The Computers of Star Trek

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The Computers of Star Trek Page 15

by Lois H. Gresh


  Maybe, but not as presented on Trek. Present day computers are capable of roughly translating documents from one language to another in seconds. Hand-held computers have been developed to translate words spoken in one language to another. It won’t be long before telephone calls made between different countries will feature automatic translation. In all these cases, however, we’re working with two known languages and two known sets of grammatical rules. That won’t be the case if and when we encounter alien species in outer space.

  According to The Star Trek: The Next Generation—Technical Manual, the Universal Translator is a very sophisticated computer program that analyzes patterns of unknown languages and then comes up with a system to translate our speech into that language. This is done by obtaining large samples of aliens speaking with each other, so the program can study usage patterns, vocabulary, syntax and so on. It all sounds very logical. Too bad it makes no sense.

  Computers are wonderful code-breakers, the finest such devices in the universe. But languages are not codes. Conversations without reference points do not necessarily illuminate what they are about. For example, try watching a Japanese film without subtitles. When two Samurai meet in a noodle shop, are they discussing the weather, the best way to kill a man, the politics of the town, whether the girl serving them noodles is attractive, or the meaning of the universe? Any of these conversations is equally possible, and they all sound quite similar. Japanese can’t be learned by assembling a huge library of conversations and then analyzing them by a computer. It’s like the 1950s science-fiction movies where the aliens claim to have learned to speak English by watching our television shows. Unfortunately I Love Lucy doesn’t work as a language primer. Something more is necessary. A key. A Rosetta stone.

  When humans encounter an alien race, there is not automatically a third species that knows both languages and can serve as a bridge between them. Nor is every race in Star Trek telepathic (though for simplicity’s sake, it seems that an awful lot of them are!). Are we forced to conclude that the Universal Translator is no more than a neat gimmick? Not entirely but almost.

  In the classic science-fiction story “Omnilingual,” by H. Beam Piper,5 the author addresses the problem of translating an alien language into English. Making it even more difficult on the archaeologists, the language in question is Martian and the inhabitants of the red planet have been dead for forty thousand years, leaving behind a ruined civilization. The question raised in the story is pretty much the same we are faced with in the Universal Translator. How do you decipher an alien language without a tongue common to both civilizations? Piper came up with the answer and it’s as true now as it was forty years ago and will be true three centuries in the future. Science and mathematics.

  Despite differences in culture, society, philosophy, and patterns of speech among civilizations, our atomic table of elements is always the same. The atomic structure of water, H20, is identical everywhere in the universe. The sum of 2 + 2 = 4 cannot change. The basic laws of physics and mathematics are the same throughout the universe. They form a universal language.

  Using basic building blocks of scientific and mathematical terminology, a fairly detailed dictionary of words can be constructed. With AI computers, working at incredible speeds, extrapolating terms dealing with the manipulation of such words would follow quickly. In days, perhaps hours, a simple but useful glossary could be constructed, and from there, with continued dialogue between species, a true Universal Translator could be devised.

  That’s not the way it’s done on Star Trek. At least, we never see it handled in such a manner. The Technical Manual offers us a magic wand but nothing practical. Still, the method we describe is one possible way it might work in the future.

  Like many of the devices displayed on Star Trek, the Universal Translator is possible. The key is that it must rely on real computer technology and logic. But, like many of the inventions shown on the series, it is coming. The Star Trek future is on the way. Most likely, sooner than we think.

  Notes

  Chapter One

  1 “More Storage, Please,” by Mark Halper, http://www.forbes.com, July 7, 1997.

  Chapter Two

  1 Rick Sternach and Michael Okuda, Star Trek: The Next Generation—Technical Manual (New York: Pocket Books, 1991).

  2 David A. Patterson and John L. Hennessy, Computer Architecture: A Quantitative Approach (San Mateo, CA: Morgan Kaufmann Publishers, Inc., 1990). See pages 199-201 for a quick introduction to processors.

  3 Star Trek: The Next Generation—Technical Manual, page 49.

  4 Ibid.

  5 Ibid.

  6 Rick Sternach and Michael Okuda, Star Trek Encyclopedia: A Reference Guide to the Future (New York: Pocket Books, 1997).

  7 “More Storage, Please,” Forbes, July 7, 1997.

  8 Ibid.

  Chapter Three

  1 “Onward Cyber Soldiers,” by Douglas Waller and Mark Thomas, Time, August 21, 1995, pp. 38-46.

  2 http://www.gilc.org/privacy.

  3 Bruce Schneier, Applied Cryptography, Second Edition (New York: John Wiley & Sons, 1996).

  4 Bruce Schneier and David Banisar, The Electronic Privacy Papers (New York: John Wiley & Sons, 1997).

  5 Dr. Dobb’s Journal, December 1998.

  6 http://www.ddj.com, Dr. Dobb’s Journal, December 1998, article written by Bruce Schneier.

  Chapter Four

  1 http://www.stricom.army.mil/.

  Chapter Five

  1 Rodney Brooks, “Elephants Don’t Play Chess,” Robotics and Autonomous Systems, (North Holland: Elsevier Science Publishers, 1990). Also: Rodney Brooks, “New Approaches to Robotics,” Science, (September 3, 1991).

  Chapter Six

  1 http://www.robotstore.com/mwmars.htm.

  Chapter Seven

  1 Rick Sternach and Michael Okuda, Star Trek: The Next Generation —Technical Manual (New York: Pocket Books, 1991).

  Chapter Eight

  1 Maryann Karinch, Telemedicine, (Horizon Press, 1995), Introduction.

  2 Ibid.

  3 “Smart T-Shirts Know When Something Is Wrong,” USA Today, 17 November 1998, p. 10D.

  4 Lawrence M. Krauss, The Physics of Star Trek (New York: Basic Books, 1995).

  5 H. Beam Piper, “Omnilingual,” Astounding Science Fiction (January 1957).

  Index

  Advanced Encryption Standard (AES)

  Alexander (son of Worf)

  Alife (artificial life)

  “Alter Ego” (VGR)

  Analog signals

  Androids

  feasibility of

  and vision

  “Apple, The” (TOS)

  Applied Cryptology

  “Arena” (TOS)

  “Arsenal of Freedom, The” (TNG)

  Artificial intelligence

  bottom-up

  and characters in Holodeck

  Dartmouth College conference on

  and LCARS

  top-down

  and voice recognition

  Artificial life

  Arturis, and breaking of encryption codes

  Aurora

  “Babel” (DS9)

  Banisar, David

  Barclay, Reg

  Bashir, Doctor Julian

  and holodeck

  and repatterning of DNA

  shrinking to enter computer console

  Battle Simulation Center

  Bell Labs

  “Best of Both Worlds, The” (TNG)

  Binary switching

  Biobeds

  Biochemical lubricants

  Bioelectric fields, and security

  Biometric Consortium

  Biometric encryption

  Biometric Handshape Recognition

  Biometrics

  international use of

  “Birthright, Part 1” (TNG)

  Bodynets

  Body networks

  “Booby Trap” (TNG)

  Borg

  and battling Species 8472
<
br />   Queen

  Bottom-up artificial intelligence table

  Brahms, Dr. Lea

  Brain

  and comparison with computer

  and location of consciousness

  and neurons

  positronic

  Brooks, Rodney, and bottom-up artificial intelligence

  “Brothers” (TNG)

  Bynars

  capture of Enterprise

  and reliance on computers

  Cardassians

  “Cause and Effect” (TNG)

  Central processing unit (CPU)

  Cestus

  “Changeling, The” (TOS)

  “Chase, The” (TNG)

  Chemical signature

  “Child, The” (TNG)

  “Civil Defense” (DS9)

  Clock cycle time

  “Clues” (TNG)

  COBOL programming language

  Cochrane

  Cogley, Samuel T.

  Collective and the Borg

  Communicator badges

  and security

  Compatibility, computer

  Computer Architecture: A Quantitative Approach (Patterson and Hennessy)

  Computers

  based on DNA

  design of

  first generation (1945-1956) (vacuum tubes)

  fourth generation (1971-now) (microprocessor)

  of the future

  second generation (1956-1963) (transistors)

  third generation (1964-1971) (silicon chips)

  “Conscience of the King, The” (TOS)

  “Conspiracy” (TNG)

  Controller

  Core elements (of main processing core)

  figure

  Core memory

  figure

  “Cost of Living” (TNG)

  “Court Martial” (TOS)

  Crime

  Crusher, Beverly, Dr.

  and the Borg

  and Data

  Crusher, Wesley

  Cryptology, and the future

  Cybernetic implants

  Cybernetics

  Cyberwar

  See also War

  D’Arsay code

  Data, Lieutenant Commander(n)

  and bottom-up thinking

  and comparison to holodeck characters

  and creation of android Lal

  and Dr. Moriarty

  and electrical current

  and encryption

  and exocamp servomechanisms

  and faults of linear logic

  feasibility of

  and human emotions

  and if-then artificial intelligence

  and interfacing

  and Juliana Tainer

  and music and the arts

  and positronic brain

  and Spot

  and top-down thinking

  and vision

  Data Encryption Standard (DES)

  “Data’s Day” (TNG)

  Dax, Science Officer Jadzia

  “Deadly Years, The” (TOS)

  Death Star

  Decision tree

  figure

  Dedicated Optical Link

  Deep Blue

  Deep Space Nine

  and blockade by Dominion

  and changes from the original series

  Deep Space Nine, computer system

  architecture of

  Chief O’Brien’s overriding of computer of

  as heart of

  and personal privacy

  Defiant

  Dermal regenerator

  Dertouzos, Michael

  “Descent, Part 2” (TNG)

  “Devil’s Due” (TNG)

  “Disaster” (TNG)

  Diseases, exotic

  Distributed Processing Network (DPN)

  figure

  and Optical Data Network, figure

  DNA, computers based on

  “Doctor BashirPresume?” (DS9)

  Dominion

  and desire to rule other worlds

  and encrypted messages

  and war activities

  “Drumhead, The” (TNG)

  Edmonds, Dean

  Electrical current

  Electronic Frontier Foundation

  Electronic Privacy Papers, The

  “Elementary, Dear Data” (TNG)

  Emergency Holographic Medical Doctor

  Encryption

  biometric

  Star Trek codes of

  “Enemy Within, The” (TOS)

  ENIAC computer

  Enterprise

  computers on original versus later generations

  description of computers of

  and holodecks and holosuites

  and importance of its computer

  monitoring of conversations on

  networking design of

  and security

  Enterprise-D

  and bottom-up artificial intelligence

  and D’Arsay computer code

  numbers of crew of

  “Ethics” (TNG)

  Eugenics

  “Evolution” (TNG)

  “Eye of the Needle” (VGR)

  Facial Action Coding System (FACS)

  Facial recognition technology

  Faster-than-light (FTL) speed

  and Data

  and Distributed Processing Network (DPN)

  and linked computers

  and main processing unit

  and nanoprocessor

  “Favor the Bold” (DS9)

  Feasibility

  of androids (Data)

  of holodeck

  of tricorders

  of Universal Translator

  Fingerprint recognition

  First Contact

  and the Borg

  and cloned implants

  and Data’s emotions

  and holodecks

  and size of Federation

  “Fistful of Datas, A” (TNG)

  Flexinol “Muscle Wire,”

  Fontaine, Johnny

  Food replicators

  Forbidden Planet

  FORTRAN programming language

  FTL. See Faster-than-light (FTL) speed

  Future

  accurate depiction of

  and body networks

  and computers

  as good television

  and science fiction

  “Future Imperfect” (TNG)

  Gallium arsenide

  Gammma Hydra IV research colony

  Garak

  Garth, Captain

  Generations

  Genetic codes

  Genetic engineering

  Genghis

  Genomes and artificial life

  Geordi. See LaForge, Geordi

  Gigaquad

  Gorm

  Graphical User Interface (GUI)

  Graves, Ira

  Hackers, computer

  Heartbeats and security

  Herbert the robot

  “Heroes and Demons” (VGR)

  Hesselink, Lambertus

  Hill, Dixon

  “Hollow Pursuits” (TNG)

  Holodeck

  and characters with artificial intelligence

  feasibitity of

  and interactions between characters and people

  and magnetic bubble matter

  and replicated objects

  and system malfunction

  Holograms, living

  Holographic floppy disk, figure

  Holographic Medical Doctor

  Holographic structures, as holders of data

  Holosuites See also Holodeck

  “Homefront” (DS9)

  “Hope and Fear” (VGR)

  Human element and war in space

  Humanism and computers

  Humanoid intelligence, comparison with top-down and bottom-up, table

  “I, Borg” (TNG)

  “I, Mudd.” (TOS)

  If then artificial intelligence

  “Inheritance” (TNG)
/>   “In Purgatory’s Shadow” (DS9)

  Insurrection

  Intel 4004 chip

  Intel and 1997 supercomputer

  International Data Encryption Algorithm (IDEA)

  Internet, compared to Optical Data Network

  Internet service provider, and micron junction link

  Inter-Vehicle Embedded Simulation Technology (INVEST)

  “In Theory” (TNG)

  Iris prints

  Isolinear optical chips. See Optical isolinear chips

  Jack the Ripper

  Janeway, Captain Kathryn

  Java programming language

  Jayaraman, Sundaresan

  Jeffries tubes

  Jem’Hadar warriors

  Jenkins, Philip

  “Journey to Babel” (TOS)

  Karidian, Anton

  Kasparov, Gary

  Kazon

  Kes, Medical Assistant

  Kiloquads

  Kim, Ops/Communications Officer Harry

  Kirk, James T., Captain

  and balance of rationality and humanism

  and “Court Martial,”

  and Nomad

  and top-down artificial intelligence

  Klingon

  Kodos the Executioner

  Koiram, Sima

  Kraus, Lawrence M.

  Kress computer

  LaForge, Geordi

  and Data

  repairs to computers(n)

  Lal

  Landis, Geoffrey

  Landru

  and artificial intelligence

  Language

  Lantree (starship)

  “Last Outpost, The” (TNG)

  LCARS. See Library computer access and retrieval software

  “Legacy” (TNG)

  Legos

  Ley, Willy

  Library computer access and retrieval software (LCARS)

  and artificial intelligence

  and communication with controller

  and Distributed Processing Network

  interface of

  and memory access

 

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