Presentation is loading. Please wait.

Presentation is loading. Please wait.

Fig. 3 The electrical contact of direct-printed and reconfigured liquid metals. The electrical contact of direct-printed and reconfigured liquid metals.

Published byΣυντύχη Ζαφειρόπουλος Modified over 5 years ago

Similar presentations

Presentation on theme: "Fig. 3 The electrical contact of direct-printed and reconfigured liquid metals. The electrical contact of direct-printed and reconfigured liquid metals."— Presentation transcript:

1 Fig. 3 The electrical contact of direct-printed and reconfigured liquid metals.
The electrical contact of direct-printed and reconfigured liquid metals. (A) Schematic illustrations of direct printing (left) and reconfiguration (right). (B) Dependence of total resistance on the length of the channel. Error bars represent the SD. (C) Current-voltage characteristics between Ag pads and direct-printed EGaIn. (D) Current-voltage characteristics between Ag pads and reconfigured EGaIn. (E and F) SEM images of EGaIn on an Ag pad after 7 hours of direct printing. (G and H) SEM images of EGaIn after 7 hours of reconfiguration. Scale bars, 200 μm. Young-Geun Park et al. Sci Adv 2019;5:eaaw2844 Copyright © 2019 The Authors, some rights reserved; exclusive licensee American Association for the Advancement of Science. No claim to original U.S. Government Works. Distributed under a Creative Commons Attribution NonCommercial License 4.0 (CC BY-NC).

Download ppt "Fig. 3 The electrical contact of direct-printed and reconfigured liquid metals. The electrical contact of direct-printed and reconfigured liquid metals."

Similar presentations

Fig. 4 3D reconfiguration of liquid metals for electronics.

Fig. 4 3D reconfiguration of liquid metals for electronics.
Fig. 5 MicroLED array with 3D liquid metal interconnects.

Fig. 5 MicroLED array with 3D liquid metal interconnects.
Fig. 2 Transport properties of a BP transistor at low temperature.

Fig. 2 Transport properties of a BP transistor at low temperature.
Fig. 2 Reconfiguration of liquid metals into 3D structures.

Fig. 2 Reconfiguration of liquid metals into 3D structures.
Fig. 1 High-resolution printing of liquid metals.

Fig. 1 High-resolution printing of liquid metals.
Fig. 2 Global production, use, and fate of polymer resins, synthetic fibers, and additives (1950 to 2015; in million metric tons). Global production, use,

Fig. 2 Global production, use, and fate of polymer resins, synthetic fibers, and additives (1950 to 2015; in million metric tons). Global production, use,
Fig. 2 CFD results. CFD results. Results of CFD simulations in horizontal (left column) and vertical (right column) cross-sections. All models oriented.

Fig. 2 CFD results. CFD results. Results of CFD simulations in horizontal (left column) and vertical (right column) cross-sections. All models oriented.
Fig. 3 Vibrational spectra of human bones from the Copper Age (Scoglietto cave, Italy). Vibrational spectra of human bones from the Copper Age (Scoglietto.

Fig. 3 Vibrational spectra of human bones from the Copper Age (Scoglietto cave, Italy). Vibrational spectra of human bones from the Copper Age (Scoglietto.
Vibrational spectra of medieval human bones (Leopoli-Cencelle, Italy)

Vibrational spectra of medieval human bones (Leopoli-Cencelle, Italy)
Fig. 1 Pump-probe signatures of vermilion (red HgS), black HgS, and metallic Hg. Pump-probe signatures of vermilion (red HgS), black HgS, and metallic.

Fig. 1 Pump-probe signatures of vermilion (red HgS), black HgS, and metallic Hg. Pump-probe signatures of vermilion (red HgS), black HgS, and metallic.
Fig. 5 Thermal conductivity of n-type ZrCoBi-based half-Heuslers.

Fig. 5 Thermal conductivity of n-type ZrCoBi-based half-Heuslers.
Fig. 1 Map of water stress and shale plays.

Fig. 1 Map of water stress and shale plays.
Fig. 2 Fluidic and electrical characteristics of the wireless optofluidic system. Fluidic and electrical characteristics of the wireless optofluidic system.

Fig. 2 Fluidic and electrical characteristics of the wireless optofluidic system. Fluidic and electrical characteristics of the wireless optofluidic system.
Fig. 1 Examples of experimental stimuli and behavioral performance.

Fig. 1 Examples of experimental stimuli and behavioral performance.
Fig. 1 Wireless, battery-free neural cuff for programmable pharmacology and optogenetics. Wireless, battery-free neural cuff for programmable pharmacology.

Fig. 1 Wireless, battery-free neural cuff for programmable pharmacology and optogenetics. Wireless, battery-free neural cuff for programmable pharmacology.
Fig. 4 Resynthesized complex boronic acid derivatives based on different scaffolds on a millimole scale and corresponding yields. Resynthesized complex.

Fig. 4 Resynthesized complex boronic acid derivatives based on different scaffolds on a millimole scale and corresponding yields. Resynthesized complex.
Fig. 1 Mean and median RCR (Relative Citation Ratio) of Roadmap Epigenomics Program research articles for each year. Mean and median RCR (Relative Citation.

Fig. 1 Mean and median RCR (Relative Citation Ratio) of Roadmap Epigenomics Program research articles for each year. Mean and median RCR (Relative Citation.
Fig. 2 Influence of the Roadmap Epigenomics Program on the field of epigenomics research. Influence of the Roadmap Epigenomics Program on the field of.

Fig. 2 Influence of the Roadmap Epigenomics Program on the field of epigenomics research. Influence of the Roadmap Epigenomics Program on the field of.
Fig. 3 Glucose- and structure-dependent insulin release.

Fig. 3 Glucose- and structure-dependent insulin release.
Fig. 3 Rotation experiment, setup.

Fig. 3 Rotation experiment, setup.

Similar presentations

Ads by Google