X

Deep Learning-Based
Multimodal Data Fusion

Our project aims to develop advanced methods that will
synergistical exploit multiple, complementing, heterogenous
data sources to estimate true states of large dynamical systems.

We are developing deep learning-based data fusion framework
that uses trained differentiable surrogates within a Bayesian
inference optimization problem to quantify the posterior.


The primary benefit of the data-fusion paradigm is to rapidly
adapt pre-trained data-driven models to real-time, potentially
sparse, observations providing increased robustness in
nowcasting ability with quantified uncertainty.

Deep Learning-Based
Multimodal Data Fusion

Our project aims to develop advanced methods that will synergistical exploit multiple, complementing, heterogenous data sources to estimate true states of large dynamical systems. We are developing deep learning-based data fusion framework
that uses trained differentiable surrogates within a Bayesian inference optimization problem to quantify the posterior.
The primary benefit of the data-fusion paradigm is to rapidly adapt pre-trained data-driven models to real-time, potentially
sparse, observations providing increased robustness in nowcasting ability with quantified uncertainty.

We are developing deep learning-based data fusion framework that uses trained differentiable surrogates within a Bayesian
inference optimization problem to quantify the posterior.


The primary benefit of the data-fusion paradigm is to rapidly adapt pre-trained data-driven models to real-time, potentially
sparse, observations providing increased robustness in nowcasting ability with quantified uncertainty.

Deep Learning-Based
Multimodal Data Fusion

Our project aims to develop advanced methods that will
synergistical exploit multiple, complementing, heterogenous
data sources to estimate true states of large dynamical systems.

We are developing deep learning-based data fusion framework
that uses trained differentiable surrogates within a Bayesian
inference optimization problem to quantify the posterior.


The primary benefit of the data-fusion paradigm is to rapidly
adapt pre-trained data-driven models to real-time, potentially
sparse, observations providing increased robustness in
nowcasting ability with quantified uncertainty.