Abstract: An electric circuitry for signal transmission comprises a transmission gate having an input node to apply an input signal. The transmission gate includes a first transistor having an electric conductive channel of a first type of conductivity and a second transistor having an electric conductive channel of a second type of conductivity. The electric circuitry comprises a control circuit to control the signal transmission of the transmission gate. The control circuit is configured to generate a first and second control signal to control the conductivity of the first and second transistor in dependence on a voltage level of the input signal.

Abstract: An electric circuitry for signal transmission comprises a transmission gate having an input node to apply an input signal. The transmission gate includes a first transistor having an electric conductive channel of a first type of conductivity and a second transistor having an electric conductive channel of a second type of conductivity. The electric circuitry comprises a control circuit to control the signal transmission of the transmission gate. The control circuit is configured to generate a first and second control signal to control the conductivity of the first and second transistor in dependence on a voltage level of the input signal.

Abstract: A switch arrangement comprises a first and a second terminal (1, 2), a first switch (3), a current sensor (10), a first and a second control circuitry (20, 30). The first switch (3) comprises a control terminal (4), a first terminal (5) which is coupled to the first terminal (1) of the switch arrangement and a second terminal (6) which is coupled to the second terminal (2) of the switch arrangement. The current sensor (10) is realized for the measurement of a load current (Iload) flowing through the first switch (3). The first control circuitry (20) is coupled to an output terminal of the current sensor (10) and to the control terminal (4) of the first switch (3). The second control circuitry (30) is coupled to the control terminal (4) of the first switch (3).

Abstract: A voltage generator arrangement which comprises a voltage converter (40) and a polarity detection circuit (10). The voltage converter (40) is coupled to a supply voltage terminal (9) and an output terminal (7) and comprises a first mode of operation (P1) for a positive supply voltage (VIN) and a second mode of operation (P2) for a negative supply voltage (VIN). The polarity detection circuit (10) is coupled to the supply voltage terminal (9) and a control input terminal (47) of the voltage converter (40), for providing a first pilot signal (SP1) depending on the polarity of the supply voltage (VIN).

Abstract: A circuit arrangement for protecting an integrated semiconductor circuit includes a protection circuit connected between an element to be protected and a reference potential. The protection circuit includes a thyristor structure. The circuit arrangement also includes a control circuit configured to drive the protection circuit by generating a plurality of control signals drive an active element of the protection circuit.

Abstract: A voltage generator arrangement which comprises a voltage converter (40) and a polarity detection circuit (10). The voltage converter (40) is coupled to a supply voltage terminal (9) and an output terminal (7) and comprises a first mode of operation (P1) for a positive supply voltage (VIN) and a second mode of operation (P2) for a negative supply voltage (VIN). The polarity detection circuit (10) is coupled to the supply voltage terminal (9) and a control input terminal (47) of the voltage converter (40), for providing a first pilot signal (SP1) depending on the polarity of the supply voltage (VIN).

Abstract: A switch arrangement comprises a first and a second terminal (1, 2), a first switch (3), a current sensor (10), a first and a second control circuitry (20, 30). The first switch (3) comprises a control terminal (4), a first terminal (5) which is coupled to the first terminal (1) of the switch arrangement and a second terminal (6) which is coupled to the second terminal (2) of the switch arrangement. The current sensor (10) is realized for the measurement of a load current (Iload) flowing through the first switch (3). The first control circuitry (20) is coupled to an output terminal of the current sensor (10) and to the control terminal (4) of the first switch (3). The second control circuitry (30) is coupled to the control terminal (4) of the first switch (3).

Abstract: What are proposed are a circuit arrangement and a method for protecting an integrated semiconductor circuit containing a protection circuit having a thyristor structure (SCR) and also a control circuit (TC; C1, R1, I1 to I3) for driving the protection circuit, which are both connected between an element (PV, LV) to be protected and a reference potential (VB), the control circuit (TC; C1, R1, I1 to I3) generating a plurality of control signals which in each case drive an active element (T1, T2) of the thyristor structure. A targeted triggering of the protection circuit in conjunction with defined switching thresholds and short turn-on times is thereby achieved. A possibility for determining the duration of the activation of the control circuit is furthermore proposed.