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135,135
result(s) for
"Waste recycling"
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Go green by recycling
by
Bullard, Lisa, author
,
Thomas, Wes, 1972- illustrator
,
Bullard, Lisa. Go green
in
Recycling (Waste, etc.) Juvenile literature.
,
Recycling (Waste)
2019
Fun text and upbeat illustrations will inspire readers to learn about recycling. Comprehension questions, fun facts, and critical thinking questions keep readers engaged and thinking while they read through an interesting narrative with diverse characters.
Cycling and Recycling
2015,2016,2022
Technology has long been an essential consideration in public discussions of the environment, with the focus overwhelmingly on creating new tools and techniques. In more recent years, however, activists, researchers, and policymakers have increasingly turned to mobilizing older technologies in their pursuit of sustainability. In fascinating case studies ranging from the Early Modern secondhand trade to utopian visions of human-powered vehicles, the contributions gathered here explore the historical fortunes of two such technologies—bicycling and waste recycling—tracing their development over time and providing valuable context for the policy successes and failures of today.
Recycling materials
by
McMullen, Gemma, author
,
McMullen, Gemma. Environmental issues
in
Recycling (Waste, etc.) Juvenile literature.
,
Recycling (Waste, etc.)
2017
Discusses the basics of recycling, including what materials are most commonly recycled and how the process of recycling works.
Plastic Waste: Challenges and Opportunities to Mitigate Pollution and Effective Management
by
Kibria, Md. Golam
,
Nguyen, Huy Quoc
,
Mourshed, Monjur
in
Air pollution
,
Developing countries
,
Earth and Environmental Science
2023
The present world is now facing the challenge of proper management and resource recovery of the enormous amount of plastic waste. Lack of technical skills for managing hazardous waste, insufficient infrastructure development for recycling and recovery, and above all, lack of awareness of the rules and regulations are the key factors behind this massive pile of plastic waste. The severity of plastic pollution exerts an adverse effect on the environment and total ecosystem. In this study, a comprehensive analysis of plastic waste generation, as well as its effect on the human being and ecological system, is discussed in terms of source identification with respect to developed and developing countries. A detailed review of the existing waste to energy and product conversion strategies is presented in this study. Moreover, this study sheds light on sustainable waste management procedures and identifies the key challenges to adopting effective measures to minimise the negative impact of plastic waste.
Highlights
A comprehensive analysis of global plastic waste generation and its effect on land and marine environment is conducted.
Plastic waste management technologies for both land and marine environment are reviewed thoroughly.
The modern technologies for waste-to-energy and waste-to-production conversion are discussed in this paper.
The potential challenges and a way forward for sustainable management technologies are presented.
Journal Article
Recycle every day
Introduces the concept of recycling and why it is beneficial for our Earth, and offers fun ways to recycle and reuse, at home and in the community.
Plastic Waste Management Strategies and Their Environmental Aspects: A Scientometric Analysis and Comprehensive Review
by
Mehmood, Imran
,
Ivanovich Vatin, Nikolai
,
Huang, Saimin
in
Bibliographic coupling
,
Bibliographic records
,
Bibliometrics
2022
Plastic consumption increases with the growing population worldwide and results in increased quantities of plastic waste. There are various plastic waste management strategies; however, the present management progress is not sustainable, and plastic waste dumping in landfills is still the most commonly employed strategy. Being nonbiodegradable, plastic waste dumping in landfills creates several environmental and human health problems. Numerous research studies have been conducted recently to determine safe and ecologically beneficial methods of plastic waste handling. This article performed a bibliographic analysis of the available literature on plastic waste management using a computational approach. The highly used keywords, most frequently cited papers and authors, actively participating countries, and sources of publications were analyzed during the bibliographic analysis. In addition, the various plastic waste management strategies and their environmental benefits have been discussed. It has been concluded that among the six plastic waste management techniques (landfills, recycling, pyrolysis, liquefaction, road construction and tar, and concrete production), road construction and tar and concrete production are the two most effective strategies. This is due to significant benefits, such as ease of localization, decreased greenhouse gas emissions, and increased durability and sustainability of manufactured materials, structures, and roadways. Conversely, using landfills is the most undesirable strategy because of the associated environmental and human health concerns. Recycling has equal benefits and drawbacks. In comparison, pyrolysis and liquefaction are favorable due to the production of char and fuel, but high energy requirements limit their benefits. Hence, the use of plastic waste for construction applications is recommended.
Journal Article
Where does the recycling go?
by
Shea, Jerry, 1954-
in
Recycling (Waste, etc.) Juvenile literature.
,
Waste products Juvenile literature.
,
Recycling (Waste)
2012
This book shows how various materials are recycled, and the kinds of products that are made into.
E-Waste and Harm to Vulnerable Populations: A Growing Global Problem
by
Landrigan, Philip J.
,
Omar, Magdy
,
Birnbaum, Linda S.
in
Aluminum
,
Cellular telephones
,
Chemical elements
2016
Electronic waste (e-waste) is produced in staggering quantities, estimated globally to be 41.8 million tonnes in 2014. Informal e-waste recycling is a source of much-needed income in many low- to middle-income countries. However, its handling and disposal in underdeveloped countries is often unsafe and leads to contaminated environments. Rudimentary and uncontrolled processing methods often result in substantial harmful chemical exposures among vulnerable populations, including women and children. E-waste hazards have not yet received the attention they deserve in research and public health agendas.
We provide an overview of the scale and health risks. We review international efforts concerned with environmental hazards, especially affecting children, as a preface to presenting next steps in addressing health issues stemming from the global e-waste problem.
The e-waste problem has been building for decades. Increased observation of adverse health effects from e-waste sites calls for protecting human health and the environment from e-waste contamination. Even if e-waste exposure intervention and prevention efforts are implemented, legacy contamination will remain, necessitating increased awareness of e-waste as a major environmental health threat.
Global, national, and local levels efforts must aim to create safe recycling operations that consider broad security issues for people who rely on e-waste processing for survival. Paramount to these efforts is reducing pregnant women and children's e-waste exposures to mitigate harmful health effects. With human environmental health in mind, novel dismantling methods and remediation technologies and intervention practices are needed to protect communities.
Heacock M, Kelly CB, Asante KA, Birnbaum LS, Bergman AL, Bruné MN, Buka I, Carpenter DO, Chen A, Huo X, Kamel M, Landrigan PJ, Magalini F, Diaz-Barriga F, Neira M, Omar M, Pascale A, Ruchirawat M, Sly L, Sly PD, Van den Berg M, Suk WA. 2016. E-waste and harm to vulnerable populations: a growing global problem. Environ Health Perspect 124:550-555; http://dx.doi.org/10.1289/ehp.1509699.
Journal Article
Waste : information and projects to reduce your environmental footprint
by
Whittaker, Helen, 1965-
,
Whittaker, Helen, 1965- Living green
in
Recycling (Waste, etc.) Juvenile literature.
,
Waste minimization Juvenile literature.
,
Recycling (Waste)
2012
\"Discusses how the items we throw away impact the environment and what you can do to be more eco-conscious\"-- Provided by publisher.
Design Implications of Extended Producer Responsibility for Durable Products
by
Toktay, L. Beril
,
Atasu, Atalay
,
Huang, Ximin (Natalie)
in
Air pollution
,
Consumer goods
,
durability
2019
We analyze product design implications of extended producer responsibility (EPR)-based take-back legislation on durable goods. In particular, we observe that durable product design incentives under EPR may involve an inherent trade-off that has not been explored to date: Durable goods producers can respond to EPR by making their products more recyclable or more durable, where the former decreases the unit recycling cost and the latter reduces the volume the producer has to recycle. When these two design attributes do not go hand in hand, as is the case for many product categories, product design implications of EPR can be counterintuitive. We find that more stringent collection targets (defined as the portion of total product volume to be collected) or recycling targets (defined as the portion of each collected product unit to be recycled) may imply reduced recyclability or durability. Moreover, although collection and recycling targets appear to be similar EPR implementation levers for increasing the total amount of materials recycled, they, in fact, have opposing effects in driving producers’ design choices. As a result, EPR may have unintended consequences for the environment. A calibrated numerical study on the photovoltaic panel (PVP) industry allows us to show that more stringent EPR requirements (such as those proposed by the recent recast of the WEEE directive) can lead to a PVP technology choice with lower recyclability and higher durability and, consequently, result in higher greenhouse gas emissions. These results call for a careful analysis of the benefits of EPR legislation in the context of durable goods.
The online appendix is available at
https://doi.org/10.1287/mnsc.2018.3072
.
This paper was accepted by Vishal Gaur, operations management.
Journal Article