Sentence examples for cable losses from inspiring English sources
Cable losses were measured and accounted for in the calculations.
The main driver of losses growth with the power is the cable losses, as the transformer losses increase slowly.
In order to compensate for cable losses, the Tx section was calibrated so that the transmit power at the antenna terminal is 0 dBm (i.e. 3 dBm EIRP).
Based on the transmitted power required at the antenna, the PA has to be biased in a way to overcome any feeder cable losses.
In most sites, feeder cable losses of about 50% (3 dB) are assumed [8], requiring the RF module to transmit at higher power (double) in order to ensure the desired power at the antenna.
In particular, the results of the computer simulations are employed to characterise the type and extent of damage on the pylon and deck, and additionally to investigate the potential cable loss scenarios associated with a loss of anchorage.
It should be mentioned here that the listed number of the PV panels is calculated based on the actual DC power produced after identifying the power losses (temperature loss factor, battery loss factor, cable loss factor, and mismatch loss factor).
The mixer modular is used to down-convert the received signals at the Rx to a lower frequency to reduce the cable loss and phase variation at the long cable (9 m).
The battery power, denoted by (P_mathrm{batt}), can be expressed as [3] begin{aligned} P_mathrm{batt}=P_text {m}+L_text {c}+(P_text {m}- P_text {p}) end{aligned} (2 where (L_text {c}) is the cable loss, and (P_text {p}) is the power absorbed by propeller.
cable loss) 14 dBi Antenna configuration Tx-2, Rx-2 Noise figure 5 dB Antenna pattern (horizontal) A = −min[12 (θ/θ3dB)2, Am] θ3dB = 70° and Am = 25 dB UE parameters Maximum transmit power 23 dBm Antenna configuration Tx-1, Rx-2 Antenna gain 0 dBi Noise figure 9 dB RN parameters Maximum transmit power 30 dBm Antenna configuration Tx-2, Rx-2 Antenna gain (incl.
