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生态学、热力学与H.T. 奥德姆的猜想

Ecology, thermodynamics and H.T. Odum's conjectures.

作者信息

Månsson B Å, McGlade J M

机构信息

Applied Landscape Ecology, UFZ-Environmental Research Center, Permoserstrasse 15, O-7050, Leipzig, Germany.

Department of Biological Sciences, University of Warwick, CV47AL, Coventry, UK.

出版信息

Oecologia. 1993 Apr;93(4):582-596. doi: 10.1007/BF00328969.

DOI:10.1007/BF00328969
PMID:28313829
Abstract

The central rôle of energy in all life processes has led to the development of numerous hypotheses, conjectures and theories on the relationships between thermodynamics and ecological processes. In this paper we examine the theoretical and empirical support for these developments, and in particular for the widely published set of thermodynamic conjectures developed by H.T. Odum, in which the maximum power principle is put forward as a generic feature of evolution in ecosystems. Although they are widely used, we argue that many of the ecological studies that have adopted the ideas encapsulated in Odum's work have done so without being aware of some of the fundamental problems underlying this approach. We discuss alternative ways in which a general available-work concept could be constructed for use as a numeraire in an energy-centered ecological theory or paradigm. In so doing, we examine what is meant by material accessibility and energy stocks and flows with respect to traditional food web and food chain theories, and relate these to results from the evolutionary dynamics of ecosystems. We conclude that the various forms and uses of energy bound up in essential ecosystem processes present a formidable obstacle to obtaining an operational definition of a general, aggregated available-work concept, a prerequisite for the systems approach of Odum and others. We also show that the prototypical derivations of the maximum power principle, and its interpretation, are contradicted on many scales both by empirical data and models, thereby invalidating the maximum power principle as a general principle of ecological evolution. The conclusions point to the fundamental problem of trying to describe ecosystems in a framework which has a one-dimensional currency.

摘要

能量在所有生命过程中的核心作用引发了众多关于热力学与生态过程之间关系的假说、推测和理论。在本文中,我们考察了这些发展的理论和实证依据,特别是对H.T.奥德姆提出的广泛发表的一系列热力学推测,其中最大功率原理被提出作为生态系统进化的一个普遍特征。尽管它们被广泛使用,但我们认为许多采用奥德姆著作中所包含思想的生态学研究在这样做时并未意识到这种方法背后的一些基本问题。我们讨论了构建一个通用可用功概念的替代方法,该概念可作为以能量为中心的生态理论或范式中的一种计价单位。在此过程中,我们考察了相对于传统食物网和食物链理论而言物质可及性、能量存量和流动的含义,并将这些与生态系统进化动力学的结果联系起来。我们得出结论,在基本生态系统过程中所涉及的各种能量形式和用途,对于获得一个通用的、综合的可用功概念的操作定义构成了巨大障碍,而这是奥德姆等人的系统方法的一个先决条件。我们还表明,最大功率原理的典型推导及其解释在许多尺度上都与实证数据和模型相矛盾,从而使最大功率原理作为生态进化的一般原理无效。这些结论指出了在一个具有一维货币的框架内试图描述生态系统的根本问题。

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