Sentence examples for db and a minimum from inspiring English sources
Simulation results of a 0.18-μm CMOS implementation show that the proposed LNA provides a maximum voltage gain of 25.02 dB and a minimum NF of 2.37 dB from 0.1 to 2.25 GHz.
This paper reports the design and measurement of a UWB receiver with a designed and measured linearity of 17 dBm, a gain of 30.5 dB and a minimum NF of 4.5 dB, which make it suitable for implantable radio applications.
The simulation results show a flat gain (S21>10 dB) with a good input impedance matching less than –10 dB and a minimum noise figure of 2.9 dB over the entire band.
The value is limited to a maximum DCRmax=60 dB and a minimum DCRmin=-10 dB before applying (54).
After limitation of SSDR m to a maximum of SSDRmax=30 dB and a minimum of SSDRmin=-10 dB, the segmental SSDR is proposed to be computed by SSDR seg, m = 1 C ( Λ m ) ∑ λ ∈ Λ m SSDR m.
Consequently, the as-designed composites with flaky CIPs may exhibit reflection loss (RL) < −6 dB in 2.5 8 GHz and a minimum RL of −11 dB at 4 GHz when the thickness is 1.2 mm.
When using this standard OTS power amplifier, as depicted in Figure 15, the optimum operating point for an OM-OFDM transmission is at a PAPR of 10 dB (where a minimum decision metric occurs) and for the ACE and clipped OFDM transmission the optimum operating points are 12 dB.
The ASD target was being varied from 2.6 dB to a minimum value with a 0.2 dB step.
Conductive hearing loss was defined as an air-bone gap of ≥15 dB at a minimum of two frequencies in either ear.
Post-layout simulation shows that LNA achieves a maximum voltage gain of 13.7 dB, a minimum noise figure of 2.5 dB, better than −10dB S11 and +4.5 to +9.5dBm IIP3 across the entire bandwidth.
With the aid of source degenerated inductor, the simulation results show input return loss S11<−10dB in the frequency range of 3.1 9.7 GHz, a noise figure (NF) less than 1.41 dB, and the minimum noise figure (NFmin) below 1.034 dB in the frequency range of 3.1 10.6 GHz.
