Linked from

The 41 pages that link to Claude Shannon, each with the reason it gives.

• Boolean algebraRelated: His 1937 work connected Boolean algebra directly to circuit design.

• Massachusetts Institute of TechnologyRelated: His MIT education preceded a theory that transformed communication and computing.

• CryptographyRelated: His 1949 analysis gave cryptography a rigorous mathematical foundation.

• Bell LabsRelated: His Bell Labs research connected Boolean algebra, switching circuits, and communication theory.

• CyberneticsRelated: Shannon's account of communication supplied a key framework for cybernetics.

• Binary numeral systemRelated: His work helped show how binary logic could be implemented in electrical circuits.

• Nyquist–Shannon sampling theoremRelated: His 1949 paper gave a rigorous reconstruction result for band-limited signals.

• Digital signal processingRelated: His sampling theorem gave a rigorous basis for reconstructing band-limited signals.

• Norbert WienerRelated: Shannon’s mathematical account of communication developed alongside Wiener’s work on signals and noise.

• George BooleRelated: Shannon showed how Boolean algebra could analyze relay and switching circuits.

• Digital logicRelated: His 1937 work established how Boolean expressions could describe relay circuits.

• Huffman codingRelated: Shannon’s source-coding work framed the problem Huffman’s construction solves.

• Digital communicationRelated: His work formalized the limits and possibilities of reliable digital communication.

• Ivan SutherlandRelated: Shannon supervised Sutherland’s master’s thesis at the Massachusetts Institute of Technology.

• History of computingRelated: His ideas connected digital logic with a mathematical account of information.

• Shannon–Hartley theoremRelated: Shannon derived the capacity result underlying the theorem.

• Bell SystemRelated: His Bell Labs research transformed the mathematical understanding of communication.

• Gregory BatesonRelated: Bateson distinguished meaningful communication from Shannon’s quantitative account of signal transmission.

• TelecommunicationsRelated: His mathematical account of channel capacity and coding shaped digital telecommunications.

• A Mathematical Theory of CommunicationRelated: Shannon authored the paper and supplied its mathematical account of communication.

• Harry NyquistRelated: Shannon built a general theory of communication on limits Nyquist had helped quantify.

• One-time padRelated: His 1949 analysis proved the one-time pad's perfect-secrecy property.

• Information scienceRelated: His mathematical account of communication became a key intellectual resource for information science.

• Ralph HartleyRelated: Shannon extended Hartley’s measure to account for probabilities and noisy channels.

• Digital RevolutionRelated: His mathematical account of information helped make digital communication a precise engineering discipline.

• Communication theoryRelated: His mathematical model separated message transmission from the message’s meaning.

• Hamming codeRelated: Shannon’s framework made error-correcting codes a mathematical subject.

• Marvin MinskyRelated: Shannon’s information theory and early machine-learning experiments influenced the research culture Minsky entered.

• Statistical machine translationRelated: His noisy-channel framework supplied a probabilistic idea later adapted to translation.

• Computer chessRelated: His 1950 paper framed chess as a search problem and proposed strategies for limiting it.

• Elwyn BerlekampRelated: Shannon’s information-theoretic questions formed part of the intellectual background to Berlekamp’s coding work.

• George Armitage MillerRelated: Shannon’s theory supplied concepts Miller brought into psychological research.

• Hendrik Wade BodeRelated: Shannon and Bode worked in the same Bell Labs research environment, linking communication and engineering analysis.

• Kraft–McMillan inequalityRelated: Shannon’s information theory framed the coding problem to which the inequality applies.

• Security through obscurityRelated: His maxim that one should assume an enemy knows a system reinforced the case for resilient design.

• Boole's expansion theoremRelated: His switching-circuit work made the expansion a practical design tool.

• History of computer scienceRelated: His work joined logic, communication, and digital circuit design.

• History of electrical engineeringRelated: His theory gave modern communications engineering a mathematical foundation.

• Information and communication theoryRelated: His mathematical framework unified source compression and reliable communication.

• Noisy-channel coding theoremRelated: Shannon formulated the theorem in his foundational work on communication.