Abstract: Provided is a communication device within a communication network including a plurality of communication nodes, including: a reception unit that receives a data packet transmitted from a terminal device or transmitted to the terminal device; a communication control unit that selects a forwarding destination node of the data packet from a plurality of forwarding destination node candidates when the terminal device is a machine-type communication (MTC) terminal; and a transmission unit that transmits the data packet to the forwarding destination node selected by the communication control unit.

Abstract: A naming scheme for IoT Devices can address the problem that the existing naming schemes of the IoT devices do not support device discovery and group operation efficiently. An IoT Device Name Service (IDNS) can be in charge of how the device name is generated from the location and other context information; updated due to the location change or context variation; and discovered. The IoT Devices can be routed by their names using a Name Routing Protocol (NRP). With the name scheme and NRP, the IoT Devices do not need to implement the full protocol stack to enable the direct communication between them.

Abstract: Profile based services and content can assist with the backward and forward compatibility of conventional service layers or the like. Using a profile to manage content and access to services offered may reduce the overhead or processing associated with providing those value added services by service layers. A service layer may be an M2M/IoT Service Layer, and compatibility may refer to compatibility regarding different versions or releases of the oneM2M Service Layer.

Abstract: A method of transmitting blocks of data in a wireless telecommunications system in which blocks of data are transmitted a plurality of times. When a first block of data becomes available for transmission an initial selection of transmission resources for a plurality of transmissions of the first block of data in a corresponding plurality of time periods is made, and transmissions of the first block of data are started. While there are still transmissions of the first block of data which remain to be made, a second block of data becomes available for transmission. In response to this, the initial selection of transmission resources for the remaining repeat transmissions of the first block of data is modified to increase the amount of resource available for transmitting the second block of data during the time periods in which repeat transmissions of the first block of data remain to be made.

Abstract: Disclosed herein are a variety of devices, methods, and systems for combined proximity services and Internet of Things (IoT) services registration or de-registration. An exemplary method includes one or more of receiving a device initiated IoT service registration request, wherein proximity information relating to the device is contained within the received IoT service registration request; receiving a device initiated proximity service registration request, wherein IoT service information relating to the device is contained within the received IoT service registration request; sending, from an IoT server, a proximity service registration message; and sending, from a proximity manager, an IoT service registration request.

Abstract: In a machine-to-machine/Internet-of-things environment, end-to-end authentication of devices separated by multiple hops is achieved via direct or delegated/intermediated negotiations using pre-provisioned hop-by-hop credentials, uniquely generated hop-by-hop credentials, and-or public key certificates, whereby remote resources and services may be discovered via single-hop communications, and then secure communications with the remote resources may be established using secure protocols appropriate to the resources and services and capabilities of end devices, and communication thereafter conducted directly without the overhead or risks engendered hop-by-hop translation.

Abstract: System information can include a basic set of system information and additional system information. A UE can receive the basic set of system information and then later request or receive the additional system information. Messages can use tags which can be used to look up locally stored system information. If a tag does not correspond to any locally stored system information, the system information and an associated tag can then be requested. Messages can be indicative of a cluster identity associated with cells. When the UE goes into a new cell, the cluster identity can be checked to see if system information from a prior call can be reused.

Abstract: A system comprises an integrated small cell and WiFi (ISW) gateway (GW). The ISW GW is integrated with a mobility management entity (MME) and serving gateway (SGW) and has interfaces with both a 3GPP access network and a TWAN. The ISW GW operates as a common control gateway and a common user gateway for both LTE networks and TWANs. User equipment (UE) by means of the ISW GW is able to access the capabilities of a packet data network (PDN) through either the LTE network or TWAN. Further, the ISW GW provides for an existing communication connection between a UE and a PDN to be handed over from one of the LTE network or TWAN to the other. Still further, the ISW GW supports simultaneously maintaining two communication paths, one via the LTE network and one via the TWAN, between a UE and a packet network.

Abstract: Flexibly configured containers consisting of resources within time-frequency blocks may be used to support multiple numerologies in new radio architectures. Uplink control may be defined in resources within a container, or in dedicated resources, by various nodes. Sounding reference signal resources may be dynamically configured for each numerology. The sequence length may be adapted, as well as the time domain location of symbols. Time, frequency, and orthogonal resources may be allocated via a downlink control channel or a radio resource control. Sounding reference signals may be pre-coded, and pre-coding weights may be based on a codebook or non-codebook approaches, e.g., via a radio resource control or a downlink RRC or DL control channel. Pre-coded sounding reference signals may be adapted to user equipment antenna configuration. Further, NR-SRS may be used as UL demodulation RS (DM-RS).

Abstract: A method for use in a wireless telecommunications network comprising a core network, two or more base stations each providing wireless connectivity within a base station cell, and a terminal device configured to communicate wirelessly with the base stations by a communication mode, and the method being a positioning method for determining a position of the terminal device, comprises sending one or more positioning signals between the base stations and the terminal device during a transmission phase of the method, and using measured arrival times of the positioning signals to triangulate a position of the terminal device, wherein during the transmission phase the terminal device is in an energy saving communication mode.

Abstract: Mechanisms for discovering ad hoc Service Layer Entities (aSLEs) either deployed in ad hoc or switched from normal operation mode to ad hoc mode can support an IoT service in a distributive self-organized system.

Abstract: A mobile communications system communicates data to/from mobile communications devices, and provides a wireless access interface communicating data to/from the mobile communications devices, on a downlink first carrier providing plural communications resource elements across a first frequency range for communicating data, and within a second frequency range within and smaller than the first frequency range. The wireless access interface includes plural time divided sub-frames, each sub-frame including plural communications resource elements of the first frequency range and plural communications resource elements of the second frequency range.

Abstract: A network entity may determine whether a network context of a device is stored in the device or in the network based, at least in part, on a preference or capability of the device, as reported by the device during attachment to the network entity. The context may be stored in, and retrieved from, a dedicated context storage function that is independent of the network entity. A context storage function may be partitioned, or separate storage functions used, to automatically group and track access network contexts, core network contexts, or network slice contexts. The context storage function may provide to the device an index, such as a link or other identifier to be used in retrieving the stored context information. The context storage function may further provide a token to secure re-attachment communications among the device, the network entity, and the context storage function.

Abstract: Service layer and application triggering may be used in a machine-to-machine environment. In an embodiment, an existing service layer procedure, such as registration, may allow a device or gateway service layer or application to indicate to a machine-to-machine server what port is listened to for triggers. In another embodiment, triggering may be used to provide bootstrapping instructions, including temporary bootstrapping identifiers, in trigger requests. In another embodiment, triggering may be used to assist with event notification. Service layer or application instructions may be embedded inside of trigger payloads. A trigger payload format is defined.

Abstract: The present application is at leasted directed to an apparatus including a non-transitory memory including instructions to perform random access in a beam sweeping network having a cell. The network includes a downlink sweeping subframe, an uplink sweeping subframe and a regular sweeping subframe. The apparatus also includes a processor operably coupled to the non-transitory memory. The processor is configured to execute the instructions of selecting an optimal downlink transmission beam transmitted by the cell during the downlink sweeping subframe. The processor is also configured to execute the instructions of determining an optimal downlink reception beam from the optimal downlink transmission beam. The processor is further configured to execute the instructions of determining a random access preamble and a physical random access channel (PRACH) resource via resource selection from the optimal downlink transmission beam.

Abstract: The present application is at least directed a system for managing a server transition associated with user equipment. The system includes a non-transitory memory and a processor that is operably coupled to the non-transitory memory. The processor is configured to perform the instructions of receiving a relocation request from a first server to switch to another server. The processor is also configured to verify credentials of the first server. The processor also determines whether a first core networking terminating point associated with the first server is appropriate for the other server to communicate with the user equipment. Further, the processor sends a result of the determination to the user equipment.

Abstract: Methods, devices, and systems are disclosed for an M2M Interest Function. An M2M Interest Function may receive requests from users to publish the users' personal interests in particular data identify relationships and patterns in the data. Associated data may then be stored in a single best location for such data based on various criteria rather than on separate M2M Gateways or M2M Servers. This location may be provided to users interested in such data. Relationship and association data may be provided to M2M gateways.

Abstract: Methods and systems may be used to synchronize time across multiple IoT related entities, such as a network of resource constrained sensor and actuator type devices, IoT gateways, IoT cloud services, or IoT applications.

Abstract: An M2M entity may retrieve data such that the representation of the data may consistently be returned in a form that can be dynamically specified in order to reduce complexity and overhead required by a requestor or consumer of the data. The semantic descriptions of the data that exist in the service layer may be used in order to provide desired results to the requestor or consumer of the data.

Abstract: Wireless channels and timeslots are allocated in a distributed and reactive manner by network devices. A source device sends to neighbor devices a track discovery request indicating a destination and data bandwidth/channel and timeslot requirements. The neighbors conditionally forward the message until it reaches the destination device. The forwarded message includes information about the devices traversed by the message. Messages will not be forwarded if the recipient lacks sufficient resources to accommodate the data bandwidth requirements. The destination selects a path to be a communications track based upon characteristics of the one or more paths by which the request was received, and sends a reply back to the source device along the selected path. Once established, tracks may be kept alive, updated, and/or repaired via messaging among the devices along the track.