Fujitsu Corporation

Teijin Limited

Nissan Motor Company Limited

Fujitsu Semiconductor Limited

Other

Kabushiki Kaisha Toshiba

Ntt Docomo, Inc.

Spansion Llc.

Fujitsu Vlsi Limited

Hideaki Watanabe

Tatsuya Ogawa

Hiroshi Iwano

Susumu Komiyama

Kiyoshi Sakai

Toshifumi Osawa

Makoto Handa

Naoyuki Inoue

Musashi Yamaguchi

Hiroko Haraguchi

Katsuhiko Tsuchiya

Takashi Shimizu

Kenji Yamada

Masaaki Uchida

Takashi Hamano

Shusaku Katakura

Yoshihiro Ono

Hitoshi Ogawa

Nobusuke Toukura

Masayuki Yasuoka

Kiyomi Ema

Takashi Itoh

Takahiro Shin

Masayuki Fukuda

Masanori Nishiyama

Naoki Naruse

Osamu Tanegashima

Hideyuki Nagasawa

Hisashi Yoshinaga

Hideki Miyasaka

Manabu Kimura

Yuko Nakajima

Kei Mizutani

Kenetsu Furuki

Masato Tomita

Yoshinori Iwasaki

Hirohiko Inagaki

Shojiro Sato

Takao Mori

Seiji Shimodaira

Masafumi Koseki

Shinichiro Inui

Masao Mutou

Wataru Hamada

Tetsuya Ikeda

Takayuki Ebara

Shusaka Katakura

Kiyoshi Maeda

Takehira Masanori

Mitsuio Tojo

Makiko Tsutsui

A terminal apparatus includes a display, a display control unit configured to display a screen on the display in a given display mode, a first selection operation detection unit configured to detect that a first selection operation concerning the given display mode has been performed in a given area of the screen, and a second selection operation detection unit configured to detect that a second selection operation concerning given processing has been performed in the given area of the screen. The display control unit displays a screen by changing to a second display mode based on detection of the first selection operation in the screen displayed in a first display mode, performs the given processing based on detection of the second selection operation, and performs display control processing for displaying a screen in the first display mode after the given processing.

Terminal apparatus and display control method

A vehicle control apparatus includes a motor unit, a power accumulating device, a charging power control section, a vehicle state detecting section, a braking/driving force control section, a turning determination section and a charging power correction section. The motor unit is configured to generate an independent driving/braking force for at least each of left and right driving wheels. The charging power control section is configured to set charging power supplied to the power accumulating device in accordance with a power accumulation state of the power accumulating device. The braking/driving force control section is configured to control a braking force or a driving force generated by the motor unit based on the operating state of the vehicle. The turning determination section is configured to determine whether a prescribed vehicle turning condition exists. The charging power correction section is configured to increase the charging power when the prescribed vehicle turning condition exists.

Vehicle control apparatus

A communication device includes a transmission circuit that transmits a transmission signal under a certain transmission condition, a reception circuit that receives a reception result of the transmission signal under a certain reception condition and the certain reception condition, and an adjustment circuit that transmits information used to adjust the reception condition based on the reception result and the reception condition from the transmission circuit.

Communication device, communication system, and communication method

A data transmission circuit transmitting an activation signal prior to a data signal through a signal transmission line, including: an activation detection signal generation unit for generating an activation detection signal by detecting the activation signal; and a wakeup signal generation unit for being activated by the activation detection signal, and generating a wakeup signal by detecting that the activation signal is transmitted for a predetermined time.

Data transmission circuit and its control method

A transceiver that reduces power consumption when data is transferred between devices in different modes. The transceiver is arranged in a first node and in a second node, which communicate between each other. A first control unit generates a first signal transmitted from the first node in predetermined time intervals during a first period that establishes an environment for communication between the first node and the second node. The second node transmits a second signal transmitted in response to the first signal. The first control unit generates a third signal upon detection of the second signal. A second control unit gradually decreases amplitude of the first signal based on the third signal to set the amplitude of the first signal to a predetermined amplitude so that the second node is receivable of the first signal.

Method for optimizing of communication signal

A communication device relates a plurality of identification information to specifying information included in the identification information and manages them, and thereby enhances easiness of identifying and specifying of a device of the other party and usability of a connection with the device of the other party. The communication device has an identification information reception part (a radio transmission/reception part, a baseband part and a control part), a storage part (a data base part) and an information processing part (a control part). The identification information reception part receives the pieces of identification information concerning the device of the other party to be connected, and in the storage part the pieces of identification information which are received are stored. The information processing part stores the pieces of identification information, which are received, in the storage part, and retrieves the identification information from the storage part by receiving input of the specifying information out of the pieces of identification information, and relates a result of that retrieval to the specifying information and outputs them, or makes that output possible. By this, it is possible to use the pieces of identification information related to the specifying information for specifying of the device of the other party and connection with it.

Communication device, and method and computer program for information processing thereof

A paper sheet processing apparatus includes a plurality of bundling devices, and a plurality of chute devices which temporarily hold bundles, which are bundled by the bundling devices. A second transfer conveyor, which is slower than a first transfer conveyor, is disposed on a downstream side of the first conveyor. A transmission sensor, which detects abnormality in length of the bundle, is provide along the second conveyor. The distance from a release position of the bundle from the chute device, which is located on a most downstream side, to a terminal end of the first conveyor and the length of the second conveyor are set such that a time until the bundle, which is released from the most downstream chute device, is transferred onto the second conveyor is longer than at least a time until the bundle, which is transferred from the first conveyor, passes through the second conveyor.

Paper sheet processing apparatus

To provide a technology for making it possible to control enable/disable of an IC card function provided in a mobile device. A mobile device including an IC card unit for executing an IC card function, and a communication unit for carrying out communication through a radio telephone line detects a voltage of a battery unit for supplying an electric power to each of the IC card unit and the communication unit, judges whether or not the IC card function can be used in accordance with the detected voltage value, and issues an enable/disable instruction to the IC card unit in accordance with the Judgment results.

Mobile device having an IC card function

A clock multiplication circuit simple in configuration, easy to adjust the characteristics thereof, and capable of shortening lockup time. The circuit delivers an output clock signal at a frequency that is a multiple of the frequency of a reference clock signal as inputted. A counter counts the number of rising edges of the output clock signal existing during a High level period of the reference clock signal, delivering a count value CN. A subtracter subtracts the count value from a reference value BN, delivering a difference value DN. An adder adds the difference value to a preceding integrated value, calculating a new integrated value. A DA converter delivers the analog control voltage corresponding to the integrated value. A VCO delivers the output clock signal at a frequency corresponding to the analog control voltage. The frequency of the output clock signal is controlled such that DN=BN&#x2212;CN=0.

Clock multiplication circuit

At a data receiving terminal, if a received-data of a particular time section received from a data sending terminal does not satisfy a predetermined accumulation quality as the result of discrimination by a received-data quality discriminating section, an alternative-data sending requesting section requests a data sending terminal for alternative data satisfying the accumulation quality for the unsatisfied data of the particular time section. The result is that the data receiving terminal can realize both reproduction of data with less sending delay and accumulation of high-quality data.

Data communication system, data receiving terminal and data sending terminal

Disclosed is a control apparatus for a hybrid vehicle having an engine, a drive motor () that regenerates power, and an electric power storage device () that gives/receives power to/from the drive motor (). The control apparatus includes power consumption means () for consuming power; a sensor () that detects a state of charge of the electric power storage device; means () for detecting a driving state of the vehicle; and a controller (). The controller () is programmed to calculate a chargeable energy amount Ecap in the electric power storage device () on the basis of a difference between a fully charged state of the electric power storage device and the detected state of charge; set a power |Pgen0| regenerated by the drive motor (); calculate a chargeable power Pmax in the electric power storage device according to the detected state of charge; calculate a regenerated energy E resulting from regenerative braking from the detected driving state of the vehicle; calculate a charging power limit Pgenlmt according to the calculated regenerated energy E; and control the power consumption means () to consume a power equal to a difference between the power |Pgen0| regenerated by the drive motor () and the charging power limit |Pgenlmt| when the calculated regenerated energy E is greater than the chargeable energy amount Ecap in the electric power storage device and when the charging power limit |Pgenlmt| is smaller than the chargeable power |Pmax|.

Regeneration control for hybrid vehicle

In a differential output signal circuit suitable for restraining voltage overshooting/undershooting at differential output terminals due to lags in input signals and realizing stable and fast switching of differential input signals, a first differential pair of PMOS. transistors connected to a first current source and a second differential pair of NMOS transistors connected to a second current source are mutually connected at the differential output terminals, and a capacitor is connected between the connection nodes of the respective differential pairs and current sources. A transitional current path of the capacitor restrains voltage variations during differential input signal switching. Further in a signal detection apparatus suitable for realizing the detection of fast transmitted differential input signals with less current consumption and at low cost, an edge detect signal is supplied against a differential input of or above a prescribed value, and a setting signal is issued when this edge detect signal has been detected a prescribed number of times during a first prescribed length of time while a resetting signal is issued if none is detected during a second prescribed length of time. A signal-detect signal is generated from these setting signal and resetting signal.

Signal detection apparatus, signal detection method, signal transmission system, and computer readable program to execute signal transmission

In a differential output signal circuit suitable for restraining voltage overshooting/undershooting at differential output terminals due to lags in input signals and realizing stable and fast switching of differential input signals, a first differential pair of PMOS transistors connected to a first current source and a second differential pair of NMOS transistors connected to a second current source are mutually connected at the differential output terminals, and a capacitor is connected between the connection nodes of the respective differential pairs and current sources. A transitional current path of the capacitor restrains voltage variations during differential input signal switching. Further in a signal detection apparatus suitable for realizing the detection of fast transmitted differential input signals with less current consumption and at low cost, an edge detect signal is supplied against a differential input of or above a prescribed value, and a setting signal is issued when this edge detect signal has been detected a prescribed number of times during a first prescribed length of time while a resetting signal is issued if none is detected during a second prescribed length of time. A signal-detect signal is generated from these setting signal and resetting signal.

Differential signal output apparatus, semiconductor integrated circuit apparatus having the differential signal output apparatus, and differential signal transmission system

Biaxially oriented polyester film

Growing community of inventors

Kawasaki, Japan

Hideaki Watanabe