A Soft Handoff of Attention between Cerebral Hemispheres

Slides:



Advertisements
Similar presentations
Visual Control of Altitude in Flying Drosophila
Advertisements

Wilhelm Hofmeister and the foundations of plant science
RNA-Directed DNA Methylation: Getting a Grip on Mechanism
Wilhelm Hofmeister and the foundations of plant science
Victoria F. Ratcliffe, David Reby  Current Biology 
Eye position predicts what number you have in mind
Volume 26, Issue 4, Pages (February 2016)
Natalia Zaretskaya, Andreas Bartels  Current Biology 
Pre-constancy Vision in Infants
Generalizable Learning: Practice Makes Perfect — But at What?
Pattern and Component Motion Responses in Mouse Visual Cortical Areas
Sensory-Motor Integration: More Variability Reduces Individuality
Linguistic Relativity: Does Language Help or Hinder Perception?
Mimicry in plants Current Biology
Spontaneous Metatool Use by New Caledonian Crows
Representation of Object Weight in Human Ventral Visual Cortex
G. Lorimer Moseley, Timothy J. Parsons, Charles Spence  Current Biology 
Ryota Kanai, Naotsugu Tsuchiya, Frans A.J. Verstraten  Current Biology 
Nori Jacoby, Josh H. McDermott  Current Biology 
Following Directions from the Retina to the Brain
Visual Attention: Size Matters
Yukiyasu Kamitani, Frank Tong  Current Biology 
Volume 18, Issue 1, Pages (January 2008)
Michael J.L. Magrath, Oscar Vedder, Marco van der Velde, Jan Komdeur 
Volume 23, Issue 7, Pages R265-R266 (April 2013)
Human colour perception changes between seasons
Disruption of Perceptual Learning by a Brief Practice Break
Children, but Not Chimpanzees, Prefer to Collaborate
Visual Control of Altitude in Flying Drosophila
Target Detection Is Enhanced by Polarization Vision in a Fiddler Crab
Nicolas Catz, Peter W. Dicke, Peter Thier  Current Biology 
Volume 18, Issue 24, Pages (December 2008)
Selfish-herd behaviour of sheep under threat
Jeremy B. Wilmer, Ken Nakayama  Neuron 
Kyoko Yoshida, Nobuhito Saito, Atsushi Iriki, Masaki Isoda 
Locomotion: Why We Walk the Way We Walk
Volume 24, Issue 7, Pages R262-R263 (March 2014)
Volume 16, Issue 21, Pages R906-R910 (November 2006)
Non-cortical magnitude coding of space and time by pigeons
Pattern and Component Motion Responses in Mouse Visual Cortical Areas
Selfish-herd behaviour of sheep under threat
Jeremy M. Wolfe, Michael J. Van Wert  Current Biology 
Daniel Hanus, Josep Call  Current Biology 
David Pitcher, Vincent Walsh, Galit Yovel, Bradley Duchaine 
Masaya Hirashima, Daichi Nozaki  Current Biology 
Crows Spontaneously Exhibit Analogical Reasoning
Attention Reorients Periodically
N. Barnsley, J.H. McAuley, R. Mohan, A. Dey, P. Thomas, G.L. Moseley 
Computer Use Changes Generalization of Movement Learning
FOXO transcription factors
Function and Structure of Human Left Fusiform Cortex Are Closely Associated with Perceptual Learning of Faces  Taiyong Bi, Juan Chen, Tiangang Zhou, Yong.
Federica Amici, Filippo Aureli, Josep Call  Current Biology 
Attention Samples Stimuli Rhythmically
Volume 19, Issue 9, Pages R353-R355 (May 2009)
Sung Jun Joo, Geoffrey M. Boynton, Scott O. Murray  Current Biology 
Humans Can Continuously Optimize Energetic Cost during Walking
Sound Facilitates Visual Learning
The Interaction between Binocular Rivalry and Negative Afterimages
Volume 18, Issue 20, Pages (October 2008)
Christoph Kayser, Nikos K. Logothetis, Stefano Panzeri  Current Biology 
Coupled Oscillator Dynamics of Vocal Turn-Taking in Monkeys
A Visual Sense of Number
Volume 18, Issue 15, Pages R648-R650 (August 2008)
Basal bodies Current Biology
Nonvisual Motor Training Influences Biological Motion Perception
Volume 16, Issue 21, Pages (November 2006)
Nori Jacoby, Josh H. McDermott  Current Biology 
Volume 18, Issue 5, Pages R198-R202 (March 2008)
Maria J.S. Guerreiro, Lisa Putzar, Brigitte Röder  Current Biology 
Motion-Induced Blindness and Motion Streak Suppression
Presentation transcript:

A Soft Handoff of Attention between Cerebral Hemispheres Trafton Drew, Irida Mance, Todd S. Horowitz, Jeremy M. Wolfe, Edward K. Vogel  Current Biology  Volume 24, Issue 10, Pages 1133-1137 (May 2014) DOI: 10.1016/j.cub.2014.03.054 Copyright © 2014 Elsevier Ltd Terms and Conditions

Figure 1 Experimental Paradigm and Contralateral Waveforms for Experiment 1 (A) Schematic illustration of experiment 1 paradigm. Dotted lines and light gray lines were not visible in the experiment. (B) Vertical and horizontal ERP waveforms broken down by object movement type. Note that negative is plotted up here and throughout the paper. See also Figure S1. Current Biology 2014 24, 1133-1137DOI: (10.1016/j.cub.2014.03.054) Copyright © 2014 Elsevier Ltd Terms and Conditions

Figure 2 Source and Target Hemisphere Waveforms for Experiment 1 (A) Waveforms from the source and target hemispheres. These data are replotted from Figure 1B to emphasize hemisphere rather than object motion. (B) Difference waveforms for the target and source hemispheres. Asterisks denote the point in time when the waveform reliably differed from zero for at least ten successive time windows for the first time. Error bars represent the SD. See also Figure S2. Current Biology 2014 24, 1133-1137DOI: (10.1016/j.cub.2014.03.054) Copyright © 2014 Elsevier Ltd Terms and Conditions

Figure 3 Experiment 2 Trial Schematic and Difference Waveforms (A) Schematic for horizontal trial movement in experiment 2. Vertical trials followed the same pattern. (B) Difference waveforms for experiment 2. Unpredictable data are taken from the 50% of trials in which the objects crossed the midline. Asterisks denote the point in time when the waveform reliably differed from zero for at least ten successive time windows for the first time. Error bars represent the SD. See also Figure S3. Current Biology 2014 24, 1133-1137DOI: (10.1016/j.cub.2014.03.054) Copyright © 2014 Elsevier Ltd Terms and Conditions