Biologically-Inspired Robust Spatial Programming

Inspired by the robustness and flexibility of biological systems, we are developing linguistic and programming tools to allow us to program spatial systems populated by vast numbers of unreliable components interconnected in unknown, irregular, and time-varying ways. We organize our computations aro...

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Main Authors: Beal, Jacob, Sussman, Gerald
Language:en_US
Published: 2005
Subjects:
Online Access:http://hdl.handle.net/1721.1/30516
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author Beal, Jacob
Sussman, Gerald
author_facet Beal, Jacob
Sussman, Gerald
author_sort Beal, Jacob
collection MIT
description Inspired by the robustness and flexibility of biological systems, we are developing linguistic and programming tools to allow us to program spatial systems populated by vast numbers of unreliable components interconnected in unknown, irregular, and time-varying ways. We organize our computations around geometry, making the fact that our system is made up of discrete individuals implicit. Geometry allows us to specify requirements in terms of the behavior of the space occupied by the aggregate rather than the behavior of individuals, thereby decreasing complexity. So we describe the behavior of space explicitly, abstracting away the discrete nature of the components. As an example, we present the Amorphous Medium Language, which describes behavior in terms of homeostatic maintenance of constraints on nested regions of space.
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spelling mit-1721.1/305162019-04-12T08:37:39Z Biologically-Inspired Robust Spatial Programming Beal, Jacob Sussman, Gerald AI amorphous robust biological spatial sensor networks language programming medium Inspired by the robustness and flexibility of biological systems, we are developing linguistic and programming tools to allow us to program spatial systems populated by vast numbers of unreliable components interconnected in unknown, irregular, and time-varying ways. We organize our computations around geometry, making the fact that our system is made up of discrete individuals implicit. Geometry allows us to specify requirements in terms of the behavior of the space occupied by the aggregate rather than the behavior of individuals, thereby decreasing complexity. So we describe the behavior of space explicitly, abstracting away the discrete nature of the components. As an example, we present the Amorphous Medium Language, which describes behavior in terms of homeostatic maintenance of constraints on nested regions of space. 2005-12-22T02:20:32Z 2005-12-22T02:20:32Z 2005-01-18 MIT-CSAIL-TR-2005-003 AIM-2005-001 http://hdl.handle.net/1721.1/30516 en_US Massachusetts Institute of Technology Computer Science and Artificial Intelligence Laboratory 17 p. 42144634 bytes 6024067 bytes application/postscript application/pdf application/postscript application/pdf
spellingShingle AI
amorphous robust biological spatial sensor networks language programming medium
Beal, Jacob
Sussman, Gerald
Biologically-Inspired Robust Spatial Programming
title Biologically-Inspired Robust Spatial Programming
title_full Biologically-Inspired Robust Spatial Programming
title_fullStr Biologically-Inspired Robust Spatial Programming
title_full_unstemmed Biologically-Inspired Robust Spatial Programming
title_short Biologically-Inspired Robust Spatial Programming
title_sort biologically inspired robust spatial programming
topic AI
amorphous robust biological spatial sensor networks language programming medium
url http://hdl.handle.net/1721.1/30516
work_keys_str_mv AT bealjacob biologicallyinspiredrobustspatialprogramming
AT sussmangerald biologicallyinspiredrobustspatialprogramming