datasketch/lshensemble_partition.py
def _compute_nfps_real(counts, sizes):
    """Computes the matrix of expected false positives for all possible
    sub-intervals of the complete domain of set sizes.

    Args:
        counts: the complete distribution of set sizes.
        sizes: the complete domain of set sizes.

    Return (np.array): the 2-D array of expected number of false positives
        for every pair of [l, u] interval, where l is axis-0 and u is
        axis-1.
    """
    nfps = np.zeros((len(sizes), len(sizes)))
    # All u an l are inclusive bounds for intervals.
    # Compute p = 1, the NFPs
    for l in range(len(sizes)):
        for u in range(l, len(sizes)):
            nfps[l, u] = _compute_nfp_real(l, u, counts, sizes)
    return nfps
def _compute_nfps_real(counts, sizes):
    nfps = np.zeros((len(sizes), len(sizes)))
    # All u an l are inclusive bounds for intervals.
    # Compute p = 1, the NFPs
    for l in range(len(sizes)):
        for u in range(l, len(sizes)):
            nfps[l, u] = _compute_nfp_real(l, u, counts, sizes)
    return nfps
def _compute_nfps_real ( counts , sizes ) : nfps = np . zeros ( ( len ( sizes ) , len ( sizes ) ) ) # All u an l are inclusive bounds for intervals. # Compute p = 1, the NFPs for l in range ( len ( sizes ) ) : for u in range ( l , len ( sizes ) ) : nfps [ l , u ] = _compute_nfp_real ( l , u , counts , sizes ) return nfps
Computes the matrix of expected false positives for all possible
    sub-intervals of the complete domain of set sizes.

    Args:
        counts: the complete distribution of set sizes.
        sizes: the complete domain of set sizes.

    Return (np.array): the 2-D array of expected number of false positives
        for every pair of [l, u] interval, where l is axis-0 and u is
        axis-1.
Computes the matrix of expected false positives for all possible sub - intervals of the complete domain of set sizes .