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A generative theory of shape

Ocena książki

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  • 570 stron
  • 20 godzin czytania

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This book aims to develop a generative theory of shape grounded in two fundamental properties of intelligence: (1) maximization of transfer, where new structures are described as transfers of existing ones, and (2) maximization of recoverability, allowing for maximal inferentiability from data sets. We will demonstrate that if generativity meets these criteria, it possesses a robust mathematical structure and significant applicability in computational fields. The focus on intelligence is crucial for generating complex shapes, as many existing theories render this process unintelligible. Our approach seeks to transform complexity into understandability, anchored in the principles of maximization of transfer and recoverability. We will present a mathematical theory of understandability, formulating these principles group-theoretically. Specifically, maximization of transfer will be expressed through wreath products, which involve an upper control group transferring a lower fiber group onto copies of itself. Meanwhile, maximization of recoverability is achieved when the control group exhibits symmetry-breaking concerning the fiber group.

Zakup książki

A generative theory of shape, Michael Leyton

Język
Rok wydania
2001
Oprawa
(miękka)
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Tytuł
A generative theory of shape
Język
angielski
Wydawca
Springer
Rok wydania
2001
Oprawa
miękka
Liczba stron
570
ISBN10
3540427171
ISBN13
9783540427179
Seria
Tagi
Ocena
4 z 5
Opis
This book aims to develop a generative theory of shape grounded in two fundamental properties of intelligence: (1) maximization of transfer, where new structures are described as transfers of existing ones, and (2) maximization of recoverability, allowing for maximal inferentiability from data sets. We will demonstrate that if generativity meets these criteria, it possesses a robust mathematical structure and significant applicability in computational fields. The focus on intelligence is crucial for generating complex shapes, as many existing theories render this process unintelligible. Our approach seeks to transform complexity into understandability, anchored in the principles of maximization of transfer and recoverability. We will present a mathematical theory of understandability, formulating these principles group-theoretically. Specifically, maximization of transfer will be expressed through wreath products, which involve an upper control group transferring a lower fiber group onto copies of itself. Meanwhile, maximization of recoverability is achieved when the control group exhibits symmetry-breaking concerning the fiber group.