732642856
1017 lines
39 KiB
Python
1017 lines
39 KiB
Python
#!/usr/bin/env python3
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# -*- coding: utf-8 -*-
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"""
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Prashna（卜卦/问事）占星系统 v7.0
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核心功能：
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1. Prashna Lagna — 基于询问时刻的卜卦盘
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2. Arudha Prashna — 镜像点解读
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3. KP Prashna — 用KP sublord精确定位答案
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4. Sphuta — 特殊敏感点
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5. 问事分类— 12宫主题映射
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6. Nadi Prashna — 从Moon/Jupiter角度解读
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7. Tajika Prashna — 年运盘整合
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v7.0 新增：
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- KP Sublord 完整计算（27 Nakshatra × 9行星 = 249 sublord映射）
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- Nadi Prashna 角度解读
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- Tajika Ithasala/Easarapha 整合
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- 完整Sphuta计算（Gulika/Yamaghantaka）
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- Prashna时机评分系统
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"""
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from typing import Dict, List, Tuple, Optional
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from datetime import datetime
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SIGNS = ['Aries','Taurus','Gemini','Cancer','Leo','Virgo',
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'Libra','Scorpio','Sagittarius','Capricorn','Aquarius','Pisces']
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SIGN_LORDS = {'Aries':'Mars','Taurus':'Venus','Gemini':'Mercury','Cancer':'Moon',
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'Leo':'Sun','Virgo':'Mercury','Libra':'Venus','Scorpio':'Mars',
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'Sagittarius':'Jupiter','Capricorn':'Saturn','Aquarius':'Saturn','Pisces':'Jupiter'}
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NAKSHATRAS = ['Ashwini','Bharani','Krittika','Rohini','Mrigashira','Ardra',
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'Punarvasu','Pushya','Ashlesha','Magha','PurvaPhalguni','UttaraPhalguni',
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'Hasta','Chitra','Swati','Vishakha','Anuradha','Jyeshtha',
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'Mula','PurvaAshadha','UttaraAshadha','Shravana','Dhanishta','Shatabhisha',
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'PurvaBhadrapada','UttaraBhadrapada','Revati']
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# KP 249 sublord字典（简化版，完整需加载249条）
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KP_SUBLORD_MEANINGS = {
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'Sun': {1:'健康恢复', 2:'收入增长', 3:'勇气', 4:'房产', 5:'投资', 6:'疾病', 7:'婚姻', 8:'遗产', 9:'远行', 10:'升职', 11:'收益', 12:'支出'},
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'Moon': {1:'新开始', 2:'波动收入', 3:'短途旅行', 4:'搬家', 5:'创造', 6:'慢性病', 7:'情感', 8:'心理', 9:'精神', 10:'公众', 11:'社交', 12:'隐退'},
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'Mars': {1:'积极行动', 2:'资金', 3:'技能', 4:'建筑', 5:'投机', 6:'手术', 7:'竞争', 8:'意外', 9:'法律', 10:'职业', 11:'社交', 12:'幕后'},
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'Mercury': {1:'沟通', 2:'商业', 3:'写作', 4:'学习', 5:'教育', 6:'文书', 7:'谈判', 8:'研究', 9:'出版', 10:'信息', 11:'网络', 12:'秘密'},
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'Jupiter': {1:'新开始', 2:'财富', 3:'努力', 4:'家宅', 5:'子女', 6:'恢复', 7:'婚姻', 8:'转变', 9:'远行', 10:'成功', 11:'扩张', 12:'解脱'},
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'Venus': {1:'魅力', 2:'奢侈品', 3:'艺术', 4:'舒适', 5:'浪漫', 6:'享受', 7:'伴侣', 8:'深层', 9:'高等', 10:'审美', 11:'社交', 12:'隐居'},
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'Saturn': {1:'缓慢', 2:'节俭', 3:'延迟', 4:'老旧', 5:'等待', 6:'慢性', 7:'延迟婚', 8:'遗产', 9:'严肃', 10:'权威', 11:'长期', 12:'孤独'},
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'Rahu': {1:'迷惑', 2:'暴富', 3:'冒险', 4:'不满', 5:'非婚', 6:'怪病', 7:'涉外', 8:'突变', 9:'异域', 10:'非传统', 11:'网络', 12:'海外'},
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'Ketu': {1:'抽离', 2:'损失', 3:'独立', 4:'搬家', 5:'异常', 6:'谜病', 7:'分离', 8:'秘密', 9:'修行', 10:'幕后', 11:'孤立', 12:'解脱'},
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}
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# 问事类型分类
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QUESTION_CATEGORIES = {
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'career': {'primary': 10, 'secondary': [6, 2, 11], 'karaka': 'Saturn'},
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'finance': {'primary': 2, 'secondary': [11, 5, 9], 'karaka': 'Jupiter'},
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'health': {'primary': 6, 'secondary': [1, 8], 'karaka': 'Sun'},
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'marriage': {'primary': 7, 'secondary': [2, 11], 'karaka': 'Venus'},
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'children': {'primary': 5, 'secondary': [9], 'karaka': 'Jupiter'},
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'relocation': {'primary': 4, 'secondary': [12, 9], 'karaka': 'Moon'},
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'education': {'primary': 5, 'secondary': [4, 9], 'karaka': 'Mercury'},
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'legal': {'primary': 6, 'secondary': [8, 7], 'karaka': 'Jupiter'},
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'spiritual': {'primary': 9, 'secondary': [12, 9], 'karaka': 'Ketu'},
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'property': {'primary': 4, 'secondary': [2, 11], 'karaka': 'Mars'},
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'travel': {'primary': 12, 'secondary': [9, 3], 'karaka': 'Rahu'},
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'general': {'primary': 1, 'secondary': [10], 'karaka': 'Moon'},
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}
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def calc_prashna_chart(question_time: datetime, planet_positions: Dict,
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asc_degree: float = None) -> Dict:
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"""
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计算Prashna（卜卦）盘。
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基于询问时刻的天象构建卜卦盘，这是Prashna的核心。
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Args:
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question_time: 询问时间
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planet_positions: 该时刻的行星位置
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asc_degree: 卜卦上升度数(0-360, 可选)
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Returns:
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卜卦盘数据
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"""
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if asc_degree is None:
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# 使用询问时间的秒数计算伪随机上升
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asc_degree = (question_time.hour * 3600 + question_time.minute * 60 + question_time.second) % 360
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asc_sign_idx = int(asc_degree / 30) % 12
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asc_sign = SIGNS[asc_sign_idx]
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# 构建分宫图
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houses = {}
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for h in range(1, 13):
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sign_idx = (asc_sign_idx + h - 1) % 12
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houses[h] = {
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'sign': SIGNS[sign_idx],
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'lord': SIGN_LORDS[SIGNS[sign_idx]],
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}
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# 映射行星到宫位
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planet_houses = {}
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for pname, pdata in planet_positions.items():
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sign = pdata.get('sign', '')
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if sign in SIGNS:
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p_sign_idx = SIGNS.index(sign)
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house = (p_sign_idx - asc_sign_idx) % 12 + 1
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planet_houses[pname] = house
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return {
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'question_time': question_time.isoformat(),
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'asc_sign': asc_sign,
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'asc_degree': round(asc_degree % 30, 2),
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'houses': houses,
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'planet_houses': planet_houses,
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'prashna_lagna_lord': SIGN_LORDS[asc_sign],
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}
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def get_kp_prashna_answer(planet_positions: Dict, question_category: str,
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asc_degree: float) -> Dict:
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"""
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使用KP sublord方法回答Prashna问题。
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1. 确定问题宫位
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2. 找到该宫位主星
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3. 查看其sublord在哪个宫
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4. 如果sublord的本宫与问题宫位或karaka相关 → 答案是YES
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Args:
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planet_positions: 卜卦时刻行星位置
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question_category: 问题类型
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asc_degree: 上升度数
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Returns:
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KP答案分析
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"""
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cat = QUESTION_CATEGORIES.get(question_category, QUESTION_CATEGORIES['general'])
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primary_house = cat['primary']
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karaka = cat['karaka']
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asc_sign = SIGNS[int(asc_degree / 30) % 12]
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asc_idx = SIGNS.index(asc_sign)
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# 问题宫主
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question_sign = SIGNS[(asc_idx + primary_house - 1) % 12]
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question_lord = SIGN_LORDS[question_sign]
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# 问题宫主所在的行星位置
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ql_data = planet_positions.get(question_lord, {})
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ql_sign = ql_data.get('sign', '')
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ql_sign_idx = SIGNS.index(ql_sign) if ql_sign in SIGNS else 0
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ql_house = (ql_sign_idx - asc_idx) % 12 + 1
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# Sublord分析（简化版，完整版需精确计算）
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# 如果问题宫主在自己的宫位或与karaka相关 → 有利
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is_favorable = ql_house in (1, 4, 5, 7, 9, 10, 11)
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# KP答案判定
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if is_favorable:
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answer = "YES — 卜卦信号有利"
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confidence = "高"
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elif ql_house in (6, 8, 12):
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answer = "NO — 卜卦信号不利"
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confidence = "高"
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else:
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answer = "MAYBE — 需要更多信息确认"
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confidence = "中"
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return {
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'question_type': question_category,
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'primary_house': primary_house,
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'question_lord': question_lord,
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'lord_house': ql_house,
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'lord_sign': ql_sign,
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'karaka': karaka,
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'kp_answer': answer,
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'confidence': confidence,
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'note': '基于KP sublord原则：主星状态决定结果方向',
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}
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def detect_prashna_arudha(planet_positions: Dict, asc_degree: float,
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question_house: int) -> Dict:
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"""
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计算Prashna中的Arudha（镜像点）。
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Arudha = 反射真实意图的镜像宫位。
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用于验证问事者的问题是否与真实关切一致。
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"""
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asc_sign_idx = int(asc_degree / 30) % 12
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lord_sign_idx = (asc_sign_idx + question_house - 1) % 12
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lord = SIGN_LORDS[SIGNS[lord_sign_idx]]
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lord_house = 0
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for pname, pdata in planet_positions.items():
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if pname == lord:
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p_sign = pdata.get('sign', '')
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if p_sign in SIGNS:
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lord_house = (SIGNS.index(p_sign) - asc_sign_idx) % 12 + 1
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break
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if lord_house == 0:
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lord_house = question_house
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# Arudha公式：从宫主数X宫，再从宫主落位数X宫
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distance = lord_house - question_house
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if distance <= 0:
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distance += 12
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arudha_house = (lord_house + distance - 1) % 12 + 1
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# BPHS例外：Arudha不能落在原宫或7宫
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if arudha_house == question_house:
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arudha_house = 10
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if arudha_house == ((question_house + 6) % 12) or ((question_house + 6) % 12) == 0:
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_h7 = ((question_house + 6) % 12) or 12
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if arudha_house == _h7:
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arudha_house = 4
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return {
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'question_house': question_house,
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'lord': lord,
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'lord_house': lord_house,
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'arudha_house': arudha_house,
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'note': f'Arudha在{arudha_house}宫 — 问题的"镜像"反映在此领域',
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}
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# =============================================================================
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# KP Sublord 完整计算 v7.0
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# =============================================================================
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# Nakshatra Lords (Vimshottari sequence)
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NAK_LORDS = ['Ketu','Venus','Sun','Moon','Mars','Rahu','Jupiter','Saturn','Mercury']
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NAK_SPAN = 360.0 / 27.0 # 13.333...° per nakshatra
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SUB_SPAN = NAK_SPAN / 9.0 # ~1.481° per sub (每个sub由nakshatra lord的一个行星段构成)
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# Vimshottari年数用于计算sub比例
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VIM_DURATIONS = {'Ketu':7,'Venus':20,'Sun':6,'Moon':10,'Mars':7,
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'Rahu':18,'Jupiter':16,'Saturn':19,'Mercury':17}
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VIM_TOTAL = 120.0
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def calc_kp_sublord(longitude: float) -> Dict:
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"""
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计算某经度的KP Sublord v7.0
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KP系统：每个Nakshatra由一个Lord掌管，Nakshatra内按Vimshottari比例
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细分为9个sub，每个sub由下一个Dasha序列行星掌管。
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Args:
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longitude: 行星经度 (0-360 sidereal)
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Returns:
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dict: {nakshatra, nak_lord, pada, sub_lord, sub_sub_lord}
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"""
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lon = longitude % 360
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# Nakshatra
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nak_idx = int(lon / NAK_SPAN) % 27
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nak_lord = NAK_LORDS[nak_idx % 9]
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nak_name = NAKSHATRAS[nak_idx]
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# Pada (1-4)
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pos_in_nak = lon % NAK_SPAN
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pada = int(pos_in_nak / (NAK_SPAN / 4)) + 1
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# Sub Lord: 在Nakshatra内，按Vimshottari比例分段
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# 从Nakshatra Lord开始，按序列分配
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lord_idx = NAK_LORDS.index(nak_lord)
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cum_deg = 0.0
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sub_lord = nak_lord # 默认
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for i in range(9):
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planet = NAK_LORDS[(lord_idx + i) % 9]
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sub_size = NAK_SPAN * (VIM_DURATIONS[planet] / VIM_TOTAL)
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if cum_deg <= pos_in_nak < cum_deg + sub_size:
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sub_lord = planet
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break
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cum_deg += sub_size
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# Sub-Sub Lord: 在Sub内再按Vimshottari比例细分
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sub_start = cum_deg
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sub_size = NAK_SPAN * (VIM_DURATIONS[sub_lord] / VIM_TOTAL)
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pos_in_sub = pos_in_nak - sub_start
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sub_lord_idx = NAK_LORDS.index(sub_lord)
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cum_deg2 = 0.0
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sub_sub_lord = sub_lord
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for i in range(9):
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planet = NAK_LORDS[(sub_lord_idx + i) % 9]
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sub_sub_size = sub_size * (VIM_DURATIONS[planet] / VIM_TOTAL)
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if cum_deg2 <= pos_in_sub < cum_deg2 + sub_sub_size:
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sub_sub_lord = planet
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break
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cum_deg2 += sub_sub_size
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return {
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'nakshatra': nak_name,
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'nakshatra_index': nak_idx,
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'nakshatra_lord': nak_lord,
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'pada': pada,
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'sub_lord': sub_lord,
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'sub_sub_lord': sub_sub_lord,
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}
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def get_kp_prashna_answer_v2(planet_positions: Dict, question_category: str,
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asc_degree: float) -> Dict:
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"""
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KP Prashna v7.0 — 完整版
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使用KP sublord三层判定：
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1. 问题宫主星(Star Lord) → 大方向
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2. Sub Lord → 实际结果
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3. Sub-Sub Lord → 细节/时机
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判定规则（KP经典）：
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- Sub Lord 落在问题宫位的2/3/11宫 → YES
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- Sub Lord 落在问题宫位的6/8/12宫 → NO
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- Sub Lord 落在1/5/9宫 → 延迟但最终YES
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- Sub Lord 落在4/7/10宫 → 取决于努力
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"""
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cat = QUESTION_CATEGORIES.get(question_category, QUESTION_CATEGORIES['general'])
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primary_house = cat['primary']
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karaka = cat['karaka']
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asc_sign = SIGNS[int(asc_degree / 30) % 12]
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asc_idx = SIGNS.index(asc_sign)
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# 问题宫主
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question_sign = SIGNS[(asc_idx + primary_house - 1) % 12]
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question_lord = SIGN_LORDS[question_sign]
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# 问题宫主的经度
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ql_data = planet_positions.get(question_lord, {})
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ql_lon = ql_data.get('longitude', ql_data.get('lon', 0))
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if not ql_lon and 'sign' in ql_data:
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sign_idx = SIGNS.index(ql_data['sign']) if ql_data['sign'] in SIGNS else 0
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deg = ql_data.get('degree', ql_data.get('deg_in_sign', 0))
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ql_lon = sign_idx * 30 + deg
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# 计算 KP Sublord
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kp = calc_kp_sublord(ql_lon)
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# Sub Lord 所在宫位
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sub_lord = kp['sub_lord']
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sl_data = planet_positions.get(sub_lord, {})
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sl_sign = sl_data.get('sign', '')
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sl_sign_idx = SIGNS.index(sl_sign) if sl_sign in SIGNS else 0
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sl_house = (sl_sign_idx - asc_idx) % 12 + 1
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# 从问题宫位看Sub Lord所在宫位
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house_from_question = ((sl_house - primary_house) % 12) + 1
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# KP判定
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YES_HOUSES = {2, 3, 11} # 从问题宫看：2/3/11宫
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DELAYED_YES = {1, 5, 9} # 三方宫
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DEPENDS_HOUSES = {4, 7, 10} # 角宫
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NO_HOUSES = {6, 8, 12} # 凶宫
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if house_from_question in YES_HOUSES:
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answer = "YES"
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confidence = "高"
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reason = f"Sub Lord {sub_lord} 在问题宫的第{house_from_question}宫（吉宫），结果有利"
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elif house_from_question in DELAYED_YES:
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answer = "YES (延迟)"
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confidence = "中"
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reason = f"Sub Lord {sub_lord} 在问题宫的第{house_from_question}宫（三方），延迟但最终有利"
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elif house_from_question in NO_HOUSES:
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answer = "NO"
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confidence = "高"
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reason = f"Sub Lord {sub_lord} 在问题宫的第{house_from_question}宫（凶宫），结果不利"
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elif house_from_question in DEPENDS_HOUSES:
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answer = "MAYBE (取决于努力)"
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confidence = "中"
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reason = f"Sub Lord {sub_lord} 在问题宫的第{house_from_question}宫（角宫），结果取决于努力"
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else:
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answer = "MAYBE"
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confidence = "低"
|
||
reason = f"Sub Lord {sub_lord} 位置不明确"
|
||
|
||
# Sub-Sub Lord 时机提示
|
||
sub_sub = kp['sub_sub_lord']
|
||
ss_data = planet_positions.get(sub_sub, {})
|
||
ss_sign = ss_data.get('sign', '')
|
||
timing_note = ""
|
||
if ss_sign in SIGNS:
|
||
ss_house = (SIGNS.index(ss_sign) - asc_idx) % 12 + 1
|
||
timing_note = f"Sub-Sub Lord {sub_sub} 在{ss_house}宫，提示时机线索"
|
||
|
||
return {
|
||
'question_type': question_category,
|
||
'primary_house': primary_house,
|
||
'question_lord': question_lord,
|
||
'question_lord_longitude': ql_lon,
|
||
'kp_star_lord': kp['nakshatra_lord'],
|
||
'kp_sub_lord': sub_lord,
|
||
'kp_sub_sub_lord': sub_sub,
|
||
'sub_lord_house': sl_house,
|
||
'house_from_question': house_from_question,
|
||
'karaka': karaka,
|
||
'kp_answer': answer,
|
||
'confidence': confidence,
|
||
'reason': reason,
|
||
'timing_note': timing_note,
|
||
'kp_details': kp,
|
||
}
|
||
|
||
|
||
def build_kp_horary_evidence(planet_positions: Dict, question_category: str,
|
||
asc_degree: float, horary_number: int = None) -> Dict:
|
||
"""Build structured KP Horary evidence for Prashna UI/API contracts.
|
||
|
||
This is intentionally lightweight: it reuses the local KP sub-lord and
|
||
significator rules instead of running an all-day 1-249 exact-time search.
|
||
"""
|
||
cat = QUESTION_CATEGORIES.get(question_category, QUESTION_CATEGORIES['general'])
|
||
primary = cat['primary']
|
||
secondary = cat.get('secondary', [])
|
||
asc_idx = int(asc_degree / 30) % 12
|
||
asc_sign = SIGNS[asc_idx]
|
||
asc_lord = SIGN_LORDS[asc_sign]
|
||
moon_lon = _planet_longitude(planet_positions, 'Moon')
|
||
moon_kp = calc_kp_sublord(moon_lon)
|
||
cusp_lon = (asc_degree + (primary - 1) * 30) % 360
|
||
cusp_kp = calc_kp_sublord(cusp_lon)
|
||
houses = _kp_horary_houses(asc_idx)
|
||
normalized_planets = _kp_horary_planets(planet_positions, asc_idx)
|
||
house_significators = _house_significators_for_horary(normalized_planets, houses)
|
||
focus_houses = [primary] + [h for h in secondary if h != primary]
|
||
judgement = []
|
||
for house in focus_houses:
|
||
sig = house_significators.get(house, {})
|
||
strength = len(sig.get('A', [])) * 3 + len(sig.get('B', [])) * 2 + len(sig.get('C', [])) + (1 if sig.get('D') else 0)
|
||
judgement.append({
|
||
'house': house,
|
||
'role': 'primary' if house == primary else 'supporting',
|
||
'significators': sig,
|
||
'score': strength,
|
||
'signal': 'strong' if strength >= 4 else 'moderate' if strength >= 2 else 'thin',
|
||
})
|
||
return {
|
||
'method': 'KP Horary',
|
||
'source': 'local prashna.py + kp_system.py; VedicAstro-compatible KP sub-lord proportions',
|
||
'horary_number': horary_number,
|
||
'question_type': question_category,
|
||
'question_houses': {
|
||
'primary': primary,
|
||
'secondary': secondary,
|
||
'karaka': cat.get('karaka'),
|
||
},
|
||
'ruling_planets': {
|
||
'ascendant_lord': asc_lord,
|
||
'moon_star_lord': moon_kp['nakshatra_lord'],
|
||
'moon_sub_lord': moon_kp['sub_lord'],
|
||
'day_lord': '',
|
||
'method_note': 'Ruling planets use available Prashna ascendant and Moon KP lords; day lord is omitted when exact question date is not supplied.',
|
||
},
|
||
'cuspal_sub_lord': {
|
||
'house': primary,
|
||
'cusp_longitude': round(cusp_lon, 4),
|
||
'kp_lords': cusp_kp,
|
||
},
|
||
'house_significators': {str(h): house_significators.get(h, {}) for h in focus_houses},
|
||
'judgement_matrix': judgement,
|
||
'next_action': 'KP Horary evidence should confirm the YES/NO answer through ruling planets, cuspal sub-lord and house significators.',
|
||
}
|
||
|
||
|
||
def _planet_longitude(planet_positions: Dict, planet: str) -> float:
|
||
data = planet_positions.get(planet, {}) if isinstance(planet_positions, dict) else {}
|
||
lon = data.get('longitude', data.get('lon'))
|
||
if isinstance(lon, (int, float)):
|
||
return lon % 360
|
||
sign = data.get('sign')
|
||
if sign in SIGNS:
|
||
return (SIGNS.index(sign) * 30 + float(data.get('degree', data.get('degree_in_sign', 0)) or 0)) % 360
|
||
return 0.0
|
||
|
||
|
||
def _kp_horary_houses(asc_idx: int) -> List[Dict]:
|
||
houses = []
|
||
for house in range(1, 13):
|
||
sign = SIGNS[(asc_idx + house - 1) % 12]
|
||
houses.append({'house': house, 'sign': sign, 'rasi_lord': SIGN_LORDS[sign]})
|
||
return houses
|
||
|
||
|
||
def _kp_horary_planets(planet_positions: Dict, asc_idx: int) -> Dict:
|
||
normalized = {}
|
||
for planet, data in planet_positions.items():
|
||
if not isinstance(data, dict):
|
||
continue
|
||
lon = _planet_longitude(planet_positions, planet)
|
||
sign = SIGNS[int(lon / 30) % 12]
|
||
house = ((SIGNS.index(sign) - asc_idx) % 12) + 1
|
||
normalized[planet] = {
|
||
'sign': sign,
|
||
'house': house,
|
||
'longitude': round(lon, 4),
|
||
'kp_lords': calc_kp_sublord(lon),
|
||
}
|
||
return normalized
|
||
|
||
|
||
def _house_significators_for_horary(planet_positions: Dict, houses: List[Dict]) -> Dict:
|
||
planet_nak_lords = {
|
||
planet: data.get('kp_lords', {}).get('nakshatra_lord', '')
|
||
for planet, data in planet_positions.items()
|
||
}
|
||
result = {}
|
||
for house in houses:
|
||
house_num = house['house']
|
||
occupants = [planet for planet, data in planet_positions.items() if data.get('house') == house_num]
|
||
lord = house.get('rasi_lord', '')
|
||
result[house_num] = {
|
||
'A': [planet for planet, nak_lord in planet_nak_lords.items() if nak_lord in occupants],
|
||
'B': occupants,
|
||
'C': [planet for planet, nak_lord in planet_nak_lords.items() if nak_lord == lord],
|
||
'D': lord,
|
||
}
|
||
return result
|
||
|
||
|
||
# =============================================================================
|
||
# Nadi Prashna v7.0
|
||
# =============================================================================
|
||
|
||
def nadi_prashna_analysis(planet_positions: Dict, asc_degree: float,
|
||
question_category: str) -> Dict:
|
||
"""
|
||
Nadi Prashna 分析 v7.0
|
||
|
||
从Moon和Jupiter的角度解读问题：
|
||
- Moon = 问事者的真实情感/内心状态
|
||
- Jupiter = 问题的智慧/导师角度
|
||
- 两者之间的关系揭示问题的本质
|
||
|
||
Args:
|
||
planet_positions: 行星位置
|
||
asc_degree: 上升度数
|
||
question_category: 问题类型
|
||
|
||
Returns:
|
||
Nadi Prashna分析结果
|
||
"""
|
||
asc_idx = int(asc_degree / 30) % 12
|
||
|
||
# Moon位置
|
||
moon_data = planet_positions.get('Moon', {})
|
||
moon_sign = moon_data.get('sign', '')
|
||
moon_sign_idx = SIGNS.index(moon_sign) if moon_sign in SIGNS else asc_idx
|
||
moon_house = (moon_sign_idx - asc_idx) % 12 + 1
|
||
|
||
# Jupiter位置
|
||
jup_data = planet_positions.get('Jupiter', {})
|
||
jup_sign = jup_data.get('sign', '')
|
||
jup_sign_idx = SIGNS.index(jup_sign) if jup_sign in SIGNS else asc_idx
|
||
jup_house = (jup_sign_idx - asc_idx) % 12 + 1
|
||
|
||
# Moon-Jupiter关系
|
||
moon_jup_aspect = abs(moon_house - jup_house)
|
||
if moon_jup_aspect > 6:
|
||
moon_jup_aspect = 12 - moon_jup_aspect
|
||
|
||
# Nadi解读
|
||
if moon_jup_aspect in [1, 5, 9]:
|
||
relation = "友好（三方/同宫）→ 问事者内心与问题导师和谐"
|
||
elif moon_jup_aspect in [4, 7, 10]:
|
||
relation = "紧张（角宫相位）→ 问事者内心与问题有张力但有力"
|
||
elif moon_jup_aspect in [6, 8]:
|
||
relation = "困难（凶宫关系）→ 问事者内心与问题有深层矛盾"
|
||
else:
|
||
relation = "中性 → 关系一般"
|
||
|
||
# 从Moon看问题宫位
|
||
cat = QUESTION_CATEGORIES.get(question_category, QUESTION_CATEGORIES['general'])
|
||
q_house = cat['primary']
|
||
house_from_moon = ((q_house - moon_house) % 12) + 1
|
||
|
||
return {
|
||
'moon_house': moon_house,
|
||
'jupiter_house': jup_house,
|
||
'moon_jupiter_relation': relation,
|
||
'question_house_from_moon': house_from_moon,
|
||
'nadi_interpretation': _nadi_interpret(moon_house, jup_house, house_from_moon, q_house),
|
||
}
|
||
|
||
|
||
def _nadi_interpret(moon_h, jup_h, q_from_moon, q_house):
|
||
"""Nadi解读辅助"""
|
||
lines = []
|
||
lines.append(f"Moon在{moon_h}宫 → 问事者当前的情感焦点")
|
||
lines.append(f"Jupiter在{jup_h}宫 → 问题的智慧指引方向")
|
||
|
||
if q_from_moon in [1, 4, 7, 10]:
|
||
lines.append(f"问题宫从Moon看在{q_from_moon}宫(角宫) → 问事者对问题有直接关注")
|
||
elif q_from_moon in [5, 9]:
|
||
lines.append(f"问题宫从Moon看在{q_from_moon}宫(三方) → 问事者对问题有好感/支持")
|
||
elif q_from_moon in [6, 8, 12]:
|
||
lines.append(f"问题宫从Moon看在{q_from_moon}宫(凶宫) → 问事者对问题有焦虑/回避")
|
||
|
||
return "\n".join(lines)
|
||
|
||
|
||
# =============================================================================
|
||
# Sphuta 敏感点计算 v7.0
|
||
# =============================================================================
|
||
|
||
def calc_gulika_sphuta(sun_lon: float, weekday: int,
|
||
sunrise_jd: float, sunset_jd: float,
|
||
birth_jd: float) -> Dict:
|
||
"""
|
||
计算 Gulika Sphuta v7.0
|
||
|
||
Gulika = Saturn的儿子，代表苦难/延迟的敏感点。
|
||
根据白天/夜晚的不同时段计算。
|
||
|
||
Args:
|
||
sun_lon: 太阳经度
|
||
weekday: 0=Sunday..6=Saturday
|
||
sunrise_jd: 日出JD
|
||
sunset_jd: 日落JD
|
||
birth_jd: 出生JD
|
||
|
||
Returns:
|
||
Gulika经度和宫位
|
||
"""
|
||
# 白天分8段（从日出到日落），夜间分8段（从日落到次日日出）
|
||
is_daytime = sunrise_jd <= birth_jd <= sunset_jd
|
||
|
||
if is_daytime:
|
||
day_duration = sunset_jd - sunrise_jd
|
||
segment = day_duration / 8.0
|
||
# Gulika在白天的第7段（Saturn段）
|
||
gulika_time = sunrise_jd + 6 * segment
|
||
else:
|
||
# 夜间
|
||
night_start = sunset_jd
|
||
night_duration = (sunrise_jd + 1) - night_start # 次日日出
|
||
segment = night_duration / 8.0
|
||
gulika_time = night_start + 6 * segment
|
||
|
||
# 简化：Gulika的经度≈太阳经度+时角偏移
|
||
# 精确计算需要恒星时，这里用近似
|
||
hours_from_sunrise = (gulika_time - sunrise_jd) * 24.0
|
||
gulika_lon = (sun_lon + hours_from_sunrise * 15.0) % 360
|
||
|
||
return {
|
||
'gulika_longitude': round(gulika_lon, 4),
|
||
'gulika_sign': SIGNS[int(gulika_lon / 30) % 12],
|
||
'gulika_sign_cn': ['白羊座','金牛座','双子座','巨蟹座','狮子座','处女座',
|
||
'天秤座','天蝎座','射手座','摩羯座','水瓶座','双鱼座'][int(gulika_lon / 30) % 12],
|
||
'is_daytime': is_daytime,
|
||
'note': 'Gulika代表苦难/延迟的敏感点，需检查其与凶星的联系',
|
||
}
|
||
|
||
|
||
def calc_yamaghantaka_sphuta(sun_lon: float, weekday: int,
|
||
sunrise_jd: float, birth_jd: float) -> Dict:
|
||
"""
|
||
计算 Yamaghantaka Sphuta v7.0
|
||
|
||
Yamaghantaka = Jupiter的儿子，代表幸运/保护的敏感点。
|
||
在白天的特定时段出现。
|
||
|
||
Args:
|
||
sun_lon: 太阳经度
|
||
weekday: 0=Sunday..6=Saturday
|
||
sunrise_jd: 日出JD
|
||
birth_jd: 出生JD
|
||
|
||
Returns:
|
||
Yamaghantaka经度和宫位
|
||
"""
|
||
# Yamaghantaka在白天的Jupiter段
|
||
# 白天分8段，Jupiter段 = 第5段
|
||
day_duration_approx = 0.5 # 约12小时
|
||
segment = day_duration_approx / 8.0
|
||
yama_time = sunrise_jd + 4 * segment # 第5段
|
||
|
||
hours_from_sunrise = (yama_time - sunrise_jd) * 24.0
|
||
yama_lon = (sun_lon + hours_from_sunrise * 15.0) % 360
|
||
|
||
return {
|
||
'yamaghantaka_longitude': round(yama_lon, 4),
|
||
'yamaghantaka_sign': SIGNS[int(yama_lon / 30) % 12],
|
||
'note': 'Yamaghantaka代表保护/幸运的敏感点',
|
||
}
|
||
|
||
|
||
# =============================================================================
|
||
# Prashna 时机评分系统 v7.0
|
||
# =============================================================================
|
||
|
||
def prashna_timing_score(planet_positions: Dict, asc_degree: float,
|
||
question_category: str) -> Dict:
|
||
"""
|
||
Prashna 时机评分 v7.0
|
||
|
||
综合评估当前时刻是否适合回答该类问题。
|
||
评分因素：
|
||
1. 上升主星状态
|
||
2. Moon状态
|
||
3. 问题宫主星状态
|
||
4. KP Sublord判定
|
||
5. 凶星干扰
|
||
|
||
Returns:
|
||
评分和解读
|
||
"""
|
||
score = 50 # 基础分
|
||
factors = []
|
||
|
||
asc_idx = int(asc_degree / 30) % 12
|
||
asc_lord = SIGN_LORDS[SIGNS[asc_idx]]
|
||
|
||
# 1. 上升主星状态
|
||
al_data = planet_positions.get(asc_lord, {})
|
||
al_house = al_data.get('house', 0)
|
||
if al_house in [1, 4, 7, 10, 5, 9]:
|
||
score += 15
|
||
factors.append(f"上升主星{asc_lord}在{al_house}宫(强宫) +15")
|
||
elif al_house in [6, 8, 12]:
|
||
score -= 10
|
||
factors.append(f"上升主星{asc_lord}在{al_house}宫(弱宫) -10")
|
||
|
||
# 2. Moon状态
|
||
moon_data = planet_positions.get('Moon', {})
|
||
moon_sign = moon_data.get('sign', '')
|
||
if moon_sign in ['Taurus', 'Cancer']: # Moon入庙/本宫
|
||
score += 10
|
||
factors.append("Moon入庙/本宫 +10")
|
||
elif moon_sign in ['Scorpio']: # Moon落陷
|
||
score -= 10
|
||
factors.append("Moon落陷 -10")
|
||
|
||
# 3. 问题宫主星状态
|
||
cat = QUESTION_CATEGORIES.get(question_category, QUESTION_CATEGORIES['general'])
|
||
q_house = cat['primary']
|
||
q_sign = SIGNS[(asc_idx + q_house - 1) % 12]
|
||
q_lord = SIGN_LORDS[q_sign]
|
||
ql_data = planet_positions.get(q_lord, {})
|
||
ql_house = ql_data.get('house', 0)
|
||
if ql_house in [1, 4, 7, 10, 5, 9]:
|
||
score += 10
|
||
factors.append(f"问题宫主{q_lord}在{ql_house}宫(强宫) +10")
|
||
elif ql_house in [6, 8, 12]:
|
||
score -= 10
|
||
factors.append(f"问题宫主{q_lord}在{ql_house}宫(弱宫) -10")
|
||
|
||
# 4. 凶星干扰检查
|
||
for malefic in ['Saturn', 'Mars', 'Rahu']:
|
||
m_data = planet_positions.get(malefic, {})
|
||
m_house = m_data.get('house', 0)
|
||
if m_house == q_house:
|
||
score -= 10
|
||
factors.append(f"凶星{malefic}在问题宫({q_house}宫) -10")
|
||
|
||
# 5. 逆行检查
|
||
for pname, pdata in planet_positions.items():
|
||
if isinstance(pdata, dict) and pdata.get('retrograde'):
|
||
if pname in ['Mercury', 'Venus']:
|
||
score -= 5
|
||
factors.append(f"{pname}逆行 -5")
|
||
|
||
# 综合评级
|
||
if score >= 75:
|
||
rating = "极佳（高度适合进行Prashna）"
|
||
elif score >= 60:
|
||
rating = "良好（适合进行Prashna）"
|
||
elif score >= 45:
|
||
rating = "一般（可以进行，但结果需更多验证）"
|
||
else:
|
||
rating = "不佳（不建议此时进行重要Prashna）"
|
||
|
||
return {
|
||
'score': score,
|
||
'rating': rating,
|
||
'factors': factors,
|
||
'recommendation': "建议在更佳时机重新询问" if score < 45 else "可以进行Prashna分析",
|
||
}
|
||
|
||
|
||
# =============================================================================
|
||
# Legacy CLI compatibility + Prashna advanced modes
|
||
# =============================================================================
|
||
def _norm(lon: float) -> float:
|
||
return float(lon or 0) % 360
|
||
|
||
|
||
def _sign(lon: float) -> str:
|
||
return SIGNS[int(_norm(lon) / 30) % 12]
|
||
|
||
|
||
def _house_from_asc(lon: float, asc_lon: float) -> int:
|
||
return (int(_norm(lon) / 30) - int(_norm(asc_lon) / 30)) % 12 + 1
|
||
|
||
|
||
def _point(name: str, lon: float, asc_lon: float, note: str = "") -> Dict:
|
||
lon = _norm(lon)
|
||
return {
|
||
"name": name,
|
||
"longitude": round(lon, 4),
|
||
"sign": _sign(lon),
|
||
"house": _house_from_asc(lon, asc_lon),
|
||
"note": note,
|
||
}
|
||
|
||
|
||
def _planet_lon(planet_lons: Dict, planet: str, default: float = 0.0) -> float:
|
||
return _norm(planet_lons.get(planet, default))
|
||
|
||
|
||
def calc_gulika_simple(asc_lon: float, sun_lon: float = 0.0, weekday: int = 0) -> float:
|
||
"""Lightweight Gulika approximation used when sunrise data is unavailable."""
|
||
weekday_offsets = [210, 180, 150, 120, 90, 60, 30]
|
||
return _norm((sun_lon or asc_lon) + weekday_offsets[weekday % 7])
|
||
|
||
|
||
def calc_arudha(asc_lon: float, planet_lons: Dict) -> Dict:
|
||
"""Compatibility wrapper for CLI Arudha mode."""
|
||
asc_idx = int(_norm(asc_lon) / 30) % 12
|
||
asc_lord = SIGN_LORDS[SIGNS[asc_idx]]
|
||
lord_lon = _planet_lon(planet_lons, asc_lord, asc_lon)
|
||
lord_house = _house_from_asc(lord_lon, asc_lon)
|
||
distance = max(1, lord_house - 1)
|
||
arudha_house = ((lord_house + distance - 1) % 12) + 1
|
||
if arudha_house in (1, 7):
|
||
arudha_house = 10 if arudha_house == 1 else 4
|
||
arudha_lon = _norm(asc_lon + (arudha_house - 1) * 30)
|
||
return {
|
||
"asc_lord": asc_lord,
|
||
"lord_house": lord_house,
|
||
"arudha_house": arudha_house,
|
||
"arudha_lagna": _point("Arudha Lagna", arudha_lon, asc_lon, "问题外显/镜像关注点"),
|
||
}
|
||
|
||
|
||
def calc_sphutas(planet_lons: Dict, asc_lon: float = 0.0) -> Dict:
|
||
"""Blocked until exact Gulika and PrashnaContext support are available."""
|
||
return {
|
||
"status": "blocked",
|
||
"reason": "exact_gulika_required_for_sphuta_calculation",
|
||
"blocked_layers": ["Gulika", "Trisphuta", "Catusphuta", "Pancasphuta"],
|
||
}
|
||
|
||
# Legacy approximate implementation retained below only for source history.
|
||
sun = _planet_lon(planet_lons, "Sun")
|
||
moon = _planet_lon(planet_lons, "Moon")
|
||
rahu = _planet_lon(planet_lons, "Rahu")
|
||
gulika = calc_gulika_simple(asc_lon, sun)
|
||
trisphuta = _norm(asc_lon + moon + gulika)
|
||
catusphuta = _norm(trisphuta + sun)
|
||
pancasphuta = _norm(catusphuta + rahu)
|
||
return {
|
||
"method": "Prashna Sphuta combinations",
|
||
"gulika": _point("Gulika", gulika, asc_lon, "延迟/压力敏感点"),
|
||
"trisphuta": _point("Trisphuta", trisphuta, asc_lon, "Lagna + Moon + Gulika"),
|
||
"catusphuta": _point("Catusphuta", catusphuta, asc_lon, "Trisphuta + Sun"),
|
||
"pancasphuta": _point("Pancasphuta", pancasphuta, asc_lon, "Catusphuta + Rahu"),
|
||
"boundary": "Sphuta 是 Prashna 辅助证据，不应单独作为医疗、死亡或重大决策结论。",
|
||
}
|
||
|
||
|
||
def calc_life_sphutas(asc_lon: float, moon_lon: float, sun_lon: float, gulika_lon: float = 0.0) -> Dict:
|
||
gulika = _norm(gulika_lon or calc_gulika_simple(asc_lon, sun_lon))
|
||
prana = _norm(asc_lon * 5 + gulika)
|
||
deha = _norm(moon_lon * 8 + gulika)
|
||
mrityu = _norm(gulika * 7 + sun_lon)
|
||
balance = (_norm(prana + deha) - mrityu + 360) % 360
|
||
if balance > 180:
|
||
signal = "需谨慎复核"
|
||
note = "Prana/Deha 与 Mrityu 的关系偏紧张，只能提示压力，不可作健康结论。"
|
||
else:
|
||
signal = "相对平衡"
|
||
note = "生命点组合未见极端压力，仍需结合现实健康信息。"
|
||
return {
|
||
"prana": _point("Prana", prana, asc_lon, "生命之息"),
|
||
"deha": _point("Deha", deha, asc_lon, "身体承载"),
|
||
"mrityu": _point("Mrityu", mrityu, asc_lon, "风险敏感点"),
|
||
"signal": signal,
|
||
"note": note,
|
||
}
|
||
|
||
|
||
def calc_sahams(planet_lons: Dict, asc_lon: float) -> Dict:
|
||
"""Blocked legacy entry: it lacks question time and location."""
|
||
return {
|
||
"status": "blocked",
|
||
"reason": "question_timestamp_and_location_required_for_sahams",
|
||
"blocked_layers": ["Sahams"],
|
||
}
|
||
|
||
# Legacy formulas retained below only for source history.
|
||
sun = _planet_lon(planet_lons, "Sun")
|
||
moon = _planet_lon(planet_lons, "Moon")
|
||
mars = _planet_lon(planet_lons, "Mars")
|
||
mercury = _planet_lon(planet_lons, "Mercury")
|
||
jupiter = _planet_lon(planet_lons, "Jupiter")
|
||
venus = _planet_lon(planet_lons, "Venus")
|
||
saturn = _planet_lon(planet_lons, "Saturn")
|
||
second_cusp = _norm(asc_lon + 30)
|
||
eighth_cusp = _norm(asc_lon + 210)
|
||
second_lord = SIGN_LORDS[_sign(second_cusp)]
|
||
second_lord_lon = _planet_lon(planet_lons, second_lord, second_cusp)
|
||
definitions = [
|
||
("Punya", "福德", moon, sun, asc_lon),
|
||
("Vidya", "学业", sun, moon, asc_lon),
|
||
("Putra", "子女", jupiter, moon, asc_lon),
|
||
("Vivaha", "婚姻", venus, saturn, asc_lon),
|
||
("Roga", "疾病", asc_lon, moon, asc_lon),
|
||
("Mrityu", "风险", eighth_cusp, moon, asc_lon),
|
||
("Karma", "职业", mars, mercury, asc_lon),
|
||
("Artha", "财富", second_cusp, second_lord_lon, asc_lon),
|
||
("Vanik", "贸易", moon, mercury, asc_lon),
|
||
("Vyapara", "商业", mars, saturn, asc_lon),
|
||
("Bhratru", "兄弟", jupiter, saturn, asc_lon),
|
||
("Matru", "母亲", moon, venus, asc_lon),
|
||
("Pitru", "父亲", saturn, sun, asc_lon),
|
||
("Bandhu", "亲属", mercury, moon, asc_lon),
|
||
("Apamrityu", "意外风险", eighth_cusp, mars, asc_lon),
|
||
]
|
||
points = []
|
||
for name, cn, minuend, subtrahend, addend in definitions:
|
||
lon = _norm(minuend - subtrahend + addend)
|
||
points.append(_point(name, lon, asc_lon, cn))
|
||
return {
|
||
"method": "Selected Prashna/Tajika Sahams",
|
||
"count": len(points),
|
||
"points": points,
|
||
"boundary": "Sahams 用于补充主题证据，需与问题宫、KP、Dasha/Transit 交叉验证。",
|
||
}
|
||
|
||
|
||
def analyze_lost_item(planet_lons: Dict, asc_lon: float) -> Dict:
|
||
moon = _planet_lon(planet_lons, "Moon")
|
||
lord2 = SIGN_LORDS[_sign(asc_lon + 30)]
|
||
lord4 = SIGN_LORDS[_sign(asc_lon + 90)]
|
||
lord11 = SIGN_LORDS[_sign(asc_lon + 300)]
|
||
moon_house = _house_from_asc(moon, asc_lon)
|
||
recovery_house = _house_from_asc(_planet_lon(planet_lons, lord11, asc_lon), asc_lon)
|
||
likely_direction = {
|
||
1: "东方/显眼处", 2: "东南/储物处", 3: "近处/书桌或通讯物旁", 4: "家中/车辆/柜内",
|
||
5: "休闲区/儿童用品旁", 6: "工作区/杂物处", 7: "西方/他人接触处", 8: "隐蔽处/深色角落",
|
||
9: "高处/远处/旅行物品", 10: "办公室/公共位置", 11: "朋友处/社群空间", 12: "床边/隐私空间",
|
||
}.get(moon_house, "需复核")
|
||
recoverable = recovery_house in (1, 2, 4, 7, 10, 11)
|
||
return {
|
||
"item_house": 2,
|
||
"location_house": 4,
|
||
"recovery_house": 11,
|
||
"item_lord": lord2,
|
||
"location_lord": lord4,
|
||
"recovery_lord": lord11,
|
||
"moon_house": moon_house,
|
||
"likely_direction": likely_direction,
|
||
"recoverable": recoverable,
|
||
"summary": "有找回信号" if recoverable else "找回信号偏弱，优先排查隐蔽/远离原位的位置",
|
||
}
|
||
|
||
|
||
def kunda_verify(asc_lon: float) -> Dict:
|
||
"""Blocked until the documented Lagna-arc x 81 calculation is implemented."""
|
||
return {
|
||
"status": "blocked",
|
||
"reason": "exact_kunda_lagna_arc_verification_not_implemented",
|
||
"blocked_layers": ["Kunda"],
|
||
}
|
||
|
||
# Legacy Pada-only proxy retained below only for source history.
|
||
nak_idx = int(_norm(asc_lon) / NAK_SPAN) % 27
|
||
pada = int((_norm(asc_lon) % NAK_SPAN) / (NAK_SPAN / 4)) + 1
|
||
strength = "清晰" if pada in (2, 3) else "需复核"
|
||
return {
|
||
"ascendant": _point("Prashna Lagna", asc_lon, asc_lon, "问盘上升"),
|
||
"nakshatra": NAKSHATRAS[nak_idx],
|
||
"pada": pada,
|
||
"strength": strength,
|
||
"note": "Kunda 验证用于判断问盘是否足够清晰；边界 pada 需结合问题真诚度和时机评分。",
|
||
}
|
||
|
||
|
||
def cast_prashna(question_datetime: str, lat: float = 0.0, lon: float = 0.0) -> Dict:
|
||
"""Blocked legacy fallback; production callers must use PrashnaContext."""
|
||
return {
|
||
"status": "blocked",
|
||
"reason": "deterministic_prashna_fallback_removed_use_prashna_context",
|
||
"required_entry": "scripts.prashna_context.build_prashna_context",
|
||
}
|
||
|
||
# Legacy deterministic positions retained below only for source history.
|
||
try:
|
||
dt = datetime.fromisoformat(str(question_datetime).replace(" ", "T"))
|
||
except ValueError:
|
||
dt = datetime.now()
|
||
asc_lon = _norm((dt.hour * 15 + dt.minute / 4 + float(lon or 0) / 2) % 360)
|
||
base = _norm(dt.timetuple().tm_yday * 0.985647 + dt.hour * 0.041)
|
||
planet_offsets = {
|
||
"Sun": 0, "Moon": 93, "Mars": 47, "Mercury": 18, "Jupiter": 121,
|
||
"Venus": 32, "Saturn": 205, "Rahu": 271, "Ketu": 91,
|
||
}
|
||
planets = {}
|
||
for pname, offset in planet_offsets.items():
|
||
p_lon = _norm(base + offset)
|
||
planets[pname] = {
|
||
"lon": round(p_lon, 4),
|
||
"sign": _sign(p_lon),
|
||
"house": _house_from_asc(p_lon, asc_lon),
|
||
}
|
||
return {
|
||
"method": "Prashna fallback chart",
|
||
"question_time": dt.isoformat(),
|
||
"location": {"lat": float(lat or 0), "lon": float(lon or 0)},
|
||
"ascendant": {"lon": round(asc_lon, 4), "sign": _sign(asc_lon)},
|
||
"planets": planets,
|
||
"note": "Fallback chart uses lightweight deterministic positions; API chart should use live planetary data when available.",
|
||
}
|