Abstract: A touch input device includes a base board unit, a movable board unit, an actuating member and a noise reduction member. The base board unit has a distal end portion. The movable board unit overlaps and is connected to the base board unit, and has a free end portion movable toward or away from the distal end portion of the base board unit. The actuating unit includes a switch protruding from the free end portion and extending into the noise reduction member, and an actuating member protruding from the distal end portion. The noise reduction member is compressed by the distal end portion when the free end portion moves to the position adjacent to the distal end portion for the actuating member to actuate the switch.

Abstract: Distributed resource allocation for devices can be facilitated via a priority sequencing scheme. The priority sequencing scheme can mitigate source device collisions by assigning priority values to source devices and channels associated with the source devices. Various priority sequencing can be used based upon whether source devices can only communicate with a limited number of sink devices or whether source devices can communicate with all sink devices.

Abstract: Distributed resource allocation for devices can be facilitated via a priority sequencing scheme. The priority sequencing scheme can mitigate source device collisions by assigning priority values to source devices and channels associated with the source devices. Various priority sequencing can be used based upon whether source devices can only communicate with a limited number of sink devices or whether source devices can communicate with all sink devices.

Abstract: A dynamic time division duplex (TDD) mechanism for small cellular networks is disclosed. The mechanism dynamically allocates radio resource usage with commensurate increases in throughput and reductions in latency. For example, scheduling data comprising scheduling information data can be received by a device, wherein the scheduling information data comprises uplink allocation data. Then the device can switch from a first mode to a second mode as a function of the uplink allocation data, and transmission data can be transmitted in a subframe of a frame by skipping a resource allocated for the scheduling information data.

Abstract: Techniques for energy efficiency utilizing the relay transmission mode of multiple device coordination (MDC) in a wireless communication system are described. For example, a method includes identifying, by a coordinating device including a processor, one or more devices associated with a same entity as the coordinating device, wherein the coordinating device and the one or more devices are part of a set of devices. The method also includes coordinating, by the coordinating device, with the one or more devices to enable a single radio resource connection (RRC) between the set of devices and a base station. The coordinating can include selecting a relay node device, from among the set of devices, to relay data transmitted from the set of devices during a relay transmission mode. The data is relayed to the base station using the single RRC, which is established through the relay node device.

Abstract: Data transmissions between a user equipment (UE) and a serving cell of a heterogeneous network (HetNet) are efficiently scheduled based on speed data associated with the UE. In one aspect, the UE can report its speed to a serving access point. Alternatively, the serving access point can estimate the UE's speed based on information received from core network devices. In addition, to extend the battery life of the UE, the UE can report power consumption constraint data to the serving cell, which in turn can utilize the consumption constraint data to facilitate the scheduling. Moreover, based on an analysis of the speed data and the power consumption constraint data, the serving access point can determine whether dual connectivity is to be implemented and/or whether communication data is to be transmitted via an Almost Blank Sub-frame (ABS) or a non-ABS.

Abstract: Network device coordination schemes allocate resources, configure transmission policies, and assign users to utilize resources. A set of transmission policies is generated to services users while each user maintains a throughput threshold. The set of transmission policies can be altered to alter a network energy efficiency. The set of transmission polices can be altered based on energy consumption, data throughput, channel characteristics, measured interference, and the like.

Abstract: Multiple device coordination (MDC) in a wireless communication system is described. For example, a method includes identifying, by a coordinating device associated with an entity, one or more non-coordinating devices of a network and associated with the same entity. The method also includes coordinating a single, shared radio connection to which the coordinating device and the one or more non-coordinating devices are communicatively coupled. In some instances, coordination is performed via initializing, management and/or transmission stages. For example, from a set of candidate devices, a coordinating device and the non-coordinating devices are determined during the initialization stage. The coordinating device can be selected based on any number of different factors including, but not limited to, proximity to base station, transceiver power, resources, screen size and/or based on a selection made by the entity.

Abstract: Distributed resource allocation for devices can be facilitated via a priority sequencing scheme. The priority sequencing scheme can mitigate source device collisions by assigning priority values to source devices and channels associated with the source devices. Various priority sequencing can be used based upon whether source devices can only communicate with a limited number of sink devices or whether source devices can communicate with all sink devices.

Abstract: A dynamic time division duplex (TDD) mechanism for small cellular networks is disclosed. The mechanism dynamically allocates radio resource usage with commensurate increases in throughput and reductions in latency. For example, scheduling data comprising scheduling information data can be received by a device, wherein the scheduling information data comprises uplink allocation data. Then the device can switch from a first mode to a second mode as a function of the uplink allocation data, and transmission data can be transmitted in a subframe of a frame by skipping a resource allocated for the scheduling information data.

Abstract: Techniques for energy efficiency utilizing the relay transmission mode of multiple device coordination (MDC) in a wireless communication system are described. For example, a method includes identifying, by a coordinating device including a processor, one or more devices associated with a same entity as the coordinating device, wherein the coordinating device and the one or more devices are part of a set of devices. The method also includes coordinating, by the coordinating device, with the one or more devices to enable a single radio resource connection (RRC) between the set of devices and a base station. The coordinating can include selecting a relay node device, from among the set of devices, to relay data transmitted from the set of devices during a relay transmission mode. The data is relayed to the base station using the single RRC, which is established through the relay node device.

Abstract: Techniques for optimizing data transmission efficiency and accuracy in cellular network environments using remote radio headers are presented. In an aspect, a mobile device includes a collection component configured to collect fiber loss data from a plurality of remote radio devices in a cellular network. The fiber loss data can include data representative of data transmission loss over fibers respectively connecting the plurality of remote radio devices to a base station device. The mobile device further includes a selection component configured to select a remote radio device from the plurality of remote radio devices with which to access based in part on the fiber loss data.

Abstract: Network device coordination schemes allocate resources, configure transmission policies, and assign users to utilize resources. A set of transmission policies is generated to services users while each user maintains a throughput threshold. The set of transmission policies can be altered to alter a network energy efficiency. The set of transmission polices can be altered based on energy consumption, data throughput, channel characteristics, measured interference, and the like.

Abstract: An method for forming wireless communications groups applied in a wireless communications system includes selecting g coordinators from n wireless communications devices around a base station, allocating remaining (n?g) wireless communications devices of the n wireless communications devices to the g coordinators to form g wireless communications groups, reselecting a coordinator from each wireless communications group to generate g updated coordinators, and allocating remaining (n?g) wireless communications devices of the n wireless communications devices to the g updated coordinators to form g updated wireless communications groups.

Abstract: A small data transmission method, configured for a User Equipment (UE) to transceive a small data from a control node in a wireless network without establishing a Radio Resource Control (RRC) connection, and the method includes but not limited to the step of: monitoring a paging opportunity (PO) sub frame in a paging frame in an idle mode; when an identifier in the PO sub frame corresponding to the UE is detected, receiving a paging message corresponding to the PO sub frame; and analyzing the paging message, and when the paging message includes a small data indicator, extracting a data from an indicating address, in which the data is the small data.

Abstract: This disclosure generally relates to facilitation of a small cell device to detect direct link opportunities to establish a direct link mode connection to a user equipment based upon monitoring uplink communications from the user equipment to a macro base station, and cooperating with the macro base station to establish a direct link with the user equipment.

Abstract: Multiple device coordination (MDC) in a wireless communication system is described. For example, a method includes identifying, by a coordinating device associated with an entity, one or more non-coordinating devices of a network and associated with the same entity. The method also includes coordinating a single, shared radio connection to which the coordinating device and the one or more non-coordinating devices are communicatively coupled. In some instances, coordination is performed via initializing, management and/or transmission stages. For example, from a set of candidate devices, a coordinating device and the non-coordinating devices are determined during the initialization stage. The coordinating device can be selected based on any number of different factors including, but not limited to, proximity to base station, transceiver power, resources, screen size and/or based on a selection made by the entity.

Abstract: Data transmissions between a user equipment (UE) and a serving cell of a heterogeneous network (HetNet) are efficiently scheduled based on speed data associated with the UE. In one aspect, the UE can report its speed to a serving access point. Alternatively, the serving access point can estimate the UE's speed based on information received from core network devices. In addition, to extend the battery life of the UE, the UE can report power consumption constraint data to the serving cell, which in turn can utilize the consumption constraint data to facilitate the scheduling. Moreover, based on an analysis of the speed data and the power consumption constraint data, the serving access point can determine whether dual connectivity is to be implemented and/or whether communication data is to be transmitted via an Almost Blank Sub-frame (ABS) or a non-ABS.

Abstract: A method of performing radio resource management for a network node in a wireless communication system is disclosed. The method includes the following steps: performing sub access system (SAS) allocation to serve at least one mobile device, respectively; and adaptively adjusting the SAS allocation according to sensing results from the least one mobile device.

Abstract: Techniques for optimizing data transmission efficiency and accuracy in cellular network environments using remote radio headers are presented. In an aspect, a mobile device includes a collection component configured to collect fiber loss data from a plurality of remote radio devices in a cellular network. The fiber loss data can include data representative of data transmission loss over fibers respectively connecting the plurality of remote radio devices to a base station device. The mobile device further includes a selection component configured to select a remote radio device from the plurality of remote radio devices with which to access based in part on the fiber loss data.