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Allostatic load

Published online by Cambridge University Press:  15 July 2011

Dante Cicchetti
Dante Cicchetti*
Affiliation:
University of Minnesota and Mt. Hope Family Center, University of Rochester
*
Address correspondence and reprint requests to: Dante Cicchetti, Institute of Child Development, University of Minnesota, 51 East River Road, Minneapolis, MN 55455; E-mail: cicchett@umn.edu.
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Information

Type
Editorial
Information
Development and Psychopathology , Volume 23 , Issue 3: Allostatic Load: Part 1 , August 2011 , pp. 723 - 724
Copyright
Copyright © Cambridge University Press 2011

Homeostasis was the central model guiding stress research for more than a century (Bernard, 1865/Reference Bernard1957; Cannon, Reference Cannon1932; Selye, Reference Selye1956). These homeostatic models depicted the body's internal milieu as being held constant by the self-correcting negative feedback actions of its constituent organ systems (Sterling & Eyer, Reference Sterling, Eyer, Fisher and Reason1988). Such physiological systems were conceptualized as working in concert to reestablish the body's initial conditions whenever one or more of the systems exhibited perturbation.

In 1988, Sterling and Eyer, a neurobiologist and an epidemiologist, used the term allostasis to describe the manner in which the body maintains homeostasis through the allocation of metabolic energy to cope with changing environmental demands (Juster, McEwen, & Lupien, Reference Juster, McEwen and Lupien2009). Major differences between allostasis and homeostasis include the former's emphasis on dynamic as opposed to static biological set points, attention to the role of the brain in the regulation of feedback (Ganzel, Morris, & Wethington, Reference Ganzel, Morris and Wethington2010), and its perspective on health as an adaptation of the entire body to altering contextual requirements (Juster et al., Reference Juster, McEwen and Lupien2009, Reference Juster, Bizik, Picard, Arsenault-Lapierre, Sindi and Trepanier2011).

McEwen and Stellar (Reference McEwen and Stellar1993) elaborated upon allostasis, proffering the concept of allostatic load: the price the body pays when confronted with major stressors and sustained stress responses that must be maintained over extended periods of time (Ganzel et al., Reference Ganzel, Morris and Wethington2010; McEwen & Stellar, Reference McEwen and Stellar1993). Whenever adaptive biological interconnected systems become chronically dysregulated, then maladaptive physiological and psychological sequelae are likely to ensue that may persist across the life span (Juster et al., Reference Juster, McEwen and Lupien2009). Allostatic load models are inherently multilevel and thereby congruent with developmental psychopathology's growing emphasis on the importance of multiple levels of analysis theoretical models and longitudinal empirical research (Cicchetti & Toth, Reference Cicchetti and Toth2009). The interdisciplinary perspective advocated by the allostatic load model necessitates the integration of knowledge from multiple scientific fields that must be coordinated with the brain's evaluation of threat and the organization and execution of physiological responses (Ganzel et al., Reference Ganzel, Morris and Wethington2010). Just as is the case within the field of developmental psychopathology, research invoking an allostatic load model perspective underscores the criticality of comprehending how the integration of genetic/neurobiological and psychological processes, developmental history, current experiences, and context may eventuate either in adaptive or maladaptive trajectories (Evans & English, Reference Evans and English2002; Juster et al., Reference Juster, McEwen and Lupien2009; Lupien et al., Reference Lupien, Ouellet-Morin, Hupbach, Tu, Buss, Walker, Cicchetti and Cohen2006; Lupien, King, Meaney, & McEwen, Reference Lupien, King, Meaney and McEwen2001; McEwen, Reference McEwen2006).

As elegantly described by Lupien and her colleagues (2006), the processes of allostasis and allostatic load can be conceived as embodying a general biological principle; specifically, that the same systems that help the body adapt to stress and serve a protective function in the short term also may promote pathophysiological processes when overused or managed ineffectively. Furthermore, because the primary mediators of stress access the brain (Cicchetti & Walker, Reference Cicchetti and Walker2001; Gunnar & Cheatham, Reference Gunnar and Cheatham2003; Ganzel et al., Reference Ganzel, Morris and Wethington2010; McEwen, Reference McEwen2006), alterations in thinking and in the processing of affective, cognitive, and social information may result, including the development of psychopathological outcomes (Juster et al., Reference Juster, Bizik, Picard, Arsenault-Lapierre, Sindi and Trepanier2011; Lupien et al., Reference Lupien, Ouellet-Morin, Hupbach, Tu, Buss, Walker, Cicchetti and Cohen2006; Lupien, McEwen, Gunnar, & Heim, Reference Lupien, McEwen, Gunnar and Heim2009; Toth et al., in press). Thus, the early detection of allostatic load processes is essential to formulate developmentally timed and guided prevention and intervention strategies.

Because of the exciting research conducted on allostatic load processes in the animal and human literatures, it seemed like an opportune time to devote two Special Issues of Development and Psychopathology to this important topic. The articles in these Special Issues represent contributions from developmentalists from a variety of disciplinary persuasions. Given that some of the same principles that guide research and intervention on allostatic load also undergird the theoretical and empirical work in developmental psychopathology, the potential synergism across these areas has great potential to usher in a wave of innovative research that may be translatable into the development of efficacious prevention and intervention strategies that could aid in reducing the burden of physical and mental illness across the life span.

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