The phrase "affect the sensing performance" is correct and usable in written English.
It can be used when discussing how certain factors or changes influence the effectiveness or accuracy of sensing technologies or systems.
Example: "Environmental conditions can significantly affect the sensing performance of the device, leading to inaccurate readings."
Alternatives: "influence the sensing capability" or "impact the sensing efficiency."
The sparsity order, the received signal-to-noise ratio, and the compression rate are identified as three key factors that affect the sensing performance.
Our studies implied that the morphologies of micro/nanostructures could strongly affect the sensing performance, and hence, the effective design of gas sensors with semiconducting metal oxides could be realized.
Based on extensive analysis and simulation, we identify the sparsity order of the wideband spectrum, the received signal-to-noise ratio (SNR) of the primary signal, and the compression rate employed in sampling as three key factors that affect the sensing performance.
Based on the extensive analysis and simulation above, we identify ρ, γ k, and δ as three key factors that affect the sensing performance of the proposed scheme.
This could affect the sensing performances of devices fabricated using tin dioxide nanowires as sensing elements.
It was found that the composition of nanomaterial coating on the developed sensors strongly affected the sensing performance.
As part of the front-end the automatic gain control (AGC) circuitry mainly affects the sensing performance as strong adjacent signals lift the noise level.
The central factors affecting the sensing performances of gas sensors depend not only on the structure, dimension, size, and morphology of sensing materials but also on their composition [6,7].
The crystal structures of the AB-2POii2PSii[H, CH3, Ph]·MeOH and the AC-2POii2PSii[H, CH3, Ph]·MeOH complexes show that the key factors affecting the sensing performances toward alcohols of these new class of mixed-bridged phosphonate cavitands are synergistic CH π and H-bonding interactions, as in the parent tetraphosphonate cavitands.
In continuous spectrum sensing with full-duplex communication, the consideration of self-interference is particulary important since the self-interference can affect the sensing outcome and degrade SUs performance.
There are many factors that could affect the hydrogen sensing performance of the Al- and V-doped TiO2 nanofilms.
