Review



tal2mni.m matlab function  (MathWorks Inc)


Bioz Verified Symbol MathWorks Inc is a verified supplier  
  • Logo
  • About
  • News
  • Press Release
  • Team
  • Advisors
  • Partners
  • Contact
  • Bioz Stars
  • Bioz vStars
  • 90

    Structured Review

    MathWorks Inc tal2mni.m matlab function
    A. Experimental design of the delayed motor task. For each trial, participants were instructed to perform horizontal saccades toward one of 2 targets after a delay of 3,750 milliseconds, 5,750 milliseconds or 7,750 milliseconds, depending on a visually presented central cue appearing briefly for 250 milliseconds. B. Top, left, and right views of the number of recording sites that contribute to each vertex (i.e., spatial density) projected on a standard 3D MNI brain. <t>Electrodes</t> contribute to a location when they are within 10 mm of a given site on the brain surface. In all brain images, right side of the image is the right side of the brain. C. Top, left, and right view of the depth-electrode recording sites, projected on a standard 3D MNI brain. Each color represents a participant. Left: Rostral is up; Right: Medial views. D. Barplot of mean reaction times for the 3 conditions across all participants ( Control , Instructed , Free ). Each triangle represents the mean reaction times for 1 participant. The data underlying this panel D can be found in . MNI, Montreal Neurological Institute.
    Tal2mni.M Matlab Function, supplied by MathWorks Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/result/tal2mni.m matlab function/product/MathWorks Inc
    Average 90 stars, based on 1 article reviews
    tal2mni.m matlab function - by Bioz Stars, 2026-03
    90/100 stars

    Images

    1) Product Images from "Decoding the neural dynamics of free choice in humans"

    Article Title: Decoding the neural dynamics of free choice in humans

    Journal: PLoS Biology

    doi: 10.1371/journal.pbio.3000864

    A. Experimental design of the delayed motor task. For each trial, participants were instructed to perform horizontal saccades toward one of 2 targets after a delay of 3,750 milliseconds, 5,750 milliseconds or 7,750 milliseconds, depending on a visually presented central cue appearing briefly for 250 milliseconds. B. Top, left, and right views of the number of recording sites that contribute to each vertex (i.e., spatial density) projected on a standard 3D MNI brain. Electrodes contribute to a location when they are within 10 mm of a given site on the brain surface. In all brain images, right side of the image is the right side of the brain. C. Top, left, and right view of the depth-electrode recording sites, projected on a standard 3D MNI brain. Each color represents a participant. Left: Rostral is up; Right: Medial views. D. Barplot of mean reaction times for the 3 conditions across all participants ( Control , Instructed , Free ). Each triangle represents the mean reaction times for 1 participant. The data underlying this panel D can be found in . MNI, Montreal Neurological Institute.
    Figure Legend Snippet: A. Experimental design of the delayed motor task. For each trial, participants were instructed to perform horizontal saccades toward one of 2 targets after a delay of 3,750 milliseconds, 5,750 milliseconds or 7,750 milliseconds, depending on a visually presented central cue appearing briefly for 250 milliseconds. B. Top, left, and right views of the number of recording sites that contribute to each vertex (i.e., spatial density) projected on a standard 3D MNI brain. Electrodes contribute to a location when they are within 10 mm of a given site on the brain surface. In all brain images, right side of the image is the right side of the brain. C. Top, left, and right view of the depth-electrode recording sites, projected on a standard 3D MNI brain. Each color represents a participant. Left: Rostral is up; Right: Medial views. D. Barplot of mean reaction times for the 3 conditions across all participants ( Control , Instructed , Free ). Each triangle represents the mean reaction times for 1 participant. The data underlying this panel D can be found in . MNI, Montreal Neurological Institute.

    Techniques Used: Control

    A. Summary of all significant electrodes by participant across frequencies showing that the largest clusters were found in the HG frequency band. B. Mean and C. Maximum decoding accuracies across participants and significant electrodes for each frequency band for Free versus Instructed classification (error bars represent SEM). D . Time course of baseline corrected (−500 to−100 milliseconds) HG activity aligned on Cue 1, for all electrodes that significantly classify Free versus Instructed conditions and H. its associated mean decoding accuracy across significant electrodes. E. Maximum decoding accuracies across participants and significant electrodes for each frequency bands for Free versus Instructed multielectrode classification. F. Relative mean HG peak activity (in %) and G. latency (in milliseconds) for electrodes significantly decoding Free versus Instructed conditions during the delay period (from 0 to 3,000 milliseconds after Cue 1). I. Decoding Free versus Instructed conditions with HG activity in 5 successive time windows during the delay period (0 to 500 milliseconds; 500 to 1,000 milliseconds; 1,000 to 1,500 milliseconds; 1,500 to 2,000 milliseconds; 2,000 to 3,500 milliseconds after Cue 1, and −2,000 to 0 milliseconds before Cue 2). Only sites with significant decoding accuracies are shown ( p < 0.01, with max stats correction across electrodes, time, and frequency bands). J . Percent relative power change ([Free − Instructed]/Instructed) for all significant sites shown in panel I. The data underlying this Figure can be found in . DA, decoding accuracy; elec., electrodes; Freq., frequency; HG, high-gamma; Inst., instructed; Nb, number; Rel., relative.
    Figure Legend Snippet: A. Summary of all significant electrodes by participant across frequencies showing that the largest clusters were found in the HG frequency band. B. Mean and C. Maximum decoding accuracies across participants and significant electrodes for each frequency band for Free versus Instructed classification (error bars represent SEM). D . Time course of baseline corrected (−500 to−100 milliseconds) HG activity aligned on Cue 1, for all electrodes that significantly classify Free versus Instructed conditions and H. its associated mean decoding accuracy across significant electrodes. E. Maximum decoding accuracies across participants and significant electrodes for each frequency bands for Free versus Instructed multielectrode classification. F. Relative mean HG peak activity (in %) and G. latency (in milliseconds) for electrodes significantly decoding Free versus Instructed conditions during the delay period (from 0 to 3,000 milliseconds after Cue 1). I. Decoding Free versus Instructed conditions with HG activity in 5 successive time windows during the delay period (0 to 500 milliseconds; 500 to 1,000 milliseconds; 1,000 to 1,500 milliseconds; 1,500 to 2,000 milliseconds; 2,000 to 3,500 milliseconds after Cue 1, and −2,000 to 0 milliseconds before Cue 2). Only sites with significant decoding accuracies are shown ( p < 0.01, with max stats correction across electrodes, time, and frequency bands). J . Percent relative power change ([Free − Instructed]/Instructed) for all significant sites shown in panel I. The data underlying this Figure can be found in . DA, decoding accuracy; elec., electrodes; Freq., frequency; HG, high-gamma; Inst., instructed; Nb, number; Rel., relative.

    Techniques Used: Activity Assay

    A. Location of electrode sites where HG activity discriminates Free versus Control and/or Instructed versus Control mapped on transparent 3D brain images for all participants ( p < 0.01, corrected ) . Left: electrodes colored in green, blue, and yellow, respectively, indicate sites that discriminate Free versus Control trials only, Instructed versus Control only, or both Free versus Control and Instructed versus Control during the delay period (0 to 3,000 milliseconds after Cue 1). Right: colors indicate different participants. B. Duration (length of time points) above the significance threshold C . Decoding onset (i.e., latency of first significant decoding accuracies) D. Latency of the peak decoding accuracies (in milliseconds) for sites significantly decode Free versus Control (in green) and Instructed versus Control (in blue) across participants. E, F . Time course of baseline corrected (−500 to −100 milliseconds) HG activity aligned on Cue 1, for all electrodes that significantly classify Instructed versus Control ( E ) and Free versus Control ( F ) conditions, and G, H. Their associated mean decoding accuracy across significant electrodes in time, respectively. I. Temporal generalization of trial-type decoding using HG activity across significant sites derived from the previous analyses ( Free versus Control and Instructed versus Control ) during the delay period (0 to 3,000 milliseconds after Cue 1) for 4 participants. Generalization matrices show decoding performance plotted as a function of training time (vertical axis) and testing time (horizontal axis). Decoding of Instructed versus Control (left column) trials illustrates the expected profile for transient coding, while decoding of Free versus Control (right column) trials leads to smoother and extended decoding patterns, typical of a single process that is sustained over time. The data underlying this Figure can be found in . DA, decoding accuracy; HG, high-gamma; Inst., Instructed; Nb, Number; Rel., Relative.
    Figure Legend Snippet: A. Location of electrode sites where HG activity discriminates Free versus Control and/or Instructed versus Control mapped on transparent 3D brain images for all participants ( p < 0.01, corrected ) . Left: electrodes colored in green, blue, and yellow, respectively, indicate sites that discriminate Free versus Control trials only, Instructed versus Control only, or both Free versus Control and Instructed versus Control during the delay period (0 to 3,000 milliseconds after Cue 1). Right: colors indicate different participants. B. Duration (length of time points) above the significance threshold C . Decoding onset (i.e., latency of first significant decoding accuracies) D. Latency of the peak decoding accuracies (in milliseconds) for sites significantly decode Free versus Control (in green) and Instructed versus Control (in blue) across participants. E, F . Time course of baseline corrected (−500 to −100 milliseconds) HG activity aligned on Cue 1, for all electrodes that significantly classify Instructed versus Control ( E ) and Free versus Control ( F ) conditions, and G, H. Their associated mean decoding accuracy across significant electrodes in time, respectively. I. Temporal generalization of trial-type decoding using HG activity across significant sites derived from the previous analyses ( Free versus Control and Instructed versus Control ) during the delay period (0 to 3,000 milliseconds after Cue 1) for 4 participants. Generalization matrices show decoding performance plotted as a function of training time (vertical axis) and testing time (horizontal axis). Decoding of Instructed versus Control (left column) trials illustrates the expected profile for transient coding, while decoding of Free versus Control (right column) trials leads to smoother and extended decoding patterns, typical of a single process that is sustained over time. The data underlying this Figure can be found in . DA, decoding accuracy; HG, high-gamma; Inst., Instructed; Nb, Number; Rel., Relative.

    Techniques Used: Activity Assay, Control, Derivative Assay

    A , Electrode sites with significant decoding accuracies ( p < 0.01, corrected) for all participants mapped on transparent 3D brain images when HG activity is significantly stronger in the Free condition than in the Control condition (first row) and when HG activity is significantly stronger in the Free condition than in the Instructed condition (second row) during the delay period, from 0 to 2,000 milliseconds after Cue 1 (first column, early) and from −2,000 milliseconds before Cue 2 (second column, late). B. Electrode sites where HG is higher in Free compared with Instructed and Control, determined by a conjunction analysis ( Free > Control U Free > Instructed ). Free-choice-specific sites are colored in blue if significant decoding was observed in the early part of the delay; in yellow if significant decoding was found in the late part; and in green for sites that survived the conjunction analysis both in early and late phases of the delay period. For 3 individual electrodes, we plotted HG activity over time ( C, The data underlying this panel can be found in ), single-trial plots ( D, upper row) and time-frequency-maps ( D , lower row) for Free , Instructed , and Control conditions. DA, decoding accuracy; Freq., frequency; HG, high-gamma; IPS, intraparietal sulcus; MFG, middle frontal gyrus; modul., modulations; Rel., relative; SFG, superior frontal gyrus.
    Figure Legend Snippet: A , Electrode sites with significant decoding accuracies ( p < 0.01, corrected) for all participants mapped on transparent 3D brain images when HG activity is significantly stronger in the Free condition than in the Control condition (first row) and when HG activity is significantly stronger in the Free condition than in the Instructed condition (second row) during the delay period, from 0 to 2,000 milliseconds after Cue 1 (first column, early) and from −2,000 milliseconds before Cue 2 (second column, late). B. Electrode sites where HG is higher in Free compared with Instructed and Control, determined by a conjunction analysis ( Free > Control U Free > Instructed ). Free-choice-specific sites are colored in blue if significant decoding was observed in the early part of the delay; in yellow if significant decoding was found in the late part; and in green for sites that survived the conjunction analysis both in early and late phases of the delay period. For 3 individual electrodes, we plotted HG activity over time ( C, The data underlying this panel can be found in ), single-trial plots ( D, upper row) and time-frequency-maps ( D , lower row) for Free , Instructed , and Control conditions. DA, decoding accuracy; Freq., frequency; HG, high-gamma; IPS, intraparietal sulcus; MFG, middle frontal gyrus; modul., modulations; Rel., relative; SFG, superior frontal gyrus.

    Techniques Used: Activity Assay, Control

    Mean HG activity time courses for free-choice-specific sites grouped here by (A) ROIs, (B) subjects, and (C) early/late. Mean time course of baseline corrected (−500 to −100 milliseconds) HG activity for Free, Instructed, and Control conditions aligned on Cue 1 (first column) and Cue 2 (second columns) in electrodes that have enhanced HG in the free-choice condition compared with both the control and instructed saccade conditions (i.e., determined by a conjunction analysis (see ). The data underlying this figure can be found in . HG, high-gamma; FEF, frontal eye field; IPS, intraparietal sulcus; MFG, middle frontal gyrus; Rel., relative; ROI, region of interest; SMA, supplementary motor area.
    Figure Legend Snippet: Mean HG activity time courses for free-choice-specific sites grouped here by (A) ROIs, (B) subjects, and (C) early/late. Mean time course of baseline corrected (−500 to −100 milliseconds) HG activity for Free, Instructed, and Control conditions aligned on Cue 1 (first column) and Cue 2 (second columns) in electrodes that have enhanced HG in the free-choice condition compared with both the control and instructed saccade conditions (i.e., determined by a conjunction analysis (see ). The data underlying this figure can be found in . HG, high-gamma; FEF, frontal eye field; IPS, intraparietal sulcus; MFG, middle frontal gyrus; Rel., relative; ROI, region of interest; SMA, supplementary motor area.

    Techniques Used: Activity Assay, Control

    A. Electrodes with significant decoding accuracies ( p < 0.01, corrected) for all participants are mapped on transparent 3D brain images when HG activity is significantly stronger in the Control condition than in the Free condition (first row) and when HG activity is significantly stronger in the Control condition than in the Instructed condition (second row) in the interval from 0 to 2,000 milliseconds after Cue 2. B. using a conjunction analysis ( Control > Free Ո Control > Instructed ), we show sites in which HG is stronger in the Control condition than in the Free and Instructed conditions. Colored sites correspond to 3 individual electrodes, for which we plotted HG activity over time ( C, The data underlying this panel can be found in ), single-trial HG plots (sorted according to RTs) ( D, upper row) and time-frequency-maps ( D , lower row) for Free , Instructed , and Control conditions. DA, decoding accuracy; HG, high-gamma; FEF, frontal eye field; Freq., frequency; IPS, intraparietal sulcus; MFG, middle frontal gyrus; modul., modulations; Rel., relative; ROI, region of interest; SMA, supplementary motor area.
    Figure Legend Snippet: A. Electrodes with significant decoding accuracies ( p < 0.01, corrected) for all participants are mapped on transparent 3D brain images when HG activity is significantly stronger in the Control condition than in the Free condition (first row) and when HG activity is significantly stronger in the Control condition than in the Instructed condition (second row) in the interval from 0 to 2,000 milliseconds after Cue 2. B. using a conjunction analysis ( Control > Free Ո Control > Instructed ), we show sites in which HG is stronger in the Control condition than in the Free and Instructed conditions. Colored sites correspond to 3 individual electrodes, for which we plotted HG activity over time ( C, The data underlying this panel can be found in ), single-trial HG plots (sorted according to RTs) ( D, upper row) and time-frequency-maps ( D , lower row) for Free , Instructed , and Control conditions. DA, decoding accuracy; HG, high-gamma; FEF, frontal eye field; Freq., frequency; IPS, intraparietal sulcus; MFG, middle frontal gyrus; modul., modulations; Rel., relative; ROI, region of interest; SMA, supplementary motor area.

    Techniques Used: Activity Assay, Control



    Similar Products

    90
    MathWorks Inc tal2mni.m matlab function
    A. Experimental design of the delayed motor task. For each trial, participants were instructed to perform horizontal saccades toward one of 2 targets after a delay of 3,750 milliseconds, 5,750 milliseconds or 7,750 milliseconds, depending on a visually presented central cue appearing briefly for 250 milliseconds. B. Top, left, and right views of the number of recording sites that contribute to each vertex (i.e., spatial density) projected on a standard 3D MNI brain. <t>Electrodes</t> contribute to a location when they are within 10 mm of a given site on the brain surface. In all brain images, right side of the image is the right side of the brain. C. Top, left, and right view of the depth-electrode recording sites, projected on a standard 3D MNI brain. Each color represents a participant. Left: Rostral is up; Right: Medial views. D. Barplot of mean reaction times for the 3 conditions across all participants ( Control , Instructed , Free ). Each triangle represents the mean reaction times for 1 participant. The data underlying this panel D can be found in . MNI, Montreal Neurological Institute.
    Tal2mni.M Matlab Function, supplied by MathWorks Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/result/tal2mni.m matlab function/product/MathWorks Inc
    Average 90 stars, based on 1 article reviews
    tal2mni.m matlab function - by Bioz Stars, 2026-03
    90/100 stars
      Buy from Supplier

    90
    MathWorks Inc matlab function tal2mni.m
    A. Experimental design of the delayed motor task. For each trial, participants were instructed to perform horizontal saccades toward one of 2 targets after a delay of 3,750 milliseconds, 5,750 milliseconds or 7,750 milliseconds, depending on a visually presented central cue appearing briefly for 250 milliseconds. B. Top, left, and right views of the number of recording sites that contribute to each vertex (i.e., spatial density) projected on a standard 3D MNI brain. <t>Electrodes</t> contribute to a location when they are within 10 mm of a given site on the brain surface. In all brain images, right side of the image is the right side of the brain. C. Top, left, and right view of the depth-electrode recording sites, projected on a standard 3D MNI brain. Each color represents a participant. Left: Rostral is up; Right: Medial views. D. Barplot of mean reaction times for the 3 conditions across all participants ( Control , Instructed , Free ). Each triangle represents the mean reaction times for 1 participant. The data underlying this panel D can be found in . MNI, Montreal Neurological Institute.
    Matlab Function Tal2mni.M, supplied by MathWorks Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/result/matlab function tal2mni.m/product/MathWorks Inc
    Average 90 stars, based on 1 article reviews
    matlab function tal2mni.m - by Bioz Stars, 2026-03
    90/100 stars
      Buy from Supplier

    Image Search Results


    A. Experimental design of the delayed motor task. For each trial, participants were instructed to perform horizontal saccades toward one of 2 targets after a delay of 3,750 milliseconds, 5,750 milliseconds or 7,750 milliseconds, depending on a visually presented central cue appearing briefly for 250 milliseconds. B. Top, left, and right views of the number of recording sites that contribute to each vertex (i.e., spatial density) projected on a standard 3D MNI brain. Electrodes contribute to a location when they are within 10 mm of a given site on the brain surface. In all brain images, right side of the image is the right side of the brain. C. Top, left, and right view of the depth-electrode recording sites, projected on a standard 3D MNI brain. Each color represents a participant. Left: Rostral is up; Right: Medial views. D. Barplot of mean reaction times for the 3 conditions across all participants ( Control , Instructed , Free ). Each triangle represents the mean reaction times for 1 participant. The data underlying this panel D can be found in . MNI, Montreal Neurological Institute.

    Journal: PLoS Biology

    Article Title: Decoding the neural dynamics of free choice in humans

    doi: 10.1371/journal.pbio.3000864

    Figure Lengend Snippet: A. Experimental design of the delayed motor task. For each trial, participants were instructed to perform horizontal saccades toward one of 2 targets after a delay of 3,750 milliseconds, 5,750 milliseconds or 7,750 milliseconds, depending on a visually presented central cue appearing briefly for 250 milliseconds. B. Top, left, and right views of the number of recording sites that contribute to each vertex (i.e., spatial density) projected on a standard 3D MNI brain. Electrodes contribute to a location when they are within 10 mm of a given site on the brain surface. In all brain images, right side of the image is the right side of the brain. C. Top, left, and right view of the depth-electrode recording sites, projected on a standard 3D MNI brain. Each color represents a participant. Left: Rostral is up; Right: Medial views. D. Barplot of mean reaction times for the 3 conditions across all participants ( Control , Instructed , Free ). Each triangle represents the mean reaction times for 1 participant. The data underlying this panel D can be found in . MNI, Montreal Neurological Institute.

    Article Snippet: The electrodes were then localized in each individual participant using Talairach coordinates, which were then transformed to MNI coordinate system using standard procedures (i.e., tal2mni.m MATLAB function) ( ).

    Techniques: Control

    A. Summary of all significant electrodes by participant across frequencies showing that the largest clusters were found in the HG frequency band. B. Mean and C. Maximum decoding accuracies across participants and significant electrodes for each frequency band for Free versus Instructed classification (error bars represent SEM). D . Time course of baseline corrected (−500 to−100 milliseconds) HG activity aligned on Cue 1, for all electrodes that significantly classify Free versus Instructed conditions and H. its associated mean decoding accuracy across significant electrodes. E. Maximum decoding accuracies across participants and significant electrodes for each frequency bands for Free versus Instructed multielectrode classification. F. Relative mean HG peak activity (in %) and G. latency (in milliseconds) for electrodes significantly decoding Free versus Instructed conditions during the delay period (from 0 to 3,000 milliseconds after Cue 1). I. Decoding Free versus Instructed conditions with HG activity in 5 successive time windows during the delay period (0 to 500 milliseconds; 500 to 1,000 milliseconds; 1,000 to 1,500 milliseconds; 1,500 to 2,000 milliseconds; 2,000 to 3,500 milliseconds after Cue 1, and −2,000 to 0 milliseconds before Cue 2). Only sites with significant decoding accuracies are shown ( p < 0.01, with max stats correction across electrodes, time, and frequency bands). J . Percent relative power change ([Free − Instructed]/Instructed) for all significant sites shown in panel I. The data underlying this Figure can be found in . DA, decoding accuracy; elec., electrodes; Freq., frequency; HG, high-gamma; Inst., instructed; Nb, number; Rel., relative.

    Journal: PLoS Biology

    Article Title: Decoding the neural dynamics of free choice in humans

    doi: 10.1371/journal.pbio.3000864

    Figure Lengend Snippet: A. Summary of all significant electrodes by participant across frequencies showing that the largest clusters were found in the HG frequency band. B. Mean and C. Maximum decoding accuracies across participants and significant electrodes for each frequency band for Free versus Instructed classification (error bars represent SEM). D . Time course of baseline corrected (−500 to−100 milliseconds) HG activity aligned on Cue 1, for all electrodes that significantly classify Free versus Instructed conditions and H. its associated mean decoding accuracy across significant electrodes. E. Maximum decoding accuracies across participants and significant electrodes for each frequency bands for Free versus Instructed multielectrode classification. F. Relative mean HG peak activity (in %) and G. latency (in milliseconds) for electrodes significantly decoding Free versus Instructed conditions during the delay period (from 0 to 3,000 milliseconds after Cue 1). I. Decoding Free versus Instructed conditions with HG activity in 5 successive time windows during the delay period (0 to 500 milliseconds; 500 to 1,000 milliseconds; 1,000 to 1,500 milliseconds; 1,500 to 2,000 milliseconds; 2,000 to 3,500 milliseconds after Cue 1, and −2,000 to 0 milliseconds before Cue 2). Only sites with significant decoding accuracies are shown ( p < 0.01, with max stats correction across electrodes, time, and frequency bands). J . Percent relative power change ([Free − Instructed]/Instructed) for all significant sites shown in panel I. The data underlying this Figure can be found in . DA, decoding accuracy; elec., electrodes; Freq., frequency; HG, high-gamma; Inst., instructed; Nb, number; Rel., relative.

    Article Snippet: The electrodes were then localized in each individual participant using Talairach coordinates, which were then transformed to MNI coordinate system using standard procedures (i.e., tal2mni.m MATLAB function) ( ).

    Techniques: Activity Assay

    A. Location of electrode sites where HG activity discriminates Free versus Control and/or Instructed versus Control mapped on transparent 3D brain images for all participants ( p < 0.01, corrected ) . Left: electrodes colored in green, blue, and yellow, respectively, indicate sites that discriminate Free versus Control trials only, Instructed versus Control only, or both Free versus Control and Instructed versus Control during the delay period (0 to 3,000 milliseconds after Cue 1). Right: colors indicate different participants. B. Duration (length of time points) above the significance threshold C . Decoding onset (i.e., latency of first significant decoding accuracies) D. Latency of the peak decoding accuracies (in milliseconds) for sites significantly decode Free versus Control (in green) and Instructed versus Control (in blue) across participants. E, F . Time course of baseline corrected (−500 to −100 milliseconds) HG activity aligned on Cue 1, for all electrodes that significantly classify Instructed versus Control ( E ) and Free versus Control ( F ) conditions, and G, H. Their associated mean decoding accuracy across significant electrodes in time, respectively. I. Temporal generalization of trial-type decoding using HG activity across significant sites derived from the previous analyses ( Free versus Control and Instructed versus Control ) during the delay period (0 to 3,000 milliseconds after Cue 1) for 4 participants. Generalization matrices show decoding performance plotted as a function of training time (vertical axis) and testing time (horizontal axis). Decoding of Instructed versus Control (left column) trials illustrates the expected profile for transient coding, while decoding of Free versus Control (right column) trials leads to smoother and extended decoding patterns, typical of a single process that is sustained over time. The data underlying this Figure can be found in . DA, decoding accuracy; HG, high-gamma; Inst., Instructed; Nb, Number; Rel., Relative.

    Journal: PLoS Biology

    Article Title: Decoding the neural dynamics of free choice in humans

    doi: 10.1371/journal.pbio.3000864

    Figure Lengend Snippet: A. Location of electrode sites where HG activity discriminates Free versus Control and/or Instructed versus Control mapped on transparent 3D brain images for all participants ( p < 0.01, corrected ) . Left: electrodes colored in green, blue, and yellow, respectively, indicate sites that discriminate Free versus Control trials only, Instructed versus Control only, or both Free versus Control and Instructed versus Control during the delay period (0 to 3,000 milliseconds after Cue 1). Right: colors indicate different participants. B. Duration (length of time points) above the significance threshold C . Decoding onset (i.e., latency of first significant decoding accuracies) D. Latency of the peak decoding accuracies (in milliseconds) for sites significantly decode Free versus Control (in green) and Instructed versus Control (in blue) across participants. E, F . Time course of baseline corrected (−500 to −100 milliseconds) HG activity aligned on Cue 1, for all electrodes that significantly classify Instructed versus Control ( E ) and Free versus Control ( F ) conditions, and G, H. Their associated mean decoding accuracy across significant electrodes in time, respectively. I. Temporal generalization of trial-type decoding using HG activity across significant sites derived from the previous analyses ( Free versus Control and Instructed versus Control ) during the delay period (0 to 3,000 milliseconds after Cue 1) for 4 participants. Generalization matrices show decoding performance plotted as a function of training time (vertical axis) and testing time (horizontal axis). Decoding of Instructed versus Control (left column) trials illustrates the expected profile for transient coding, while decoding of Free versus Control (right column) trials leads to smoother and extended decoding patterns, typical of a single process that is sustained over time. The data underlying this Figure can be found in . DA, decoding accuracy; HG, high-gamma; Inst., Instructed; Nb, Number; Rel., Relative.

    Article Snippet: The electrodes were then localized in each individual participant using Talairach coordinates, which were then transformed to MNI coordinate system using standard procedures (i.e., tal2mni.m MATLAB function) ( ).

    Techniques: Activity Assay, Control, Derivative Assay

    A , Electrode sites with significant decoding accuracies ( p < 0.01, corrected) for all participants mapped on transparent 3D brain images when HG activity is significantly stronger in the Free condition than in the Control condition (first row) and when HG activity is significantly stronger in the Free condition than in the Instructed condition (second row) during the delay period, from 0 to 2,000 milliseconds after Cue 1 (first column, early) and from −2,000 milliseconds before Cue 2 (second column, late). B. Electrode sites where HG is higher in Free compared with Instructed and Control, determined by a conjunction analysis ( Free > Control U Free > Instructed ). Free-choice-specific sites are colored in blue if significant decoding was observed in the early part of the delay; in yellow if significant decoding was found in the late part; and in green for sites that survived the conjunction analysis both in early and late phases of the delay period. For 3 individual electrodes, we plotted HG activity over time ( C, The data underlying this panel can be found in ), single-trial plots ( D, upper row) and time-frequency-maps ( D , lower row) for Free , Instructed , and Control conditions. DA, decoding accuracy; Freq., frequency; HG, high-gamma; IPS, intraparietal sulcus; MFG, middle frontal gyrus; modul., modulations; Rel., relative; SFG, superior frontal gyrus.

    Journal: PLoS Biology

    Article Title: Decoding the neural dynamics of free choice in humans

    doi: 10.1371/journal.pbio.3000864

    Figure Lengend Snippet: A , Electrode sites with significant decoding accuracies ( p < 0.01, corrected) for all participants mapped on transparent 3D brain images when HG activity is significantly stronger in the Free condition than in the Control condition (first row) and when HG activity is significantly stronger in the Free condition than in the Instructed condition (second row) during the delay period, from 0 to 2,000 milliseconds after Cue 1 (first column, early) and from −2,000 milliseconds before Cue 2 (second column, late). B. Electrode sites where HG is higher in Free compared with Instructed and Control, determined by a conjunction analysis ( Free > Control U Free > Instructed ). Free-choice-specific sites are colored in blue if significant decoding was observed in the early part of the delay; in yellow if significant decoding was found in the late part; and in green for sites that survived the conjunction analysis both in early and late phases of the delay period. For 3 individual electrodes, we plotted HG activity over time ( C, The data underlying this panel can be found in ), single-trial plots ( D, upper row) and time-frequency-maps ( D , lower row) for Free , Instructed , and Control conditions. DA, decoding accuracy; Freq., frequency; HG, high-gamma; IPS, intraparietal sulcus; MFG, middle frontal gyrus; modul., modulations; Rel., relative; SFG, superior frontal gyrus.

    Article Snippet: The electrodes were then localized in each individual participant using Talairach coordinates, which were then transformed to MNI coordinate system using standard procedures (i.e., tal2mni.m MATLAB function) ( ).

    Techniques: Activity Assay, Control

    Mean HG activity time courses for free-choice-specific sites grouped here by (A) ROIs, (B) subjects, and (C) early/late. Mean time course of baseline corrected (−500 to −100 milliseconds) HG activity for Free, Instructed, and Control conditions aligned on Cue 1 (first column) and Cue 2 (second columns) in electrodes that have enhanced HG in the free-choice condition compared with both the control and instructed saccade conditions (i.e., determined by a conjunction analysis (see ). The data underlying this figure can be found in . HG, high-gamma; FEF, frontal eye field; IPS, intraparietal sulcus; MFG, middle frontal gyrus; Rel., relative; ROI, region of interest; SMA, supplementary motor area.

    Journal: PLoS Biology

    Article Title: Decoding the neural dynamics of free choice in humans

    doi: 10.1371/journal.pbio.3000864

    Figure Lengend Snippet: Mean HG activity time courses for free-choice-specific sites grouped here by (A) ROIs, (B) subjects, and (C) early/late. Mean time course of baseline corrected (−500 to −100 milliseconds) HG activity for Free, Instructed, and Control conditions aligned on Cue 1 (first column) and Cue 2 (second columns) in electrodes that have enhanced HG in the free-choice condition compared with both the control and instructed saccade conditions (i.e., determined by a conjunction analysis (see ). The data underlying this figure can be found in . HG, high-gamma; FEF, frontal eye field; IPS, intraparietal sulcus; MFG, middle frontal gyrus; Rel., relative; ROI, region of interest; SMA, supplementary motor area.

    Article Snippet: The electrodes were then localized in each individual participant using Talairach coordinates, which were then transformed to MNI coordinate system using standard procedures (i.e., tal2mni.m MATLAB function) ( ).

    Techniques: Activity Assay, Control

    A. Electrodes with significant decoding accuracies ( p < 0.01, corrected) for all participants are mapped on transparent 3D brain images when HG activity is significantly stronger in the Control condition than in the Free condition (first row) and when HG activity is significantly stronger in the Control condition than in the Instructed condition (second row) in the interval from 0 to 2,000 milliseconds after Cue 2. B. using a conjunction analysis ( Control > Free Ո Control > Instructed ), we show sites in which HG is stronger in the Control condition than in the Free and Instructed conditions. Colored sites correspond to 3 individual electrodes, for which we plotted HG activity over time ( C, The data underlying this panel can be found in ), single-trial HG plots (sorted according to RTs) ( D, upper row) and time-frequency-maps ( D , lower row) for Free , Instructed , and Control conditions. DA, decoding accuracy; HG, high-gamma; FEF, frontal eye field; Freq., frequency; IPS, intraparietal sulcus; MFG, middle frontal gyrus; modul., modulations; Rel., relative; ROI, region of interest; SMA, supplementary motor area.

    Journal: PLoS Biology

    Article Title: Decoding the neural dynamics of free choice in humans

    doi: 10.1371/journal.pbio.3000864

    Figure Lengend Snippet: A. Electrodes with significant decoding accuracies ( p < 0.01, corrected) for all participants are mapped on transparent 3D brain images when HG activity is significantly stronger in the Control condition than in the Free condition (first row) and when HG activity is significantly stronger in the Control condition than in the Instructed condition (second row) in the interval from 0 to 2,000 milliseconds after Cue 2. B. using a conjunction analysis ( Control > Free Ո Control > Instructed ), we show sites in which HG is stronger in the Control condition than in the Free and Instructed conditions. Colored sites correspond to 3 individual electrodes, for which we plotted HG activity over time ( C, The data underlying this panel can be found in ), single-trial HG plots (sorted according to RTs) ( D, upper row) and time-frequency-maps ( D , lower row) for Free , Instructed , and Control conditions. DA, decoding accuracy; HG, high-gamma; FEF, frontal eye field; Freq., frequency; IPS, intraparietal sulcus; MFG, middle frontal gyrus; modul., modulations; Rel., relative; ROI, region of interest; SMA, supplementary motor area.

    Article Snippet: The electrodes were then localized in each individual participant using Talairach coordinates, which were then transformed to MNI coordinate system using standard procedures (i.e., tal2mni.m MATLAB function) ( ).

    Techniques: Activity Assay, Control