Presentation is loading. Please wait.

Presentation is loading. Please wait.

Fig. 2 Pulsed THz imaging. Pulsed THz imaging. (A) Electric field of our THz pulse recorded in the time domain using electro-optic sampling. The arrow.

Published byHaldis Edvardsen Modified over 4 years ago

Similar presentations

Presentation on theme: "Fig. 2 Pulsed THz imaging. Pulsed THz imaging. (A) Electric field of our THz pulse recorded in the time domain using electro-optic sampling. The arrow."— Presentation transcript:

1 Fig. 2 Pulsed THz imaging. Pulsed THz imaging. (A) Electric field of our THz pulse recorded in the time domain using electro-optic sampling. The arrow shows the measurement point, at the peak of the THz field, for which images are recorded. (B) Normalized Fourier transform of our THz pulse. The central wavelength is approximately 375 μm, with a full width at half maximum of 840 μm. (C) Optical image of a resolution test target. Au marks the regions spanned by the gold film, whereas the regions that are marked “Si” show the exposed silicon wafer. (D) Image (128 × 128 THz) of the resolution test target in (C) obtained via a full set of Hadamard masks. The pixels are 20 μm in size. The arrows indicate the imaging resolution, evaluated as the maximal distance between the arms of the cartwheel for which the image contrast is diminished due to diffraction. Rayko Ivanov Stantchev et al. Sci Adv 2016;2:e Copyright © 2016, The Authors

Download ppt "Fig. 2 Pulsed THz imaging. Pulsed THz imaging. (A) Electric field of our THz pulse recorded in the time domain using electro-optic sampling. The arrow."

Similar presentations

Interference & Diffraction

Interference & Diffraction
Quantitative measurement of plastic strain field at a fatigue crack tip by Y. Yang, M. Crimp, R. A. Tomlinson, and E. A. Patterson Proceedings A Volume.

Quantitative measurement of plastic strain field at a fatigue crack tip by Y. Yang, M. Crimp, R. A. Tomlinson, and E. A. Patterson Proceedings A Volume.
From: An Automated Reference Frame Selection (ARFS) Algorithm for Cone Imaging with Adaptive Optics Scanning Light Ophthalmoscopy Trans. Vis. Sci. Tech..

From: An Automated Reference Frame Selection (ARFS) Algorithm for Cone Imaging with Adaptive Optics Scanning Light Ophthalmoscopy Trans. Vis. Sci. Tech..
The Image The pixels in the image The mask The resulting image 255 X

The Image The pixels in the image The mask The resulting image 255 X
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. 2 Rydberg-EIT spectra without control pulse.

Fig. 2 Rydberg-EIT spectra without control pulse.
Fig. 1 High-resolution printing of liquid metals.

Fig. 1 High-resolution printing of liquid metals.
Fig. 6 Long-term THW test and wear analysis.

Fig. 6 Long-term THW test and wear analysis.
Fig. 3 Evolution of absorber with annealing.

Fig. 3 Evolution of absorber with annealing.
Fig. 2 In situ GIXD analysis tracing the thermal history of the 5CB-NOBOW 50:50 mixture in AAO upon cooling (dAAO = 60 nm). In situ GIXD analysis tracing.

Fig. 2 In situ GIXD analysis tracing the thermal history of the 5CB-NOBOW 50:50 mixture in AAO upon cooling (dAAO = 60 nm). In situ GIXD analysis tracing.
Fig. 2 Characterization of fs-laser–induced degradation.

Fig. 2 Characterization of fs-laser–induced degradation.
Fig. 3 UV-induced vermilion degradation.

Fig. 3 UV-induced vermilion degradation.
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. 1 Bands and hybridization in graphene-encapsulated WSe2 measured by μ-ARPES. Bands and hybridization in graphene-encapsulated WSe2 measured by μ-ARPES.

Fig. 1 Bands and hybridization in graphene-encapsulated WSe2 measured by μ-ARPES. Bands and hybridization in graphene-encapsulated WSe2 measured by μ-ARPES.
Fig. 1 Crystal and electronic structure of WTe2.

Fig. 1 Crystal and electronic structure of WTe2.
Fig. 3 Mechanism and result of the super-resolution RLP.

Fig. 3 Mechanism and result of the super-resolution RLP.
Fig. 2 Reference-fixing experiment, results.

Fig. 2 Reference-fixing experiment, results.
Fig. 3 ACID isosurfaces of the model complex 2′ separated into the π- and σ-contribution. ACID isosurfaces of the model complex 2′ separated into the π-

Fig. 3 ACID isosurfaces of the model complex 2′ separated into the π- and σ-contribution. ACID isosurfaces of the model complex 2′ separated into the π-
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.

Similar presentations

Ads by Google