Lorenzo Titone

Lorenzo Titone
Max Planck Institute for Human Cognitive and Brain Sciences | CBS · Max Planck Research Group Language Cycles

Master of Science

About

5
Publications
345
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3
Citations
Introduction
I am a doctoral research with a background in Psychology (BSc.) and Neuroscience (MSc.). My current research interests are on neural dynamics of predictive processing and statistical learning. In my PhD, I investigate neural tracking and temporal predictions in artificial speech using magnetoencephalography (MEG).
Additional affiliations
November 2020 - August 2021
Max Planck Institute for Psycholinguistics
Position
  • Trainee
Description
  • I collected and analyzed MEG data for a 9-months internship project titled: "Rhythmic computations in internal models of speech". Consequently, I wrote my Research Master thesis titled: "Oscillatory phase biases perception of ambiguous words".
Education
September 2019 - August 2021
Maastricht University
Field of study
  • Cognitive Neuroscience
September 2016 - July 2019
Università degli Studi di Milano-Bicocca
Field of study
  • Psychological Sciences

Publications

Publications (5)
Article
The human brain tracks regularities in the environment and extrapolates these to predict future events. Prior work on music cognition suggests that low‐frequency (1–8 Hz) brain activity encodes melodic predictions beyond the stimulus acoustics. Building on this work, we aimed to disentangle the frequency‐specific neural dynamics linked to melodic p...
Article
Temporal prediction assists language comprehension. In a series of recent behavioral studies, we have shown that listeners specifically employ rhythmic modulations of prosody to estimate the duration of upcoming sentences, thereby speeding up comprehension. In the current human magnetoencephalography (MEG) study on participants of either sex, we sh...
Article
Neural oscillations reflect fluctuations in excitability, which biases the percept of ambiguous sensory input. Why this bias occurs is still not fully understood. We hypothesized that neural populations representing likely events are more sensitive, and thereby become active on earlier oscillatory phases, when the ensemble itself is less excitable....
Preprint
Full-text available
Statistical learning is the ability to extract and retain statistical regularities from the environment. In language, extracting statistical regularities—so-called transitional probabilities, TPs—is crucial for segmenting speech and learning new words. To investigate whether neural activity synchronizes with these statistical patterns, so-called ne...
Preprint
Full-text available
Neural oscillations reflect fluctuations in excitability, which biases the percept of ambiguous sensory input. Why this bias occurs is still not fully understood. We hypothesized that neural populations representing likely events are more sensitive, and thereby become active on earlier oscillatory phases, when the ensemble itself is less excitable....

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