Abstract: An apparatus including a tube to encase a fluid, a first portion of the tube disposed in a base portion of a mobile computing device, a second portion of the tube disposed in a display portion of the mobile computing device, the second portion of the tube including metal and a pump coupled to the tube and operable to circulate the fluid in the tube. A mobile computing device including a base portion; a display portion; a tube to encase a fluid, a first portion of the tube disposed in the base portion, a second portion of the tube disposed in the display portion and including metal, the base portion and the display portion coupled by a hinge; and a pump coupled to the tube and operable to circulate the fluid in the tube.

Abstract: A heat exchanging system comprising circulating fluid through a tube coupled to an electronic component in a first part of a computing device and to a heat transfer plate in a second part of the computing device.

Abstract: A heat exchanging system comprising circulating fluid through a tube coupled to an electronic component in a first part of a computing device and to a heat transfer plate in a second part of the computing device.

Abstract: A heat exchanging system comprising circulating fluid through a tube coupled to an electronic component in a first part of a computing device and to a heat transfer plate in a second part of the computing device.

Abstract: A method including sensing a temperature of an electronic component in a portable computing device; circulating a fluid between one of a first heat transfer plate and a second heat transfer plate in response to a threshold temperature being sensed; and stopping the circulating in response to sensing a temperature is below the threshold temperature. A heat exchanging system including a first heat transfer plate coupled to an electronic component and to a second heat transfer plate; and a fluid for circulating through one of the first heat transfer plate and the second heat transfer plate in response to a threshold temperature being sensed by a sensor. An apparatus including a heat generating element; a first heat transfer plate coupled to the heat generating element; a second heat transfer plate; and a fluid for circulating through a tube, the first part and the second part of the portable computing device in response to a threshold temperature being sensed by a sensor.

Abstract: A heat exchanging system comprising circulating fluid through a tube coupled to an electronic component in a first part of a computing device and to a heat transfer plate in a second part of the computing device.

Abstract: A heat exchanging system comprising circulating fluid through a tube coupled to an electronic component in a first part of a computing device and to a heat transfer plate in a second part of the computing device.

Abstract: A heat exchanging system that includes a tube coupled to an electronic component in a first part of a computing device and to a heat transfer plate in a second part of the computing device, where the system includes a pump coupled to the tube, and a temperature sensor coupled to the tube and the pump.

Abstract: Leakage power consumption may be reduced in computers and other devices by providing a state where clocks are off and a low supply voltage is provided to the processor. This voltage may be sufficiently low to prevent adverse consequences while dramatically reducing leakage current. In addition, caches may be flushed to reduce the soft error rate.

Abstract: A processor comprises a processing core integrated on the same chip with a temperature sensing diode. The two terminals of the diode are coupled to each of two I-O ports of the processor. In accordance with one embodiment of the present invention, the electrical characteristics across the I-O ports are measured by an external control circuit to calculate a temperature of the processor. This temperature is compared to a threshold, and either an overtemp or undertemp signal is transmitted via a control line.

Abstract: Leakage power consumption may be reduced in computers and other devices by providing a state where clocks are off and a low supply voltage is provided to the processor. This voltage may be sufficiently low to prevent adverse consequences while dramatically reducing leakage current. In addition, caches may be flushed to reduce the soft error rate.

Abstract: Leakage power consumption may be reduced in computers and other devices by providing a state where clocks are off and a low supply voltage is provided to the processor. This voltage may be sufficiently low to prevent adverse consequences while dramatically reducing leakage current. In addition, caches may be flushed to reduce the soft error rate.

Abstract: A method and apparatus for operating an integrated in a reduced-power consumption state are described. The apparatus comprises power-reduction logic which, to place the integrated circuit in the reduced-power consumption state, gates a clock signal to both first and second sets of functional units within the integrated circuit. The first set of functional units is distinguished in that it is required to perform cache coherency operations within integrated circuit. The apparatus includes an input which is coupled to receive a signal indicating a memory access, to a memory resource accessible by the integrated circuit, by a further device external to the integrated circuit. In response to the assertion of this signal, the power-reduction logic propagates the clock signal to the first set of functional units, to enable this set of functional units to perform a cache coherency operation which may be necessitated by the memory access by the external device.