611 to 620 of 620 Results
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MD5: fb662688c47c1a362c4e04690f23fd72
Figure 4(d): THz-H hysteresis in Quartz/Co40Fe40B20(5nm): THz-H hysteresis measured using the TSM system. An opposite phase of THz emission was observed in Qz/CoFeB compared to emission from Qz/CoFeB/Pt or Qz/W/CoFeB/Pt. The effect arises due to spin transport in the negative dir... |
Unknown - 89.7 KB -
MD5: 165d89385c80d9fd40c92ad0f1f1d860
Figure S2(a): Relation between THz amplitude and charge current when the applied magnetic field is parallel to the FM easy axis in CoFeB/Pt : Theoretically calculated terahertz pulse at different field-dependent magnetization states. THz pulse shifted in time axis to show clear r... |
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MD5: 99062b69287d7da324c5b546418dba87
Figure S2(b): Relation between THz amplitude and charge current when the applied magnetic field is parallel to the FM easy axis in CoFeB/Pt : Measured THz pulse at different field-dependent magnetization states |
Unknown - 87.4 KB -
MD5: f4919ec25b1a39f0460f76880e249c2b
Figure S2(c): Relation between THz amplitude and charge current when the applied magnetic field is parallel to the FM easy axis in CoFeB/Pt : Theoretically calculated transient charge current manifested in the HM layer, at different magnetization states |
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MD5: 32984bfa0e05fc5ad7c547572e713014
Figure S2(d): Relation between THz amplitude and charge current when the applied magnetic field is parallel to the FM easy axis in CoFeB/Pt : Solid black and blue lines demonstrates linear relation between the THz pulse amplitude and charge current amplitude. Experimentally obser... |
Unknown - 88.3 KB -
MD5: 59b966db15f06b6e3fe9cbb81853b5a3
Figure S5: Relation between THz emission from Qz/W/CoFeB/Pt, Qz/CoFeB/Pt, and Qz/CoFeB, for 0.15mJ/cm2 at saturation magnetic field of 100 Oe. |
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MD5: b9469c9a0c31f677fd7bd2b897bdd941
Figure S3(b): AFM file for Qz/W/CoFeB/Pt |
Plain Text - 1.1 KB -
MD5: 3b0b52de1757294642707ba3a7e14e47
Figure S3(b): AFM roughness calculation for Qz/W/CoFeB/Pt |
Mar 23, 2022 - THz metamaterials
Longqing, Cong; Han, Jiaguang; Zhang, Weili; Singh, Ranjan, 2022, "Replication Data for: Temporal loss boundary engineered photonic cavity", https://doi.org/10.21979/N9/EXZCGV, DR-NTU (Data), V1
Losses are ubiquitous and unavoidable in nature inhibiting the performance of most optical processes. Manipulating losses to adjust the dissipation of photons is analogous to braking a running car that is as important as populating photons via a gain medium. Here, we introduce th... |
Unknown - 8.8 MB -
MD5: 053a2b9877a3bddd18e2761f7170ccd0
Data corresponding to all the figures. Experimental and simulation data |
