scholarly journals Biological Inspiration for Multiple Memories Implementation and Cooperation

2000 ◽  
pp. 171-174
Author(s):  
Frédéric Alexandre
Keyword(s):  
Biological Inspiration

scholarly journals Cockroaches traverse crevices, crawl rapidly in confined spaces, and inspire a soft, legged robot

2016 ◽  
Vol 113 (8) ◽  
pp. E950-E957 ◽  
Author(s):  
Kaushik Jayaram ◽  
Robert J. Full
Keyword(s):  
Body Weight ◽  
High Speed ◽  
Stride Length ◽  
Body Height ◽  
Legged Robot ◽  
Confined Space ◽  
Performance Limits ◽  
Biological Inspiration ◽  
Confined Spaces ◽  
Postural Changes

Jointed exoskeletons permit rapid appendage-driven locomotion but retain the soft-bodied, shape-changing ability to explore confined environments. We challenged cockroaches with horizontal crevices smaller than a quarter of their standing body height. Cockroaches rapidly traversed crevices in 300–800 ms by compressing their body 40–60%. High-speed videography revealed crevice negotiation to be a complex, discontinuous maneuver. After traversing horizontal crevices to enter a vertically confined space, cockroaches crawled at velocities approaching 60 cm⋅s−1, despite body compression and postural changes. Running velocity, stride length, and stride period only decreased at the smallest crevice height (4 mm), whereas slipping and the probability of zigzag paths increased. To explain confined-space running performance limits, we altered ceiling and ground friction. Increased ceiling friction decreased velocity by decreasing stride length and increasing slipping. Increased ground friction resulted in velocity and stride length attaining a maximum at intermediate friction levels. These data support a model of an unexplored mode of locomotion—“body-friction legged crawling” with body drag, friction-dominated leg thrust, but no media flow as in air, water, or sand. To define the limits of body compression in confined spaces, we conducted dynamic compressive cycle tests on living animals. Exoskeletal strength allowed cockroaches to withstand forces 300 times body weight when traversing the smallest crevices and up to nearly 900 times body weight without injury. Cockroach exoskeletons provided biological inspiration for the manufacture of an origami-style, soft, legged robot that can locomote rapidly in both open and confined spaces.

scholarly journals Establishing Analogy Categories for Bio-Inspired Design

Designs ◽  
2018 ◽  
Vol 2 (4) ◽  
pp. 47 ◽  
Author(s):  
Jacquelyn Nagel ◽  
Linda Schmidt ◽  
Werner Born
Keyword(s):  
Analogical Reasoning ◽  
Design Research ◽  
Design Method ◽  
Biological Systems ◽  
Design Pedagogy ◽  
Biological Inspiration ◽  
Research And Teaching ◽  
Difficult Time ◽  
Behavior Learning ◽  
The Common

Biological systems have evolved over billions of years and cope with changing conditions through the adaptation of morphology, physiology, or behavior. Learning from these adaptations can inspire engineering innovation. Several bio-inspired design tools and methods prescribe the use of analogies, but lack details for the identification and application of promising analogies. Further, inexperienced designers tend to have a more difficult time recognizing or creating analogies from biological systems. This paper reviews biomimicry literature to establish analogy categories as a tool for knowledge transfer between biology and engineering to aid bio-inspired design that addresses the common issues. Two studies were performed with the analogy categories. A study of commercialized products verifies the set of categories, while a controlled design study demonstrates the utility of the categories. The results of both studies offer valuable information and insights into the complexity of analogical reasoning and transfer, as well as what leads to biological inspiration versus imitation. The influence on bio-inspired design pedagogy is also discussed. The breadth of the analogy categories is sufficient to capture the knowledge transferred from biology to engineering for bio-inspired design. The analogy categories are a design method independent tool and are applicable for professional product design, research, and teaching purposes.

scholarly journals Explorations in Parallel  Linear Genetic Programming

2021 ◽  
Author(s):  
◽  
Carlton Downey
Keyword(s):  
Genetic Programming ◽  
Convergence Time ◽  
Linear Genetic Programming ◽  
Cooperative Coevolution ◽  
Biological Inspiration ◽  
Linear Sequence ◽  
New Form ◽  
Program Output ◽  
Program Components ◽  
Crossover And Mutation

<p>Linear Genetic Programming (LGP) is a powerful problem-solving technique, but one with several significant weaknesses. LGP programs consist of a linear sequence of instructions, where each instruction may reuse previously computed results. This structure makes LGP programs compact and powerful, however it also introduces the problem of instruction dependencies. The notion of instruction dependencies expresses the concept that certain instructions rely on other instructions. Instruction dependencies are often disrupted during crossover or mutation when one or more instructions undergo modification. This disruption can cause disproportionately large changes in program output resulting in non-viable offspring and poor algorithm performance. Motivated by biological inspiration and the issue of code disruption, we develop a new form of LGP called Parallel LGP (PLGP). PLGP programs consist of n lists of instructions. These lists are executed in parallel, and the resulting vectors are summed to produce the overall program output. PLGP limits the disruptive effects of crossover and mutation, which allows PLGP to significantly outperform regular LGP. We examine the PLGP architecture and determine that large PLGP programs can be slow to converge. To improve the convergence time of large PLGP programs we develop a new form of PLGP called Cooperative Coevolution PLGP (CC PLGP). CC PLGP adapts the concept of cooperative coevolution to the PLGP architecture. CC PLGP optimizes all program components in parallel, allowing CC PLGP to converge significantly faster than conventional PLGP. We examine the CC PLGP architecture and determine that performance</p>

Phylogeny, ontogeny, and epigenesis: Three sources of biological inspiration for softening hardware

1997 ◽  
pp. 33-54 ◽  
Author(s):  
Eduardo Sanchez ◽  
Daniel Mange ◽  
Moshe Sipper ◽  
Marco Tomassini ◽  
Andres Perez-Uribe ◽  
...  
Keyword(s):  
Biological Inspiration

A new mining life for non-feasible mineral deposits?

2021 ◽  
Author(s):  
Balazs Bodo ◽  
Luis Lopes ◽  
Claudio Rossi ◽  
Giorgia Stasi ◽  
Christian Burlet ◽  
...  
Keyword(s):  
Raw Materials ◽  
Mineral Exploration ◽  
Mining Industry ◽  
Innovative Approach ◽  
Mineral Deposits ◽  
Biological Inspiration ◽  
Social License To Operate ◽  
Social License ◽  
New Vision ◽  
And Control

&lt;p&gt;ROBOMINERS is developing an innovative approach for the exploitation of currently non-feasible mineral deposits. The approach entails the use of a robot-miner - a bio-inspired reconfigurable robot with a modular nature - in a new mining setting where the activities are nearly invisible and where mining presents less socio-environmental constraints, thus contributing to a more safe and sustainable supply of mineral raw materials.&lt;/p&gt;&lt;p&gt;The main aim is to design and develop a robotic prototype that is able to perform mining related tasks in settings including both abandoned, currently flooded mines not accessible anymore for conventional mining techniques; or places that have formerly been explored, but whose exploitation was considered as uneconomic due to the small-size of deposits, or their difficulty to access.&lt;/p&gt;&lt;p&gt;ROBOMINERS&amp;#8217; innovative approach combines the creation of a new mining ecosystem with novel ideas from other sectors, particularly robotics. At this point, work has been done to understand the best methods for the robotminer&amp;#8217;s development in 1) biological inspiration, 2) perception and localisation tools, 3) behaviour, navigation and control, 4) actuation methods, 5) modularity, 6)autonomy and resilience, and 7) the selective mining ability. All these aspects combined aim to provide the robotminer XXI Century tools for mineral exploration and exploitation of (currently) unfeasible deposits.&lt;/p&gt;&lt;p&gt;At the same time, for the vision of a new vision of a mining ecosystem, work is involving studies on 1) developing computer models and simulations, 2) data management and visualisation, 3) rock-mechanical and geotechnical characterisation studies, 4) analysing ground/rock support methods, bulk transportation methods, backfilling types and methods, and 5) sketching relevant upstream and downstream mining industry analogues for the ROBOMINERS concept.&amp;#160;&amp;#160;&lt;/p&gt;&lt;p&gt;After design and development, based on the previously mentioned studies, the robot-miner is set to be tested at targeted areas representatives which include abandoned and/or operating mines, small but high-grade mineral deposits, unexplored/explored non-economic occurrences and ultra depth, not&amp;#160; easily accessible environments. Possible candidates for testing purposes include mines in the regions of Cornwall (UK), mines in the Kupferschiefer Formation (e.g. Poland) or coal mines in Belgium.&lt;/p&gt;&lt;p&gt;When compared to usual mining methods the ROBOMINERS approach shows: 1) no presence of people in the mine, 2) less mining waste produced, 3) less mining infrastructure, 4) less investment, 5) possibility to explore currently uneconomic resources and 6) new underground small-sized mines, practically &amp;#8220;invisible&amp;#8221;. Altogether, ROBOMINERS can contribute to solve some of the main issues that make mining&amp;#8217;s social license to operate so difficult to get in Europe: land-use, environmental limitations, and socio-economic aspects.&lt;/p&gt;

Swarm Robotics

2011 ◽  
pp. 1537-1542 ◽  
Author(s):  
Amanda J.C. Sharkey
Keyword(s):  
Social Insects ◽  
Swarm Robotics ◽  
Biological Systems ◽  
Cooperative Behaviour ◽  
Biologically Inspired ◽  
Central Idea ◽  
Biological Inspiration ◽  
The Individual ◽  
And Control

Swarm Robotics is a biologically inspired approach to the organisation and control of groups of robots. Its biological inspiration is mainly drawn from social insects, but also from herding and flocking phenomena in mammals and fish. The promise of emulating some of the efficient organisational principles of biological swarms is an alluring one. In biological systems such as colonies of ants, sophisticated cooperative behaviour emerges despite the simplicity of the individual members, and the absence of centralised control and explicit directions. Such societies are able to maintain themselves as a collective, and to accomplish coordinated actions such as those required to construct and maintain nests, to find food, and to raise their young. The central idea behind swarm robotics is to find similar ways of coordinating and controlling collections of robots.

Design of a Biologically-Inspired Chemical Sensor

2013 ◽  
Author(s):  
Jacquelyn K. S. Nagel
Keyword(s):  
Liver Disease ◽  
Design Process ◽  
Chemical Sensor ◽  
Current Sensor ◽  
Biologically Inspired ◽  
Invasive Approach ◽  
Biological Inspiration ◽  
Non Invasive ◽  
Functional Representation ◽  
System Information

Sensors are an integral part of many engineered products and systems. Biological inspiration has the potential to improve current sensor designs as well as inspire innovative ones. Mimicking nature offers more than just the observable aspects that conjure up engineering solutions performing similar functions, but also less obvious strategic and sustainable aspects. This paper presents the design of an innovative, biologically-inspired chemical sensor that performs “up-front” processing through mechanical filtering. Functional representation and abstraction were used to place the biological system information in an engineering context, and facilitate the bioinspired design process. Inspiration from the physiology (function) of the guard cell coupled with the morphology (form) and physiology of tropomyosin resulted in multiple concept variants for the chemical sensor. The chemical sensor conceptual designs are provided along with detailed descriptions. Applications of the sensor design include environmental monitoring of harmful gases, and a non-invasive approach to detect illnesses including diabetes, liver disease, and cancer on the breath.

scholarly journals Biomimetic and bioinspired molecular electrets. How to make them and why does the established peptide chemistry not always work?

2020 ◽  
Vol 92 (2) ◽  
pp. 275-299 ◽  
Author(s):  
Kamil Skonieczny ◽  
Eli M. Espinoza ◽  
James B. Derr ◽  
Maryann Morales ◽  
Jillian M. Clinton ◽  
...  
Keyword(s):  
High Selectivity ◽  
Science And Engineering ◽  
Peptide Chemistry ◽  
Nitrobenzoic Acid ◽  
Biological Inspiration ◽  
Mild Conditions ◽  
Amide Coupling ◽  
Synthetic Polypeptides ◽  
Electric Dipoles ◽  
Nitro Reduction

Abstract“Biomimetic” and “bioinspired” define different aspects of the impacts that biology exerts on science and engineering. Biomimicking improves the understanding of how living systems work, and builds tools for bioinspired endeavors. Biological inspiration takes ideas from biology and implements them in unorthodox manners, exceeding what nature offers. Molecular electrets, i.e. systems with ordered electric dipoles, are key for advancing charge-transfer (CT) science and engineering. Protein helices and their biomimetic analogues, based on synthetic polypeptides, are the best-known molecular electrets. The inability of native polypeptide backbones to efficiently mediate long-range CT, however, limits their utility. Bioinspired molecular electrets based on anthranilamides can overcome the limitations of their biological and biomimetic counterparts. Polypeptide helices are easy to synthesize using established automated protocols. These protocols, however, fail to produce even short anthranilamide oligomers. For making anthranilamides, the residues are introduced as their nitrobenzoic-acid derivatives, and the oligomers are built from their C- to their N-termini via amide-coupling and nitro-reduction steps. The stringent requirements for these reduction and coupling steps pose non-trivial challenges, such as high selectivity, quantitative yields, and fast completion under mild conditions. Addressing these challenges will provide access to bioinspired molecular electrets essential for organic electronics and energy conversion.

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