- EPIC-TRACE:
predicting TCR binding to unseen epitopes using attention
and contextualized embeddings
- LNPDE:
Learning Space-Time Continuous Neural PDEs from Partially
Observed States
- GP-prior-VAE-MC:
Learning conditional variational autoencoders with missing
covariates
- ODEmodeling:
Importance sampling for inference in Bayesian ordinary
differential equation models
- TSignal:
A transformer model for signal peptide prediction
- MSVI: Latent
Neural ODEs with Sparse Bayesian Multiple Shooting
- TCRconv:
Determining recognition between TCRs and epitopes using
contextualized motifs
- LuxHMM: DNA
methylation analysis with genome segmentation via hidden
Markov model
- HL-VAE: A
variational autoencoder for heterogeneous temporal and
longitudinal data
- GPODE:
Variational multiple shooting for Bayesian ODEs with
Gaussian processes
- ChromDMM:
A Dirichlet-multinomial mixture model for clustering
heterogeneous epigenetic data
- cfMeDIP-seq:
cell-free DNA methylation based cancer classification
- PairGP:
Gaussian process modeling of longitudinal data from paired
multi-condition studies
- LuxRep:
technical replicate-aware method for bisulfite sequencing
data analysis
- ODERL:
Continuous-time model-based reinforcement learning
- L-VAE:
Longitudinal variational autoencoder
- HGPLVM:
Latent Gaussian process with composite likelihoods and
numerical quadrature
- TCRGP:
Determining epitope-specificity of T cell receptors with
TCRGP
- MPNN-PDE:
Learning continuous-time PDEs from sparse data with graph
neural networks
- lgpr:
An interpretable nonparametric method for inferring
covariate effects from longitudinal data
- LuxUS: DNA
methylation analysis using generalized linear mixed model
with spatial correlation
- ODE2VAE:
Deep generative second order ODEs with Bayesian neural
networks
- DiffGP:
Deep learning with differential Gaussian process flows
- SCHiRM:
Single cell hierarchical regression model
- BaMFA:
Bayesian metabolic flux analysis
- snpEnrichR:
An R package to analyze co-localization of SNPs and their
proxies in genomic regions
- npODE:
Learning unknown ODE (or SDE) models with Gaussian processes
- mGPfusion:
Gaussian process based method for predicting stability
changes upon single and multiple mutations
- LonGP: an
additive Gaussian process regression model for longitudinal
data analysis
- Multiscale: A data-driven
multiscale modeling framework for spatio-temporal growth
dynamics of yeast colonies
- LuxGLM: A
probabilistic covariate model for quantification of DNA
methylation modifications with complex experimental designs
- Subpop: A subpopulation model
to analyze heterogeneous cell differentiation dynamics
- LEM: Data-driven mechanistic
analysis method to reveal dynamically evolving regulatory
networks
- Lux: A probabilistic generative
model for quantification of DNA modifications
- AdaptiveGP: An implementation
of a fully nonstationary, heteroscedastic Gaussian process
for Matlab.
- MixChIP: A probabilistic method
for cell type specific protein-DNA binding analysis
- BinDNase: A discriminative
approach for transcription factor binding prediction using
DNase I hypersensitivity data
- DyNB:
A probabilistic method to analyze RNA-seq time series data.
- Sorad:
A nonparametric probabilistic method to infer and analyze
dynamic signaling pathways.
- LIGAP:
A probabilistic method to identify condition/lineage
specific time-course profiles.
- DSection:
A probabilistic model and MCMC sampler for reconstructing
cell type
specific gene expression profiles from measurements of
heterogeneous
tissues. A
web tool
is also available. DSection is also included in an R package
called CellMix.
- MultiTF-PPI:
A probabilistic protein-protein interaction guided method
for
competitive transcription factor binding prediction.
- ProbTF:
Transcription factor binding prediction with multiple data
fusion. A
Matlab implementation of
our transcription factor binding prediction method that can
incorporate
multiple genome-level data sources: ProbTF
software
page. We
have also developed a web tool that is publicly available at
www.probtf.org.
- GPODE: Learning
the structure of gene regulatory networks using
non-parametric
molecular kinetics.
- DBNRJMCMC (*coming soon): Structural learning of dynamic
Bayesian
networks. A set
of Matlab functions
that implement our RJMCMC and approximative MCMC DBN
structure learning
from time series and/or steady state measurements will be
added
shortly. In the meantime, please contact us directly via
email.
- Robust periodicity detection:
- A set of Matlab functions
that implement our robust rank-based periodicity detection
method can
be downloaded from the supplementary
web
page and from here.
- A set of Matlab functions that implement our robust
regression-based
periodicity detection method can be downloaded from the supplementary
web
page.
- GeneCycle
R package at CRAN.
- Toolbox for Boolean and probabilistic Boolean networks. A
comprehensive toolbox to
work with Boolean networks and probabilistic Boolean
networks can be
downloaded from PBN
web page
maintained by Ilya
Shmulevich.