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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 Printing apparatus EP85104525.2 1985-04-15 EP0160860B1 1989-03-15 Sakura, Yasuhiro; Haraga, Koichi; Nimura, Hitoshi; Ishikawa, Mamoru
142 SYSTEM, APPARATUS AND METHODS FOR DETERMINATION OF TRIGGER EVENTS USING RADIO-FREQUENCY IDENTIFICATION DEVICES EP21194671.0 2021-09-02 EP3965011A1 2022-03-09 BEHAN, Peter; HIBBETT, Mike

Systems and apparatus for the determination of trigger events using radio-frequency identification devices. In one embodiment, the system includes radio-frequency devices, one or more wireless access points, and monitoring software. The system operates by detecting a trigger event by a radio-frequency identification device; switching from a default identifier to an alert identifier for the radio-frequency identification device; determining whether to transmit the alert identifier for the radio-frequency identification device; and transmitting the alert identifier for the radio-frequency identification device to a wireless access point. Methods for determination of trigger events using radio-frequency identification devices are also disclosed.

143 IMAGE SENSOR BASED AUTONOMOUS LANDING EP17885518.5 2017-12-18 EP3563293A1 2019-11-06 ROZENBERG, Ohad; SOMECH, Haim
144 CLAMPING SURFACE POSITIONING SYSTEM EP13876271 2013-07-30 EP2909125A4 2016-07-27 MCKERNAN PAT S; NAGLE GREGORY A
A control system is provided for a load-handling clamp mountable on a vehicle, the clamp having a pair of opposed load-engagement clamping surfaces capable of clamping opposite sides of different types and configurations of loads. At least one of the clamping surfaces is closeable toward the other clamping surface along a direction which extends substantially laterally across a direction of forward approach of the clamp toward the load. The control system is capable of generating a variable signal indicating a desired forward, vertical and/or lateral pre-engagement position of the clamp from which the clamping surfaces can correctly engage the load.
145 CLAMPING SURFACE POSITIONING SYSTEM EP13876271.1 2013-07-30 EP2909125A1 2015-08-26 MCKERNAN, Pat S.; NAGLE, Gregory A.
A control system is provided for a load-handling clamp mountable on a vehicle, the clamp having a pair of opposed load-engagement clamping surfaces capable of clamping opposite sides of different types and configurations of loads. At least one of the clamping surfaces is closeable toward the other clamping surface along a direction which extends substantially laterally across a direction of forward approach of the clamp toward the load. The control system is capable of generating a variable signal indicating a desired forward, vertical and/or lateral pre-engagement position of the clamp from which the clamping surfaces can correctly engage the load.
146 VIDEO-ASSISTED TARGET LOCATION EP13737491.4 2013-06-27 EP2901236A1 2015-08-05 KARLOV, Valeri I.; DURST, Adam C.; BARRY, Patrick E.
A method for locating features in a field of view of an imaging sensor that includes receiving image data from the field of view of an imaging sensor, wherein the image data includes a plurality of image frames. The method also includes receiving three-dimensional position measurements, in an absolute coordinate system, for the imaging sensor at the point in time each image frame is acquired and identifying one or more features in each of the image frames. The method also includes determining position and velocity of the one or more features in the image frames based on changes to the one or more features between the image frames and determining three-dimensional positions of the one or more features in the image frames based on the received three-dimensional position measurements for the imaging sensor and position and velocity of the one or more features in the image frames.
147 A VACUUM UNIT, A SYSTEM COMPRISING SUCH VACUUM UNIT, AND A METHOD OF OPERATING A VACUUM UNIT EP07748045.7 2007-04-20 EP2013486B1 2010-11-10 JOHANSSON, Håkan; CASINGE, Tom
A vacuum unit comprises an inlet nozzle (10) having an input for compressed air and an output, an outlet nozzle (20) having an input and an output. A space (S) is provided between the output of the inlet nozzle and the input of the outlet nozzle and a vacuum opening (V) is in connection with the space. This space has a connection to a source of air (R) arranged at an angle to the output of the inlet nozzle, so that air entering the space (S) deflects the air flow from the inlet nozzle away from the input of the outlet nozzle. A vacuum unit is thereby provided which has fewer component parts and ducts or conduits than earlier units of this kind.
148 RENTAL MANAGEMENT SYSTEM EP05816941.8 2005-12-19 EP1835375A1 2007-09-19 EGUCHI, Yoshinori, HITACHI CONST. MACHINERY CO LTD; MATSUDA, Fujio, HITACHI CONST. MACHINERY CO LTD; ADACHI, Hiroyuki, HITACHI CONST. MACHINERY CO LTD; INOSE, Satoshi, HITACHI CONST. MACHINERY CO LTD; KONDOU, Itsuo, HITACHI CONST. MACHINERY CO LTD

A rental management system that includes a mobile terminal device and a server wirelessly connected with the mobile terminal device, includes: a rental item code input means disposed at the mobile terminal device for entering an inherent rental item identification code assigned to each rental item; a database disposed at the server, in which rental information to be used when renting out the rental item is stored; a control means disposed at the server for reading out the rental information to be used when renting out the rental item from the database based upon a command wirelessly received from the mobile terminal device; a decision-making means disposed either at the mobile terminal device or at the server for making a decision as to whether or not the rental item is available for rent based upon the rental item identification code assigned to the rental item having been entered by the rental item code input means, and the rental information having been read out by the control means; and a notifying means disposed at the mobile terminal device for notifying results of the decision made by the decision-making means.

149 Dynamic adjustment of I/O configuration EP00308490.2 2000-09-27 EP1102149A3 2004-10-06 Cwiakala, Richard, c/o IBM United Kingdom Ltd.; Rooney, William J., c/o IBM United Kingdom Ltd.; Yocom, Peter B., c/o IBM United Kingdom Ltd.; Yudenfriend, Harry M., c/o IBM United Kingdom Ltd.

Input/output (I/O) configurations of a computing environment are managed. This management includes dynamically adjusting an I/O configuration, when it is determined that such an adjustment is needed or desired. In order to make the adjustment, a channel path is selected from a plurality of channel paths. The selection of the channel path to be used in the adjustment is based on one or more characteristics associated with the channel path.

150 METHOD AND APPARATUS FOR TOTAL ENERGY FUEL CONVERSION SYSTEMS EP97955004 1997-12-23 EP1053394A4 2003-03-05 ENNIS BERNARD P; CIRRITO ANTHONY
An independent and conserved source of fuel and/or power comprises a top stage rocket engine firing up to 5000 F at very high pressures, delivering jet flows up to transonic velocities into a near adiabatic tunnel for mixing in general and/or for transforming reactants introduced to suit specific objectives. The related compression is supplied by an independent prime mover which compresses its exhaust and other recoverable fluids. Low grade flows, thereby upgraded in temperature and pressure, are adiabatically contained, are further upgraded in the tunnel to become part of the prescribed fuel for export at the tunnel ends; or fuel to be fired in a prime mover for electric or other power; or hydrogen for chemical use. Expansion turbines for this purpose are relieved of the load used to compress the excess air in standard gas turbines thus increasing export power. A portion of the expansion turbine's exhaust becomes part of recoverable fluids. When oxygen is used instead of air, the gases through turbines are nitrogen-free with more heat capacity reducing turbine inlet temperatures for the same power. When reactant transformation is specified, the larger water vapor content in the cycle enhances the water gas/shift autothermally for ammonia and/or power and alternatively for pyrolysis cracking for olefins and diolefins. Further, staging rocket engine reactors increases efficiency in boilers and steam turbines; and staging can produce sponge iron and/or iron carbide as well as expansion turbine power and fuel cells for peak and off-peak loads.
151 Dynamic adjustment of I/O configuration EP00308490.2 2000-09-27 EP1102149A2 2001-05-23 Cwiakala, Richard, c/o IBM United Kingdom Ltd.; Rooney, William J., c/o IBM United Kingdom Ltd.; Yocom, Peter B., c/o IBM United Kingdom Ltd.; Yudenfriend, Harry M., c/o IBM United Kingdom Ltd.

Input/output (I/O) configurations of a computing environment are managed. This management includes dynamically adjusting an I/O configuration, when it is determined that such an adjustment is needed or desired. In order to make the adjustment, a channel path is selected from a plurality of channel paths. The selection of the channel path to be used in the adjustment is based on one or more characteristics associated with the channel path.

152 METHOD AND APPARATUS FOR TOTAL ENERGY FUEL CONVERSION SYSTEMS EP97955004.3 1997-12-23 EP1053394A1 2000-11-22 ENNIS, Bernard, P.; CIRRITO, Anthony
An independent and conserved source of fuel and/or power comprises a top stage rocket engine firing up to 5000 F at very high pressures, delivering jet flows up to transonic velocities into a near adiabatic tunnel for mixing in general and/or for transforming reactants introduced to suit specific objectives. The related compression is supplied by an independent prime mover which compresses its exhaust and other recoverable fluids. Low grade flows, thereby upgraded in temperature and pressure, are adiabatically contained, are further upgraded in the tunnel to become part of the prescribed fuel for export at the tunnel ends; or fuel to be fired in a prime mover for electric or other power; or hydrogen for chemical use. Expansion turbines for this purpose are relieved of the load used to compress the excess air in standard gas turbines thus increasing export power. A portion of the expansion turbine's exhaust becomes part of recoverable fluids. When oxygen is used instead of air, the gases through turbines are nitrogen-free with more heat capacity reducing turbine inlet temperatures for the same power. When reactant transformation is specified, the larger water vapor content in the cycle enhances the water gas/shift autothermally for ammonia and/or power and alternatively for pyrolysis cracking for olefins and diolefins. Further, staging rocket engine reactors increases efficiency in boilers and steam turbines; and staging can produce sponge iron and/or iron carbide as well as expansion turbine power and fuel cells for peak and off-peak loads.
153 Data security apparatus EP95102120.3 1995-02-16 EP0669580A3 1996-04-17 Ohba, Toshihiro, c/o Sega Enterprises, Ltd.; Asai, Toshinori, c/o Sega Enterprises, Ltd.

An input means 4 is connected by way of a security check means 5 to a program data readout means 6. The program data readout means 6 is coupled to a game implementation means 11. To the security check means 5 are coupled a flag storage means 7 and an ID detection means 8. In the flag storage means 7 are stored a security flag 7a and a readout enabling flag 7b. To the ID detection means 8 are coupled an ID storage means 9 and an ID collation means 10. The ID collation means 10 is coupled to the program data readout means 6. A KEY-CD 2 stores an identifier KEY-ID 2b. A trial CD 1 stores an identifier DISC-ID 1 b. In response to the KEY-ID 2b detected from the KEY-CD 2, the security flag 7a becomes on, and after the collation of the DISC-ID 1 detected from the trial CD 1 with the KEY-ID 2b, the readout flag 7b becomes on. Then, the program data within the trial CD 1 are read out by the program data readout means 6, allowing the game implementation means 11 to execute a game. It is thus possible both to securely prevent the data stored in the storage medium from being illegally executed, analyzed. or copied by a person not having a legitimate title and to facilitate the execution of the data by a person having the legitimate title.

154 Printing apparatus EP85104525 1985-04-15 EP0160860A3 1986-06-25 Sakura, Yasuhiro; Haraga, Koichi; Nimura, Hitoshi; Ishikawa, Mamoru

A printing apparatus includes N heating elements (33-1 to 33-N) arranged in a line, and prints data on a label (1) by each line by selectively supplying a current to these heating elements (33-1 to 33-N) in accordance with printing data. The printing apparatus has a first memory (25) for storing a plurality of line printing data constituting printing information including special information, a second memory (26) for storing a plurality of line printing data constituting ordinary printing information, and a control unit (18, 27, 29) which generates drive data corresponding to a logical sum of the one line printing data from the first memory (MA1) and that from the second memory (MA2) so as to cause the heating elements (33-1 to 33-N) to be selectively energized during the first printing period of each printing cycle, and generates the drive data corresponding to the one line printing data from the first memory (MA1) so as to cause the heating (33-1 to 33-N) to be selectively energized during the second printing period of each printing cycle.

155 STICK DEVICE AND USER INTERFACE PCT/US2019/065264 2019-12-09 WO2020123398A1 2020-06-18 VERMA, Pramod, Kumar

This invention introduces a mobile robotic arm equipped with a projector camera system, and computing device connected with internet and sensors, which can stick to any nearby surface using sticking mechanism. Projector camera system displays user interface on the surface. User can interact with the device using user interface using voice, body gestures, remote device, wearable or handheld device. We call this device by "Stick Device" or "Stick User Interface". In addition, device can execute application specific task using reconfigurable tools and devices. With these functionalities, device can be used for various human-computer interaction or human-machine interaction applications.

156 IMAGE SENSOR BASED AUTONOMOUS LANDING PCT/IL2017/051357 2017-12-18 WO2018122836A1 2018-07-05 ROZENBERG, Ohad; SOMECH, Haim

A computer-implemented method of controlling an aircraft during autonomous landing. The method includes using a computer for performing the following: applying image processing on an image captured by a camera on board the aircraft while approaching a runway for identifying in the image a touchdown point (TDP) of the runway; calculating a deviation, in image parameters, of the TDP relative to the center of the image; converting the deviation in image parameters to angular and distance deviation values based on predefined ratios; calculating an offset of the aircraft's position relative to a landing corridor ending at the identified TDP based on the calculated angular and distance deviation; and transmitting the calculated offset to an aircraft control system configured to provide instructions for controlling the aircraft; wherein the offset is used for controlling the aircraft for guiding the aircraft towards the landing corridor to enable landing.

157 CLAMPING SURFACE POSITIONING SYSTEM PCT/US2013/052746 2013-07-30 WO2014133579A1 2014-09-04 MCKERNAN, Pat S.; NAGLE, Gregory A.

A control system is provided for a load-handling clamp mountable on a vehicle, the clamp having a pair of opposed load-engagement clamping surfaces capable of clamping opposite sides of different types and configurations of loads. At least one of the clamping surfaces is closeable toward the other clamping surface along a direction which extends substantially laterally across a direction of forward approach of the clamp toward the load. The control system is capable of generating a variable signal indicating a desired forward, vertical and/or lateral pre-engagement position of the clamp from which the clamping surfaces can correctly engage the load.

158 VIDEO-ASSISTED TARGET LOCATION PCT/US2013/048287 2013-06-27 WO2014051801A1 2014-04-03 KARLOV, Valeri I.; DURST, Adam C.; BARRY, Patrick E.

A method for locating features in a field of view of an imaging sensor that includes receiving image data from the field of view of an imaging sensor, wherein the image data includes a plurality of image frames. The method also includes receiving three-dimensional position measurements, in an absolute coordinate system, for the imaging sensor at the point in time each image frame is acquired and identifying one or more features in each of the image frames. The method also includes determining position and velocity of the one or more features in the image frames based on changes to the one or more features between the image frames and determining three-dimensional positions of the one or more features in the image frames based on the received three-dimensional position measurements for the imaging sensor and position and velocity of the one or more features in the image frames.

159 SYSTEM AND METHOD OF MATERIAL HANDLING USING ONE OR MORE IMAGING DEVICES ON THE TRANSFERRING VEHICLE AND ON THE RECEIVING VEHICLE TO CONTROL THE MATERIAL DISTRIBUTION INTO THE STORAGE PORTION OF THE RECEIVING VEHICLE PCT/US2013/025587 2013-02-11 WO2013141975A3 2013-09-26 BONEFAS, Zachary, T.; BARTHOLOMEW, Darin, E.

First imaging device collects first image data, whereas second imaging device collects second image data of a storage portion. A container identification module identifies a container perimeter of the storage portion in at least one of the collected first image data and the collected second image data. A spout identification module is adapted to identify a spout of the transferring vehicle in the collected image data. An image data evaluator determines whether to use the first image data, the second image data, or both based on an evaluation of the intensity of pixel data or ambient light conditions. An alignment module is adapted to determine the relative position of the spout and the container perimeter and to generate command data to the propelled portion to steer the storage portion in cooperative alignment such that the spout is aligned within a central zone or a target zone of the container perimeter.

160 A VACUUM UNIT, A SYSTEM COMPRISING SUCH VACUUM UNIT, AND A METHOD OF OPERATING A VACUUM UNIT PCT/SE2007/000380 2007-04-20 WO2007126356A1 2007-11-08 JOHANSSON, Håkan; CASINGE, Tom

A vacuum unit comprises an inlet nozzle (10) having an input for compressed air and an output, an outlet nozzle (20) having an input and an output. A space (S) is provided between the output of the inlet nozzle and the input of the outlet nozzle and a vacuum opening (V) is in connection with the space. This space has a connection to a source of air (R) arranged at an angle to the output of the inlet nozzle, so that air entering the space (S) deflects the air flow from the inlet nozzle away from the input of the outlet nozzle. A vacuum unit is thereby provided which has fewer component parts and ducts or conduits than earlier units of this kind.

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