IKP Core Facility

Biostatistics/Bioinformatics, Pharmacometrics and Artificial Intelligence

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The core facility Biostatistics/Bioinformatics, Pharmacometrics, and Artificial Intelligence provides expert guidance and support for the design of experiments and studies, as well as the preprocessing and analysis of a wide range of biological, pharmacological, clinical, pathological, and imaging data, including a broad spectrum of omics data (genomics, transcriptomics, proteomics, metabolomics, and epigenomics). The team is skilled in managing high-dimensional and heterogeneous datasets using scripting languages (e.g., R, Python) and scalable computing resources. Established, standardized workflows are used to ensure efficient and reproducible handling of biomaterial data. Analytical approaches encompass machine learning and artificial intelligence techniques such as deep learning methods for image analysis, as well as pharmacometric methods such physiologically-based pharmacokinetic (PBPK) modeling.

Heads

Dr. Stefan Winter
Biostatician / Bioinformatician
Tel+49-711-8101-5704
stefan.winter@ikp-stuttgart.de
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Dr. Florian Büttner
Bioinformatician, Research Group Leader Breast Cancer Recurrence and Clinical Translation
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Team Members

Dr. Regina Bohnert
Bioinformatician, Head of Molecular Analytics
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M. Sc. Hannah Heinrich
Bioinformatician
Tel+49-711-8101 2832
hannah.heinrich@ikp-stuttgart.de
Frank Bastian
Bioinformatician
frank.bastian@ikp-stuttgart.de
Dr. Simeon Rüdesheim
Expert for Pharmacometrics
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Laura Achauer
PhD Student, RTG 2816
Laura.Achauer@ikp-stuttgart.de
Jan Clevorn
Master student
jan.clevorn@ikp-stuttgart.de
Anastasios Rodintsis
IT Technical Assistant
Tel+49-711-8101-7788
anastasios.rodintsis@rbk.de

Biostatistics and Bioinformatics

The Biostatistics and Bioinformatics Core Facility provides expert guidance and support for processing, preparing, and analyzing a wide range of biological, clinical, and pathological data. The facility utilizes established, standardized workflows for processing next-generation sequencing data, including pipeline solutions from the nf-core community project, ensuring efficient and reproducible handling of biomaterial data. Services include experiment planning (e.g., sample size estimation), selection of appropriate technical methodologies, and advanced biostatistical and bioinformatics analyses. The team is skilled in managing high-dimensional and heterogeneous datasets using scripting languages (e.g., R, Python) and scalable computing resources. Analytical approaches encompass supervised methods (e.g., regression, classification, survival analysis) and unsupervised techniques (e.g., clustering, dimensionality reduction), along with deep learning methods (e.g., convolutional neural networks) for image analysis, including tasks such as feature extraction, segmentation, and classification in medical and biological imaging.

Pharmacometrics

Pharmacometrics is the science of interpreting and understanding pharmacology quantitatively. It involves applying mathematical and statistical models to pharmacological data, supporting decision-making in drug development, regulatory submissions, and clinical practice. Moreover, pharmacometrics is used to optimize drug therapy and dosing regimens for diverse patient populations including children, the elderly or patients with specific conditions such as renal or hepatic impairment or cancer. Pharmacometricians use a variety of modeling techniques to simulate clinical trials, reducing the need for expensive and time-consuming clinical or preclinical trials and aiding in the understanding of complex biological systems. Key pharmacometric methods include population pharmacokinetics (PopPK), pharmacokinetics/pharmacodynamics (PK/PD) modeling, and physiologically-based pharmacokinetic (PBPK) modeling. The insights gained from pharmacometric analyses help in optimizing dosing, enhancing drug efficacy, and minimizing adverse effects facilitating more personalized medicine.

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Artificial Intelligence

Deep-learning techniques are used for different tasks in computational pathology and in the analysis of sequencing and multiplex immunofluorescence data. For the latter, the core facility established robust workflows for quality control, processing and analysis, including deep-learning-based approaches for cell segmentation and unsupervised and supervised cell phenotyping. Interpretable convolutional motif kernel networks, developed in a collaborative project, are applied for robust prediction of drug response phenotypes using sequencing data. In computational pathology, established frameworks for the analysis of hematoxylin and eosin (H&E) stained whole-slide images were customized to our specific datasets and research questions, encompassing cell core segmentation, tissue classification, and the extraction of (computational) histopathological features for downstream analysis.