KrauthammerLab
University of Zurich & University Hospital Zurich
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Multilingual de-identification techniques for medical records.

Computational solutions to improve liquid biopsies

Investigating skin cancers using single-cell multi-omics

Predicting drug drug interactions for enhancing patient safety

Predicting base editing efficiencies in both lab cells and living models

Predicting drug synergy for enhancing therapeutic effectiveness

ML models rapidly stratify patient cardiac risk in emergency settings

Training AI algorithms on metagenomic data for predicting CAS9 PAM motifs

ML models for predicting patient-related nursing workload.

Deep learning models quantify lung disease progression

Predicting prime editing efficiencies and optimizing prime editing guide RNA (pegRNA) design

Generative DL models patient trajectories

TnpB editing efficiency predictor

Studying how conversational coordination shapes meaning in human and machine communication

Modeling speech and behavior to support mental health research and assessment

Audio-first approaches to understanding language directly from speech

Generative AI for protein fitness optimization

AI-assisted diagnosis in rheumatology

Today, in every aspect of our lives, everything we do leaves a digital footprint. Health-care institutions are also increasingly …

We are proud to be part of the UZH University Research Priority Programs (URPP) where we together with the Schwank lab investigate the …

Since the early days of computing, healthcare professionals have dreamt of using the vast storage and processing powers of computers to …

An introduction to long-read sequencing.

Helping reduce idle time in the USZ Radiology department

Comparing neural-networks versus logistic regression for predicting readmission.

Assessing the quality of online health information with AI.
Cancer on the cell level.

Novel computational method for drug-drug interaction predictions which are an important consideration for patient treatment.

Using deep learning for automatically generated medical reports describing radiological images.
This study investigates the use of cfDNA sequencing to monitor tumor dynamics in patients undergoing high-dose radiotherapy, revealing correlations between genetic alterations and clinical outcomes.
We developed machine learning models, PRIDICT2.0 and ePRIDICT, to predict prime editing efficiency, offering a robust tool for optimizing genome editing strategies across diverse chromatin contexts.
The first objective of this study was to implement and assess the performance and reliability of a vision transformer (ViT)-based deep-learning model, an ‘off-the-shelf’ artificial intelligence solution, for identifying distinct signs of microangiopathy in nailfold capilloroscopy (NFC) images of patients with SSc. The second objective was to compare the ViT’s analysis performance with that of practising rheumatologists.