Description Usage Arguments Value
gammaiid
1 2 | gammaiid(Dy, alpha, prob.prior, weight.prior, mean.prior, sigma.prior,
sigma.y, weights.unexpected, mean.unexpected, sigma.unexpected, Nmax, b)
|
x: |
a 2 by 1 vector where the posterior intensity is computed. Cosequently, x is a coordinate in the wedge where the tilted PD is defined. |
Dy: |
a list of n vectors(2 by 1) representing points observed in a tilted persistence diagram of a fixed homological feature. |
alpha: |
0<=alpha<1. The probability of a feature in the prior will be detected in the observation. |
prob.prior: |
The prior cardinality pmf is defined as a binomial and prob.prior is the probability term (p_x in Eqn.(2)). |
weight.prior: |
a N by 1 vector of mixture weights (c^X_{j} of Eqn (1)) for the prior density estimation. |
mean.prior: |
a list of N vectors(2 by 1) each represets mean of the prior density (μ^X_{j} of Eqn (1)) |
sigma.prior: |
a N by 1 vector of positive constants, σ^X_{j} of Eqn (1). |
sigma.y: |
a positive constant. Variance coefficient (σ) of the likelihood density l(y|x) defined in the description above. This represents the degree of faith on the observed PDs representing the prior. |
weights.unexpected: |
a M by 1 vector of mixture weights for the unexpected features. i.e., (c^Y_{i} of Eqn (2) above. |
mean.unexpected: |
a list of M vectors (2 by 1),each represets mean of the Gaussian mixture density (μ^Y_{i} of Eqn (2)) for the unexpected features. |
sigma.unexpected: |
a M by 1 vector of positive constants, σ^Y_{i} of Eqn (2). |
Nmax: |
The maximum number of points on which the posterior cardinality will be truncated, i.e., p_n is computed for n=0 to n=Nmax. Also, this Nmax will be used to define prior cardinality too. So, it should be large enough so that all Binomials involved in the computation make sense |
b: |
0 or 1 |
numeric
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