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2 article(s) from Schmitz, Anke

A new bioinspired method for pressure and flow sensing based on the underwater air-retaining surface of the backswimmer Notonecta

Matthias Mail,
Adrian Klein,
Horst Bleckmann,
Anke Schmitz,
Torsten Scherer,
Peter T. Rühr,
Goran Lovric,
Robin Fröhlingsdorf,
Stanislav N. Gorb and
Wilhelm Barthlott

Beilstein J. Nanotechnol. 2018, 9, 3039–3047, doi:10.3762/bjnano.9.282

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Figure 1: a) The backswimmer N. glauca. The silvery shine on the surface of the hemelytra is caused by the to...

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Figure 2: a) Left hemelytron of the backswimmer N. glauca. Four sections, defined by Wachmann [17], are shown. b)...

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Figure 3: Transmission electron microscopy images of setae on the hemelytra of N. glauca. a–d) Clavus. a) Tub...

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Figure 4: a) Three-dimensional reconstruction of a hemelytron µCT scan. The tomography data allowed an analys...

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Figure 5: Toluidine blue/borax stained semi-thin sections through the clavus of a hemelytron of N. glauca (do...

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Figure 6: a) Image of a water droplet detaching from the surface of N. glauca. The deformation of the droplet...

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Figure 7: Proposed Notonecta forewing surface function. An air layer is kept in between the setae. The club-s...

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Figure 8: a) Setup used for the proof of concept for the biomimetic Notonecta sensor inspired by the backswim...

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Full Research Paper

Published 14 Dec 2018

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Infrared receptors in pyrophilous (“fire loving”) insects as model for new un-cooled infrared sensors

David Klocke,
Anke Schmitz,
Helmut Soltner,
Herbert Bousack and
Helmut Schmitz

Beilstein J. Nanotechnol. 2011, 2, 186–197, doi:10.3762/bjnano.2.22

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Figure 1: Infrared receptors in Melanophila beetles (A) and pyrophilous bug species of the genus Aradus (B). ...

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Figure 2: Schematic drawings of single IR receptors of Melanophila (A) and Aradus (B). 1: outer exocuticle; 2...

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Figure 3: Principle of a gas-filled Golay sensor with optical read-out. For explanations see text.

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Figure 4: Comparison of the sensillum (left) with the model of the sensor (right).

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Figure 5: Maximum central deflection y_max of a circular membrane as function of factor Ω and irradiation time...

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Figure 6: IR power density as function of the cavity axis for different liquids. Suprasil^® 300 was used as th...

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Figure 7: Temperature distribution along the cavity axis 50 ms after the onset of irradiation for different l...

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Figure 8: Temperature distribution along the cavity axis z 0.5 s after the onset of irradiation for a water-f...

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Figure 9: Pressure difference ΔP of a circular membrane at t = 0.5 s as a function of factor Ω for a water-fi...

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Figure 10: Maximum central deflection y_max of a circular membrane at t = 0.5 s as function of factor Ω for a w...

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Figure 11: Left: model of the pressure core in the sensillum connected by nanocanals with the outer compartmen...

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Figure 12: Pressures in the cavity, P_C, and in the reservoir, P_R, as a function of time for a cavity with a vo...

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Figure 13: Comparison of time constants for a compensation leak of a cavity filled with water or with CO₂ gas ...

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Full Research Paper

Published 30 Mar 2011

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