Through a draft Funding Opportunity Announcement (FOA) announced Friday, the U.S> Department of Energy plans to establish cost-shared agreements with private industry to support the design and licensing of small modular nuclear reactors (SMRs). About one-third the size of current nuclear plants, SMR are expected to both safer and cheaper to build and operate.
The Georgia Tech Research Institute has received a $1.5 million contract to produce an online environment that would let multiple design teams work together to develop new military vehicles. The VehicleForge project's goal is to create a secure central Website and other Web-based tools and methods that would facilitate such collaborative development.
Ariel Pharmaceuticals, a private, development-stage pharmaceutical company focused on the development and commercialization of products for indications in acute central nervous system diseases and trauma, announced it has signed a cooperative research and development agreement (CRADA) with the United States Army Medical Research and Material Command.
A new study by Rice University's Baker Institute for Public Policy illustrates a disconnect between government funding of biomedical research by young investigators and a novel standard by which to judge it: The Nobel Prize.
The 2012 R&D Magazine/Battelle Global R&D Funding Forecast is a comprehensive analysis of the state of industrial research worldwide. The report includes sections on R&D spending, globalization, the stable growth of the U.S., federal funding, industrial R&D, basic research, China's R&D momentum, Asia's R&D momentum, European research keeping pace, and more.
As 2012 approaches, U.S. investment in research has stabilized, but growth still lags previous years as a result of the sluggish economy. Given the current federal budget situation and announcements by a number of high-profile corporations regarding planned reductions in R&D spending, the stable, slow-growth trajectory that developed in 2011 will likely continue through 2012.
We estimate that federal R&D funding will reach $140.9 billion in FY 2012, a decline of 1.8% from our estimate of actual FY 2011 R&D funding ($143.5 billion) and 4.7% lower than the administration's FY 2012 R&D funding request.
In the next sections we examine, through survey and secondary data, five technology-intensive industries chosen for their overall importance in terms of U.S. corporate R&D, U.S. federal R&D, and global industry R&D. Besides these industries, a more diverse set of manufacturing firms and industries—including automotive, heavy equipment, consumer products, and food—also perform significant R&D activities in the U.S.
The life science segment includes diverse firms such as multinational pharmaceutical corporations, large medical device and instrument companies, and both large and small biotechnology firms. Though primarily engaged in human health care, firms in this segment are also involved in animal health and agricultural biosciences, and many operate in multiple areas.
Over the past 20 years, information and communication technologies (ICT) have been a key innovation enabler in many domains and have dramatically changed social behavior around the globe. In the past decade, the fortunes of many ICT companies have evolved significantly.
The resources invested in aerospace, defense, and national security R&D continue to dominate U.S. federal funding and constitute an important part of overall global R&D. U.S. federally funded defense R&D will reach nearly $75 billion in 2012, exceeding every other country's total R&D except that of China, Japan, and Germany.
Industrial R&D in the energy sector comprises a broad portfolio of technologies, including fossil, nuclear, and renewable generation; smart grid or other transmission and distribution; and energy-efficiency technologies. Energy-related research sponsored by U.S. utilities, manufacturers, and technology providers will reach nearly $6.7 billion in 2012.
The development of new and advanced materials is often the driver for other industries, such as those involving semiconductors, composites, thin films and coatings, medical devices, chemical and environmental processes, energy systems, and biopharmaceutical products. R&D for these materials involves developing new characteristics, properties, processing capabilities, and entirely new chemical families.
About 18% of all R&D performed in the U.S. is basic research, with academia having the largest share (60%). For the past 50 years, academia has had the largest share of basic research work. However, in the past, industry and government researchers each had about a 10% larger share of this work than they do now.
The following long-term developments are shaping the global distribution of R&D. As noted throughout this report, the newly emerging economies are developing home-grown technologies that often rival—and sometimes exceed—those of established economies.
The media seem to be filled with two perspectives on China’s R&D capabilities: (1) comments on its technology accomplishments and (2) attempts to put those accomplishments into perspective. Indeed, China has accomplished much over the past decade.
Many people call this the Asian Century because of the rapid economic, population, and technology growth in this area and the trends forecast for the next several decades. Asia has the world's largest regional gross domestic product (GDP), with its share currently at about 38% and increasing at about 1% per year.
This year we again approached the global researcher community, as identified through recent science and engineering publications, armed with an improved survey and sampling methodology to further clarify the nature of global R&D activities from the perspectives of the researchers themselves.
The following Websites are good sources of information related to the global R&D enterprise. Much of the information in the 2012 Global R&D Funding Forecast was derived from these sources, which are certainly not all-inclusive.
Federally funded research can be a solution to some of the nation's top challenges, say government laboratory executives.
Argonne National Laboratory's Deborah Clayton speaks on topics including funding, peer review, entrepreneurship, nanotechnology research, and communicating research missions in a social networking environment.
Los Alamos National Laboratory's David Pesiri speaks on topics including funding, peer review, entrepreneurship, nanotechnology research, and communicating research missions in a social networking environment.
Lawrence Livermore National Laboratory's Erik Stenehjem speaks on topics including funding, peer review, entrepreneurship, nanotechnology research, and communicating research missions in a social networking environment.
NASA Glenn Research Center's Ramon (Ray) Lugo III speaks on topics including funding, peer review, entrepreneurship, nanotechnology research, and communicating research missions in a social networking environment.
National Energy Technology Laboratory's Paul E. King speaks on topics including funding, peer review, entrepreneurship, nanotechnology research, and communicating research missions in a social networking environment.