Sentence examples for bandwidth in the range from inspiring English sources
When DFT is used to implement time-to-frequency transform, the subband bandwidth in the range of low frequency is much narrower than that in the high frequency range due to the uniform sampling.
The processing strategy for the InSAR data is basically the same as that in Maeda et al. (2016) with the exception of the new center frequency and narrower bandwidth in the range axis.
Hence, after subtracting non-P2P traffic from the total bandwidth, peers can provide shareable bandwidth in the range from several kbps to around 1000 kbps for shared resources in overlay networks.
Light from a swept source (Axsun Technologies Ltd, 1310 nm center wavelength, 12 mm coherence length, 106 nm FWHM bandwidth in the range (1256.6 nm–1362.8 nm) with an average output power of 18 mW and a scanning rate of 50 kHz) is provided at its FC/APC receptacle.
Electrospray ionization in the positive mode was used: cap voltage of 4000 V, gas temperature of 325 °C, drying gas of 12 L/min, nebulizer of 55 psi, and fragmentor voltage of 200 V. UV chromatograms were acquired with a diode array detector (DAD) operating with a 10 Hz acquisition rate and a 2 nm bandwidth in the range of 205 500 nm.
The high crystalline MLG sheets on nickel were confirmed by Raman spectroscopy that revealed average G-bandwidths in the range of ∼20 cm−1.
The gaps among Xnaive, Xuni, and Xopt are larger when the available bandwidth is in the range of 1500-3000 timeslots/s.
According to the design requirements of the SPWII, the errors of the wind velocity and the atmospheric temperature are less than 5 m/s and 5 K when the incident wavelength bandwidth is in the range of [−3.08, 3.08] nm.
Note that if we initially set QP e = 30 (green line), analysis shows that a QP e = 22 (pink line) provides better quality when user bandwidth is in the range of 600 5300 kbps (Figure 7a) or 500 3600 kbps (Figure 7b).
The introduction of bandwidth in the GHz range, as well as large antenna arrays, increase transport data rates beyond what can be supported with current or near-future transport technology at feasible costs.
Investigations of microwave absorbing properties indicate that both mushroom-like and corolla-like Fe3O4@MnO2 composite microspheres have very broad absorbing bandwidth in the frequency range of 2 18 GHz, and the corolla-like composites exhibit the strongest absorbing capability with the minimum reflection loss value of −48.5 dB (11.2 GHz), which has rarely been reported yet.
