Parasitic integration for a single supply differential capacitive sensing technique is presented in this paper. In real capacitive sensor measurement, parasitic impedance exists in its measurement. This paper objective is to study the effect of capacitive and resistive parasitic to the capacitive sensor circuit. The differential capacitive sensor circuit derivation theory is elaborated first. Then, comparison is made using simulation. Test was carried out using frequency from 40 kHz up to 400 kHz. Result is presented and have shown good linearity of 0.99984 at 300 kHz, R-squared value. This capacitive sensor is expected to be used for energy harvesting application
Abstract: The capacitance level measurement process involves first of all knowing the capacitance of...
Capacitive sensor manufacturing processes are rarely compatible with CMOS technologies and, thus, mo...
There is a need for capacitance to voltage converters (CVC's) for differential capacitive sensors li...
Parasitic integration for a single supply differential capacitive sensing technique is presented in ...
A single supply differential capacitive sensing technique is presented in this paper with the focus...
A differential capacitive sensing technique is discussed in this paper. The differential capacitive ...
This paper presents a single supply differential capacitive sensing technique. Focus is on the anal...
This paper presents a single supply differential capacitive sensing technique suitable to be used wi...
A differential capacitive sensing technique is discussed in this paper. The differential capacitive ...
Differential capacitive sensing technique has gained popularity in capacitance measuring system due ...
We propose a circuit to directly connect a differential capacitive sensor to a microcontroller unit ...
This paper presents a capacitive sensor of current-mode where differential capacitors are used.For i...
Dielectric sensing based on capacitive measurement technology is a favourable measurement approach i...
A multi-electrode differential capacitive sensing circuit is designed and realized for the read-out ...
This paper presents a low power capacitance to voltage converter (CVC) circuit using two differentia...
Abstract: The capacitance level measurement process involves first of all knowing the capacitance of...
Capacitive sensor manufacturing processes are rarely compatible with CMOS technologies and, thus, mo...
There is a need for capacitance to voltage converters (CVC's) for differential capacitive sensors li...
Parasitic integration for a single supply differential capacitive sensing technique is presented in ...
A single supply differential capacitive sensing technique is presented in this paper with the focus...
A differential capacitive sensing technique is discussed in this paper. The differential capacitive ...
This paper presents a single supply differential capacitive sensing technique. Focus is on the anal...
This paper presents a single supply differential capacitive sensing technique suitable to be used wi...
A differential capacitive sensing technique is discussed in this paper. The differential capacitive ...
Differential capacitive sensing technique has gained popularity in capacitance measuring system due ...
We propose a circuit to directly connect a differential capacitive sensor to a microcontroller unit ...
This paper presents a capacitive sensor of current-mode where differential capacitors are used.For i...
Dielectric sensing based on capacitive measurement technology is a favourable measurement approach i...
A multi-electrode differential capacitive sensing circuit is designed and realized for the read-out ...
This paper presents a low power capacitance to voltage converter (CVC) circuit using two differentia...
Abstract: The capacitance level measurement process involves first of all knowing the capacitance of...
Capacitive sensor manufacturing processes are rarely compatible with CMOS technologies and, thus, mo...
There is a need for capacitance to voltage converters (CVC's) for differential capacitive sensors li...