| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 61 | Quartz thermometer | US646048 | 1976-01-02 | US4039969A | 1977-08-02 | Jean-Claude Martin |
| A quartz crystal thermometer in which a standard frequency is generated by a first oscillator circuit incorporating a quartz crystal element and in which a frequency which varies with temperature is generated by a second circuit incorporating the same quartz crystal element. Two electrode pairs are provided on the single quartz crystal element in order to excite two different modes of vibration of the quartz crystal element, with the metallization being on only one or on both of the major faces of the quartz crystal element. In accordance with preferred embodiments, an AT- or a BT-cut quartz crystal plate is utilized. The ratio of the said two frequencies provides an accurate measure of the temperature. | ||||||
| 62 | Multimode and multistate ladder oscillator and frequency recognition device | US523054 | 1974-11-12 | US3967210A | 1976-06-29 | Herbert M. Aumann |
| A ladder oscillator composed of capacitive and inductive impedances connected together to form a ladder network which has a chosen number N oscillation modes at N different frequencies. Each oscillation mode is characterized by a unique standing wave voltage pattern along the nodes of the ladder oscillator, with the mode in which the ladder oscillator is oscillating being determinable from the amplitudes or phase of the oscillations at the nodes. A logic circuit may be connected to the nodes of the oscillator to compare the phases of selected nodes and thereby determine which mode the oscillator is oscillating in. A ladder oscillator composed of passive capacitive and inductive impedances can be utilized as a frequency recognition device, since the passive ladder oscillator will display the characteristic standing wave patterns if an input signal impressed upon the ladder oscillator is close to one of the mode frequencies of the oscillator. A CL ladder oscillator having series capacitive impedances and shunt inductive impedances can exhibit sustained and autonomous oscillations if active nonlinear devices are connected in parallel with the shunt inductive impedances. The active CL ladder oscillator can be synchronized to input frequencies impressed upon the oscillator, and will continue to oscillate after the input signal has been removed at a mode frequency which is, in general, nearest to the input signal frequency. Autonomous oscillations may also be obtained as desired from the active CL ladder oscillator at the mode frequencies. | ||||||
| 63 | Simultaneously multi-mode oscillator system | US38144464 | 1964-07-09 | US3274588A | 1966-09-20 | BROWN PAGE G |
| 64 | Automatic noise jamming multicarrier f.m. system | US19199362 | 1962-05-02 | US3225300A | 1965-12-21 | BARNEY KAY H; GRABER LEWIS J |
| 65 | Two-frequency microwave oscillator | US78879847 | 1947-11-29 | US2601539A | 1952-06-24 | MARCUM JESS I |
| 66 | Electron tube oscillator circuit | US43258042 | 1942-02-27 | US2354262A | 1944-07-25 | HERSHBERGER WILLIAM D |
| 67 | PROCÉDÉ DE GÉNÉRATION D'UNE PLURALITÉ DE COURANTS PRÉSENTANT CHACUN UNE FRÉQUENCE | EP17780447.3 | 2017-10-11 | EP3526871B1 | 2020-09-30 | BORTOLOTTI, Paolo; KERMORVANT, Julien; CROS, Vincent; MARCILHAC, Bruno; LEBRUN, Romain |
| 68 | OSCILLATEUR MULTI-MODE PERMETTANT UN SUIVI SIMULTANE DES VARIATIONS DE PLUSIEURS FREQUENCES DE RESONANCE D'UN RESONATEUR | EP15201725.7 | 2015-12-21 | EP3038253B1 | 2017-12-06 | GOURLAT, Guillaume; BILLIOT, Gérard; VILLARD, Patrick |
| 69 | OSCILLATEUR MULTI-MODE PERMETTANT UN SUIVI SIMULTANE DES VARIATIONS DE PLUSIEURS FREQUENCES DE RESONANCE D'UN RESONATEUR | EP15201725.7 | 2015-12-21 | EP3038253A1 | 2016-06-29 | GOURLAT, Guillaume; BILLIOT, Gérard; VILLARD, Patrick |
Oscillateur (100) multi-mode comportant : |
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| 70 | OSCILLATOR, TRANSMISSION/RECEPTION DEVICE, AND FREQUENCY SYNTHESIZER | EP07829825.4 | 2007-10-15 | EP2086107B1 | 2012-04-11 | MIZUTANI, Hiroyuki; NISHIDA, Kazuhiro; TSURU, Masaomi; KAWAKAMI, Kenji; HIEDA, Morishige; MIYAZAKI, Moriyasu |
| An end-open stub (4) having a line length equivalent to a quarter wavelength of an oscillation frequency F0 multiplied by 2N, i.e., a frequency 2N F0 is connected to a collector terminal of a transistor (1) while an output terminal (6) is arranged at the connection point (5) between the collector terminal of the transistor (1) and the end-open stub (4). An end-open stub (7) having a line length longer than the quarter wavelength of the signal of the oscillation frequency F0 is connected to a base terminal of the transistor (1) while an output terminal (9) is arranged at the connection point (8) located at a position equivalent to a quarter wavelength of the signal of the oscillation frequency F0 from the tip end of the end-open stub (7). | ||||||
| 71 | OSCILLATOR, TRANSMISSION/RECEPTION DEVICE, AND FREQUENCY SYNTHESIZER | EP07829825.4 | 2007-10-15 | EP2086107A1 | 2009-08-05 | MIZUTANI, Hiroyuki; NISHIDA, Kazuhiro; TSURU, Masaomi; KAWAKAMI, Kenji; HIEDA, Morishige; MIYAZAKI, Moriyasu |
An output terminal 6 is provided at the connecting point 5 between the collector terminal of a transistor 1 and an open-ended stub 4 by connecting the open-ended stub 4 to the collector terminal of the transistor 1, the open-ended stub 4 having a line length equal to a quarter of the wavelength of a signal of frequency 2N·F0 or 2N times the oscillation frequency F0 . In addition, an output terminal 9 is provided at a connecting point 8 located at a distance equal to a quarter of the wavelength of a signal of oscillation frequency F0 from the end of an open-ended stub 7 by connecting the open-ended stub 7 to the base terminal of the transistor 1, the open-ended stub 7 having a line length longerthanaquarterof thewavelengthof thesignalof oscillation frequency F0 . |
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| 72 | High-frequency oscillator | EP02252029.0 | 2002-03-21 | EP1244205B1 | 2006-08-30 | Oita, Takeo, c/o Nihon Dempa Kogyo Co., Ltd.; Sato, Yuichi, c/o Nihon Dempa Kogyo Co., Ltd. |
| 73 | Tunable, maximum power output, frequency harmonic comb generator | EP06000624.4 | 2006-01-12 | EP1686685A3 | 2006-08-16 | Mrozek, Eric M.; Fong, Flavia S.; Kintis, Mark |
A comb frequency generator that is tunable to vary the width of the pulses in the output signal and achieve a maximum power output at different harmonic frequencies. A wavefront compression device receives a sinusoidal input signal and provides wavefront compression to create a compressed signal having a series of periodic fast edges. A delay device receives the fast-edge compressed signal and delays the fast-edge signal to create a delayed fast-edge signal. A combining device receives the original fast-edge compressed signal and the delayed fast-edge compressed signal to generate an output signal including a series of pulses having a width determined by the delay of the delayed signal. In one embodiment, the delay device is a shorted transmission line stub having a length selectively set by a series of MEM devices. In another embodiment, the delay device is an NLTL variable time delay device that delays the fast-edge signal. |
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| 74 | Tunable, maximum power output, frequency harmonic comb generator | EP06000624.4 | 2006-01-12 | EP1686685A2 | 2006-08-02 | Mrozek, Eric M.; Fong, Flavia S.; Kintis, Mark |
A comb frequency generator that is tunable to vary the width of the pulses in the output signal and achieve a maximum power output at different harmonic frequencies. A wavefront compression device receives a sinusoidal input signal and provides wavefront compression to create a compressed signal having a series of periodic fast edges. A delay device receives the fast-edge compressed signal and delays the fast-edge signal to create a delayed fast-edge signal. A combining device receives the original fast-edge compressed signal and the delayed fast-edge compressed signal to generate an output signal including a series of pulses having a width determined by the delay of the delayed signal. In one embodiment, the delay device is a shorted transmission line stub having a length selectively set by a series of MEM devices. In another embodiment, the delay device is an NLTL variable time delay device that delays the fast-edge signal. |
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| 75 | High-frequency oscillator | EP02252029.0 | 2002-03-21 | EP1244205A3 | 2003-07-23 | Oita, Takeo, c/o Nihon Dempa Kogyo Co., Ltd.; Sato, Yuichi, c/o Nihon Dempa Kogyo Co., Ltd. |
A high-frequency oscillator according to the present invention enables a plurality of frequency signals to be output. The high-frequency oscillator according to the present invention outputs in parallel a plurality of frequency components from within a frequency spectrum of an oscillation output of a crystal oscillator, selects one or a plurality of frequency components from among the plurality of frequency components, and outputs the selected components as high-frequency outputs. In this way, a plurality of high-frequency signals can be obtained from one crystal oscillator. |
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| 76 | A multi-band type voltage controlled oscillator | EP00310052.6 | 2000-11-13 | EP1111771A3 | 2002-01-23 | Mahon, John-Carl; Nagai, Kenta; Katsumata,Masashi |
A multi-band type voltage controlled oscillator has a resonant circuit part (100) and an oscillating circuit part (200). The resonant circuit part (100) has plural resonant circuits (110, 120) having their resonant frequencies, and controls the plural resonant frequencies in their respective frequency-bands by a frequency control voltage to be applied to a first controlling terminal (103). The oscillating circuit part (200) has a transistor (T1) of which the base is connected to an output terminal (101) to which the plural resonant circuits (110, 120) are coupled. By changing the capacitance between the emitter and collector of the transistor (T1) with a frequency band selective voltage to be applied to a second controlling terminal (201), an optimum oscillating condition is satisfied at each of the plural resonant frequencies. |
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| 77 | Radio receiver and frequency generator | EP96304645.3 | 1996-06-24 | EP0755113A3 | 1997-04-23 | Beach, Mark Anthony; Mattos, Philip Gerard |
A frequency generator produces two widely spaced frequency outputs at the terminals of a single transistor. There is also disclosed a fixed frequency dual downconversion receiver, comprising: an analog first downconversion and IF filter stage; means for one-bit coding of the downconverted signal; and means for second downconversion by digital subsampling. The receiver is particularly suitable for use in GPS appliocations, and the frequency generator can advantageously be used to produce the local oscillator signal for the first mixer, and a clock signal for the digital subsampler. |
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| 78 | Method for generating a plurality of currents each having a frequency | US16340805 | 2017-10-11 | US11232894B2 | 2022-01-25 | Paolo Bortolotti; Julien Kermorvant; Vincent Cros; Bruno Marcilhac; Romain Lebrun |
| Disclosed is a method for generating, from a first electric current having a first frequency, a plurality of second currents each having a second respective frequency component, the method including the following steps: supplying a frequency distributor including a first set of pillars including a layer made from a first magnetic material and having a resonance frequency; exciting each pillar of the first set with an electromagnetic field having the first frequency, the ratio between twice the resonance frequency of each pillar of the first set and the first frequency being equal, to within ten percent, to a first natural integer; and generating, by each pillar of the first set, a second frequency component in the second respective current. | ||||||
| 79 | Circuit device, oscillator, electronic apparatus, and vehicle | US16561661 | 2019-09-05 | US11005421B2 | 2021-05-11 | Tsutomu Ogihara |
| A circuit device includes first and second output signal lines, an oscillation circuit that generates differential oscillation signals which are constituted by first and second signals, outputs the first signal to the first output signal line, and outputs the second signal to the second output signal line, a monitor circuit that includes a first input unit including a first input capacitor of which a one end is coupled to the first output signal line and an output unit which is coupled to the first input unit and outputs a monitor result, and a capacitance compensation circuit that includes a second input unit including a second input capacitor of which a one end is coupled to the second output signal line. | ||||||
| 80 | Oscillator | US15572783 | 2016-03-17 | US10425037B2 | 2019-09-24 | Tomonori Abe; Masahiro Mizoguchi |
| To reduce interference between wiring patterns at an oscillator that outputs a plurality of oscillation signals. An oscillator includes an IC configured to output a plurality of oscillation signals using a crystal resonator, and a base plate connected to the IC. The base plate includes a crystal resonator land and a crystal resonator land that are electrically connected to the crystal resonator, a power source land electrically connected to a power source, and a first output land positioned between the crystal resonator land and the power source land to output a first oscillation signal from the IC to an outside, and a wiring pattern from the first output land passes through between the crystal resonator land and the crystal resonator land. | ||||||
