One of the unique features of nanotechnology, according to Stanford Law School professor, Mark Lemley, is that universities and public research foundations hold “a grossly disproportionate share of nanotech patents” that he believes are critically important to downstream nanotech products. In 2004, a patent attorney specializing in nanotechnology identified 10 key patents that he believed could have the greatest impact on the development of nanotechnology. Seven of the 10 patents are owned by universities. What Has Changed in the Last 25 Years to Make Universities Increase Their Share of Patent Registrations? Because they conduct basic research, it’s not surprising that universities are the early-stage engines for nanotechnology. But unlike early-stage researchers 25 years ago, the new generation of US public researchers has become “extremely aggressive patenters” largely because of the Bayh-Dole Act of 1980 - US legislation designed to encourage technology transfer by permitting universities to patent their federally funded research projects. Before 1980, universities worldwide were granted about 250 US patents per year. By 2003, the number of university-owned patents increased almost 16-fold, to 3,933. Universities are Patenting Nanotechnologies on an Early and Frequent Basis Because university labs aren’t in the business of commercializing products, they try to re-coup their research costs by patenting their employees’ early scientific innovations - in the hope of earning royalties or licensing fees. Exclusive licensing is generally the more lucrative deal - and therefore the most appealing to technology transfer offices. In general, universities are acting more and more like businesses. Not only are universities patenting nanotech early and often, they are more frequently licensing their inventions on an exclusive basis. Benefits and Drawbacks of Universities Patenting Nanotechnologies US policymakers who favor Bayh-Dole would argue that universities are benefiting society by transferring science and technology to the private sector for commercialization. But in many cases, consumers end up paying twice - once by paying taxes to support government-financed research, and again when they purchase a new, proprietary technology developed with taxpayer funds. With the emphasis on winning exclusive monopoly patents, the traditional academic culture of open communication and exchange is also undermined and eroded. Universities Patenting Nanotechnologies - Statistics for Period 2003 to 2005 From 2003 to early 2005 the Nanotechnology Law & Business Journal identified 55 publicly announced nanotech patent license agreements - 20 of which involved a university or public research entity as the licensor. Of the 20 license agreements involving university or research entities as licensor, all but one was granted on exclusive terms (and its terms were not disclosed). Table 1. Publicly Announced Nanotech IP License Agreements Involving US University or Public Research Entity as Licensor. | 2003 | Exclusive | Lawrence Berkeley Natl Lab. | Nanosys, Inc | Textile processing technique | 2003 | Exclusive | Columbia University | Nanosys, Inc | Materials and technologies of nanocomposite solar cells | 2003 | Exclusive, global | Rensselaer Polytechnic | Applied Nanoworks | Crystals that can be used in medical research | 2003 | Exclusive, global | Rockefeller University | Evident Technology | Water-soluble metal and semiconductor quantum dots | 2003 | Exclusive | South Caroline Research Foundation | Competitive Technologies | Nanobiomaterial for skeletal repair | 2003 | Exclusive | MIT | Nanosys, Inc | New compositions of matter relating to quantum dots or nanocrystals | 2003 | Exclusive, global | Rensselaer Polytechnic | Applied Nanoworks | Fabrication of nanocrystals | 2003 | Exclusive | Unnamed research institution | NanoDynamics | Process to synthesize copper nanomaterial | 2003 | Exclusive, global for biological applications | MIT | Quantum Dot Corp. | Synthesis and composition of quantum dots | 2003 | Exclusive | NYU | Nanoscience Technologies | DNA nanotechnology | 2004 | Exclusive | University of Dayton | NanoSperse | Method of distributing carbon nano-fibers | 2004 | Exclusive | Caltech | Aonex | Thin film semiconductor layer transfer | 2004 | Exclusive | MIT | Nano-C | Production of nanostructured carbon materials | 2004 | Terms not released | Inter-University Micro-Electronic | MEMC Electronic Materials | Silicon bulk wafers | 2004 | Exclusive | Stanford | Biotrove | Microarray to perform PCR | 2004 | Exclusive | MIT | Molecular Imprints | Moire fringe alignment technology | 2004 | Exclusive | University of Illinois | NanoInk | Nanoscale chemical surface patterning of dip pen | 2004 | Exclusive | California Institute of Technology | Nanotechnica | Microfluidics | 2005 | Exclusive | University of Texas | Applied nanotech | Next generation memory chip | 2005 | Exclusive | UCLA | Nanomix | Nanostructures for electrochemical sensing | Note: A complete set of references can be found by referring to the original document. |