Abstract: A reusable, refillable airless fluid pump dispenser that is leakproof and designed specifically for travel. To operate the dispenser, the user presses an ergonomic depression on the top of the dispenser to engage the pump and cause a platform within the dispenser to rise, evenly distributing a fluid from the dispenser. The user can twist off the top and remove it from the body of the dispenser, which permits access to the interior of the dispenser to refill or wash as needed. The user may access the platform, raising it or pushing it back down to either adjust the amount of product they would like to fill or to reuse once product has been depleted. The attached outer cap of the top twists to lock, both blocking the nozzle from distributing any product and also preventing the top from depressing and engaging the pump.

Abstract: A method for scaling out database information may include creating second database instantiation. The method may include configuring one or more partitions of a first database for transfer to the second database and configuring the second database for receiving the one or more first database partitions. The method may also include transferring the one or more first database partitions to the second database.

Abstract: Systems, methods, and apparatus are described that provide for communicating coexistence messages over a multi-drop serial bus. A data communication method includes configuring a common memory map at each of a plurality of devices coupled to a serial bus, receiving at a first device coupled to the serial bus, first coexistence information directed to a second device coupled to the serial bus, generating at the first device, a coexistence message that includes the first coexistence information, and transmitting the coexistence message to the second device over the serial bus. The first coexistence information in the coexistence message may be addressed to a location in the common memory map calculated based on a destination address associated with the first coexistence information and a unique identifier of the first device.

Abstract: Devices and methods for determining a wideband Channel Quality Indicator (wbCQI) and a plurality of sub-band Channel Quality Indicators (CQIs) for reporting to a network, including deriving a first metric for a wideband and each of a plurality of sub-bands from a received signal; converting the wideband first metric and the plurality of sub-band first metrics to a wideband CQI and a plurality of sub-band CQIs; determining a skewness of the plurality of sub-band CQIs to the wideband CQI by comparing each of the plurality of sub-band CQIs to the wideband CQI; modifying the wideband CQI when a negative skewness is determined and recomputing the plurality of sub-band CQIs based on the modified wideband CQI; and providing the modified wideband CQI and the plurality of recomputed sub-band CQIs to the network.

Abstract: Devices and methods for determining a wideband Channel Quality Indicator (wbCQI) and a plurality of sub-band Channel Quality Indicators (CQIs) for reporting to a network, including deriving a first metric for a wideband and each of a plurality of sub-bands from a received signal; converting the wideband first metric and the plurality of sub-band first metrics to a wideband CQI and a plurality of sub-band CQIs; determining a skewness of the plurality of sub-band CQIs to the wideband CQI by comparing each of the plurality of sub-band CQIs to the wideband CQI; modifying the wideband CQI when a negative skewness is determined and recomputing the plurality of sub-band CQIs based on the modified wideband CQI; and providing the modified wideband CQI and the plurality of recomputed sub-band CQIs to the network.

Abstract: In a device comprising a serial bus and a plurality of devices, register/address mappings and/or unique group identifiers are used to convey additional information in messages/datagrams over the serial bus without explicitly sending such information in the message/datagram. Such register/address mappings may be done beforehand, and in conjunction with group-specific identifiers, may reduce transmission latency by keeping the size of the messages/datagrams small. Since all devices on the serial bus have prior knowledge of such register/address mappings and/or group-specific identifiers, recipient devices are able to infer information from the group-specific identifiers and/or register/address sent in each message/datagram that is not explicitly sent within such message/datagram.

Abstract: A method, an apparatus, a transmitter component, and a computer program product for wireless communication are provided. The transmitter component may determine whether first information or second information is to be provided to a receiver component, wherein the first information includes a RAT identifier and the second information includes information regarding a transmit operation; and transmit a communication to the receiver component via a wireless coexistence interface between the receiver component and the transmitter component, wherein a particular portion of the communication is associated with a first value when the first information is to be provided, and wherein the particular portion is associated with a second value when the second information is to be provided. Numerous other aspects are provided.

Abstract: A method, an apparatus, a receiver component, and a computer program product for wireless communication are provided. The apparatus may receive a first portion of a communication from a transmitter component via a wireless coexistence interface between the receiver component and the transmitter component; determine at least one of a radio access technology (RAT) identifier or a transmit operation based at least in part on the first portion of the communication; and at least one of: process a second portion of the communication based at least in part on the RAT identifier; or perform the transmit operation. Numerous other aspects are provided.

Abstract: In a device comprising a serial bus and a plurality of devices, register/address mappings and/or unique group identifiers are used to convey additional information in messages/datagrams over the serial bus without explicitly sending such information in the message/datagram. Such register/address mappings may be done beforehand, and in conjunction with group-specific identifiers, may reduce transmission latency by keeping the size of the messages/datagrams small. Since all devices on the serial bus have prior knowledge of such register/address mappings and/or group-specific identifiers, recipient devices are able to infer information from the group-specific identifiers and/or register/address sent in each message/datagram that is not explicitly sent within such message/datagram.

Abstract: Systems, methods, and apparatus are described that provide for communicating coexistence messages over a multi-drop serial bus. A data communication method includes configuring a common memory map at each of a plurality of devices coupled to a serial bus, receiving at a first device coupled to the serial bus, first coexistence information directed to a second device coupled to the serial bus, generating at the first device, a coexistence message that includes the first coexistence information, and transmitting the coexistence message to the second device over the serial bus. The first coexistence information in the coexistence message may be addressed to a location in the common memory map calculated based on a destination address associated with the first coexistence information and a unique identifier of the first device.

Abstract: A method (200) for power management in a radio receiver includes: receiving (201) a sequence of radio subframes over a radio channel, each radio subframe comprising at least one control region and at least one data region; monitoring (202) control information from at least one control region of at least one radio subframe; generating (203) a channel metric based on the monitored control information, the channel metric indicating a quality of the radio channel; and selecting (204) a control region decoding mode based on the channel metric, the control region decoding mode indicating a scheduling for disabling reception of at least part of the at least one data region of the sequence of radio subframes.

Abstract: In some embodiments, an inductor-inductor-capacitor (LLC) converter includes a transformer having a primary winding, a secondary winding, and an auxiliary winding. The primary winding is coupled to a primary side circuit and the auxiliary winding has a first winding portion coupled between a first terminal and a middle terminal, and a second winding portion coupled between the middle terminal and a second terminal. The LLC converter further includes a first diode coupled between the first terminal and a first node, a second diode coupled between the second terminal and the first node, and a switch coupled between the first node and a reference voltage terminal. The middle terminal of the auxiliary winding is coupled to the reference voltage terminal.

Abstract: A method for scaling out database information may include creating second database instantiation. The method may include configuring one or more partitions of a first database for transfer to the second database and configuring the second database for receiving the one or more first database partitions. The method may also include transferring the one or more first database partitions to the second database.

Abstract: In some embodiments, an inductor-inductor-capacitor (LLC) converter includes a transformer having a primary winding, a secondary winding, and an auxiliary winding. The primary winding is coupled to a primary side circuit and the auxiliary winding has a first winding portion coupled between a first terminal and a middle terminal, and a second winding portion coupled between the middle terminal and a second terminal. The LLC converter further includes a first diode coupled between the first terminal and a first node, a second diode coupled between the second terminal and the first node, and a switch coupled between the first node and a reference voltage terminal. The middle terminal of the auxiliary winding is coupled to the reference voltage terminal.

Abstract: A method for scaling out database information may include creating second database instantiation. The method may include configuring one or more partitions of a first database for transfer to the second database and configuring the second database for receiving the one or more first database partitions. The method may also include transferring the one or more first database partitions to the second database.

Abstract: A method (200) for power management in a radio receiver includes: receiving (201) a sequence of radio subframes over a radio channel, each radio subframe comprising at least one control region and at least one data region; monitoring (202) control information from at least one control region of at least one radio subframe; generating (203) a channel metric based on the monitored control information, the channel metric indicating a quality of the radio channel; and selecting (204) a control region decoding mode based on the channel metric, the control region decoding mode indicating a scheduling for disabling reception of at least part of the at least one data region of the sequence of radio subframes.

Abstract: A method for scaling out database information may include creating second database instantiation. The method may include configuring one or more partitions of a first database for transfer to the second database and configuring the second database for receiving the one or more first database partitions. The method may also include transferring the one or more first database partitions to the second database.

Abstract: A method for scaling out database information may include creating second database instantiation. The method may include configuring one or more partitions of a first database for transfer to the second database and configuring the second database for receiving the one or more first database partitions. The method may also include transferring the one or more first database partitions to the second database.

Abstract: A method for scaling out database information may include creating second database instantiation. The method may include configuring one or more partitions of a first database for transfer to the second database and configuring the second database for receiving the one or more first database partitions. The method may also include transferring the one or more first database partitions to the second database.