Abstract:
Proposed is a bracelet-type transmission/reception device comprising: a cartilage conduction vibration source provided in a portion to be attached to a wrist; a speaker; a variable directional microphone; and a control unit which sets the directivity of the variable directional microphone to the back side of a hand when the speaker is used and sets the directivity of the variable directional microphone to the palm side of the hand when the cartilage conduction vibration source is used. The bracelet-type transmission/reception device is provided together with a display means for information relating to a transmission/reception method or a handling explanation medium or advertising medium having the information relating to the transmission/reception method. An example of a method for use thereof is to conduct the vibration of the cartilage conduction vibration source to a thumb and to bring the thumb into contact with a tragus in a state where the back of the hand faces forward. The cartilage conduction vibration source is also used as a vibration source of an incoming vibrator, and when the cartilage conduction vibration source vibrates for cartilage conduction, a vibrational component in a low-frequency range that induces a sense of vibration is cut. The cartilage conduction vibration source vibrates for notification by announcement voice data in a storage unit.
Abstract:
A mobile telephone has a front wall, a rear wall, a top wall partly continuous with a side face, and a side wall, and includes a vibration-absorbing member between the top wall and each of the rear wall and the side wall, and a cartilage conduction vibration source on the inner side of the top wall. Opposite corner parts of the top wall partly continuous with the side face each serve as a cartilage conduction unit. Or a mobile telephone has a front wall, a rear wall, a top wall, and a side wall, and includes a cartilage conduction vibration source that has a thin shape, that vibrates in a direction perpendicular to the thin shape, and that is affixed to the middle, in the left/right direction, of the inner side of the top wall in a direction parallel to the thin shape.
Abstract:
A mobile telephone includes a cartilage conduction unit for making contact with the ear cartilage. The cartilage conduction unit is provided to at least one of two corner parts at an upper side of the mobile telephone. The mobile telephone can include a surface of an outer wall and a cartilage conduction vibration source arranged inward from the surface of the outer wall, the vibration of the cartilage conduction vibration source being transmitted to the surface of the outer wall, wherein when the surface of the outer wall is brought into contact with at least a part of the ear cartilage around the entrance part to the external auditory meatus without making contact with the auricular helix, the sound pressure inside the external auditory meatus at about 1 cm from the entrance part of the external auditory meatus has an at least 10 dB increase compared to the non-contact state.
Abstract:
Disclosed is an illuminating device which has: a first illuminating lamp which is disposed at a first predetermined position and is identifiable; a second illuminating lamp which is disposed at a second predetermined position having a predetermined relationship with the first predetermined position and is identifiable; a determining means which determines the mutual relationship between the first illuminating lamp and the second illuminating lamp; and a transmitting means which transmits identifiable control signals to the first illuminating lamp and the second illuminating lamp, respectively, so as to achieve the determination made by the determining means.
Abstract:
A main processor of mobile phone changes from power saving state to active state for changing display in response to a sub processor for sensors, the main processor returning to the power saving state after changing the display. The main processor changes from power saving state to active state for storing information from the sub processor, the main processor returning to the power saving state after the storing function. The main processor selects the stored display data on the basis of the information from the sub processor to change display. The main processor receives and stores information from the sub processor in the boot up process or before finishing the operation. The sub processor is in the active state so as to control the sensor even in a case where the main processor is in the power saving state.
Abstract:
A main processor of mobile phone changes from power saving state to active state for changing display in response to a sub processor for sensors, the main processor returning to the power saving state after changing the display. The main processor changes from power saving state to active state for storing information from the sub processor, the main processor returning to the power saving state after the storing function. The main processor selects the stored display data on the basis of the information from the sub processor to change display. The main processor receives and stores information from the sub processor in the boot up process or before finishing the operation. The sub processor is in the active state so as to control the sensor even in a case where the main processor is in the power saving state.
Abstract:
The mobile telephone disclosed in the present specification has a mobile telephone upper edge unit including a right-ear cartilage conduction unit, a left-ear cartilage conduction unit, and a linking unit linking the right-ear cartilage conduction unit and the left-ear cartilage conduction unit, the units being exposed at the mobile telephone surface; and a cartilage-conduction vibration source for transmitting vibration to the mobile telephone upper edge unit.
Abstract:
A wireless plethysmogram sensor unit is capable of obtaining a plethysmogram from a living tissue of a measuring object and of transmitting the plethysmogram to a processing unit outside the wireless plethysmogram sensor unit. The sensor unit includes a light source to emit measuring light into the living tissue and a light receiving element to receive light emerging from the tissue, which is accompanied by pulsation caused by absorption by arteries in the tissue. A memory stores a plethysmogram obtained in accordance with the light received by the light receiving element. A short range wireless communicator transmits the plethysmogram to the processing unit. A power source provides power to other elements in the sensor unit, and a controller controls the elements of the sensor unit.
Abstract:
Provided is a mobile device including: an audio output unit; an audio source unit which provides music information to the audio output unit; an adjustment unit which adjusts the audio volume of the audio output unit; an announcement information generation unit which provides announcement information to the audio output unit; and a control unit which forcibly selects a predetermined audio volume regardless of the adjustment made by the adjustment unit when announcing information by the announcement information generation unit from the audio output unit.
Abstract:
Vibration electric power generation is carried out by a relative parallel movement of a ferroelectric member including floating electrodes arranged in parallel and a movable member including electrets maintaining a surface electric potential of approximately 100 volts at a temperature of 100° C. and opposed electrode portions alternately arranged, the ferroelectric member and the movable member being provided in a tire.