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| ==Artificial Super Organisms (In Silico Project)==
| | louis.huang@aegia.nu [PGP] |
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| '''Introduction'''
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| Super organisms such as bees, ants, and termites have superior efficiency in doing resilient, intensive, and complex tasks that have allowed them to adapt, evolve, and survive for a lengthy period of time<ref>[https://books.google.com/books?id=Eyl-qJ0HizoC&printsec=frontcover&source=gbs_ge_summary_r&cad=0#v=onepage&q&f=false Bert Hölldobler, E. O. Wilson: "''The Superorganism: The Beauty, Elegance, and Strangeness of Insect Societies''", W.W. Norton, 2008. ISBN|978-0-393-06704-0]</ref>. This behavioral system can be artificially induced to create 'hive' like server architecture that can be programed to do agnostic functional computation independently with minimum human interference. Such that a human (or so we hope) positioned for the responsibility of owning the artificial hive would act as a caretaker moving the hive to its proper location, protecting it from black swans, etc.
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| '''Architecture'''
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| Based upon the laws of nature, the structure of such an artificial super organism would be replicable from a fractal based perspective. This architecture would look very much alike from quantized levels (network > server > application/db > code base). Each level having the same basic design, decentralized networking of nodes each with an algorithmic function of f(x) = y.
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| '''Technical'''
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| From the application perspective of this exercise, we can define each node as a micro-app written on the NodeJS platform, chosen for its decentralized concurrency structure and non-blocking I/O transaction capabilities<ref>[http://www.sosp.org/2001/papers/welsh.pdf Matt Welsh et al. – SEDA: An Architecture for Well-Conditioned, Scalable Internet Services (2001)]</ref>. Using a series of unique nodes as the initialization state, each node can be trained using neural networks/machine learning to do one of four tasks: worker, guard, librarians, oligarchy. A worker node accomplishes the learned tasks, unique to the purpose of application (eg: text analytics, image recognition, mathematical computation); the guard assigned to security enforcement functionality; librarians contain data; the oligarchy regulates policies to run the hive such as a queen in a colony. Each individual node can be replicated once the initial states are set. To accomplish a decentralized hive like structure for this exercise, individual node pathways may be configured in peer-to-peer (P2P) networks, forming a de facto blockchain as each node contains its own machine learned algorithm once a PGP layer is added<ref>[https://bitcoin.org/bitcoin.pdf Nakamoto, Satoshi (October 2008). "Bitcoin: A Peer-to-Peer Electronic Cash System"]</ref>.
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| '''References'''
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| <references />
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| ==In Vivo/In Vitro Projects==
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| *[https://wiki.counterculturelabs.org/Organisms_of_Interest Organisms of Interest]
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| *[https://wiki.counterculturelabs.org/The_Internet_of_Biology The Internet of Biology]
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| '''Publishings'''
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| <ref>[https://www.amazon.com/BioCoder-Winter-Inc-OReilly-Media-ebook/dp/B00S8R9VDO Louis Huang and Alan Rockefeller, "Cataloging strains: isolation and identication of invasive mold on Citrus limon." Winter 2015, BioCoder, O'Reilly]</ref>
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| <references />
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| <br>
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| <hr>
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| For more information, the author may be reached @: <br>
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| [mailto:louis.huang@aegia.nu louis.huang@aegia.nu] | +1.202.600.8398
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| <br>
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