mhurhangee/ep-ind-claims huggingface dataset:
Variable valve drive, in particular with a sliding cam system, for an internal combustion engine, having: a shaft; a cam carrier which is arranged rotationally conjointly and axially displaceably on the shaft and which has a first cam and a second cam; a force transmission device with a lever axle and with a force transmission element, in particular a valve lever or a rocker lever, which is pivotable about the lever axle and which, in a manner dependent on an axial position of the cam carrier, selectively produces an operative connection between the first cam and a gas exchange valve (18, 20) of the internal combustion engine or between the second cam and the gas exchange valve (18, 20); an actuator device (24, 26) for axially displacing the cam carrier; and a carrying device which at least partially engages around the lever axle and carries the actuator device (24, 26), characterized in that the carrying device engages in multi-part form around the lever axle; and/or the carrying device has a first carrying element and a second carrying element which are fastened to one another and which each have a receiving shell (52, 54), in particular a receiving half-shell, for forming a receptacle for the lever axle. a shaft; a cam carrier which is arranged rotationally conjointly and axially displaceably on the shaft and which has a first cam and a second cam; a force transmission device with a lever axle and with a force transmission element, in particular a valve lever or a rocker lever, which is pivotable about the lever axle and which, in a manner dependent on an axial position of the cam carrier, selectively produces an operative connection between the first cam and a gas exchange valve (18, 20) of the internal combustion engine or between the second cam and the gas exchange valve (18, 20); an actuator device (24, 26) for axially displacing the cam carrier; and a carrying device which at least partially engages around the lever axle and carries the actuator device (24, 26), characterized in that the carrying device engages in multi-part form around the lever axle; and/or the carrying device has a first carrying element and a second carrying element which are fastened to one another and which each have a receiving shell (52, 54), in particular a receiving half-shell, for forming a receptacle for the lever axle.
A refrigerator, comprising: an insulated cabinet configured to preserve food; an insulated door mounted on the insulated cabinet, the insulated door being configured to close the insulated cabinet, the insulated door comprising an inner wall, the inner wall comprising one or more recesses; and an article dispenser for mounting within the one or more recesses of the inner wall of the refrigerator door, the dispenser comprising: a dispensing portion configured to store one or more articles and dispense the articles according to a user's demand, the dispensing portion comprises a bottom wall, a step, and an article dispensing area, the step being elevated from the bottom wall and provided in a rear portion of the dispensing portion, the step preventing articles falling from an upper portion of the dispensing portion into an article holding area to enable retrieval by the user; and a mounting portion on a back side of the dispensing portion, the mounting portion removably mounting the dispensing portion within the recesses, and wherein the mounting portion comprises mounting members (920, 921, 922) extending from the mounting portion that correspond with locations of the recesses characterized in that the mounting members (920, 921, 922) are resting on horizontal rails defining an opening of the recesses and extending from the horizontal rails into the recesses, and comprise curved fasteners such that the article dispenser can be horizontally slidably and removably mounted on the inner wall of the refrigerator door.
An apparatus for slicing food products, in particular sausage, meat or cheese, comprising a product support for at least one product; a cutting blade which is arranged downstream of the product support and to which the product can be supplied along a conveying direction; at least one product holder movable along the conveying direction and cooperating with the product at least at times during the slicing procedure; and a control unit, characterized in that the control unit is connected to a detection device for detecting the product contour and is configured, in dependence on the detected product contour, to control the product holder such that the spacing between the product holder and the product support is adjustable during the slicing procedure such that the product holder holds the product in contact with the product support during the slicing procedure.
An orthopaedic Implant system, comprising: an orthopaedic implant implantable at a selected location within a corporeal body and configured for delivering at least one therapeutic agent to said corporeal body, said Implant defining a reservoir and a plurality of channels, said reservoir configured for receiving said at least one therapeutic agent, said plurality of channels configured for conveying said at least one therapeutic agent from said reservoir to a treatment site relative to said corporeal body, said Implant being an Internal fixation device wherein said orthopaedic Implant system further includes a second reservoir Implantable at said selected location within said corporeal body and Including a plurality of delivery holes configured for delivering said at least one therapeutic agent to said corporeal body, said internal fixation device Including an exterior surface, said second reservoir being attached to said Internal fixation device, said Internal fixation device including an Ingress channel configured for conveying said at least one therapeutic agent from said second reservoir to said reservoir of said Internal fixation device, said plurality of channels fluidly communicating said reservoir of said internal fixation device with said exterior surface and thereby being configured for conveying said at least one therapeutic agent from said reservoir of said internal fixation device to said exterior surface, characterized by said second reservoir at least partially surrounding said internal fixation device. an orthopaedic implant implantable at a selected location within a corporeal body and configured for delivering at least one therapeutic agent to said corporeal body, said Implant defining a reservoir and a plurality of channels, said reservoir configured for receiving said at least one therapeutic agent, said plurality of channels configured for conveying said at least one therapeutic agent from said reservoir to a treatment site relative to said corporeal body, said Implant being an Internal fixation device wherein said orthopaedic Implant system further includes a second reservoir Implantable at said selected location within said corporeal body and Including a plurality of delivery holes configured for delivering said at least one therapeutic agent to said corporeal body, said internal fixation device Including an exterior surface, said second reservoir being attached to said Internal fixation device, said Internal fixation device including an Ingress channel configured for conveying said at least one therapeutic agent from said second reservoir to said reservoir of said Internal fixation device, said plurality of channels fluidly communicating said reservoir of said internal fixation device with said exterior surface and thereby being configured for conveying said at least one therapeutic agent from said reservoir of said internal fixation device to said exterior surface, characterized by said second reservoir at least partially surrounding said internal fixation device.
Method of making an interconnector assembly for electrically interconnecting solar cells, wherein the method comprises: - feeding a plurality of electrical conductors that form an conductor array defining interspaces that are free from conductors, and - applying at least one sheet (6, 7), preferably made of electrically insulating material, to a side of the conductor array, wherein the sheet (6, 7) has at least one contact zone coming into contact with the conductors and intermediate portions overlapping with the interspaces of the conductor array, wherein the step of applying the at least one sheet (6, 7) to a side of the conductor array comprises: before the conductors come into in contact with the sheet (6, 7) and/or when the conductors are in contact with the sheet (6, 7): increasing the temperature in the at least one contact zone of the sheet (6, 7) to a first temperature, wherein the first temperature is above the temperature at which the material forming that contact zone becomes sticky, such that the conductors are bonded to the sheet (6, 7) by the material of the contact zone, characterized in that the intermediate portions of the sheet (6, 7) at least partially are kept at a second temperature, wherein the second temperature is below the temperature at which the material forming the intermediate portions becomes sticky, wherein the step of applying the at least one sheet (6, 7) to a side of the conductor array comprises: guiding the conductor array and the at least one sheet (6, 7) in an overlapping manner by means of a supporting surface of a heating means in a transporting direction, wherein the heating means has a structure of at least one first portion and at least one second portion, preferably a plurality of first and second portions (12, 13), wherein the first portion(s) and the second portion(s) alternate with each other in a direction that is parallel to the supporting surface of the heating means and perpendicular to the transporting direction of the conductor array and/or the sheet (6, 7) and wherein the first portion(s) has/have a higher heat-conducting rate and/or a higher heat-generating rate than the second portion(s). - feeding a plurality of electrical conductors that form an conductor array defining interspaces that are free from conductors, and - applying at least one sheet (6, 7), preferably made of electrically insulating material, to a side of the conductor array, wherein the sheet (6, 7) has at least one contact zone coming into contact with the conductors and intermediate portions overlapping with the interspaces of the conductor array,
A computer-implemented method, for predicting a potential error condition in an application program executing in a virtual application environment, wherein the application program accesses local and remote resources through resource application programming interfaces, the method comprising executing instructions on one or more computers to perform the operations of: logging resource access events initiated by the application program executing in the virtual application environment, wherein each of the resource access events includes a timestamp indicating when the resource access occurred; establishing resource access patterns from the logged resource access events, wherein resource access patterns are established from the resource access events collected over a period of time; detecting a deviation from the established resource access patterns by the application program; and alerting a user or administrator of the application program of a potential error condition based upon the detected deviation. logging resource access events initiated by the application program executing in the virtual application environment, wherein each of the resource access events includes a timestamp indicating when the resource access occurred; establishing resource access patterns from the logged resource access events, wherein resource access patterns are established from the resource access events collected over a period of time; detecting a deviation from the established resource access patterns by the application program; and alerting a user or administrator of the application program of a potential error condition based upon the detected deviation.
A method of detecting a magnitude of a load applied to a hoisting motor in a material handling system using a motor drive controlling the hoisting motor, the method comprising the steps of: reading a first parameter and a second parameter stored in the motor drive, wherein the first parameter defines an expected level of torque produced by the hoisting motor at a first speed with no load, the second parameter defines an expected level of torque produced by the hoisting motor at a second speed with no load, and the second speed is greater than the first speed; reading a third parameter and a fourth parameter stored in the motor drive, wherein the third parameter defines an expected level of torque produced by the hoisting motor at the first speed with a rated load and the fourth parameter defines an expected level of torque produced by the hoisting motor at the second speed with the rated load; measuring a speed of rotation of the hoisting motor; determining an expected level of torque produced by the hoisting motor at the measured speed with no load as a function of the first and second parameters; determining an expected level of torque produced by the hoisting motor at the measured speed with rated load as a function of the third and fourth parameters; determining a magnitude of torque generated by the hoisting motor at the measured speed; and determining the magnitude of the load applied to the hoisting motor at the measured speed and measured torque as a function of the expected level of torque produced by the hoisting motor at the measured speed with no load and the expected level of torque produced by the hoisting motor at the measured speed with rated load. reading a first parameter and a second parameter stored in the motor drive, wherein the first parameter defines an expected level of torque produced by the hoisting motor at a first speed with no load, the second parameter defines an expected level of torque produced by the hoisting motor at a second speed with no load, and the second speed is greater than the first speed; reading a third parameter and a fourth parameter stored in the motor drive, wherein the third parameter defines an expected level of torque produced by the hoisting motor at the first speed with a rated load and the fourth parameter defines an expected level of torque produced by the hoisting motor at the second speed with the rated load; measuring a speed of rotation of the hoisting motor; determining an expected level of torque produced by the hoisting motor at the measured speed with no load as a function of the first and second parameters; determining an expected level of torque produced by the hoisting motor at the measured speed with rated load as a function of the third and fourth parameters; determining a magnitude of torque generated by the hoisting motor at the measured speed; and determining the magnitude of the load applied to the hoisting motor at the measured speed and measured torque as a function of the expected level of torque produced by the hoisting motor at the measured speed with no load and the expected level of torque produced by the hoisting motor at the measured speed with rated load.
Method for producing a component, specifically a housing of a gas turbine, comprising the steps of: a. providing a rotationally symmetrical forged blank, b. depositing additional material made from at least one material on the surface of the blank (18, 20) at at least one point, c. removing material until the final contour of the finished component, characterized in that, in step b.), - deposition is carried out by laser deposition welding using wire, and - the material is deposited in such a way that a functional element of the component is created, in particular reinforcements for a borescope. a. providing a rotationally symmetrical forged blank, b. depositing additional material made from at least one material on the surface of the blank (18, 20) at at least one point, c. removing material until the final contour of the finished component, - deposition is carried out by laser deposition welding using wire, and - the material is deposited in such a way that a functional element of the component is created, in particular reinforcements for a borescope.
A pipe fitting for forming a cold expansion pipe connection, comprising a tubular connecting part extending substantially in an axial direction D A and a shoulder extending radially outwards from one end of the tubular connecting part; the tubular connecting part being configured to be inserted into a pipe end section of a pipe expanded by an expanding tool head comprising a plurality of radially movable outer spreading surfaces, the outer spreading surfaces comprising a first circumferential groove crossing each of the outer spreading surfaces and leaving, during expansion of a pipe end section, a first circumferential intact sealing region on the inner surface of the pipe end section at a first distance (D 1) from the end of the pipe; the tubular connecting part comprising a first radially outwards extending circumferential sealing barb positioned for engaging, when in use, with the first circumferential intact sealing region during shrinkage of the pipe end section for forming a sealing between the pipe fitting and the pipe, wherein the sealing barb has a wedge-shape longitudinal section in the axial direction with a first facet with a first slope on the side of the free end of the tubular connecting part, and a second facet (107") with a second slope steeper than the first slope on the side of the shoulder, the first and the second facet being connected via a tip, characterized in that the tip has a radius of curvature r in the range of 0,127 to 5,08 mm (0.005 to 0.020 inches), and wherein the tubular connecting part has a wall thickness (t W) which is substantially constant outside the sealing barb.
A high viscosity jetting method wherein a liquid is jetted by a valvejet printhead through a nozzle; and wherein a section of a nozzle (N s) has a shape comprising an outer edge (O E) with a minimum covering circle; and wherein the maximum distance from the outer edge (O E) to the centre (c) of the minimum covering circle is greater or equal than the minimum distance (d) from the outer edge (O E) to the centre (c) of the minimum covering circle times 1.2; and wherein the jetting viscosity of the liquid is from 20 mPa.s to 3000 mPa.s.
A method for wireless communication by a user equipment, UE, comprising: determining whether to use a first timing configuration or a second timing configuration for communication in an unlicensed radio frequency spectrum band, the first timing configuration having a first time difference between a downlink communication and a responsive uplink communication, and the second timing configuration having a second time difference between the downlink communication and the responsive uplink communication, the second time difference being less than the first time difference; receiving a control message from a base station during a transmission opportunity, TxOp, of the unlicensed radio frequency spectrum band; and transmitting an uplink message during the TxOp in response to the control message based at least in part on the first timing configuration or the second timing configuration, wherein the uplink message comprises a channel state information, CSI, report that is based at least in part on the first timing configuration or the second timing configuration. determining whether to use a first timing configuration or a second timing configuration for communication in an unlicensed radio frequency spectrum band, the first timing configuration having a first time difference between a downlink communication and a responsive uplink communication, and the second timing configuration having a second time difference between the downlink communication and the responsive uplink communication, the second time difference being less than the first time difference; receiving a control message from a base station during a transmission opportunity, TxOp, of the unlicensed radio frequency spectrum band; and transmitting an uplink message during the TxOp in response to the control message based at least in part on the first timing configuration or the second timing configuration, wherein the uplink message comprises a channel state information, CSI, report that is based at least in part on the first timing configuration or the second timing configuration.
A thrust reverser for an aircraft propulsion unit, this reverser comprising: - a movable external structure having a central longitudinal axis, this external structure being movable between a closed position, wherein said external structure is capable of guiding a flow of fluid in the propulsion unit so as to generate a thrust, and an open position wherein the movable external structure releases a radial opening capable of evacuating a portion of said flow of fluid from the propulsion unit so as to generate a counter-thrust, - an actuator, such as a cylinder, configured to move the movable external structure between the closed and open positions, - two primary latches configured to latch the movable external structure in the closed position, this reverser being configured to direct the thrust-generating flow of fluid in an oblique direction with respect to the central longitudinal axis, towards a first side of a first median longitudinal plane passing through the central longitudinal axis, this reverser being characterised in that the movable external structure is annular, in that the primary latches are both located on said first side of this first median longitudinal plane, and in that the actuator is located on the other side of the first median longitudinal plane, one of these primary latches being located on one side of a second median longitudinal plane perpendicular to the first median longitudinal plane, the other primary latch being located on the other side of this second median longitudinal plane. - a movable external structure having a central longitudinal axis, this external structure being movable between a closed position, wherein said external structure is capable of guiding a flow of fluid in the propulsion unit so as to generate a thrust, and an open position wherein the movable external structure releases a radial opening capable of evacuating a portion of said flow of fluid from the propulsion unit so as to generate a counter-thrust, - an actuator, such as a cylinder, configured to move the movable external structure between the closed and open positions, - two primary latches configured to latch the movable external structure in the closed position, this reverser being configured to direct the thrust-generating flow of fluid in an oblique direction with respect to the central longitudinal axis, towards a first side of a first median longitudinal plane passing through the central longitudinal axis, this reverser being characterised in that the movable external structure is annular, in that the primary latches are both located on said first side of this first median longitudinal plane, and in that the actuator is located on the other side of the first median longitudinal plane, one of these primary latches being located on one side of a second median longitudinal plane perpendicular to the first median longitudinal plane, the other primary latch being located on the other side of this second median longitudinal plane.