Hi! I am Jeroen Gilis, a postdoctoral researcher at the systems biology division of Chalmers University in Gothenburg, Sweden. My current work revolves around genome-scale metabolic models (GEMs). My main goal is to establish a computational framework that keeps tracks of the different sources of uncertainty in the both the reconstruction of GEMs and in downstream analyses such as flux balance analysis. Furthermore, we aim to also use this framework to inform GEMs with omics data. In addition, I am collaborating on other projects that either require developing novel GEMs, or improving existing GEMs. Prior to this position, I obtained a PhD candidate in data science at Ghent University, Belgium. There, I developed software for differential expression analysis of single-cell transcriptomics data.
I aspire to continue contributing to science at the interface of data science and metabolic engineering, bridging the gap between my background in both data science and biotechnology. My interest lies in leveraging novel advances in machine learning for the rational design of biological entities such as organisms, pathways, proteins or biology-inspired synthetic constructs.
PhD candidate in Data Science
Ghent University, Belgium
MSc in Bioinformatics
Ghent University, Belgium
MSc in Biochemistry and Biotechnology
Leuven University, Belgium
BSc in Biochemistry and Biotechnology
Leuven University, Belgium
Developing a computational framework for that allows for uncertainty quantification and the integration of omics data into genome-scale metabolic models.
Developing software for the analysis of single-cell transcriptomics data.
I obtained a personal research grant from Research Foundation Flanders
Master thesis topic: development of a novel tool for studying differential transcript usage in single-cell transcriptomics data.
Master thesis topic: Modification of TPS1 for increased acetic acid tolerance in second generation bioethanol fermentations.
Internship research topic: Characterization of phenolic acids and enzyme activity in barley varieties used for beer production.
satuRn provides a highly performant and scalable framework for performing differential transcript usage analyses. The package consists of three main functions. The first function, fitDTU, fits quasi-binomial generalized linear models that model transcript usage in different groups of interest. The second function, testDTU, tests for differential usage of transcripts between groups of interest. Finally, plotDTU visualizes the usage profiles of transcripts in groups of interest. satuRn is written in R, and is freely available from the Bioconductor software project.
R Package for identifying, annotating and visualizing alternative splicing and isoform switches with functional consequences from both short- and long-read RNA-seq data.
Fishpond contains methods for differential transcript and gene expression analysis of RNA-seq data using inferential replicates for uncertainty of abundance quantification, as generated by Gibbs sampling or bootstrap sampling. Also the package contains a number of utilities for working with Salmon and Alevin quantification files.
Data package that allows for easy access to single-cell RNA-seq data generated with the 10X Genomics technology on PBMC cells.
This course is taught to BSc students in chemistry, biochemistry and biomedical sciences. It teaches the fundamentals in statistics, including introductory problems in regression, non-parametric tests and categorical data analysis. I am responsible for tutoring the practical sessions, which involve programming in R for solving real-life case studies to analyze data from biological or chemical experiments.
This course was directed towards PhD researchers, post-docs, university scientists and researchers from the industry. The goal of the course was to provide the participants with an in-depth understanding of the different steps in the analysis of single-cell transcriptomics data.
This course was directed towards PhD researchers, typically wet-lab scientist conducting biological experiments. The goal of this course was to provide the participants with the necessary tools to properly design their experiments and to allow them to perform a basic data exploration and analysis for their own data.