694
J. Lehmann and R. I. Dunbar, “Network Cohesion, Group Size and Neocortex Size in Female-Bonded Old World Primates,” Proc Royal Soc B: Biol Sci 276 (2009): 4417.
695
J. Powell et al., “Orbital Prefrontal Cortex Volume Predicts Social Network Size: An Imaging Study of Individual Differences in Humans,” Proc Royal Soc B: Biol Sci 279 (2012): 2157; P. A. Lewis et al., “Ventromedial Prefrontal Volume Predicts Understanding of Others and Social Network Size,” Neuroimage 57 (2011): 1624; J. L. Powell et al., “Orbital Prefrontal Cortex Volume Correlates with Social Cognitive Competence,” Neuropsychologia 48 (2010): 3554; K. C. Bickart et al., “Amygdala Volume and Social Network Size in Humans,” Nat Nsci 14 (2011): 163; R. Kanai et al., “Online Social Network Size Is Reflected in Human Brain Structure,” Proc Royal Soc B: Biol Sci 279 (2012): 1327.
696
F. Elgar et al., “Income Inequality and School Bullying: Multilevel Study of Adolescents in 37 Countries,” J Adolescent Health 45 (2009): 351.
697
E. González-Bono et al., “Testosterone, Cortisol and Mood in a Sports Team Competition,” Horm Behav 35 (2009): 55; E. González-Bono et al., “Testosterone and Attribution of Successful Competition,” Aggressive Behav 26 (2000): 235.
698
N. O. Rule et al., “Perceptions of Dominance Following Glimpses of Faces and Bodies,” Perception 41 (2012): 687.
699
L. Thomsen et al., “Big and Mighty: Preverbal Infants Mentally Represent Social Dominance,” Sci 331 (2011):477.
700
S. V. Shepherd et al., “Social Status Gates Social Attention in Monkeys,” Curr Biol 16 (2006): R119; J. Massen et al., “Ravens Notice Dominance Reversals Among Conspecifics Within and Outside Their Social Group,” Nat Communications 5 (2013); 3679.
701
M. Karafin et al., “Dominance Attributions Following Damage to the Ventromedial Prefrontal Cortex,” J Cog Nsci 16 (2004): 1796; L. Mah et al., “Impairment of Social Perception Associated with Lesions of the Prefrontal Cortex,” Am J Psychiatry 161 (2004): 1247; T. Farrow et al., “Higher or Lower? The Functional Anatomy of Perceived Allocentric Social Hierarchies,” Neuroimage 57 (2011): 1552; C. F. Zink et al., “Know Your Place: Neural Processing of Social Hierarchy in Humans,” Neuron 58 (2008): 273.
702
A. A. Marsh et al., “Dominance and Submission: The Ventrolateral Prefrontal Cortex and Responses to Status Cues,” J Cog Nsci 21 (2009): 713; T. Allison et al., “Social Perception from Visual Cues: Role of the STS Region,” TICS 4 (2000): 267; J. B. Freeman et al., “Culture Shapes a Mesolimbic Response to Signals of Dominance and Subordination That Associates with Behavior,” Neuroimage 47 (2009): 353.
703
M. Nader et al., “Social Dominance in Female Monkeys: Dopamine Receptor Function and Cocaine Reinforcement,” BP 72 (2012): 414; M. P. Noonan et al., “A Neural Circuit Covarying with Social Hierarchy in Macaques,” PLoS Biol 12 (2014): e1001940; F. Wang et al., “Bidirectional Control of Social Hierarchy by Synaptic Efficacy in Medial Prefrontal Cortex,” Sci 334 (2011): 693.
704
M. Rushworth et al., “Are There Specialized Circuits for Social Cognition and Are They Unique to Humans?” PNAS 110 (2013): 10806.
705
Например: J. C. Beehner et al., “Testosterone Related to Age and Life-History Stages in Male Baboons and Geladas,” Horm Behav 56 (2009): 472.
706
J. Brady et al., “Avoidance Behavior and the Development of Duodenal Ulcers,” J the Exp Analysis of Behav 1 (1958): 69; J. Weiss, “Effects of Coping Responses on Stress,” J Comp Physiological Psych 65 (1968): 251.
707
R. Sapolsky, “The Influence of Social Hierarchy on Primate Health,” Sci 308 (2005): 648; H. Uno et al., “Hippocampal Damage Associated with Prolonged and Fatal Stress in Primates,” J Nsci 9 (1989): 1705; R. Sapolsky et al., “Hippocampal Damage Associated with Prolonged Glucocorticoid Exposure in Primates,” J Nsci 10 (1990): 2897; См. также: E. Archie et al., “Social Status Predicts Wound Healing in Wild Baboons,” PNAS 109 (2012): 9017.
708
R. Sapolsky, “The Physiology of Dominance in Stable Versus Unstable Social Hierarchies,” in Primate Social Conflict, ed. W. Mason and S. Mendoza (New York: SUNY Press, 1993).
709
L. R. Gesquiere et al., “Life at the Top: Rank and Stress in Wild Baboons,” Sci 333 (2011): 357.
710
D. Abbott et al., “Are Subordinates Always Stressed? A Comparative Analysis of Rank Differences in Cortisol Levels Among Primates,” Horm Behav 43 (2003): 67.
711
R. Sapolsky and J. Ray, “Styles of Dominance and Their Physiological Correlates Among Wild Baboons,” Am J Primat 18 (1989) 1; J. C. Ray and R. Sapolsky, “Styles of Male Social Behavior and Their Endocrine Correlates Among High-Ranking Baboons,” Am J Primat 28 (1992): 231; C. E. Virgin and R. Sapolsky, “Styles of Male Social Behavior and Their Endocrine Correlates Among Low-Ranking Baboons,” Am J Primat 42 (1997): 25.
712
J. Chiao et al., “Neural Basis of Preference for Human Social Hierarchy Versus Egalitarianism,” ANYAS 1167 (2009): 174; J. Sidanius et al., “You’re Inferior and Not Worth Our Concern: The Interface Between Empathy and Social Dominance Orientation,” J Personality 81 (2012): 313.
713
G. Sherman et al., “Leadership