A LPFG with 13.78 nm base width of transmission spectrum and 0⿿23.2 dB of transmission depth was designed by using commercial software.
Two transmission peaks with narrow bandwidth and high transmission depth is attributed to the existence of grooves in the designed structure.
Key design insights and tradeoffs are considered for various parameters including the operating frequency, the transmission depth, the size of the transmitter, the impedance and the aperture efficiency of the miniaturized receiver, and the interface between the receiver and the power recovery chain on the implant.
In the process of information transmission, the depth, pump pressure, pulse width, and flow valve open four factors together, because the depth and pump pressure by the engineering conditions, so the quantitative flow valve opening and pulse width interval is the important factors that should be identified before work.
Standard ultrasound imaging techniques rely on sweeping a focused beam across a field of view; however, outside the transmission focal depth, image resolution and contrast are degraded.
In particular, the EO tunability of 0.17 nm/V persists for all three cases and the transmission modulation depth values are 85%, 83%, and 77% for θ = 1°, 3°, and 5°, respectively.
For successive 3D video transmission, efficient depth post-filtering technique should be considered.
Increasing strain makes the transmission peak depth of the PCF-based LPG with periodic micro-ridges strong because of the photoelastic effect.
In particular, MPEG-2 transport stream standard used in DVB broadcasting allows transmitting auxiliary streams along with main video, which makes possible to enrich a conventional digital video transmission with depth information without hampering the compatibility with single-view receivers.
Experiment 2 analyzed the compressed and encoded multimedia streaming content deterministic structure, compressed video frame structure, coding matrix, and the user mobility affects the video frame transmission in-depth.
Depth transmission (T d ) was estimated as the ratio of absorbed dose measured at any depth (D d ) and absorbed dose that was measured at buildup depth (D m ) [8, 10, 16].
