How ecological inheritance can affect the evolution of complex niche construction in a 2D physical simulation

Author(s):  
Naoaki Chiba ◽  
Reiji Suzuki ◽  
Takaya Arita
2011 ◽  
Vol 366 (1566) ◽  
pp. 785-792 ◽  
Author(s):  
Jeremy Kendal ◽  
Jamshid J. Tehrani ◽  
John Odling-Smee

Niche construction is an endogenous causal process in evolution, reciprocal to the causal process of natural selection. It works by adding ecological inheritance , comprising the inheritance of natural selection pressures previously modified by niche construction, to genetic inheritance in evolution. Human niche construction modifies selection pressures in environments in ways that affect both human evolution, and the evolution of other species. Human ecological inheritance is exceptionally potent because it includes the social transmission and inheritance of cultural knowledge, and material culture. Human genetic inheritance in combination with human cultural inheritance thus provides a basis for gene–culture coevolution, and multivariate dynamics in cultural evolution. Niche construction theory potentially integrates the biological and social aspects of the human sciences. We elaborate on these processes, and provide brief introductions to each of the papers published in this theme issue.


Author(s):  
Takuro Kojima ◽  
◽  
Reiji Suzuki ◽  
Takaya Arita

Niche construction is a process whereby organisms that modify their own or others’ niches through their ecological activities. Recent studies have revealed that changes in social structures of interactions caused by social niche construction of individuals can affect seriously the evolution of cooperation. However, such a social niche also could be changed indirectly by a modification of their physical environment. Our purpose is to clarify the coevolution of cooperative behavior and physically niche-constructing behavior that modifies social niche indirectly. For this purpose, we constructed an evolutionary model in which each individual has not only a strategy for a spatial Prisoner’s Dilemma but also has traits for a niche-constructing behavior for modifying its physical environment that can limit social interactions between neighboring individuals. By conducting evolutionary experiments, we show that a cyclic coevolution between cooperative behavior and niche-constructing behavior occurred in the situation with no or low degree of ecological inheritance, in which the constructed niche could not be inherited in succeeding generations at all. Conversely, when the degree of ecological inheritance was high, the evolution of cooperation was promoted by the emerged environmental structure constructed by the evolved niche-constructing behavior. We also show that the condition for each scenario to occur depends on the settings of the payoff parameters as well as the degree of ecological inheritance.


Author(s):  
Kevin Laland

Niche construction is the process whereby organisms, through their activities and choices, modify their own and each other’s niches. Examples of niche construction include the building of nests, burrows, and mounds and alternation of physical and chemical conditions by animals, and the creation of shade, influencing of wind speed, and alternation of nutrient cycling by plants. Here the “niche” is construed as the set of natural selection pressures to which the population is exposed (discussed in Ecology). By transforming natural selection pressures, niche construction generates feedback in evolution, on a scale hitherto underestimated and in a manner that alters the evolutionary dynamic. Niche construction also plays a critical role in ecology, in which it supports ecosystem engineering and eco-evolutionary feedbacks and, in part, regulates the flow of energy and nutrients through ecosystems. Niche construction theory is the body of formal (e.g., population genetic, population ecology) mathematical theory that explores niche construction’s evolutionary and ecological ramifications. Many organisms construct developmental environments for their offspring or modify environmental states for other descendants, a process known as “ecological inheritance.” In recent years, this ecological inheritance has been widely recognized as a core component of extra-genetic inheritance, and it is central to attempts within evolutionary biology to broaden the concept of heredity beyond transmission genetics. The development of many organisms—and the recurrence of traits across generations—has been found to depend critically on the construction of developmental environments by ancestors. Historically, the study of niche construction has been contentious because theoretical and empirical findings from niche construction theory appear to challenge some orthodox accounts of evolution. Many researchers studying niche construction embrace an alternative perspective in which niche construction is regarded as a fundamental evolutionary process in its own right, as well as a major source of adaptation. This perspective is aligned intellectually with other progressive movements within evolutionary biology that are calling for an extended evolutionary synthesis. In addition to ecology and evolution, niche construction theory has had an impact on a variety of disciplines, including archaeology, biological anthropology, conservation biology, developmental biology, earth sciences, and philosophy of biology.


2020 ◽  
Vol 43 ◽  
Author(s):  
Giovanni Pezzulo ◽  
Laura Barca ◽  
Domenico Maisto ◽  
Francesco Donnarumma

Abstract We consider the ways humans engage in social epistemic actions, to guide each other's attention, prediction, and learning processes towards salient information, at the timescale of online social interaction and joint action. This parallels the active guidance of other's attention, prediction, and learning processes at the longer timescale of niche construction and cultural practices, as discussed in the target article.


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