PMC:7152911 / 100180-102285 JSONTXT 8 Projects

Annnotations TAB TSV DIC JSON TextAE Lectin_function

Id Subject Object Predicate Lexical cue
T823 0-131 Sentence denotes In EIS the impedance and phase angle of the system are measured as a function of the frequency of the applied electrical potential.
T824 132-367 Sentence denotes EIS is a diverse electrochemical method, which can be done as a faradaic or non-faradaic process, and enables the study of intrinsic material properties, experiment-specific processes, or biorecognition events at the electrode surface.
T825 368-490 Sentence denotes EIS is often performed using an applied low-amplitude sinusoidal electrical potential and a three-electrode configuration.
T826 491-693 Sentence denotes Equivalent circuit models are commonly fit to experimental impedance and phase angle data to interpret the electrochemical process in terms of passive circuit elements, such as resistors and capacitors.
T827 694-949 Sentence denotes For example, the electric double layer is typically modeled as a capacitive element, while the resistance to faradaic charge transfer at the electrode-electrolyte interface is represented as a resistor, often referred to as the charge transfer resistance.
T828 950-1198 Sentence denotes Additional circuit elements, such as constant-phase or Warburg elements, can also be included to represent other features of the electrochemical cell and process, such transport characteristics of the species at the electrode-electrolyte interface.
T829 1199-1296 Sentence denotes The Randles model is a commonly used equivalent circuit for interpretation of biosensor EIS data.
T830 1297-1503 Sentence denotes The circuit consists of an electrolyte resistance in series with a parallel combination of the double-layer capacitance with the charge transfer resistance and the Warburg impedance element (Randles, 1947).
T831 1504-1586 Sentence denotes Variations of this model have been formulated for a variety of biosensing studies.
T832 1587-1829 Sentence denotes For example, the equivalent circuit model and associated Nyquist plot for electrochemical detection of S. typhimurium using EIS with a poly(pyrrole-co-3-carboxyl-pyrrole) copolymer supported aptamer can be found in Fig. 5c (Sheikhzadeh et al.
T833 1830-1836 Sentence denotes 2016).
T834 1837-2098 Sentence denotes The equivalent circuit model consists of the solution resistance, charge transfer resistance at the copolymer-aptamer/electrolyte interface, and constant phase element for the charge capacitance at the copolymer-aptamer/electrolyte interface (Sheikhzadeh et al.
T835 2099-2105 Sentence denotes 2016).