Abstract: In a pipeline configured for out-of-order issuing, handling translation of virtual addresses to physical addresses includes: storing translations in a translation lookaside buffer (TLB), and updating at least one entry in the TLB based at least in part on an external instruction received from outside a first processor core. Managing external instructions includes: updating issue status information for each of multiple instructions stored in an instruction queue, processing the issue status information in response to receiving a first external instruction to identify at least two instructions in the instruction queue, including a first queued instruction and a second queued instruction. An instruction for performing an operation associated with the first external instruction is inserted into a stage of the pipeline so that the operation associated with the first external instruction is committed before the first queued instruction is committed and after the second queued instruction is committed.

Abstract: Provided herein are APP RNAi agents and compositions comprising an APP RNAi agent. Also provided herein are methods of using the APP RNAi agents or compositions comprising an APP RNAi agent in reducing APP expression and/or treating APP associated neurological diseases.

Abstract: A device may receive at least first network parameters and first performance indicators of a first access station in a first access network; receive at least second network parameters and second performance indicators of a second access station in a second access network; determine whether to steer a User Equipment device (UE) wirelessly connected to the first access station, from the first access station toward the second access station, based on the at least first and second network parameters and first and second performance indicators; and based on the determination, modify one or more of the first network parameters of the first access station and the second network parameters of the second access station.

Abstract: A system described herein may identify sets of seed parameters that are each associated with a respective User Equipment (“UE”) of a group of UEs. The system may generate, based on the seed parameters for each UE, a respective set of UE usage metrics for each UE, and may generate a set of aggregate UE usage metrics based on the generated sets of UE usage metrics. The system may compare the aggregate UE usage metrics to a measure of network capacity; determine an amount of time that a measure of UE usage exceeds the measure of network capacity; determine that the amount of time, that the measure of UE usage exceeds the measure of network capacity, exceeds a threshold amount of time; and modify network configuration parameters based on determining that the amount of time, that UE usage exceeds the network capacity, exceeds the threshold amount of time.

Abstract: Compounds for the delivery of progranulin, a progranulin fragment, and/or at least one granulin protein subunit across the blood brain barrier. Compounds for the delivery of progranulin, a progranulin fragment, and/or at least one granulin protein subunit across the blood brain barrier, the compounds including a progranulin domain, a TfR1 binding domain, and optionally an albumin binding domain. Compounds for the delivery of wildtype or unmodified progranulin across the blood brain barrier.

Abstract: Aspects of this disclosure relate to a bulk acoustic wave component that includes a bulk acoustic wave resonator, a capacitor, and a circuit element electrically connected to the bulk acoustic wave resonator. The capacitor includes an electrode buried in dielectric material. The circuit element includes conductive material in the dielectric layer. Related filters, multiplexers, radio frequency modules, radio frequency systems, wireless communication devices, and methods are disclosed.

Abstract: Aspects of this disclosure relate to a bulk acoustic wave structure that includes a bulk acoustic wave resonator and a metal-insulator-metal capacitor. The bulk acoustic wave resonator can include an acoustic reflector, a top electrode, a bottom electrode, and a piezoelectric layer including at least a portion over the acoustic reflector and between the top electrode and the bottom electrode. The metal-insulator-metal capacitor can be electrically connected to the bulk acoustic wave resonator. The metal-insulator-metal capacitor can include material of a dielectric layer under the acoustic reflector and an electrode buried in the dielectric layer. Related filters, multiplexers, radio frequency modules, radio frequency systems, wireless communication devices, and methods are disclosed.

Abstract: Aspects of this disclosure relate to a filter that includes a bulk acoustic wave resonator and a capacitor in parallel with the bulk acoustic wave resonator. The bulk acoustic wave resonator can include a first electrode, a second electrode, a piezoelectric layer positioned between the first electrode and the second electrode, and an acoustic reflector positioned between the first electrode and a substrate. The capacitor can include an electrode buried in a dielectric layer that is over the substrate. Related multiplexers, radio frequency modules, radio frequency systems, wireless communication devices, and methods are disclosed.

Abstract: Aspects of this disclosure relate to a bulk acoustic wave structure that includes a bulk acoustic wave resonator and a circuit element electrically connected to the bulk acoustic wave resonator. The circuit element can include conductive material buried in a dielectric layer. The dielectric layer can extend under an acoustic reflector of the bulk acoustic wave resonator. In certain embodiments, the circuit element can be an inductor, a tuning stub, or a fuse element. Related filters, multiplexers, radio frequency modules, radio frequency systems, wireless communication devices, and methods are disclosed.

Abstract: Aspects and embodiments disclosed herein include filter module comprising an input port to receive a radio frequency signal, a first output port connected to an antenna, a filter disposed along a fundamental signal path from the input port to the first output port, and a second output port to output a harmonic signal generated in response to the RF signal, the second output port being electrically connected to a node on the fundamental signal path via a harmonic signal path including a resonating structure configured to improve a linearity response of the filter module, the resonating structure including resonators electrically connected to each other in anti-series or anti-parallel and disposed on a piezoelectric film, a polarity direction of a first half of the resonators opposite to a polarity direction of a second half of the resonators when a voltage is applied across the piezoelectric film.

Abstract: Disclosed herein is a bulk acoustic wave filter comprising a number of acoustic wave resonators, each acoustic wave resonator being encompassed by a polygon including vertices of a mesh optimized to provide a reduced filter size of the bulk acoustic wave filter integrated on a die.

Abstract: A terminal includes modules adapted to be sequentially assembled together in a serial chain to build the terminal. At least some of the modules each include a module housing, a ruggedized optical output port provided on the module housing, a plug and play input connection location, a plug and play expansion connection location provided on the module housing, and an asymmetric power splitter within the module housing for splitting optical power from the plug and play input location asymmetrically between the ruggedized optical output port and the plug and play expansion connection location. The plug and play input connection locations and the plug and play expansion connection locations of adjacent modules in the serial chain are adapted to mate with respect to one another.

Abstract: A network device may receive a first frequency, time, and phase synchronization from a first occupied bandwidth (OBW) portion provided by the network device, and may utilize the first frequency, time, and phase synchronization when providing first services to the first OBW portion. The network device may receive a second frequency, time, and phase synchronization from a second OBW portion provided by the network device, and may utilize the second frequency, time, and phase synchronization when providing second services to the first OBW portion.

Abstract: A device may receive user equipment (UE) data identifying a UE and a location of the UE, network data identifying base stations and locations of the base stations associated with the UE, and radio frequency transmit characteristics of the UE. The device may calculate a signal range of the UE based on the UE data, the network data, and the radio frequency transmit characteristics of the UE. The device may process the UE data, the network data, the signal range of the UE, and triggers, with a model, to determine that the radio frequency transmit characteristics of the UE should be modified. The device may cause the UE to modify the radio frequency transmit characteristics of the UE based on the model determining that the radio frequency transmit characteristics of the UE should be modified.

Abstract: A network device may receive a first frequency, time, and phase synchronization from a first occupied bandwidth (OBW) portion provided by the network device, and may utilize the first frequency, time, and phase synchronization when providing first services to the first OBW portion. The network device may receive a second frequency, time, and phase synchronization from a second OBW portion provided by the network device, and may utilize the second frequency, time, and phase synchronization when providing second services to the first OBW portion.

Abstract: A system described herein may identify traffic associated with a User Equipment (“UE”) that is connected to a first network. The UE may maintain a plurality of UE identities via one or more SIM (“Subscriber Identification Module”) cards, Universal Integrated Circuit Cards (“UICCs”), etc. The system may determine, based on one or more policies, that the traffic is not authorized via the first network. In some situations, the traffic may not be authorized if the first network does not support a type, service, etc. of the traffic. The system may identify a second network, based on the one or more policies, via which the traffic is authorized, and may indicate the second network to the UE. The UE may automatically (e.g., without user intervention) switch to a particular UE identity that is associated with the second network, and may output the traffic via the second network using such UE identity.

Abstract: A system described herein may provide for an interface, such as a midhaul interface, between one or more radio elements of a radio access network (“RAN”), such as a Distributed Unit (“DU”) and/or a radio unit (“RU”), and higher layer functions of the RAN, such a Central Unit (“CU”). The interface may provide for the DU to be communicatively coupled to multiple CUs, which may be associated with multiple distinct core networks. The system may route uplink traffic, received from User Equipment (“UEs”) via the RU and the DU, to an appropriate CU. The system may resolve conflicting instructions, for the DU, received from different CUs. The resolution may be performed based on relative priority levels of the CUs or other factors. The system may provide for granular monitoring of traffic parameters on a per-CU basis, thus preserving the privacy of different core networks.

Abstract: A system described herein may serve as an interface between one or more radio units (“RUs”) of a wireless network and one or more Distributed Units (“DUs”) of the RAN. The system may maintain information associating a set of RUs with a particular DU. The system may determine that a particular RU of the set of RUs should be disassociated from the particular DU, such as based on load metrics associated with the particular DU exceeding one or more thresholds. The system may disassociate the particular RU from the particular DU by modifying the information associating the set of RUs with the particular DU. The modified may indicate that the particular RU is no longer associated with the particular DU. The system may accordingly facilitate communications between the modified set of RUs, not including the particular RU, and the particular DU.

Abstract: Provided herein are proteins comprising one monovalent human TfR binding domain (“human TfR binding proteins”), proteins comprising one monovalent mouse TfR binding domain (“mouse TfR binding proteins”), conjugates comprising such human or mouse TfR binding proteins, e.g., human TfR binding proteins-dsRNA conjugates, pharmaceutical compositions comprising human TfR binding proteins or conjugates, and methods of treating CNS diseases (e.g., neurodegenerative disease such as neurodegenerative synucleinopathy or tauopathy) using human TfR binding proteins or conjugates.

Abstract: A system described herein may identify sets of seed parameters that are each associated with a respective User Equipment (“UE”) of a group of UEs. The system may generate, based on the seed parameters for each UE, a respective set of UE usage metrics for each UE, and may generate a set of aggregate UE usage metrics based on the generated sets of UE usage metrics. The system may compare the aggregate UE usage metrics to a measure of network capacity; determine an amount of time that a measure of UE usage exceeds the measure of network capacity; determine that the amount of time, that the measure of UE usage exceeds the measure of network capacity, exceeds a threshold amount of time; and modify network configuration parameters based on determining that the amount of time, that UE usage exceeds the network capacity, exceeds the threshold amount of time.