The phrase "a function of detector" is not entirely correct in English as it lacks clarity and specificity.
It can be used in contexts related to technology or science, particularly when discussing the role or purpose of a detector in a system or process.
Example: "The sensitivity of the system is a function of the detector used in the experiment."
Alternatives: "a characteristic of the detector" or "a role of the detector".
The dependence of charge cloud drift time on precise position of interaction has been measured as a function of detector biasing conditions.
We have developed a theoretical model of this detector, to enable the optimization of the read-out structure as a function of detector dimensions.
The response time of the devices have been characterized using Nd YAG laser, optical parametric generator with pulse width <25 ps and fast oscilloscope with suitable transimpedance amplifier as a function of detector design, temperature and bias.
From pulse-height measurements of 241Am as a function of detector bias, we derive the electron mobility lifetime product at −2°C to be (2.9±0.2)×10−4 cm2.9±0.2
It can be exploited to identify compounds prone to polymerise and to measure variation of compounds as a function of detector construction materials and additives in the gas mixture.
The simulated results are compared with charge collection spectra obtained with 1064 nm laser pulses on devices irradiated with 23 GeV protons as a function of detector bias voltage.
The response of the detector as a function of the detector bias and discrimination threshold has been investigated for two measurement configurations: irradiation from the strip-side and from the back-side.
For this purpose the analysis is focused on the noise performances of the analog section, as a function of the detector capacitance, and of the signal peaking time.
We compare the detailed noise measurement and quantitative analysis of the noise level in each device as a function of the detector resistance.
Equations 21 and 22 represent the ROC curve, which is a function of the detector threshold, channel drop probabilities, number of successful transmissions for each sensor (z), number of transmission slots (L), and measurement signal-to-noise ratios (μ / σ s ).
A calibration curve is assessed as a function of the detector response at known concentrations of analyte: the assay's linear range (using a particular regression formula) is the lowest to the highest diluted concentration.
