Abstract:
A collaborative method for a node includes forming a local network with at least one other node using a lower power subsystem; selecting a master node from among the local network based on a first set of criteria; and communicating with a back end server over a wireless wide area network (WWAN) using a higher power subsystem. An apparatus may include a first subsystem for communicating with a local network; and a second subsystem having an active mode and an inactive mode, the second subsystem for communicating with a wireless wide area network (WWAN) when in the active mode, the apparatus selecting the active mode or inactive mode based on a set of criteria.
Abstract:
A method, an apparatus, and a computer program product for wireless communication are provided. The apparatus provides or enables dynamic cooperative wireless data delivery service based on dynamic proximate locations of mobile nodes in wireless networks. A source wireless terminal may offload data for delayed transmission by a neighboring wireless terminal. The source may attempt delayed data transmission via any cooperating neighboring node (mule), whether mobile or stationary. A utility function may be used to compare costs of communicating via direct links or through opportunistically available links provided by mules. The mule may advertise availability of indirect data delivery service including probable latency time associated with the indirect delivery service.
Abstract:
A method, an apparatus, and a computer program product for wireless communication are provided in connection with improving wireless device power consumption in an M2M environment. In an example, a service layer module equipped to obtain a network value indicating that a service layer transaction is complete and no additional activity associated with the service layer transaction is expected from a network entity, determine that no additional activity associated with the service layer transaction is expected from a wireless device application, generate a sleep mode value based on the reception of the network value and upon the determination, and provide the sleep mode value to a modem subsystem and/or an application subsystem indicating that it is allowed to enter a sleep mode. In an aspect, the sleep mode value may be provided using cross layer signaling between a service layer and modem processing layer.
Abstract:
Adaptive hardware reconfiguration of configurable co-processor cores for hardware optimization of functionality blocks based on use case prediction, and related methods, circuits, and computer-readable media are disclosed. In one embodiment, an indication of one or more applications for possible execution is received. Execution probabilities for respective ones of the one or more applications are received. One or more mappings of the one or more applications to one or more functionality blocks is accessed, and a net benefit of hardware reconfiguration of one or more configurable co-processor cores of a multicore central processing unit for the one or more functionality blocks is calculated based on the execution probabilities and the mappings. An optimal hardware reconfiguration is determined based on a current hardware configuration and the calculated net benefit. The configurable co-processor cores are reconfigured based on the optimal hardware reconfiguration.
Abstract:
A method, an apparatus, and a computer program product for wireless communication are provided. An apparatus notifies a user equipment (UE) of an upcoming multicast/broadcast of data intended for receipt by a group of UEs assigned a machine type communication (MTC) class. The UE has one or more MTC classes assigned to it and is configured to awake for the upcoming multicast/broadcast of data if the data to be broadcast corresponds to an MTC class assigned to the UE. The apparatus also multicasts/broadcasts the data intended for receipt by a group of UEs through at least one multicast/broadcast mechanism.
Abstract:
A method, an apparatus, and a computer program product for wireless communication are provided in connection with improving wireless device power consumption in an M2M environment. In an example, a service layer module equipped to obtain a network value indicating that a service layer transaction is complete and no additional activity associated with the service layer transaction is expected from a network entity, determine that no additional activity associated with the service layer transaction is expected from a wireless device application, generate a sleep mode value based on the reception of the network value and upon the determination, and provide the sleep mode value to a modem subsystem and/or an application subsystem indicating that it is allowed to enter a sleep mode. In an aspect, the sleep mode value may be provided using cross layer signaling between a service layer and modem processing layer.
Abstract:
Apparatus and methods for low power sensing of wireless access technologies are disclosed. In particular, a mobile wireless device, such as an access terminal, may utilize a lower power circuitry portion that operates at a lower power than active circuitry, such as a primary transceiver. The lower power circuitry portion includes a configurable searcher that is capable of sensing if signals of one or more various wireless access technologies are present. When the wireless device utilizes sleep or idle modes for power savings, use of the lower power sensing circuitry to sense the presence of wireless access technologies, rather than using an awoken higher power primary transceiver for sensing, affords increased power savings. An added ability of the lower power circuitry to be put into sleep or idles modes achieves even greater power savings.
Abstract:
Information transfer methods for exchange of information with a wireless access terminal (W-AT) includes receiving a first message from the W-AT, the first message including first information provided by the W-AT and an address of the W-AT capable of identifying the W-AT, converting the first message to an anonymized message by replacing the W-AT address with a transaction identifier (ID), transmitting the anonymized message to a remote server, receiving a first response from the remote server, the first response having response information and the anonymized address information, converting the first response to a second response by replacing the transaction ID with the W-AT address, and transmitting the second response to the W-AT.
Abstract:
The described apparatus and methods provide communication services utilizing a combination of non-white space (NWS) and white space (WS) networks. For example, in an aspect, the described apparatus and methods receive, at a first base station (BS) and on a licensed frequency, a communication request for network access from a wireless access terminal (AT). The aspects also determine at least one available unlicensed frequency corresponding to a location of the wireless AT. Further, the aspects partition at least a portion of the network access for the wireless AT to be via the at least one available unlicensed frequency. Additionally, the aspects inform the wireless AT of the at least one available unlicensed frequency for use to obtain at least the portion of the network access. Additional aspects relate to NWS BS assisted handoffs of WS calls, dynamic caching of WS information, peer-to-peer WS communication, and WS BS venue-specific broadcasting.
Abstract:
A method, an apparatus, and a computer program product for wireless communication are provided in connection with improving wireless device power consumption in an M2M environment. In an example, a service layer module equipped to obtain a network value indicating that a service layer transaction is complete and no additional activity associated with the service layer transaction is expected from a network entity, determine that no additional activity associated with the service layer transaction is expected from a wireless device application, generate a sleep mode value based on the reception of the network value and upon the determination, and provide the sleep mode value to a modem subsystem and/or an application subsystem indicating that it is allowed to enter a sleep mode. In an aspect, the sleep mode value may be provided using cross layer signaling between a service layer and modem processing layer.