusps(112.18, 352.59, H.WHOLE_SIGN)     # dom 1 = Rak (90–120°)
+    assert H.assign_house(100.0, cusps) == 1          # w Raku
+    assert H.assign_house(40.0, cusps) == 11          # Byk -> 11. dom

services/presentation/app/clients/logic_client.py

@@ -24,10 +24,21 @@ class LogicClient:
             return r.json()
 
     def positions(
-        self, when_utc_iso: str, lat: float, lon: float, objects: list[str] | None = None
+        self,
+        when_utc_iso: str,
+        lat: float,
+        lon: float,
+        objects: list[str] | None = None,
+        house_system: str = "whole_sign",
     ) -> dict[str, Any]:
-        """Pozycje obiektów dla danego momentu — woła logic /chart/positions."""
+        """Pełny horoskop dla danego momentu — woła logic /chart/positions."""
-        payload = {"when_utc": when_utc_iso, "lat": lat, "lon": lon, "objects": objects}
+        payload = {
+            "when_utc": when_utc_iso,
+            "lat": lat,
+            "lon": lon,
+            "objects": objects,
+            "house_system": house_system,
+        }
         with httpx.Client(timeout=settings.http_timeout) as client:
             r = client.post(f"{self.base_url}/chart/positions", json=payload)
             r.raise_for_status()

services/presentation/app/main.py

@@ -59,13 +59,17 @@ def chart_compute(
     tz_offset: float = Form(0.0),
     lat: float = Form(0.0),
     lon: float = Form(0.0),
+    house_system: str = Form("whole_sign"),
 ):
-    form = {"date": date, "time": time, "tz_offset": tz_offset, "lat": lat, "lon": lon}
+    form = {"date": date, "time": time, "tz_offset": tz_offset,
+            "lat": lat, "lon": lon, "house_system": house_system}
     ctx: dict = {"form": form, "result": None, "error": None, "moment": None}
     try:
         iso_utc, label = _build_utc(date, time, tz_offset)
         ctx["moment"] = label
-        ctx["result"] = logic.positions(when_utc_iso=iso_utc, lat=lat, lon=lon)
+        ctx["result"] = logic.positions(
+            when_utc_iso=iso_utc, lat=lat, lon=lon, house_system=house_system
+        )
     except (httpx.HTTPError,) as e:
         ctx["error"] = _logic_error(e)
     except ValueError as e:

services/presentation/app/templates/chart.html

@@ -3,7 +3,7 @@
 {% block nav_chart %}active{% endblock %}
 
 {% block content %}
-<p class="sub">Wpisz podstawowe dane momentu — program policzy pozycje obiektów (silnik efemeryd warstwy logicznej).</p>
+<p class="sub">Wpisz dane momentu i miejsca — program policzy pozycje obiektów, osie i domy (silnik efemeryd warstwy logicznej).</p>
 
 <form method="post" action="/">
   <div class="grid">
@@ -17,20 +17,25 @@
       <input type="number" name="tz_offset" step="0.25" value="{{ form.tz_offset if form.tz_offset is not none else 0 }}">
     </label>
   </div>
-  <details class="loc">
+  <div class="grid">
-    <summary>Lokalizacja (opcjonalnie — przyda się później do osi i domów)</summary>
+    <label>Szerokość (lat, + N)
-    <div class="grid">
+      <input type="number" name="lat" step="0.0001" value="{{ form.lat if form.lat is not none else 0 }}">
-      <label>Szerokość (lat)
+    </label>
-        <input type="number" name="lat" step="0.0001" value="{{ form.lat if form.lat is not none else 0 }}">
+    <label>Długość (lon, + E)
-      </label>
+      <input type="number" name="lon" step="0.0001" value="{{ form.lon if form.lon is not none else 0 }}">
-      <label>Długość (lon, + na wschód)
+    </label>
-        <input type="number" name="lon" step="0.0001" value="{{ form.lon if form.lon is not none else 0 }}">
+    <label>System domów
-      </label>
+      <select name="house_system">
-    </div>
+        {% set hs = form.house_system or 'whole_sign' %}
-  </details>
+        <option value="whole_sign" {{ 'selected' if hs == 'whole_sign' else '' }}>Whole Sign</option>
+        <option value="equal" {{ 'selected' if hs == 'equal' else '' }}>Equal</option>
+        <option value="porphyry" {{ 'selected' if hs == 'porphyry' else '' }}>Porphyry</option>
+      </select>
+    </label>
+  </div>
   <div class="actions">
     <button type="button" id="nowBtn" class="ghost">Tu i teraz</button>
-    <button type="submit">Policz pozycje</button>
+    <button type="submit">Policz horoskop</button>
   </div>
 </form>
 
@@ -42,12 +47,26 @@
   <div class="meta">
     Silnik: <strong>{{ result.engine }}</strong> ·
     obiektów: {{ result.positions | length }}
+    {% if result.house_system %}· domy: {{ result.house_system }}{% endif %}
     {% if moment %}· moment: {{ moment }}{% endif %}
   </div>
+
+  {% if result.angles %}
+  <table class="angles">
+    <thead><tr><th>Oś</th><th>Znak</th><th>W znaku</th></tr></thead>
+    <tbody>
+      {% for key in ["Asc", "MC", "Dsc", "IC"] %}
+        {% set a = result.angles[key] %}
+        <tr><td>{{ a.name }}</td><td>{{ a.sign }}</td><td class="mono">{{ a.in_sign }}</td></tr>
+      {% endfor %}
+    </tbody>
+  </table>
+  {% endif %}
+
   <table>
     <thead>
       <tr>
-        <th>Obiekt</th><th>Znak</th><th>W znaku</th><th>Absolutna</th><th>Kier.</th><th>Prędkość °/d</th>
+        <th>Obiekt</th><th>Znak</th><th>W znaku</th><th>Dom</th><th>Kier.</th><th>Prędkość °/d</th>
       </tr>
     </thead>
     <tbody>
@@ -56,13 +75,27 @@
           <td>{{ p.name }}</td>
           <td>{{ p.sign }}</td>
           <td class="mono">{{ p.in_sign }}</td>
-          <td class="mono">{{ p.absolute }}</td>
+          <td>{{ p.house if p.house is defined else '—' }}</td>
           <td class="{{ 'retro' if p.direction == 'Rx' else '' }}">{{ p.direction }}</td>
           <td class="mono">{{ '%+.4f' | format(p.speed) }}</td>
         </tr>
       {% endfor %}
     </tbody>
   </table>
+
+  {% if result.cusps %}
+  <details class="loc">
+    <summary>Cusps domów ({{ result.house_system }})</summary>
+    <table>
+      <thead><tr><th>Dom</th><th>Znak</th><th>Cusp</th></tr></thead>
+      <tbody>
+        {% for c in result.cusps %}
+          <tr><td>{{ c.house }}</td><td>{{ c.sign }}</td><td class="mono">{{ c.in_sign }}</td></tr>
+        {% endfor %}
+      </tbody>
+    </table>
+  </details>
+  {% endif %}
 {% endif %}
 
 <script>