Abstract:
A driver is operated to drive signals from an integrated circuit. Operating the driver generates interference at substantially a first frequency that may interfere with circuitry sharing a power supply with the driver. A supply node is repeatedly coupled to and decoupled from the driver at substantially a second frequency higher than the first frequency to help supply power to the driver and to help prevent interference from propagating to circuitry sharing the power supply.
Abstract:
A power IC for an automobile engine control unit incorporating at least one semiconductor device comprising an N-channel insulated-gate filed-effect transistor formed on an SOI substrate, having an N-type layer having a concentration higher than a concentration of an N-type layer in contact with a p-body layer contacting a gate oxide film of the transistor. The high concentration N-type layer is formed in a region covering at most 95% of the source-drain distance between the p-body layer and a drain electrode of the transistor in the silicon substrate over an interface of a buried oxide film, the silicon substrate being in contact with both the field oxide film and the high concentration N-type layer contacting the drain electrode.
Abstract:
An N-channel MOS field-effect transistor on an SOI substrate including a source electrode, drain and gate electrodes both disposed via a field oxide film, a gate oxide film, a high concentration P-type layer, a high concentration N-type layer contacting the source electrode and the gate oxide film, a high concentration N-type layer contacting the drain electrode, a p-body layer contacting the high concentration P-type and N-type layers and the gate oxide film. In this transistor, an N-type layer with a concentration higher than that of a drain region contacting the p-body layer constitutes a region covering at most 95% of the source-drain distance. Further, an N-type region having a concentration from 3×1016/cm3 to 1×1022/cm3 is provided near a buried oxide film under the drain electrode.
Abstract translation:在SOI衬底上的N沟道MOS场效应晶体管,其包括经由场氧化膜设置的源电极,漏极和栅电极,栅极氧化膜,高浓度P型层,高浓度N型层 与源电极和栅极氧化膜接触,接触漏电极的高浓度N型层,与高浓度P型和N型层接触的p体层和栅氧化膜。 在该晶体管中,具有高于与p体层接触的漏极区域的浓度的N型层构成覆盖源极 - 漏极距离的至多95%的区域。 此外,在漏电极下方的掩埋氧化膜附近提供浓度为3×10 16 / cm 3至1×10 22 / cm 3的N型区域。
Abstract:
An improved telephone with three built in features that provide added conveniences and additional benefits for the user. These features are: Money Saver Timer, which tells the caller the amount of time is left of the current message or toll unit on a long distance call; Telephone Panic Switch, when pressed, will activate a circuit to automatically call and broadcast an emergency message to a group of pre-stored numbers; Music On Hold cards, which allow the user to play different music programs for the HOLD feature. These cards can be changed frequently to provide different music programs to the frequent caller.
Abstract:
An integrated protection device for protecting a subscriber line interface circuit from over-voltages on a communications line. The device comprises a switching portion having a gate, a cathode and an anode and a voltage offset portion also having a cathode and an anode. The offset portion is arranged for electrical connection in series with said gate. A diode portion having a cathode and an anode is arranged for electrical connection in series with said offset portion and said gate of said switching portion. The switching portion is operable to switch from an OFF state to an ON state when a switching potential difference applied between said cathode and said anode exceeds substantially a gate potential difference applied between said gate terminal and one of said cathode or anode. The offset portion is operable to switch from a blocking state to a conducting state when an offset potential difference applied across said offset portion exceeds a pre-defined offset voltage. The switching diode and offset portions are fabricated proximate one another in a single segment of semiconductor material.
Abstract:
An overvoltage protector suitable for protecting conductors comprises first, second and third at least bipolar protection elements (132, 134, 136). A first electrode of each protection element is connected to a common node (138). A second electrode of the first protection element (132) and a second electrode of the second or third protection elements (134, 136) are suitable for connection to a conductor to be protected. The first and third elements (132, 136) have breakdown conduction characteristic in one direction and diode conduction characteristic in the other, and the second element (134) has breakdown conduction characteristic in both directions, wherein the respective first electrodes of the first and third elements (132, 136) are of the same polarity.
Abstract:
An electronic device is provided, which includes a housing, a display, and a sensor panel that is disposed between the display and the housing and that senses input information of a stylus pen, in which the sensor panel includes a first sensor panel including an opening area and a second sensor panel disposed to cover at least part of the opening area and electrically connected with the first sensor panel, and the second sensor panel includes a first circuit board including a first sub-board and a second sub-board, at least part of the first sub-board and at least part of the second sub-board being spaced apart from each other to form a receiving space and a second circuit board, at least part of which being accommodated in the receiving space and surrounded by the first circuit board.
Abstract:
A modulation circuit includes a load and a transistor serving as a switch. The transistor has an oxide semiconductor layer in which hydrogen concentration is 5×1019/cm3 or less. The off-state current of the transistor is 1×10−13 A or less. A modulation circuit includes a load, a transistor serving as a switch, and a diode. The load, the transistor, and the diode are connected in series between the terminals of an antenna. The transistor has an oxide semiconductor layer in which hydrogen concentration is 5×1019/cm3 or less. An off-state current of the transistor is 1×10−13 A or less. On/off of the transistor is controlled in accordance with a signal inputted to a gate of the transistor. The load is a resistor, a capacitor, or a combination of a resistor and a capacitor.
Abstract:
In a circuit designed to output a varying output voltage, the substrate of the semi-conductor component is connected to a regulator, in particular a switch, connected to a lower potential than the potential of the substrate of the circuit. The circuit can for example be used in a Subscriber Line Interface Circuit (SLIC).
Abstract:
An N-channel MOS field-effect transistor on an SOI substrate including a source electrode, drain and gate electrodes both disposed via a field oxide film, a gate oxide film, a high concentration P-type layer, a high concentration N-type layer contacting the source electrode and the gate oxide film, a high concentration N-type layer contacting the drain electrode, a p-body layer contacting the high concentration P-type and N-type layers and the gate oxide film. In this transistor, an N-type layer with a concentration higher than that of a drain region contacting the p-body layer constitutes a region covering at most 95% of the source-drain distance. Further, an N-type region having a concentration from 3×1016/cm3 to 1×1022/cm3 is provided near a buried oxide film under the drain electrode.
Abstract translation:在SOI衬底上的N沟道MOS场效应晶体管,其包括经由场氧化膜设置的源电极,漏极和栅电极,栅极氧化膜,高浓度P型层,高浓度N型层 与源电极和栅极氧化膜接触,接触漏电极的高浓度N型层,与高浓度P型和N型层接触的p体层和栅氧化膜。 在该晶体管中,具有高于与p体层接触的漏极区域的浓度的N型层构成覆盖源极 - 漏极距离的至多95%的区域。 此外,浓度为3×10 16 / cm 3至1×10 22 / cm 3的N型区域 设置在漏电极下方的埋入氧化膜附近。