Bradly Alicea

The paper introduces a differentiation waves model to explain developmental processes across species, validated using C. elegans and other organisms.

The paper evaluates image quality in scientific publications, identifying common issues and providing guidelines to improve clarity and accessibility.

The paper shows temporal heterogeneity in embryonic development across two species and explores its role in phenotypic variation.

The paper combines quantitative analysis of C. elegans embryonic development with theory-building to link emergent properties and developmental processes.

The paper explores how neuronal activity and behavior emerge in C. elegans by analyzing the development of its connectome and synaptic connectivity strategies.

The paper develops a digital model of Bacillaria paradoxa using image processing and deep learning to analyze morphology and movement dynamics.

The paper uses computational modeling to analyze ommatidia formation in the Drosophila eye imaginal disc, identifying spatial patterns and spatiotemporal features.

The paper uses secondary data and a connectomics model to study the emergence of the C. elegans nervous system connectome during embryogenesis, identifying key developmental patterns and subnetworks.

The paper introduces an information isometry technique to quantify and visualize organizational features in developmental cell lineages using binary classification and isometric graphs.

This study examines genotype-specific developmental plasticity in C. elegans by analyzing reproductive timing and robustness under starvation conditions across multiple generations.

This paper reinterprets C. elegans embryogenesis through a theoretical framework and develops an RDF-based computational tool to visualize differentiation waves and their role in development.

This paper uses a feedback model to analyze mRNA dynamics during cellular adaptation to environmental perturbations, identifying three information processing principles.

This paper uses polysome isolation and drug treatments to study mRNA dynamics during cellular stress, showing how mRNA regulation differs between transcriptome and translatome.