Abstract:
Exemplary embodiments of the present disclosure are directed to a voice-based user interface system 10 comprising a voice assembly 12 for processing voice-inputs into voice commands comprising cluster commands and a computing device comprising a focus zone 22 defined within a display thereof. When a cluster 30, which comprises one or more user-selectable items, is within the focus zone 22 whereby said cluster 30 and thereby each of the one or more selectable items thereof are said to be focused, the reception of a cluster command by the computing device results in a corresponding focused item being selected.
Abstract:
Apparatuses, methods, and systems for power supply stacking of an array of devices are disclosed. For an embodiment, each device is specified by a location (i,j), each device includes a Vdd terminal, and a Vss terminal, at least a plurality of the devices further including at least one other V_Terz terminal. For an embodiment, the Vss terminal of the device at location (i,j), for i=2:N, j=1:M, is connected to the Vdd terminal of the device at location (i−1,j) resulting in a voltage between the Vdd and Vss terminals of at least a majority of the devices in the array to be a substantially same voltage VDD, wherein the potential of the Vss terminal of the each device at any location (i,j+1) is generated to be higher than the potential of the Vss terminal for another device at location (i,j) by a voltage Xj, for i=1:N, j=1:M−1.
Abstract:
In an example, a power system (100) for generation and controlled distribution of power, comprises a transmitter circuit (108) coupled to a first rechargeable input DC source (106) to receive a DC-input power; a transmitter coil (102) coupled to the transmitter circuit (108) to receive an input voltage; a receiver coil (104) with magnets to induce a DC voltage in the receiver coil (104) based on the input voltage of the transmitter coil (102); a receiver circuit (116) coupled to the receiver coil (104) to receive the induced DC voltage; a DC-DC voltage converter (118) coupled to the receiver circuit (116) to receive and convert the induced DC voltage into a reduced DC voltage, which is supplied back to the first rechargeable input DC source (106); and a load unit (112) with a plurality of loads (114) coupled to the DC-DC voltage converter (118) to receive the reduced DC voltage.
Abstract:
A data processing method for a data processing system, comprising: initializing a value of a counter associated with a first entry to indicate a number of destinations of other entries on which the first entry depends; changing the value of the counter in a first direction in response to selecting a first one of the other entries; and changing the value of the counter in a second direction opposite the first direction in response to cancelling a second one of the other entries.
Abstract:
Systems and methods implemented by a unified agent application executed on a mobile device, for unified service discovery and secure availability include authenticating a user into a plurality of cloud services including a proxy service and a Virtual Private Network (VPN) service, wherein the proxy service is utilized for Internet traffic and the VPN service is for Intranet traffic; creating and operating a link local network at the mobile device with a virtual network interface and multiple listening sockets; and intercepting traffic at the virtual network interface from one or more client applications on the mobile device and splitting the traffic between the proxy service, the VPN service, and the Internet based on a type of the traffic, a destination, and the one or more client applications.
Abstract:
A battery management apparatus and method for use in an electrical vehicle has a plurality of individual batteries 34 provided within a battery pack 10. The battery pack is coupled to power vehicle traction 12 and a plurality of individually connectable vehicle appliances 18-26. A monitor keeps track of charge state by means of a battery monitor 44 on each battery relaying instant current to a processor 27. In a first embodiment, a charge allocation profile for the whole battery pack 10 is used where different appliances 18-26 have different amounts of charge capacity allocated to them and are disconnected when discharge exceeds their allocation and are reconnected during charging when their charge is again found. In a second embodiment, individual batteries 34 and appliances 18-26 are connected within a network configuration allowing anything to be connected to anything else. Battery 10 segments can be created, each having one or more allocated individual batteries and each segment connected to selectable services 12 18-26 within the electric vehicle. Segmentation patterns can be changed. A segment charge allocation profile can be used within each segment in much the same way that the charge allocation profile can be used and changed for the first embodiment. Progressive charging and discharging of the battery is the end result.
Abstract:
An interposer of a package system includes a first probe pad disposed adjacent to a first surface of the interposer. A second probe pad is disposed adjacent to the first surface of the interposer. A first bump of a first dimension is disposed adjacent to the first surface of the interposer. The first bump is electrically coupled with the first probe pad. A second bump of the first dimension is disposed adjacent to the first surface of the interposer. The second bump is electrically coupled with the second probe pad. The second bump is electrically coupled with the first bump through a redistribution layer (RDL) of the interposer.
Abstract:
A data processing method for a data processing system, comprising: initializing a value of a counter associated with a first entry to indicate a number of destinations of other entries on which the first entry depends; changing the value of the counter in a first direction in response to selecting a first one of the other entries; and changing the value of the counter in a second direction opposite the first direction in response to cancelling a second one of the other entries.
Abstract:
In an attempt to conduct an effective conversion of bioethanol into gasoline rich in aromatics and iso-paraffins, a ZSM-5 type zeolite with special features such as nano crystalline size and acidity has been synthesized. The catalyst (NZ) exhibits highest gasoline yield of about 73.8 wt % with aromatics and iso-paraffins as major components. The product measures Research Octane Number (RON) of about 95, which is desirable for the gasoline specifications. Moreover, considerable amounts of the Liquefied Petroleum Gas (LPG) (15 wt %) and light olefins (14 wt %) are also formed as by-products that add value to the process. The nano crystalline ZSM-5 catalyst (NZ) exhibits the stability in activity in terms of bioethanol conversion and aromatics yields for the reaction time period of 40 h.