Abstract: An aircraft having a fixed wing is operative to perform vertical takeoff and landing while positioned in a nose-down orientation. The aircraft has a fixed wing having a leading edge and a trailing edge; a propulsion system operative to selectively provide forward propulsion and rearward propulsion; and a controller operative to control operation of the propulsion system. The propulsion system provides rearward propulsion during takeoff of the aircraft to move the aircraft in a direction of the trailing edge of the fixed wing, and provides forward propulsion during flight of the aircraft to move the aircraft in a direction of the leading edge of the fixed wing. The aircraft maintains the wing substantially vertical with the trailing edge facing upwards during takeoff, and transitions to having the wing substantially horizontal during flight. A vertical landing procedure is also provided.

Abstract: A method for remote control wherein a first mobile device is remotely controls a second mobile device connected to the first mobile device via an audio/data transmission network. The method includes receiving a request from an user of the first mobile device on the first mobile device, performing audio transmission from the first mobile device to the second mobile device, and transmitting data for a displayed screen from the first device to the second device via the data transmission network. The received data for the displayed screen is displayed on the second mobile device, operation content is received from an user operating the displayed screen on the second device, and the operation content is transmitted from the second device to the first device via the data transmission network, so that a terminal feature on the first device is operable based on the operation content received from the second device.

Abstract: Exemplary embodiments of the present invention relate to an interaction system for a vehicle that can be configured by a user. For example, an interaction system for a vehicle can include an image capture resource to receive eye image data of a user. The interaction system for a vehicle can also include a processor to identify a direction of an eye gaze of the user based on the eye image data. The processor can correlate the eye gaze to a driving experience function (DEF), and the processor can transmit a DEF communication.

Abstract: A determination method for determining the structure of a convolutional neural network includes acquiring N filters having the weights trained using a training image group as the initial values, where N is a natural number greater than or equal to 1, and increasing the number of the filters from N to M, where M is a natural number greater than or equal to 2 and is greater than N, by adding a filter obtained by performing a transformation used in image processing fields on at least one of the N filters.

Abstract: In an image recognition method executed by a computer of an image recognizer using a convolutional neural network, the convolutional neural network is a first convolutional neural network in which a fully connected layer is changed to a convolutional layer, and the method includes controlling a first convolutional neural network to acquire an input image, controlling the first convolutional neural network to estimate a center area of a recognition target in the acquired input image and to output a value indicating the estimated center area as a location of the recognition target in the input image.

Abstract: Exemplary embodiments of the present invention relate to an interaction system for a vehicle. The interaction system includes one or more input devices configured to receive data comprising a characteristic of a driver of the vehicle. The interaction system also includes one or more output devices configured to deliver an output the driver. The interaction system also includes a human machine interface controller. The human machine interface controller receives the data and analyzes the data to identify an emotional state of the driver. The human machine interface controller generates the output based, at least in part, on the emotional state of the driver and sends the output to the one or more output devices. The output includes a simulated emotional state of the human machine interface.

Abstract: A non-contact gesture sensor is mounted within a vehicle for vehicle occupants to enter control commands by using hand gestures. The effects of vehicle motion and vibration are stabilized by an electronic circuit that includes an inertial motion sensor (IMU) in rigidly fixed relation to the gesture sensor. An adaptive filter processes the gesture sensor signal and the IMU sensor signal by modeling the arm and hand as a semi-rigid articulated body using a transfer function that relates accelerations measured by the IMU with vehicle motion-induced accelerations of the hand. The filter calculates a noise-reduced gesture signal by subtracting out the motion-induced accelerations and measurement noise. The filter also outputs a confidence measure that controls a threshold circuit that inhibits use of the filtered gesture signal when confidence in the filter's system estimation is low.

Abstract: A versatile keyboard input and output device is described. The keyboard device includes a housing having a plurality of buttons, with each button individually clickable, and a capacitive sensing element under each button for touch sensing. The versatile keyboard input and output device further includes a lighting element under each button to provide selective lighting for each button, and a plurality of button glyphs for the plurality of buttons respectively, wherein the button glyphs are selectively visually changeable. The keyboard input device also includes a haptic feedback mechanism included in the housing for providing haptic feedback for the plurality of buttons.

Abstract: A non-contact gesture sensor is mounted within a vehicle for vehicle occupants to enter control commands by using hand gestures. The effects of vehicle motion and vibration are stabilized by an electronic circuit that includes an inertial motion sensor (IMU) in rigidly fixed relation to the gesture sensor. An adaptive filter processes the gesture sensor signal and the IMU sensor signal by modeling the arm and hand as a semi-rigid articulated body using a transfer function that relates accelerations measured by the IMU with vehicle motion-induced accelerations of the hand. The filter calculates a noise-reduced gesture signal by subtracting out the motion-induced accelerations and measurement noise. The filter also outputs a confidence measure that controls a threshold circuit that inhibits use of the filtered gesture signal when confidence in the filter's system estimation is low.

Abstract: An apparatus for communicating with a target device includes: a sensing portion for sensing points of user contact with the apparatus and user gestures; a transmitting device for sending signals representative of user commands to the target device; a controller; and a memory including instructions for configuring the controller to perform a self-orientation process to determine a forward direction of a plane of operation for defining the user gestures.

Abstract: A method for remote control wherein a first mobile device is remotely controls a second mobile device connected to the first mobile device via an audio/data transmission network. The method includes receiving a request from an user of the first mobile device on the first mobile device, performing audio transmission from the first mobile device to the second mobile device, and transmitting data for a displayed screen from the first device to the second device via the data transmission network. The received data for the displayed screen is displayed on the second mobile device, operation content is received from an user operating the displayed screen on the second device, and the operation content is transmitted from the second device to the first device via the data transmission network, so that a terminal feature on the first device is operable based on the operation content received from the second device.

Abstract: A versatile keyboard input and output device is described. The keyboard device includes a housing having a plurality of buttons, with each button individually clickable, and a capacitive sensing element under each button for touch sensing. The versatile keyboard input and output device further includes a lighting element under each button to provide selective lighting for each button, and a plurality of button glyphs for the plurality of buttons respectively, wherein the button glyphs are selectively visually changeable. The keyboard input device also includes a haptic feedback mechanism included in the housing for providing haptic feedback for the plurality of buttons.

Abstract: A mobile device and a display control method can be provided having good operability and enabling selection of a screen display for the mobile device from a mode displaying a plurality of kinds of screens to suit a user's preferences. An aspect of the mobile device includes a touch screen, a display, and a menu screen generator. The touch screen receives input from a user. The display displays a menu screen and is provided such that the touch screen is overlaid on the display. The menu screen generator generates the menu screen displayed on the display. The menu screen can be selected from a plurality of user interfaces.

Abstract: An apparatus for communicating with a target device includes: a sensing portion for sensing points of user contact with the apparatus and user gestures; a transmitting device for sending signals representative of user commands to the target device; a controller; and a memory including instructions for configuring the controller to perform a self-orientation process to determine a forward direction of a plane of operation for defining the user gestures.

Abstract: An apparatus includes a housing, a band which is provided on side of the housing and has a longer length than a circumference of the housing, and a supporter configured to support the band on the side of the housing to enable the band to slide along the side of the housing. The apparatus may include a detector configured to detect a form of the band; a display configured to display a user interface for operating the communication apparatus and a controller configured to control a display position of the user interface based on the form of the band. The detector may detect pressure applied by the band on the housing, and the controller may estimate the form of the band on the basis of the pressure and to control the display position of the user interface on the basis of the estimation result.

Abstract: A mobile device and a display control method can be provided having good operability and enabling selection of a screen display for the mobile device from a mode displaying a plurality of kinds of screens to suit a user's preferences. An aspect of the mobile device includes a touch screen, a display, and a menu screen generator. The touch screen receives input from a user. The display displays a menu screen and is provided such that the touch screen is overlaid on the display. The menu screen generator generates the menu screen displayed on the display. The menu screen can be selected from a plurality of user interfaces.

Abstract: A remote control apparatus for communicating with a target device includes: a sensing portion for sensing points of user contact with the apparatus, user gestures, and an acceleration value of the apparatus; a transmitting device for sending signals representative of user commands to the target device; a controller; and a memory including instructions for configuring the controller to perform a self-orientation process based upon at least one of the acceleration value and the points of user contact to determine a forward direction of a plane of operation for defining the user gestures. An axis of the determined plane of operation substantially intersects the apparatus at any angle.

Abstract: A language model back-off system can be used with a user interface employing one or more language models to constrain navigation of selectable user interface input components. A user input interpretation module receives user input and interprets the user input to determine if a selection is made of one or more user interface input components. If a selection is not made, the user input interpretation module determines whether conditions are met for backing off one or more language models employed to constrain navigation of the user interface input components. If the conditions are met, a language model back-off module backs off the one or more language models.

Abstract: System and method of continuously scanning turned pages of printed material, the method including capturing a first image of a first page of the printed material in a front of an imaging device, detecting a page turn, the detecting including setting a motion threshold value of the captured first image, the motion threshold value, scanning and obtaining motion values for successive image frames of the printed material, and comparing the motion value of each successive image frame with the motion value of a preceding image frame. The method further includes capturing a second image of a next page, determining whether the first image and the second image is of the same page, the determining including performing first and second threshold tests, wherein the second threshold test is performed faster and is less accurate than the first threshold test.

Abstract: A method and system for differentiating between intended user input and inadvertent or incidental contact with a touchpad is herein disclosed. When a user engages the touchpad, sensors on the touchpad are activated and generate touch sensor signals. Based on the pattern of engaged sensors, a hand pattern can be determined. From the hand pattern, a hand model may be retrieved. The hand model may indicate passive zones and active zones. Contact in the active zones may be considered intentional, while contact in the passive zones may be considered unintended or incidental. Moreover, a global shift may be calculated, and input from the active zones may be compensated for the global shift. The input from the active zones can then be used to control a graphical user interface.