Show Less

A Handbook of Industrial Ecology

Edited by Robert U. Ayres and Leslie W. Ayres

Industrial ecology is coming of age and this superb book brings together leading scholars to present a state-of-the-art overviews of the subject. Each part of the book comprehensively covers the following issues in a systematic style: the goals and achievements of industrial ecology and the history of the field; methodology, covering the main approaches to analysis and assessment; economics and industrial ecology; industrial ecology at the national/regional level; industrial ecology at the sectoral/materials level; and applications and policy implications.
Buy Book in Print
Show Summary Details
You do not have access to this content

Chapter 32: Wastes as raw materials

David T. Allen


David T. Allen One of the central principles of industrial ecology is that industrial systems can develop the types of mass efficiency and cycling of materials exhibited by natural ecosystems. The vision shared by many in the industrial ecology community is of tightly integrated, massefficient manufacturing processes, which require energy inputs, but which require few mass inputs and generate little or no waste. Is such a vision realistic? Is it already beginning to occur? This chapter will examine the potential for using wastes as raw materials, by addressing each of the following questions: what are the flows and compositions of waste streams and how can their potential use as raw materials be assessed and promoted, and what types of design tools are necessary for increasing the use of wastes as raw materials? FLOWS AND COMPOSITIONS OF WASTE STREAMS AND THE USE OF WASTES AS RAW MATERIALS Advanced industrialized economies typically utilize 40–80 tons of material per year, per capita (Adriaanse et al. 1997). Comparative analyses of these material flows for the USA, Germany, Japan and Austria are provided elsewhere in this handbook; from these analyses it is clear that most materials used by highly industrialized economies are used once, then become wastes. Therefore most of the 40–80 tons of material used per year, per capita, become wastes. The sheer magnitude of waste generation is cause for concern and drives us to identify characteristics of the wastes, methods of waste management and the potential for reducing wastes....

You are not authenticated to view the full text of this chapter or article.

Elgaronline requires a subscription or purchase to access the full text of books or journals. Please login through your library system or with your personal username and password on the homepage.

Non-subscribers can freely search the site, view abstracts/ extracts and download selected front matter and introductory chapters for personal use.

Your library may not have purchased all subject areas. If you are authenticated and think you should have access to this title, please contact your librarian.

Further information

or login to access all content.