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物質のようなロボット集団で,強さと形状を空間時間的に制御する
Matthew R Devlin1, Sangwoo Kim1,2, Otger Campàs1,3,4,5
1Department of Mechanical Engineering, University of California, Santa Barbara, Santa Barbara, CA, USA.
まとめ
研究者たちは 固体から流体状態に 変化できるロボット素材を開発しました 自然素材を模倣して 構造を形成し 回復し 重荷を背負うことができます
科学分野:
- ロボット
- 材料科学
- 柔らかい物質の物理
背景:
- ロボット・マテリアルという概念は 科学やフィクションにおいて 長い間存在してきたものです
- 主な課題は,負荷を担うための構造的整合性と,形状を変える能力のための流動性の両方を達成することです.
研究 の 目的:
- 固体のような硬さから 流体のような流れへと 移行できるロボット素材を設計する
- 集団の形状と機械的な強さを 空間時間的に制御できるように
主な方法:
- 密集した構造の中で, 単位間の接触力を調節する.
- ロボットユニットのトポロジカルな再配置を制御し,剛性の移行を達成します.
主要な成果:
- 固体と流体間の移行を局所的に制御することを示した.
- 構造形成と自己治癒の能力を成功裏に示しました
- 700ニュートン (ロボットの重さの500倍) をサポートしました
結論:
- 調整可能な機械的性質を持つ 物質のようなロボット集団を 達成した.
- 制御可能な強さと形を持つ再構成可能なロボット物質を作る方法を示しています
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