Joan López‐Moliner

This study estimates eye torsion during walking using head-mounted technology and shows its role in altering retinal flow for self-motion parameter extraction.

The paper shows that variability in subjective ratings from magnitude estimation reveals Poisson-like internal noise in perception, predicting sensitivity and phenomena like Weber's law.

The paper shows that retinal curl from fixations, not the Focus of Expansion, drives heading perception, with biases reversing when curl is manipulated.

This study introduces a predictive model for intercepting moving targets that incorporates gravitational dynamics, validated through virtual reality experiments showing better alignment with human behavior than traditional optical-based models.

The paper investigates how gamma brain oscillatory coherence between visual and motor areas relates to temporal adaptation in a delayed visual feedback interception task.

The paper shows that people use prediction errors, not actual temporal errors, for trial-to-trial motor corrections in fast movements.

This study investigates whether knowledge of Earth's gravity influences eye movements during visual pursuit of parabolic trajectories, finding mixed support for the hypothesis.

This study decouples sensory and decisional biases in perceptual decision making by analyzing human responses to a task with altered response mappings, finding both types of biases in most participants.

This study investigates how humans discriminate visually presented gravities and identifies key visual cues used in gravity judgments during parabolic motion.