首页 / 国际专利分类库 / 物理 / 控制;调节 / 调节电变量或磁变量的系统 / 由检测系统电输入的偏差量从而控制系统中的一个设备以获得调定输出的电变量调节系统
序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
161 Power supply JP27618694 1994-11-10 JPH08140260A 1996-05-31 WARISAYA KANJI
PURPOSE: To improve reliability on a power supply by protecting the function of a rush current limiting circuit to the second power-on operation for a short time after cut off of power in a power supply. CONSTITUTION: This power supply is equipped with a main power circuit 2, an auxiliary power circuit 13, which supplies the control circuit of the main power circuit with power, and a limit circuit 26 which monitors the output voltage of the auxiliary power circuit 12, having a voltage comparison circuit 19 and a switch circuit 28. Start time can have a margin by turning on or turning off the FET switch connected in series to a rush current limiter resistor 4. COPYRIGHT: (C)1996,JPO
162 Power supply device JP1129385 1985-01-24 JPS61169921A 1986-07-31 SHIMOYANAGIDA SUSUMU
PURPOSE:To reduce power consumption at the rise of power supply voltage and to save electric power by operating a rectifier device usually as a full-wave rectifier circuit, and at the rise of the power supply voltage, operating the device as a half-wave rectifier circuit. CONSTITUTION:When the voltage of an AC power supply 1 is a prescribed value or less, a signal is outputted from a control signal output terminal 83 of a decision circuit 8, so that a thyristor 7 is turned on. Thereby, the rectifier device 2 operates as a full-wave rectifier circuit and a DC output is obtained from an output terminal 6. When the voltage of the AC power supply 1 is the prescribed value or more, no signal is outputted from the control signal output terminal 83 of the decision circuit 8, so that the thyristor 7 is turned off. Consequently, the rectifier device 2 operates in the course of a diode 24, a capacitor 3, a resistor 4, and a diode 22 as a half-wave rectifier circuit only when the upper terminal of the AC power supply 1 is positive. Thus, the power consumption of a power transistor 51 is sharply reduced as compared with that of the full-wave rectifier circuit.
163 Power supply device JP6608084 1984-04-03 JPS60209825A 1985-10-22 GANJI NOBUO; WADA MASAMI; NAKAMURA SHINICHI
PURPOSE:To charge a smoothing capacitor up to a reliable voltage by providing a current limiting means in the input end of a switching means and obtaining the detection voltage of a voltage comparing means from the output of this current limiting means. CONSTITUTION:A power supply device consists of a pulsating current supply means 1, a voltage comparing means 2 which discriminates whether a pulsating current voltage Vin is higher than a set voltage Vref or not, a switching means 3, a control means 4 of this means 3, and a smoothing means 5. When the difference between the pulsating current voltage Vin and an output voltage Vout is large, the switching means 3 is turned on to charge a smoothing capacitor 17, and the output voltage Vout is supplied to a load. In this case, a resistance 21 is inserted as a current limiting means 20 to the input end of the switching means 3. Thus, a voltage drop occurs by the resistance 21 and a charging current (i), and charging is terminated with a pulsating current voltage Vin' which is higher than the output voltage Vout by the forward voltage of a diode 18, and the smoothing capacitor 17 is charged up to a more reliable voltage.
164 Shared 100v and 200v electric appliance JP5391882 1982-04-02 JPS58172720A 1983-10-11 SAITOU YOSHIO
PURPOSE:To make a connection automatically and securely by selecting the 1st TRIAC through a comparator and conducting electrically between 100V taps of a transformer when a plug is connected to a 100V tap, and conducting between 200V taps when the plug is connected to a 200V socket. CONSTITUTION:The transformer 4 has a common tap 6, tap 7 for a 100V group, and tap 8 for a 200V group at the primary coil 5, and further has secondary coils 9 and 10. A TRIAC circuit 17 is connected to the tap 7 and a TRIAC circuit 18 is connected to the tap 8. A comparator 25 generates different outputs when an input voltage is 100V and 200V, and when the output of the comparator 25 shows a 100V group voltage input, the operating circuit consisting of transistors TRs 32, 35, and 36 and a diode 37 turns on the circuit 17. When the output of the comparator 24 shows a 200V group voltage input, the operating circuit consisting of TRs 31 and 33 and a diode turns on the circuit 18.
165 Power supply device JP19752481 1981-12-07 JPS5897722A 1983-06-10 NAGAHARA YOSHIHARU
PURPOSE:To foreknow assuredly voltage drop, by comparing the voltage of a battery power supply with the voltage of an automatic voltage controlling circuit and then setting the working voltage of a voltage reduction detector which is contained in a load which works through the automatic voltage controlling circuit on the basis of the detected voltage reduction. CONSTITUTION:A voltage VBB is supplied to an automatic voltage control circuits (AVR) 1 and 2 and a voltage reduction setting circuit 7 from an external power supply VDC or a built-in battery power source VB. The AVR1 delivers the voltage VDD and applies it to the circuit 7 along with a load 1 and the AVR2. A TRQ3 is turned on when the difference between the VBB and VDD is large and then turned off with about 0.6V. At this time point, a TRQ4 is turned on and the value drops suddenly for an equivalent resistance that decides the working voltage of a voltage drop detecting IC connected to a terminal 3a of a load 3. At the same time, the set voltage for detection of the voltage drop rises up suddenly to exceed the VDD. Thus the voltage drop detecting signal is delivered. A microprocessor of a load 4 reads out the set voltage and displays it to the load 3 with the liquid crystal. In such a way, a voltage drop is know previously. Such a power supply is suited to an RAM.
166 Controlling circuit of electric energy JP16906281 1981-10-20 JPS5870329A 1983-04-26 KIMURA KAZUMORI; YAMAGUCHI MASAFUMI
PURPOSE:To simplify the constitution of the titled circuit, by dividing the reference voltage to be compared with a power supply voltage through a comparator into a nonlinear ratio, then performing the subsequent processes in a linearized form. CONSTITUTION:A reference voltage dividing circuit 12 consists of a series connected substance of resistances R11-R14 and R15 and divides the reference voltage Vr to be applied to a reference voltage input terminal 13 to deliver the voltages (1/1.414)Vr, (1/1.732)Vr, (1/2)Vr and (1/2.236)Vr to points C1-C4 respectively. These output voltages are compared with the power supply voltage V0 supplied from a terminal 11 through each unit comparator of a comparing circuit 14. The outputs d1-d4 are set at logic value 1 when the V0 is higher than the output voltage and at logic value 0 when the V0 is lower than the output voltages respectively. Thus the contents of a shift register 15 is decided. Then a voltage supply time width deciding circuit 17 detects the contents of the register 15, and the supply voltage is controlled.
167 Stabilizer of load electric power JP16775480 1980-11-28 JPS5790728A 1982-06-05 NAGASAWA KIYOTO; HARIO HAJIME
PURPOSE:To exclude a means to obtain the effective value of a non-sinusoidal wave and a load voltage detecting means and accordingly to simplify the constitution of circuit, by carrying out the load phase control through the detection of the power supply voltage without detecting the load voltage. CONSTITUTION:A phase controlling switch means 13 like a triac, etc. is connected between a commercial AC power supply 11 and the load 12; and detecting means 14 and 15 detect the voltage value of the power supply 11. Furthermore a voltage-ignition phase converting means 16 decides the ignition phase of a switching means 13 in accordance with the output of the means 15. And an ignition pulse generating means 18 gives the ignition to the means 13 after generating an ignition pulse P with the ignition phse decided by the means 16. For instance, the means 18 supplies the voltage Vtheta corresponding to an ignition phase angle delivered from the means 16 and a pulse ZCP delivered from a zero cross detecting circuit 17 to produce the pulse P having a phase angle theta to the pulse ZCP.
168 Control circuit of machinery JP15292880 1980-10-29 JPS5775332A 1982-05-11 NAKAMURA MASAKI; GONTA TAKANORI; TERAI HARUO; HAMAOKA SHIGEO; ZAIZEN YOSHISATO
PURPOSE:To ensure the optional setting for the change of time limit to the fluctuation factor of power supply voltage, by amplifying the fluctuation of the power supply voltage through a simple constitution. CONSTITUTION:When a power supply switch 2 is closed, the reference voltage set at a constant level is applied to the gate terminal of a PUT12. At the same time, a TR17 and a thyristor 16 are turned on and off respectively. Accordingly no current flows to a solenoid 15, and the switch 2 is kept closed with conduction to a heater 14. When the charging voltage of a capacitor 6 reaches the reference level, the PUT12 is turned on with the TR17 turned off. The current flowing to a constant voltage diode 9 flows into the gate of the thyristor 16 to turn on the thyristor 16. Then the current flows to the solenoid 15, and the switch 2 opens to discontinue the conduction to the heater 14. With the fluctuation of the power supply, the charging voltage to be applied to a CR integral network 3 becomes equal to the voltage obtained by dividing the voltage obtained by under-cutting the constant voltage VZ by resistances 19 and 20 and by the function of a constant voltage diode 18.
169 Control circuit of machinery JP15292280 1980-10-29 JPS5775331A 1982-05-11 NAKAMURA MASAKI; TERAI HARUO; HAMAOKA SHIGEO; ZAIZEN YOSHISATO
PURPOSE:To cause a change of time limit more than an inverse proportion, by comparing the voltage obtained by subtracting the fluctuation of the power supply voltage from the constant voltage output of a constant voltage circuit with the charging voltage of a charging capacitor in a CR integral network and then controlling the conduction time of a load. CONSTITUTION:When a power supply switch 2 is closed, a heater 20 conducts to charge a capacitor 6. When the charging voltage of the capacitor 6 reaches the gate voltage of a PUT12, the PUT12 is turned on. Then a pulse output is delivered to a cathode terminal 13. Accordingly a thyristor 19 is turned on to flow the current to a solenoid 18. Thus the switch 2 is opened to cut off the current to the heater 20. In case the power supply voltage has a fluctuation, the voltage proportional to the power supply voltage is subtracted from a certain level of voltage decided by a constant voltage diode 9. As a result, the changing factor of the gate voltage of the PUT12 becomes larger than the fluctuation factor of the power supply voltage.
170 JPS5535734B2 - JP8591774 1974-07-26 JPS5535734B2 1980-09-16
171 JPS5329214B2 - JP12911173 1973-11-16 JPS5329214B2 1978-08-19
172 JPS50124144A - JP8591774 1974-07-26 JPS50124144A 1975-09-30
173 JPS4982952A - JP12911173 1973-11-16 JPS4982952A 1974-08-09
174 電気接続箱 JP2016084583 2016-04-20 JP6378714B2 2018-08-22 久保田 実; 益井 秀彰
175 電源回路 JP2014082530 2014-04-14 JP6344956B2 2018-06-20 佐藤 公信; 川田 真司
176 レギュレータ回路 JP2014156917 2014-07-31 JP6309855B2 2018-04-11 中川原 智賢
177 ブースト変換器とチャージポンプとを有する電圧供給システム JP2017171302 2017-09-06 JP2018011506A 2018-01-18 リプリー、 デイヴィッド スティーブン
【課題】電増幅器供給電圧を、10ボルト(V)から1Vまでの20dB窓にわたる平均出力電力に追従させる。
【解決手段】ブースト変換器とチャージポンプとを有する電圧供給システム600である。電圧供給システムは、入力ノード691において入力電圧Vbattを受けて当該入力電圧以上の出力電圧Voutを発生させるべく制御可能なブースト変換器604を含む。電圧供給システムは、入力ノードにおいて入力電圧を受けて当該入力電圧未満の出力電圧を発生させるべく制御可能なチャージポンプを含む。電圧供給システムはさらに、制御信号を受信して当該制御信号に基づき出力電圧を出力ノードに発生させるようにブースト変換器又はチャージポンプを制御するべく構成された制御器を含む。
【選択図】図6
178 統合型インダクタ JP2017091655 2017-05-02 JP2017216437A 2017-12-07 石垣 将紀
【課題】電変換回路は、複数のインダクタを有すため、磁気コアが嵩張っていることに起因し、大きな回路容積が必要となっていた。
【解決手段】統合型インダクタ組立体300は、中央脚部312を含む磁気コアを含み、中央脚部は、中央脚部の両側の第1外側脚部308及び第2外側脚部310と平行である。第1インダクタの第1巻線の組Lu、Ru,Cuは、中央脚部、磁気コアの第1外側脚部及び磁気コアの第2外側脚部の周りにおいて巻回されている。また、第2インダクタの第2巻線の組Ld、Rd、Cdは、磁気コアの中央脚部、第1外側脚部及び第2外側脚部の周りにおいて巻回されている。第1巻線の組及び第2巻線の組は、磁気コアの中央脚部の周りにおいて巻回された中央巻線、磁気コアの第1外側脚部の周りにおいて巻回された第1外側巻線及び磁気コアの第2外側巻線の周りにおいて巻回された第2外側巻線を含む。
【選択図】図3A
179 高圧インバータの瞬時停電補償方法 JP2016008211 2016-01-19 JP6220905B2 2017-10-25 スン‐グック,アン
180 最適化された電圧−周波数制御 JP2014548161 2012-12-20 JP6148254B2 2017-06-14 アルベア・サンチェス,カロリーヌ; ルセック,スザンヌ; プスチニ・パスクアル,ディエゴ
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