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      A Biohybrid Self‐Dispersing Miniature Machine Using Wild Oat Fruit Awns for Reforestation and Precision Agriculture

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          Abstract

          Advances in bioinspired and biohybrid robotics are enabling the creation of multifunctional systems able to explore complex unstructured environments. Inspired by Avena fruits, a biohybrid miniaturized autonomous machine (HybriBot) composed of a biomimetic biodegradable capsule as cargo delivery system and natural humidity‐driven sister awns as biological motors is reported. Microcomputed tomography, molding via two‐photon polymerization and casting of natural awns into biodegradable materials is employed to fabricate multiple HybriBots capable of exploring various soil and navigating soil irregularities, such as holes and cracks. These machines replicate the dispersal movements and biomechanical performances of natural fruits, achieving comparable capsule drag forces up to ≈0.38 N and awns torque up to ≈100 mN mm −1. They are functionalized with fertilizer and are successfully utilized to germinate selected diaspores. HybriBots function as self‐dispersed systems with applications in reforestation and precision agriculture.

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          Biomimetic 4D printing.

          Shape-morphing systems can be found in many areas, including smart textiles, autonomous robotics, biomedical devices, drug delivery and tissue engineering. The natural analogues of such systems are exemplified by nastic plant motions, where a variety of organs such as tendrils, bracts, leaves and flowers respond to environmental stimuli (such as humidity, light or touch) by varying internal turgor, which leads to dynamic conformations governed by the tissue composition and microstructural anisotropy of cell walls. Inspired by these botanical systems, we printed composite hydrogel architectures that are encoded with localized, anisotropic swelling behaviour controlled by the alignment of cellulose fibrils along prescribed four-dimensional printing pathways. When combined with a minimal theoretical framework that allows us to solve the inverse problem of designing the alignment patterns for prescribed target shapes, we can programmably fabricate plant-inspired architectures that change shape on immersion in water, yielding complex three-dimensional morphologies.
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            Small-scale soft-bodied robot with multimodal locomotion

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              Soft robotics: Technologies and systems pushing the boundaries of robot abilities

              The proliferation of soft robotics research worldwide has brought substantial achievements in terms of principles, models, technologies, techniques, and prototypes of soft robots. Such achievements are reviewed here in terms of the abilities that they provide robots that were not possible before. An analysis of the evolution of this field shows how, after a few pioneering works in the years 2009 to 2012, breakthrough results were obtained by taking seminal technological and scientific challenges related to soft robotics from actuation and sensing to modeling and control. Further progress in soft robotics research has produced achievements that are important in terms of robot abilities-that is, from the viewpoint of what robots can do today thanks to the soft robotics approach. Abilities such as squeezing, stretching, climbing, growing, and morphing would not be possible with an approach based only on rigid links. The challenge ahead for soft robotics is to further develop the abilities for robots to grow, evolve, self-heal, develop, and biodegrade, which are the ways that robots can adapt their morphology to the environment.
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                Author and article information

                Contributors
                (View ORCID Profile)
                Journal
                Advanced Materials
                Advanced Materials
                Wiley
                0935-9648
                1521-4095
                April 24 2024
                Affiliations
                [1 ] Istituto Italiano di Tecnologia Bioinspired Soft Robotics Laboratory Via Morego 30 Genova 16163 Italy
                [2 ] University of Freiburg Cluster of Excellence livMatS @ FIT — Freiburg Center for Interactive Materials and Bioinspired Technologies Georges‐Köhler‐Allee 105 D‐79110 Freiburg Germany
                [3 ] University of Freiburg Plant Biomechanics Group Schänzlestraße 1 D‐79104 Freiburg Germany
                Article
                10.1002/adma.202313906
                9f370733-8d92-4130-8ce7-8496390b1c15
                © 2024

                http://creativecommons.org/licenses/by/4.0/

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