Infineon Technologies Ag

Jörg Berthold

Stephan Henzler

Christian Pacha

Doris Schmitt-Landsiedel

Georg Georgakos

Thomas Nirschl

Klaus Von Arnim

Siegfried Schwarzl

Ralf Peter Brederlow

Matthias Schobinger

Henning Lorch

Rafael Nadal Guardia

Martin Eisele

A device includes a first transistor including a fin and a second transistor including a fin, the fin of the first transistor having a lower charge carrier mobility than the fin of the second transistor. In a method, the fin of the first transistor is treated to have a lower charge carrier mobility than the fin of the second transistor.

Transistor with reduced charge carrier mobility

An integrated circuit includes functional blocks, a power control unit controlling the provision of power to the different functional blocks of the integrated circuit, a detecting unit detecting if a turned off functional block is to be turned on, and a clock signal control unit controlling the provision of the clock signal for the functional blocks. The clock signal control unit interrupts the clock signal for the activated functional blocks of the integrated circuit for a predetermined number of clock cycles. The power control unit provides power to the turned off functional block during the interrupted clock cycles.

Circuit arrangement for activating a circuit block and method for the same

A digital circuit unit includes at least one circuit block, a voltage source for supplying the circuit block, a detection unit, which monitors the change of current drain by the at least one circuit block, an additional power consumption unit, which upon activation consumes power in addition to the at least one circuit block, and a control unit, which controls the power consumption unit in such a way that upon a change in the power consumption of the circuit block the power consumption unit is activated and drains current.

Voltage stabilizer stabilizing the voltage of a power line wherein power consumption elements are individually activated based on a quantity of currents to be drained

A method and an apparatus for switching on a voltage supply of a voltage domain of a semiconductor circuit is disclosed. A voltage supply is connected to a supply voltage of the semiconductor circuit by means of a switchable element. The switchable element is activated in such a way that, for switching on the voltage supply of the voltage domain, a current through the switchable element rises progressively with at least one intermediate value, in particular stepwise manner.

Method and apparatus for switching on a voltage supply of a semiconductor circuit and corresponding semiconductor circuit

Logic activation circuit for switching a logic circuit having at least one supply voltage line on or off, said logic activation circuit having:

Logic activation circuit

In an embodiment of the invention, a CMOS circuit arrangement is provided. The CMOS circuit arrangement includes a PMOS logic circuit providing a logic function, having PMOS field effect transistors, wherein a first operating potential is fed to an input of a PMOS logic circuit, an NMOS logic circuit providing the logic function, having NMOS field effect transistors, a first clock transistor, the first source/drain terminal of which is coupled to an input of the NMOS logic circuit, wherein a clock signal is applied to the gate terminal of the first clock transistor, and wherein a second operating potential is fed to the second source/drain terminal. An output of the PMOS logic circuit and an output of the NMOS logic circuit are coupled to one another. Furthermore, an inverter circuit is coupled to the output of the PMOS logic circuit and to the output of the NMOS logic circuit. At least a portion of the NMOS field effect transistors of the NMOS logic circuit have a first threshold voltage and at least a portion of the PMOS field effect transistors of the PMOS logic circuit have a third threshold voltage. The first clock transistor has a second threshold voltage. The first threshold voltage is lower than the second threshold voltage.

CMOS circuit arrangement

A method of determining the critical path of a circuit includes first determining the paths, their mean path transit times and their path transit time fluctuations. Paths having similar statistical parameters are combined to form one path group. For each path group, a statistical group figure is, then, calculated and, for the totality of paths considered, a statistical total figure is calculated. Finally, the critical paths of the circuit are determined by taking into consideration the total figure, comparing the group figures at or above a critical path transit time Tc.

Method for determining the critical path of an integrated circuit

An integrated electrical circuit having a plurality of structure planes is described. Electrically active elements are situated on at least one element structure plane, where at least one insulation layer is disposed above the element structure plane. Electrical connecting leads are disposed within and/or above the insulation layer, where at least a portion of the connecting leads contain copper. At least one diffusion blocker is disposed underneath the connecting leads, which diffusion blocker impedes and/or prevents the diffusion of copper. The integrated electrical circuit is configured according to the invention such that the diffusion blocker is configured as a blocker layer which is interrupted only in the region of contact holes and/or connection pieces and that the blocker layer is situated between the element structure plane and the insulation layer.

Integrated electrical circuit and method for fabricating it

A semiconductor device detects and adjusts leakage current dependent on threshold voltage of an integrated semiconductor device. To adjust the threshold voltage variation due to uncertainties in the channel length induced by the fabrication process (short channel effect) in the semiconductor a comparison between small and long channel devices is proposed. According to the comparison result, a bias potential is provided to the semiconductor device to adjust the threshold voltage.

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Munich, Germany

Jörg Berthold