| 
			
 
			
  
			by John Smart 
			February 2001from 
			KurzweilAI Website
 
			  
			  
			Some 20 to 140 years from now - depending 
			on which evolutionary or systems theorist, computer scientist, or 
			futurist you happen to agree with - the rate of self-catalyzing, 
			self-organizing technological change in our local environment will 
			undergo a "singularity," becoming effectively instantaneous from the 
			perspective of current biological humanity.
 It has been proposed that events after this point must also be 
			"future-incomprehensible" to existing humanity, though we disagree.
 
 Some social theorists have proposed that the currently breathtaking 
			rate of change or "information processing growth" in 21st century 
			human civilization cannot continue to accelerate indefinitely. 
			Apparent support for this position comes from the "sigmoidal nature" 
			("S curves") of biological growth, where resource limits lead to 
			periodic "crash phases" in population size.
 
 Also, physical limits affect information processing within any 
			specific technology, such as the widely cited miniaturization limit 
			in integrated circuits ("Moore's Law"), which will be reached circa 
			2010.
 
 But such arguments are astonishingly irrelevant to the growth of 
			information processing as an entity, because information arises out 
			of and controls the continuous reorganization of matter-energy 
			systems. In the known history of the Universe, information 
			processing systems have always discovered ever-more-clever ways to 
			rearrange themselves using less space, less energy, and less 
			material resources during evolution, thus making them 
			"matter-independent," or free of the limits to growth which affect 
			any particular material substrate.
 
 Consider our planet's history of accelerating creation of first 
			pre-biological (atomic and molecular-based), then genetic (DNA and 
			cell-based), then neurologic (neuron-based), then 
			
			memetic (mental 
			pattern-based), and finally, technologic (extra-cerebral-pattern 
			based) evolutionary epochs, each requiring less space, matter, 
			energy, and time to represent or perform any salient "computation" 
			(i.e., forming an encoded internal representation of the laws or 
			information of the external environment).
 
 The brief history of digital computers (which have themselves moved 
			through five substrates over the last century: mechanical, 
			electromechanical, vacuum tube, transistor, and IC) makes this 
			process of "accelerating rearrangement" even clearer. The Universal 
			evolution of information involves the continuous movement to new 
			substrates, with emergent forms always exponentially increasing 
			their information processing pace over time.
 
 We are on a wild ride to an interesting destination, a local rate of 
			computational change so fast and powerful that it must have a 
			profound and as-yet-unclarified Universal effect. As a side effect 
			of this hypergrowth, biological human beings will not be able to 
			meaningfully understand the computer-driven world of the near future 
			unless they make some kind of transition to "transhumanity."
 
 Those futurists who study this accelerating progression and its 
			current and anticipated effect on humanity call it "the 
			Singularity" for several reasons. The oldest reason, as 
			introduced by Vernor Vinge in 1982, stems from the idea of 
			a mathematical Singularity, a point in space or time at which 
			one's existing models of reality are no longer valid.
 
 One place we observe this is within a
			
			black hole, where the equations of 
			relativity no longer hold, generating only infinities.
 
			  
			As I will 
			describe in my forthcoming book, several other insightful ways of 
			understanding the coming Singularity may also be usefully employed.
 
			  
			  
			A Brief 
			History of Intellectual Discussion of the Singularity
 
			Many groups have helped build our present understanding of 
			accelerating change, and I will also be presenting a "Longer 
			History" later in 2001. We'll begin our Brief History with the 
			computer scientists of WWII. An important and dramatic, if not 
			entirely accurate place to start.
 
			  
			For an excellent read, I suggest
			Alan Turing 
			- The Enigma, Hodges and Hofstadter, 2000.
 It appears that the first computer scientists to consider the issue 
			of accelerating change, in casual conversation, were its modern 
			visionaries and founders, including both 
			
			Alan Turing (1940's) and 
			
			
			John Von Neumann (1950's).
 
			  
			Von Neumann may have been the first to 
			use the term "singularity" to describe this accelerating progression 
			(see Vinge's "The Technological Singularity").
 Ongoing informal discussions in this community eventually led to 
			works by Richard Feynman ("There's Plenty of Room at the 
			Bottom" 1959), a revolutionary article that implicitly assumes 
			accelerating change in a very important new domain, miniaturization, 
			and I.J. Good ("Speculations Concerning the First 
			Ultra-intelligent Machine," 1965), perhaps the first clear published 
			conceptualization of the coming computational Singularity.
 
 A year earlier, in 1964, Gordon Moore, co-founder of Intel, had made 
			his now famous prediction regarding circuit density doubling (every 
			18 to 24 months) in the new medium of metal oxide semiconductor 
			(MOS) integrated circuits.
 
 At first, Moore's Law simply defined the economic and engineering 
			environment specific to computer hardware development, and gradually 
			an entire industry of scientists and engineers came to not only 
			intellectually appreciate, but to tangibly experience the local 
			effects of continuous accelerating change.
 
 Throughout the 1960's and 1970's a growing number of insightful 
			analysts, engineers, systems theorists and cyberneticians developed 
			models of reality which began to incorporate trend curves of 
			accelerating computational change in various industry and generalizt 
			publications (most prominently, Scientific American).
 
 At the close of the 1960's, no one in computer science really knew 
			how long the curves might last (excepting a very limited number of 
			visionaries, as mentioned), or how relevant they might be to the 
			larger world of human affairs.
 
			  
			But the gate was open, and the 
			concept of the Singularity was afoot.
 Serious investigation of futurist scenarios received a major upgrade 
			around this time, including a few that recognized the concept of 
			accelerating change, thanks to the excellent work of Edward Cornish 
			and the World Future Society, and the bimonthly publication of 
			The 
			Futurist Magazine since 1967.
 
 The idea of accelerating change finally entered the public 
			consciousness through Alvin Toffler and his revolutionary 
			
			Future 
			Shock, 1970. Throughout the 1970's, the implications of Moore's Law 
			as a signifier of general computationally-driven scientific and 
			social change were progressively being explored.
 
 At the same time, there were a few groundbreaking attempts to 
			characterize and popularize the observed trajectory of ever more 
			integrative and self-balancing local systems, most publicly by F.M. 
			Esfandiary (later, FM-2030):
 
				
			 
			These three luminous 
			books were published in paperback in 1977 and 1978, and eventually 
			became known as the "Transhumanist Trilogy," setting the stage for 
			the 
			
			Extropian and transhumanist movements of the 1980's.
 The mid to late 1980's were a modern version of the "Cambrian 
			Explosion" in our scientific understanding of accelerating 
			computational change within various specialties, with simultaneous 
			breakthroughs in the study of complexity, artificial life, neural 
			networks, connectionist and parallel computation, and several other 
			fields best left for my forthcoming "Longer History."
 
 At the same time, consideration of accelerating change from a 
			systems perspective finally became broadly accessible to the general 
			public, through groundbreaking popular works, by such authors as,
 
				
					
					
					Marvin Minsky (Society of Mind, 
					1985)
					
					Erik Drexler (Engines of 
					Creation, 1986)
					
					Hans Moravec (Mind Children, 
					1988) 
			These three books respectively represented a theory of mind as an 
			emergent collective computational system, a framework for applying 
			computation and embodied environmental interaction on 
			as-yet-undreamed scales of miniaturization, and the first coherent 
			projection of the meaning of the new computer and cognitive sciences 
			for the future of mind in the Universe.  
			  
			These early authors risked 
			professional reputation in their own fields to advance their unique 
			ideas, and each deserves special recognition for their courage, 
			conviction, and clarity of vision.
 In the 1990's, a flood of generalizt publications that are 
			implicitly Singularity-aware, and a bold few that are explicitly 
			Singularity-aware, such as those by,
 
				
					
					
					John Brockman (ed., The Third 
					Culture, 1995)
					
					Damien Broderick (The Spike, 
					1997) 
					
					Richard Coren 
			(The Evolutionary Trajectory, 1998), 
			...became available.
 Meanwhile, in the mass medium of the new millennium (the Web), Max 
			and Natasha Vita-More (Extropy.org), Robin Hansen, Nick Bostrom (Transhuman.org), 
			again Hans Moravec and most centrally, Vernor Vinge brought these 
			ideas to digital life in the 1990s with their careful analysis of 
			the Singularity 
			meme and its variants.
 
			  
			Eliezer Yudkowsky also has 
			prolific writings in this area, along with a community of 
			
			AI 
			investigators and "Singularity advocates" and a nonprofit AI venture 
			with transhumanists Brian and Sabine Atkins.
 At present, in 2001, only a few tens of thousands of individuals 
			have been exposed to the Singularity meme, mostly through the web. 
			But soon, the general concept of the Singularity will become even 
			more mainstream, as it is confronted by networking think tanks such 
			as the nanotechnology and future scenario leader 
			
			Foresight 
			Institute.
 
 In addition, the background systems and forces involved will be 
			explicated by great journalists, inventor visionaries, and social 
			theorists.
 
			  
			These include: 
				
					
					
					Ed Regis, (Mambo Chicken, 1990, 
					Nano, 1995)
					
					Douglas Rushkoff (Cyberia, 1994)
					
					Danny Hillis, "Close to the 
					Singularity" 1995, Peter Russell (Waking up in Time, 1998)
					
					James Glieck (Faster: The 
					Acceleration of Just About Everything, 1999)
					
					Hans Moravec (Robot, 1999)
					
					Ray Kurzweil (Age of Spiritual 
					Machines, 1999), 
			...as well as others...
 
			  
			  
			Exploring the 
			Singularity
 
				
			   |