| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 1 | 放大器电路、检测器装置和用于驱动放大器的方法 | CN201180018113.9 | 2011-03-03 | CN102835026B | 2015-09-09 | 马克·尼德伯格; 温琴佐·李奥纳多 |
| 放大器电路，包括测量路径，所述测量路径具有用于根据测量电流（Ipd）提供输出电压（V输出）的、具有第一和第二放大器输入端（11，12）以及放大器输出端（13）的放大器（1）。放大器电路的反馈路径包括第一滤波器（2）、辅助放大器（3）和第二滤波器（4）。在此，第一滤波器（2）设置为，将直流电压从输出电压（V输出）中滤波，并且与放大器输出端（13）连接。辅助放大器（3）用于将输入电压（Vfil）转换为输出电流（Ifil），并且具有第一和第二辅助放大器输入端（31，32），以及辅助放大器输出端（33）。在此第一辅助放大器输入端（31）与第一滤波器（2）连接。第二滤波器（4）设置为，将噪声从输出电流（Ifil）中滤波，并且将辅助放大器输出端（33）与第一放大器输入端（11）耦合。 | ||||||
| 2 | 放大器电路、检测器装置和用于驱动放大器的方法 | CN201180018113.9 | 2011-03-03 | CN102835026A | 2012-12-19 | 马克·尼德伯格; 温琴佐·李奥纳多 |
| 放大器电路，包括测量路径，所述测量路径具有用于根据测量电流（Ipd）提供输出电压（V输出）的、具有第一和第二放大器输入端（11，12）以及放大器输出端（13）的放大器（1）。放大器电路的反馈路径包括第一滤波器（2）、辅助放大器（3）和第二滤波器（4）。在此，第一滤波器（2）设置为，将直流电压从输出电压（V输出）中滤波，并且与放大器输出端（13）连接。辅助放大器（3）用于将输入电压（Vfil）转换为输出电流（Ifil），并且具有第一和第二辅助放大器输入端（31，32），以及辅助放大器输出端（33）。在此第一辅助放大器输入端（31）与第一滤波器（2）连接。第二滤波器（4）设置为，将噪声从输出电流（Ifil）中滤波，并且将辅助放大器输出端（33）与第一放大器输入端（11）耦合。 | ||||||
| 3 | Switched capacitor amplifier | JP2010049873 | 2010-03-05 | JP2011188143A | 2011-09-22 | UCHIDA TOSHIYUKI |
| PROBLEM TO BE SOLVED: To provide a switched capacitor amplifier which can output a stable output voltage. SOLUTION: A switched capacitor amplifier is capable of operating so as to eliminate a charge/discharge time difference between an input capacitor 18 and an output capacitor 19. Accordingly, in a shift from a hold state to a sample state, for example, even if one terminal voltage V2 of the output capacitor 19 abruptly increases to an output voltage VOUT, another terminal voltage Vs of the output capacitor 19 does not increase abruptly. In other words, an input voltage to an internal amplifier 11 does not increase abruptly. Hence, an output voltage of the internal amplifier 11 becomes stable, and therefore, the output voltage VOUT also becomes stable. COPYRIGHT: (C)2011,JPO&INPIT | ||||||
| 4 | JPS5115396B1 - | JP1107770 | 1970-02-07 | JPS5115396B1 | 1976-05-17 | |
| 5 | スイッチトキャパシタ増幅回路、電圧増幅方法及び赤外線センサ装置 | JP2017093049 | 2017-05-09 | JP2018191169A | 2018-11-29 | 矢部 幸治 |
| 【課題】充電及び出力動作を高速に切り替えつつ、オフセットをキャンセルして所望の電圧利得を得るスイッチトキャパシタ増幅回路を提供する。 【解決手段】オペアンプ10と、オペアンプの負入力端に各々の一端が接続された第1キャパシタC1及び第2キャパシタC2と、第1動作時に第1キャパシタの他端と信号源とを接続し、第2動作時に第1キャパシタの他端を所定電位に接続する第1スイッチ回路S1と、第1動作時に第2キャパシタの他端を所定電位に接続するとともにオペアンプの出力端と負入力端とを短絡し、第2動作時に第2キャパシタの他端とオペアンプの出力端とを接続することによりオペアンプの出力端と負入力端とを第2キャパシタを介して接続する第2スイッチ回路S2と、第1スイッチ回路と第1キャパシタの他端との間に接続され、信号源の出力インピーダンスを所定のインピーダンスに変換するインピーダンス変換回路11と、を含む。 【選択図】図2 |
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| 6 | It switched capacitor amplifier | JP2010049873 | 2010-03-05 | JP5441765B2 | 2014-03-12 | 俊之 内田 |
| 7 | Ac amplifier and piezoelectric vibrator oscillator | JP2005260161 | 2005-09-08 | JP2007074465A | 2007-03-22 | KAMIYA MASAAKI |
| PROBLEM TO BE SOLVED: To provide an AC amplifier that can reduce a consumption current without damaging low-voltage operation of an AC amplifier and has almost no duty deviation of an output signal waveform and further sufficient amplification characteristics. SOLUTION: The AC amplifier has an amplifier circuit AP1 and a bias circuit VS1 mutually connected with a coupling wiring Nd. The AC signal of the amplifier circuit AP1 is input to the bias circuit VS1 via the coupling wiring Nd. The DC voltage of the bias circuit VS1 corresponding to the amplitude of the AC signal of the amplifier circuit AP1 is supplied to the amplifier circuit AP1 via the coupling wiring Nd. COPYRIGHT: (C)2007,JPO&INPIT | ||||||
| 8 | Bi-directional arrangement of amorphous electronic control devices | US37741573 | 1973-07-09 | US3823331A | 1974-07-09 | ERITZSCHE H; OVSHINSKY S; SHAW R; SILVER M; SMEJTEK P |
| An electrical circuit comprising a pair of three terminal electronic control devices connected in back-to-back relation, each current control device comprising a body of essentially amorphous, semiconducting material defining a primary current path, and a voltage controlled electron emitter interfaced with the body through a thin electrode and an insulator layer to selectively vary the conductivity of the body of injecting high energy charge carriers into the body through the electrode.
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| 9 | Field effect conditionally switched capacitor | US3591836D | 1969-03-04 | US3591836A | 1971-07-06 | BOOHER ROBERT K; POLKINGHORN ROBERT W |
| The semiconductor substrate area under a metal plate is induced to change from one type of conductivity to a different type of conductivity when a voltage in excess of the inversion threshold of the substrate is applied to the plate. A capacitor is produced which stores a charge proportional to the applied voltage between the metal plate and the induced region. The induced region is connected to an input electrode. When a voltage is applied to the input electrode the voltage on the fixed plate of the capacitor is boosted by an amount proportional to the applied voltage. When the voltage on the metal plate is reduced below the inversion threshold voltage the induced region reverts back to its original conductivity and the input electrode is isolated from the capacitor.
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| 10 | Parametric amplifier | US3433976D | 1967-12-05 | US3433976A | 1969-03-18 | MARECHAL GUY N L J |
| 11 | Ferroelectric amplifier for driving light emitting load | US34730064 | 1964-02-25 | US3280332A | 1966-10-18 | STEPHEN YANDO |
| 12 | Parametric amplifier | US11198361 | 1961-05-23 | US3243716A | 1966-03-29 | DENES ROVETI |
| 13 | Dielectric amplifier | US42661254 | 1954-04-29 | US2848563A | 1958-08-19 | SCORGIE DONALD G |
| 14 | Electric piezoid amplifiers | US12747249 | 1949-11-15 | US2810023A | 1957-10-15 | HOLLMANN HANS E |
| 15 | Electric amplifier | US32638952 | 1952-12-17 | US2750454A | 1956-06-12 | MELVILLE WILLIAM S |
| 16 | Apparatus including a titanate condenser for amplifying an electrical signal | US74587747 | 1947-05-03 | US2611039A | 1952-09-16 | GERARD HEPP |
| 17 | Circuit arrangement for modulating an electric signal | US74587847 | 1947-05-03 | US2470893A | 1949-05-24 | GERARD HEPP |
| 18 | System and method for capacitive heat to electrical energy conversion | US13898594 | 2013-05-21 | US09653673B1 | 2017-05-16 | Jack Y. Dea |
| A system includes at least one capacitor comprising a dielectric material having a Curie temperature, each capacitor exhibiting an increased capacitance at a temperature below the Curie temperature and exhibiting a decreased capacitance at a temperature above the Curie temperature, a liquid source positioned adjacent to the capacitor and having a temperature above the Curie temperature, and means for exposing the capacitor to the liquid source for a predetermined time so the temperature of the dielectric material exceeds the Curie temperature, at which point the capacitance decreases. A voltage storage is connected to the capacitors to capture the increased voltage discharged from the capacitors. The capacitors are then removed from the liquid source and cooled. The capacitors may iteratively be recharged, exposed to the liquid source until their temperature exceeds the Curie temperature, connected to the voltage storage, removed from the liquid source, and cooled. | ||||||
| 19 | Amplifier circuit, detector arrangement and method for operating an amplifier | US13637357 | 2011-03-03 | US08779858B2 | 2014-07-15 | Mark Niederberger; Vincenzo Leonardo |
| An amplifier circuit comprises a measurement path with an amplifier (1) for providing an output voltage (Vout) depending on a measuring current (Ipd) with a first and a second amplifier input (11, 12), and an amplifier output (13). A return path of the amplifier circuit comprises a first filter (2), an auxiliary amplifier (3) and a second filter (4). In this case, the first filter (2) is designed to filter a DC voltage from the output voltage (Vout) and is connected to the amplifier output (13). The auxiliary amplifier (3) serves to convert an input voltage (Vfil) into an output current (Ifil) and has a first and a second auxiliary amplifier input (31, 32) and an auxiliary amplifier output (33). In this case, the first auxiliary amplifier input (31) is connected to the first filter (2). The second filter (4) is designed to filter noise from the output current (Ifil) and couples the auxiliary amplifier output (33) to the first amplifier input (11). | ||||||
| 20 | Passive amplifier | US13362069 | 2012-01-31 | US08653903B2 | 2014-02-18 | Kenneth J. Schlager; Jason Zehrung |
| A passive amplifier for use with enhanced power supplies, signal preamplifiers and power amplifiers in communications systems particularly in mobile phones, laptop computers and other battery-powered and battery-limited devices. The passive amplifier can be used as an attachment to electric appliances or other power consuming equipment to significantly reduce the electric power requirements of such equipment. These passive amplifiers do not require an outside source of power and can be used to elevate battery power outputs and serve as either low noise signal preamplifiers or transmit power amplifiers for higher performance and extended battery life. Passive amplifier technology is either electromagnetic or dielectric in nature with component parts limited to inductive, capacitive and resistive components. Dielectric amplifier prototypes have gain values in the range of the 10 dB level so as to be useful in communications applications and power amplification. | ||||||
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