Presentation is loading. Please wait.

Presentation is loading. Please wait.

Fig. 2 The working principle and electrical output modulating of BD-TENG by changing the materials of friction layers. The working principle and electrical.

Published byCornelius McDaniel Modified over 5 years ago

Similar presentations

Presentation on theme: "Fig. 2 The working principle and electrical output modulating of BD-TENG by changing the materials of friction layers. The working principle and electrical."— Presentation transcript:

1 Fig. 2 The working principle and electrical output modulating of BD-TENG by changing the materials of friction layers. The working principle and electrical output modulating of BD-TENG by changing the materials of friction layers. (A) Schematic diagram of the working principle of BD-TENG. (B) Relative ability to gain or lose electrons of the selected BDPs. All candidate materials were coupled with Kapton film, and the transferred charges were recorded as the sign of the relative ability to gain or lose electrons. (C) Output performance of BD-TENG with different friction layers. Top: Voc. Bottom: Isc. Qiang Zheng et al. Sci Adv 2016;2:e Copyright © 2016, The Authors

Download ppt "Fig. 2 The working principle and electrical output modulating of BD-TENG by changing the materials of friction layers. The working principle and electrical."

Similar presentations

Charging by Friction pp. 397 - 398. Learning Goals Be able to use the electrostatic series to predict the charges of objects rubbed together Be able to.

Charging by Friction pp Learning Goals Be able to use the electrostatic series to predict the charges of objects rubbed together Be able to.
Electronegativity.

Electronegativity.
Self-folding triangular devices at two scales.

Self-folding triangular devices at two scales.
Fig. 1 Device structure, typical output performance, and cytocompatibility of BD-TENG. Device structure, typical output performance, and cytocompatibility.

Fig. 1 Device structure, typical output performance, and cytocompatibility of BD-TENG. Device structure, typical output performance, and cytocompatibility.
Fig. 2 New bathymetry. New bathymetry. (A) Uninterpreted bathymetry. Black lines represent seismic profiles acquired. The white line shows the position.

Fig. 2 New bathymetry. New bathymetry. (A) Uninterpreted bathymetry. Black lines represent seismic profiles acquired. The white line shows the position.
Fig. 4 Estimations of nonlinear functionals of a single-qubit state with the quantum Fredkin gate. Estimations of nonlinear functionals of a single-qubit.

Fig. 4 Estimations of nonlinear functionals of a single-qubit state with the quantum Fredkin gate. Estimations of nonlinear functionals of a single-qubit.
Fig. 1 Cyclic voltammetric and electrochemical modeling of KOH-LiOH-CoO eutectic systems. Cyclic voltammetric and electrochemical modeling of KOH-LiOH-CoO.

Fig. 1 Cyclic voltammetric and electrochemical modeling of KOH-LiOH-CoO eutectic systems. Cyclic voltammetric and electrochemical modeling of KOH-LiOH-CoO.
Fig. 4 3D reconfiguration of liquid metals for electronics.

Fig. 4 3D reconfiguration of liquid metals for electronics.
Fig. 2 Transport properties of a BP transistor at low temperature.

Fig. 2 Transport properties of a BP transistor at low temperature.
Fig. 2 The arrangements of metal core and ligands.

Fig. 2 The arrangements of metal core and ligands.
Fig. 1 Demographic shifts in knowledge producers.

Fig. 1 Demographic shifts in knowledge producers.
Fig. 4 Electrical properties and patterning of the stretchable PEDOT/STEC (STEC content is 45.5 wt % for all). Electrical properties and patterning of.

Fig. 4 Electrical properties and patterning of the stretchable PEDOT/STEC (STEC content is 45.5 wt % for all). Electrical properties and patterning of.
Fig. 4 First-principles DFT calculations.

Fig. 4 First-principles DFT calculations.
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. 3 Faculty placement distributions.

Fig. 3 Faculty placement distributions.
Fig. 2 CdS thin films with three different shapes.

Fig. 2 CdS thin films with three different shapes.
Fig. 2 Fluence-dependent emission characteristics of CH3NH3PbI3 recorded at 15 and 300 K. Fluence-dependent emission characteristics of CH3NH3PbI3 recorded.

Fig. 2 Fluence-dependent emission characteristics of CH3NH3PbI3 recorded at 15 and 300 K. Fluence-dependent emission characteristics of CH3NH3PbI3 recorded.
Fig. 4 Application of the DC-TENG to drive electronic devices.

Fig. 4 Application of the DC-TENG to drive electronic devices.
Fig. 3 Scan rate effects on the layer edge current.

Fig. 3 Scan rate effects on the layer edge current.
Fig. 1 TED design and fabrication process.

Fig. 1 TED design and fabrication process.

Similar presentations

Ads by Google