Abstract:
There is provided a portable device including a photographing unit, a communication unit configured to transmit an image obtained through photographing by the photographing unit to another portable device managed in association with the portable device each time when photographing is performed, and configured to receive the image transmitted from the other portable device each time when photographing is performed in the other portable device, and a display unit configured to display the image transmitted from the other portable device and received by the communication unit.
Abstract:
A graphical user interface (GUI) may be displayed on a display unit in an apparatus which may include a tactile sensor unit. When a contact by a user is detected at the tactile sensor unit, a control unit may receive a contact detection signal therefrom. Based on the contact detection signal, the control unit may determine a contact pattern and may then display the GUI corresponding to the contact pattern. The GUI may be displayed and modified depending on the location and pressure of contacts by a user's manipulating fingers. Therefore, a user can manipulate the apparatus without any inconvenience or accidental touches.
Abstract:
An image display apparatus includes: a storage section for storing a plurality of content items sorted using categories of a higher level; a display section for displaying either of the content items or the categories; an operating section generating a first operation signal according to a first operation performed with a weak pressing force and a second operation signal according to a second operation performed with a pressing force stronger than that of the first operation; and a control section receiving the input of the first operation signal and the second operation signal and controlling a display image displayed on the display section.
Abstract:
An electronic apparatus has a touch sensor provided with a first touching zone including at least a second touching zone and a third touching zone, the second and third touching zones being allocated with different functions. The electronic apparatus is controlled to perform a specific function assigned to a specific touching zone that is the second or the third touching zone when there is a first touch input at first through the specific touching zone and continuously perform the specific function even if there is a second touch input that follows the first touch input, through either the second or the third touching zone that is not the specific touching zone, as long as there is a continuous touch input through the first touching zone from the first to the second touch input with no intermission.
Abstract:
There are provided with a detection sensor 110 for detecting an approach and a contact of a living body or a material body in a predetermined detection region, a control means which outputs a drive signal in a case when an approach is detected by a detection sensor and which performs an input process for accepting an input of a predetermined function in a case when a contact is detected on a predetermined condition, and an actuator 120 being vibrated temporarily by the drive signal outputted by the control means. By doing like this, in a case when, for example, a finger, a pen or the like is approached to the detection region of the sensor while the equipment is held in a hand, the equipment vibrates temporarily by detecting the approach in the sensor 110 and the vibration transmits to the hand holding the equipment such that it becomes possible to comprehend that an input will be carried out by touching the position.
Abstract:
A capacitive touch sensitive housing comprises: a housing wall; an array of capacitive touch sensor pads formed on the housing wall; a plurality of conductive bonding pads formed on the housing wall; and a plurality of conductive lines formed on the housing wall. Each conductive line extends from a respective one of the touch sensor pads to a respective one of the bonding pads and cooperates with the respective one of the capacitive touch sensor pads and the respective one of the bonding pads to define a touch sensor unit having a layered structure including an active metal layer and an electroless deposited metal layer. The active metal layer contains an active metal capable of initiating electroless deposition.
Abstract:
In various embodiments, the present disclosure describes hand-held devices with one or more touch-sensitive areas. The hand-held devices include a housing occupying each of a first plane, a second plane, and a third plane. A first exterior surface of the housing occupies the first plane and includes a first touch-sensitive area responsive to user touch. A second exterior surface of the housing occupies the second plane and includes a second touch-sensitive area responsive to user touch. A third exterior surface of the housing occupies the third plane and includes a display screen. A user interface module causes display of a user interface on the display screen and interprets at least one of (i) user touch of the first touch-sensitive area as a command to interact with the user interface or (ii) user touch of the second touch-sensitive area as a command to interact with the user interface.
Abstract:
The present disclosure discloses an object position detector. The object position detector comprises a touch sensor formed as a closed loop and having a physical constraint formed on an upper surface of the touch sensor and coextensive with the closed loop. The touch sensor is configured to sense motion of an object proximate to the closed loop. The object position detector also comprises a processor coupled to the touch sensor and is programmed to generate an action in response to the motion on the touch sensor.
Abstract:
A capacitive position sensor for detecting the position of an object relative to a resistive sensing element. The sensing element comprises a sensing path that has terminals connected along it that subdivide the sensing path into multiple sections. Each terminal is coupled to its own sensing channel, each of which generates a signal that is sensitive to the capacitance between its terminal and a system ground. The signals are fed to a processor for analysis. The processor determines over which section the object is positioned by comparing the signals from the sensing channels, and determines the position of the object within that section by comparing the signals from the terminals spanning that section. The sensing path can be formed in a closed loop, such as a circle for a scroll dial, in which the operator's finger position and movement can be uniquely determined in a straightforward manner.
Abstract:
A capacitive touch sensor of the type employing adjacent drive and sense electrodes, in which an additional sense electrode Y1 is provided as well as the conventional drive electrode Xn and sense electrode Y0. The drive and two sense electrodes are arranged on the bottom side of a dielectric panel, the top side providing—a sensing surface to be touched by a user's finger or a stylus. The additional sense electrode is positioned on the underside of the dielectric panel so that it is shielded from the drive electrode by the conventional sense electrode. As a consequence, the conventional sense electrode is much more sensitive to the proximity of the finger or stylus than the additional sense electrode which primarily registers noise. The signal collected form the additional sense electrode is then subtracted from the signal collected from the conventional sense electrode, thereby to cancel noise. Another design provides similar functionality with a capacitive touch sensor of the type employing single-ended electrodes.