Rian Pratama

dblp:319/6886 · DBLP profile ↗
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1ranked-venue papers
1as first author
1since 2021 · last 2025
0009-0000-8142-7126ORCID · reported

Domains — the database's venue-derived domains; a paper can count in several

Applied, interdisciplinary, general and emerging computing · 1 · 1 first-author · 1 since 2021

Expertise — from the expertise taxonomy: the topics of the expert's papers under the CCF categories. A weight counts papers with recency: 1 for a paper about the topic, 0.3 when the topic is its context, halved every five years.

Interdisciplinary, comprehensive, and emerging computing
1 paper
Bioinformatics and computational biology · 100%

Topics — the 3 heaviest of 3, each with the papers that count most for it

TopicWeightPapersLastEvidence papers
Bioinformatics and computational biology › omics data analysis
batch effect correction
0.912025
Gene spatial integration: enhancing spatial transcriptomics analysis via deep learning and batch effect mitigation · Bioinform. 2025
Bioinformatics and computational biology
data integration
0.912025
Gene spatial integration: enhancing spatial transcriptomics analysis via deep learning and batch effect mitigation · Bioinform. 2025
Bioinformatics and computational biology › transcriptomics › spatial transcriptomics
spatial transcriptomics analysis
0.912025
Gene spatial integration: enhancing spatial transcriptomics analysis via deep learning and batch effect mitigation · Bioinform. 2025

Methods — techniques the papers use, named apart from their topics

representation learning · 0.9deep learning · 0.9autoencoder · 0.9
YearPublicationVenuePosition
2025 Gene spatial integration: enhancing spatial transcriptomics analysis via deep learning and batch effect mitigation
abstract
MOTIVATION: Spatial transcriptomics (ST) is a groundbreaking technique for studying the correlation between cellular organization within a tissue and its physiological and pathological properties. Every facet of spatial information, including cell/spot proximity, distribution, and dimensionality, is significant. Most methods lean heavily on proximity for ST analysis, each resulting in useful insights but still leaving other aspects untapped. In addition, samples procured at different times, by different donors, and by different technologies introduce a batch effects problem that hinders the statistical approach employed by most analysis tools. Addressing these challenges, we have developed a deep learning method for analyzing integrated multiple ST data, focusing on the distribution aspect. Furthermore, our method aims to leverage single-cell analysis tools. RESULTS: Our study introduces Gene Spatial Integration (GSI), a data integration pipeline utilizing a representation learning approach to extract the spatial distribution of genes into the same feature space as gene expression features. We employ an autoencoder network to extract spatial embedding, facilitating the projection of spatial features into gene expression feature space. Our approach allows for seamless integration of multiple samples with minimum detriment, increasing the performance of the ST data analysis tool. We show the application of our method on the human dorsolateral prefrontal cortex dataset. Our method consistently improves the performance of the clustering of Seurat tools, with the most significant increase observed in sample 151673, almost doubling the ARI score from 0.225 to 0.405. We also combine our pipeline with the clustering of GraphST, achieving a significantly higher ARI score in sample 151672 from 0.614 to 0.795. This result reveals the potential of gene distribution spatial aspect, also emphasizes the impact of integration and batch effect removal in developing a refined analysis in understanding tissue characteristics. AVAILABILITY AND IMPLEMENTATION: Implementation of GSI is accessible at https://github.com/Riandanis/Spatial_Integration_GSI.
Rian Pratama, Jason A. Hilton, J. Michael Cherry, Giltae Song
Bioinform.1