Abstract:
공지된 얼굴 또는 경계표와 같은 적어도 하나의 특정 이미지 객체를 사전 저장하는 단계(200), 카메라를 구동하여 이미지를 취득하는 단계(202), 이미지 내의 객체들을 분석하는 단계(204), 이미지 내의 객체들을 적어도 하나의 특정 이미지 객체와 비교하는 단계(206), 및 이미지 내의 적어도 하나의 객체와 적어도 하나의 특정 이미지 객체 사이에 매칭이 존재하는지를 결정하는 단계(208)를 포함하는 디지털 카메라 포커싱 기술이 설명된다. 매칭이 발견되는 경우, 카메라는 매칭된 객체 상에 포커싱되며(212, 214, 216, 218), 이미지가 캡처된다(220).
Abstract:
PROBLEM TO BE SOLVED: To provide a communication terminal at a low cost with low power consumption having pluralities of display devices to give diversified display. SOLUTION: A portable communication terminal 102 includes a housing 105, a 1st display area 130 and a 2nd display area 132. The 1st display area 130 is directed to the outside from a side 122 of the housing 105 and the 2nd display area 132 is directed outward from a front part 120 of the housing 105. The housing 105 includes a housing section 114 movable to an open position and a closed position and the 2nd display area 132 is covered by the housing section 114 when the housing section 114 is at the 1st position or the 2nd position.
Abstract:
PROBLEM TO BE SOLVED: To improve the shield for key regions of an apparatus by providing a thin film conductor which is disposed on the bottom face of a flat elastic body so as to cover the bottom of contact regions and expand over it and connected to the ground so as to function as a shield in the contact regions. SOLUTION: A thin film 216 has contact regions 217 respectively for keys of key pads. Contacts 510 connected to contacts 220 on a display board are disposed at the lower side of the regions. When the region 217 is deformed down by the key, the contact 510 at the bottom of the thin film is lowered to butt against the contact 220 to make a circuit, thus closing a switch. The film 216 is provided with at least two layers. It comprises a nonconductive thin film 624 and thin film conductor 626 which covers the entire top face of the thin film involving the regions 217.
Abstract:
PROBLEM TO BE SOLVED: To enable a user of a cellular telephone to confirm a caller before responding to an incoming call by a caller ID by providing a selective housing off hook disable function which can open a device without responding to the incoming call. SOLUTION: When there is an incoming call in closed state of a housing, a controller 304 informs a user of the incoming call, compares a caller ID with caller information stored and indicates the state of a device. Then, the controller 304 responds to the incoming call when the housing becomes open state from closed state when there is no input signal and disables the response to the incoming call at the time of open state of the housing when there is the input signal. Subsequently, the controller 304 displays the caller ID when the housing becomes the open state from the closed state, and enables the housing off hook and responds to the call when there are input signals of a side button circuit 308 and a key pad circuit 306.
Abstract:
A cellular telephone (110) comprises a control circuitry (205), and a cellular transceiver (215) connected to the control circuitry (205) and arranged to transmit and receive a cellular signal. The cellular telephone further comprises a radio transceiver (210) operatively connected to the control circuitry (205) and arranged to transmit and receive a radio signal. The cellular transceiver (215) and the radio transceiver (210) are arranged to operate simultaneously. The control circuitry is arranged to: initiate the cellular signal in response to the radio signal. A method for the simultaneous communication of cellular and radio signals in a cellular telephone is also disclosed and claimed.
Abstract:
A communication device (100) includes a first communication means (140) for operating in a first operating mode; a second communication means (110, 130) for operating in a second operating mode; and an operation control manager (150) coupled between the first communication means (140) and the second communication means (110, 130). The operation control manager (150) is adapted to detect a performance impact in the second communication means (110, 130); and modify the first communication means (140) to reduce the performance impact.
Abstract:
A portable communication device (100) includes at least one sensing circuit (101) and a processor (104), and operates in accordance with a corresponding method of operation. The sensing circuit detects (205) either a characteristic of an external environment containing the portable communication device (e.g., a chemical in the air or acceleration of the device) or a characteristic of the portable communication device user (e.g., heart rate or blood sugar content), and generates a signal (207) representative of a feature of the sensed characteristic. The processor receives the signal and initiates an event based at least on the feature of the sensed characteristic as represented by the signal. Events include, but are not limited to, one or more of the following: alerting the device user, transmitting a signal (e.g., an emergency call) to a remote communication device, re-sensing the characteristic or sensing another characteristic, and modifying a setting or profile of the device.
Abstract:
A portable communication device (102) includes a housing (105), a first display area (130), and a second display area (132). The first display area (130) is disposed in and outwardly directed from a front (120) of the housing (105), and the second display area (132) is disposed in and outwardly directed from a side (122) of the housing (105). The housing (105) may include a housing portion (114) movable to an open position and a closed position, where the second display area (132) is covered by the housing portion (114) when positioned in one of the first and the second positions.
Abstract:
A power amplifying circuit with load adjust for control of adjacent and alternate channel power. A power amplifier amplifies an input signal to produce an amplified signal. A variable impedance network presents different impedances to the output of the power amplifier responsive to a load control signal. A peak-to-average detector provides an indication of a peak-to-average ratio of the amplified signal. A controller coupled to the peak-to-average detector and the variable impedance network produces the load control signal responsive to the indication of the peak-to-average ratio.