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Design principle and experimental configuration of meta-holography

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Presentation on theme: "Design principle and experimental configuration of meta-holography"— Presentation transcript:

1 Fig. 2 Design principle and experimental configuration of meta-holography.
Design principle and experimental configuration of meta-holography. (A) Design principle for the holographic imaging. (B) Experimental setup for the reconstruction process. QWP, quarter-wave plate; CCD, charge-coupled device. (C) Phase diagram of the meta-hologram calculated by the GS algorithm corresponding to the flower holographic image. Scale bar, 500 μm. Color bar, phase shift. (D) Scanning electron microscope image of the nanoslit antennas. Scale bar, 1 μm. Xiong Li et al. Sci Adv 2016;2:e Copyright © 2016, The Authors

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Date of download: 6/23/2016 Copyright © 2016 SPIE. All rights reserved. Experimental setup: LD, laser diode; CCD, charge-coupled device; PC, personal computer;

Date of download: 6/23/2016 Copyright © 2016 SPIE. All rights reserved. Experimental setup: LD, laser diode; CCD, charge-coupled device; PC, personal computer;
Date of download: 6/27/2016 Copyright © 2016 SPIE. All rights reserved. Experimental configuration. (a), Setup. LD, laser diode; BS, beam splitter; F,

Date of download: 6/27/2016 Copyright © 2016 SPIE. All rights reserved. Experimental configuration. (a), Setup. LD, laser diode; BS, beam splitter; F,
Self-folding triangular devices at two scales.

Self-folding triangular devices at two scales.
Biohybrid structural color hydrogel films with autonomic iridescence displaying. Biohybrid structural color hydrogel films with autonomic iridescence displaying.

Biohybrid structural color hydrogel films with autonomic iridescence displaying. Biohybrid structural color hydrogel films with autonomic iridescence displaying.
Fig. 5 In vivo MIP imaging of lipid and protein in C. elegans.

Fig. 5 In vivo MIP imaging of lipid and protein in C. elegans.
Fig. 1 Characterization of decellularized zECM.

Fig. 1 Characterization of decellularized zECM.
Fig. 2 Rydberg-EIT spectra without control pulse.

Fig. 2 Rydberg-EIT spectra without control pulse.
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 Electronically conducting xylem wires.

Fig. 2 Electronically conducting xylem wires.
Fig. 1 Characterization of the device structure.

Fig. 1 Characterization of the device structure.
Fig. 3 The electrical contact of direct-printed and reconfigured liquid metals. The electrical contact of direct-printed and reconfigured liquid metals.

Fig. 3 The electrical contact of direct-printed and reconfigured liquid metals. The electrical contact of direct-printed and reconfigured liquid metals.
Fig. 1 Experimental setup.

Fig. 1 Experimental setup.
Fig. 3 Performance of HoloConvNet.

Fig. 3 Performance of HoloConvNet.
Fig. 2 Self-assembly of NPs in the Ch-CNC droplets.

Fig. 2 Self-assembly of NPs in the Ch-CNC droplets.
Fig. 1 NP-free Ch-CNC droplets.

Fig. 1 NP-free Ch-CNC droplets.
Fig. 3 Mechanism and result of the super-resolution RLP.

Fig. 3 Mechanism and result of the super-resolution RLP.
Fig. 6 Different models of assembly of Ch-CNC droplets laden with Fe3O4NPs under magnetic field. Different models of assembly of Ch-CNC droplets laden.

Fig. 6 Different models of assembly of Ch-CNC droplets laden with Fe3O4NPs under magnetic field. Different models of assembly of Ch-CNC droplets laden.
Tuning of the conductance plateau of device 1 and quantum dot model

Tuning of the conductance plateau of device 1 and quantum dot model
Experimental supercurrent and corresponding quantum dot modeling

Experimental supercurrent and corresponding quantum dot modeling

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