Abstract:
A portable terminal comprises a first body 104 on which the first display surface 102 is formed, a second body 108 on which the second display surface 106 is formed, and hinge units which combine the first body 104 and the second body 108 in a foldable way. The first display surface 102 and the second display surface 106 form a combined display 112 continuously at a time of opening the first body 104 and the second body 108, and it further comprises a display control unit which displays one information on the whole combined display 112. Two display screens respectively formed in the individual bodies are used effectively.
Abstract:
A portable terminal comprises a first body 104 on which the first display surface 102 is formed, a second body 108 on which the second display surface 106 is formed, and hinge units which combine the first body 104 and the second body 108 in a foldable way. The first display surface 102 and the second display surface 106 form a combined display 112 continuously at a time of opening the first body 104 and the second body 108, and it further comprises a display control unit which displays one information on the whole combined display 112. Two display screens respectively formed in the individual bodies are used effectively.
Abstract:
An input device comprises: a detection unit that detects as detection data a vibration that is generated by tapping on a body of a user and transmitted through the body of the user; and an input information identification unit that refers to the detection data and that identifies a tap position based on a fact that the detection data varies according to a length of a vibration transmission path from the tap position to the detection unit.
Abstract:
An input device comprises: a detection unit that detects as detection data a vibration that is generated by tapping on a body of a user and transmitted through the body of the user; and an input information identification unit that refers to the detection data and that identifies a tap position based on a fact that the detection data varies according to a length of a vibration transmission path from the tap position to the detection unit.
Abstract:
A portable information terminal according to the present invention uses a main board and a memory sheet. The main board has a complicated configuration. The memory sheet has silicon chips for memory. The memory sheet comprises a film-shaped circuit board and the silicon chips mounted on the film-shaped circuit board. A contact for the memory sheet is connected to a connecting terminal of the main board. This configuration allows the mounting of a large capacity of memory while keeping the thickness of the portable information terminal in a thin state. As a result, a portability-improved portable information terminal can be obtained in which a large capacity of memory was contained and miniaturization, thickness reduction and weight reduction were achieved.
Abstract:
An information presentation device transmits information of a car navigation system, installed in a vehicle, to a driver in form of tactile stimuli, wherein a controller controls a plurality of vibrators attached to a steering wheel. The vibrators are arranged in proximity to vibration transmitters, corresponding to holding parts of a steering wheel, so that they are controlled with desired vibration intensity and vibration start timing in response to drive signals from the controller. Two vibrators are arranged in the holding parts of a steering wheel which come in contact with driver's hands and are controlled to generate a virtual vibrating source, thus rendering a driver feeling a sensation as if a vibrating source is moving in upward-downward directions, left-right directions, and far-near directions in the front side of a driver. Thus, it is possible to present accurate information with a small amount of energy consumption in driving vibrators.
Abstract:
An information presentation device transmits information of a car navigation system, installed in a vehicle, to a driver in form of tactile stimuli, wherein a controller controls a plurality of vibrators attached to a steering wheel. The vibrators are arranged in proximity to vibration transmitters, corresponding to holding parts of a steering wheel, so that they are controlled with desired vibration intensity and vibration start timing in response to drive signals from the controller. Two vibrators are arranged in the holding parts of a steering wheel which come in contact with driver's hands and are controlled to generate a virtual vibrating source, thus rendering a driver feeling a sensation as if a vibrating source is moving in upward-downward directions, left-right directions, and far-near directions in the front side of a driver. Thus, it is possible to present accurate information with a small amount of energy consumption in driving vibrators.
Abstract:
An input device comprises: a detection unit that detects as detection data an oscillation generated by tapping a body of a user and transmitted via the body; and an input information identification unit that refers to the detection data, identifies a tap site based on a fact that the detection data varies depending on a physical property of a body tissue associated with the tap site, and outputs an operation command allocated to the identified tap site.
Abstract:
An input device comprises: a detection unit that detects as detection data an oscillation generated by tapping a body of a user and transmitted via the body; and an input information identification unit that refers to the detection data, identifies a tap site based on a fact that the detection data varies depending on a physical property of a body tissue associated with the tap site, and outputs an operation command allocated to the identified tap site.
Abstract:
A working process end point real time determination method by which a working process end point can be determined accurately without an error even if a working process measurement signal has such a great variation that; the variation cannot be removed fully from and still remains in resulting smoothed data is disclosed. In the method, a working process end point is estimated by extrapolation from the variation of the average gradient of the averaged data in a predetermined period of the working process measurement signal to perform determination of the end point. Where the working process does not allow such extrapolation, it is first determined that the working process is near the working process end point based on the absolute value of the average gradient of the averaged data, and then the working process end point is determined using a short time gradient calculated from a value at the present measurement point of time and another value in the nearest past of the averaged data of the working process measurement signal.