一个开源的240天线阵列用于将信号反射到月球上

// 示例：单个天线单元的原理图
// 注意：这是一个概念性片段，并非实际代码
{
  "element_type": "偶极子",
  "frequency_range": "2.4-2.485 GHz",
  "materials": ["铝线", "塑料绝缘体"],
  "construction_steps": [
    "剪两根75厘米的线",
    "在两端安装绝缘体",
    "将线弯曲成'T'形"
  ]
}

# 示例：MoonRF阵列的波束形成算法
def beamform(antenna_data, target_direction):
    """
    调整天线单元的相位和幅度，使波束聚焦在目标方向。

    Args:
        antenna_data (list): 每个天线的信号读数列表。
        target_direction (tuple): 聚焦波束的方向（方位角、仰角）。

    Returns:
        list: 应用波束形成的处理后的信号数据。
    """
    # 根据目标方向计算每个天线的相位偏移
    phase_shifts = calculate_phase_shifts(target_direction)

    # 将相位偏移应用于天线数据
    processed_data = [data * phase_shift for data, phase_shift in zip(antenna_data, phase_shifts)]

    # 组合所有天线的信号
    combined_signal = sum(processed_data)

    return combined_signal

def calculate_phase_shifts(target_direction):
    """
    根据目标方向计算每个天线单元的相位偏移。

    Args:
        target_direction (tuple): 聚焦波束的方向（方位角、仰角）。

    Returns:
        list: 每个天线的相位偏移列表。
    """
    # 实际相位偏移计算的占位符
    return [0.0] * 240  # 示例：所有天线的相位偏移为0

// Example: Schematic for a single antenna element
// Note: This is a conceptual snippet and not actual code
{
  "element_type": "dipole",
  "frequency_range": "2.4-2.485 GHz",
  "materials": ["aluminum wire", "plastic insulators"],
  "construction_steps": [
    "Cut two 75 cm wires",
    "Attach insulators at both ends",
    "Bend wires into a 'T' shape"
  ]
}

# Example: Beamforming algorithm for the MoonRF array
def beamform(antenna_data, target_direction):
    """
    Adjusts the phase and amplitude of each antenna element to focus the beam in the target direction.

    Args:
        antenna_data (list): List of signal readings from each antenna.
        target_direction (tuple): The direction to focus the beam (azimuth, elevation).

    Returns:
        list: Processed signal data with beamforming applied.
    """
    # Calculate the phase shift for each antenna based on the target direction
    phase_shifts = calculate_phase_shifts(target_direction)

    # Apply phase shifts to the antenna data
    processed_data = [data * phase_shift for data, phase_shift in zip(antenna_data, phase_shifts)]

    # Combine the signals from all antennas
    combined_signal = sum(processed_data)

    return combined_signal

def calculate_phase_shifts(target_direction):
    """
    Calculates the phase shifts for each antenna element based on the target direction.

    Args:
        target_direction (tuple): The direction to focus the beam (azimuth, elevation).

    Returns:
        list: List of phase shifts for each antenna.
    """
    # Placeholder for actual phase shift calculation
    return [0.0] * 240  # Example: All antennas have a phase shift of 0