Electronics and Telecommunications Research Institute

Hankook Tire Co., Ltd.

Kwang Yong Lee

Seong Mo Moon

Sang Yoon Oh

Beob Kyun Kim

Tae Young Kim

Woo Young Lee

Won Hee Lee

Jin Won Kim

Dong Wook Kang

Dong Hwan Kim

Su-min Park

Seung Min Park

Jae Myoung Kim

Soon Hong So

Chang Hyo Hong

Il Gon Park

Byung Lip Kim

Doo Seop Eom

Jung Ho Son

Nam Ik Im

Ho Sub Lee

Sung Hun Ryu

Jeong-Heon Kim

Provided is a container structure for attaching sensors to tires and, more particularly, to a container structure for attaching sensors to tires, the container structure being able to prevent sensors attached to tires from being damaged by intense heat. The container structure can include: a bottom container that is attached to the inner liner of a tire; a top container that extends from the top of the bottom container and has an insertion space in which a sensor can be inserted; and a channel part that is formed on the inner side of the top container, in which the channel part is provided such that air can cool the sensor by flowing inside and outside with the sensor inserted in the top container.

Container structure for attaching sensors to tires and method of manufacturing tire container structure

A method for transiting an operation mode of a routing processor is provided, which allows each routing processor in a packet processing system to be transited among a slave operation mode, a slave stand-by mode, a master stand-by mode, and a master operation mode to allow the packet processing system to normally operate even though a failure occurs in the routing processor that is set in the master operation mode, a new routing processor is added, or the routing processor set in the master operation mode is initialized.

Method for transiting operation mode of routing processor

Disclosed herein are an apparatus and method for displaying images. The apparatus includes a first image output unit, a second image output unit, an image signal selection unit, and an image display unit. The first image output unit is set to master operation mode, and outputs an image signal to be displayed. The second image output unit is set to slave operation mode, and, if the first image output unit has failed, is switched to master operation mode and then continuously outputs the image signal or a new image signal. The image signal selection unit compares the IP source address of a received master message with previously stored address information, and then selects the image signal that is received from the first image output unit or the second image output unit that has a matching address. The image display unit displays the selected image signal.

Apparatus and method for displaying images

An exemplary embodiment provides an operating method of a software fault-tolerant handling system, and more particularly, to an operating method of a fault-tolerant handling system in which a fault recovery is easy in a fault-tolerant technology of copying with various faults which can occur in a computing device.

Operating method of software fault-tolerant handling system

Provided are a system and method for allocating a specific job or application to a specific slave core by using an inter-core-communication (ICC) channel and executing the job or application in a multicore system environment including the master core and a plurality of slave cores. The method of a master core, includes: initializing message transmission times; generating an event for processing a instruction received from an application program and generating a channel event message from the event; checking a process for transmitting the generated channel event message, and if a channel event message queue corresponding to an event transmitting request is not 'FULL' of a previously-stored channel event message, transmitting the channel event message to a specific slave core to request for storing the channel event message; and returning a response of processing status to the request for storing the channel event message to the application program.

System and method of dynamically loading and executing module devices using inter-core-communication channel in multicore system environment

A system for tracepoint-based fault diagnosis and recovery includes: a system state tracing model unit for storing state tracing models which are obtained by a modeling technique and are required for fault diagnosis and recovery; a state diagnosis unit for determining whether or not an action event is executable with reference to the state tracing models when the action event is received from a specific tracepoint among multiple tracepoints which exist in each of components within an operating system of the system, and generating a fault recovery command when it is determined that the action is not executable, that is, a fault has occurred; and a fault recovery unit for performing a fault recovery processing based on the state tracing models in response to the generated fault recovery command.

Method and system for tracepoint-based fault diagnosis and recovery

Provided are a system and method for position awareness that can be used indoors in a large-scale environment and can minimize generation of radio frequency (RF) and ultrasonic waves in a wireless sensor network including low-priced sensor nodes capable of precise position measurement, thus improving energy efficiency by reducing unnecessary power consumption. The method includes the steps of: (a) calculating initial position coordinates using beacon information received from adjacent beacons through a broadcast beacon solicitation signal, sending a synchronization signal to the beacons, and synchronizing the beacons; (b) receiving ultrasonic waves generated from the adjacent beacons activated by a broadcast start message, and calculating position coordinates; and (c) when the calculated position coordinates correspond to a predetermined hand-off threshold position, transmitting a hand-off process message to a newly activated beacon, and executing a hand-off process routine.

System and method for position awareness for minimizing power consumption in sensor network environment

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Daejeon, South Korea

Kwang Yong Lee