- About Us
- Career Center
- Nano-Social Network
- Nano Consulting
- My Account
ASU's Center for the Study of Law, Science and Technology has been awarded a multiyear federal grant to develop models for the international regulation of nanotechnology, a growing science with big implications for health, safety, quality of life and environmental concerns.
Three law professors in the center, which is housed in the Sandra Day O'Connor College of Law, received a $314,000 grant from the U.S. Department of Energy's Genomes to Life Program. They are:
• Kenneth Abbott, a Willard H. Pedrick Distinguished Research Scholar and professor in ASU's School of Global Studies.
• Gary Marchant, the center's executive director and Lincoln Professor of Emerging Technologies, Law & Ethics.
• Douglas Sylvester, a center faculty fellow who specializes in intellectual-property law.
The project is a natural fit for the college, because it was the first U.S. law school to offer a course in nanotechnology, it has several faculty members who publish in the area, and it has amassed a cluster of about 20 student researchers in the emerging technology," Marchant says.
Abbott, a leading scholar in international law, says he is especially pleased to be working with the center on the grant because of the scope of issues raised by nanotechnology.
"Nanotech will create regulatory issues across the entire spectrum of public policy, from food safety and personal privacy to energy and arms control, requiring a broad interdisciplinary approach," he says. "It also poses difficult problems of international cooperation, as countries race to take the lead in nanotechnology development."
Nanotechnology is the science of the small - the ability to manipulate and utilize materials at the "nanoscale" level, where they display unique and beneficial characteristics. It is expected to revolutionize electronics, medicine, agriculture, materials science, consumer products, manufacturing and many other industries. In fact, federal government and Wall Street analysts predict nanotechnology quickly will become a major part of the U.S. economy, reaching sales revenues exceeding $1 trillion within five to seven years.
Although nanotechnology often is described as "the next big thing," there's very little "next" about it, Marchant says. Already, more than 500 nanotechnology products are on the market, from dent-resistant automobile bumpers and stain-repellant clothing, to highly effective sunscreen lotions and tennis balls that bounce twice as long as old-style balls.
"It's already out there and moving very fast," Marchant says. "There's growing pressure to put in some sort of regulatory oversight for two reasons: one, to protect consumers against any risk from these products, and two, to provide assurance to the public that the government is exercising adequate oversight of this rapidly developing technology."
Fortune 500 companies have identified nanotechnology as a top priority, the federal government is devoting more research money to nanotechnology than to any other technology, many state governments, including Arizona, are promoting its growth, and start-up nanotechnology companies are sprouting across the world.
But nanotechnology is largely unregulated, and that's where Marchant, Abbott and Sylvester come in. The researchers will focus on the potential for global coordination and harmonization of regulatory and other oversight mechanisms for nanotechnology applications, using bioenergy applications of nanotechnology as a case study.
"We have the chance to get it right from the get-go," Marchant says. "We've learned that, when you have different laws in different countries, you can easily create an international stalemate that impedes global trade. We want to explore models for harmonizing national regulations to increase regulatory efficiency and effectiveness while avoiding the trade wars that have impeded other technologies such as genetically modified foods."
Because technology moves so quickly, there's a danger that traditional types of statutes and regulations that are enacted through lengthy processes and then are hard to modify may not be able to keep pace with the evolution of nanotechnology. Therefore, the team will look at "soft law" instruments that are more adaptable to change. Specifically, the researchers will use the grant to:
• Create and maintain a public online database of proposed and enacted regulatory requirements and programs specific to nanotechnology at the international, national and local levels.
• Analyze proposed and enacted national and local regulations for nanotechnology, including the consistencies and inconsistencies of requirements in different jurisdictions.
• Prepare case studies of nine transnational models for the oversight of various technologies, with analysis of their strengths and weaknesses.
• Propose and evaluate potential frameworks for the transnational regulation of nanotechnology and coordination of national regulatory strategies.
The team's work will be completed in three years.
About Arizona State University
A comprehensive public metropolitan research university enrolling more than 60,000 undergraduate, graduate, and professional students on four campuses, ASU is a federation of unique colleges, schools, departments, and research institutes that comprise close-knit but diverse academic communities that are international in scope. ASU champions intellectual and cultural diversity, and welcomes students from all 50 states and more than one hundred nations across the globe.
For more information, please click here
Sandra Day O'Connor College of Law
Copyright © Arizona State UniversityIf you have a comment, please Contact us.
Issuers of news releases, not 7th Wave, Inc. or Nanotechnology Now, are solely responsible for the accuracy of the content.
|Related News Press|
Crystalline Fault Lines Provide Pathway for Solar Cell Current: New tomographic AFM imaging technique reveals that microstructural defects, generally thought to be detrimental, actually improve conductivity in cadmium telluride solar cells September 26th, 2016
NIST Patents Single-Photon Detector for Potential Encryption and Sensing Apps September 16th, 2016
Fighting cancer with sticky nanoparticles September 27th, 2016
UNAM develops successful nano edible coating which increases life food September 27th, 2016
Bringing graphene speakers to the mobile market (video) September 12th, 2016
Novel nanoscale detection of real-time DNA amplification holds promise for diagnostics: Research team led by Nagoya University develop a label-free method for detecting DNA amplification in real time based on refractive index changes in diffracted light September 12th, 2016