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Correction

Correction: McMurray et al., Brain Stimulation Reward Supports More Consistent and Accurate Rodent Decision-Making than Food Reward (eNeuro March/April 2017, 4(2) e0015-17.2017 1-13 http://dx.doi.org/10.1523/ENEURO.0015-17.2017)

eNeuro 15 August 2017, 4 (4) ENEURO.0265-17.2017; https://doi.org/10.1523/ENEURO.0265-17.2017
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    Figure 3.

    Results from the sugar pellet magnitude discrimination task. In all panels, a indicates significant difference from chance responding (50% preference, p < 0.001). A, Relationship between the difference in reward size (pellet number) and the animals’ preference for the larger reward. b indicates significant difference from one pellet (p < 0.01), and c indicates significant difference from two pellets (p < 0.05). B, Preference for the larger reward at each possible reward comparison. Statistical comparisons were made only within comparison groups (e.g., within one-pellet difference). d indicates significant difference from one-versus-two comparison (p < 0.05). C, Number of trials completed in each comparison. Statistical comparisons were made only within comparison groups (e.g., within one pellet difference). d indicates significant difference from one-versus-two comparison (p < 0.01). D, Relationship between the average total number of sugar pellets earned in each comparison and the number of trials the animal completed. Dotted line denotes significant correlation between these values (R2 = 0.998, p < 0.0001). E, Preference for the larger reward over the course of the average session (time normalized across sessions), at each difference in reward size. Dotted line illustrates the mean of all comparisons, and significance is denoted only for this mean (there was no significant effect of comparison). e, f, and g denote significant difference from bins 0–0.1, 0.1–0.2, and 0.2–0.3, respectively (all p < 0.001). F, Trial completion rate over the course of the average session (time normalized across sessions), at each level of proportionate difference in reward size. Dotted line illustrates the mean of all comparisons, and significance is denoted only for this mean (there was no significant effect of comparison). e, f, and g denote significant difference from bins 0–0.1, 0.1–0.2, and 0.2–0.3, respectively (all p < 0.001).

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    Table 1.

    Statistical tests and values

    GraphType of testStatistical valuesStatistical values
    a. Fig. 2A, preference for larger rewardz tests (50% preference; one-tailed); ANOVA (% difference in compared BSR frequencies)p < 0.001 (25–100% difference in BSR)*F(3,45) = 13.1, p < 0.001*p’s<0.001 (25-100% difference in BSR)*F(3,45)=13.1, p<0.001*
    b. Fig. 2B, preference for larger rewardz tests (50% preference; one-tailed); ANOVA (individual frequency comparisons)p < 0.05 (all BSR comparisons)*F(10,118) = 6.995, p < 0.001*p’s<0.05 (all BSR comparisons)*F(10,118)=6.995, p<0.001*
    c. Fig. 2C, preference for larger rewardz tests (50% preference; one-tailed); ANOVA (raw difference in compared BSR frequencies)all p < 0.001 (all BSR comparisons)*F(5,37) = 3.61, p = 0.011*all p’s<0.001 (all BSR comparisons)*F(5,37)=3.61, p=0.011*
    d. Fig. 2D, number of trials completedANOVA (individual frequency comparisons)F(10,118) = 2.446, p = 0.011*F(10,118)=2.446, p=0.011*
    e. Fig. 2E, preference for larger rewardz tests (50% preference; one-tailed); ANOVA (proportionate time × % difference in BSR frequency); ANOVA (proportionate time); ANOVA (% difference in BSR frequency)p ≤ 0.01 (all BSR comparisons)*F(27,279) = 1.346, p = 0.133F(9,279) = 5.838, p < 0.001*F(3,279) = 20.582, p < 0.001*p’s≤0.01 (all BSR comparisons)*F(27,279)=1.346, p=0.133F(9,279)=5.838, p<0.001*F(3,279)=20.582, p<0.001*
    f. Fig. 2F, number of trials completedANOVA (proportionate time × % difference in BSR frequency); ANOVA (proportionate time); ANOVA (% difference in BSR frequency)F(27,279) = 1.242, p = 0.205F(9,279) = 6.320, p < 0.001*F(3,279) = 1.457, p = 0.259F(27,279)=1.242, p=0.205F(9,279)=6.320, p<0.001*F(3,279)=1.457, p=0.259
    g. Fig. 3A, preference for larger rewardz tests (50% preference; one-tailed); ANOVA (difference in pellet number)p < 0.001 (all pellet comparisons)*F(3,39) = 8.63, p < 0.001*p’s<0.001 (all pellet comparisons)*F(3,39)=8.63, p<0.001*
    h. Fig. 3B, preference for larger rewardz tests (50% preference; one-tailed); ANOVA (individual pellet comparisons within each comparison range)p < 0.001 (1v2, 2v3, 1v3, 2v4, 1v4, 2v5, 1v5)*F(10,118) = 7.00, p < 0.001*p’s<0.001 (1v2, 2v3, 1v3, 2v4, 1v4, 2v5, 1v5)*F(10,118)=7.00, p<0.001*
    i. Fig. 3C, number of trials completedANOVA (individual pellet comparisons within each comparison range)F(10,109) = 5.40, p < 0.001*F(10,109)=5.40, p<0.001*
    j. Fig. 3D, number of trials completedPearson correlationR 2 = 0.998, p < 0.0001*R2=0.998, p<0.0001*
    k. Fig. 3E, preference for larger rewardz tests (50% preference; one-tailed); ANOVA (proportionate time × % difference in pellet number); ANOVA (proportionate time); ANOVA (% difference in pellet number)p ≤ 0.05 (0.0–0.1 proportionate time)*F(27,399) = 1.509, p = 0.056F(9,399) = 25.29, p < 0.001*F(3,399) = 1.91, p = 0.152p≤0.05 (0.0-0.1 proportionate time)*F(27,399)= 1.509, p=0.056F(9,399)= 25.29, p<0.001*F(3,399)= 1.91, p=0.152
    l. Fig. 3F, number of trials completedANOVA (proportionate time × difference in pellet number); ANOVA (proportionate time); ANOVA (% difference in pellet number)F(27,399) = 0.878, p = 0.64F(9,399) = 112.136, p < 0.001*F(3,399) = 1.146, p = 0.349F(27,399)=0.878, p=0.64F(9,399)=112.136, p<0.001*F(3,399)=1.146, p=0.349
    m. Fig. 4A, preference for 1 sugar pelletz test (50% preference; one-tailed); ANOVA (proportionate BSR frequency)p < 0.05 (0%, 50% BSR)*F(4,24) = 0.413, p = 0.80p’s<0.05 (0%, 50% BSR)*F(4,24)=0.413, p=0.80
    n. Fig. 4B, preference for 2 sugar pelletsz test (50% preference; one-tailed); ANOVA (proportionate BSR frequency)p < 0.001 (0%, 25% BSR)*F(4,24) = 0.963, p = 0.449p’s<0.001 (0%, 25% BSR)*F(4,24)=0.963, p=0.449
    o. Total pellets earnedANOVA (sugar pellet reward size × BSR reward size); ANOVA (sugar pellet reward size); ANOVA (BSR reward size)F(4,49) = 1.486, p = 0.253F(1,49) = 66.31, p < 0.001*F(4,49) = 1.037, p = 0.418F(4,49)=1.486, p=0.253F(1,49)=66.31, p<0.001*F(4,49)=1.037, p=0.418
    p. Fig. 4C, preference for 1 sugar pelletz test (50% preference; one-tailed); ANOVA (proportionate time × proportionate BSR frequency); ANOVA (proportionate time); ANOVA (proportionate BSR frequency)all p < 0.05 (0.3–1.0 proportionate time)*F(36,249) = 0.928, p = 0.59F(9,249) = 3.987, p = 0.001F(4,249) = 0.82, p = 0.531all p’s<0.05 (0.3-1.0 proportionate time)*F(36,249)=0.928, p=0.59F(9,249)=3.987, p=0.001F(4,249)=0.82, p=0.531
    q. Fig. 4D, preference for 2 sugar pelletsz test (50% preference; one-tailed); ANOVA (proportionate time × proportionate BSR frequency); ANOVA (proportionate time); ANOVA (proportionate BSR frequency)all p < 0.05 (0.6–1.0 proportionate time)*F(36,249) = 1.886, p = 0.005*F(9,249) = 10.60, p < 0.001*F(4,249) = 1.295, p = 0.314all p’s<0.05 (0.6-1.0 proportionate time)*F(36,249)=1.886, p=0.005*F(9,249)=10.60, p<0.001*F(4,249)=1.295, p=0.314
    r. Fig. 4E, number of trials completed (1-pellet sessions)ANOVA (proportionate time × proportionate BSR frequency); ANOVA (proportionate time); ANOVA (proportionate BSR frequency)F(36,249) = 0.916, p = 0.608F(9,249) = 3.353, p = 0.004*F(4,249) = 1.538, p = 0.239F(36,249)=0.916, p=0.608F(9,249)=3.353, p=0.004*F(4,249)=1.538, p=0.239
    s. Fig. 4F, number of trials completed (2-pellet sessions)ANOVA (proportionate time × proportionate BSR frequency); ANOVA (proportionate time); ANOVA (proportionate BSR frequency)F(36,249) = 1.360, p = 0.105F(9,249) = 4.673, p < 0.001*F(4,249) = 0.606, p = 0.664F(36,249)=1.360, p=0.105F(9,249)=4.673, p<0.001*F(4,249)=0.606, p=0.664
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Correction: McMurray et al., Brain Stimulation Reward Supports More Consistent and Accurate Rodent Decision-Making than Food Reward (eNeuro March/April 2017, 4(2) e0015-17.2017 1-13 http://dx.doi.org/10.1523/ENEURO.0015-17.2017)
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Correction: McMurray et al., Brain Stimulation Reward Supports More Consistent and Accurate Rodent Decision-Making than Food Reward (eNeuro March/April 2017, 4(2) e0015-17.2017 1-13 http://dx.doi.org/10.1523/ENEURO.0015-17.2017)
eNeuro 15 August 2017, 4 (4) ENEURO.0265-17.2017; DOI: 10.1523/ENEURO.0265-17.2017

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Correction: McMurray et al., Brain Stimulation Reward Supports More Consistent and Accurate Rodent Decision-Making than Food Reward (eNeuro March/April 2017, 4(2) e0015-17.2017 1-13 http://dx.doi.org/10.1523/ENEURO.0015-17.2017)
eNeuro 15 August 2017, 4 (4) ENEURO.0265-17.2017; DOI: 10.1523/ENEURO.0265-17.2017
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