Abstract: Apparatuses, methods, and systems are disclosed for system information delivery. One apparatus includes a processing unit and a transceiver. The processing unit acquires a system information block (“SIB”) for a first cell using an initial active downlink bandwidth part (“DL BWP”) and establishes a radio resource control (“RRC”) connection with the first cell based on the acquired SIB. The transceiver transmits an indication of one or more SIBs necessary for remote unit operation to a network entity, wherein the processing unit switches to a first DL BWP, the first DL BWP being different from the initial active DL BWP.

Abstract: A set of reference signals can be received. Each of the set of reference signals can be periodically transmitted by a network entity. Information of a plurality of random access channel preambles and a plurality of reference signals from the set of reference signals can be received via a dedicated radio resource control message. At least one reference signal of the plurality of reference signals can be detected. A reference signal can be selected from the detected at least one reference signal. A random access channel preamble of the plurality of random access channel preambles can be transmitted in a contention-free random access procedure. The random access channel preamble for transmission can be determined based on the selected reference signal.

Abstract: A method and apparatus provide for scheduling information for a downlink data channel. Scheduling information can be transmitted to a user equipment regarding a downlink data channel in a slot. The scheduling information can include information regarding at least a set of allocated subcarriers. The downlink data channel can require the user equipment to send an immediate hybrid automatic repeat request acknowledgement feedback within the slot. Downlink data can be transmitted using every x-th subcarrier among the allocated subcarriers in the last symbol of the downlink data channel.

Abstract: A DL control channel candidate can be decoded. A determination can be made for which DL OFDM symbol the decoded DL control channel candidate is received in. A determination can be made for a DL resource assignment from the decoded DL control channel candidate. Data can be received based on the DL resource assignment. A determination can be made for a time-frequency resource for transmitting a HARQ-ACK at least based on the determined DL OFDM symbol. The HARQ-ACK can be transmitted in the determined time-frequency resource. The transmitted HARQ-ACK can correspond to the received data.

Abstract: A DL signal including a plurality of SS blocks can be received. At least one SS block can be detected from the plurality of SS blocks. A SS block can be selected from the detected at least one SS block. A SS block can be selected from at least one SS block detected from the plurality of SS blocks. A subset of RACH resources and a subset of RACH preambles associated with the selected SS block can be identified. A RACH resource can be selected from the subset of RACH resources and a RACH preamble can be selected from the subset of RACH preambles. The selected RACH preamble can be transmitted on the selected RACH resource. An RA-RNTI can be determined based on at least the selected RACH resource. At least a PDSCH including a RAR message can be received. The PDSCH can be based on the selected SS block and based on the determined RA-RNTI.

Abstract: One embodiment provides an apparatus. The apparatus includes detector circuitry and monitor logic local to a computing device. The detector circuitry is to generate local sensor data based, at least in part, on a sensor signal received from a sensor incorporated in the local computing device. The monitor logic is to identify an event based, at least in part, on the local sensor data. The generating and identifying is independent of operation of an operating system and/or an application executing on the local computing device.

Abstract: A first Synchronization Signal (SS) associated with a first identifier and a second SS associated with a second identifier can be stored. A first SS sequence can be defined by at least an element-wise multiplication of a first sequence with a second sequence. The first sequence can be a first base sequence cyclically shifted with a first cyclic shift value and the second sequence is a second base sequence cyclically shifted with a second cyclic shift value. A second SS sequence can be defined by at least an element-wise multiplication of a third sequence with a fourth sequence. The third sequence can be the first base sequence cyclically shifted with a third cyclic shift value and the fourth sequence is the second base sequence cyclically shifted with a fourth cyclic shift value. The first SS associated with the first identifier and the second SS associated with the second identifier can be output.

Abstract: The present invention relates to novel peptide antagonists that inhibit binding of acetylcholine to the active site of the muscle-type nicotinic acetylcholine receptor. The peptide antagonists of the invention are useful in cosmetic compositions that prevent or improve the appearance of skin wrinkles and related skin conditions. The invention further relates to cosmetic and pharmaceutical compositions comprising a peptide antagonist of the invention, and methods for their use.

Abstract: Briefly, the present disclosure is directed to methods and apparatus that allow for the synchronization with, and measurement reporting of, unlicensed frequency carriers. A method and apparatus for synchronizing to an Scell operating on an unlicensed carrier determine, at a UE (108, 116), one or more measurement instances where a discovery signal may be transmitted, for example, by a base station (132), on the Scell from a higher layer configuration message. The method and apparatus may monitor a control channel for a control channel message and determine whether the discovery signal will be transmitted during one or more measurement instances on the Scell. The method and apparatus may detect the discovery signal transmission on the Scell during one or more of the measurement instances. The method and apparatus may also synchronize to and/or measure the Scell based on detected discovery signal transmissions.

Abstract: A method and apparatus can communicate synchronization signals. A first Synchronization Signal (SS) associated with a first Identity (ID) can be received. A first SS sequence for the first SS can be defined by at least an element-wise multiplication of a first cyclically shifted sequence with a second cyclically shifted sequence. The first cyclically shifted sequence can be a first base sequence cyclically shifted with a first cyclic shift value. The second cyclically shifted sequence can be a second base sequence cyclically shifted with a second cyclic shift value. A second SS associated with a second ID can be received. A second SS sequence for the second SS can be defined by at least an element-wise multiplication of a third cyclically shifted sequence with a fourth cyclically shifted sequence. The third cyclically shifted sequence can be the first base sequence cyclically shifted with a third cyclic shift value.

Abstract: A method and apparatus provide a physical uplink channel in resource blocks. Scheduling information can be received. The scheduling information can be to transmit a first physical uplink channel within a slot. The slot can include a plurality of symbols. The slot can include the first physical uplink channel and a second physical uplink channel. The first physical uplink channel can be shorter in duration than the second physical uplink channel. One or more allocated resource blocks for the first physical uplink channel can be determined based on a sub-band group and one or more resource block groups within the sub-band group. The sub-band group can include one or more sub-bands. Each sub-band can include one or more resource block groups. Each resource block group can include one or more resource blocks. A resource block can include one or more contiguous resource elements in the frequency domain.

Abstract: Apparatuses, methods, and systems are disclosed for system information delivery. One apparatus includes a processing unit and a transceiver. The processing unit acquires a system information block (“SIB”) for a first cell using an initial active downlink bandwidth part (“DL BWP”) and establishes a radio resource control (“RRC”) connection with the first cell based on the acquired SIB. The transceiver transmits an indication of one or more SIBs necessary for remote unit operation to a network entity, wherein the processing unit switches to a first DL BWP, the first DL BWP being different from the initial active DL BWP.

Abstract: Apparatuses, methods, and systems are disclosed for reception of a paging message. One apparatus includes a processing unit and a transceiver that receives one or more paging occasion configurations in a system information block. The processing unit determines a paging frame and a paging occasion identity within the paging frame based on at least one of: a UE identity and a discontinuous reception cycle length and selects a paging occasion configuration from the received one or more paging occasion configurations, wherein the selected paging occasion configuration is associated with the determined paging occasion identity. The processing unit also determines a paging slot and a paging symbol within the determined paging slot based on the selected paging occasion configuration and decodes a physical downlink control channel (“PDCCH”) carrying paging downlink control information (“DCI”) on the determined paging symbol within the determined paging slot of the determined paging frame.

Abstract: A DL signal including a plurality of SS blocks can be received. At least one SS block can be detected from the plurality of SS blocks. A SS block can be selected from the detected at least one SS block. A SS block can be selected from at least one SS block detected from the plurality of SS blocks. A subset of RACH resources and a subset of RACH preambles associated with the selected SS block can be identified. A RACH resource can be selected from the subset of RACH resources and a RACH preamble can be selected from the subset of RACH preambles. The selected RACH preamble can be transmitted on the selected RACH resource. An RA-RNTI can be determined based on at least the selected RACH resource. At least a PDSCH including a RAR message can be received. The PDSCH can be based on the selected SS block and based on the determined RA-RNTI.

Abstract: A method and apparatus can communicate synchronization signals. A first Synchronization Signal (SS) associated with a first Identity (ID) can be received. A first SS sequence for the first SS can be defined by at least an element-wise multiplication of a first cyclically shifted sequence with a second cyclically shifted sequence. The first cyclically shifted sequence can be a first base sequence cyclically shifted with a first cyclic shift value. The second cyclically shifted sequence can be a second base sequence cyclically shifted with a second cyclic shift value. A second SS associated with a second ID can be received. A second SS sequence for the second SS can be defined by at least an element-wise multiplication of a third cyclically shifted sequence with a fourth cyclically shifted sequence. The third cyclically shifted sequence can be the first base sequence cyclically shifted with a third cyclic shift value.

Abstract: Apparatuses, methods, and systems are transmitting and/or receiving a synchronization signal block. One method includes receiving a synchronization signal block. The method includes detecting a primary synchronization signal and a broadcast channel of the synchronization signal block. Receiving the synchronization signal block includes receiving at least one synchronization signal block of multiple synchronization signal blocks within a time window and the broadcast channel includes multiple sub-bands.

Abstract: A method and apparatus provide a physical uplink channel in resource blocks. Scheduling information can be received. The scheduling information can be to transmit a first physical uplink channel within a slot. The slot can include a plurality of symbols. The slot can include the first physical uplink channel and a second physical uplink channel. The first physical uplink channel can be shorter in duration than the second physical uplink channel. One or more allocated resource blocks for the first physical uplink channel can be determined based on a sub-band group and one or more resource block groups within the sub-band group. The sub-band group can include one or more sub-bands. Each sub-band can include one or more resource block groups. Each resource block group can include one or more resource blocks. A resource block can include one or more contiguous resource elements in the frequency domain.

Abstract: A method and apparatus provide for scheduling information for a downlink data channel. Scheduling information can be transmitted to a user equipment regarding a downlink data channel in a slot. The scheduling information can include information regarding at least a set of allocated subcarriers. The downlink data channel can require the user equipment to send an immediate hybrid automatic repeat request acknowledgement feedback within the slot. Downlink data can be transmitted using every x-th subcarrier among the allocated subcarriers in the last symbol of the downlink data channel.

Abstract: One embodiment provides an apparatus. The apparatus includes detector circuitry and monitor logic local to a computing device. The detector circuitry is to generate local sensor data based, at least in part, on a sensor signal received from a sensor incorporated in the local computing device. The monitor logic is to identify an event based, at least in part, on the local sensor data. The generating and identifying is independent of operation of an operating system and/or an application executing on the local computing device.

Abstract: A fuel cell plate is provided that includes a flow field having a plurality of channels each with an inlet end, and a header in fluid communication with the inlet ends. The header has at least one restricted flow region in which fluid flow is restricted to the inlet ends of a set of channels of the flow field and at least some of the plurality of channels include a pressure drop feature that is configured to increase fluid flow to the set of channels.