The Study of Unconventional Topics
Unconventional science, or fringe science, is the study of science which goes against accepted theory and, arguably, should be viewed with skepticism to ensure the lack of pseudo-science (de Jager, 1990, pp. 35-36). Research in fringe science has undoubtedly provided the greatest technological jumps that society has benefited from. Human flight, magnetic levitation, the microprocessor, and electricity were all considered fringe science, even pseudo-science, at one time. Now, they are commonly accepted. Some of today’s fringe science topics involve teleportation, time travel, free energy, cold fusion, artificial intelligence, and cloaking.
For a scientist, a whole career can be jeopardized by choosing a field of study that is looked upon with disdain by the contemporary scientific community. A scientist must truly be passionate about their work in order to survive through this. Only the lucky few will ever see their work produce meaningful results. It is for this reason that it is important to distinguish fringe science from pseudo-science. Is it possible? Only after the emergence and acceptance of the theory, can it move from fringe science to contemporary science. Failing this, it will be forever regarded as pseudo-science by its detractors. So, why would any scientist want to spend an entire career in this realm, possibly alienating themselves from their peers? Passion. With that answer, I must ask myself if there is anything in the realm of fringe science that I would be so passionate about as a scientist that I would risk a career over it.
The medical uses of nanotechnology could have a considerable impact on the whole of the human race. To imagine, as Merkle (1996) describes, microscopic robots that could enter the bloodstream and travel throughout a body in search of injury or illness, then literally fix the problem is certainly Orwellian in my eyes. Notwithstanding, a breakthrough of this magnitude would certainly be worthwhile to any scientist, the application of which would be endless and only contingent on the robot’s ability to be programmed. There would be other uses, also: automatic repairs on buildings, bridges, and vehicles, the literal programmatic building of structures, instant recycling of waste materials, etc. Though, anything that could be helpful could also be a hindrance. A group of microscopic robots that could make repairs on human tissue could also destroy it. This would be a significant military advantage in the area of remote warfare, as well as more diabolical applications. As the size of the microprocessor inversely relates to the computing power, I can imagine that the intelligence capability required of these little machines is not too far in the future.
Science fiction! Even the airplane was science fiction at one time. The helicopter, too, though I still consider the helicopter to be an abomination of physics. Almost every contemporary scientific notion was once held to skepticism. I do not think that it is wise to dismiss an idea solely on the grounds of popularity or a lack thereof. If someone has a belief, let them prove it. Once proven, let the data be duplicated by others and turned into conventional wisdom or into the trash bin, wherever it belongs.
de Jager, C. (1990). Science, fringe science, and pseudo-science. R.A.S. Quarterly Journal, 31(1), 31-45.
Merkle, R. C. (1996). Nanotechnology and medicine. Advances in Anti-aging Medicine, 1, 277-286.