Abstract: A system is provided and includes a first controller, a non-transitory computer-readable medium and a second controller. The first controller is configured to control operation of at least one compressor circuit including one or more compressors. The non-transitory computer-readable medium is configured to store instructions of a stage profiler for execution by the controller. The instructions include: determining a target system capacity profile for the at least one compressor circuit; determining system stage capacities for stages of the at least one compressor circuit; selecting some of the system stage capacities based on the target system capacity profile to provide an available system capacity profile; generating modulation information based on the available system capacity profile and a load request signal; and controlling operation of the one or more compressors based on the modulation information and according to the available system capacity profile.

Abstract: An account holder's portfolio of transactions may be represented as a network of interconnected transaction nodes where each node represents a credit card transaction. This network may then be analyzed using artificial intelligence and machine learning techniques coupled with visual representations of the interrelated nodes to draw conclusions. An account holder or other system entity may report a fraudulent transaction that employs the holder's account information. A backend system may organize transaction information as a network of data nodes that includes a variety of interrelated information. The backend system may then identify all financial transaction “nodes” within the network that are related or connected by common data. For example, multiple transactions may include a common merchant as the reported fraudulent transaction. The backend may then perform an analysis of the nodes to identify likely fraudulent transactions based on one or more of the data elements for each node.

Abstract: A system includes a converter and a controller to control a compressor and operates without receiving power supply from a thermostat. The converter receives a demand signal from the thermostat that is used to power the controller and charge a capacitor. When the thermostat de-asserts the demand signal, the charged capacitor powers the controller, which saves system parameters in a nonvolatile memory and enters a power save mode. The life of the nonvolatile memory is extended by alternately storing the system parameters in different memory locations. The system normalizes outdoor ambient temperature (OAT) during a demand cycle. The system determines OAT slope, which is used to select durations to operate the compressor at different capacities, by performing time based calculations during a demand cycle, demand cycle based calculations at the start of a demand cycle, or time and demand cycle based calculations during a demand cycle.

Abstract: A system is provided and includes a first controller, a non-transitory computer-readable medium and a second controller. The first controller is configured to control operation of at least one compressor circuit including one or more compressors. The non-transitory computer-readable medium is configured to store instructions of a stage profiler for execution by the controller. The instructions include: determining a target system capacity profile for the at least one compressor circuit; determining system stage capacities for stages of the at least one compressor circuit; selecting some of the system stage capacities based on the target system capacity profile to provide an available system capacity profile; generating modulation information based on the available system capacity profile and a load request signal; and controlling operation of the one or more compressors based on the modulation information and according to the available system capacity profile.

Abstract: An account holder's portfolio of transactions may be represented as a network of interconnected transaction nodes where each node represents a credit card transaction. This network may then be analyzed using artificial intelligence and machine learning techniques coupled with visual representations of the interrelated nodes to draw conclusions. An account holder or other system entity may report a fraudulent transaction that employs the holder's account information. A backend system may organize transaction information as a network of data nodes that includes a variety of interrelated information. The backend system may then identify all financial transaction “nodes” within the network that are related or connected by common data. For example, multiple transactions may include a common merchant as the reported fraudulent transaction. The backend may then perform an analysis of the nodes to identify likely fraudulent transactions based on one or more of the data elements for each node.

Abstract: A system includes a converter and a controller to control a compressor and operates without receiving power supply from a thermostat. The converter receives a demand signal from the thermostat that is used to power the controller and charge a capacitor. When the thermostat de-asserts the demand signal, the charged capacitor powers the controller, which saves system parameters in a nonvolatile memory and enters a power save mode. The life of the nonvolatile memory is extended by alternately storing the system parameters in different memory locations. The system normalizes outdoor ambient temperature (OAT) during a demand cycle. The system determines OAT slope, which is used to select durations to operate the compressor at different capacities, by performing time based calculations during a demand cycle, demand cycle based calculations at the start of a demand cycle, or time and demand cycle based calculations during a demand cycle.

Abstract: A device is provided. The device includes a transistor formed on a semiconductor substrate, the transistor having a conduction channel. The device includes at least one edge dislocation formed adjacent to the conduction channel on the semiconductor substrate. The device also includes at least one free surface introduced above the conduction channel and the at least one edge dislocation.

Abstract: An aftertreatment system comprises a liquid exhaust reductant tank. A heat exchanger is positioned downstream of the preheater. The heat exchanger heats the liquid exhaust reductant to a second temperature. The second temperature is sufficient to decompose the liquid exhaust reductant and produce ammonia gas. A storage tank is positioned downstream of the heat exchanger and is structured to store the ammonia gas at a predetermined pressure. The aftertreatment system also includes a selective catalytic reduction system positioned downstream of the storage tank. The aftertreatment system can also include a preheater positioned downstream of the liquid exhaust reductant tank and upstream of the heat exchanger.

Abstract: An aftertreatment system comprises a liquid exhaust reductant tank. A heat exchanger is positioned downstream of the preheater. The heat exchanger heats the liquid exhaust reductant to a second temperature. The second temperature is sufficient to decompose the liquid exhaust reductant and produce ammonia gas. A storage tank is positioned downstream of the heat exchanger and is structured to store the ammonia gas at a predetermined pressure. The aftertreatment system also includes a selective catalytic reduction system positioned downstream of the storage tank. The aftertreatment system can also include a preheater positioned downstream of the liquid exhaust reductant tank and upstream of the heat exchanger.

Abstract: A device is provided. The device includes a transistor formed on a semiconductor substrate, the transistor having a conduction channel. The device includes at least one edge dislocation formed adjacent to the conduction channel on the semiconductor substrate. The device also includes at least one free surface introduced above the conduction channel and the at least one edge dislocation.

Abstract: A device is provided. The device includes a transistor formed on a semiconductor substrate, the transistor having a conduction channel. The device includes at least one edge dislocation formed adjacent to the conduction channel on the semiconductor substrate. The device also includes at least one free surface introduced above the conduction channel and the at least one edge dislocation.

Abstract: A device is provided. The device includes a transistor formed on a semiconductor substrate, the transistor having a conduction channel. The device includes at least one edge dislocation formed adjacent to the conduction channel on the semiconductor substrate. The device also includes at least one free surface introduced above the conduction channel and the at least one edge dislocation.

Abstract: A device is provided. The device includes a transistor formed on a semiconductor substrate, the transistor having a conduction channel. The device includes at least one edge dislocation formed adjacent to the conduction channel on the semiconductor substrate. The device also includes at least one free surface introduced above the conduction channel and the at least one edge dislocation.

Abstract: A device is provided. The device includes a transistor formed on a semiconductor substrate, the transistor having a conduction channel. The device includes at least one edge dislocation formed adjacent to the conduction channel on the semiconductor substrate. The device also includes at least one free surface introduced above the conduction channel and the at least one edge dislocation.

Abstract: A device is provided. The device includes a transistor formed on a semiconductor substrate, the transistor having a conduction channel. The device includes at least one edge dislocation formed adjacent to the conduction channel on the semiconductor substrate. The device also includes at least one free surface introduced above the conduction channel and the at least one edge dislocation.

Abstract: Methods and associated structures of forming a microelectronic device are described. Those methods may include forming a source/drain region in an NMOS portion of a substrate, wherein the source/drain region of the NMOS portion comprises at least one dislocation, and wherein a PMOS source/drain region in a PMOS portion of the substrate does not comprise a dislocation.

Abstract: Enterprise information handling system storage solutions are configured automatically through a graphical user interface that accepts storage device and storage topology selections from an end user to automatically present a graphical image depicting interconnection devices that interface the storage devices. For example, cables with a color selected by the end user are depicted interfacing storage devices with the selected color. In one embodiment, switches are automatically selected and depicted for the storage devices and storage topology selected by the end user.

Abstract: Methods and associated structures of forming a microelectronic device are described. Those methods may include forming a source/drain region in an NMOS portion of a substrate, wherein the source/drain region of the NMOS portion comprises at least one dislocation, and wherein a PMOS source/drain region in a PMOS portion of the substrate does not comprise a dislocation.

Abstract: Methods and associated structures of forming a microelectronic device are described. Those methods may include forming a source/drain region in an NMOS portion of a substrate, wherein the source/drain region of the NMOS portion comprises at least one dislocation, and wherein a PMOS source/drain region in a PMOS portion of the substrate does not comprise a dislocation.

Abstract: Methods and associated structures of forming a microelectronic device are described. Those methods may include forming a source/drain region in an NMOS portion of a substrate, wherein the source/drain region of the NMOS portion comprises at least one dislocation, and wherein a PMOS source/drain region in a PMOS portion of the substrate does not comprise a dislocation.