Adhesive ability of the biorobotic remora disc prototypes.

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Presentation transcript:

Adhesive ability of the biorobotic remora disc prototypes. Adhesive ability of the biorobotic remora disc prototypes. (A) Pull-off force time series (Fd) of the biorobotic disc prototype with artificial spinules on a smooth surface (Ra = 0 μm; black), a real shark skin surface (Ra = 120 μm; blue), and a rough surface (Ra = 200 μm; red). (Inset) Vertically directed pull-off forces (Max. Fd) on three surfaces; colors correspond to those in the time history curves. (B) Posteriorly directed backward frictional forces (fxb) of the disc prototype at different lamella pitch angles θ (0°, 8°, and 16°) on the real shark skin versus time during a representative trial. (Inset) Maximum static frictional forces (Max. fxb) at θ = 0°, 8°, and 16° from left to right. (C to E) Backward frictional forces (fxb) of the biorobotic disc prototypes with both lamellae and carbon fiber spinules (red) and lamellae without the artificial spinules (blue) as a function of θ (0° to 16°) on different surfaces. The dashed gray line represents the control prototype without lamellae and spinules. The blue shaded area indicates the contribution of the soft lamella tissue overlay to the frictional force. The red shaded area indicates the contribution of the rigid spinules to the frictional force. (C) Smooth surface. (D) Rough surface (Ra = 200 μm). (E) Real shark skin surface (I. oxyrinchus; Ra ≈ 120 μm). (F) Anisotropic force (fxb − fxf) of the disc prototype with carbon fiber spinules versus θ on the rough surface (green) and the shark skin surface (purple). Yueping Wang et al. Sci. Robotics 2017;2:eaan8072 Copyright © 2017 The Authors, some rights reserved; exclusive licensee American Association for the Advancement of Science. No claim to original U.S. Government Works