Abstract: Devices and methods for fabrication of a multiscale porous high-temperature heat exchanger for high-temperature and high-pressure applications are disclosed. The heat exchanger can include a core with macrochannels formed in a checkerboard pattern to facilitate alternative flow of working fluid having hot and cold temperatures between adjacent macrochannels. Each macrochannel can include a two-dimensional microchannel array that further distributes flow throughout the heat exchanger to enhance heat transfer and mechanical strength without significant pressure drop penalty. The heat exchanger can further include a header integrated therewith to distribute working fluid flowing through the heat exchanger through the outlets such that it flows evenly therethrough. Methods of fabricating heat exchangers of this nature are also disclosed.

Abstract: An example method is performed at a device with a display and a biometric sensor. While the device is in a locked state, the method includes displaying a log-in user interface that is associated with logging in to a first and second user account. While displaying the log-in user interface, the method includes, receiving biometric information, and in response to receiving the biometric information: when the biometric information is consistent with biometric information for the first user account and the first user account does not have an active session, displaying a prompt to input a log-in credential for the first user account; and when the biometric information is consistent with biometric information for the second user account and the second user account does not have an active session on the device, displaying a prompt to input a log-in credential for the second user account.

Abstract: An example method is performed at a device with a display and a biometric sensor. While the device is in a locked state, the method includes displaying a log-in user interface that is associated with logging in to a first and second user account. While displaying the log-in user interface, the method includes, receiving biometric information, and in response to receiving the biometric information: when the biometric information is consistent with biometric information for the first user account and the first user account does not have an active session, displaying a prompt to input a log-in credential for the first user account; and when the biometric information is consistent with biometric information for the second user account and the second user account does not have an active session on the device, displaying a prompt to input a log-in credential for the second user account.

Abstract: Systems and methods are disclosed for protecting consumer privacy in an online advertising environment. A request may be received from a browser for a webpage along with a unique browser identifier. The browser may be provided a first portion of the webpage that is locally available. The unique browser identifier may be provided to at least one advertising entity, wherein the advertising entity determines an advertisement based, at least in part, on the unique browser identifier. The advertisement may be received from the advertising entity, and provided to the browser as a second portion of the webpage.

Abstract: A process is disclosed for using the existing Universal Resource Identifier (URI) history feature of browsers to maintain user preference settings, or other state information, used by one or more web sites or other systems. In one embodiment, when a user makes a particular preference selection on a web site, the user's selection is recorded in the browser's URI history by causing the browser to access a URI (or a set of URIs) representing the particular selection. The same or a different web site may subsequently test the browser's URI history for this particular URI by including appropriate JavaScript or other executable code in a page requested by the browser. Depending upon the outcome of this test, the web site and/or the page's executable code may take an appropriate action or inaction consistent with the preference selection.

Abstract: Computer-implemented methods and systems are provided for scanning web sites and/or parsing web content, including for testing online opt-out systems and/or cookies used by online systems. In accordance with one implementation, a computer-implemented method is provided for testing an opt-out system associated with at least one advertising system that uses cookies. The method includes transmitting a first request to an opt-out system, wherein the first request corresponds to a first test for testing at least one of the opt-out system and an advertising system; receiving a first stream sent in response to the first request; determining a first outcome of the first test based on the first stream; and generating a report based on the first outcome.

Abstract: Systems and methods are disclosed for protecting consumer privacy in an online advertising environment. A request may be received from a browser for a webpage along with a unique browser identifier. The browser may be provided a first portion of the webpage that is locally available. The unique browser identifier may be provided to at least one advertising entity, wherein the advertising entity determines an advertisement based, at least in part, on the unique browser identifier. The advertisement may be received from the advertising entity, and provided to the browser as a second portion of the webpage.

Abstract: A process is disclosed for using the existing Universal Resource Identifier (URI) history feature of browsers to maintain user preference settings, or other state information, used by one or more web sites or other systems. In one embodiment, when a user makes a particular preference selection on a web site, the user's selection is recorded in the browser's URI history by causing the browser to access a URI (or a set of URIs) representing the particular selection. The same or a different web site may subsequently test the browser's URI history for this particular URI by including appropriate JavaScript or other executable code in a page requested by the browser. Depending upon the outcome of this test, the web site and/or the page's executable code may take an appropriate action or inaction consistent with the preference selection.

Abstract: Computer-implemented methods and systems are provided for scanning web sites and/or parsing web content, including for testing online opt-out systems and/or cookies used by online systems. In accordance with one implementation, a computer-implemented method is provided for testing an opt-out system associated with at least one advertising system that uses cookies. The method includes transmitting a first request to an opt-out system, wherein the first request corresponds to a first test for testing at least one of the opt-out system and an advertising system; receiving a first stream sent in response to the first request; determining a first outcome of the first test based on the first stream; and generating a report based on the first outcome.

Abstract: A process is disclosed for using the existing Universal Resource Identifier (URI) history feature of browsers to maintain user preference settings, or other state information, used by one or more web sites or other systems. In one embodiment, when a user makes a particular preference selection on a web site, the user's selection is recorded in the browser's URI history by causing the browser to access a URI (or a set of URIs) representing the particular selection. The same or a different web site may subsequently test the browser's URI history for this particular URI by including appropriate JavaScript or other executable code in a page requested by the browser. Depending upon the outcome of this test, the web site and/or the page's executable code may take an appropriate action or inaction consistent with the preference selection.

Abstract: Computer-implemented methods and systems are provided for scanning web sites and/or parsing web content, including for testing online opt-out systems and/or cookies used by online systems. In accordance with one implementation, a computer-implemented method is provided for testing an opt-out system associated with at least one advertising system that uses cookies. The method includes transmitting a first request to an opt-out system, wherein the first request corresponds to a first test for testing at least one of the opt-out system and an advertising system; receiving a first stream sent in response to the first request; determining a first outcome of the first test based on the first stream; and generating a report based on the first outcome.

Abstract: Computer-implemented methods and systems are provided for scanning web sites and/or parsing web content, including for testing online opt-out systems and/or cookies used by online systems. In accordance with one implementation, a computer-implemented method is provided for testing an opt-out system associated with at least one advertising system that uses cookies. The method includes transmitting a first request to an opt-out system, wherein the first request corresponds to a first test for testing at least one of the opt-out system and an advertising system; receiving a first stream sent in response to the first request; determining a first outcome of the first test based on the first stream; and generating a report based on the first outcome.

Abstract: Computer-implemented methods and systems are provided for scanning web sites and/or parsing web content, including for testing online opt-out systems and/or cookies used by online systems. In accordance with one implementation, a computer-implemented method is provided for testing an opt-out system associated with at least one advertising system that uses cookies. The method includes transmitting a first request to an opt-out system, wherein the first request corresponds to a first test for testing at least one of the opt-out system and an advertising system; receiving a first stream sent in response to the first request; determining a first outcome of the first test based on the first stream; and generating a report based on the first outcome.

Abstract: Computer-implemented methods and systems are provided for scanning web sites and/or parsing web content, including for testing online opt-out systems and/or cookies used by online systems. In accordance with one implementation, a computer-implemented method is provided for testing an opt-out system associated with at least one advertising system that uses cookies. The method includes transmitting a first request to an opt-out system, wherein the first request corresponds to a first test for testing at least one of the opt-out system and an advertising system; receiving a first stream sent in response to the first request; determining a first outcome of the first test based on the first stream; and generating a report based on the first outcome.

Abstract: A computer system includes a CPU and a memory device coupled by a North bridge logic unit to an expansion bus, such as a PCI bus. A South bridge logic connects to the expansion bus and couples various secondary busses and peripheral devices to the expansion bus. The South bridge logic includes internal control devices or master devices that are designed to run master cycles on the expansion bus. The master devices couple to the expansion bus through a common expansion master interface, which executes master cycles on the expansion bus on behalf of the master devices. The South bridge also includes an internal modular master expansion bus coupling the internal master devices to the common master interface. The internal modular master expansion bus permits the master devices to run master cycles to any expansion bus by understanding a standardized group of signals represented by the internal modular master expansion (IMAX) bus.

Abstract: A computer system includes a secondary bus bridge device in a portable computer and a another secondary bus bridge device in an expansion base to which the portable computer connects (docks). A peripheral in the expansion base may initiate a delayed cycle to read or write data to memory through a primary bus bridge device that also couples to a CPU. Both secondary bus bridge devices include an arbiter for controlling arbitration of a peripheral bus that connects both secondary bridge devices. The arbiter in the secondary bridge of the portable computer determines which of the arbiters will have arbitration control of the expansion bus to run cycles. When read data is available, in the case of a delayed read cycle initiated by a peripheral device in the expansion base, the primary bridge strobes a delayed cycle control signal to the arbiter in the portable computer which then gives arbitration control to the arbiter in the expansion base.

Abstract: A computer system includes a CPU and a memory device coupled by a North bridge logic unit to an expansion bus, such as a PCI bus. A South bridge logic connects to the expansion bus and couples various secondary busses and peripheral devices to the expansion bus. The South bridge logic includes internal control devices that are targets for masters on the expansion bus. The target devices couple to the expansion bus through a common expansion target interface, which monitors and translates master cycles on the expansion bus on behalf of the target devices. The South bridge also includes an internal modular target expansion bus coupling the internal target devices to the common target interface. The internal modular target expansion bus permits the target devices to receive master cycles from any expansion bus by understanding a standardized group of signals represented by the internal modular target expansion (IMAX) bus.

Abstract: A hot spare boot circuit that automatically switches from a non-operational CPU to an operational CPU for powering up the computer system. In the multiprocessor computer system, a first CPU is designated to perform power on operations. If the first CPU fails, which is determined when a dead man counter in the hot spare boot circuit times out, the hot spare circuit ensures that the first CPU is in a disabled state. Next, the hot spare boot circuit identifies an operational second CPU, reinitializing certain ID information as necessary such that the second CPU can properly perform power on operations. The hot spare boot then awakens the second CPU, using a startup interprocessor interrupt in one embodiment, or simply negating the hard reset of the second CPU in a second embodiment. The second CPU then proceeds to perform the power on functions.