Abstract: Methods and systems for provisioning content streaming service are provided. An example method includes performing network segmentation for a network associated with a multi-dwelling unit (MDU) to generate a plurality of network segments and performing segmentation of a content resource provided by the MDU into a plurality of content segments respectively corresponding to the plurality of network segments. Each content segment of the content resource comprising content items is designated to the corresponding network segment based on a predetermined network policy. The method further comprises providing access to one of the plurality of content segments to a user equipment (UE) connected to the network segment corresponding to the content segment.

Abstract: Techniques described herein can be used to quantify additives of wellbore fluids using laser induced breakdown spectroscopy. For example, a method can involve acquiring a sample of wellbore fluid from a wellbore. The wellbore fluid can include an additive. The sample can be processed to separate the wellbore fluid into a liquid sample and a solid sample. A laser induced breakdown spectroscopy device can identify a chemical composition of the liquid sample or the solid sample. A concentration of the additive in the wellbore fluid can be determined based on the chemical composition of the liquid sample or the solid sample. An adjustment to a composition of the wellbore fluid can be performed based on the concentration of the additive in the wellbore fluid.

Abstract: A fluid monitoring system for monitoring a concentration of nanoparticle additives in wellbore treatment fluid using X-ray fluorescence (XRF) can include a preparation unit and an analysis unit. The preparation unit can generate a representative sample of the wellbore treatment fluid by performing a separation process with respect to a sample of the treatment fluid. The analysis unit can chemically analyze the subset of the treatment fluid sample using XRF to generate radiation intensity data of the representative sample. Based on the radiation intensity data, the fluid monitoring system can determine that the concentration of the nanoparticle additives is outside of a predefined range. In response to determining that the concentration of the nanoparticle additives in the representative sample is outside of the predefined range, the fluid monitoring system can perform a mitigation operation to modify the concentration of the plurality of nanoparticle additives to be within the predefined range.

Abstract: The present invention is directed to triple combination therapies with anti-TIGIT antibodies, anti-PVRIG antibodies, and checkpoint inhibitors, including anti-PD-1 or anti-PD-L1 antibodies.

Abstract: The present disclosure relates to antibodies and antigen-binding fragments that specifically bind to pro/latent myostatin and uses thereof.

Abstract: Aspects of the disclosure relate to isolating and reinstating nodes in a distributed ledger using proof of innocence. In some embodiments, a first plug-in embedded with the blockchain network may monitor consumer-initiated transactions submitted to an enterprise organization node to determine the legitimacy of each consumer-initiated transaction. The first plug-in may identify consumer-initiated transactions associated with malicious activity and may flag the consumer node for further analysis. A second plug-in may identify and analyze the consumer-initiated transactions associated with the consumer node to determine a proof of innocence value associated with the consumer node. The first plug-in may isolate the consumer node from the distributed ledger if the proof of innocence value exceeds a proof of innocence threshold. Alternatively, the first plug-in may permit the consumer node to remain within the distributed ledger if the proof of innocence value falls below the proof of innocence threshold.

Abstract: The present invention relates to novel tri-specific binding molecules. The invention also relates to nucleic acids encoding such binding molecules; to methods for preparing such binding molecules; to host cells expressing or capable of expressing such binding molecules; to compositions comprising such binding molecules; and to uses of such binding molecules or such compositions, in particular for therapeutic purposes in the field of cancer diseases.

Abstract: Disclosed herein are immune activating conjugates with immunogenic carrier proteins coupled to hapten and immune cell receptor agonist-containing polymers. The polymers promote uptake by B cells, enabling intracellular immune cell receptor activation and formation of long-lived antibody-secreting cells. In some aspects, disclosed herein in is a conjugate comprising an immunogenic carrier protein coupled to a polymer, wherein the polymer includes: i) a first monomeric unit comprising a first monomer coupled to a hapten, and ii) a second monomeric unit comprising a second monomer coupled to an immune cell receptor agonist.

Abstract: Systems, computer program products, and methods are described herein for a system for mapping and executing usage of multiple source elements for completion of a resource request. The present disclosure is configured to receive source element data related to at least two source elements, establish resource request parameters, determine an execution source element, and execute a resource transfer in response to the resource request using the execution source element.

Abstract: A system receives a request for a data block, in which the data block corresponds to a set of fragments, and the data block can be fully reconstructed using a threshold number of the set of fragments. A first subset of the set of fragments are stored in a first storage system, and a second subset of the set of fragments are stored in a second storage system characterized by a higher average latency than the first storage system. A system, responsive to receiving the request for the data block, requests the first subset of the set of fragments. A system receives at least the threshold number of the first subset of the fragments. A system reconstructs the data block using the received fragments of the first subset of the fragments. A system provides the reconstructed data block.

Abstract: The present invention discloses a system and method for extracting malware capability. The system comprises a malware execution subsystem configured to execute a malware application in an isolated computing environment, detect one or more changes in system instances and obtain one or more system application programming interface (API) calls and their execution timestamp data from the executed malware application, a malware activity capturing subsystem configured to sort the system API calls based on the obtained timestamp data, generate a trigram sequence from the sorted system API calls, process the trigram sequence to generate one or more feature vectors, a malware capability extraction subsystem configured to classify the received feature vectors based on one or more malignant capabilities of the executed malware and generate a threat report based on analysis of the classified malignant capabilities of the executed malware.

Abstract: An integrated circuit design implementation system includes a die-to-die (D2D) complier configured to receive a configuration of a semiconductor package. The semiconductor package includes a first semiconductor die and a second semiconductor die bonded to each other. The D2D compiler is configured to generate, based on the configuration of the semiconductor package, a first bump map and a second bump map for the first semiconductor die and the second semiconductor die, respectively. The first bump map indicates respective locations of a plurality of first bump structures of the first semiconductor die, and the second bump map indicates respective locations of a plurality of second bump structures of the second semiconductor die.

Abstract: Methods and systems for provisioning content streaming services are provided. An example method includes receiving a user request for streaming a content item from a user equipment (UE) of a user associated with a multi-dwelling unit (MDU), identifying an MDU network segment to which the UE is connected, identifying an integrated user-network segment profile associated with the user, identifying a user segment to which the user belongs, based on the integrated user-network segment profile, determining that the requested content item is accessible by the user, based on the MDU network segment and the user segment, and providing access to the requested content item to the UE over the MDU network segment.

Abstract: A method of accessing a Non-Volatile Memory express over Fabrics (NVMeoF) memory region of a remote target device includes establishing a NVMeoF transport connection with the remote target device and creating an admin queue by sending a NVMeoF connect command to the remote target device. The method includes accessing the NVMeoF memory region of the remote target device by sending PropertyGet/PropertySet commands to an admin submission queue of the remote target device, performing one of (a) receiving PropertyGet/PropertySet completion queue entries from the remote target device when accessing the NVMeoF memory region of the remote target device is completed, or (b) receiving at least one of RDMA write and RDMA read requests from the remote target device in response to PropertyGet/PropertySet submission queue entries, and receiving completion queue entries from the remote target device when the accessing of the NVMeoF memory region of the remote target device is completed.

Abstract: A fault reaction handling time interval (FRTI) for a reaction to the fault is determined based on a domain identifier (DID) indicative of an application associated with a fault. A first reaction to recover from the fault is signaled and then a determination is made whether a safe state is reached after the FRTI. Based on the safe state not being reached, a second FRTI is determined for a second escalated reaction, the second FRTI also being based on the DID. Typically, the second reaction results in less system availability so by defining the FRTI based on the DID sufficient time is allowed for reaching a safe state before the reaction is escalated.

Abstract: The present invention relates to the technical field of optical analog computing, and specifically provides a planar micro-nano optical analog computing device. A planar micro-nano optical element includes a micro-nano structure. By adjusting a physical parameter of the micro-nano structure, the planar micro-nano optical element corresponds to different transfer functions at different resonance wavelengths, and a relationship curve between the transfer function and an incident wave vector at different resonance wavelengths is rectangle bandpass filtering functions with different bandwidths.

Abstract: Novel engineered non-natural deaminases are provided. Methods and compositions are provided for modifying the genome of a cell, including a plant cell. Genome modification through guided CRISPR polypeptides and multiple deaminases are provided. Engineered non-natural novel deaminases, including adenosine deaminases are provided. These novel deaminases have improved activity in cells including plant cells.

Abstract: A metaverse server comprises an edge node processor and a remote node processor. The edge node processor receives a request to perform a task comprising a first set of one or more operations and a second set of one or more operations from a client device associated with a metaverse user, executes the first set of one or more operations, sends a first notification indicating that the task is being performed to the client device, and forwards the second set of one or more operations to the remote node processor. The remote node processor receives the second set of one or more operations, executes each of the second set of one or more operations when conditions for executing the operation are satisfied, and sends a second notification indicating that the task has been completed to the client device upon completion of the second set of one or more operations.

Abstract: A method, includes processing, by processing circuitry, in parallel, a transport block size (TBS) for a transport block (TB) of two or more carriers, where the TB is payload on each carrier for user equipment (UE) in communication with the two or more carriers; storing, by the processing circuitry, processed TBS for each carrier in a common data queue; and sending, by the processing circuitry, TBs for each carrier for L1 processing in preparation of the TBs being sent to the UE.

Abstract: A method, includes sending, by processing circuitry, a packet to a user equipment (UE) to begin acknowledged mode (AM) between a distributed unit (DU) and the UE; in response to the packet being received, allocating, by the processing circuitry, a packet chunk included in a common memory pool to the UE being sent the packet from the (DU); and in response to the AM being successfully completed, returning, by the processing circuitry, the packet chunk to the common memory pool.