From this, the mutual capacitance between two objects can be defined by solving for the total charge Q and using .

When mutual capacitance occurs adversely (unintentionally) between transmission lines, this is an example of crosstalk.

There are two types of PCT: mutual capacitance and self-capacitance.

Bringing a finger or conductive stylus near the surface of the sensor changes the local electric field which reduces the mutual capacitance.

Mutual capacitance allows multi-touch operation where multiple fingers, palms or styli can be accurately tracked at the same time.

For Wireless Power Systems, the simplest model for capacitive coupling involves two self-capacitances and one mutual capacitance.

It is actually mutual capacitance between the individual turns of the coil and is a form of stray, or parasitic capacitance.

Self-capacitance sensors can have the same X-Y grid as mutual capacitance sensors, but the columns and rows operate independently.

Since no actual device holds perfectly equal and opposite charges on each of the two "plates", it is the mutual capacitance that is reported on capacitors.

In electrical circuits, the term 'capacitance' is usually a shorthand for the 'mutual capacitance' between two adjacent conductors, such as the two plates of a capacitor.

Mutual capacitance is intentional or unintentional capacitance that occurs between two charge-holding objects or conductors, in which the current passing through one passes over into the other.

This method produces a stronger signal than mutual capacitance, but it is unable to resolve accurately more than one finger, which results in "ghosting", or misplaced location sensing.

Its temperature independent response makes it well suited for automotive applications and the mutual capacitance touch sensing is capable of accurately detecting touch in high-humidity environments such as rain or snow.

In its general form the coupling is described by a capacitance matrix C. Where C are self-capacitance coefficients and C i j are mutual capacitance coefficients.

Here are the inductance and the capacitance of the first circuit, are the inductance and the capacitance of the second circuit, and are mutual inductance and mutual capacitance.

Xu, Xing-Lei; Li, Hong-Qi; Wang, Ji-Suo Quantum fluctuations of mesoscopic damped double resonance RLC circuit with mutual capacitance inductance coupling in thermal excitation state.

One of the early implementations of mutual capacitance touchscreen technology was developed at CERN in 1977 based on their capacitance touch screens developed in 1972 by Danish electronics engineer Bent Stumpe.

This method has a more neutral effect on resonant frequency: mutual capacitance is doubled (which if inductance were constant would lower the resonant frequency), and inductance is halved (which would raise the resonant frequency without the capacitance change).