Adaptive Basis Selection for Exponential Family Smoothing Splines with Application in Joint Modeling of Multiple Sequencing Samples
Ping Ma, Nan Zhang, Jianhua Z. Huang, Wenxuan Zhong

TL;DR
This paper introduces an adaptive basis selection method for exponential family smoothing splines, enabling scalable joint modeling of multiple sequencing samples with preserved statistical properties and demonstrated effectiveness in simulations and real data.
Contribution
The paper proposes a novel adaptive basis selection technique that reduces computational complexity for exponential family smoothing splines in joint sequencing data analysis.
Findings
Efficient computation with sparse approximation of splines.
Maintains statistical convergence rates comparable to full basis models.
Validated through simulations and sequencing data examples.
Abstract
Second-generation sequencing technologies have replaced array-based technologies and become the default method for genomics and epigenomics analysis. Second-generation sequencing technologies sequence tens of millions of DNA/cDNA fragments in parallel. After the resulting sequences (short reads) are mapped to the genome, one gets a sequence of short read counts along the genome. Effective extraction of signals in these short read counts is the key to the success of sequencing technologies. Nonparametric methods, in particular smoothing splines, have been used extensively for modeling and processing single sequencing samples. However, nonparametric joint modeling of multiple second-generation sequencing samples is still lacking due to computational cost. In this article, we develop an adaptive basis selection method for efficient computation of exponential family smoothing splines for…
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Taxonomy
TopicsCancer-related molecular mechanisms research · Genetic and phenotypic traits in livestock · RNA Research and Splicing
