serendipitous; in many instances the long-term
value of the result of basic research is not known immediately. To truly
achieve utility, there usually must be a fortuitous confluence of environmental
factors, which in the case of most technological advances we would term an
accommodating market potential. Consider the invention of the transistor; a
device illustrative of mechanisms so profound that there was virtually no
environment that could immediately exploit them or that could not ultimately be
totally transformed by them. Were Shockley, Brittain and Bardeen searching for
a better way to make computers when they began their research on
semiconductors? No, they were searching for a better amplifier for long-line telephony
signals when they created the first transistor. Of course, transistors make
good signal amplifiers, but that barely scratches the surface of their ultimate
utility. Whether driven by altruistic recognition of this fact or ignorance of
the serendipity, AT&T, a telephony monopoly at the time, in agreeing to
license this technology to all interested parties performed what was perhaps
the transforming marketplace driven event of the XXth Century.
Applied research
on the other hand, is typically well directed to identify incremental
enhancements of technological components. Basic research gives us the
transistor while applied research gives us the integrated circuit. Together,
they provide either new technology or technology enhancements that make things faster,
smaller, more robust, cheaper, and perhaps all of the above. The situation is
that for essentially all research, direction is provided by a confluence of the
interests of researchers who possess the ability to derive new technologies and
funding agents who possess the resources to support the work of the
researchers. When the two are aligned, a viable research environment is
enabled. Today, the primary difference between basic and applied research is
whether the research environment intersects in any strong way with a specific
market. In essence, basic research is aimed at areas with no currently known
commercial application. Of course, at this point it seems reasonable to pose
the question, “Why do we want to differentiate between basic and applied research?”
Our reasoning is that to extract the relevant understanding of truly mutation
class discoveries from basic research, one has to be subject to a religious
type epiphany, whereas discoveries from applied research entail application of
well-known mechanisms for their interpretation. We’ll consider this in more
detail in Chapter 7.
Our comparison
of natural change mechanisms with man-made
change mechanisms is yet somewhat disjoint. The discontinuity derives from the
differences in the languages or at least the language mechanisms that are used
to convey the results of research based change versus the mutation or genetic
change found in organic systems. For living material, the DNA molecule is the
center of all change as well as the conveyance of all change. For computer
systems, change can occur within a myriad of sub-systems that comprise the
total computer and computer network. However, the utility with which such
changes can be fed back into the product development cycle is heavily dependent
on the design and manufacturing technology used in the current product
generation.
As we consider
the parallel of mutation and genetic adaptation with basic and applied
research, we find it interesting to expand our speculation to encompass a
parallel between biological and computer species. Consider the introduction of
the earliest forms of the electronic, stored-program computers. The first
large-scale computer, both in size and in terms of market potential and
realization was the IBM 650. It was a drum memory machine. Drum memory was a
forerunner of today’s disk drives, using a rotating drum-like surface of
magnetic material onto which magnetic patterns could be imprinted and then read
by a read/write head floating over the surface. IBM was first to market with its
machine, and it sold perhaps a couple of thousand units for a price in the
range of $200,000 to $400,000 of that era’s dollars. IBM’s primary competitor
at the time was Sperry Univac and they had a similar drum memory computer that
they placed on the market
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