Semi-supervised learning begins by training an initial supervised model on the mouse data alone and applying the model to a human test data. Human samples with the highest prediction confidence are used to create an augmented training dataset of mouse and human samples with predicted phenotypes. A new model is trained on this augmented training set and applied to reclassify the human samples. Predictions are finalized when all human samples are merged with the training set. Predicted human differentially expressed genes and enriched pathways are validated against genes and pathways identified using the true human phenotypes.</p
TACTiCS is a method to transfer and align cell types in cross-species data. This repository contains...
Over the last few years, increased computational power from technologies such as CUDA has allowed da...
Motivation: Model organisms play critical roles in biomedical research of human diseases and drug de...
The high failure rate of therapeutics showing promise in mouse models to translate to patients is a ...
The high failure rate of therapeutics showing promise in mouse models to translate to patients is a ...
(A) 95% confidence intervals of the DEG F-scores of each machine learning approach across all regula...
Generalizing results from animal models to human patients is a critical biomedical challenge. This p...
Cross-species differences form barriers to translational research that ultimately hinder the succes...
Motivation: Inferring how humans respond to external cues such as drugs, chemicals, viruses or hormo...
Machine learning algorithms trained to predict the regulatory activity of nucleic acid sequences hav...
Animal models serve an important purpose in fundamental re-search aimed at understanding the molecul...
Despite their utility as models for human systems, intrinsic differences between mouse and human bio...
<p>Semi-supervised learning results for varying sizes of the initial training set (different number ...
The coverage and resolution of the available data determines the category. Categories one through th...
The reconstruction of Gene Regulatory Networks (GRNs) from gene expression data, supported by machin...
TACTiCS is a method to transfer and align cell types in cross-species data. This repository contains...
Over the last few years, increased computational power from technologies such as CUDA has allowed da...
Motivation: Model organisms play critical roles in biomedical research of human diseases and drug de...
The high failure rate of therapeutics showing promise in mouse models to translate to patients is a ...
The high failure rate of therapeutics showing promise in mouse models to translate to patients is a ...
(A) 95% confidence intervals of the DEG F-scores of each machine learning approach across all regula...
Generalizing results from animal models to human patients is a critical biomedical challenge. This p...
Cross-species differences form barriers to translational research that ultimately hinder the succes...
Motivation: Inferring how humans respond to external cues such as drugs, chemicals, viruses or hormo...
Machine learning algorithms trained to predict the regulatory activity of nucleic acid sequences hav...
Animal models serve an important purpose in fundamental re-search aimed at understanding the molecul...
Despite their utility as models for human systems, intrinsic differences between mouse and human bio...
<p>Semi-supervised learning results for varying sizes of the initial training set (different number ...
The coverage and resolution of the available data determines the category. Categories one through th...
The reconstruction of Gene Regulatory Networks (GRNs) from gene expression data, supported by machin...
TACTiCS is a method to transfer and align cell types in cross-species data. This repository contains...
Over the last few years, increased computational power from technologies such as CUDA has allowed da...
Motivation: Model organisms play critical roles in biomedical research of human diseases and drug de...