Resource Recovery and Materials Flow in the City: Zero Waste and Sustainable Consumption As Paradigms in Urban Development Steffen Lehmann
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Water in the Sustainable City
WORKING PAPER 26 Water in the sustainable city Cities worldwide are facing growing challenges in storm water management. This working paper compiles experiences from Copenhagen, Dordrecht, Hamburg, London, New York and Seattle, based on interviews and a conference held in Gothenburg, Sweden in November 2014. Process of change: Successful implementation of good water management practices in six cities By Brita Forssberg, Per-Arne Malmqvist and Helene Sörelius Background 2 Background The conference 3 Urbanization is a continuous and growing process all City Blueprints 4 over the world, as it is in Sweden. At the same time, we Dordrecht, The Netherlands 5 are threatened by climate change, which will affect us all wherever we live. The degradation of the environment is Hamburg, Germany 7 counteracted by many means, but new threats continue London, UK – The Thames Tideway Tunnel 10 to emerge. Nine out of ten catastrophes globally are London, UK – Sustainable Urban Storm Water connected with water – too much water or too little. In the face of what might seem to be a dark future, Drainage Solutions, SuDS 11 many cities have taken steps to plan for a brighter future. Copenhagen, Denmark 12 Some cities focus on climate change, some on environ- New York, USA 15 mental threats, and others take a holistic approach and plan for a better, healthier, and economically vibrant city Seattle, USA 17 under all circumstances. Conclusions and lessons learned 20 The same is also true for many Swedish cities. In doing so, they are constantly looking for good examples abro- Copyright © 2016, Stockholm International Water ad. -
Missouri Policy on Resource Recovery and State Target Materials
Missouri Policy on Resource Recovery and State Target Materials Statement It is the policy of the State of Missouri to integrate appropriate resource recovery philosophies and practices into all relevant activities in order to minimize the amount of solid waste that requires disposal, reduce environmental and public health threats, increase the manufacture and use of products made from recycled materials and preserve our natural resources. Goals The goals of the policy are as follows: . To incorporate solid waste reduction, recycling and resource recovery into the solid waste management activities of state and local governments, industries and citizens. To apply an integrated waste management hierarchy when managing local and regional solid waste streams to minimize possible environmental impacts associated with any one technology and to achieve the maximum feasible use of waste reduction, recycling and resource recovery. This hierarchy is as follows: o First ‐ reduce the amount of solid waste created o Second ‐ reuse, recycle and compost o Third ‐ recover and use energy from solid waste o Fourth ‐ incinerate or dispose of in a sanitary landfill . To facilitate the use of recycled materials by Missouri manufacturers and encourage the development of markets for recycled materials by incorporating solid waste reduction, recycling and resource recovery concepts into programs involving procurement, industrial development, capital works and other appropriate areas. To coordinate technical and financial assistance for solid waste reduction, recycling and resource recovery in accordance with state and local solid waste management plans. Objectives For State Government State government shall assure that the implementation of state, regional and local solid waste management systems and plans support the Missouri Policy on Resource Recovery, the Missouri Solid Waste Management Law and Rules and Missouri Resource Recovery Feasibility and Planning Study. -
Wastewater-Based Resource Recovery Technologies Across Scale a Review
Resources, Conservation & Recycling 145 (2019) 94–112 Contents lists available at ScienceDirect Resources, Conservation & Recycling journal homepage: www.elsevier.com/locate/resconrec Wastewater-based resource recovery technologies across scale: A review T ⁎ Nancy Diaz-Elsayed, Nader Rezaei, Tianjiao Guo1, Shima Mohebbi2, Qiong Zhang Department of Civil and Environmental Engineering, University of South Florida, 4202 E. Fowler Avenue, Tampa, FL, 33620, USA ARTICLE INFO ABSTRACT Keywords: Over the past few decades, wastewater has been evolving from a waste to a valuable resource. Wastewater can Water reuse not only dampen the effects of water shortages by means of water reclamation, but it also provides themedium Energy recovery for energy and nutrient recovery to further offset the extraction of precious resources. Since identifying viable Nutrient recovery resource recovery technologies can be challenging, this article offers a review of technologies for water, energy, Wastewater treatment and nutrient recovery from domestic and municipal wastewater through the lens of the scale of implementation. System scale The system scales were classified as follows: small scale (design flows3 of17m /day or less), medium scale (8 to 20,000 m3/day), and large scale (3800 m3/day or more). The widespread implementation of non-potable reuse (NPR) projects across all scales highlighted the ease of implementation associated with lower water quality requirements and treatment schemes that resembled conventional wastewater treatment. Although energy re- covery was mostly achieved in large-scale plants from biosolids management or hydraulic head loss, the highest potential for concentrated nutrient recovery occurred in small-scale systems using urine source separating technologies. Small-scale systems offered benefits such as the ability for onsite resource recovery and reusethat lowered distribution and transportation costs and energy consumption, while larger scales benefited from lower per unit costs and energy consumption for treatment. -
Sustainable Urban Design Paradigm: Twenty Five Simple Things to Do to Make an Urban Neighborhood Sustainable
© 2002 WIT Press, Ashurst Lodge, Southampton, SO40 7AA, UK. All rights reserved. Web: www.witpress.com Email [email protected] Paper from: The Sustainable City II, CA Brebbia, JF Martin-Duque & LC Wadhwa (Editors). ISBN 1-85312-917-8 Sustainable urban design paradigm: twenty five simple things to do to make an urban neighborhood sustainable B. A. Kazimee School of Architecture and Construction Management, Washington State University, USA. Abstract Sustainable design celebrates and creates the ability of communities and wider urban systems to minimize their impact on the environment, in an effort to create places that endure, Central to this paradigm is an ecological approach that take into consideration not only the nature but human element as well, locally and globally. The paper presents twenty five design strategies and explores processes that point to a rediscovery of the art and science of designing sustainable neighborhoods. It seeks to synthesize these principles into an agenda for the design of towns and cities with the intention of reversing many of the ills and destructive tendencies of past practices. These strategies serve as indicators to sustainable developmen~ they are used to define inherent qualities, carrying capacities and required ecological footprints to illustrate the place of exemplary communities. Furthermore, they are established to allow designers to model, measure and program sustainable standards as well as monitor the regenerative process of cities. The guidelines are organized under five primary variables for achieving sustainability: human ecology, energy conservation, land and resource conservation (food and fiber,) air and water quality. These variables are presented as highly interactive cycles and are based upon the theory and principles/processes of place making, affordability and sustainability. -
Waste Reduction and Recycling
MSBA/MASA Model Policy 805 805 WASTE REDUCTION AND RECYCLING I. PURPOSE The purpose of this policy is to establish a resource recovery program to promote the reduction of waste, the separation and recovery of recyclable and reusable commodities, the procurement of recyclable commodities and commodities containing recycled materials, the disposition of waste materials and surplus property, and establishment of a program of education to develop an awareness of environmentally sound waste management. (Minn. Stat. § 115A.15, Subd. 1) II. GENERAL STATEMENT OF POLICY The policy of the school district is to comply with all state laws relating to waste management and to make resource conservation an integral part of the physical operations and curriculum of the school district. III. DEFINITIONS A. “Lamp recycling facility” means a facility operated to remove, recover, and recycle for reuse mercury or other hazardous materials from fluorescent or high intensity discharge lamps. (Minn. Stat. § 116.93, Subd. 1) B. “Mixed municipal solid waste” means garbage, refuse, and other solid waste that is aggregated for collection but does not include auto hulks, street sweepings, ash, construction debris, mining waste, sludges, tree and agricultural wastes, tires, lead acid batteries, motor and vehicle fluids and filters, and other materials collected, processed, and disposed of as separate waste streams. (Minn. Stat. § 115A.03, Subd. 21) C. “Packaging” means a container and any appurtenant material that provide a means of transporting, marketing, protecting, or handling a product and includes pallets and packing such as blocking, bracing, cushioning, weatherproofing, strapping, coatings, closures, inks, dyes, pigments, and labels. (Minn. Stat. § 115A.03, Subd. -
Resource Recovery from Waste: Restoring the Balance Between Resource Scarcity and Waste Overload
sustainability Article Resource Recovery from Waste: Restoring the Balance between Resource Scarcity and Waste Overload Anne P. M. Velenturf * ID and Phil Purnell Resource Recovery from Waste Programme, School of Civil Engineering, University of Leeds, Leeds LS2 9JT, UK; [email protected] * Correspondence: [email protected]; Tel.: +44-1134-32279 Received: 13 July 2017; Accepted: 1 September 2017; Published: 8 September 2017 Abstract: Current societal patterns of production and consumption drive a twin environmental crisis of resource scarcity and waste overload. Positioning waste and resource management in the context of ecosystem stewardship, this article relates increasing resource demand and waste production to the violation of planetary boundaries and human rights. We argue that a transition towards a circular economy (CE) that contributes to a resilient environment and human well-being is necessary to achieve the UN Sustainable Development Goals. The transition requires scientific and technological progress, including the development of low-energy biogeochemical technologies for resource recovery, and multi-dimensional value assessment tools integrating environmental, social, and economic factors. While the urgency to adopt a CE is well-recognised, progress has been slow. Coordinated change is required from multiple actors across society. Academia can contribute through participatory action research. This article concludes with the participation strategy of the Resource Recovery from Waste programme, aiming for changes in mentality, industry practices, and policies and regulations in the waste and resource management landscape in the UK. Keywords: waste and resource management; ecosystem stewardship; planetary boundaries; human rights; UN Sustainable Development Goals; sustainable production and consumption; circular economy; participation processes; stakeholder engagement; transdisciplinary research 1. -
Sustainable Cities Hubs of Innovation, Low Carbon Industrialization and Climate Action
Sustainable Cities Hubs of Innovation, Low Carbon Industrialization and Climate Action INCLUSIVE AND SUSTAINABLE INDUSTRIAL DEVELOPMENT SUSTAINABLE CITIES SUSTAINABLE CITIES: PLATFORMS FOR LOW CARBON INDUSTRIALIZATION AND TURNING TODAY’S CITIES INTO LIVABLE ECONOMIC POWERHOUSES 2 Cover picture: © fotolia SUSTAINABLE CITIES Sustainable Cities Hubs of Innovation, Low Carbon → Industrialization and Climate Action Background Sustainable and inclusive industrialization of cities provides opportunities for developing A sustainable synergies, such as decoupling economic growth from environmental degradation, while at the city serves the same time creating employment and fostering clean energy innovation. Cities benefit from the best interest role of industries in local economic development through job creation and income generation. of industry In industry also lie critical solutions towards limiting the carbon intensity of growth, considering the impacts of its activities as an energy consumer (and in some cases energy producer), major freight transport user, promoter of efficiency and clean energy technologies and solutions, preserver of green cover and implementer of sustainability initiatives. A sustainable city serves the best interests of industry as it benefits from the efficient and peaceful functioning of its host cities. UNIDO’s comparative advantage: 1 2 3 4 Clean energy Economic Low-carbon Climate innovation empowerment industrialization action As the world continues to urbanize rapidly, the importance of shaping sustainable cities has begun to receive widespread recognition. This is particularly true in developing countries where urban growth is relatively high and the existing systems and infrastructure are not sufficient. Estimates show that more than half of the global population currently live in cities, and is expected to reach two-thirds by 2050. -
Safe Use of Wastewater in Agriculture Safe Use of Safe Wastewater in Agriculture Proceedings No
A UN-Water project with the following members and partners: UNU-INWEH Proceedings of the UN-Water project on the Safe Use of Wastewater in Agriculture Safe Use of Wastewater in Agriculture Wastewater Safe of Use Proceedings No. 11 No. Proceedings | UNW-DPC Publication SeriesUNW-DPC Coordinated by the UN-Water Decade Programme on Capacity Development (UNW-DPC) Editors: Jens Liebe, Reza Ardakanian Editors: Jens Liebe, Reza Ardakanian (UNW-DPC) Compiling Assistant: Henrik Bours (UNW-DPC) Graphic Design: Katja Cloud (UNW-DPC) Copy Editor: Lis Mullin Bernhardt (UNW-DPC) Cover Photo: Untited Nations University/UNW-DPC UN-Water Decade Programme on Capacity Development (UNW-DPC) United Nations University UN Campus Platz der Vereinten Nationen 1 53113 Bonn Germany Tel +49-228-815-0652 Fax +49-228-815-0655 www.unwater.unu.edu [email protected] All rights reserved. Publication does not imply endorsement. This publication was printed and bound in Germany on FSC certified paper. Proceedings Series No. 11 Published by UNW-DPC, Bonn, Germany August 2013 © UNW-DPC, 2013 Disclaimer The views expressed in this publication are not necessarily those of the agencies cooperating in this project. The designations employed and the presentation of material throughout this publication do not imply the expression of any opinion whatsoever on the part of the UN, UNW-DPC or UNU concerning the legal status of any country, territory, city or area or of its authorities, or concerning the delimitation of its frontiers or boundaries. Unless otherwise indicated, the ideas and opinions expressed by the authors do not necessarily represent the views of their employers. -
Circular Economy in Wastewater Treatment Plant– Challenges and Barriers †
Proceedings Circular Economy in Wastewater Treatment Plant– Challenges and Barriers † Ewa Neczaj * and Anna Grosser Faculty of Infrastructure and Environment, Czestochowa University of Technology, 42-201 Czestochowa, Poland; [email protected] * Correspondence: [email protected]; Tel.: +48-343-250-917 † Presented at the 3rd EWaS International Conference on “Insights on the Water-Energy-Food Nexus”, Lefkada Island, Greece, 27–30 June 2018. Published: 31 July 2018 Abstract: The urban wastewater treatment plants can be an important part of circular sustainability due to integration of energy production and resource recovery during clean water production. Currently the main drivers for developing wastewater industry are global nutrient needs and water and energy recovery from wastewater. The article presents current trends in wastewater treatment plants development based on Circular Economy assumptions, challenges and barriers which prevent the implementation of the CE and Smart Cities concept with WWTPs as an important player. WWTPs in the near future are to become “ecologically sustainable” technological systems and a very important nexus in SMART cities. Keywords: circular economy; wastewater treatment plant; resource recovery 1. Introduction The circular economy (CE) is the concept in which products, materials (and raw materials) should remain in the economy for as long as possible, and waste should be treated as secondary raw materials that can be recycled to process and re-use [1]. This distinguishes it from a linear economy based on the, ‘take-make-use-dispose’ system, in which waste is usually the last stage of the product life cycle. CE is a concept promotes sustainable management of materials and energy by minimalizing the amount of waste generation and their reuse as a secondary material. -
Stewardship of the Biosphere in the Urban Era Michail Fragkias Boise State University
Boise State University ScholarWorks Economics Faculty Publications and Presentations Department of Economics 1-1-2013 Stewardship of the Biosphere in the Urban Era Michail Fragkias Boise State University For complete list of authors, please see article. This document was originally published by Springer Netherlands in Urbanization, Biodiversity and Ecosystem Services: Challenges and Opportunities. This work is provided under a Creative Commons Attribution-NonCommercial License. Details regarding the use of this work can be found at: http://creativecommons.org/licenses/by-nc/3.0/. DOI: 10.1007/978-94-007-7088-1_33. Chapter 33 Stewardship of the Biosphere in the Urban Era Thomas Elmqvist , Michail Fragkias , Julie Goodness , Burak Güneralp , Peter J. Marcotullio , Robert I. McDonald , Susan Parnell , Maria Schewenius , Marte Sendstad , Karen C. Seto , Cathy Wilkinson , Marina Alberti , Carl Folke , Niki Frantzeskaki , Dagmar Haase , Madhusudan Katti , Harini Nagendra , Jari Niemelä , Steward T.A. Pickett , Charles L. Redman , and Keith Tidball 33.1 Introduction We are entering a new urban era in which the ecology of the planet as a whole is increasingly infl uenced by human activities (Turner et al. 1990 ; Ellis 2011 ; Steffen et al. 2011a , b ; Folke et al. 2011 ). Cities have become a central nexus of the relation- ship between people and nature, both as crucial centres of demand of ecosystem services, and as sources of environmental impacts. Approximately 60 % of the urban land present in 2030 is forecast to be built in the period 2000–2030 (Chap. 21 ). Urbanization therefore presents challenges but also opportunities. In the next two to three decades, we have unprecedented chances to vastly improve global sus- tainability through designing systems for increased resource effi ciency, as well as Coordinating Lead Authors : Thomas Elmqvist, Michail Fragkias, Julie Goodness, Burak Güneralp, Peter J. -
A Framework for Integrating Agriculture in Urban Sustainability in Australia
Review A Framework for Integrating Agriculture in Urban Sustainability in Australia 1, , 2, 1, Arif H. Sarker * y, Janet F. Bornman y and Dora Marinova y 1 School of Design and the Built Environment, Curtin University Sustainability Policy Institute, Kent Street, Bentley, Perth 6102, Australia; [email protected] 2 Food Futures Institute, Murdoch University, Murdoch 6150, Australia; [email protected] * Correspondence: [email protected]; Tel.: +61-432-145-724 These authors contributed equally to this work. y Received: 3 March 2019; Accepted: 29 April 2019; Published: 3 May 2019 Abstract: Rapid urbanisation all over the world poses a serious question about urban sustainability in relation to food. Urban agriculture can contribute to feeding city dwellers as well as improving metropolitan environments by providing more green space. Australia is recognised as one of the most urbanised countries in the world, and achieving urban sustainability should be high on the policy and planning agenda. A strong consensus exists among policymakers and academics that urban agriculture could be a tenable way of enhancing urban sustainability, and therefore, it should be a vital part of planning processes and urban design as administered by local and state governments. However, in recent decades, planning has overlooked and failed to realise this opportunity. The most significant constraints to urban agriculture are its regulatory and legal frameworks, including access to suitable land. Without direct public policy support and institutional recognition, it would be difficult to make urban agriculture an integral part of the development and planning goals of Australian cities. Developing and implementing clear planning policies, laws and programs that support urban agriculture can assist in decreasing competing land demands. -
Issue Outline on Resource Recovery from Wastewater and Coverage of 40 CFR Part
Issue Outline on Resource Recovery from Wastewater and Coverage of 40 C.F.R. Part 503 I.I.I. Overview and Need for an EPA Policy StatementStatement.... A growing number of NACWA members and affiliates are engaged in resource recovery from wastewater. This trend offers many benefits, including producing valuable products and revenues, reducing the volume of solid residuals and simplifying their management. Extraction of resources from wastewater raises important regulatory issues, particularly whether the Part 503 rules extend to these materials. NACWA has researched this issue, consulted with its members employing extraction technologies in the field, and believes that Part 503 does not extend to these products because they are not a sewage sludge or a material derived from sludge. Based on this research, as explained fully below, NACWA believes that EPA should issue a policy statement to clarify that resource extraction is a different process from bulk solids management and that Part 503 does not govern these materials. While this issue encompasses a wide array of resources that are being evaluated for potential recovery, this paper will focus on a phosphorous product, struvite, which is the best known and most common resource extraction process currently being implemented at a growing number of facilities. EPA clarification of the regulatory status of struvite will encourage the extraction and use of this slow-release fertilizer, leading to reduced phosphorous loading and improved water quality, and will potentially establish a framework for handling other recovered resources. Struvite does not meet the regulatory definition of sewage sludge under 40 C.F.R. Part 503 and therefore the Environmental Protection Agency (“EPA” or the “Agency”) should recognize this through a policy statement and allow wastewater treatment plants to extract this valuable mineral product from sidestream flows.