A Systems Approach to BioInspired Design

A special issue of Biomimetics (ISSN 2313-7673). This special issue belongs to the section "Biomimetic Design, Constructions and Devices".

Deadline for manuscript submissions: closed (30 October 2024) | Viewed by 2846

Special Issue Editor


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Guest Editor
School of Mechanical Engineering, Heriot-Watt University, Edinburgh, UK
Interests: biomimetics; TRIZ; ontology; entomology; fracture mechanics

Special Issue Information

Dear Colleagues,

All organisms share similar biochemistry and physiology, so it comes as no surprise that they have evolved similar ways of adapting to the challenges of life. Evolution and increased complexity allow different versions of these mechanisms to be selected, but the underlying strategies remain more or less constant, and studies of comparative physiology are full of examples of this phenomenon. Such unification can simplify effective applications of biomimetics. For example, there is a negative correlation between the growth rate and biomass yield of a wide range of organisms, ranging from E. coli to cancer cells, such that when all nutrients and conditions are freely distributed, fast-growing organisms are favoured, whereas spatial structure and isolation selects for the evolution of slow-growing, high-yield, strategies. If one were to substitute food for energy or money (and they are all equivalent), then the model takes on a vastly wider meaning. Bachmann et al. demonstrated the overall negative impact of such a trade-off—in this case, on society when public goods are privatised—by using cultures of yeast cells to model the effect in their paper “Availability of public goods shapes the evolution of competing metabolic strategies”. See Capra’s keywords below for an insight into the nature of the transition at the systems level.

You are invited to submit research papers that conform to, or are inspired by, the view of both organisms and technology as hierarchies of systems, taking you from the scale of molecules to a global view. This approach has promise in that it can simplify bioinspired design and make it more productive, since the same essential mechanisms are often capable of being expressed at different levels of hierarchy, but with different applications. Your contribution can be practical, with preference given to accounts of successful projects or systematic processes, including description of any computer coding and details for access and the range of skills of the study’s contributors. Alternatively, it can also be theoretical, illustrating the adaptability applying basic biological mechanisms and the required transformations. You may find it useful to exemplify and illuminate the characteristics of systems-based thinking, listed below as keywords taken from Capra and Luisi’s book The Systems View of Life.

Prof. Dr. Julian F.V. Vincent
Guest Editor

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Keywords

  • multidisciplinarity
  • from parts to whole
  • from objects to relationships
  • from measurements to mapping
  • from quantities to qualities
  • from structure to process
  • from objective to epistemic science
  • from Cartesian certainty to approximate knowledge

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Published Papers (2 papers)

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Research

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7 pages, 187 KiB  
Communication
Managing Complexity in Socio-Technical Systems by Mimicking Emergent Simplicities in Nature: A Brief Communication
by Andrea Falegnami, Andrea Tomassi, Giuseppe Corbelli and Elpidio Romano
Biomimetics 2024, 9(6), 322; https://doi.org/10.3390/biomimetics9060322 - 28 May 2024
Cited by 1 | Viewed by 918
Abstract
In the context of socio-technical systems, traditional engineering approaches are inadequate, calling for a fundamental change in perspective. A different approach encourages viewing socio-technical systems as complex living entities rather than through a simplistic lens, which enhances our understanding of their dynamics. However, [...] Read more.
In the context of socio-technical systems, traditional engineering approaches are inadequate, calling for a fundamental change in perspective. A different approach encourages viewing socio-technical systems as complex living entities rather than through a simplistic lens, which enhances our understanding of their dynamics. However, these systems are designed to facilitate human activities, and the goal is not only to comprehend how they operate but also to guide their function. Currently, we lack the appropriate terminology. Hence, we introduce two principal concepts, simplexity and complixity, drawing inspiration from how nature conceals intricate mechanisms beneath straightforward, user-friendly interfaces. Full article
(This article belongs to the Special Issue A Systems Approach to BioInspired Design)
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Review

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23 pages, 6430 KiB  
Review
Bio-Inspired Strategies Are Adaptable to Sensors Manufactured on the Moon
by Alex Ellery
Biomimetics 2024, 9(8), 496; https://doi.org/10.3390/biomimetics9080496 - 15 Aug 2024
Viewed by 1319
Abstract
Bio-inspired strategies for robotic sensing are essential for in situ manufactured sensors on the Moon. Sensors are one crucial component of robots that should be manufactured from lunar resources to industrialize the Moon at low cost. We are concerned with two classes of [...] Read more.
Bio-inspired strategies for robotic sensing are essential for in situ manufactured sensors on the Moon. Sensors are one crucial component of robots that should be manufactured from lunar resources to industrialize the Moon at low cost. We are concerned with two classes of sensor: (a) position sensors and derivatives thereof are the most elementary of measurements; and (b) light sensing arrays provide for distance measurement within the visible waveband. Terrestrial approaches to sensor design cannot be accommodated within the severe limitations imposed by the material resources and expected manufacturing competences on the Moon. Displacement and strain sensors may be constructed as potentiometers with aluminium extracted from anorthite. Anorthite is also a source of silica from which quartz may be manufactured. Thus, piezoelectric sensors may be constructed. Silicone plastic (siloxane) is an elastomer that may be derived from lunar volatiles. This offers the prospect for tactile sensing arrays. All components of photomultiplier tubes may be constructed from lunar resources. However, the spatial resolution of photomultiplier tubes is limited so only modest array sizes can be constructed. This requires us to exploit biomimetic strategies: (i) optical flow provides the visual navigation competences of insects implemented through modest circuitry, and (ii) foveated vision trades the visual resolution deficiencies with higher resolution of pan-tilt motors enabled by micro-stepping. Thus, basic sensors may be manufactured from lunar resources. They are elementary components of robotic machines that are crucial for constructing a sustainable lunar infrastructure. Constraints imposed by the Moon may be compensated for using biomimetic strategies which are adaptable to non-Earth environments. Full article
(This article belongs to the Special Issue A Systems Approach to BioInspired Design)
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