Abstract:
An H-bridge circuit includes a supply voltage node, a first pair of transistors and a second pair of transistors. First transistors in each pair have the current paths therethrough included in current flow lines between the supply node and, respectively, a first output node and a second output node. Second transistors in each pair have the current paths therethrough coupled to a third output node and a fourth output node, respectively. The first and third output nodes are mutually isolated from each other and the second and fourth output nodes are mutually isolated from each other. The H-bridge circuit is operable in a selected one of a first, second and third mode.
Abstract:
An embodiment circuit includes a plurality of heat-generating circuits, a heat-sensitive circuit exposed to heat generated during operation of the plurality of heat-generating circuit, and a temperature sensor disposed at a location between the heat-sensitive circuit and the plurality of heat-generating circuits, the temperature sensor being configured to generate an over-temperature signal as a function of temperature sensed at the location. The plurality of heat-generating circuits may be selectively deactivatable in an ordered sequence based on deactivation weights respectively assigned to the plurality of heat-generating circuits and in response to the over-temperature signal.
Abstract:
An embodiment circuit includes a plurality of heat-generating circuits, a heat-sensitive circuit exposed to heat generated during operation of the plurality of heat-generating circuit, and a temperature sensor disposed at a location between the heat-sensitive circuit and the plurality of heat-generating circuits, the temperature sensor being configured to generate an over-temperature signal as a function of temperature sensed at the location. The plurality of heat-generating circuits may be selectively deactivatable in an ordered sequence based on deactivation weights respectively assigned to the plurality of heat-generating circuits and in response to the over-temperature signal.
Abstract:
QCA assemblies, in which basic cells are formed on the basis of graphene in order to provide a coupling field distribution in the form of an electrostatic field, a magnetic field, and the like which allows a unique association between field distribution and logic state. Moreover, the corresponding energy structure may be selected so as to allow operation of the QCA assemblies at ambient temperature. Hence, the signal processing capabilities of QCA assemblies may be obtained at significantly reduced complexity compared to conventional quantum-based QCA assemblies, which typically operate at very low temperatures.
Abstract:
QCA assemblies, in which basic cells are formed on the basis of graphene in order to provide a coupling field distribution in the form of an electrostatic field, a magnetic field, and the like which allows a unique association between field distribution and logic state.Moreover, the corresponding energy structure may be selected so as to allow operation of the QCA assemblies at ambient temperature. Hence, the signal processing capabilities of QCA assemblies may be obtained at significantly reduced complexity compared to conventional quantum-based QCA assemblies, which typically operate at very low temperatures.