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Towards Robust Bio-Inspired Circuits: The Embryonics Approach

Towards Robust Bio-Inspired Circuits: The Embryonics Approach. ECAL’99, Lausanne September 15, 1999. Caenorhabditis Elegans. 11 December 1998. Caenorhabditis Elegans. From S.F. Gilbert, Developmental Biology, Sinauer, 1991. Multicellular Organization. 959 somatic cells.

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Towards Robust Bio-Inspired Circuits: The Embryonics Approach

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  1. Towards Robust Bio-Inspired Circuits: The Embryonics Approach Daniel Mange ECAL’99, Lausanne September 15, 1999

  2. Caenorhabditis Elegans 11 December 1998 Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  3. Caenorhabditis Elegans From S.F. Gilbert, Developmental Biology, Sinauer, 1991 Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  4. Multicellular Organization 959 somatic cells Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  5. Cellular Division Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  6. Cellular Differentiation Pharynx Intestine Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  7. Embryonics: Why? Design of robust integrated circuits able to: • self-repair (healing) • self-replicate (cloning) Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  8. Embryonics: How? Iterative electronic circuit based on 3 features: • multicellular organization • cellular division • cellular differentiation Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  9. Electronic Implementation Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  10. Multicellular Organization Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  11. Embryonics Landscape Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  12. StopWatch Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  13. StopWatch Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  14. StopWatch Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  15. StopWatch Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  16. StopWatch Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  17. StopWatch Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  18. Cellular Differentiation Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  19. Self-Replication Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  20. Self-Replication Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  21. Self-Repair Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  22. BioWatch Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  23. BioWatch Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  24. Embryonics Landscape Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  25. MUXTREE Molecule Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  26. Space Divider Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  27. Space Divider Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  28. Cellular Self-Replication Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  29. Cellular Self-Repair Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  30. Cellular Self-Repair Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  31. The MUXTREE Molecule Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  32. Molecular Implementation Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  33. Embryonics Landscape Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  34. Artificial Genome Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  35. The Future of Embryonics Towards Robust Bio-Inspired Circuits: The Embryonics Approach

  36. Towards Robust Bio-Inspired Circuits: The Embryonics Approach

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