SINe Lab
@sinelabdtu.bsky.social
Social Interaction and Neuroscience Lab at DTU Compute, led by Ivana Konvalinka. We study behavioural and brain mechanisms underlying social interaction.
#JAM10 #JAMX #JointActionMeeting has been JAM packed with amazing science and wonderful connections and memories!
Here’s SINe lab in action 💪❤️
Here’s SINe lab in action 💪❤️
July 11, 2025 at 7:06 PM
#JAM10 #JAMX #JointActionMeeting has been JAM packed with amazing science and wonderful connections and memories!
Here’s SINe lab in action 💪❤️
Here’s SINe lab in action 💪❤️
Source localisation indicated that the difference in microstate dynamics between symmetric and asymmetric conditions was likely modulated by a difference in default mode network related activity between the two participants when they took on different interactive roles.
February 9, 2025 at 4:59 PM
Source localisation indicated that the difference in microstate dynamics between symmetric and asymmetric conditions was likely modulated by a difference in default mode network related activity between the two participants when they took on different interactive roles.
Our key finding: We show that traditional single-brain microstates don’t distinguish interaction conditions—but two-brain microstates do! Asymmetry in brain states emerges in asymmetric social roles (i.e., observer-actor, leader-follower).
February 9, 2025 at 4:59 PM
Our key finding: We show that traditional single-brain microstates don’t distinguish interaction conditions—but two-brain microstates do! Asymmetry in brain states emerges in asymmetric social roles (i.e., observer-actor, leader-follower).
The participants produced movements across a number of interactive (when they could see each other) and non-interactive conditions. They also engaged in two conditions where they had asymmetric tasks (actor/observer) and roles (leader/follower). Data from: royalsocietypublishing.org/doi/full/10....
February 9, 2025 at 4:59 PM
The participants produced movements across a number of interactive (when they could see each other) and non-interactive conditions. They also engaged in two conditions where they had asymmetric tasks (actor/observer) and roles (leader/follower). Data from: royalsocietypublishing.org/doi/full/10....
Two-brain microstates quantifies quasi-stable moments of synchronous as well as asymmetric activity across different interaction conditions - here applied to an experiment employing the mirror game. We compare our method to the classical single-brain microstate analysis.
February 9, 2025 at 4:59 PM
Two-brain microstates quantifies quasi-stable moments of synchronous as well as asymmetric activity across different interaction conditions - here applied to an experiment employing the mirror game. We compare our method to the classical single-brain microstate analysis.