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Exploring noise in biological and artificial neural networks, its impact on computations, and new methods for analyzing stochastic network representations and trial-to-trial variability.
Explore face pareidolia through computer vision, examining human vs. machine detection abilities and proposing a statistical model for general object pareidolia in images.
Explore neural computations enabling animals to represent and process geometric structures in 3D environments, focusing on robust, low-power circuits for survival and navigation.
Explore how neural networks learn audio-visual representations from video streams, mimicking infant learning through synchronization of sight and sound.
Explore statistical mechanics for robust sparse equation discovery and optimal sensor placement, with applications in nuclear digital twins and high-dimensional field reconstruction.
Explore prediction-powered inference for valid statistical analysis using machine learning predictions, with applications in proteomics, genomics, and astronomy. Learn about reliable ML-guided decisions in biological sequence design.
Explore deep learning models for predicting regulatory functions from genomic DNA, uncovering mechanisms behind genetic variation's impact on cellular function and gene expression.
Exploring the impact of computational approximations on probabilistic models in machine learning, with focus on Gaussian Process approximations and their applications in neurobiology.
Explore ML-based protein engineering insights, discussing cutting-edge techniques and potential applications in biotechnology and drug discovery.
Exploring machine learning techniques incorporating crystallographic symmetries for materials science, enhancing property prediction and discovery of new materials and meta-materials.
Explore AI challenges in molecular design: representation, experimental alignment, and oracle reliance. Learn about new workflows and approaches to address real-world complexities in molecular discovery.
Explore generative modeling for protein design, focusing on building learning systems that can generalize, scale, and create fit-for-purpose protein complexes on demand.
Explore intersections of deep learning and numerical methods to enhance molecular and fluid dynamics simulations, improving accuracy and efficiency in scientific computations.
Explore machine learning potentials in chemistry, focusing on generalization, inductive biases, and error cancellation techniques for improved accuracy and efficiency.
Explore ML gradients in molecular simulations, including surrogate functions, active learning, and differentiable programming for enhanced scientific modeling and optimization.
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