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 ИНТЕГРАТОР СИГНАЛОВ СИСТЕМЫ АВТОМАТИКИ НЕЭЛЕКТРИЧЕСКОГО ТИПА UAU200814670 2008-12-22 UA41780U 2009-06-10 BOZHOK ARKADII MYKHAILOVYCH; MAISUS VASYL VOLODYMYROVYCH; VOLYNKIN MYKOLA PETROVYCH; VENHER MYKOLA ANATOLIIOVYCH
Интеграторсигналовсистемавтоматикинеэлектрическоготипаотноситсяк средствамсистемавтоматикии можетбытьиспользованв механических, гидравлических, пневматическихи другихкомбинированныхсистемахавтоматическогорегулированияи управленияразногоназначениядляулучшениядинамическихпоказателей.
142 UAU200815240 2008-12-29 UA41555U 2009-05-25 BOZHOK ARKADII MYKHAILOVYCH; PONEDILOK VOLODYMYR FRANTSOVYCH
Гидропневмомеханическийдиференциаторсодержитсуммирующийрычагс выходнойтягой, узелприемавходныхсигналов, первыйи второйсильфоны, фланец. Первыйи второйсильфоныи узелприемавходныхсигналовразмещеныв цилиндрическихнаправляющихвтулках. Кнеподвижномуфланцус однойстороныприсоединенацилиндрическаянаправляющаявтулкас узломприемавходныхсигналов, ас противоположнойстороны - двецилиндрическихвтулкис первыми вторымсильфонами. Первыйизнихс приемнымсильфономчерезотверстиесоединеннепосредственно, авторойсильфон - черездроссельв неподвижномфланце. Приэтомпервыйсильфончерезфланецсвязансосреднейточкой, авторойсильфончерезфланец - соднимизконцовсуммирующегорычага. Совторымегоконцомсоединеннаявыходнаятяга.
143 A process for manufacturing a bespoke product handling apparatus IE20060883 2006-12-05 IE20060883A1 2008-09-17 WRIGHT GRAHAM FOSTER; HEALY PATRICK JOSEPH MICHAEL
This invention relates to a process for manufacturing a bespoke product handling apparatus having a wide range of apparatus attributes. In particular, this invention relates to a process for manufacturing bespoke product handling apparatus by first of all providing a general apparatus specification containing a plurality of apparatus attributes, and an apparatus specifications and component lists are created spanning a limited range of the apparatus attributes. In order to manufacture a bespoke product handling apparatus, various rules are defined to first of all obtain a suitable reference apparatus specification from memory and thereafter modify the component list of that apparatus specification using a configurator in order to generate a new component list for the bespoke product handling apparatus. This new component list is used in the manufacture of the bespoke product handling apparatus and component list and the apparatus identifier associated therewith are stored in memory for subsequent use in the manufacture of other bespoke apparatus.
144 ДИФФЕРЕНЦИАТОР СИГНАЛОВ СИСТЕМ АВТОМАТИКИ НЕЭЛЕКТРИЧЕСКОГО ТИПА UAU200713883 2007-12-11 UA31153U 2008-03-25 BOZHOK ARKADII MYKHAILOVYCH; PONEDILOK VADYM VITALIIOVYCH
Дифференциаторсигналовсистемавтоматикинеэлектрическоготипасодержитсуммирующийрычаг, узелприемавходныхсигналов, соединенныйчерездроссельс первымсильфономпреобразователяи непосредственно - совторымсильфоном, жесткосоединеннымс первымсильфономчерезфланец, связанныйтягойс однимизконцовсуммирующегорычага. Сильфоныпреобразователяи узлаприемавходныхсигналовразмещеныв цилиндрическихнаправляющихвтулках, жесткосвязанныхс неподвижнымифланцами. Второйсильфонпреобразователячерезподвижныйфланецсоединенсосреднейточкойсуммирующегорычага. Вовторомсильфонепреобразователяустановлендополнительныйнеподвижныйфланецс осевымотверстиеми жесткимтрубопроводом, соединеннымс узломприемавходныхсигналов.
145 A process for manufacturing a bespoke product handling apparatus IES20060884 2006-12-05 IES20060884A2 2008-01-09 WRIGHT GRAHAM FOSTER; HEALY PATRICK JOSEPH MICHAEL
This invention relates to a process for manufacturing a bespoke product handling apparatus having a wide range of apparatus attributes. In particular, this invention relates to a process for manufacturing bespoke product handling apparatus by first of all providing a general apparatus specification containing a plurality of apparatus attributes, and an apparatus specifications and component lists are created spanning a limited range of the apparatus attributes. In order to manufacture a bespoke product handling apparatus, various rules are defined to first of all obtain a suitable reference apparatus specification from memory and thereafter modify the component list of that apparatus specification using a configurator in order to generate a new component list for the bespoke product handling apparatus. This new component list is used in the manufacture of the bespoke product handling apparatus and component list and the apparatus identifier associated therewith are stored in memory for subsequent use in the manufacture of other bespoke apparatus.
146 HIGH PERFORMANCE DIFFERENTIAL ACTUATOR FOR ROBOTIC INTERACTION TASKS CA2583107 2007-03-30 CA2583107A1 2007-09-30 GAGNON FREDERIC; MICHAUD FRANCOIS; LAURIA MICHELE; GIGUERE PATRICK; LAVOIE MARC-ANDRE; LEGAULT MARC-ANTOINE
The mechanical differential actuator according to the present invention comprises a mechanical differential having three mechanicals ports. A first transducer with a low impedance is coupled to a first port, a second transducer with a high impedance is coupled to a second port, and the mechanical load i s coupled to the third port. The mechanical differential actuator enables controlling a force and a speed at a load coupled thereto through a known relation between the force and the speed. Moreover, the mechanical differential actuator presents a compact structure enabling the transfer of a large force relative to its volume.
147 ELECTRO-HYDRAULIC FOLLOWER DRIVE UA20041008257 2004-10-11 UA78766C2 2007-04-25 DOVGOPOLYI MYKOLA DANYLOVYCH
The invention relates to systems for automated control that include elements with non-linearity of type "dead zone", in particular to electro-hydraulic following drives in which slides with positive overlap are used, and can be used in drives of workbenches, presses and other equipment. Electro-hydraulic following drive has electric integrator installed at input, power amplifier 3 to output of which executive mechanism 4 is connected, this includes electro-hydraulic amplifier 5 with non-linearity "dead zone" and object of motion 6, and back-coupling line with indicator 7 of back coupling by position of object of motion. According to the invention electro-hydraulic following drive has electronic amplifier 2 with nonlinearity of type "saturation", this is installed in line of main circuit connecting to each other electric integrator 1 to power amplifier 3, and additional electric integrator 8 installed in the line of back coupling, at that output of indicator 7 of back coupling by position of object of motion and output of electronic amplifier 2 with nonlinearity of type "saturation" are connected to inputs of additional integrator 8, and output of additional integrator is connected to input of electric integrator 1. The unit in automated mode of operation makes it possible to level existing non-linearity and thus to increase correction ability of electro-hydraulic following drive, to increase its sensitivity and accuracy of operation in wide range of controlled values, and to increase functional abilities of the drive.
148 Control system for generating a continuous positive airway pressure DE69925005 1999-09-03 DE69925005T2 2006-02-09 O'DEA JOHN; DENYER JOHN
149 AT99940442 1999-09-03 AT294005T 2005-05-15 O'DEA JOHN; DENYER JOHN
150 A continuous positive airway pressure controller AU5441599 1999-09-03 AU5441599A 2000-03-27 O'DEA JOHN; DENYER JOHN
151 Control algorithm for PID controller e.g. for secondarily controlled hydrostatic drives DE19606176 1996-02-20 DE19606176A1 1997-08-21 NIKOLAUS HEINRICH W PROF DR IN
In this new concept of regulation all the components mentioned above dYI.k'(132), dYP.k'(131), dYD.k'(132) are continuously stored in a memory and added to a constant Y.k-1' (123) forming the control element Y.k'(123), where Y.k-1 represents the output value of the previous beat. dYP.k'=KP'* xw.k is the proportional component, dYI.k'=Ki'* xw.k* dta, the integral component, dYD.k'=KD'* dxw.k/dta, the differential component, and xw is the regulation deviation. The new algorithm is Y.k'=Y.k-1'+dYP.k'+dYI.k'+dYD.k' and the k factors are really subscripts.
152 Electrohydraulic proportional valve remote control method DE19518431 1995-05-19 DE19518431A1 1996-11-21 KRISTENSEN JOHN; PEDERSEN SOEREN
In the method of remotely operating an electrohydraulic control device, especially a proportional valve with electromagnetic drive, an electrical signal is generated from an adjustment path or a position of an operating element using a transfer function. A velocity is determined with which the operating element passes the adjustment path or implements a change of position. The transfer function is changed depending on the velocity. A region is provided around the null setting of the operating element in which the transfer function is independent of velocity.
153 DIFFERENTIAL CURRENT PROTECTION CIRCUITS CA2036181 1991-02-12 CA2036181A1 1991-09-13 KESSLER LELAND L
55,450 A differential protection circuit includes a pair of current transformers each having a secondary winding and each being inductively coupled to a power conductor at a different location. The secondary windings of these transformers are electrically connected in series with each other in a loop in bucking arrangement. A resistor is connected in parallel with the secondary winding of each transformer. Control circuits are connected to sense a voltage signal appearing across the resistor and to take appropriate action when the sensed voltage reaches a predetermined level. An additional winding on one of the transformers provides isolation between the loop and one of the control circuits to prevent false tripping of the differential protection circuit.
154 PROCESS CONTROLLER HAVING IMPROVED COMBINATION OF FEEDFORWARD FEEDBACK CONTROL IN181BO1988 1988-06-27 IN167466B 1990-11-03 HIROI KAZUO; ITO KOJIRO
155 AN IMPROVED DEVICE FOR AUTOMATICALLY REDUCING THE LAG OF THE POSITION OF AN ADJUSTING MEMBER IN A TURBINE IN239CA1987 1987-03-26 IN166840B 1990-07-21 DAUTREMAY GERARD; KHALETZKY DIMITRY
156 CORRECTION FOR NON-LINEARITY IN BRAKING GB8518487 1985-07-22 GB2162970A 1986-02-12 WICKHAM DAVID JOHN; POOLE JOHN DAVID
A railway vehicle brake actuator employs an electric motor driving through a step-down gearbox to mechanically move the brake blocks. After the initial rubbing contact point the response of the system is non-linear and the motor feedback control involves compensation for said non-linearity. The motor output shaft is connected to a rotary shaft encoder so that the position of the actuator output member, and thus also the brake force applied, can be determined by pulse counting. The ideal relationship between a brake demand signal and brake force is linear. The actual relationship between actuator position and brake force is non-linear. Correction factors covering the whole operating range are stored in a memory against pulse count numbers and used as a look-up table in the feedback circuit to compensate either the feedback signal or the demand signal for the non-linearity of the response.
157 DD26294384 1984-05-11 DD223835A1 1985-06-19 TATTERMUSCH WILFRIED
158 DE2631381C2 - DE2631381 1976-07-13 DE2631381C2 1983-10-06 GEAFER, SALAHADDIN, 7778 MARKDORF, DE; ZBIKOWSKI, GERHARD, DIPL.-ING., 7777 SALEM, DE
159 A method and apparatus to control the speed of an internal combustion engine DE3142360 1981-10-26 DE3142360A1 1983-05-05 MISCH WOLFGANG; FREYTAG ADOLF; HENNING MANFRED
160 regulating arrangement DE2831103 1978-07-14 DE2831103A1 1979-01-18 JOHNSON CHRISTOPHER LINLEY; STRATTON PETER JAMES
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