Abstract: An electronic device includes a first display unit, a communication unit configured to communicate with an external device including a second display unit, and a control unit configured to rotate an image to be displayed on the first display unit, in accordance with a rotational angle in a plane parallel to a screen of the first display unit, and rotate an image to be output to the external device, in accordance with the rotational angle of the first display unit and a rotational angle in a plane parallel to a screen of the second display unit.

Abstract: In simultaneous communication using multiple frequency bands, the degradation in the communication quality is suppressed. The radio-frequency front-end circuit (1) includes an antenna terminal (2), a transmit filter (3), a receive filter, a transport filter, a switch (6), and a phase adjusting circuit (7). The switch (6) is capable of connecting the antenna terminal (2) to the transmit filter (3) or the receive filter and the transport filter simultaneously. The transmit filter (3) is disposed on a transmission path (T1). The receive filter is disposed on a reception path. The transport filter is disposed on a transport path. The phase adjusting circuit (7) is disposed on at least one of paths, the transmission path (T1), the reception path, and a reception/transmission path.

Abstract: In simultaneous communication using multiple frequency bands, the degradation in the communication quality is suppressed. The radio-frequency front-end circuit (1) includes an antenna terminal (2), a transmit filter (3), a receive filter, a transport filter, a switch (6), and a phase adjusting circuit (7). The switch (6) is capable of connecting the antenna terminal (2) to the transmit filter (3) or the receive filter and the transport filter simultaneously. The transmit filter (3) is disposed on a transmission path (T1). The receive filter is disposed on a reception path. The transport filter is disposed on a transport path. The phase adjusting circuit (7) is disposed on at least one of paths, the transmission path (T1), the reception path, and a reception/transmission path.

Abstract: A radio frequency circuit includes a power amplifier configured to selectively amplify one of a first radio frequency signal and a second radio frequency signal that have different bandwidths, and when the first radio frequency signal is input to the power amplifier, a first bias signal is applied to the power amplifier, and when the second radio frequency signal is input to the power amplifier, a second bias signal different from the first bias signal is applied to the power amplifier.

Abstract: A radio frequency circuit includes a power amplifier configured to selectively amplify one of a first radio frequency signal and a second radio frequency signal that have different bandwidths, and when the first radio frequency signal is input to the power amplifier, a first bias signal is applied to the power amplifier, and when the second radio frequency signal is input to the power amplifier, a second bias signal different from the first bias signal is applied to the power amplifier.

Abstract: A radio frequency circuit includes: a first filter connected to an antenna connection terminal and having a passband including a first band; a second filter connected to the antenna connection terminal and having a passband including a second band; and an active circuit connected to the first filter. The active circuit includes: a low noise amplifier; a first capacitor disposed on a feedback path of the low noise amplifier; and at least one of a first inductor or a first resistor, disposed on the feedback path. A signal of the first band and a signal of the second band are simultaneously transferable.

Abstract: In simultaneous communication using multiple frequency bands, the degradation in the communication quality is suppressed. The radio-frequency front-end circuit (1) includes an antenna terminal (2), a transmit filter (3), a receive filter, a transport filter, a switch (6), and a phase adjusting circuit (7). The switch (6) is capable of connecting the antenna terminal (2) to the transmit filter (3) or the receive filter and the transport filter simultaneously. The transmit filter (3) is disposed on a transmission path (T1). The receive filter is disposed on a reception path. The transport filter is disposed on a transport path. The phase adjusting circuit (7) is disposed on at least one of paths, the transmission path (T1), the reception path, and a reception/transmission path.

Abstract: In simultaneous communication using multiple frequency bands, the degradation in the communication quality is suppressed. The radio-frequency front-end circuit (1) includes an antenna terminal (2), a transmit filter (3), a receive filter, a transport filter, a switch (6), and a phase adjusting circuit (7). The switch (6) is capable of connecting the antenna terminal (2) to the transmit filter (3) or the receive filter and the transport filter simultaneously. The transmit filter (3) is disposed on a transmission path (T1). The receive filter is disposed on a reception path. The transport filter is disposed on a transport path. The phase adjusting circuit (7) is disposed on at least one of paths, the transmission path (T1), the reception path, and a reception/transmission path.

Abstract: A radio frequency circuit includes a power amplifier configured to selectively amplify one of a first radio frequency signal and a second radio frequency signal that have different bandwidths, and when the first radio frequency signal is input to the power amplifier, a first bias signal is applied to the power amplifier, and when the second radio frequency signal is input to the power amplifier, a second bias signal different from the first bias signal is applied to the power amplifier.

Abstract: A radio frequency circuit includes a power amplifier configured to selectively amplify one of a first radio frequency signal and a second radio frequency signal that have different bandwidths, and when the first radio frequency signal is input to the power amplifier, a first bias signal is applied to the power amplifier, and when the second radio frequency signal is input to the power amplifier, a second bias signal different from the first bias signal is applied to the power amplifier.

Abstract: In simultaneous communication using multiple frequency bands, the degradation in the communication quality is suppressed. The radio-frequency front-end circuit (1) includes an antenna terminal (2), a transmit filter (3), a receive filter, a transport filter, a switch (6), and a phase adjusting circuit (7). The switch (6) is capable of connecting the antenna terminal (2) to the transmit filter (3) or the receive filter and the transport filter simultaneously. The transmit filter (3) is disposed on a transmission path (T1). The receive filter is disposed on a reception path. The transport filter is disposed on a transport path. The phase adjusting circuit (7) is disposed on at least one of paths, the transmission path (T1), the reception path, and a reception/transmission path.

Abstract: A radio frequency circuit includes a power amplifier configured to selectively amplify one of a first radio frequency signal and a second radio frequency signal that have different bandwidths, and when the first radio frequency signal is input to the power amplifier, a first bias signal is applied to the power amplifier, and when the second radio frequency signal is input to the power amplifier, a second bias signal different from the first bias signal is applied to the power amplifier.

Abstract: The coupling members are positioned so as to span both paired housing halves and extend across the multiple connecting units in the direction of coupling of the connecting units, while, at the same time, having pairs of engaging portions engaging the respective housing halves of each connecting unit 10, and each of the paired housing halves has engageable portions engaging the corresponding engaging portions both in the direction of connection to counterpart connector components and in the direction of coupling.

Abstract: An electrical connector adapted such that blades that hold in place arrays of multiple terminals extending in a direction of connection to counterpart connector components are secured in place by a pair of housing halves split in said direction of connection, thereby forming a single connecting unit and each of the respective paired housing halves can be mated with a counterpart connector component in the above-mentioned direction of connection, wherein: the paired housing halves have interengaging portions in opposed sections of said housing halves the interengaging portions provided in a first housing half are positioned overlappingly with the other interengaging portions provided in the other housing half in the above-mentioned direction of connection, and abutment between the wall surface of the first interengaging portions and the wall surface of the other interengaging portions is made possible in the thickness direction of the above-mentioned blades.

Abstract: The coupling members are positioned so as to span both paired housing halves and extend across the multiple connecting units in the direction of coupling of the connecting units, while, at the same time, having pairs of engaging portions engaging the respective housing halves of each connecting unit 10, and each of the paired housing halves has engageable portions engaging the corresponding engaging portions both in the direction of connection to counterpart connector components and in the direction of coupling.

Abstract: An electrical connector adapted such that blades that hold in place arrays of multiple terminals extending in a direction of connection to counterpart connector components are secured in place by a pair of housing halves split in said direction of connection, thereby forming a single connecting unit and each of the respective paired housing halves can be mated with a counterpart connector component in the above-mentioned direction of connection, wherein: the paired housing halves have interengaging portions in opposed sections of said housing halves the interengaging portions provided in a first housing half are positioned overlappingly with the other interengaging portions provided in the other housing half in the above-mentioned direction of connection, and abutment between the wall surface of the first interengaging portions and the wall surface of the other interengaging portions is made possible in the thickness direction of the above-mentioned blades.

Abstract: A semiconductor apparatus, includes a common mode detector circuit that receives alternating current (AC) signals in a common mode.

Abstract: A semiconductor apparatus, includes a common mode detector circuit that receives alternating current (AC) signals in a common mode.

Abstract: A semiconductor apparatus includes a common mode detector circuit that receives differential alternating current (AC) signal; and a detector circuit.

Abstract: A semiconductor apparatus includes a common mode detector circuit that receives differential alternating current (AC) signal; and a detector circuit.