Abstract: A device can receive, at a radio access network (RAN) and from a user device, first information to initiate a communications session that has one or more properties. The device can send second information to an access and mobility management function component (AMF) to authenticate the user device. The device can send third information to a user plane function component (UPF) to determine a set of network slice policies for managing the communications session. The device can receive the set of network slice policies and apply the set of network slice policies to the communications session. The device can detect a change in the one or more properties of the communications session and send a signal to the UPF to analyze the communications session. The device can receive a new set of network slice policies and apply the new set of network slice policies to the communications session.

Abstract: A device may receive information identifying existing virtual network functions (VNFs) associated with an existing virtual radio access network (VRAN), and may receive information identifying proposed VNFs to deploy with the existing VRAN, wherein the information identifying the proposed VNFs includes VNF descriptors indicating interface dependencies associated with the proposed VNFs. The device may generate testing configurations, for testing the proposed VNFs, based on the interface dependencies, and may determine that a set of the proposed VNFs are validated based on testing the proposed VNFs with the testing configurations. The device may derive dependency constraints for the set of the proposed VNFs based on the information identifying the existing VNFs, and may select a new VNF that satisfies the dependency constraints, based on the set of the proposed VNFs. The device may cause the new VNF to be deployed with the existing VRAN.

Abstract: Provided are systems and methods for automating the deployment of software-defined and/or virtualized network functions (“xNFs”) within a network via a holistic validation of each xNF against validation criteria and/or performance of prior xNFs. The holistic validation may include receiving an xNF, determining a first amount of risk associated with that xNF based on one or more differences between the xNF and the validation criteria, determining a second amount of risk by comparing performance characteristics of the xNF to performance characteristics of earlier version of the same or similar xNFs, providing the xNF to the network for deployment in response to the total risk being within an acceptable amount of risk, and preventing xNF deployment while providing a notification with a set of recommendations to reduce the xNF risk in response to the total risk exceeding the acceptable amount of risk.

Abstract: A method, a system, and a non-transitory storage medium are described in which an access and mobility management function (AMF) assignment service is provided. A network device receives an assignment policy for selecting an AMF from a group of available AMFs, wherein the assignment policy includes network slice priorities for available network slices in the RAN; stores the assignment policy; receives, during a registration procedure initiated by an end device, Network Slice Selection Assistance Information (NSSAI); identifies, from the NSSAI, multiple single-NSSAIs (S-NSSAIs); and selects, based on the assignment policy, an AMF for a highest priority S-NSSAI, of the multiple S-NSSAIs.

Abstract: A device may receive information identifying existing virtual network functions (VNFs) associated with an existing virtual radio access network (VRAN), and may receive information identifying proposed VNFs to deploy with the existing VRAN, wherein the information identifying the proposed VNFs includes VNF descriptors indicating interface dependencies associated with the proposed VNFs. The device may generate testing configurations, for testing the proposed VNFs, based on the interface dependencies, and may determine that a set of the proposed VNFs are validated based on testing the proposed VNFs with the testing configurations. The device may derive dependency constraints for the set of the proposed VNFs based on the information identifying the existing VNFs, and may select a new VNF that satisfies the dependency constraints, based on the set of the proposed VNFs. The device may cause the new VNF to be deployed with the existing VRAN.

Abstract: A slice order system may receive a request to generate a network slice configuration for providing a service via a network. The slice offer system may determine a description template associated with a network slice type. The slice offer system may determine, based on the description template and a set of deployment parameters, a description profile for the network slice configuration. The slice offer system may generate, based on the description profile and a location, a slice deployment description for the network slice configuration according to location-specific characteristics associated with resources at the location and a service level agreement associated with the request. The slice offer system may deploy the slice deployment description to permit a network slice instance to be created according to the slice deployment description.

Abstract: A RAN node may determine an aggregate signal-to-noise ratio (SNR) of each resource block of a plurality of resource blocks, where the aggregate SNR of a given resource block of the plurality of resource blocks is based on SNRs of subcarrier frequencies of the given resource block. The RAN node may determine, based on a type of network traffic on each network slice of a plurality of network slices, an index value of each network slice of the plurality of network slices. The RAN node may map, based on the aggregate SNR of each resource block, based on the index value of each network slice, and for each resource block of the plurality of resource blocks, a resource block of the plurality of resource blocks to a network slice of the plurality of network slices.

Abstract: A device may receive information identifying existing virtual network functions (VNFs) associated with an existing virtual radio access network (VRAN), and may receive information identifying proposed VNFs to deploy with the existing VRAN, wherein the information identifying the proposed VNFs includes VNF descriptors indicating interface dependencies associated with the proposed VNFs. The device may generate testing configurations, for testing the proposed VNFs, based on the interface dependencies, and may determine that a set of the proposed VNFs are validated based on testing the proposed VNFs with the testing configurations. The device may derive dependency constraints for the set of the proposed VNFs based on the information identifying the existing VNFs, and may select a new VNF that satisfies the dependency constraints, based on the set of the proposed VNFs. The device may cause the new VNF to be deployed with the existing VRAN.

Abstract: A method, a system, and a non-transitory storage medium are described in which an access and mobility management function (AMF) assignment service is provided. A network device receives an assignment policy for selecting an AMF from a group of available AMFs, wherein the assignment policy includes network slice priorities for available network slices in the RAN; stores the assignment policy; receives, during a registration procedure initiated by an end device, Network Slice Selection Assistance Information (NSSAI); identifies, from the NSSAI, multiple single-NSSAIs (S-NSSAIs); and selects, based on the assignment policy, an AMF for a highest priority S-NSSAI, of the multiple S-NSSAIs.

Abstract: The present invention relates to new improved peptides and dimeric peptides exhibiting beta-galactosidase enzyme activity as well as methods using them for reducing the lactose content of milk-based compositions.

Abstract: A method, a system, and a non-transitory storage medium are described in which an access and mobility management function (AMF) assignment service is provided. A network device receives an assignment policy for selecting an AMF from a group of available AMFs, wherein the assignment policy includes network slice priorities for available network slices in the RAN; stores the assignment policy; receives, during a registration procedure initiated by an end device, Network Slice Selection Assistance Information (NSSAI); identifies, from the NSSAI, multiple single-NSSAIs (S-NSSAIs); and selects, based on the assignment policy, an AMF for a highest priority S-NSSAI, of the multiple S-NSSAIs.

Abstract: A method, a system, and a non-transitory storage medium are described in which an access and mobility management function (AMF) assignment service is provided. A network device receives an assignment policy for selecting an AMF from a group of available AMFs, wherein the assignment policy includes network slice priorities for available network slices in the RAN; stores the assignment policy; receives, during a registration procedure initiated by an end device, Network Slice Selection Assistance Information (NSSAI); identifies, from the NSSAI, multiple single-NSSAIs (S-NSSAIs); and selects, based on the assignment policy, an AMF for a highest priority S-NSSAI, of the multiple S-NSSAIs.

Abstract: A method, a system, and a non-transitory storage medium are described in which an access and mobility management function (AMF) assignment service is provided. A network device receives an assignment policy for selecting an AMF from a group of available AMFs, wherein the assignment policy includes network slice priorities for available network slices in the RAN; stores the assignment policy; receives, during a registration procedure initiated by an end device, Network Slice Selection Assistance Information (NSSAI); identifies, from the NSSAI, multiple single-NSSAIs (S-NSSAIs); and selects, based on the assignment policy, an AMF for a highest priority S-NSSAI, of the multiple S-NSSAIs.

Abstract: A computing device may include a memory configured to store instructions and a processor configured to execute the instructions to initialize a Fifth Generation wireless system (5G) function node of a particular type; identify one or more always-on processes associated with the particular type of 5G function node; and activate the identified one or more always-on processes. The processor may be further configured to monitor one or more trigger conditions associated with the 5G function node; detect a trigger condition, of the one or more trigger conditions; identify an on-demand process associated with the 5G function node based on the detected trigger condition; and activate the identified on-demand process in a serverless computing system using a serverless computing interface, in response to detecting the trigger condition.

Abstract: A system determines an optimized number and placement of wireless stations based on predicted future demand scoring of end user devices. A computing device calculates a growth projection of mobile devices in a geographic region for a time period; calculates a visiting projection for a peak amount of mobile devices connected to wireless stations in the geographic area and their locations when connected to wireless stations within the time period; calculates an application-use projection for bandwidth use patterns of the mobile devices within the time period; and calculates a network impact projection for an amount bandwidth impact by the mobile devices at each of the wireless stations. The computing device generates a demand score for geographic units within the geographic region, based on the projections, and assigns, based on the demand score, one or more of the geographic units as placement locations for new wireless station during the time period.

Abstract: A device determines whether an application, utilized by a user device and associated with a network, is a low latency application or a best effort application. The device designates a first network device or a second network device as a designated network device to be an IP anchor point for the application based on a set of rules. The first network device is designated as the designated network device when the application is the low latency application, or the second network device is designated as the designated network device when the application is the best effort application. The device provides, to the user device, information informing the user device that the designated network device is to be the IP anchor point for the application, and provides, to the network, information instructing the network to utilize the designated network device as the IP anchor point for the application.

Abstract: A device receives analytics data associated with management of a network associated with the device, core data associated with a core domain of the network, edge data associated with an edge domain of the network, and radio access network (RAN) data for a RAN associated with the network. The device processes the analytics data, the core data, the edge data, and the RAN data, with a machine learning model, to determine actions to be performed with respect to the core domain of the network, the edge domain of the network, and/or the RAN. The device causes the actions to be performed by one or more core devices associated with the core domain of the network, one or more edge devices associated with the edge domain of the network, and/or one or more RAN devices associated with the RAN.

Abstract: A computing device may include a memory configured to store instructions and a processor configured to execute the instructions to initialize a Fifth Generation wireless system (5G) function node of a particular type; identify one or more always-on processes associated with the particular type of 5G function node; and activate the identified one or more always-on processes. The processor may be further configured to monitor one or more trigger conditions associated with the 5G function node; detect a trigger condition, of the one or more trigger conditions; identify an on-demand process associated with the 5G function node based on the detected trigger condition; and activate the identified on-demand process in a serverless computing system using a serverless computing interface, in response to detecting the trigger condition.

Abstract: A computer device may include a memory configured to store instructions and a processor configured to execute the instructions to receive a request from a user equipment (UE) device to resolve a Domain Name System (DNS) query for a Uniform Resource Locator (URL) and determine that the URL corresponds to a malicious URL. The processor may be further configured to select to not resolve the DNS query in response to determining that the URL corresponds to a malicious URL and send an indication to the UE device that the URL corresponds to a malicious URL.

Abstract: A slice order system may receive a request to generate a network slice configuration for providing a service via a network. The slice offer system may determine a description template associated with a network slice type. The slice offer system may determine, based on the description template and a set of deployment parameters, a description profile for the network slice configuration. The slice offer system may generate, based on the description profile and a location, a slice deployment description for the network slice configuration according to location-specific characteristics associated with resources at the location and a service level agreement associated with the request. The slice offer system may deploy the slice deployment description to permit a network slice instance to be created according to the slice deployment description.