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Supplementary Materials for Folk Explanations of Behavior: A Specialized Use of a Domain-General Mechanism Robert P. Spunt & Ralph Adolphs California Institute of Technology Correspondence may be addressed to: Robert P. Spunt - spunt@caltech.edu DS1

1. Supplemental Results 1.1. Within-Subject Performance Effects Table S1 provides descriptives for task performance as a function of both Question Type (Why vs. How) and Stimulus Domain (Nonsocial vs. Emotion vs. Action). When examining the effect of these two factors on response accuracy, a repeated measures analysis of variance (ANOVA) revealed a main effect of Question Type, F(1, 18) = 39.55 (p <.001); a main effect of Stimulus Domain, F(2, 36) = 14.96 (p <.001); and an interaction effect, F(2, 36) = 23.64 (p <.001). Similarly, when examining their effects on response time (RT) for accurate judgments, a repeated measures ANOVA similarly revealed a main effect of Question Type, F(1, 18) = 52.74 (p <.001); a main effect of Stimulus Domain, F(2, 36) = 41.47 (p <.001); and an interaction effect, F(2, 36) = 10.51 (p <.001). These effects highlight the importance of controlling for the effects of within-subject performance variability on the measured fmri signal. As described in the main text, each participant s model included regressors that model such variability as it occurs across the experimental conditions. DS2

Table S1 Performance outcomes for the Social/Nonsocial Why/How Task (N = 19). Percent Correct Response Time (ms) Why How Why How M SD M SD M SD M SD Nonsocial 95.41 3.23 98.60 2.05 854 157 788 134 Emotion 90.52 4.05 97.31 3.07 960 153 799 139 Action 95.31 5.19 93.10 4.14 981 159 918 135 DS3

Table S2 Whole-brain results for the simple contrasts that were used to test the conjunction hypotheses presented in the main text (N = 19). Clusters were identified using a clusterforming threshold of p <.001 (uncorrected) and a cluster-level family-wise error rate of 0.05. Within each cluster, we report all local maxima separated by at least 24 mm. Clusters were automatically labeled based on the Automated Anatomical Labeling (AAL) atlas. x, y, and z = Montreal Neurological Institute (MNI) coordinates in the left-right, anterior-posterior, and inferior-superior dimensions, respectively. Effect Name MNI Coordinates Region Name L/R Extent t-value x y z Expression-Why > Expression-How Inferior Orbitofrontal L 1064 10.817-45 24-9 Middle Temporal L 1064 7.815-51 -39 0 Middle Temporal L 1064 6.687-57 -9-21 Middle Frontal L 1064 4.111-42 18 39 Superior Frontal L 1165 9.999-12 36 54 Superior Medial Prefrontal L/R 1165 9.983 0 51 36 Superior Medial Prefrontal R 1165 6.464 12 57 12 Angular L 175 9.589-51 -66 24 Temporal Pole R 87 8.537 45 15-33 Lingual R 135 7.874 30-54 0 Cerebellum R 182 7.127 18-81 -33 Cerebellum L 92 5.678-24 -81-33 Posterior Cingulate L/R 77 5.434 0-51 30 Inferior Orbitofrontal R 223 5.356 39 27-9 Inferior Frontal (Triangularis) R 223 5.352 60 24 9 Action-Why > Action-How Superior Medial Prefrontal L 4539 12.821-6 45 36 Middle Frontal L 4539 10.545-42 15 42 Middle Temporal L 4539 10.229-54 3-30 Anterior Cingulate L 4539 9.617-3 33 9 Middle Orbitofrontal L 4539 9.357-3 60-9 Superior Medial Prefrontal L 4539 9.352-6 33 57 Superior Medial Prefrontal R 4539 9.211 12 54 18 Inferior Orbitofrontal L 4539 8.447-39 27-9 Inferior Frontal (Triangularis) L 4539 6.998-54 24 15 Superior Frontal R 4539 5.961 18 27 51 Hippocampus L 4539 5.193-33 -9-21 Posterior Cingulate L 673 11.799-9 -48 30 Angular L 521 11.748-48 -66 27 Cerebellum R 223 8.159 27-81 -33 Inferior Frontal (Triangularis) R 311 7.749 57 30 15 Middle Frontal R 311 5.225 45 27 36 Inferior Orbitofrontal R 138 7.554 42 33-15 DS4

Cerebellum L 226 7.471-18 -84-33 Cerebellum L 226 4.832-45 -75-33 Angular R 154 6.825 54-63 30 Cerebellum R 75 6.534 3-54 -42 Caudate L 171 5.829-3 3 3 Cuneus R 183 5.531 12-96 15 Middle Temporal R 102 5.137 51-6 -24 Middle Temporal L 70 5.098-57 -33-6 Nonsocial-Why > Nonsocial-How Middle Temporal L 87 8.550-63 -39 0 Middle Temporal L 210 7.298-54 3-21 Precuneus L 97 6.414-3 -54 15 Inferior Frontal (Triangularis) R 191 6.117 57 27 18 Inferior Frontal (Opercularis) R 191 4.644 42 15 33 Middle Frontal L 83 5.832-42 18 54 Inferior Orbitofrontal L 117 5.510-51 36-12 Inferior Frontal (Triangularis) L 117 5.188-45 24 12 Angular L 171 5.479-45 -69 33 Superior Medial Prefrontal L 72 5.376-9 45 51 Angular R 59 4.925 45-72 39 Cerebellum R 60 4.336 21-81 -30 [Expression-Why > Nonsocial-Why] > [Expression-How > Nonsocial-How] Inferior Frontal (Triangularis) L 139 6.575-54 24 9 Superior Medial Prefrontal L 356 6.245-9 57 18 Supplementary Motor Area L 356 6.074-6 24 57 [Action-Why > Nonsocial-Why] > [Action-How > Nonsocial-How] Superior Frontal L 2044 9.896-12 54 27 Anterior Cingulate L 2044 8.610-6 33 9 Superior Frontal R 2044 7.286 18 51 9 Middle Orbitofrontal L 2044 6.377-6 66-6 Superior Frontal R 2044 4.903 15 39 57 Angular L 257 8.574-48 -63 24 Precuneus L 252 6.621-6 -54 30 DS5

Table S3 Details for the Region of Interest (ROI) analyses presented in Tables S4-S5. The ROIs shown here are visually depicted in Figure 2. MNI Coordinates (Peak) ROI Name Extent x y z Dorsomedial PFC 299-6 57 36 Ventromedial PFC 171 0 57-12 Lateral OFC 149-48 27-6 TPJ 152-48 -66 30 Anterior STS 189-57 -9-18 Precuneus 189-3 -48 30 DS6

Table S4 Results of region of interest (ROI) based domain-general t-tests. Regions that independently show an association with Why > How for all three stimulus categories are noted with an asterisk. As described in the main text, we report p-values after adjusting for multiple ROIs using a false-discovery rate procedure. ROI details can be found in Table S3. Why > How Test Outcome Nonsocial Emotion Action ROI t-stat p ADJ 95% CI t-stat p ADJ 95% CI t-stat p ADJ 95% CI Dorsomedial PFC* 3.372 0.012 0.026 0.100 9.379 <.001 0.109 0.175 11.725 <.001 0.216 0.301 Ventromedial PFC 2.615 0.052 0.018 0.103 0.991 0.821 0.027 0.078 7.608 <.001 0.167 0.280 Lateral OFC* 4.181 0.003 0.061 0.154 10.683 <.001 0.170 0.244 7.203 <.001 0.141 0.251 TPJ* 5.536 <.001 0.064 0.132 6.272 <.001 0.083 0.153 6.540 <.001 0.106 0.194 Anterior STS* 4.946 0.001 0.060 0.132 5.572 <.001 0.065 0.133 11.352 <.001 0.232 0.326 Precuneus 1.807 0.215 0.005 0.075 3.867 0.003 0.039 0.115 10.281 <.001 0.157 0.229 DS7

Table S5 Results of region of interest (ROI) based domain-specific t-tests. Regions that independently show a stronger association for Social compared to Nonsocial attributions in both Social stimulus categories are noted with an asterisk. As described in the main text, we report p- values after adjusting for multiple ROIs using a false-discovery rate procedure. ROI details can be found in Table S3. [(Why Social > How Social ) > (Why Nonsocial > How Nonsocial )] Test Outcome Emotion Action ROI t-stat p ADJ 95% CI t-stat p ADJ 95% CI Dorsomedial PFC* 4.240 0.007 0.046 0.124 6.400 <.001 0.146 0.263 Ventromedial PFC -1.130 1.000-0.102 0.010 4.764 <.001 0.100 0.234 Lateral OFC 3.915 0.008 0.041 0.149 2.224 0.115-0.013 0.177 TPJ 0.393 1.000-0.033 0.041 6.880 <.001 0.134 0.232 Anterior STS 0.661 1.000-0.032 0.064 1.888 0.184-0.003 0.107 Precuneus 1.517 0.718-0.015 0.087 5.471 <.001 0.106 0.215 DS8

Table S6 Zero-order correlations among variables included in the exploratory analysis of individual differences in dorsomedial prefrontal cortex (DMPFC) activity related to performing social or nonsocial attributions; total accuracy for the social and nonsocial attribution tasks; and selfreported scores on the Empathy Quotient, Social Curiosity Scale, and the Attributional Complexity Questionnaire. 1 2 3 4 5 6 7 1 DMPFC (Social Attribution) - 0.11 0.59** 0.20-0.29-0.07-0.24 2 DMPFC (Nonsocial Attribution) 0.11-0.31 0.70*** 0.57* 0.66** 0.59** 3 Accuracy (Social Attribution) 0.59** 0.31-0.53* -0.20-0.10-0.15 4 Accuracy (Nonsocial Attribution) 0.20 0.70*** 0.53* - 0.51* 0.30 0.21 5 Empathy Quotient -0.29 0.57* -0.20 0.51* - 0.61** 0.49* 6 Social Curiosity -0.07 0.66** -0.10 0.30 0.61** - 0.71*** 7 Attributional Complexity -0.24 0.59** -0.15 0.21 0.49* 0.71*** - Note. N = 19; *p <.05, **p <.01, ***p <.001 DS9

Figure S1. The set of facial expression photographs used in the study. DS10

Figure S2. The set of intentional action photographs used in the study. DS11

Figure S3. The set of nonsocial scene photographs used in the study. DS12