Abstract: In the network-based group management and floor control mechanism disclosed herein, a server may receive a request to occupy a shared IoT resource from a member device in an IoT device group and transmit a message granting the member IoT device permission to occupy the shared IoT resource based on one or more policies. For example, the granted permission may comprise a floor that blocks other IoT devices from accessing the shared IoT resource while the member IoT device holds the floor. Furthermore, the server may revoke the permission if the member IoT device fails to transmit a keep-alive message before a timeout period expires, a high-priority IoT device pre-empts the floor, and/or based on the policies. Alternatively, the server may make the shared IoT resource available if the member IoT device sends a message that voluntarily releases the floor.

Abstract: A method is disclosed for facilitating electronic communication between an external contact and an internal point person and between the internal point person and one or more internal team members. An internal collaboration network is created based on a first e-mail received from or sent to the external contact. The membership of the internal collaboration network is based on recipient information from the first e-mail and includes the internal point person but excludes the external contact. A message from the internal point person is automatically sent to the members of the internal collaboration network for display in a private collaboration view of an app on a computing device. Later-sent e-mails from the external contact that have subjects matching the subject of the first e-mail are automatically sent to the membership for display in a customer view of the app.

Abstract: Embodiments of the present invention are operable to efficiently schedule memory device commands, such as flash memory device commands, while taking into account the interdependencies of processing such commands. As such embodiments of the present invention order commands to make sure that data is written and read from memory devices in a coherent fashion using command groups. Commands within such command groups are scheduled concurrently or in parallel. In this fashion, embodiments of the present invention promote efficient execution of memory device commands while maintaining any required arbitrary ordering requirements.

Abstract: A system and method for efficiently managing data through compression interfaces may include receiving, by a controller, data, generating, by the controller, a compressed payload based on the data, generating, by the controller, metadata describing the compressed payload, the metadata including fixed size metadata and variable size metadata, generating, by the controller, a data container comprising the uncompressed payload and the metadata, and transmitting, by the controller, the data container to an application. Some implementations of the system may include a storage media, and a storage controller executable by a processor that may include an interface processor, a controller logic, and a media processor configured to communicate with an application and the storage media to perform aspects of the method.

Abstract: Disclosed is a method for assigning a variable Quality of Service (QoS) Class Identifier (QCI) for a call among a plurality of user devices by determining an initial QCI for the call based on one or more metrics related to the plurality of user devices, assigning the initial QCI for the call to the plurality of user devices or to a first user device of the plurality of user devices, determining a second QCI for the call, wherein the second QCI is based on a plurality of user engagement scores and information related to the one or more metrics received from the plurality of user devices, and assigning the second QCI for the call to the plurality of user devices or to the first user device of the plurality of user devices.

Abstract: A system may receive order information that may include information identifying a network service, associated with a service provider network, and a service location associated with the network service. The system may determine context information based on the order information that may include information associated with providing the network service to the service location via the service provider network. The system may generate a service order based on the context information. The system may create a virtual network function (VNF) based on the service request. The VNF may be created such that the VNF operates on a computing device associated with the system, and may be configured to provide the network service. The system may insert the VNF into the service provider network to cause the network service to be provided to the service location. The VNF may interact with a physical device of the service provider network.

Abstract: A system comprising a processor and a memory storing instructions that, when executed, cause the system to determine a first value of a first checkpoint associated with a first snapshot, receive a second value of a second checkpoint associated with a translation table entry from an additional source, determine whether the second value of the second checkpoint is after the first value of the first checkpoint, in response to determining that the second value of the second checkpoint is after the first value of the first checkpoint, retrieve the translation table entry associated with the second checkpoint from the additional source, and reconstruct the translation table using the translation table entry associated with the second checkpoint.

Abstract: A system comprising a processor and a memory storing instructions that, when executed, cause the system to receive a first translation table entry for a logical block, map the first translation table entry to a first dump unit, the first dump unit included in an array of dump units, identify a second translation table entry for the logical block in the first dump unit, the second translation table entry also being stored in a storage device, and generate a linked list in the storage device from the second translation table entry associated with the first dump unit, the linked list identifying previous translation table entries associated with the logical block.

Abstract: The disclosure generally relates to enabling communication among one or more Internet of Things (IoT) device groups. In particular, various heterogeneous IoT devices that may need to interact with one another in different ways may be organized into IoT device groups to support efficient interaction among the IoT devices. For example, pre-defined IoT device groups may be formed organize certain IoT devices that perform similar activities and certain IoT devices may be dynamically allocated to ad-hoc IoT device groups for certain contexts (e.g., the ad-hoc IoT device groups may include IoT devices that can implement a desired function and therefore be dynamically formed to implement the desired function). Furthermore, the IoT groups may communicate hierarchically, wherein messages may be exchanged among IoT group owners or ranking members to support efficient communication between different IoT groups.

Abstract: The disclosure generally relates to Internet of Things (IoT) device social networking, and in particular to an IoT device publish-subscribe messaging model and automatic IoT device social network expansion. For example, IoT devices from different networks may publish status data that relates to certain topics, wherein the published status updates may be managed in a distributed manner at each IoT network. Furthermore, IoT devices interested in published data can subscribe to data relating to certain topics, which may be used to dynamically adjust actions that the subscribing IoT devices may take. Furthermore, IoT devices can employ common social networking capabilities (e.g., refer, follow, like, publish, subscribe, etc.) to interact with other IoT devices and find relevant information from other IoT devices that can be used to improve performance and effectiveness.

Abstract: A system and method for integrating flash management and deduplication with marker based reference set handling may include a dynamic reference set that is elastic and can include non-contiguous reference blocks. The method may further include determining the first reference block of the plurality of reference blocks for continued encoding, the first reference block having an identifier, and associating the identifier of the first reference block with a second reference set. Some implementations of the method may further include receiving a first plurality of data blocks in an incoming data stream, the first plurality of data blocks including a first data block, and encoding the first data block using the first reference block associated with the second reference set.

Abstract: Methods, servers and systems are disclosed for authenticating location information in a message from a sending computing device to a receiving computing device. Location information of a sending computing device at an actual location may be incorporated in the message. Location information in a message may be compared with information regarding the actual location of the sending computing device maintained by a server. The location information in the message may be authenticated based on the comparison.

Abstract: A system comprising a processor and a memory storing instructions that, when executed, cause the system to receive a data stream including one or more data blocks; determine a size of the one or more data blocks; determine a number of mappings needed for a physical block based on the size of a data block and a size of the physical block, the number of mappings being variable for different physical blocks depending on the size of the one or more data blocks storing in the physical block; retrieve a dynamically sized reverse map, the dynamically sized reverse map being a dynamic tree structure; determine a starting location in the dynamically sized reverse map for mappings of the one or more data blocks; and create an entry for the physical block in the dynamically sized reverse map.

Abstract: The disclosure is related to determining an association among Internet of Things (IoT) devices. A first IoT device receives an identifier of a second IoT device, obtains a schema of the second IoT device based on the identifier of the second IoT device, and determines whether or not there is an association between the first IoT device and the second IoT device based on a schema of the first IoT device and the schema of the second IoT device, where the schema of the first IoT device comprises schema elements and corresponding values of the first IoT device and the schema of the second IoT device comprises schema elements and corresponding values of the second IoT device.

Abstract: A device may receive order information that may identify a network service to be provided, via a service provider network, to a service location associated with a customer. The device may determine context information associated with providing the network service. The context information may be determined based on the order information and may include information associated with a virtual network function (VNF) that is to provide the network service to the service location. The device may determine provisioning details associated with the network service. The device may generate a service request that includes the context information and the provisioning details. The device may identify a cloud resource that is to host the VNF. The device may provide the service request to the cloud resource to cause the VNF to be created and inserted into the service provider network.

Abstract: Techniques described herein may be used to provide a self-installing customer premise equipment (CPE) device that is capable of automatically registering with, and participating in, a network of CPE devices in response to being powered on. The CPE device may be capable of logically combining a connection with a wireless cellular network and a wired network to increase bandwidth and reliability. The CPE device may also detect a power failure and report the power failure to a centralized server in order to facilitate the diagnosis and correction of performance issues caused by the power failure.

Abstract: Systems and methods are disclosed for maintaining continuity of a peer-to-peer group session. The method may include exchanging a first P2P group session communication with a member of the P2P group via a direct data traffic connection, requesting session data from an application server, conveying the session data to a proxy UE, wherein the proxy UE is a member of the P2P group, and exchanging a second P2P group session communication with the application server in accordance with the session data.

Abstract: Embodiments of the present invention receive I/O commands, expressed in either vendor-specific or non-vendor-specific protocols and normalize them into a common format for execution by different memory devices. Embodiments of the present invention identify these I/O commands using parameters common to both types of protocols. In this fashion, embodiments store normalized commands in data structures for execution by memory devices in which the normalized, commands represent instructions for performing an action corresponding with execution of the original I/O command. Accordingly, embodiments of the present invention save resources with respect to hardware and software maintenance costs.

Abstract: Embodiments of the present invention are operable to efficiently schedule memory device commands, such as flash memory device commands, while taking into account the interdependencies of processing such commands. As such embodiments of the present invention order commands to make sure that data is written and read from memory devices in a coherent fashion using command groups. Commands within such command groups are scheduled concurrently or in parallel. In this fashion, embodiments of the present invention promote efficient execution of memory device commands while maintaining any required arbitrary ordering requirements.

Abstract: A sequence of contiguous pages in an erase block in a non-volatile memory device is programmed and erased. Next, all of the pages in the erase block are programmed with data. Then, the data is read back and verified to determine whether there is an error in the data. When there is an error in the data, then the last page in the sequence is identified as being unstable. If there is no error in the data, then the last page in that sequence is identified as being stable. Thus, the recorded information identifies a point of instability in the erase block. Instabilities can be stabilized by performing additional writes to fill the partially filled word line.