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T16-2 φ-引力波理论形式化规范

1. 基础数学对象

1.1 φ-度量扰动张量

class PhiMetricPerturbation:
def __init__(self, dimensions: int = 4):
self.dimensions = dimensions
self.phi = (1 + np.sqrt(5)) / 2
self.components = {} # (μ,ν) -> PhiNumber

def get_component(self, mu: int, nu: int) -> 'PhiNumber':
"""获取h_{μν}^φ分量"""

def set_component(self, mu: int, nu: int, value: 'PhiNumber'):
"""设置h_{μν}^φ分量,确保对称性"""

def verify_gauge_condition(self) -> bool:
"""验证TT规范条件"""

def verify_no_11_constraint(self) -> bool:
"""验证所有分量满足no-11约束"""

1.2 φ-引力波模式

class PhiGravitationalWaveMode:
def __init__(self, fibonacci_index: int):
self.n = fibonacci_index
self.F_n = self._fibonacci(fibonacci_index)
self.amplitude = None # PhiNumber
self.polarization = None # (+, ×)
self.wave_vector = None # PhiVector
self.frequency = None # PhiNumber

def _fibonacci(self, n: int) -> int:
"""计算第n个Fibonacci数"""

def verify_dispersion_relation(self) -> bool:
"""验证φ-色散关系"""

def compute_energy_density(self) -> 'PhiNumber':
"""计算该模式的能量密度"""

1.3 φ-波函数

class PhiWaveFunction:
def __init__(self):
self.modes = [] # List[PhiGravitationalWaveMode]
self.phi = (1 + np.sqrt(5)) / 2

def add_mode(self, mode: PhiGravitationalWaveMode):
"""添加一个满足no-11约束的模式"""

def evaluate(self, x: 'PhiVector', t: 'PhiNumber') -> 'PhiMetricPerturbation':
"""计算时空点(x,t)处的度量扰动"""

def fourier_decomposition(self) -> Dict[int, PhiGravitationalWaveMode]:
"""返回Fibonacci模式分解"""

2. 核心算法

2.1 φ-d'Alembert算子

class PhiDAlembert:
def __init__(self, metric: 'PhiMetric'):
self.metric = metric
self.phi = (1 + np.sqrt(5)) / 2

def apply(self, field: 'PhiTensor') -> 'PhiTensor':
"""应用φ-d'Alembert算子: □^φ = -1/φ² ∂²/∂t² + ∇²_φ"""

def solve_wave_equation(self, source: 'PhiTensor') -> 'PhiWaveFunction':
"""求解φ-波动方程"""

2.2 模式选择器

class PhiModeSelector:
def __init__(self):
self.allowed_modes = set() # 满足no-11约束的模式
self._compute_allowed_modes()

def _compute_allowed_modes(self, max_n: int = 100):
"""计算满足no-11约束的Fibonacci指标"""

def is_allowed(self, n: int) -> bool:
"""检查模式n是否允许"""

def get_mode_spectrum(self) -> List[int]:
"""返回允许的模式谱"""

2.3 φ-能量动量张量

class PhiGravitationalWaveStressTensor:
def __init__(self, wave: 'PhiWaveFunction'):
self.wave = wave
self.phi = (1 + np.sqrt(5)) / 2

def compute_energy_density(self) -> 'PhiNumber':
"""计算引力波能量密度ρ_GW^φ"""

def compute_energy_flux(self) -> 'PhiVector':
"""计算能量通量S_GW^φ"""

def verify_conservation(self) -> bool:
"""验证φ-能量守恒"""

3. 物理过程

3.1 双星系统辐射

class PhiBinarySystem:
def __init__(self, m1: 'PhiNumber', m2: 'PhiNumber', a: 'PhiNumber'):
self.m1 = m1 # 质量1
self.m2 = m2 # 质量2
self.a = a # 轨道半径
self.phi = (1 + np.sqrt(5)) / 2

def orbital_frequency(self) -> 'PhiNumber':
"""计算轨道频率"""

def gravitational_wave_power(self) -> 'PhiNumber':
"""计算引力波辐射功率"""

def chirp_mass(self) -> 'PhiNumber':
"""计算chirp质量"""

def evolution_timescale(self) -> 'PhiNumber':
"""计算演化时标"""

3.2 引力波探测器响应

class PhiDetectorResponse:
def __init__(self, arm_length: 'PhiNumber'):
self.L = arm_length
self.phi = (1 + np.sqrt(5)) / 2

def strain_response(self, wave: 'PhiWaveFunction',
direction: 'PhiVector') -> 'PhiNumber':
"""计算探测器应变响应"""

def antenna_pattern(self, theta: float, phi: float, psi: float) -> Tuple[float, float]:
"""计算天线方向图F+, F×"""

def sensitivity_curve(self, frequencies: List['PhiNumber']) -> List['PhiNumber']:
"""计算灵敏度曲线"""

3.3 φ-引力波记忆效应

class PhiMemoryEffect:
def __init__(self):
self.phi = (1 + np.sqrt(5)) / 2

def compute_memory(self, wave: 'PhiWaveFunction') -> 'PhiNumber':
"""计算永久应变"""

def verify_quantization(self, memory: 'PhiNumber') -> bool:
"""验证记忆效应的φ-量子化"""

4. 数值方法

4.1 φ-快速傅里叶变换

class PhiFFT:
def __init__(self):
self.phi = (1 + np.sqrt(5)) / 2

def forward(self, signal: List['PhiNumber']) -> List['PhiNumber']:
"""φ-FFT正变换,只保留允许的Fibonacci模式"""

def inverse(self, spectrum: List['PhiNumber']) -> List['PhiNumber']:
"""φ-FFT逆变换"""

def power_spectrum(self, signal: List['PhiNumber']) -> List['PhiNumber']:
"""计算功率谱"""

4.2 模板匹配

class PhiTemplateMatching:
def __init__(self, templates: List['PhiWaveFunction']):
self.templates = templates
self.phi = (1 + np.sqrt(5)) / 2

def match_filter(self, data: List['PhiNumber'],
template: 'PhiWaveFunction') -> 'PhiNumber':
"""计算匹配滤波器输出"""

def find_best_match(self, data: List['PhiNumber']) -> Tuple[int, 'PhiNumber']:
"""找到最佳匹配模板"""

5. 验证函数

5.1 理论一致性检查

def verify_no_11_constraint(wave: PhiWaveFunction) -> bool:
"""验证波函数所有分量满足no-11约束"""

def verify_gauge_invariance(perturbation: PhiMetricPerturbation) -> bool:
"""验证规范不变性"""

def verify_energy_conservation(system: PhiBinarySystem) -> bool:
"""验证能量守恒"""

5.2 数值精度检查

def check_dispersion_relation(mode: PhiGravitationalWaveMode, 
tolerance: float = 1e-10) -> bool:
"""检查色散关系的数值精度"""

def check_wave_equation_solution(wave: PhiWaveFunction,
source: PhiTensor) -> float:
"""检查波动方程解的误差"""

6. 关键常数

# 物理常数(φ-单位制)
PHI = (1 + np.sqrt(5)) / 2
G_PHI = 1.0 # φ-引力常数
C_PHI = PHI # φ-光速

# Fibonacci数列
FIBONACCI_SEQUENCE = [1, 1, 2, 3, 5, 8, 13, 21, 34, 55, 89, 144, ...]

# 允许的模式集合(示例)
ALLOWED_MODES = {1, 3, 4, 6, 8, 9, 11, 12, 14, 16, 17, 19, ...} # 无连续11

# 探测器参数
LIGO_ARM_LENGTH_PHI = PhiNumber("4000.0") # 米,φ-编码
MIN_DETECTABLE_STRAIN = PhiNumber("1e-23")

7. 错误处理

class PhiGravitationalWaveError(Exception):
"""引力波计算错误基类"""

class No11ConstraintViolation(PhiGravitationalWaveError):
"""违反no-11约束"""

class DispersionRelationError(PhiGravitationalWaveError):
"""色散关系不满足"""

class EnergyConservationError(PhiGravitationalWaveError):
"""能量不守恒"""