Abstract: An electronic device is provided. The electronic device includes a processor. The electronic device includes a display including a display panel and a display driver circuit that includes memory. The display driver circuit is configured to identify an event for a display on the display panel. The display driver circuit is configured to, in response to the event of a first type that executes the display through the memory, change, at a timing before a reference time from a start timing of a scan for the display, a state of a signal provided from the display driver circuit to the processor from a first state indicating to enable an image transmission to the display driver circuit to a second state indicating to disable the image transmission.

Abstract: An electronic device is provided. The electronic device includes a processor. The electronic device includes a display including a display driver circuit and a display panel. The electronic device includes a first path connecting the display driver circuit to the processor. The electronic device includes a second path connecting the display driver circuit to the processor and separate from the first path. The processor is configured to transmit, based on a first cycle, via the second path to the display driver circuit, a pulse signal to synchronize, with a first time period in the processor used to display an image transmitted via the first path to the display driver circuit on the display panel, the first time period in the display driver circuit used to display the image on the display panel.

Abstract: An example electronic device includes a display panel; a display driver circuit operably coupled to the display panel and including a memory; and a processor operably coupled to the display driver circuit. The processor may be configured to identify a refresh rate; provide, to the display driver circuit, a first signal that indicates storing in the memory one or more images to be provided from the processor for a display on the display panel according to the refresh rate, or provide, to the display driver circuit, a second signal that indicates bypassing to store the one or more images in the memory.

Abstract: A composite solid electrolyte includes: a solid electrolyte; and a protective layer on a surface of the solid electrolyte, wherein the protective layer comprises a compound of Formula 1 LixM1yM2zOt+x/2??Formula 1 wherein in Formula 1, M1 is an element having a Gibbs reaction energy of greater than 0 electron-volts per mole, M2 is an element of Groups 2 to 14, 0<x<1, 0<y<1, 0?z<1, and 0<t?1.

Abstract: Provided is a task tracking method including identifying a mail that includes at least one piece of mail information among sender information, receiver information, a mail title, and mail content through a message communication tool; recognizing the mail that includes the at least one piece of mail information as a task and tracking the task; and automatically classifying the task based on a preset condition, and displaying the classified task through the message communication tool.

Abstract: A task tracking method includes recognizing, through a message communication tool, and tracking, as a task, a message that includes project information associated with a project or complete date information of a task associated with the project; identifying a member and a non-member of the task in response to tracking the task; and assigning the task associated with the project to the non-member through the message communication tool and granting a right to use the task so that collaboration is performed between the member and the non-member perform.

Abstract: A task tracking method includes identifying a message that includes project information associated with a project and complete date information of the project or a task associated with the project through a message communication tool; recognizing the identified message as the task to be tracked based on the project information and the complete date information; and tracking the task based on a state of the recognized task, classifying the task, and displaying the task through the message communication tool.

Abstract: In systems and methods of allocating carriers in a wireless communication network, a plurality of wireless devices in communication with an access node is ranked in a first ranking according to a required data rate of each wireless device. A carrier metric is determined for each of a plurality of carriers of the access node according to an actual data rate of each of the carriers and the required data rate of each wireless device, and each of the carriers is ranked in a second ranking for each of the plurality of wireless devices according to the determined carrier metric of each of the plurality of carriers. A first wireless device is selected from the first ranking, and a carrier from the second ranking is allocated to the selected first wireless device when the carrier provides the required data rate of the selected first wireless device.

Abstract: In systems and methods of transmitting information to a wireless device, information is received at a first access node from a second access node over a communication link between the first and second access nodes, the information comprising an indication of whether the transmission of a resource block at the first access node may cause interference with a transmission at the second access node. The first access node transmits the resource block when it is determined that the transmission at the first access node will not interfere with a transmission at the second access node.

Abstract: In systems and method of determining a reordering timer in a wireless communication network, it is determined that a packet reordering of a plurality of data packets meets a reordering threshold, and the plurality of data packets is examined to determine a reordering severity of the plurality of data packets. Based on the determined reordering severity and an application requirement associated with the plurality of data packets, a reordering timer is determined.

Abstract: Loading information of an access node and a random access failure rate at the access node are determined, wherein the access node is using a first physical random access channel (PRACH) configuration index. Based on the comparison of the loading information to a loading criteria and the comparison of the random access failure rate to a failure rate criteria, a second PRACH configuration index is selected for the access node.

Abstract: A first throughput is determined of a first data flow at a gateway from a first access node and a second throughput is determined of second data flow at an inspection node from the gateway. A third throughput is determined comprising one or more third data flows from the gateway to a second access node based on a difference between the first throughput and the second throughput. At least one of the third data flows of the third throughput is identified, and when the third throughput meets a throughput threshold the identified third data flow is adjusted.

Abstract: In systems and method of determining a reordering timer in a wireless communication network, when it is determined that a packet reordering of a plurality of data packets meets a reordering threshold, a handover probability that the wireless device will be handed over to a second access node is estimated based on a first congestion metric of the first access node and a second congestion metric of the second access node. The plurality of data packets is examined to determine application requirements of an application of the wireless device. Based on the handover probability, the application requirements and the second congestion metric, a reordering timer is determined for use by the second access node.

Abstract: Active wireless devices in communication with an access node of a wireless communication system are detected and prioritized, and a group of the active wireless devices is selected. Data is provided to each selected wireless device, a burstiness metric is received based on the provided data, and a burstiness profile of the wireless communication system is determined.

Abstract: In a system and method of determining bandwidth requirements of an intermediate network between a first network and a second network, determining data throughput characteristics of each of a plurality of carriers in communication with the intermediate network, determining a load balancing efficiency metric based on the determined carrier data throughput characteristics, estimating a multiplexing factor based on the load balancing efficiency metric and a total number of the plurality of carriers, and determining an actual bandwidth requirement of the intermediate network based on the multiplexing factor and a theoretical maximum bandwidth of the intermediate network.

Abstract: In some embodiments, an apparatus includes a monitor module, a detector module and an adjustment module. The monitor module is configured to receive a set of indicators from a wireless network. The detector module is configured to detect an underperformance condition during a time period and within a first cell of the wireless network based on the set of indicators. The adjustment module is configured to iteratively adjust a parameter associated with a second cell of the wireless network to produce an adjusted parameter. The adjustment module is configured to send the adjusted parameter to the wireless network to improve performance of the wireless network. The adjustment module is configured to restore, after the time period, the parameter associated with the second cell to a value equal to a value for the parameter prior to the time period, and send that value of the parameter to the wireless network.

Abstract: In some embodiments, an apparatus includes a monitor module, a detector module and an adjustment module. The monitor module is configured to receive a set of indicators from a wireless network. The detector module is configured to detect an underperformance condition during a time period and within a first cell of the wireless network based on the set of indicators. The adjustment module is configured to iteratively adjust a parameter associated with a second cell of the wireless network to produce an adjusted parameter. The adjustment module is configured to send the adjusted parameter to the wireless network to improve performance of the wireless network. The adjustment module is configured to restore, after the time period, the parameter associated with the second cell to a value equal to a value for the parameter prior to the time period, and send that value of the parameter to the wireless network.