Future of electronics after 2012

Note: This post was written by SEI staff, Aida Sefic Williams.

Whenever electronics are discussed, the conversation always involves the argument that electronics are environmentally damaging. In order to make electronics, we need materials that have to be mined out of the ground, be highly processed, and manufactured in astronomically high quantities. Electronics also require energy to function, and many electronic components are often discarded with little or no consideration about the materials, energy, and time that went into making the product.

rareearthIf all of the previous points were not enough, I unfortunately have yet another thing to add: the consumption of rare earth materials. The phrase “rare earth materials” has been used frequently when discussing many technologically advanced designs, but what exactly does this phrase mean? Rare earth materials are 17 metallic elements, all of which have similar properties, as they reside in the same families within the periodic table of elements. The elements are: lanthanum, cerium, praseodymium, neodymium, promethium, samarium, europium, gadolinium, terbium, dysprosium, holmium, erbium, thulium, ytterbium, lutetium, scandium, and yttrium [1].

While the general consumer may not hear about many of these individual elements, one thing is certain: They are vital to our current technologically-charged world. These materials are used in fiber optics, hybrid car batteries, x-ray units, magnets used in computer hard drives, and many other applications [2]. While many of us enjoy the applications of rare earth materials (REM), we may not be able to enjoy them for much longer. Since these materials are rare, it seems that we have currently depleted 95% to 97%, depending on which article you read, of the Earth’s REMs [3]. The rapid depletion of these materials becomes alarmingly more critical, since China controls most of the materials. More significantly, some reports have stated that China has been decreasing their REM exports and will completely stop them in 2012. (If you believe that the world will end in 2012, I am sure this news rings a very loud and alarming bell.)

While one may easily dismiss articles published by The Economic Collapse as pure paranoia, it is much harder to dismiss several claims by the Government Accountability Office (GAO). In April of 2010, the GAO gave a presentation, which is publicly available, titled “Rare Earth Materials in the Defense Supply Chain“. The report explains further information and details about rare earth materials, their applications, as well as possible solutions to the REM depletion.

Slide 16 of the GAO report lists other countries with rare earth material deposits. The list of countries includes the U.S., China, Australia, Brazil, India, Malaysia, and others. Furthermore, the report mentions that work new rare earth material mines needs to be begin. IndustryWeek reports of a mine in California that was previously used to mine REMs within the United States, but the mine’s Chinese competitors successfully drove the mine out of business. Naturally, an option under consideration is the re-opening of this new mine, which would take at least 3-5 years to become fully operational. In order to create a completely new mine, significant capital investment is needed in order to get the mine 100% operational in 7-15 years, according to the GAO. In the best case scenario, that leaves the U.S. and remainder of the world without REMs 1-3 years, or in the worst case scenario, this would be 5-13 years.

Some sources, such as the Natural News, suggest that we (the global, societal “we”) should recycle rare earth materials. After all, there is a significant market for recycling common metals such as lead, copper, and aluminum. The UN Environmental Programme has stated the importance of metals recycling. In fact, the UNEP has published a report stating current metal recycling rates and also explains the need for increased recycling of specific materials of interest. A press release from May 13, 2010, offers a brief summary as well as a link to the full text of the report.

If you read this post and all of its related links, you may start believing in the Mayan prediction for the year 2012. But the goal of this blog post is not to scare or stir people into a frenzy. Instead, the goal of this post is to inform and brainstorm! Because of this, I want to involve you, the reader. I want your input and feedback. What do you think can be done? Is increased mining the answer? Do we need to find new technologies for recycling these precious materials? Can the world’s brilliant scientists create new materials which would have the desired properties of rare earth materials? What other options can you offer?

While the technical questions are important, it is vital to also ask several social questions. For example, if you do believe in being eco-conscious, how much are you willing to give up in order to save these precious metals? Will you hold on to your computer, cell phone, or other device for 2-3 instead of 1.5 years, if it will save some rare earth materials which could be used in medical equipment that can save someone’s life? What are you willing to give up? And how much of it?

There are many more questions that I could ask, but I think these brain teasers should be enough. What do you think? I would love to enter a dialogue, not of “The world is ending!” but, “This is a problem, and here is what we can do”. Please, I invite you all, scientists, engineers, designers, environmentalists, students, consumers and everyone else to humor me for a few minutes. Let me know what you think about this subject!

Exciting new electronic designs

Note: This post was written by SEI staff, Aida Sefic Williams.

As I have been browsing the internet for new e-waste related news, I have found a few news items that have sparked my interest. All of the following are exciting, since they promote the use of less energy and also less electronic waste. This is not an advertisement for a particular organization or company, but of a pat on the back to the designers and engineers who are concerned about sustainability.

1. Universal Laptop Chargers

Two Taiwanese companies have openly stated that they are in favor of universal laptop chargers! The two companies are Asustek and Acer, who place fifth and second, in all worldwide laptop shipments (PC Pro). This is very exciting news, as chargers and other laptop and electronics accessories are large suppliers of electronic waste. According to DigiTimes, manufacturers such as  Quanta Computer, Compal Electronics, Wistron, Pegatron Technology and Inventec also support the move to uniform laptop chargers. I am interested to see this new development, since verbal support does not always materialize in financial support. As someone who lives in a household with three laptops for two people, I would be very happy to see a move to a more efficient use of our resources and cables.

2. Bike-Powered Electronic Devices

Cell phones are ubiquitous in today’s society, and one thing accompanying cell phones are their chargers. There have been several design concepts suggesting various ways to charge cell phones by simply using kinetic energy; these ideas include foot power, cranking, rotating, and more (Green Diary). One concept I have heard about on several occasions have been a bicycle-powered cell phone charger. Most designs I have heard about, however, have been student project designs with little marketing capabilities. But it seems that Nokia has created a bike-powered cell phone charger that is marketed toward developing nations or nations with high bike-riding populations (Inhabitat). As someone who loves to ride her bike to work and also forgets to charge her cell phone frequently, this concept is perfect – and perfectly sustainable! With this new product, you can charge your phone, help the environment, and also prevent your cell phone charger from turning into an energy vampire.

3. Cell Phone Charger Energy Vampire Slayer

vampire_finalAs briefly mentioned above, cell phone chargers have a tendency to be energy vampires. Energy vampires are devices that draw energy while plugged into a wall but not plugged into another device. This means that you cell phone is drawing energy when it is only plugged into the wall and not plugged into your cell phone as well. To combat this problem, AT&T has recently announced their first Zero Draw charger. This new technology turns off the charger once your phone or other electronic device is fully charged. This helps protect the environment and your pocketbook! In addition, this charger also aims to increase its compatibility with various chargers and ports.

I hope that you share my excitement in these new developments. I hope the market will answer in a positive way that will only encourage more sustainable design!

E-Waste Competition Winners Announced

 

Note: This post was written by SEI staff, Aida Sefic Williams.

Winners have been announced in the International E-Waste Competition.  The competition is part of the Sustainable Electronics Initiative (SEI) at the University of Illinois at Urbana-Champaign.

The competition is designed to prompt the industrialized world to dialogue about product designs for environmentally responsible computing and entertainment. The goals of this competition are to learn about ways to re-use electronic waste (E-Waste) for new and productive means, explore new ideas of how to address E-Waste problems, and contribute to the body of knowledge that advances the practice of environmentally responsible product design.

The winners were announced at the Illinois Sustainable Technology Center (ISTC), the coordinating agency for the Sustainable Electronics Initiative.  ISTC is part of the Institute of Natural Resource Sustainability at the University of Illinois.

The videos of the winning entrants were shown as a part of the International E-Waste Video Film Festival. The videos of the winning entries will be shown on the websites of the e-waste competition www.ewaste.illinois.edu, www.istc.illinois.edu, www.sustainelectronics.illinois.edu, as well as SEI’s YouTube Channel.

Entries were judged in two categories: Technical/Geek and Artist/Designer. A total of 33 entries were submitted; 26 were in the Artist/Designer category, and 7 in the Technical/Geek category. Prizes were awarded for the top three projects within each category, along with two honorable mentions in the Artist/Designer category. The first, second, and third place winners will receive $5000, $3000, and $1000 monetary prizes, respectively. In addition, honorable mentions will receive $500. The total amount of money to be given out during the International E-Waste Competition is close to $20,000, which has been made possible through generous contributions by several sponsors, including Dell and Wal-mart.

Technical/Geek Category Winners

First Place

  • Team: Port-e-garden
  • Project name: Port-e-garden
  • School: University of Illinois at Urbana-Champaign
  • Video

Second Place

  • Team: Chaps
  • Project name: BioGrow
  • School: University of Illinois at Urbana-Champaign
  • Video

 

Third Place

  • Team: CSULB Studio Group #1
  • Project name: The Pure Drive Home Automation and Computing System
  • School: California State University, Long Beach CA
  • Video

Artist/Designer Category Winners

First Place

  • Team: revOlve
  • Project name: revOlve
  • School: Rochester Institute of Technology, New York
  • Video

 

Second Place

  • Team: eLiminators
  • Project name: E-volve
  • School: California State University, Long Beach CA
  • Video

Third Place

  • Team: eMotion
  • Project name: eMotion
  • School: California State University, Long Beach CA
  • Video

 

Honorable Mention

  • Team: CSULB ID 2011
  • Project name: The Personalized E-Waste Recycling Bin
  • School: California State University, Long Beach CA

Honorable Mention

  • Team: CSULB ID Team
  • Project name: E-Responsibility
  • School: California State University, Long Beach CA

The competition was started at UIUC in the fall of 2009. In 2010, the competition was expanded to an international base, where students from all over the globe were able to submit their projects and a 2-minute video online. Each project was judged on their project description and video.

The international scope of the competition was evident through students who submitted entries from various states in the US (Illinois, Minnesota, California, New York) and other countries (Cyprus, Canada, Australia, Turkey and South Korea). The jury of the competition included a variety of experts, including

  • Vicky Matranga, Design Program Coordinator of International Housewares Association;
  • Clive Roux, CEO of the Industrial Designers Society of America;
  • Joe Jasinski, Global Senior Industrial Design Manager at Dell, Inc.;
  • Steve Belletire, Design Area Head at Southern Illinois University;
  • Sam Al-Basha, Engineer at the IL Department of Commerce and Economic Opportunity;
  • Chris Newman, Materials and Management Branch of US EPA;
  • Mike Tibbs, Sr. Director of Information Systems Division Compliance at Wal-mart;
  • Roger L. Franz, Engineering Manager at Motorola;
  • and Will Larkin, Director of Vendor Management Office and Star Complex at Wal-mart.

Design for the Environment (DfE): Electronics Partnership Projects

According to the U.S. EPA web site, “The Design for the Environment (DfE) Program works in partnership with a broad range of stakeholders to reduce risk to people and the environment by preventing pollution. DfE focuses on industries that combine the potential for chemical risk reduction and improvements in energy efficiency with a strong motivation to make lasting, positive changes. DfE convenes partners, including industry representatives and environmental groups, to develop goals and guide the work of the partnership. Partnership projects evaluate the human health and environmental considerations, performance, and cost of traditional and alternative technologies, materials, and processes. As incentives for participation and driving change, DfE offers unique technical tools, methodologies, and expertise.”

The DfE Program has produced several partnership projects related to electronics. Past projects include the Printed Wiring Board Partnership and the Computer Display Partnership. Current partnerships include the Lead-Free Solder Partnership, the Wire & Cable Partnership and the Flame Retardants in Printed Circuit Boards Partnership. Each project site includes general project information, project milestones, links to any publications produced and a list of the partners involved. Continue reading “Design for the Environment (DfE): Electronics Partnership Projects”