- The concepts of electron beam lithography and nanoimprinting (without using those terms) were presented as possible methods for writing the Encyclopedia Britannica on the head of a pin, and later the entire known literary universe in a 35-page pamphlet.
- The intersection of biology and nanoscale materials, particularly related to information storage within DNA (whose structure was only determined 6 years earlier), and the use of imaging tools for cellular analysis, were noted as areas ripe for research.
- Both determination of chemical structure using new imaging tools (see my post from Sept. 11, 2009 for a recent demonstration of this prediction) and ultimately atom-by-atom chemical synthesis were both described.
- Prof. Feynman described a variety of nanomachines (automobiles, computers, and biomedical devices) that surely inspired Eric Drexler in his thinking. In addition, he realized that nanoscale material properties (electrical, magnetic, and mechanical) would deviate from the bulk, and need to be considered by nano-engineers. While some of the practicalities remained elusive to Feynman, he noted that “there is nothing that I can see in the physical laws that says the…elements cannot be made enormously smaller than they are now. In fact, there may be certain advantages.”
- While likely unaware of the fact that he was describing a new branch of interdisciplinary science, Prof. Feynman understood the need for educational initiatives to motivate students to potential careers in this field, and specifically called for high school competitions. In addition, he offered two prizes for experimental demonstrations of the concepts he illustrated: one for a miniature motor, which was claimed 4 months later, and a second for reproducing a page of text at 1/25,000 scale. The latter was won by a Stanford graduate student in 1985 who used electron beam lithography to print the first page of Dickens’ A Tale of Two Cities on a page measuring only 6.25 microns per side.
- Finally, while remaining a theoretical physicist, Prof. Feynman was thinking like an early entrepreneur well before the Bayh-Dole act opened the doors for universities to retain ownership of their intellectual property. He recognized that “this field is not quite the same as the others in that it will not tell us much of fundamental physics… [but] it would have an enormous number of technical applications.”
Note: For an example of the speech’s text printed using nanoscale letters with dip-pen nanolithography, click here.









The other observation I wanted to make about the dedication ceremony was the wide variety of individuals (numbering over 200) who attended. These interested parties represented Georgia Tech administration and faculty, donors and potential donors, building design and construction, equipment vendors, state of Georgia, NRC users, and NRC personnel. We all had our own reasons for attending, but it was interesting in speaking with people to understand their perceptions of nanotechnology and the potential for its application in science and business. At various times I discussed how nanotechnology is and will continue to impact biomedical research, such as the detection and treatment of cancer. Others were interested in applications in electronics, and the role graphene may play as the next generation successor to silicon. Finally, each of the speakers were unanimous in their desire that Georgia Tech and the state of Georgia play a preeminent role in the nanotech economy, with the NRC as a center for research, education, and commercialization. This is a lofty goal, requiring collaboration and coordination between disparate organizations, some existing and some needing to be established.

