mhurhangee/patent-ind-claim-en huggingface dataset:
A method of generating a three-dimensional model, comprising: entering, by a computer, measurement data for a plurality of surface elements, the measurement data including measurement point group data obtained from measurement of a measured object, a type of surface element, and a geometry value of a surface element; for at least one of the plurality of surface elements, calculating, by the computer, a measurement data error based on the surface element specified by the measurement data, wherein the calculated measurement data error is based on one or both of an existing width of the measurement point group data in the surface element specified by the measurement data, and an angle error of one of a surface and an axis of the surface element specified by the measurement data relative to one of a reference surface and a reference axis; determining, by the computer, whether the calculated error is within a predetermined tolerance; correcting, by the computer, the surface element by the error when the error is within the tolerance; and obtaining intersection data of the plurality of surface elements and outline data of each surface element from the corrected surface elements to generate a 3D model by the computer. entering, by a computer, measurement data for a plurality of surface elements, the measurement data including measurement point group data obtained from measurement of a measured object, a type of surface element, and a geometry value of a surface element; for at least one of the plurality of surface elements, calculating, by the computer, a measurement data error based on the surface element specified by the measurement data, wherein the calculated measurement data error is based on one or both of an existing width of the measurement point group data in the surface element specified by the measurement data, and an angle error of one of a surface and an axis of the surface element specified by the measurement data relative to one of a reference surface and a reference axis; determining, by the computer, whether the calculated error is within a predetermined tolerance; correcting, by the computer, the surface element by the error when the error is within the tolerance; and obtaining intersection data of the plurality of surface elements and outline data of each surface element from the corrected surface elements to generate a 3D model by the computer.
Needle-removing tool for needles on needle boards , in particular of needling machines, characterized in that the needle-removing tool has a hollow mechanical expulsion means for intact and defective needles that is rotationally and linearly movable and at the same time motor-driven.
An electrode structure comprising: a carbon block having pores; and a flow frame having the carbon block accommodated on one surface or both surfaces, and having a flow path capable of supplying and discharging an electrolyte liquid to the carbon block , a member sealing so as to prevent leakage of the electrolyte liquid, and a current collecting structure formed therein, wherein the carbon block has porosity of greater than or equal to 5% and less than or equal to 70%, and the carbon block has compressive strength of 20 MPa or greater measured using a test analysis method specified in the KS L 1601:2006; the carbon block having been prepared to be porous i) by filling a block-type mold with a composition comprising a spherical phenol resin and a binder, compressing and then carbonizing the result, OR ii) by preparing a spherical phenol resin, filling a block-type mold with a composition comprising the spherical phenol resin and liquid polyphenol, compressing the result, and then going through drying/degreasing/sintering/high purification processes, wherein the carbon block has sintered density of 0.6 g/cm 3 or greater. a carbon block having pores; and a flow frame having the carbon block accommodated on one surface or both surfaces, and having a flow path capable of supplying and discharging an electrolyte liquid to the carbon block , a member sealing so as to prevent leakage of the electrolyte liquid, and a current collecting structure formed therein, wherein the carbon block has porosity of greater than or equal to 5% and less than or equal to 70%, and the carbon block has compressive strength of 20 MPa or greater measured using a test analysis method specified in the KS L 1601:2006; the carbon block having been prepared to be porous i) by filling a block-type mold with a composition comprising a spherical phenol resin and a binder, compressing and then carbonizing the result, OR ii) by preparing a spherical phenol resin, filling a block-type mold with a composition comprising the spherical phenol resin and liquid polyphenol, compressing the result, and then going through drying/degreasing/sintering/high purification processes, i) by filling a block-type mold with a composition comprising a spherical phenol resin and a binder, compressing and then carbonizing the result, OR ii) by preparing a spherical phenol resin, filling a block-type mold with a composition comprising the spherical phenol resin and liquid polyphenol, compressing the result, and then going through drying/degreasing/sintering/high purification processes, wherein the carbon block has sintered density of 0.6 g/cm 3 or greater.
A fluid diversion device for controlling fluid flow in a delivery system to deploy a prosthetic heart valve device , the fluid diversion device comprising: a housing including a first side , a second side , a bore, and a plurality of channels traversing the housing from the first side through the bore to the second side , wherein the plurality of channels are configured to receive a corresponding plurality of tubes that extend from the first side through the bore to the second side of the housing , and wherein the bore extends laterally across the plurality of channels ; an occlusion member disposed in the bore, wherein rotation of the occlusion member enables selective occlusion of either a first subset of tubes or a second subset of tubes disposed in the plurality of channels ; and an actuator operably coupled to the occlusion member to enable selective positioning of the occlusion member in at least a first position that occludes the first subset of tubes and a second position that occludes the second subset of tubes for fluid communication in different directions relative to a first chamber and a second chamber of a delivery device to cause deployment and recapture of the prosthetic heart valve device . a housing including a first side , a second side , a bore, and a plurality of channels traversing the housing from the first side through the bore to the second side , wherein the plurality of channels are configured to receive a corresponding plurality of tubes that extend from the first side through the bore to the second side of the housing , and wherein the bore extends laterally across the plurality of channels ; an occlusion member disposed in the bore, wherein rotation of the occlusion member enables selective occlusion of either a first subset of tubes or a second subset of tubes disposed in the plurality of channels ; and an actuator operably coupled to the occlusion member to enable selective positioning of the occlusion member in at least a first position that occludes the first subset of tubes and a second position that occludes the second subset of tubes for fluid communication in different directions relative to a first chamber and a second chamber of a delivery device to cause deployment and recapture of the prosthetic heart valve device .
Method of separating a solid-state layer from a solid-state body , in which modifications define a detachment plane for guiding of a crack for removal of a solid-state component , especially a solid-state layer, from the solid-state body , wherein the method comprises: moving the solid-state body relative to a laser treatment device ; successively generating laser beams by means of the laser treatment device for generating at least one modification in each case, wherein the laser beams penetrate into the solid-state body over a surface of the solid-state layer to be removed; and removing the solid-state layer from the solid-state body along the detachment plane, wherein the laser beams penetrate into the solid-state body over a surface of the solid-state layer to be removed, characterized in that the laser treatment device is adjusted for defined generation of modifications depending on at least one parameter, especially the transmittance of the solid-state body, at defined sites and for a defined solid-state body depth, in that the adjustment of the laser treatment device compensates for inhomogeneities in the solid-state body in the region of the surface treated and/or in the region of the volume of the solid-state body treated and in that data for the parameter or for multiple parameters are either provided in a data storage device and sent to a control device at least before the generation of the modifications , wherein the control device adjusts the laser treatment device depending on the respective site of the modification to be generated, or are generated in real time and are used directly for actuation of the laser treatment device . moving the solid-state body relative to a laser treatment device ; successively generating laser beams by means of the laser treatment device for generating at least one modification in each case, wherein the laser beams penetrate into the solid-state body over a surface of the solid-state layer to be removed; and removing the solid-state layer from the solid-state body along the detachment plane, wherein the laser beams penetrate into the solid-state body over a surface of the solid-state layer to be removed, characterized in that the laser treatment device is adjusted for defined generation of modifications depending on at least one parameter, especially the transmittance of the solid-state body, at defined sites and for a defined solid-state body depth, in that the adjustment of the laser treatment device compensates for inhomogeneities in the solid-state body in the region of the surface treated and/or in the region of the volume of the solid-state body treated and in that data for the parameter or for multiple parameters are either provided in a data storage device and sent to a control device at least before the generation of the modifications , wherein the control device adjusts the laser treatment device depending on the respective site of the modification to be generated, or are generated in real time and are used directly for actuation of the laser treatment device .
An electrical connection block for electric cables (C2, C4, C6), the block comprising an electrically insulating case and at least one lever articulated on the case around a pivot axis (X12) and comprising an elongated lever arm that extends along a longitudinal axis (A12), between the pivot axis and a free end of the lever arm, a side face of the block being provided with at least one insertion hole for a stripped electric cable end (E2) along a cable insertion axis (Y10), the hole emerging in an inner volume (V22) of the case, the pivoting of the lever making it possible to take it from a first position, called open position, in which the lever allows the insertion of a stripped end (E2) of an electric cable (C2) through the insertion hole of the side face into the inner volume (V22), toward a second position, called closed position, in which the lever prevents the stripped end of the previously inserted electric cable from being removed from the inner volume (V22) of the case , the lever further comprising a gripping zone positioned at the free end of the lever arm , characterized in that the gripping zone is intended to be manipulated to move the lever from its first position, called open position, to its second position, called closed position, and vice-versa and in that , when the lever is in its second position, called closed position, the gripping zone is laterally offset parallel to the pivot axis (X12), with respect to an axis (Y22) radial to the pivot axis that passes through a point of intersection (P12) between the pivot axis (X12) and the longitudinal axis of the arm (A12).
Bucket with a dehumidifying insert for squeezing out a wiping head or a wiping panel of a wiping device, the bucket having a bucket wall, an upper bucket rim and an upper opening enclosed by the upper bucket rim , and the dehumidifying insert , which is fastened to the bucket , having an an insertion area open at the top for inserting the wiping head or the wiping panel into a dehumidifying receptacle formed by a rotatable or drivable screen, a fixed screen or a press, the dehumidifying insert being embodied and arranged in such a way that the dehumidification receptacle is arranged in respective distances from two opposite, straight or curved sections of the bucket rim and a free entry area is provided at least between the dehumidifying receptacle and the respective section of the bucket rim , through which the wiping head or the wiping panel of the wiping device can be inserted into the bucket past the dehumidifying insert, and the dehumidifying insert having a first holding flange which can be placed on the bucket rim and which embraces the bucket rim and is detachably held on the bucket and, arranged opposite the first holding flange , has a second holding flange which embraces the bucket rim and is detachably held on the bucket , characterized in, that the bucket has a hinged handle supported on the bucket wall or the bucket rim , wherein the holding flanges have mating portions for a pivot axis of the handle and project between the bucket rim and the lower, hinged ends of the handle so that the pivot axis of the handle is arranged in the mating portions, wherein the bucket wall or the bucket rim have at least one abutment edge which cooperates with at least one abutment edge of the handle in such a way that, when the handle supported on the bucket rim is raised in a vertical direction, the dehumidifying insert is removable and, when the handle is laid down on the bucket rim , is fixed.
A tissue closure device comprising: an elongate body; and a snare loop assembly , wherein the snare loop assembly comprises a snare , a suture loop , a retention member and a force-reducing suture lock which resists movement of the suture loop by compression of the suture loop , each of the retention member and the force-reducing suture lock releasably coupling the snare to the suture loop . an elongate body; and a snare loop assembly , wherein the snare loop assembly comprises a snare , a suture loop , a retention member and a force-reducing suture lock which resists movement of the suture loop by compression of the suture loop , each of the retention member and the force-reducing suture lock releasably coupling the snare to the suture loop .
Dryer for supplying gas to a moving printing web in a rotary printing machine, having a nozzle body , wherein the nozzle body has a plurality of openings for the exit of heated gas, said openings extending only over part of a width of the printing web and projecting from a nozzle base body of the nozzle body and being formed as nozzles, and the dryer has a plurality of openings for drawing in the cooled gas which are arranged at least partially between the openings for the exit of heated gas, wherein the nozzle body has a cavity through which the heated gas is supplied to the printing web and the openings for drawing in the cooled gas are provided outside the cavity , characterised in that on the nozzle base body a grid plate is arranged in which the openings for drawing in the cooled gas are provided.
An emergency lighting system comprising an emergency luminaire and a power supply device for a supply of electrical power to the emergency luminaire ; wherein the power supply device comprises electrical coupling means and an electrical energy storage ; and the power supply device is configured to supply electrical power from the electrical energy storage of the power supply device to the emergency luminaire , characterized in that the electrical coupling means of the power supply device is configured to wirelessly transfer the power; the emergency luminaire comprises electrical coupling means for wireless power transfer and a light source configured to be electrically supplied from the electrical coupling means of the emergency luminaire ; the power supply device is configured to wirelessly supply the electrical power via a wireless transfer of the electrical power from the electrical coupling means of the power supply device to the electrical coupling means of the emergency luminaire ; the emergency luminaire is configured to be wirelessly supplied with electrical power from the electrical energy storage of the power supply device via said wireless transfer of the electrical power to the electrical coupling means of the emergency luminaire from electrical coupling means of the power supply device ; and all electrical components for electrically supplying the emergency luminaire , including the electrical energy storage , are removed from the emergency luminaire and comprised by the power supply device . an emergency luminaire and a power supply device for a supply of electrical power to the emergency luminaire ; wherein the power supply device comprises electrical coupling means and an electrical energy storage ; and the power supply device is configured to supply electrical power from the electrical energy storage of the power supply device to the emergency luminaire , characterized in that the electrical coupling means of the power supply device is configured to wirelessly transfer the power; the emergency luminaire comprises electrical coupling means for wireless power transfer and a light source configured to be electrically supplied from the electrical coupling means of the emergency luminaire ; the power supply device is configured to wirelessly supply the electrical power via a wireless transfer of the electrical power from the electrical coupling means of the power supply device to the electrical coupling means of the emergency luminaire ; the emergency luminaire is configured to be wirelessly supplied with electrical power from the electrical energy storage of the power supply device via said wireless transfer of the electrical power to the electrical coupling means of the emergency luminaire from electrical coupling means of the power supply device ; and all electrical components for electrically supplying the emergency luminaire , including the electrical energy storage , are removed from the emergency luminaire and comprised by the power supply device .
A computer storage medium storing computer-useable instructions that, when used by one or more computing devices, cause the one or more computing devices to perform operations comprising: loading an anti-cheat kernel driver into a memory of a gaming device during a booting process of the gaming device; validating , via the loaded anti-cheat kernel driver, a system state of the gaming device prior to completion of the booting process; determining , via the loaded anti-cheat kernel driver, that the system state is compromised after the booting process is completed, wherein the compromised system state is monitored by the loaded anti-cheat kernel driver; and responsive to a game application associated with the anti-cheat kernel driver being launched, blocking access to a gaming server associated with the game application based on the determined compromised system state. loading an anti-cheat kernel driver into a memory of a gaming device during a booting process of the gaming device; validating , via the loaded anti-cheat kernel driver, a system state of the gaming device prior to completion of the booting process; determining , via the loaded anti-cheat kernel driver, that the system state is compromised after the booting process is completed, wherein the compromised system state is monitored by the loaded anti-cheat kernel driver; and responsive to a game application associated with the anti-cheat kernel driver being launched, blocking access to a gaming server associated with the game application based on the determined compromised system state.
A system for providing distributed protection for electrical systems in a vehicle , the system comprising: a plurality of modular equipment centers (MECs) spatially distributed throughout the vehicle ; and a plurality of power controllers to implement protective functions by monitoring and controlling electrical systems within the vehicle , the plurality of power controllers comprising: one or more of the power controllers within each of the plurality of MECs configured to perform low power level protections which implement localized protective functions and perform independent fault assessments, and one or more other power controllers within the vehicle configured to perform high power level protections which perform coordinated fault assessments across each of the plurality of MECs, wherein the plurality of power controllers are configured to concurrently implement the protective functions; wherein each of the plurality of MECs includes at least one of the power controllers configured for performing high power level protections where primary power is received at each of the plurality of MECs and at least one power controller configured for performing low power level protections where secondary power is distributed from each of the plurality of MECs . a plurality of modular equipment centers (MECs) spatially distributed throughout the vehicle ; and a plurality of power controllers to implement protective functions by monitoring and controlling electrical systems within the vehicle , the plurality of power controllers comprising: one or more of the power controllers within each of the plurality of MECs configured to perform low power level protections which implement localized protective functions and perform independent fault assessments, and one or more other power controllers within the vehicle configured to perform high power level protections which perform coordinated fault assessments across each of the plurality of MECs, wherein the plurality of power controllers are configured to concurrently implement the protective functions; wherein each of the plurality of MECs includes at least one of the power controllers configured for performing high power level protections where primary power is received at each of the plurality of MECs and at least one power controller configured for performing low power level protections where secondary power is distributed from each of the plurality of MECs .