mhurhangee/ep-ind-claims huggingface dataset:
Ventricular assist device comprising a controller configured to at least temporarily modulate the speed of the device around a mean speed and measure a response of the native heart to this modulation to determine the ventricular function / contractile state of the heart and set the mean speed in dependence of the measured response, characterized in that the controller is configured to modulate the speed and measure the response by increasing the speed of the device to a speed higher than the mean speed, maintaining the higher speed for a certain time, measuring the values of a combination of intrinsic and extrinsic variables representing the response of the heart to this increase during this certain time and decreasing the speed of the device to a speed lower than the mean speed, maintaining the lower speed for a certain time, measuring the values of a combination of intrinsic and extrinsic variables representing the response of the heart to this speed decrease, evaluating the measured values and setting the mean speed depending on the result of evaluation.
A wind turbine system, wherein the wind turbine system is comprising: - a support structure, - a plurality of wind turbine modules mounted to the support structure wherein each of the plurality of wind turbine modules comprises a rotor, - a control system, characterized in that the control system is arranged to enter a service mode wherein service can be performed in the wind turbine system, the service mode comprising: - applying a first control command to a first subset of wind turbine modules for terminating power production, and - applying a second control command to a second subset of wind turbine modules (2") being different from said first subset of wind turbine modules, the second control command bringing the second subset of wind turbine modules (2") into an damping mode where each of the wind turbine modules of the second subset is operated to damp vibrations of at least one wind turbine module (2*) of the first subset of wind turbine modules. - a support structure, - a plurality of wind turbine modules mounted to the support structure wherein each of the plurality of wind turbine modules comprises a rotor, - a control system, - applying a first control command to a first subset of wind turbine modules for terminating power production, and - applying a second control command to a second subset of wind turbine modules (2") being different from said first subset of wind turbine modules, the second control command bringing the second subset of wind turbine modules (2") into an damping mode where each of the wind turbine modules of the second subset is operated to damp vibrations of at least one wind turbine module (2*) of the first subset of wind turbine modules.
A lathe fixture for clamping an automobile hub, comprising a base I, a deflection block support block, a deflection block, a deflection block guide shaft, a circular plate, a positioning pull rod, a clamping jaw, screws I, pins I, screws II, a power chuck, screws III, a dust cover, screws IV, a support shaft, a screw V, screws VI, a spindle body, screws VII, a rivet, a base II, screws VIII, a balance block, a balance block guide shaft, a positioning pull rod pressure plate, an airtight base, and an airtight lifting plate, characterized in that the lathe fixture further comprises an O-shaped rubber ring, a balance block guide rail and a pin II, wherein the base II is connected with the base I via a group of screws VIII and the pin II, the circular plate is connected with the base I via a group of screws VI, the power chuck is connected to the base II via a group of screws III, the O-shaped rubber ring is placed between the power chuck and a groove of the base II, the rivet penetrates through the power chuck and is in threaded connection with the interior of the spindle body, the balance block guide rail is fixedly connected to the base I via a group of screws VIII, the deflection block support block is connected to the base I, the deflection block guide shaft penetrates through a through hole on the deflection block and is immobilized, the balance block guide shaft penetrates through the deflection block and the balance block, the deflection block rotates around the deflection block guide shaft, the balance block is driven by the balance block guide shaft to move linearly along the balance block guide rail in the radial direction of the fixture, the positioning pull rod is connected and fixed to the power chuck through a group of screws II, the clamping jaw is connected and fixed to the positioning pull rod via a group of screws I and a group of pins I, the dust cover is connected and fixed to the circular plate via a group of screws, the support shaft penetrates through the base I and is connected and fixed to the base II by threaded connection, the upper end of the support shaft is connected and fixed with the circular plate via the screw V, the positioning pull rod pressure plate is fixed on the circular plate by threaded connection, the positioning pull rod moves linearly in the radial direction in a guide groove between the circular plate and the positioning pull rod pressure plate, the airtight base is fixed on the circular plate, the airtight lifting plate limits the travel range in the vertical direction, and the fixture is fixedly connected to the spindle body via a group of screws VII.
Quick coupler for changing attachments on a construction machine, comprising a carrier, first receiving members arranged on one side of the carrier for a first coupling member, second receiving members arranged on the other side of the carrier for a second coupling member, a locking unit associated with the second receiving members and movable between a release position and a locking position, and a catch unit arranged on the carrier and having at least one catch hook pivotably arranged on the carrier for catching the attachment, characterized in that a control member, which is designed to be actuated by the first coupling member and can be actuated independently of the locking unit, is arranged on the catch hook for controlling the pivoting movement of the catch hook between a folded-in and folded-out position.
A projection system installed in an auditorium, comprising a screen and at least two digital projectors (505A, 505B) for projecting images defined by image data, wherein the at least two digital projectors (505A, 505B) are angled so that they illuminate the screen, wherein the image data are pre-shifted before delivery to the auditorium and prior to projection in order to compensate a trapezoidal effect caused by projecting images from the at least two digital projectors (505A, 505B), wherein the compensation for the trapezoidal effect comprises shifting where pixels of an image to be projected are modulated on modulators of at least one of the at least two digital projectors (505A, 505B) such that the pixels of the at least two digital projectors (505A, 505B) are projected onto a same portion of the screen, wherein the at least two digital projectors (505A, 505B) are spaced apart more than 1/4 of a width of the screen and within the limitations of the compensation for the trapezoidal effect, thereby maintaining the digital projectors' (505A, 505B) ability to correct for a trapezoidal effect associated with the projected images to ensure a target resolution of the projected images, and wherein the at least two digital projectors (505A, 505B) are located at a rear edge of the auditorium such that a rear center of the auditorium is between two of the at least two digital projectors (505A, 505B) and at least one of the at least two digital projectors (505A, 505B) causes smaller reflection angles for viewers at a side edge of the auditorium as compared to locating only one digital projector at the rear center of the auditorium, wherein a reflection angle is an angle between a specular reflection (325A, 325B) of light (115, 116) from a digital projector (505A, 505B) incident on the screen and a viewer.
A deformation element (1.3; 2.3; 3.3; 4.3; 5.3; 6.3; 7.3; 8.3; 9.3; 10.3; 11.3; 12.3; 13.3; 14.3) for absorption of kinetic energy, in particular the kinetic energy released in a crash of two collision partners, having at least one breakable body (1.4; 2.4; 3.4; 4.4; 5.4; 6.4; 7.4; 8.4; 10.4; 11.4; 14.4) made of a fiber-plastic composite having a first edge (1.1; 2.1; 4.1; 6.1; 8.1; 9.1; 14.1) and a second edge (1.2; 2.2; 4.2; 5.2; 6.2; 8.2; 9.2; 10.2; 14.2), which runs at a lateral distance from the first edge (1.1; 2.1; 4.1; 6.1; 8.1; 9.1; 14.1), wherein at least the first edge (1.1; 2.1; 4.1; 6.1; 8.1; 9.1; 14.1) has a profile having first bulges (1.8; 2.8; 3.8; 6.8; 7.8; 8.8; 9.8; 10.8; 12.8; 14.8) and second bulges (1.9; 2.9; 3.9; 6.9; 7.9; 8.9; 9.9; 10.9; 12.9; 14.9) pointing in the opposite direction, developing alternately into one another, characterized in that the first edge (1.1; 2.1; 4.1; 6.1; 8.1; 9.1; 14.1) has a greater length than the second edge (1.2; 2.2; 4.2; 5.2; 6.2; 8.2; 9.2; 10.2; 14.2), and the first edge (1.1; 2.1; 4.1; 6.1; 8.1; 9.1; 14.1) and the second edge (1.2; 2.2; 4.2; 5.2; 6.2; 8.2; 9.2; 10.2; 14.2) are connected to one another via a lateral surface (1.5; 8.5), which is formed by surface lines (8.17; 8.18; 10.17; 10.18; 12.17) connecting the first edge (1.1; 2.1; 4.1; 6.1; 8.1; 9.1; 14.1) and the second edge (1.2; 2.2; 4.2; 5.2; 6.2; 8.2; 9.2; 10.2; 14.2).
Turbine ring sector, of longitudinal orientation, comprising: - a wall comprising, between the upstream and downstream ends thereof with respect to the flow of the gases, a longitudinal inner surface delimiting a streamlined duct wherein the gases flow, and - a multi-perforated sheet, located opposite the streamlined duct with respect to the wall, said multi-perforated sheet comprising a bottom (21, 121, 221, 321) facing a longitudinal outer surface of the wall of the ring sector, the bottom being connected upstream to an upstream radial side wall extended by an upstream end of the multi-perforated sheet which bears against an upstream tenon provided at the upstream end of the wall of the ring sector, the bottom being connected downstream to a downstream radial side wall extended by a downstream end of the multi-perforated sheet that bears against a downstream tenon provided at the downstream end of the wall of the ring sector, a space delimited by the upstream and downstream tenons (14, 15) and the outer surface of the wall of the ring sector defining a first trough, the upstream and downstream tenons (14, 15) forming the side walls of the trough and the wall of the ring sector forming the bottom of the first trough, the multi-perforated sheet having the form of a second trough, housed in the first trough, and comprising the side walls (22, 23) and the bottom, the distance between the outer surface of the wall of the ring sector and the bottom (21, 121, 221, 321) of the multi-perforated sheet defining a gap which can change along to an axial direction, from the upstream end with tenon to the downstream end with tenon of the wall, characterised in that the value of the gap located on the side of the upstream end with tenon of the wall is less than the value of the gap located on the side of the downstream end with tenon of the wall, the upstream radial side wall extending radially downwards farther than the downstream radial side wall, such that the upstream end of the bottom, located longitudinally at the level of the upstream radial side wall, is positioned below the downstream end of the bottom, located longitudinally at the level of the downstream radial side wall. - a wall comprising, between the upstream and downstream ends thereof with respect to the flow of the gases, a longitudinal inner surface delimiting a streamlined duct wherein the gases flow, and - a multi-perforated sheet, located opposite the streamlined duct with respect to the wall, said multi-perforated sheet comprising a bottom (21, 121, 221, 321) facing a longitudinal outer surface of the wall of the ring sector, the bottom being connected upstream to an upstream radial side wall extended by an upstream end of the multi-perforated sheet which bears against an upstream tenon provided at the upstream end of the wall of the ring sector, the bottom being connected downstream to a downstream radial side wall extended by a downstream end of the multi-perforated sheet that bears against a downstream tenon provided at the downstream end of the wall of the ring sector,
A contact apparatus, comprising: a hollow chamber with an opening disposed on one side, two spaced fixed contacts disposed on a top part of the chamber, and a moving contact assembly disposed inside the chamber, wherein the top part of the chamber is away from the opening, and the two fixed contacts extend into the chamber; and the moving contact assembly comprises: an insulating part, made of plastic; a push rod, wherein one end of the push rod is mounted on a driving apparatus, and the other end of the push rod is mounted on the insulating part; a moving contact, mounted on one side that is of the insulating part and that is back to the push rod; and an elastic part, clamped between the insulating part and the moving contact, so that the moving contact is in contact with or separated from the two fixed contacts under the action of the push rod, wherein a plurality of spaced protrusions are disposed on an outer wall that is of the insulating part and that is located between the moving contact and the push rod, and characterized in that: the insulating part comprises a base part, and the moving contact and the push rod are respectively mounted on two opposite sides of the base part; a peripheral edge of the base part protrudes in a direction moving close to the moving contact to form a cylindrical housing surrounding the elastic part; and the plurality of spaced protrusions are disposed around an outer surface of the cylindrical housing. an insulating part, made of plastic; a push rod, wherein one end of the push rod is mounted on a driving apparatus, and the other end of the push rod is mounted on the insulating part; a moving contact, mounted on one side that is of the insulating part and that is back to the push rod; and an elastic part, clamped between the insulating part and the moving contact, so that the moving contact is in contact with or separated from the two fixed contacts under the action of the push rod, wherein a plurality of spaced protrusions are disposed on an outer wall that is of the insulating part and that is located between the moving contact and the push rod, and characterized in that: the insulating part comprises a base part, and the moving contact and the push rod are respectively mounted on two opposite sides of the base part; a peripheral edge of the base part protrudes in a direction moving close to the moving contact to form a cylindrical housing surrounding the elastic part; and the plurality of spaced protrusions are disposed around an outer surface of the cylindrical housing.
A system for monitoring a track for traction of a vehicle on a ground, the track being mounted around a plurality of wheels (40, 50 1 -50 8), the track comprising a ground-engaging outer surface configured to engage the ground and an inner surface opposite to the ground-engaging outer surface, the track including elastomeric material to flex around the wheels, the system comprising: an interface (505, 1148, 1520) configured to receive data regarding at least one image of the track; and a processor (507, 1142, 1540) configured to: perform a two-dimensional image analysis based on the data regarding the at least one image of the track to obtain a result of the 2D image analysis, wherein the result of the 2D image analysis is an indication of a defect of the track that comprises a crack in the track; create a three-dimensional model of the track based on the data regarding the at least one image of the track; and generate information on a state of the track based on at least one of the result of the 2D image analysis and the 3D model of the track. an interface (505, 1148, 1520) configured to receive data regarding at least one image of the track; and a processor (507, 1142, 1540) configured to: perform a two-dimensional image analysis based on the data regarding the at least one image of the track to obtain a result of the 2D image analysis, wherein the result of the 2D image analysis is an indication of a defect of the track that comprises a crack in the track; create a three-dimensional model of the track based on the data regarding the at least one image of the track; and generate information on a state of the track based on at least one of the result of the 2D image analysis and the 3D model of the track. perform a two-dimensional image analysis based on the data regarding the at least one image of the track to obtain a result of the 2D image analysis, wherein the result of the 2D image analysis is an indication of a defect of the track that comprises a crack in the track; create a three-dimensional model of the track based on the data regarding the at least one image of the track; and generate information on a state of the track based on at least one of the result of the 2D image analysis and the 3D model of the track.
A multiplex communication system comprising: a processing circuit configured to process control data in an industrial network; a multiplex processing section configured to multiplex the control data input from the processing circuit in accordance with a first industrial network standard with other data received in accordance with a second industrial network standard different from the first industrial network standard, and to collectively transmit the generated multiplexed data to other processing circuits (23, 33) in accordance with a third industrial network standard through one transmission line; and a pseudo signal transmission section, which is connected between the processing circuit and the multiplex processing section, wherein the pseudo signal transmission section is configured to transmit the control data between the multiplex processing section and the processing circuit, by generating, in a pseudo manner, a signal compliant with the first industrial network standard, transmitting the generated signal to the processing circuit, and establishing communication with the processing circuit. a processing circuit configured to process control data in an industrial network; a multiplex processing section configured to multiplex the control data input from the processing circuit in accordance with a first industrial network standard with other data received in accordance with a second industrial network standard different from the first industrial network standard, and to collectively transmit the generated multiplexed data to other processing circuits (23, 33) in accordance with a third industrial network standard through one transmission line; and a pseudo signal transmission section, which is connected between the processing circuit and the multiplex processing section, wherein the pseudo signal transmission section is configured to transmit the control data between the multiplex processing section and the processing circuit, by generating, in a pseudo manner, a signal compliant with the first industrial network standard, transmitting the generated signal to the processing circuit, and establishing communication with the processing circuit.
A method of manufacturing an antifouling coating comprising the steps of: providing an antioxidant which is stable in a coating, including the antioxidant in the coating in an amount sufficient to suppress oxidative or free radical-induced marine adhesion; wherein the concentration of the antioxidant present in the coating is within the range of 2% (w/w) to 25% (w/w); and the antioxidant is selected from the group consisting of 6-ethoxy-1,2-dihydro-2,2,4-trimethylquinoline, 2-tertbutyl-4-methoxyphenol and 3-tertbutyl-4-methoxyphenol, 2,3-di-tert-butylphenol, anisole, 1,2-dithioethane, pyruvic acid, and thioanisole. providing an antioxidant which is stable in a coating, including the antioxidant in the coating in an amount sufficient to suppress oxidative or free radical-induced marine adhesion; wherein the concentration of the antioxidant present in the coating is within the range of 2% (w/w) to 25% (w/w); and the antioxidant is selected from the group consisting of 6-ethoxy-1,2-dihydro-2,2,4-trimethylquinoline, 2-tertbutyl-4-methoxyphenol and 3-tertbutyl-4-methoxyphenol, 2,3-di-tert-butylphenol, anisole, 1,2-dithioethane, pyruvic acid, and thioanisole.
A computer implemented method to consume a cloud resource of a cloud platform, the method comprising: implementing an extension of an on-premise platform to provide a cloud application runtime (132, 136) at the on-premise platform, wherein the cloud application runtime (132, 136) is a local version of an application runtime installed on the cloud platform; deploying an application (A, Z) to the cloud application runtime (132, 136); at a connectivity agent running in the cloud platform, receiving a request from the application (A, Z) deployed to the local version of the application runtime to consume the cloud resource, wherein the request is forwarded from the on-premise platform to the connectivity agent via a secure tunnel, and forwarding a response from the cloud resource to the requesting application (A, Z), the response forwarded by the connectivity agent via the secure tunnel. implementing an extension of an on-premise platform to provide a cloud application runtime (132, 136) at the on-premise platform, wherein the cloud application runtime (132, 136) is a local version of an application runtime installed on the cloud platform; deploying an application (A, Z) to the cloud application runtime (132, 136); at a connectivity agent running in the cloud platform, receiving a request from the application (A, Z) deployed to the local version of the application runtime to consume the cloud resource, wherein the request is forwarded from the on-premise platform to the connectivity agent via a secure tunnel, and forwarding a response from the cloud resource to the requesting application (A, Z), the response forwarded by the connectivity agent via the secure tunnel.
A traffic control method, comprising: receiving, by a slave device, a notification message sent by a master device; parsing, by the slave device, the notification message; determining, by the slave device, that a type of a network used by the master device is a cellular network type when the notification message carries a first identifier, displaying, by the slave device, a Service Set Identifier, SSID, of a wireless local area network provided by the master device carried in the notification message and a type of a network used by the master device which is a cellular network type; establishing, by the slave device, a connection with the master device after a user selects the SSID; and after the slave device and the master device establish the connection, restricting, by the slave device, use of network traffic on the slave device when the type of the network used by the master device is a cellular network type; wherein the slave device accesses the Internet by using the master device as an access point. receiving, by a slave device, a notification message sent by a master device; parsing, by the slave device, the notification message; determining, by the slave device, that a type of a network used by the master device is a cellular network type when the notification message carries a first identifier, displaying, by the slave device, a Service Set Identifier, SSID, of a wireless local area network provided by the master device carried in the notification message and a type of a network used by the master device which is a cellular network type; establishing, by the slave device, a connection with the master device after a user selects the SSID; and after the slave device and the master device establish the connection, restricting, by the slave device, use of network traffic on the slave device when the type of the network used by the master device is a cellular network type; wherein the slave device accesses the Internet by using the master device as an access point.