Abstract: A method may be disclosed in accordance with some embodiments, comprising: receiving, at a virtualizing gateway, a first service request from a first user equipment (UE) via a first eNodeB; creating, at the virtualizing gateway, an association from each of a plurality of UE identifiers to a desired core network; applying, at the virtualizing gateway, a first filter using a first UE identifier of the first UE, based on the association; forwarding, at the virtualizing gateway, based on the applied first filter, the first service request from the first UE to the first core network; receiving, at the virtualizing gateway, via a second eNodeB, a second service request from a second user equipment (UE); applying, at the virtualizing gateway, a second filter using a second UE identifier of the second UE, based on the association; and forwarding, at the virtualizing gateway, based on the applied second filter, the second service request from the second UE to the second core network.

Abstract: Methods are disclosed for providing Lawful Intercept (LI) for vehicles. In one embodiment the method includes providing, to at least one autonomous vehicle, at least one vehicle number of a vehicle being tracked and using a camera of the at least one autonomous vehicle, determining a vehicle number of the a vehicle the autonomous vehicle has encountered. The method further includes comparing the vehicle number of the vehicle the autonomous vehicle encountered to the vehicle number of the vehicle being tracked, and when the vehicle number of the vehicle the autonomous vehicle encountered matches the vehicle number of the vehicle being tracked, sending a message to law enforcement that the vehicle being tracked has been encountered.

Abstract: The subject matter of this specification describes a method to identify a point intended to be selected by a user on a touch screen of a user device. The method includes receiving user input including location coordinates for the user input, generating a screenshot image pertaining to a graphical user interface (GUI), determining intended location coordinates for a point intended to be selected in the GUI based on a detected layout of a GUI area corresponding to the user input, and providing, to the application, the determined intended location coordinates for the point intended to be selected in the GUI.

Abstract: The method S100 can include: determining a remote operation request S110; optionally determining a priority of the remote operation request S120; providing vehicle data to a remote operator S130; responding to the remote operation request S140; and optionally training a model based on the response S150. However, the method S100 can additionally or alternatively include any other suitable elements. The method S100 functions to facilitate remote assistance of a vehicle operating within a rail network (e.g., operation of unmanned vehicles within restricted track regions). Additionally or alternatively, the system can function to facilitate remote validation/verification of vehicle operations and/or rail infrastructure status.

Abstract: A Rail Drone can include: a payload interface, a drivetrain, and a rail platform 515. The Rail Drone can additionally or alternatively include any other suitable set of components. The Rail Drone can integrate a standardized payload interface and an autonomous electric road vehicle platform into a rolling stock architecture. The Rail Drone can be a stand-alone, payload-agnostic, motive element which can be independently or cooperatively capable of carrying heavy loads across long distances at various cruising speeds.

Abstract: The method S100 can include: determining a remote operation request S110; optionally determining a priority of the remote operation request S120; providing vehicle data to a remote operator S130; responding to the remote operation request S140; and optionally training a model based on the response S150. However, the method S100 can additionally or alternatively include any other suitable elements. The method S100 functions to facilitate remote assistance of a vehicle operating within a rail network (e.g., operation of unmanned vehicles within restricted track regions). Additionally or alternatively, the system can function to facilitate remote validation/verification of vehicle operations and/or rail infrastructure status.

Abstract: Systems, methods and computer software are disclosed for demand-based dynamic carrier scaling. In one embodiment a method is disclosed, comprising: determining, at a gateway supporting dynamically created cells in a wireless network, whether there is a requirement for additional capacity; when there is a requirement for additional capacity, then providing, by the gateway, dynamically created cells as needed to handle the requirement for additional capacity; determining, at the gateway, whether there is a requirement for less capacity; and when there is a requirement for less capacity, then turning off, by the gateway, dynamically created cells as needed to handle the requirement for less capacity.

Abstract: Described herein are systems and methods for providing software provisioning of functionality in a wireless communications device. Software-enabling functionality may include systems for granting a license to intellectual property or other pre-embedded functionality within a device. Communications to and from the device may be used to send or receive activation messages and/or licensing messages. Network capabilities may be provisioned using activation messages sent over the network. Activation messages may be sent in-band or out-of-band, for a device connected to the Internet and/or a mobile operator core network. Licenses may be required for any functions or intellectual property present on a given device. Activation may enable logical modules of a system-on-chip (SOC), functions of a software-defined radio (SDR), baseband, or DSP core. The disclosed systems and methods could thereby provide a new, flexible paradigm, namely, “Silicon as a Service (SaaS).

Abstract: Disclosed herein are systems and method for transmitting data from a sending device to a receiving device. In one aspect, an exemplary method comprises, receiving, by a first logical object created for the sending device, a request for a connection to the receiving device from an application, establishing, by a second logical object created for the sending device, a bidirectional connection between each pair of a third logical object created for the sending device and a third logical object created for the receiving device, pre-processing, by the first logical object created for the sending device, data received from the application, selecting, by the second logical object created for the sending device, one or more established bidirectional connections for transmitting the pre-processed data, and sending, by the first logical object created for the sending device, the pre-processed data, to the receiving device via the selected connections.

Abstract: Systems, methods and computer software are disclosed for providing a 5G native architecture. In one embodiment a method includes providing an all G software platform, including a core virtualization stack capable of communication with all hauls, and a radio virtualization stack capable of communication with all cores; and wherein the core virtualization stack communicates with an analytics layer, the analytics layer communicates with an orchestration layer, the orchestration layer communicates with a consolidation layer, and the consolidation layer communicates with the radio virtualization stack such that any G core is able to communicate with any G radio access network.

Abstract: Methods and systems for handling of an inbound Stream Control Transmission Protocol (SCTP) packet at an SCTP load balancer (SCTP LB) are described. In one embodiment a method includes receiving, at the SCTP LB, an SCTP packet; determining, by the SCTP LB, which tunneling mechanism to use for the SCTP packet; and tunneling the SCTP packet to a correct back-end server for further processing of the SCTP packet.

Abstract: The system 100 can include: a fleet management system, a motion planner, a vehicle controller, and a track data system. The system can optionally include a user interface. However, the system 100 can additionally or alternatively include any other suitable set of components. The system functions to facilitate waypoint-based command, navigation, and/or control of rail vehicles within a rail network. Additionally or alternatively, the system can function to facilitate execution of the method S100 and/or sub-elements thereof.

Abstract: The subject matter of this specification can be implemented in, among other things, a method and a system to perform the method that includes receiving a request from a client device to execute an application, selecting servers that provide remote desktop environment and host the requested application, determining, based on a priority level for a client session to be established, a capacity of system resources and a current utilization level of each server, that the client device is to be directed to a first server, the first server having an expected utilization level that satisfies a threshold condition, and directing the request to the first server to establish the client session and to execute the requested application as part of the client session.

Abstract: The subject matter of this specification can be implemented in, among other things, a method that includes storing first client information identifying a first client device, identifying a location of the first client device, and identifying a first remote access session that provides the first client device access to resources of the remote access system. The method further includes receiving access information identifying an access device and a user account associated with the first client information. The access information indicates that the user account has been successfully authenticated by the access device. The method further includes, in response to the receipt of the access information, causing the first client device to connect to the first remote access session with the remote access system as a background process of the client device while a user interface of the client device remains locked.

Abstract: A method is disclosed for improved tracking area planning and handling, comprising: assigning a single tracking area code to a plurality of eNodeBs at a messaging concentrator gateway, the messaging concentrator gateway situated in a network between the plurality of eNodeBs and the core network; storing, at the messaging concentrator gateway, at least one indicator of a last known location of a user equipment (UE) other than the single tracking area code; receiving a paging message from the core network at the messaging concentrator gateway for a UE; and performing a paging sequence using the at least one indicator to identify a set of eNodeBs to page the UE, thereby allowing larger tracking area list sizes to be used without increasing signaling traffic between the radio access network and the core network.

Abstract: When a user exploits virtualization software and navigates through or to a redirected client drive in a remote session then the file management application may refresh the directory/folder content very slowly, spending significantly more time than expected according to the amount of data, network speed and latency. Whilst this refreshing is being performed no actions with the file management application can be performed by the user. Accordingly to address this a system or method are provided that cache metainformation for files, folders, and subfolders, e.g. upon a network resource, in a driver which responds to a query directory and other related requests by filling a provided buffer with the cached data. Further, this driver may filter out some particular files from the results if a filtering option is selected to further reduce latency.

Abstract: This disclosure introduces an advancement to the error indication message to provide detailed information about errors in configurations that are arriving from the Layer 2 to the Layer 1. A method is disclosed, comprising: performing physical layer control (PHY) of a wireless signal at a Layer 1 (L1) software module; performing medium access control (MAC) of the wireless signal at a Layer 2 (L2) software module; providing an application programming interface between the L1 software module and the L2 software module for receiving L1 configuration messages and providing error codes to the L2 software module; receiving a L1 configuration message at a Layer 1 software module; and providing an enhanced error code progressively from a L1 software module to the Layer 2 (L2) software module.

Abstract: Disclosed are systems and methods for providing improved rendering of graphical user interfaces for remote applications executing within remote sessions. A remote session client that renders the graphical user interface (GUI) for a remote application is configured to detect certain mouse events that would trigger window move events. In doing so, the remote session client may handle rendering the window GUI locally rather than wait for window move events from the remote application. The remote session client may be further configured to predict using calculated resize patterns how the window content image changes while the remote application's window is being resized.

Abstract: Disclosed are systems and methods for managing software applications. The system receives, via a graphical user interface, a request to generate a chain application with a sequence of execution comprising a first application and a second application. In response to determining that an output type of the first application is not compatible with an input type of the second application, the system updates, without further user input, the sequence of execution such that the second application precedes the first application. The system generates the chain application configured to execute the first application and the second application in the updated sequence of execution.

Abstract: A method and computer readable software for providing randomized Security Parameter Index (SPI) for distributed Internet Protocol security (IPsec) are disclosed. In one embodiment a method includes designating each IPsec node with a unique node identifier, the IPsec node; performing a hash function on a random SPI to provide a randomized SPI; and assigning the randomized SPI to an IPsec tunnel associated with an IPsec node.