Abstract: A drive force control system for a vehicle configured to accurately imitate a change in a drive force in a model vehicle. A drive torque simulator computes a virtual drive torque supposed to be delivered to drive wheels of the model vehicle in response to a manual operation to manipulate the vehicle, based on torque changing factors of a powertrain of the model vehicle. An actual torque calculator computes a target torque of a motor that is practically delivered to the drive wheels in the vehicle based on the virtual drive torque computed by the drive torque simulator, taking account of torque changing factors of the powertrain of the vehicle.

Abstract: A controller of a work machine computes a requested velocity of a hydraulic actuator based on an operation signal, computes a first estimated velocity of the hydraulic actuator based on a sensed value of a first sensing device that senses motion information of a driven member, computes a second estimated velocity of the hydraulic actuator based on a sensed value of a second sensing device that senses a flow rate of a directional control valve, computes an arbitrated velocity by arbitrating the first estimated velocity and the second estimated velocity according to a driving state of the hydraulic actuator, and controls the directional control valve based on a deviation between the requested velocity and the arbitrated velocity.

Abstract: The electric vehicle according to the present disclosure calculates motor torque using an MT vehicle model simulating an MT vehicle having a manual transmission and an internal combustion engine. In the first operation mode, an operation amount of a pseudo-clutch pedal and a shift position of a pseudo-gearshift are input to the MT vehicle model to reflect operation of the pseudo-clutch pedal and operation of the pseudo-gearshift in electric motor control. In the second operation mode where the operation of the pseudo-clutch pedal is not needed, an operation amount of a clutch pedal calculated by a driver model is input to the MT vehicle model instead of the operation amount of the pseudo-clutch pedal.

Abstract: An electric vehicle is configured to be able to perform running by an MT mode that controls an electric motor with a torque characteristic like an MT vehicle having a manual transmission and an internal combustion engine, and running by an EV mode that controls the electric motor with a normal torque characteristic. The electric vehicle includes a mode changeover switch for switching to the running by the MT mode.

Abstract: A moving body behavior prediction device predicts the behavior of a moving body comprising: a travel environment recognition unit that acquires external information DS and recognizes the travel environment; a prediction model evaluation value storage unit that stores an evaluation value for each travel environment in relation to prediction models prepared in advance; a prediction model determination unit 112 that determines the prediction model corresponding to the travel environment recognized by the travel environment recognition unit from among the prediction models, the determination being performed on the basis of the travel environment recognized by the travel environment recognition unit and the evaluation value stored in the prediction model evaluation value storage unit; and a behavior prediction unit 113 that predicts the behavior of the moving body using the prediction model determined by the prediction model determination unit.

Abstract: The present invention addresses the problem of performing automatic driving in accordance with driving characteristics of a driver while considering a vehicle peripheral state, even in the case where the vehicle peripheral state during manual driving is different from the vehicle peripheral state during the automatic driving. The present invention is a vehicle control device 120 that can switch between manual driving in which a vehicle is caused to travel by the operation of a driver and automatic driving in which the vehicle is caused to travel automatically in accordance with a traveling plan. The vehicle control device 120 is provided with a vehicle control planning unit 123 that devises the traveling plan, and a verification unit 124 that verifies a vehicle traveling state on the basis of the traveling plan.

Abstract: The present invention addresses the problem of performing automatic driving in accordance with driving characteristics of a driver while considering a vehicle peripheral state, even in the case where the vehicle peripheral state during manual driving is different from the vehicle peripheral state during the automatic driving. The present invention is a vehicle control device 120 that can switch between manual driving in which a vehicle is caused to travel by the operation of a driver and automatic driving in which the vehicle is caused to travel automatically in accordance with a traveling plan. The vehicle control device 120 is provided with a vehicle control planning unit 123 that devises the traveling plan, and a verification unit 124 that verifies a vehicle traveling state on the basis of the traveling plan.

Abstract: The present invention is configured so as to be capable of using a prediction model according to a travel environment to predict the behavior of a moving body.

Abstract: A vehicle electronic controller includes a status acquiring unit configured to acquire status of a vehicle, and a determining unit configured to determine whether to configure an artificial intelligence model based on the status of the vehicle acquired at the status acquiring unit. When the determining unit determines that the artificial intelligence model is configured, an artificial intelligence model configured to execute a predetermined process is configured by combination of a plurality of operation units.

Abstract: In order to improve both image quality and encoding efficiency when an image is compressed/encoded, transmitted, and recorded, an image compression apparatus includes a motion search units that perform motion detection between a first frame as an input image and a reference image already created in compression/encoding, a temporal filter that performs temporal filtering for the first frame using a second frame different from the input image on the basis of a result of the motion detection, and a compression/encoding units that compress/encode an image subjected to the temporal filtering. The temporal filter determines a location of the reference image and a filter characteristic on the basis of an encoding parameter used by the compression/encoding unit.

Abstract: A video transmitting/receiving device includes: a receiving unit which receives video content; a converting unit which performs predetermined conversion on a video signal included in the video content; an information adding unit which adds a complement signal to the video signal converted by the converting unit; an input/output unit which inputs information of an external device and outputs the video signal; and a control unit, and the control unit performs control to select and output one of the video signal before performing the conversion by the converting unit, the video signal which has been converted by the converting unit, and the video signal to which the complement signal has been added by the information adding unit, in accordance with device information of the external device serving as an output destination, which is obtained by the input/output unit.

Abstract: A video transmitting/receiving device includes: a receiving unit which receives video content; a converting unit which performs predetermined conversion on a video signal included in the video content; an information adding unit which adds a complement signal to the video signal converted by the converting unit; an input/output unit which inputs information of an external device and outputs the video signal; and a control unit, and the control unit performs control to select and output one of the video signal before performing the conversion by the converting unit, the video signal which has been converted by the converting unit, and the video signal to which the complement signal has been added by the information adding unit, in accordance with device information of the external device serving as an output destination, which is obtained by the input/output unit.

Abstract: Provided is a head mounted display including a displaying unit to display an image, an image signal processing unit to process an image signal, a display control unit to perform an image quality adjustment of the image signal processed by the image signal processing unit, and to control a display in the displaying unit, a mounting sensor to detect whether an observer has mounted the apparatus, and a control unit to issue an instruction for the image quality adjustment of the image signal in the display control unit, in response to a detection result by the mounting sensor.

Abstract: Provided is a head mounted display including a displaying unit to display an image, an image signal processing unit to process an image signal, a display control unit to perform an image quality adjustment of the image signal processed by the image signal processing unit, and to control a display in the displaying unit, a mounting sensor to detect whether an observer has mounted the apparatus, and a control unit to issue an instruction for the image quality adjustment of the image signal in the display control unit, in response to a detection result by the mounting sensor.

Abstract: A semiconductor integrated circuit is configured so that a transition scan test can be performed thereon. The semiconductor integrated circuit includes a plurality of logic circuit blocks having different operation frequencies; a clock supply unit for supplying a plurality of clock signals having frequencies corresponding to the operation frequencies of the logic circuit blocks from a clock supply source; a compression scan circuit including a plurality of scan chains formed of a plurality of flip-flop circuits, a pattern deployment circuit connected to the scan chains on an input side thereof, and a pattern compression circuit; and a clock control unit for controlling the clock supply unit to stop supplying the clock signals to specific ones of the flip-flop circuits of the scan chains when a capture operation is performed during a transition scan test.

Abstract: A semiconductor integrated circuit is configured so that a transition scan test can be performed thereon. The semiconductor integrated circuit includes a plurality of logic circuit blocks having different operation frequencies; a clock supply unit for supplying a plurality of clock signals having frequencies corresponding to the operation frequencies of the logic circuit blocks from a clock supply source; a compression scan circuit including a plurality of scan chains formed of a plurality of flip-flop circuits, a pattern deployment circuit connected to the scan chains on an input side thereof, and a pattern compression circuit; and a clock control unit for controlling the clock supply unit to stop supplying the clock signals to specific ones of the flip-flop circuits of the scan chains when a capture operation is performed during a transition scan test.

Abstract: An image processing apparatus includes: a field forming unit configured to subject 3-2 pulldown materials to 3-2 pulldown to form field images in normal reproduction, and to add flag information to the field images, the flag information necessary to generate frame images from field images; and a generating unit configured to generate frame images from the formed field images based on the flag information, wherein in a special reproduction other than the normal reproduction, according to its reproduction form, the field forming unit forms a predetermined field image from the material, and adds flag information to the formed field images, the flag information that has to be added to a field image possibly formed by subjecting the material corresponding to the field image to 3-2 pulldown, and the generating unit generates a frame image from the field image based on the flag information added to the field image.

Abstract: An information processing apparatus includes: video-signal transmitting and receiving means for transmitting/receiving a video signal to/from one or more external apparatuses; image-quality-improvement processing means for applying image quality improvement processing based on an image quality improvement processing function of the information processing apparatus to the video signal; holding means for holding performance of the image quality improvement processing function concerning the image-quality-improvement processing means; CEC transmitting means for transmitting the performance held by the holding means to the external apparatuses; receiving means for receiving performances of image quality improvement processing functions of the one or more external apparatuses; and control means for comparing the performance of the image quality improvement processing function and the performances of the image quality improvement processing functions of the one or more external apparatuses received by the receiving

Abstract: An information processing apparatus includes: video-signal transmitting and receiving means for transmitting/receiving a video signal to/from one or more external apparatuses; image-quality-improvement processing means for applying image quality improvement processing based on an image quality improvement processing function of the information processing apparatus to the video signal; holding means for holding performance of the image quality improvement processing function concerning the image-quality-improvement processing means; CEC transmitting means for transmitting the performance held by the holding means to the external apparatuses; receiving means for receiving performances of image quality improvement processing functions of the one or more external apparatuses; and control means for comparing the performance of the image quality improvement processing function and the performances of the image quality improvement processing functions of the one or more external apparatuses received by the receiving

Abstract: An image processing apparatus includes: input means for inputting a video signal; decoding means for decoding the video signal; filtering means for performing predetermined filtering on the decoded video signal; and control means for calculating an average bit rate by dividing an amount of bits generated per predetermined data unit from the decoded video signal, and controlling a characteristic of the filtering in accordance with the average bit rate. When the video signal is input per image file, the control means calculates the average bit rate by dividing a file size of the image file by a playback time corresponding to the file size, and when the video signal input is sequentially input per picture, the control means calculates the average bit rate by dividing a sum of generated bits per picture for a predetermined number of frames by the predetermined number of frames and the frame rate.