Statistical Genetics, Kyoto University - PEER and VBQTL
We perform Bayesian inference(En) ベイズ推定(Jp) in the joint model(Joint probability (En),同時分布 (Jp)), which is appealing for
several reasons. First, it allows possible dependencies between the
different sources of variation to be captured. The effects of the
genotype, known and hidden factors are learned jointly, taking other
parts of the model into account. Propagation of uncertainty(En) 確率伝搬法(Jp) leads to
more accurate parameter estimates, and avoids possible pathologies (Pathological in Math/Computer Sciences(En) Pathological in Math/Computer Sciences(Jp),
for instance of maximum likelihood methods (Pathological with MLE(En)). Second, Bayesian
inference allows different models to be flexibly combined according to
the needs of a particular study. Many existing approaches can be cast as
special cases of this general framework, with some examples given in
Figure 1 (Look at figure 1 and find three analysis frameworks). Finally, the Bayesian approach leads itself to efficient
approximate inference schemes such as variational methods (Bayesian network is one of Graphical models(En))Bayesian network is one of Graphical models(Jp)) Variational models(En) ,
rendering the resulting algorithms applicable to large-scale and high-
dimensional datasets. Also, variational learning allows an inference
schedule to be specified by the user, leading to distinct algorithms
with different computational complexity and properties.