...is data leakage originating from pLMs in protein–protein interaction inference tasks.
...is data leakage originating from pLMs in protein–protein interaction inference tasks.
Leverages AI and reinforcement learning to iteratively optimize T cell receptor binding affinity to tumor antigens, with generative AI ensuring plausible designs.
Leverages AI and reinforcement learning to iteratively optimize T cell receptor binding affinity to tumor antigens, with generative AI ensuring plausible designs.
Clarifies LNP structure, RNA encapsulation by protonated lipids, and stalk-pore endosomal escape limited by tenacious RNA-lipid binding.
Clarifies LNP structure, RNA encapsulation by protonated lipids, and stalk-pore endosomal escape limited by tenacious RNA-lipid binding.
CLIP-L miRNA-targets shows isomiRs alter target rep., with dist. seq dets for isomiR-spec interactions.
CLIP-L miRNA-targets shows isomiRs alter target rep., with dist. seq dets for isomiR-spec interactions.
discovers full computational circuitry in pLMs, linking to structural/functional motifs to guide protein design.
discovers full computational circuitry in pLMs, linking to structural/functional motifs to guide protein design.
...predicts promiscuous enzymes matching chemical transformation and substrate-product similarity, accelerating discovery for greener synthesis routes.
...predicts promiscuous enzymes matching chemical transformation and substrate-product similarity, accelerating discovery for greener synthesis routes.
captures scanner-robust, heterogeneity-preserved GBM representations using a topologically regularized autoencoder to model complex tumor invariants.
captures scanner-robust, heterogeneity-preserved GBM representations using a topologically regularized autoencoder to model complex tumor invariants.
by quantifying gene trajectory consistency across cell types, enabling uncertainty-aware recurrent model. for expression prediction.
by quantifying gene trajectory consistency across cell types, enabling uncertainty-aware recurrent model. for expression prediction.
...via omics-native LLM reasoning, directly inspecting scRNA-seq data and tools to iteratively solve cell-type, trajectory, & TF targeting problems.
...via omics-native LLM reasoning, directly inspecting scRNA-seq data and tools to iteratively solve cell-type, trajectory, & TF targeting problems.
Transferring with increased resources reduces pretraining loss but yields limited downstream utility, often saturating or degrading, exposing an evaluation gap.
Transferring with increased resources reduces pretraining loss but yields limited downstream utility, often saturating or degrading, exposing an evaluation gap.
...predicts distal mutations enhancing activity and stability for industrial biofluorination.
...predicts distal mutations enhancing activity and stability for industrial biofluorination.
, enabling per-spot deconvolution via adaptively inferred 3D neighborhood Gaussian kernel across 3D/temporal slices, and addressing sc-reference variability.
, enabling per-spot deconvolution via adaptively inferred 3D neighborhood Gaussian kernel across 3D/temporal slices, and addressing sc-reference variability.
learns feature x sample joint embeds from multi-omics to reveal reg rewiring & identify sample subgroups.
learns feature x sample joint embeds from multi-omics to reveal reg rewiring & identify sample subgroups.
Showing thousands of SNVs, inc. missense, alter translation efficiency, exhibiting two-layer regulation (5'UTR global, coding local) and impacting disease traits.
Showing thousands of SNVs, inc. missense, alter translation efficiency, exhibiting two-layer regulation (5'UTR global, coding local) and impacting disease traits.
...reduces shortcut biases in PSP prediction, revealing taxon-specific signals and challenges for IDR-lacking PSPs, guiding model improvement.
...reduces shortcut biases in PSP prediction, revealing taxon-specific signals and challenges for IDR-lacking PSPs, guiding model improvement.
...unifies supervised/unsupervised multi-omic analysis by preserving temporal structure and integrating phenotypic responses.
...unifies supervised/unsupervised multi-omic analysis by preserving temporal structure and integrating phenotypic responses.
predicts gene expression and pathway enrichment from standard cfDNA sequencing using frag. and nucleosome patterns.
predicts gene expression and pathway enrichment from standard cfDNA sequencing using frag. and nucleosome patterns.
unveiling its intricate molecular composition using advanced computational methods.
unveiling its intricate molecular composition using advanced computational methods.
...investigates architecture settings (latent size, depth/width) across diverse datasets & gene sets, offering practical tuning guidelines.
...investigates architecture settings (latent size, depth/width) across diverse datasets & gene sets, offering practical tuning guidelines.
...employs PDB & AlphaFold structures with machine learning to predict E2-E3 pairings, mapping ubiquitination networks.
...employs PDB & AlphaFold structures with machine learning to predict E2-E3 pairings, mapping ubiquitination networks.
struct. characterizes novel bacterial urethanases, detailing carbamate bond hydrolysis mech., advancing PUR biocatalytic recycling.
struct. characterizes novel bacterial urethanases, detailing carbamate bond hydrolysis mech., advancing PUR biocatalytic recycling.
Projects cryo-EM particle images & class representations into a compressed PCA space for assignment via Euclidean distance.
Projects cryo-EM particle images & class representations into a compressed PCA space for assignment via Euclidean distance.
...achieved for multistable dynamics (Morse-Smale, cont attractors) ensuring $\varepsilon$-$δ$ closeness for infinite time, and a temporal generalization bound.
...achieved for multistable dynamics (Morse-Smale, cont attractors) ensuring $\varepsilon$-$δ$ closeness for infinite time, and a temporal generalization bound.
recovers dynamical laws by converting signals to latent trajectory geometry and flow field metrics, discerning overlapping regimes.
recovers dynamical laws by converting signals to latent trajectory geometry and flow field metrics, discerning overlapping regimes.