Multiple Realizability as a design heuristic in biological engineering

被引:8
作者
Koskinen, Rami [1 ]
机构
[1] Univ Helsinki, Unioninkatu 40, FIN-00014 Helsinki, Finland
关键词
Multiple realizability; Synthetic biology; Biological engineering; Engineering design; Engineering heuristic; SYNTHETIC BIOLOGY; SEMISYNTHETIC ORGANISM; REALIZATION; FOUNDATIONS; SYSTEMS; SCIENCE; LIFE;
D O I
10.1007/s13194-018-0243-3
中图分类号
N09 [自然科学史]; B [哲学、宗教];
学科分类号
01 ; 0101 ; 010108 ; 060207 ; 060305 ; 0712 ;
摘要
Recently, several critics of the multiple realizability thesis (MRT) have argued that philosophers have tended to accept the thesis on too weak grounds. On the one hand, the analytic challenge has problematized how philosophers have treated the multiple realization relation itself, claiming that assessment of the sameness of function and the relevant difference of realizers has been uncritical. On the other hand, it is argued that the purported evidence of the thesis is often left empirically unverified. This paper provides a novel strategy to answer these worries by introducing a role for multiple realizability in the context of biological engineering. In the field of synthetic biology, bioengineers redesign the evolutionary realizations of biological functions, even constructing artificial chemical surrogates in the laboratory. I show how in the rational design approach to biological engineering, multiple realizability can function as a design heuristic in which the sameness of function and difference of realizers can be controlled. Although practically motivated, this engineering approach has also a theoretical, exploratory component that can be used to study the empirical limitations of multiple realizability. Successful realization of the engineering designs would amount to a concrete demonstration of multiple realizability, taking evidence for MRT beyond what is readily found in nature.
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收藏
页数:15
相关论文
共 59 条
[1]   Multiple realization by compensatory differences [J].
Aizawa, Kenneth .
EUROPEAN JOURNAL FOR PHILOSOPHY OF SCIENCE, 2013, 3 (01) :69-86
[2]  
[Anonymous], 2007, Re-Engineering Philosophy for Limited Beings
[3]   The structural diversity of artificial genetic polymers [J].
Anosova, Irina ;
Kowai, Ewa A. ;
Dunn, Matthew R. ;
Chaput, John C. ;
Van Horn, Wade D. ;
Egli, Martin .
NUCLEIC ACIDS RESEARCH, 2016, 44 (03) :1007-1021
[4]   Multiple realizability revisited: Linking cognitive and neural states [J].
Bechtel, W ;
Mundale, J .
PHILOSOPHY OF SCIENCE, 1999, 66 (02) :175-207
[5]  
Bechtel William., 1993, DISCOVERING COMPLEXI
[6]   Synthetic biology, tinkering biology, and artificial biology. What are we learning? [J].
Benner, Steven A. ;
Yang, Zunyi ;
Chen, Fei .
COMPTES RENDUS CHIMIE, 2011, 14 (04) :372-387
[7]  
Brigandt Ingo., 2017, The Stanford Encyclopedia of Philosophy
[8]   Engineering and evolvability [J].
Calcott, Brett .
BIOLOGY & PHILOSOPHY, 2014, 29 (03) :293-313
[9]   Toward rational design of bacterial genomes [J].
Cambray, Guillaume ;
Mutalik, Vivek K. ;
Arkin, Adam P. .
CURRENT OPINION IN MICROBIOLOGY, 2011, 14 (05) :624-630
[10]   A brief history of synthetic biology [J].
Cameron, D. Ewen ;
Bashor, Caleb J. ;
Collins, James J. .
NATURE REVIEWS MICROBIOLOGY, 2014, 12 (05) :381-390