Abstract: A method of selectively transferring devices arrayed on a first substrate to a second substrate on which an adhesive resin layer is previously formed is provided. The method includes steps of selectively heating the adhesive resin layer on the second substrate by laser irradiation from the back surface side of the second substrate, and curing the selectively heated portions of the adhesive resin layer, thereby adhesively bonding those to be transferred of the devices to the second substrate. At this time, portions, corresponding to the devices, of the adhesive layer are heated directly or indirectly via the devices or wiring portions by laser irradiation from the back surface side of the substrate. The heated portions of the adhesive resin layer selectively exhibit the adhesive forces. The heated portions of the adhesive layer are then cured, so that only the devices to be transferred are selectively transferred to the second substrate.

Abstract: A method of selectively transferring devices arrayed on a first substrate to a second substrate on which an adhesive resin layer is previously formed is provided. The method includes steps of selectively heating the adhesive resin layer on the second substrate by laser irradiation from the back surface side of the second substrate, and curing the selectively heated portions of the adhesive resin layer, thereby adhesively bonding those to be transferred of the devices to the second substrate. At this time, portions, corresponding to the devices, of the adhesive layer are heated directly or indirectly via the devices or wiring portions by laser irradiation from the back surface side of the substrate. The heated portions of the adhesive resin layer selectively exhibit the adhesive forces. The heated portions of the adhesive layer are then cured, so that only the devices to be transferred are selectively transferred to the second substrate.

Abstract: A method of selectively transferring devices arrayed on a first substrate to a second substrate on which an adhesive resin layer is previously formed is provided. The method includes steps of selectively heating the adhesive resin layer on the second substrate by laser irradiation from the back surface side of the second substrate, and curing the selectively heated portions of the adhesive resin layer, thereby adhesively bonding those to be transferred of the devices to the second substrate. At this time, portions, corresponding to the devices, of the adhesive layer are heated directly or indirectly via the devices or wiring portions by laser irradiation from the back surface side of the substrate. The heated portions of the adhesive resin layer selectively exhibit the adhesive forces. The heated portions of the adhesive layer are then cured, so that only the devices to be transferred are selectively transferred to the second substrate.

Abstract: A task execution method for executing a plurality of tasks while switching the tasks from one to another by time-sharing, wherein an allocated time is allocated for each of the plurality of tasks, and the plurality of tasks includes a plurality of first-type tasks and a single second-type task, and the task execution method includes a task selection step which selects a task from among the plurality of tasks according to a predetermined sequence, a correction step which corrects an allocated time for the second-type task so that execution of the plurality of tasks completes within the cycle time, when the task selected is a second-type task, which is the total allocated time for the plurality of tasks, and a task execution control step which causes the selected task to be executed so that the execution of the selected task completes within the allocated time or the corrected allocated time.

Abstract: A method of selectively transferring devices arrayed on a first substrate to a second substrate on which an adhesive resin layer is previously formed is provided. The method includes steps of selectively heating the adhesive resin layer on the second substrate by laser irradiation from the back surface side of the second substrate, and curing the selectively heated portions of the adhesive resin layer, thereby adhesively bonding those to be transferred of the devices to the second substrate. At this time, portions, corresponding to the devices, of the adhesive layer are heated directly or indirectly via the devices or wiring portions by laser irradiation from the back surface side of the substrate. The heated portions of the adhesive resin layer selectively exhibit the adhesive forces. The heated portions of the adhesive layer are then cured, so that only the devices to be transferred are selectively transferred to the second substrate.

Abstract: In synchronization of a conventional AV system, when a stream as the master stops, a system clock cannot be corrected for synchronization. Since the correction is consistently performed even when an error is small, overhead of correction is large. On the other hand, when an error is large, sharp correction causes a feeling that something wrong. In the present invention, when the stream as the master stops, previously registering the degree of priority regarding the master, consideration of a corrected period or a previous error for the system clock, or transmitting a stream containing information regarding the master can allow for other process to serves as the master. Accordingly, it is possible to provide a method for synchronization with maintaining correction of the system clock. When a corrected error is large, gradual correction or reference can provide a system with normal feeling.

Abstract: A hologram device records information of an interference fringe of signal light and reference light onto a hologram recording medium and reproduces the recorded information by emitting the reference light onto a recording area of the hologram recording medium. The hologram device includes a recording/reproducing controller performing a recording operation of the information concurrently with a reproducing operation of previously-recorded information, and an error detector detecting an error in the previously-recorded information reproduced concurrently with the recording operation.

Abstract: In a hologram device which records information of an interference fringe of signal light and reference light onto a hologram recording medium and which reproduces the recorded information by emitting the reference light onto a recording area of the hologram recording medium, the device includes a recording/reproducing controller performing a control operation of repeatedly recording the information and reproducing the recorded information immediately after the recording of the information in an alternating fashion.

Abstract: A lens barrel which has a compact inner lens mechanism and is able to be manufactured in a small size at low cost. In the lens barrel according to the present invention, a number of shafts can be reduced by making a guiding shaft (61) to be a common guiding shaft. In addition, a guiding shaft (63) is formed only within a moving range of a zoom movable member (22), and a coil unit (70) is disposed in a space positioned behind the guiding shaft, hence the whole lens barrel can be made compact. On the other hand, since the guiding shaft (61) and a guiding shaft (62) are formed separately, a sleeve section (21a) of the zoom movable member (22) and a sleeve section (41a) of a focus movable member (42) are made to have sufficient lengths, and also a sufficient length for sliding the respective movable members can be obtained. Accordingly, stable operations of the respective movable members with high precision can be realized, even in a compact size.

Abstract: Provided are an image recording device having an image quality checking function of previously checking a quality of the image to be replayed when the image is recorded in a recording mode having been set, the image recording device being capable of preventing a circuit size from increasing when the image quality checking function is additionally provided, and capable of preventing power consumption from increasing when the image quality checking function is being performed, and a method for driving the image recording device. When an image quality checking mode starting key of a user interface 3 is operated, a control section 4 causes at least a portion of a data compression unit 51 and a local decoder, which are provided in an encoder 5, to be in driven states. Furthermore, a retrieve/display control section 7 retrieves an image stored in a frame memory 27 and displays the retrieved image.

Abstract: Light emitting devices formed in an array on a first substrate are transferred to an insulating material, to form a sheet-shaped device substrate. The sheet-shaped device substrate is cut along an array direction of the light emitting devices into long-sized line-shaped device substrates. The line-shaped device substrates are arrayed on a second substrate such that the line-shaped device substrates are enlargedly spaced from each other. The line-shaped device substrates divided from the second substrate are arrayed on a third substrate such as to be enlargedly spaced from each other.

Abstract: A task allocation time decision unit inputs a period of each of the tasks and a load factor of each of the tasks with respect to execution time of all tasks from a task context memory unit, and decides the task allocation time. A task occasion frequency computation unit computes a task occasion frequency. An execution time ratio computation unit computes an execution time ratio of each task with respect to a execution time of a certain task. A schedulability condition computation unit computes a conditional expression for enabling scheduling on the basis of the period. A task allocation time decision unit computes a task allocation time for enabling scheduling from the conditional expression and the execution time ratio and outputs the resultant task allocation time to a task allocation time display unit.

Abstract: A data communication device is provided wherein a data storage region and a process request region indicative of whether or not there is a process request of data transmission are secured on a memory. A data transmission section receives a request for data transmission from a transmission module to store data in the data storage region and, only when a process request is not yet written in the process request region, writes a process request in the process request region to issue an interrupt to a process request receiving section. The process request receiving section confirms that a process request is written in the process request region and clears the process request to notify a reception module about data storage in the data storage region. A data acquisition section receives a request for data reception from the reception module to acquire data from the data storage region.

Abstract: A hologram reproduction apparatus and method is disclosed wherein positioning between reproduction reference light and a hologram recording medium can be performed accurately. Reference light is irradiated upon the medium recorded by angle multiple recording, and reproduction light generated from the medium is received by an image pickup apparatus to reproduce data. Thereupon, projection information of light which cannot pass through an iris but is projected on the iris is detected by an optical detector. A position control section detects a positional displacement of the medium based on projection state information on the inner side of a projection region of reproduction light generated from an adjacent recording area to the recording area of a reproduction target from within the detection information and controls a drive mechanism to move the medium so as to eliminate the positional displacement.

Abstract: A program conversion device for converting a program source is provided. The program conversion device comprises: a section and index acquisition device for acquiring a section code for indicating a section embedded in the program and performance index information embedded in the program in association with the section code; a task code conversion device for separating the acquired section code into task codes and adding a code to indicate the beginning of the task and a code to indicate the end of the task; and a task index attachment device for attaching a performance index, to input to the scheduler, to the task.

Abstract: The inter-module communication apparatus comprises: a first module and a second module which operate individually on a processor; a common memory interposed between the first module and the second module for functioning as a communication medium; a plurality of communication paths provided to the common memory for connecting the first module and the second module to be communicable; a transmission unit for transmitting communication data from the first module to the second module; and a reception unit for receiving the communication data transmitted from the first module by the second module.

Abstract: A device transferring method and a device arraying method are provided for readily transferring a number of devices from a first substrate to a second substrate such that the devices are enlargedly spaced from each other with a pitch larger than an array pitch of the devices arrayed on the first substrate.

Abstract: Light emitting devices formed in an array on a first substrate are transferred to an insulating material, to form a sheet-shaped device substrate. The sheet-shaped device substrate is cut along an array direction of the light emitting devices into long-sized line-shaped device substrates. The line-shaped device substrates are arrayed on a second substrate such that the line-shaped device substrates are enlargedly spaced from each other. The line-shaped device substrates divided from the second substrate are arrayed on a third substrate such as to be enlargedly spaced from each other.

Abstract: Light emitting devices formed in an array on a first substrate are transferred to an insulating material, to form a sheet-shaped device substrate. The sheet-shaped device substrate is cut along an array direction of the light emitting devices into long-sized line-shaped device substrates. The line-shaped device substrates are arrayed on a second substrate such that the line-shaped device substrates are enlargedly spaced from each other. The line-shaped device substrates divided from the second substrate are arrayed on a third substrate such as to be enlargedly spaced from each other.

Abstract: A method of selectively transferring devices arrayed on a first substrate to a second substrate on which an adhesive resin layer is previously formed is provided. The method includes steps of selectively heating the adhesive resin layer on the second substrate by laser irradiation from the back surface side of the second substrate, and curing the selectively heated portions of the adhesive resin layer, thereby adhesively bonding those to be transferred of the devices to the second substrate. At this time, portions, corresponding to the devices, of the adhesive layer are heated directly or indirectly via the devices or wiring portions by laser irradiation from the back surface side of the substrate. The heated portions of the adhesive resin layer selectively exhibit the adhesive forces. The heated portions of the adhesive layer are then cured, so that only the devices to be transferred are selectively transferred to the second substrate.