Abstract: The process can include transferring heat from a light product in a first heat exchange stage to produce a cooled product and a first medium pressure steam and separating a steam cracker quench oil therefrom. Heat can be transferred from the steam cracker quench oil in a second heat exchange stage to produce a first cooled quench oil and a second medium pressure steam. Heat can be transferred from at least a portion of the first cooled quench oil in a third heat exchange stage to produce a second cooled quench oil and low pressure steam. A total heat duty generated in the first heat exchange stage, the second heat exchange stage, and the third heat exchange stage can be equal to QT1 and a heat duty generated in the first heat exchange stage and the second heat exchange stage can be ?0.5 QT1 joules/sec.

Abstract: A method of communication in a cellular network is described. The method comprises establishing, by at least one first node, a connection with at least one second node. At least one first node receives capability information of the at least one second node. One or more of the at least one first node, the at least one second node, and at least one third node calibrate a channel among one or more of the at least one first node, the at least one second node, and at least one third node. The at least one first node transmits control information to the at least one second node, based on at least one of the calibration information and the capability information.

Abstract: The present invention relates to a method of positioning a target node (102-4) in a side-link communication system in a wireless communication network (100). The method comprises establishing, by a first node (102-6), a communication link with a second node (102-1 to 102-3) and a third node (102-4). The first node (102-6) measures a relative Angle of Arrival (AoA) and a relative Angle of Departure (AoD) of the third node (102-4) with respect to the second node. The target node is one of the first node, the second node and the third node. The first node (102-6) estimates a position of the third node (102-4) based on at least one of the relative AoA and the relative AoD.

Abstract: The present invention discloses a system (108) and method (300) for creating a real-time network view using cellular sites and coverage layers. In modern telecommunications networks, users provide services through various types of nodes utilizing different technologies. The system introduces a digitized view in the form of a map layer, enabling streamlined operations and enhanced efficiency. Also, the system leverages web-based platforms to generate a real-time network view comprising site layer view or coverage layer views. This digitized representation allows users to easily monitor, assess, and analyze their networks. By creating a network view that gets updated automatically, the system eliminates a need to collect and maintain site layer data and create heatmaps.

Abstract: A system for oxidative decladding for recovery of used nuclear fuel (UNF) has a vessel. At least one gas inlet port is formed in the vessel for injecting reagent gases into the vessel. At least one gas outlet port is formed in the vessel for discharging off gases and waste gases out of the vessel. At least one fuel basket is removably positioned within the vessel, the at least one fuel basket supporting a plurality of UNF rods. A plurality of heating elements flank the at least one fuel basket. When an oxygen enriched gas is injected into the at least one gas inlet port, the plurality of heating elements convert UO2 matrix in the UNF rods to U3O8 and comminute fuel meat from claddings of the plurality of UNF rods.

Abstract: A method for of wireless communication includes establishing a primary real-time transport protocol (RTP) link to a peer device via an Internet protocol-based multimedia subsystem (IMS) network. The method also includes establishing a duplicate real-time transport protocol (RTP) link to the peer device via a firewall and a network address translation (NAT) server. The duplicate RTP link is initially established with a session traversal utilities for NAT (STUN) server. The method further includes transmitting RTP packets to the peer device via the primary RTP link and the duplicate RTP link. The method still further includes determining whether to continue with the duplicate RTP link established with the STUN server or to reestablish the duplicate RTP link with a traversal using relays around NAT (TURN) server.

Abstract: The disclosed system and method provide a nominal site location generation strategy. The disclosed system and method automate a process of nominal site location generation and nominal validation by providing a simple web interface. A user defines input requirements for a geography on the web interface to obtain the nominal site location. Thus, an entire process of ingesting huge crowd sourced data and geospatial data, doing predictions and analysis for getting optimal sites is fully automated.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may set a target delay value for a dejitter buffer of the UE based at least in part on jitter delays of silence descriptor (SID) packets that are received by the UE. The UE may receive, after the SID packets, media packets into the dejitter buffer. The UE may release the media packets from the dejitter buffer based at least in part on the target delay value. Numerous other aspects are described.

Abstract: The present disclosure provides a system and method for facilitating tracking area code (TAC) engine to prepare dynamic network polygons based on actual configuration, allocation of TAC to new cell sites, identification of various discrepancies and anomalies in existing planned network, capacity optimization through TAC Division, merge and network polygon edit, and auto work order generation and execution of changes in respective systems, MME Pool and eNB/SCs. Tracking Area Code is a vital parameter for new sites planning and rollout. The method complements network rollout speed with highest level of accuracy of planning and better network perform nave and accuracy. Auto planning engine makes TAC planning zero touch engine with manual review and action through manual edit, audit and work order creation features. Auto planning and configuration help faster rollout, speedy correction and implementation in live network to enhance network performance and user experience.

Abstract: An example method comprises, receiving resource availability values from the plurality of Network Interface Cards (NICs); determining a data path for data packets of a flow transported using a protocol from a source NIC to a destination NIC via a NIC set that comprises at least one NIC, wherein: the plurality of NICs comprises the source NIC, the destination NIC, and the NIC set, and determining the data path comprises selecting the NIC set based on the resource availability values; and transmitting, to the source NIC and to each NIC in the NIC set, data path data to cause the source NIC and each NIC in the NIC set to identify the data packets of the flow using an identifier of the protocol and to transmit the data packets of the flow from the source NIC to the destination NIC via the data path.

Abstract: The present invention discloses a method for providing a centralized network master database lake (128). The method receives and stores input data, identifies a plurality of attributes associated with the input data, processes the input data to categorize the input data into a plurality of predefined data categories based on the plurality of attributes, and processes the categorized input data to determine if a record associated with the categorized input data exist in the centralized network master database lake (128). The method (1200) updates the record with the categorized input data when it is determined that the record exists, creating a new record to store the categorized input data into the centralized network master database lake (128) when it is determined that the record does not exist and processing the record to dynamically display the categorized input data.

Abstract: This disclosure provides methods, components, devices and systems for compute resource orchestration framework for balancing artificial intelligence (AI) workloads and network performance. Some aspects more specifically relate to an operating system and an orchestration framework that assigns compute resources to a set of AI workloads of an access point (AP). In accordance with the operating system and orchestration framework, a network node may assign compute resources to the set of AI workloads in accordance with workload parameters of the set of AI workloads, a compute resource availability at the AP, and/or one or more criteria pertaining to a set of network parameters in a wireless network in which the AP operates. The network node may assign the compute resources to the set of AI workloads in a manner that satisfies the criteria pertaining to the set of network parameters.

Abstract: A method for real-time delivery of data based on additive bitrate fragmentation includes receiving a media sample by a server computing device and generating a key frame based on the media sample. The method also includes generating a differential frame based on the media sample and the key frame. The method also includes transmitting a first data packet including the key frame and a second data packet including the differential frame. The method also includes receiving the first data packet and the second data packet by a mobile computing device, generating the media sample based on the key frame and the differential frame, and initiating playback of the generated sample.

Abstract: In some implementations, a device may communicate queue pair establishment information associated with a plurality of queue pairs of a sender endpoint and a receiver endpoint. The device may communicate memory partitioning information that associates a plurality of memory region partitions with respective queue pairs of the plurality of queue pairs. The device may assign a plurality of queue identifiers to the respective queue pairs. The device may associate the plurality of queue identifiers with respective egress links of the device. The device may transmit based on the plurality of queue identifiers, a plurality of network flows via the respective egress links.

Abstract: This disclosure provides systems, methods, and apparatuses for adjusting an encoding timing or a decoding timing in a manner that minimizes disruption of ongoing uplink or downlink traffic. Some aspects more specifically relate to decoupling adjustment of the encoding timing and adjustment the decoding timing to enable independent adjustment of the encoding timing or the decoding timing. In some aspects, a user equipment (UE) may perform adjustment of the encoding timing, relative to an active time indicated by a discontinuous reception (DRX) configuration, at a time at which uplink traffic is absent. Additionally, or alternatively, the UE may perform adjustment of the decoding timing, relative to an active time indicated by a DRX configuration, at a time at which downlink traffic is absent. Accordingly, upon receiving a DRX configuration, the UE may wait until a period in which uplink traffic or downlink traffic is absent to perform a timing adjustment.

Abstract: A method for beam management in side-link communication between User Equipment (UEs) (104) operating in a wireless communication network (100) is described. The method comprises transmitting a reference signal using at least one beam by a first UE (104-1). The first UE (104-1) receives a feedback report of the at least one beam based on the reference signal from the second UE (104-2, 104-4). The feedback report of the at least one beam comprises at least one of UE identifier (ID), beam ID, beam strength, and beam validity. The first UE (104-1) updates entries of a beam management table based on the feedback report.

Abstract: An example method comprises, receiving resource availability values from the plurality of Network Interface Cards (NICs); determining a data path for data packets of a flow transported using a protocol from a source NIC to a destination NIC via a NIC set that comprises at least one NIC, wherein: the plurality of NICs comprises the source NIC, the destination NIC, and the NIC set, and determining the data path comprises selecting the NIC set based on the resource availability values; and transmitting, to the source NIC and to each NIC in the NIC set, data path data to cause the source NIC and each NIC in the NIC set to identify the data packets of the flow using an identifier of the protocol and to transmit the data packets of the flow from the source NIC to the destination NIC via the data path.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may establish a first communication connection associated with a first subscription or associated with a first network slice, wherein the first communication connection is a default connection for the UE for data traffic. The UE may establish a second communication connection associated with a second subscription or associated with a second network slice. The UE may receive, from a device via a wireless local area network provided by the UE or via a wired connection, a data traffic packet associated with one or more parameters. The UE may route the data traffic packet to the second communication connection based at least in part on the one or more parameters. The UE may transmit the data traffic packet using the second communication connection. Numerous other aspects are described.

Abstract: Provided is a circuit having a first input configured receive first data, a second input coupled configured to receive second data, a clock input configured to receive a clock signal during a first time period, the clock signal having a triggering edge during the first time period and an output. The circuit is configured to, before the first time period commences, output the first data over the output and in response to receiving the clock signal having the triggering edge during the first time period, output the second data over the output and refrain from outputting the first data.

Abstract: Various examples in accordance with the present disclosure provide example methods, systems, and apparatuses that may reduce direct current (DC) bias in biased signal inputs. For example, an example system includes a signal operator and an adaptive filter. The signal operator receives a biased signal input. The adaptive filter provides an estimated bias parameter to the signal operator. The signal operator generates an unbiased signal output based at least in part on the biased signal input and the estimated bias parameter.