Title :
An endocrinologic-inspired hardware implementation of a multicellular system
Author :
Greensted, Andrew J. ; Tyrrell, Andy M.
Author_Institution :
Dept. of Electron., York Univ., UK
Abstract :
Within higher animals there operates an inter-cell communication system that is responsible for regulating the physiological balance of its host. The endocrine system uses hormone mediated messages to control the function of remote cell groups, invoking reactions to maintain chemical and physical equilibrium. The operation and structure of the endocrine system exhibits robustness and fault tolerance that has inspired the creation of reliability engineered electronic architecture. Previous work established a software model of such a system. The model was able to simulate arbitrary processing of a data stream whilst demonstrating tolerance to faults and repair. Following from this work, this paper outlines improvements to this model and the initial steps of its conversion into a hardware electronic system. The Bionode System contains thirty individual nodes connected in a loosely coupled network. Each Bionode contains a microcontroller and FPGA that can be configured to model the functionality of a cell; specifically the underlying endocrine based communication system and the top-level functions that perform useful data processing operations.
Keywords :
biocomputers; computer architecture; fault tolerance; multiprocessing systems; stability; Bionode System; FPGA; arbitrary data processing simulation; chemical equilibrium; data stream; endocrine based communication system; endocrine system; endocrinologic-inspired hardware implementation; fault tolerance; function control; hardware electronic system; hormone mediated messages; inter-cell communication system; loosely coupled network; microcontroller; multicellular system; physiological balance; reliability engineered electronic architecture; remote cell groups; robustness; software model; top-level functions; Animal structures; Biochemistry; Chemicals; Communication system control; Control systems; Endocrine system; Fault tolerant systems; Hardware; Maintenance; Robustness;
Conference_Titel :
Evolvable Hardware, 2004. Proceedings. 2004 NASA/DoD Conference on
Print_ISBN :
0-7695-2145-2
DOI :
10.1109/EH.2004.1310837