The 4.5V voltage is provided by a voltage divider formed by RA2 and RA3.

We must therefore create a bridge voltage divider with two resistors of 10 KOhms and a capacitor of 10 uF.

And now, in practice, the load resistance and the internal resistance form a voltage divider.

The bridge voltage divider consisting of two resistors 10 KOhms (Kilo Ohms) and a

The chain comprises a second (24) element for acquiring a second parameter provided by a voltage divider bridge (28) connected to the supply potential (VA).

V+ is then divided by two using a voltage divider with R29 and R30, to have VB+ (4.5V).

That capacitance is important, because together with the amplifier input capacitance it forms a capacitive voltage divider.

A measurement coil (11) is connected to a voltage divider circuit (14) or bridge circuit.

A measurement coil (11) is incorporated in a voltage divider circuit (14) or bridge circuit.

Each controllable voltage divider (8, 10; 4, 5, 9) has at least two controllable voltage divider inputs and a controllable voltage divider output.

The detection signal corresponds to the voltage outputted from the voltage-divider circuit when the bias voltage is applied to the voltage-divider circuit.

A voltage divider (24) is coupled between the regulated voltage (Vint) and a supply voltage (Vcc), and generates a sense voltage.

A voltage divider circuit (103) is provided that automatically and dynamically adjusts its voltage divider chains as a supply voltage changes.

The first one (3) is located in the first branch of a Wheatstone bridge (1), and the voltage is taken by means of a voltage divider (7).

A voltage divider network (R1, R2) samples the anode voltage.