| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 141 | Method of positioning device and positioning the fixed scroll | JP2006354303 | 2006-12-28 | JP4135028B2 | 2008-08-20 | 隆 廣内; 利浩 諏佐 |
| 142 | Method for positioning fixed scroll | JP2006354311 | 2006-12-28 | JP2008163838A | 2008-07-17 | HIROUCHI TAKASHI; SUSA TOSHIHIRO; TAKAHASHI TAKAYUKI |
| <P>PROBLEM TO BE SOLVED: To accurately position a fixed scroll 34 in a θ direction in a short period of time when the fixed scroll 34 is positioned during assembly of a scroll fluid machine and to prevent a positioning mechanism from getting complicated. <P>SOLUTION: A first positioning process positioning the fixed scroll 34 in the θ direction by a positioning pin 38a in a housing member 36 is performed after combining a movable scroll 31, a crankshaft 20 engaging with the movable scroll 31 and the housing member 36 constructing a bearing of the crank shaft 20, and a second positioning process positioning the fixed scroll 34 in ax X-axis direction and a Y-axis direction is performed after the first positioning process. <P>COPYRIGHT: (C)2008,JPO&INPIT | ||||||
| 143 | Compressor internal state estimating device and an air conditioner | JP2002216025 | 2002-07-25 | JP4023249B2 | 2007-12-19 | 敏行 前田; 清嗣 小泉; 貴弘 山口; 武史 桧皮; 茂伸 泉; 伸一 笠原 |
| An instantaneous current and instantaneous voltage of a three-phase coil (10) of a brushless DC motor (6) are detected, and the internal condition of a compressor (1) is predicted from these detection values. The prediction about the internal condition of the compressor (1) is made in such a way that motor driving torque which is a parameter of a motor model is identified and poor lubrication, liquid compression or the like is predicted from this identified motor driving torque. This enables it to make, in real time, a failure forecast, failure diagnosis etc. on the compressor (1). |
||||||
| 144 | Scroll type fluid machine of the rotational speed detecting device | JP10464793 | 1993-04-30 | JP3595348B2 | 2004-12-02 | 茂樹 三浦; 龍平 谷垣; 孝征 飯尾 |
| 145 | Scroll type machine with capacity modulating mechanism | JP31002995 | 1995-11-02 | JPH08334094A | 1996-12-17 | MAAKU BASU; ROI JIEI DOUPUKAA; JIINNRUTSUKU EMU KAIRATO; UEN AARU WAANA |
| PROBLEM TO BE SOLVED: To modulate continuous capacity from 100% full capacity to 0% of a scroll type machine by a single control mechanism. SOLUTION: Axial or radial relative movement between both scroll members 26, 32 is obtained to release sealing of a fluid pocket between both scroll blades to thereby obtain load release of a machine. Relative movement is accomplished by controlling fluid pressure in one chamber between two fluid pressure chambers 56, 58 by a solenoid valve 68 to move one scroll member 32 in one direction or the other direction or moving the scroll member by the other actuator. Capacity is modulated by making machine operation in a loaded state or load released state periodic. It is therefore recommended to use a sensor 82 for sensing the fluctuating condition of an air-conditioning system or the like, and a valve control module 80. In another embodiment, control mechanism is provided to improve motor efficiency during load release operation. | ||||||
| 146 | Vacuum pump suitable for the process as well as the method to operate the dry compression vacuum pump | JP50953794 | 1993-08-09 | JPH08502565A | 1996-03-19 | モーニカ クーン，; ハルトムート クリーン，; ルードルフ バーネン， |
| (57)【要約】 本発明は、少なくとも１つの吸込室（８，９）と、電気モータ（５）によって駆動される少なくとも１つのロータ（６， ７）とを備えた乾式圧縮真空ポンプ（１）を運転する方法に関する。 さらに本発明は、この運転方法に適した真空ポンプに関する。 整備作業に起因する運転中断を、ポンプに対するリスク無しに減じるために、本発明では、標準運転状態からの変化を生ぜしめる用途固有の現象または該現象の作用を監視し、乾式圧縮真空ボンプの運転の危険を予知させるような規定の変化値に達したあと、危険の原因を取り除くための手段を取るようにした。 | ||||||
| 147 | Rotation speed detecting device for scroll type fluid machine | JP10464793 | 1993-04-30 | JPH06317262A | 1994-11-15 | MIURA SHIGEKI; TANIGAKI RYUHEI; IIO TAKAMASA |
| PURPOSE: To make an output voltage value of a rotation signal sufficiently large, and improve detecting accuracy of the rotation speed by forming an Oldham's link to check rotation of a turning scroll of a magnetic raw material, and arranged an electromagnetic induction system rotation signal detecting means opposite to this. CONSTITUTION: When a rotary shaft 7 is rotated, a turning scroll 14 is driven in turning through turning driving mechanisms 20, 21 and 25, and revolves while rotation is being checked by an Oldham's link 26. As a result, gas flowed in a compression chamber 19 from a suction chamber 28 moves to a central chamber 22 while being compressed, and push-opens a delivery valve 30 of a delivery port 29, and flows outside of a sealed housing 1 after flowing in a delivery cavity 31. In this way, the Oldham's link 26 is formed of a magnetic raw material. An electromagnetic induction type rotation signal detecting means 50 is arranged opposite to the Oldham's link 26. Thereby, and output voltage value generated in the rotation signal detecting means 50 according to reciprocating motion of the Oldham's link 26 can be made sufficiently large. COPYRIGHT: (C)1994,JPO | ||||||
| 148 | JPH06505079A - | JP50491192 | 1992-02-21 | JPH06505079A | 1994-06-09 | |
| 149 | Abnormal operation concentrated predictor for pump | JP567184 | 1984-01-18 | JPS60150491A | 1985-08-08 | MIMURA YOSHIO |
| PURPOSE:To make a warning signal so as to be emitted at a time when a difference exceeds the specified value, by comparing the operation value required for every pump with each normal value stored in a terminal computer and making the computer store it, while transmitting the value to a main computer with a telephone line. CONSTITUTION:Various numerical values measured automatically by each detector for flow 6, shaft support temperature 7, its vibration 8, pressure 9 and electric power 11 are transmitted to a terminal computer 21 belonging to each pump. A normal value of each of numerical values is inputted into the terminal computer 21, while this value is compared with a numerical value out of each measuring unit, and the different value is stored in memory. And, this comparison result is transmitted to a main computer 22 located in the center with a telephone line 32, and hereat, when there was a difference in the measured value of more than the said specified value or a variation in the measured value within the unit time, a warning signal is emitted out of a warning device 23. With this constitution, automatic operation control over a lot of pumps dispersed in an extensive range and abnormal operation concentrated prediction for pumps are thus attainable. | ||||||
| 150 | COMPRESSOR, REFRIGERANT COMPRESSING APPARATUS, AND REFRIGERATING APPARATUS | US15779976 | 2016-02-02 | US20180347556A1 | 2018-12-06 | Yuki TAMURA; Shuhei KOYAMA; Takashi ISHIGAKI |
| A compressor includes a compression mechanism configured to compress refrigerant, an electromotive mechanism configured to drive the compression mechanism, a shell accommodating the compression mechanism and the electromotive mechanism, a reservoir provided inside the shell and configured to store mixed liquid including liquid refrigerant and refrigerating machine oil, and an electrode provided inside the reservoir and facing an inner surface of the shell. | ||||||
| 151 | PUMP BEARING FLOW CONTROL | US15771214 | 2016-11-01 | US20180340471A1 | 2018-11-29 | Robert Joseph Nyzen; Martin A. Clements |
| A gear pump comprising a bearing and first and second high pressure feeds from a bearing lube supply source to a lube pad disposed on an inside diameter of the bearing. Each of the first and second high pressure feeds includes an orifice. At least one of the first and second high pressure feeds includes a valve configured to selectively control the feed path and orifice within which it is installed. A method of controlling flow to a gear pump bearing is also disclosed. | ||||||
| 152 | Compressor having oil-level sensing system | US15130493 | 2016-04-15 | US10125768B2 | 2018-11-13 | Troy Richard Brostrom; Pavankumar Pralhad Jorwekar; Prashant Ramesh Jagdale; Vinayak Madanrao Juge; Pankaj Ahire |
| A compressor includes a shell, a first temperature sensor, a second temperature sensor, and a control module. The shell includes a motor, a compression mechanism and a lubricant sump. The first temperature sensor is at least partially disposed within the shell and configured to measure a first temperature of a lubricant at a first position. The second temperature sensor is at least partially disposed within the shell and configured to measure a second temperature of the lubricant at a second position that is vertically higher than the first position. The control module is in communication with the first and second temperature sensors and configured to determine a first difference between the first temperature and the second temperature. The control module is configured to determine whether a liquid level of the lubricant in the lubricant sump is below a predetermined level based on the first difference. | ||||||
| 153 | Diagnostic system | US12781044 | 2010-05-17 | US10024321B2 | 2018-07-17 | Hung M. Pham; Nagaraj Jayanth |
| A compressor is provided and may include a shell, a compression mechanism, a motor, and a diagnostic system that determines a system condition. The diagnostic system may include a processor and a memory and may predict a severity level of the system condition based on at least one of a sequence of historical-fault events and a combination of the types of the historical-fault events. | ||||||
| 154 | Motor driven compressor | US15047068 | 2016-02-18 | US09995302B2 | 2018-06-12 | Junya Yano; Tsuyoshi Yamaguchi; Takashi Kawashima; Yoshiki Nagata |
| A motor-driven compressor includes an electric motor, a drive circuit, a modulation method controller, a temperature measuring section, a high-temperature (HT) stop controller, and a high-temperature (HT) stop temperature setting section. The high-temperature (HT) stop controller stops the electric motor when the temperature measured by the temperature measuring section is higher than or equal to a predetermined high-temperature (HT) stop temperature. When the modulation method is the three-phase modulation, the HT stop temperature setting section sets the HT stop temperature to a three-phase high-temperature (HT) stop temperature. When the modulation method is the two-phase modulation, the HT stop temperature setting section sets the HT stop temperature to a two-phase high-temperature (HT) stop temperature, which is higher than the three-phase HT stop temperature. | ||||||
| 155 | OIL SENSOR FOR A COMPRESSOR | US15567485 | 2016-04-14 | US20180136124A1 | 2018-05-17 | Jeroen Alois M. FIRLEFIJN; Guido Jozef Christian PEETERS |
| An oil sensor comprising a holder to which an elongated crystal is fastened that is transparent to infrared light and with a refractive index greater than the refractive index of the oil to be examined, whereby a light source is provided in the holder at a first end of the elongated crystal for transmitting light in the infrared spectrum in the elongated crystal, and detector at a second end of the elongated crystal for measuring the intensity of the light, which during the passage through the elongated crystal undergoes total reflection at a boundary plane at least four times in succession in a contact zone where the elongated crystal comes into contact with the oil, wherein the oil sensor is further provided with at least one temperature sensor to determine the temperature of at least one of the components of the oil sensor. | ||||||
| 156 | Syrup pump and controller | US15235854 | 2016-08-12 | US09919909B2 | 2018-03-20 | Avihay Cohen; Robert R. Kimberlin |
| A beverage syrup pump system is disclosed including a pump housing having an internal pumping chamber, a pump motor, and a pumping mechanism driven by the motor within the pumping chamber. The pumping mechanism receives a syrup fluid at a first pressure and discharges the fluid at a second pressure which is greater than the first pressure. A pressure transducer adjacent a sensor port and in contact with a quantity of the fluid at the second pressure generates an electrical signal based upon the second pressure. A programmable micro controller receives the electrical signal from the pressure transducer and is capable of starting and stopping the pump motor. The micro controller will immediately stop the pump motor if the second pressure exceeds a predetermined maximum pressure level. The micro controller will also stop the pump motor if the second pressure falls and remains below a predetermined minimum pressure level for a predetermined first time interval. | ||||||
| 157 | Syrup Pump And Controller | US15235854 | 2016-08-12 | US20180044157A1 | 2018-02-15 | Avihay Cohen; Robert R. Kimberlin |
| A beverage syrup pump system is disclosed including a pump housing having an internal pumping chamber, a pump motor, and a pumping mechanism driven by the motor within the pumping chamber. The pumping mechanism receives a syrup fluid at a first pressure and discharges the fluid at a second pressure which is greater than the first pressure. A pressure transducer adjacent a sensor port and in contact with a quantity of the fluid at the second pressure generates an electrical signal based upon the second pressure. A programmable micro controller receives the electrical signal from the pressure transducer and is capable of starting and stopping the pump motor. The micro controller will immediately stop the pump motor if the second pressure exceeds a predetermined maximum pressure level. The micro controller will also stop the pump motor if the second pressure falls and remains below a predetermined minimum pressure level for a predetermined first time interval. | ||||||
| 158 | Vane pumps with vane wear detection | US14795338 | 2015-07-09 | US09828992B2 | 2017-11-28 | Craig T. Stambaugh, Sr. |
| A vane pump includes a liner defining a cammed inner surface, a rotor rotatably disposed within the liner that has a plurality of vane slots, and a plurality of vanes slidably disposed within vane slots of the rotor and configured to extend away from the rotor and contact the cammed inner surface of the liner. The plurality of vanes include at least one sentinel vane that is configured to allow detection of wear on the sentinel vane. | ||||||
| 159 | Scroll vacuum pump and method of maintenance including replacing a tip seal of a scroll vacuum pump | US15074635 | 2016-03-18 | US09822780B2 | 2017-11-21 | John Calhoun |
| A scroll pump has a tip seal between an axial end of the scroll blade of one of stationary and orbiting plate scrolls of the pump and the plate of the other of the stationary plate and orbiting plate scrolls. The scroll pump may have a ballast gas supply system and use the operation of the ballast gas supply system to assess the condition of the tip seal. Alternatively, the scroll pump may have two pressure sensors that sense pressure at two locations spaced along a compression mechanism of the pump to assess the condition of the tip seal. | ||||||
| 160 | Deposit detection device for exhaust pump and exhaust pump | US14394668 | 2013-03-07 | US09777612B2 | 2017-10-03 | Yoshihiro Enomoto |
| A deposit detection device for an exhaust pump is provided, which can be easily put into operation without the burdens of, for example, installing equipment for flowing a gas, or adding or changing operation modes in apparatuses. The device is configured to include: a means for detecting motor current values a motor that rotates a rotating body; a current value storage portion that stores only motor current values that are equal to or greater than a preset value from among detected motor current values; an average value calculation portion that calculates an average value per unit time of the stored motor current values; an average value storage portion that stores the calculated average value; an approximation calculation portion that determines a linear approximation of the stored chronologically ordered average values; and a difference value calculation portion that determines a difference value between a predicted motor current value calculated by using the linear approximation and an initial motor current value at a start of use of the exhaust pump. A time when the difference value exceeds a predetermined threshold is determined as a time for maintenance of the exhaust pump. | ||||||
QQ群二维码
意见反馈
意见反馈