#!/usr/bin/env python3
"""
8维全息扫描：360度人格评估
"""

import json
import numpy as np
from pathlib import Path
from typing import Dict, List


class HolographicScanner:
    """8维全息扫描器"""

    # 8个维度定义
    DIMENSIONS = [
        'cognitive',      # 认知维度
        'emotional',      # 情感维度
        'behavioral',     # 行为维度
        'social',         # 社交维度
        'creative',       # 创造维度
        'spiritual',      # 灵性维度
        'practical',      # 实践维度
        'shadow'          # 阴影维度
    ]

    def __init__(self):
        self.scan_results = {}

    def scan_profile(self, profile_data: Dict, zodiac_sign: str) -> Dict:
        """执行全息扫描"""

        scan_result = {
            'zodiac_sign': zodiac_sign,
            'timestamp': str(np.datetime64('now')),
            'dimensions': {}
        }

        # 扫描每个维度
        for dimension in self.DIMENSIONS:
            scan_result['dimensions'][dimension] = self._scan_dimension(
                dimension,
                profile_data,
                zodiac_sign
            )

        # 计算总体特征
        scan_result['overall_signature'] = self._calculate_overall_signature(
            scan_result['dimensions']
        )

        # 识别矛盾模式
        scan_result['paradox_patterns'] = self._identify_paradoxes(
            scan_result['dimensions']
        )

        # 识别核心优势
        scan_result['core_strengths'] = self._identify_strengths(
            scan_result['dimensions']
        )

        # 识别潜在盲区
        scan_result['blind_spots'] = self._identify_blind_spots(
            scan_result['dimensions']
        )

        return scan_result

    def _scan_dimension(self, dimension: str, profile_data: Dict,
                        zodiac_sign: str) -> Dict:
        """扫描单个维度"""

        # 模拟扫描逻辑（实际需要更复杂的分析）
        scores = self._generate_dimension_scores(dimension, zodiac_sign)

        return {
            'dimension': dimension,
            'scores': scores,
            'primary_traits': self._extract_primary_traits(dimension, scores),
            'developmental_level': self._assess_developmental_level(scores),
            'integration_degree': self._assess_integration_degree(scores)
        }

    def _generate_dimension_scores(self, dimension: str,
                                   zodiac_sign: str) -> Dict:
        """生成维度分数（模拟）"""
        # 使用随机种子确保相同输入产生相同输出
        np.random.seed(hash(f"{dimension}_{zodiac_sign}") % 2**32)

        scores = {
            'raw_score': np.random.uniform(5, 10),
            'normalized_score': 0,  # 稍后计算
            'stability': np.random.uniform(0.6, 0.95),
            'flexibility': np.random.uniform(0.5, 0.9)
        }

        # 归一化到0-1
        scores['normalized_score'] = (scores['raw_score'] - 5) / 5

        return scores

    def _extract_primary_traits(self, dimension: str,
                                scores: Dict) -> List[str]:
        """提取主要特征"""

        trait_libraries = {
            'cognitive': ['逻辑思维', '直觉感知', '分析能力', '综合整合'],
            'emotional': ['情感深度', '情感表达', '情绪调节', '共情能力'],
            'behavioral': ['行动力', '执行力', '适应性', '稳定性'],
            'social': ['人际敏感', '沟通表达', '团队协作', '领导能力'],
            'creative': ['想象力', '创新性', '原创性', '艺术性'],
            'spiritual': ['意义感', '超越性', '整合性', '直觉'],
            'practical': ['实用性', '效率', '规划能力', '执行细节'],
            'shadow': ['潜在恐惧', '防御机制', '未整合部分', '矛盾冲突']
        }

        traits = trait_libraries.get(dimension, [])
        # 选择前2-3个
        return traits[:2]

    def _assess_developmental_level(self, scores: Dict) -> str:
        """评估发展水平"""
        raw_score = scores['raw_score']

        if raw_score >= 9:
            return 'excellent'
        elif raw_score >= 8:
            return 'advanced'
        elif raw_score >= 7:
            return 'proficient'
        elif raw_score >= 6:
            return 'developing'
        else:
            return 'emerging'

    def _assess_integration_degree(self, scores: Dict) -> float:
        """评估整合程度"""
        # 结合稳定性和灵活性
        stability = scores['stability']
        flexibility = scores['flexibility']
        return (stability + flexibility) / 2

    def _calculate_overall_signature(self, dimensions: Dict) -> Dict:
        """计算总体特征"""

        # 收集所有维度的分数
        raw_scores = [
            dim_info['scores']['raw_score']
            for dim_info in dimensions.values()
        ]

        # 计算统计特征
        signature = {
            'mean': np.mean(raw_scores),
            'std': np.std(raw_scores),
            'max': np.max(raw_scores),
            'min': np.min(raw_scores),
            'range': np.ptp(raw_scores)
        }

        # 计算综合得分
        signature['composite_score'] = np.mean([
            dim_info['scores']['normalized_score']
            for dim_info in dimensions.values()
        ])

        # 确定主要类型
        signature['dominant_dimensions'] = self._identify_dominant_dimensions(
            dimensions
        )

        return signature

    def _identify_dominant_dimensions(self, dimensions: Dict) -> List[str]:
        """识别主导维度"""
        sorted_dims = sorted(
            dimensions.items(),
            key=lambda x: x[1]['scores']['raw_score'],
            reverse=True
        )
        return [dim_name for dim_name, _ in sorted_dims[:3]]

    def _identify_paradoxes(self, dimensions: Dict) -> List[Dict]:
        """识别矛盾模式"""

        paradoxes = []

        # 检查对立维度的张力
        paradox_pairs = [
            ('cognitive', 'emotional'),
            ('creative', 'practical'),
            ('social', 'shadow'),
            ('spiritual', 'practical')
        ]

        for dim1, dim2 in paradox_pairs:
            if dim1 in dimensions and dim2 in dimensions:
                score1 = dimensions[dim1]['scores']['raw_score']
                score2 = dimensions[dim2]['scores']['raw_score']
                tension = abs(score1 - score2)

                if tension > 3:
                    paradoxes.append({
                        'type': f"{dim1}_vs_{dim2}",
                        'tension': tension,
                        'higher_dimension': dim1 if score1 > score2 else dim2,
                        'lower_dimension': dim1 if score1 < score2 else dim2,
                        'description': f"{dim1}与{dim2}之间存在显著张力"
                    })

        return paradoxes

    def _identify_strengths(self, dimensions: Dict) -> List[Dict]:
        """识别核心优势"""
        strengths = []

        for dim_name, dim_info in dimensions.items():
            raw_score = dim_info['scores']['raw_score']
            if raw_score >= 8:
                strengths.append({
                    'dimension': dim_name,
                    'score': raw_score,
                    'level': dim_info['developmental_level'],
                    'primary_traits': dim_info['primary_traits']
                })

        return strengths

    def _identify_blind_spots(self, dimensions: Dict) -> List[Dict]:
        """识别潜在盲区"""
        blind_spots = []

        for dim_name, dim_info in dimensions.items():
            raw_score = dim_info['scores']['raw_score']
            if raw_score <= 6:
                blind_spots.append({
                    'dimension': dim_name,
                    'score': raw_score,
                    'level': dim_info['developmental_level'],
                    'suggestion': f"需要强化{dim_name}维度的能力"
                })

        return blind_spots


def main():
    import argparse

    parser = argparse.ArgumentParser(description='8维全息扫描')
    parser.add_argument('--profile', type=str, required=True,
                       help='配置文件路径 (JSON)')
    parser.add_argument('--zodiac', type=str, required=True,
                       help='星座名称')

    args = parser.parse_args()

    # 读取配置文件
    profile_path = Path(args.profile)
    with open(profile_path, 'r', encoding='utf-8') as f:
        profile_data = json.load(f)

    # 执行扫描
    scanner = HolographicScanner()
    result = scanner.scan_profile(profile_data, args.zodiac)

    print(json.dumps(result, ensure_ascii=False, indent=2))


if __name__ == '__main__':
    main()
