WWW.ABSTRACT.DISLIB.INFO
FREE ELECTRONIC LIBRARY - Abstracts, online materials
 
<< HOME
CONTACTS



Pages:   || 2 | 3 | 4 |

«Powering the Digital: From Energy Ecologies to Electronic Environmentalism Jennifer Gabrys Forthcoming in Media and the Ecological Crisis, edited by ...»

-- [ Page 1 ] --

Powering the Digital: From Energy Ecologies to Electronic

Environmentalism

Jennifer Gabrys

Forthcoming in Media and the Ecological Crisis, edited by Richard

Maxwell, Jon Raundalen, Nina Lager Vestberg

(New York and London: Routledge, 2014), 3-18.

Electronics and all that they plug into are energy intensive. An

increasing amount of energy (and resulting carbon emissions) is

required to power everything from Google searches to spam and text

messages, which in turn involve a vast range of resources including data centers, digital devices, and fiber optic cabling to connect and transmit information. Varying estimates place the quantity of energy consumed to power digital devices and networks at around 1.5 to 2 percent worldwide between 2008 and 2011. This is a quantity roughly similar to the aviation industry, and is expected to grow to 3 percent of total world energy use by 2020.1 Fossil fuels in the form of coal and oil provide a primary proportion of the energy consumed by electronics and their networks, because these continue to be the main sources of energy worldwide.2 Indeed, data centers, as Greenpeace notes, could be seen as the “factories” of modern-day economies, because 50 to 80 percent of the electricity used to power data centers is obtained from coal.3 The material and media ecologies that connect up coal to data and devices are disparate and do not significantly register at the point of using digital technologies. Yet energy is used not just to power data centers, but also for air conditioning to keep servers from overheating, to power numerous electronic technologies that connect up to data centers, and to manufacture devices in the first place. Energy then contributes to powering devices and their networks, and to the energy needed to produce machines, which is a highly energy-intensive process. Because the manufacture of electronics now principally takes place in countries such as China, Taiwan, and India, a considerable amount of the energy used to manufacture electronics is also generated from coal. Eric Williams has explained that over their lifecycle, electronics are “probably the most energy intensive of home devices aside from furnaces and boilers.”4 The energy to manufacture, power, and connect electronics is consumed in quantities that are far more abundant than these seemingly immaterial devices imply.

Indeed, if one were to account for all the energy used to manufacture, power, connect, cool, maintain, and eventually recycle and dispose of electronics, estimates of electronics-related energy use would increase even further. To date, however, estimates of energy use have largely focused on the manufacture and use of devices and networks.

In this chapter, I consider how electronics generate distinct materializations and media ecologies through distributions, use, and arrangements of energy.5 The energy required to power electronics and their networks is a seemingly immaterial but operative aspect of digital technologies as an industry. Yet as electronics become pervasive and supplant non-digital media and exchanges such as books and social networking, and as computing becomes ubiquitous so that new forms of “smartness” are embedded in environments, questions emerge related to what types, quantities, and distributions of energy resources are required to power these digital worlds.

First, I discuss the amount and type of energy that electronics consume as a form of (electronic) waste, and I further take up a consideration of how electronics have become central operators in managing energy use in order to achieve sustainability. The smart meter is the emblematic technology for achieving energy efficiency, but a whole host of digital devices, apps, smart grids, and assorted technologies have been developed to address issues of energy consumption in relation to climate change. In what ways are the materialities of energy articulated and experienced, whether through the relatively remote infrastructures of energy in the form of data centers and manufacturing sites; or in the form of technologies to manage energy use? In what ways do digital technologies mobilize, distribute, materialize, and activate energy practices and relations?

Second, I attend to the ways in which energy efficiency is operationalized through electronics, while also asking in what ways practices of consuming or rerouting energy use through electronics raise questions that go beyond efficiency. Estimates of energy used to power electronics are significant in one sense because they are an indication of the material immaterialities of electronics and their networks, which operate seemingly free of resources. In another sense, the energy required to power electronics results in distinct forms of pollution that are different from the stacks of abandoned digital devices often associated with electronic waste. The material fallout from electronic energy registers in different ways, both in the resources used to power these devices and in the embedded energy used to manufacture them: through carbon footprints, coal dust, greenhouse gas emissions, and extensive land use taken up with data centers (and power plants).

In many cases, information technologies are now promoted as devices that help to achieve efficiencies within any number of processes, from energy supply and distribution to urban transport.

Digital technologies appear to be green because they seem more immaterial, and because they can make processes more efficient.





Together with the proliferation of personal mobile and computing devices, there is projected to be a massive increase in the number of smart technologies, such as energy meters and smart grids, that will ostensibly be directed toward making systems more efficient and environmentally sound. These developments raise real dilemmas as to what “green technology” means: can a technology be green if it is hazardous in its manufacture, prone to obsolescence, and difficult to dispose; and can a technology be green if it is largely powered by coal energy and contributes to increasing carbon emissions?

By focusing on the ways in which energy use and management is articulated through digital technologies, specifically the smart meter, I develop the concept of electronic environmentalism in order to attend to the ways in which digital technologies have become central to how we identify and act on environmental problems to arrive at potential solutions—and what the effects of these distinctly digital approaches may be. On the one hand, what I am calling electronic environmentalism emerges as a way of using electronic technologies to monitor and manage energy use, while also supplanting potentially more carbon-intensive activities with energy-saving virtual parallels, for instance, teleconferencing rather than flying to a meeting. On the other hand, the mostly remote infrastructures of energy and material resource use that support these electronic activities show up in the form of data centers, as well as the vast array of related infrastructures from manufacturing to disposal sites, that make the extensive materiality and resource footprints of electronics less evident.

Electronics are developed to achieve environmental targets, and along the way, electronics generate new environmental problems. Electronic environmentalism is a term that captures and analyzes how digital approaches to managing environmental problems are entangled with distinct material politics, effects, and concerns.

Transforming the Material Politics (and Ecologies) of DigitalPollution

While energy use contributes to the material resource use and waste of electronics, the residues from digital devices also include everything from discarded electronics at end-of-life to resourceintensive manufacturing processes, information overload, and software obsolescence. I have previously written about these other forms of electronic waste in the study Digital Rubbish, where I developed a material method, or “natural history” approach, to rematerializing electronics by focusing on the ways in which they generate waste. Electronic waste is one of the fastest growing waste streams worldwide, and the volumes of e-waste generated are estimated to be between 20–25 million tons per year to 35–40 million tons per year (and rising).6 Electronic waste is hazardous and difficult to recycle at end-of-life, and is often processed in harmful ways, which raises consider- able environmental justice issues. Lead, mercury, and brominated flame- retardants are just a few of the harmful chemical-material components that make up electronics.7 Electronics also require and generate hazardous waste products during their manufacture, and the working conditions of electronics manufacturing and recycling are typically harmful to human health.

Yet there continues to be a widespread sense that digital media are relatively resource-free technologies, and that they may even promote a green lifestyle by using fewer resources than analog equivalents, or through ongoing monitoring of consumption activities. Although digital technologies appear to be immaterial, as the environmental issue of electronic waste indicates, the material effects of digital media are significant. But what do I mean by material effects? What is the material life of digital media? Materiality here does not signal a sort of rawness, hardness, or physical evidence of material, as some writers may emphasize, but instead refers to processes whereby materialities cohere and stabilize, and so inform our ways of life, as well as everyday practices and relations. While electronic waste demonstrates the materiality of digital media, it signals not the fact of all that is solid in contrast to the apparently virtual movement of information. Materials are not simply hard or raw or inert stuff.

Instead, electronic waste demonstrates the processes of materialization that digital media are entangled with. These processes include our contemporary material cultures of technological fascination, repetitive cycles of consumption, built-in obsolescence, poor resource use, and labor inequalities, in addition to environmental pollution.

A practice of taking into account the material effects of digital technologies is not simply a matter of tabulating a life-cycle analysis, where physical inputs and outputs are added up and assessed for damages to be remedied, but rather requires attending to the relations, practices, and inhabitations that are put in place through these material arrangements. So what does this processual approach to materiality afford? An approach to materiality as process is important not just for understanding the environmental and socio-cultural effects of digital media, but also for rethinking the material politics and ecologies of these technologies, and for developing possible sites and strategies for creative intervention.8 To discuss electronic waste as an environmental issue, it would then be necessary to include the complex material cultures of digital technologies, including the apparently virtual or immaterial qualities of those technologies, the environmental health and unfair working conditions that are a part of their manufacture, the digital economies that revolve around increasing rates of electronics consumerism and obsolescence, and the accumulation of discards and environmental fallout that comes with the decay of these technologies at end-of-life.

The case of energy as a form of electronic waste raises related yet distinct issues concerning the materiality of electronics. While all of these processes are critical issues for addressing the ways in which electronic technologies generate complex material ecologies and economies, yet another aspect of “digital rubbish” is the increasing amount of energy (and resulting carbon emissions) required to power electronics in the form of devices, networks, and processes. Energy from electronics constitutes distinct types of material processes and waste in the form of distant resource use and airborne emissions, which contribute to the heat of a warming planet.

The specific ways in which electronics might be identified to generate waste in the form of energy are often told through the tool of the carbon footprint, where a Google search has been calculated to generate carbon emissions between 0.2 grams and 7 grams of CO2,9 while an average spam email generates “emissions equivalent to 0.3 grams of carbon dioxide (CO2) per message.” Multiplied by 62 trillion spam emails sent in 2008, and this cumulative amount of emissions from spam is equivalent to “driving around the Earth 1.6 million times.”10 Whereas each individual search, page use, or email sent might have a comparatively small resource or greenhouse gas footprint, the amounts of data sent, received, stored, and otherwise processed contributes to overall energy use and emissions of considerable quantities.

Attempting to demonstrate the increasing demand for energy needed to power and connect up digital technologies, these carbon footprints make evident the resource requirements of seemingly fleeting and immaterial activities such as internet searching and social media browsing. But energy use inevitably has an impact that goes beyond the measurement of how much more CO2 is entering the atmosphere and accelerating the effects of climate change. Indeed, with ongoing coal use there are issues of coal- mining extraction as a highly damaging land use, and coal mining also as an occupation that generates significant health risks and environmental justice issues. Or with nuclear energy, a whole attendant set of issues emerge related to where power plants are sited, how they are subsidized, where the waste goes, and what happens if power plants fail. And with unconventional oil and gas production, the details of groundwater contamination, air pollution, or land-use conflicts also become significant energy-related problems. Even with these quickly noted energy dilemmas, it becomes evident that the energy used to power electronic technologies has political, social, and environmental effects that go beyond the increase of carbon emissions to encompass much more complex ecologies. As Kate Rich has pointed out, the imagined and much touted commons of the internet does not translate well into a commons of infrastructure, land use, and energy production that is required to power the digital commons.11 These relatively unmapped geographies of (digital) energy support our seemingly common and materially immaterial digital ventures.

Moreover, energy and energy use do not readily register as waste.



Pages:   || 2 | 3 | 4 |


Similar works:

«Collection of Papers – Faculty of Geography at University of Belgrade 60 (175-192) 314.117:631(497.11)2003/2010 УДК 913:316.334.55(497.11)2003/2010 Original scientific article ESTIMATES OF ENDANGERMENT AND PROTECTION FROM TORRENTIAL FLOODS ON SMEDEREVO TERRITORY Slobodan Đ. Miladinović*1, Ljiljana M. Gavrilović** * Academy of Criminalistic and Police Studies, Belgrade ** University of Belgrade, Faculty of Geography, Belgrade Abstract: On Smederevo territory around 30 torrential floods...»

«WHO PAYS WHAT FOR URBAN TRANSPORT? Handbook of good practices Edition 2014 The Agence Française de Développement (AFD) and the Ministry of Ecology, Sustainable Development and Energy (MEDDE) produced this guide, with a first version published in November 2009. The publication of the first version was supervised by a steering committee composed of Xavier Hoang for the AFD, Gilles David and Alexandre Strauss for MEDDE, and edited by CODATU: Françoise Méteyer-Zeldine, in collaboration with...»

«Review of Proposed Rule Regarding Status of the Wolf Under the Endangered Species Act January 2014 National Center for Ecological Analysis and Synthesis University of California, Santa Barbara 735 State Street, Suite 300 Santa Barbara, CA 93101 805 892-2500 Contents Introduction Selection of Panelists Summary of Discussions at meeting at NCEAS Individual Panelists Opinions Meeting Notes Statement of Work Introduction The National Center for Ecological Analysis and Synthesis (NCEAS) was asked to...»

«APPLICATION PACK FOR THE ECOLABEL Application form and guidance document for the application for all-purpose cleaners and sanitary cleaners Commission Decision of 24 June 2011 on establishing the ecological criteria for the award of the EU Ecolabel for all-purpose cleaners and sanitary cleaners Version 1.4 – April 2014 Version 1.4 – April 2014 Contents 1 INTRODUCTION PART A APPLICATION FORM PART B PRODUCT ASSESSMENT AND VERIFICATION 1 FIELD OF APPLICATION 2 PRODUCT FORMULATION 2.1...»

«C���� �� P���� ������� ��� ���������� �������� A������� ��� H����� I�������� ��� ����� �������� Georg August University Göttingen In memoriam Heinz Ellenberg (1913 – 1997) On August 1, 2013, Heinz Ellenberg would have been 100 years old. We use this anniversary to remember this pioneer of vegetation and plant ecology and recall his main...»

«ESD REPORT  SERIES No. 5 Pearl Oyster Fishery Ecologically Sustainable Development FRDC – Subprogram Authors: Fletcher, W., Friedman, K., Weir, V., McCrea, J. and Clark, R. Department of Fisheries Western Australian Fisheries and Marine Research Laboratories PO Box 20 North Beach WA 6920 Telephone (08) 9203 0111 Facsimile (08) 9203 0199 Website: http://www.fish.wa.gov.au Published by the Department of Fisheries, Western Australia ESD Report Series No. 5, January 2006 ISSN: 1448...»

«LITERATURE CITED Adiroubane, D. and Letchoumanane, S. 1998. Field efficacy of botanicals extracts for controlling major insect-pests of okra. Indian Journal of Agricultural Sciences 68(3): 168-170. Ahmad, S., Gupta, S. C., Prakash, N. and Nandal, S. K. 2000. Weather factors and larval population of Earias vittella Fabr. in summer okra (Abelmoschus esculentus L.). Journal of Research BAU 12(2): 215-217. Ahmad, T. and Ullah, G. 1941. Ecological studies on the spotted bollworms of cotton and their...»

«      The Formation of Polyaromatic Hydrocarbons and Dioxins During Pyrolysis: A Review of the Literature with Descriptions of Biomass Composition, Fast Pyrolysis Technologies and Thermochemical Reactions June 2008 Manuel Garcia-Perez Washington State University With Contributions of References from Judy Metcalf Washington State University Extension Energy Program Library   Acknowledgments The Washington State Department of Ecology provided funding through it's Organics Waste to Resources...»

«ISSN 1171-9834 © 1993 Department of Conservation Reference to material in this report should be cited thus: Mallinson, F. & Hickling, G., 1993. Assessing the palatability of threatened plant species to possums. Conservation Advisory Science Notes No. 25, Department of Conservation, Wellington. 7p. Commissioned by: West Coast Conservancy Location: NZMS Fiona Mallinson & Graham Hickling Department of Entomology & Animal Ecology PO Box 84, Lincoln University 1. SUMMARY PROJECT & CLIENT A method...»

«UNIVERSITY OF THE FREE STATE DETERMINING THE WATER QUALITY ECOLOGICAL RESERVE FOR NON-PERENNIAL RIVERS A PROTOTYPE ENVIRONMENTAL WATER ASSESSMENT METHODOLOGY by Linda Rossouw (Student number: 1982330399) A thesis submitted in fulfillment of the requirements for the degree of Doctor of Philosophy in the Faculty of Natural Science and Agriculture, Centre for Environmental Management, University of the Free State, Bloemfontein Promoters: Mr. W E Scott and Dr I Dennis July 2011 ACKNOWLEDGEMENTS I...»

«Definitions Related to Planted Forests Jim Carle 1 and Peter Holmgren2 Abstract This paper details the difficulties in definitions related to planted forests over recent decades, highlights trends in use of key definitions, recognizes processes underway to harmonize forest related definitions and points to the emerging way forward. Planted forests can resemble natural ecological processes to a greater or lesser extent. Increasingly planted forests of exotic species are referred to as plantation...»

«Támogató: NÁRODNÁ DIAĽNIČNÁ SPOLOČNOSŤ Mlynské Nivy 45, 821 09 Bratislava KRUPINA „R3-as gyorsforgalmi út Šahy (Ipolyság) és Zvolen (Zólyom) közötti szakasza” EIA célkitőzés – Általános, átfogó, végleges összefoglaló 2010 március Készítette: EKOJET Ltd. EN ISO 9001:2000 Industrial and country ecology Staré Grunty 9A, 841 04 Bratislava, Szlovák Köztársaság Tel.:(+421 2) 45 69 05 68 e-mail: info@ekojet.sk www.ekojet.sk EKOJET s.r.o. „R3-as gyorsforgalmi...»





 
<<  HOME   |    CONTACTS
2017 www.abstract.dislib.info - Abstracts, online materials

Materials of this site are available for review, all rights belong to their respective owners.
If you do not agree with the fact that your material is placed on this site, please, email us, we will within 1-2 business days delete him.