mhurhangee/patent-ind-claim-en huggingface dataset:
An intervertebral implant for implantation in a treated area of an intervertebral space between vertebral bodies of a spine, wherein said implant comprises: a spacer portion having, an inferior and superior surface, wherein the inferior and superior surfaces each have a contact area capable of engaging with anatomy in the treated area, and the inferior and superior surfaces define a through-hole having an inner surface extending through the spacer portion ; screw holes extending from a side portion to the inferior and superior surfaces of the spacer portion ; a plate portion rigidly coupled to the spacer portion through a coupling means , wherein the plate portion contains screws holes for receiving screws ; and a screw back out prevention mechanism adapted on the plate portion and preventing the back out of screws from the screw holes wherein at least one ridge is configured on a portion of the inner surface of the spacer wherein the spacer portion comprises a plurality of protrusions in the superior and inferior aspects of the spacer body to help prevent migration of the implant characterized in that the plate portion is provided with knife like edges which are designed to engage the vertebral body and provide additional torsional stability to that of the screws . a spacer portion having, an inferior and superior surface, wherein the inferior and superior surfaces each have a contact area capable of engaging with anatomy in the treated area, and the inferior and superior surfaces define a through-hole having an inner surface extending through the spacer portion ; screw holes extending from a side portion to the inferior and superior surfaces of the spacer portion ; a plate portion rigidly coupled to the spacer portion through a coupling means , wherein the plate portion contains screws holes for receiving screws ; and a screw back out prevention mechanism adapted on the plate portion and preventing the back out of screws from the screw holes wherein at least one ridge is configured on a portion of the inner surface of the spacer wherein the spacer portion comprises a plurality of protrusions in the superior and inferior aspects of the spacer body to help prevent migration of the implant characterized in that the plate portion is provided with knife like edges which are designed to engage the vertebral body and provide additional torsional stability to that of the screws .
A method for maximizing the light transmissivity of a speculum tip element , the speculum tip element having an axisymmetric hollow body including a substantially conical shape including a distal opening and a proximal opening, the method comprising: molding the speculum tip element from a plastic material that is at least optically translucent, the speculum tip element having an exterior surface and an interior surface, the method further comprises: providing the exterior surface of the speculum tip element and a proximal portion of the interior surface with a textured surface finish; and providing a distal portion of the interior surface of the speculum tip element with a smooth polished surface finish , characterized in that the textured surface finish of the exterior surface is between an average roughness of 2.8 μm (VDI3400 29) and an average roughness of 6.3 μm (VDI3400 36). molding the speculum tip element from a plastic material that is at least optically translucent, the speculum tip element having an exterior surface and an interior surface, the method further comprises: providing the exterior surface of the speculum tip element and a proximal portion of the interior surface with a textured surface finish; and providing a distal portion of the interior surface of the speculum tip element with a smooth polished surface finish , characterized in that the textured surface finish of the exterior surface is between an average roughness of 2.8 μm (VDI3400 29) and an average roughness of 6.3 μm (VDI3400 36). providing the exterior surface of the speculum tip element and a proximal portion of the interior surface with a textured surface finish; and providing a distal portion of the interior surface of the speculum tip element with a smooth polished surface finish , characterized in that the textured surface finish of the exterior surface is between an average roughness of 2.8 μm (VDI3400 29) and an average roughness of 6.3 μm (VDI3400 36).
An apparatus comprising: a plurality of processor cores ; a computer memory for storage of data; and cache memory communicatively coupled with one or more of the processor cores; wherein one or more processor cores of the plurality of processor cores are to implant hidden inline metadata in one or more cachelines for the cache memory; wherein each of the one or more cachelines comprises a data portion and a metadata portion , characterized in that the metadata portion being hidden from software at a linear address level for purposes of contiguous linear address operations, but being conditionally visible and available to a physical hardware and privileged software to enforce metadata policies on the data; and wherein the one or more processor cores are configured to hide said metadata portion by setting an indicator in a memory or storage to indicate presence of the hidden inline metadata in the one or more cachelines, a plurality of processor cores ; a computer memory for storage of data; and cache memory communicatively coupled with one or more of the processor cores; wherein one or more processor cores of the plurality of processor cores are to implant hidden inline metadata in one or more cachelines for the cache memory; wherein each of the one or more cachelines comprises a data portion and a metadata portion , characterized in that the metadata portion being hidden from software at a linear address level for purposes of contiguous linear address operations, but being conditionally visible and available to a physical hardware and privileged software to enforce metadata policies on the data; and wherein the one or more processor cores are configured to hide said metadata portion by setting an indicator in a memory or storage to indicate presence of the hidden inline metadata in the one or more cachelines,
A process for the production of high density polyethylene by polymerisation of ethylene in the presence of a silylchromate based catalyst and a reducing agent wherein said process is characterized in that the reducing agent comprises the reaction mixture of an alkyl aluminium compound and/or a boron compound and a nitrogen containing compound.
A rack , comprising: a top frame and a bottom frame connected by at least one post ; and a server chassis installed within the rack , wherein the rack further comprises: a power distribution assembly having a mounting bracket , a hinge , and a bracket , and connected to the at least one post by the mounting bracket , wherein the power distribution assembly is rotatable about the mounting bracket at the hinge in and out of an installation/removal path of the server chassis , wherein the power distribution assembly comprises a power distribution unit connected to the power distribution assembly by the bracket , and wherein the mounting bracket is configured to extend the rotatable power distribution assembly from the rack and is configured to provide sufficient spacing and allow the bracket to rotate in and out of the rack . a top frame and a bottom frame connected by at least one post ; and a server chassis installed within the rack , wherein the rack further comprises: a power distribution assembly having a mounting bracket , a hinge , and a bracket , and connected to the at least one post by the mounting bracket , wherein the power distribution assembly is rotatable about the mounting bracket at the hinge in and out of an installation/removal path of the server chassis , wherein the power distribution assembly comprises a power distribution unit connected to the power distribution assembly by the bracket , and wherein the mounting bracket is configured to extend the rotatable power distribution assembly from the rack and is configured to provide sufficient spacing and allow the bracket to rotate in and out of the rack .
A piece of seating and reclining furniture comprising a seat , a backrest and an adjustment mechanism for changing the position of the seat and/or the backrest between at least an upright basic position (P1), a first reclining position (P2) and a second reclining position (P3), the adjustment mechanism having at least one actuator (61; 70) and a controller for controlling the actuator (61; 70), the controller having at least one positioning mode for positioning the seat and/or backrest in the upright basic position (P1), the first reclining position (P2) or the second reclining position (P3) and a relaxation mode for moving the seat and/or the backrest back and forth, wherein in the positioning mode as well as in the relaxation mode the seat and/or backrest is adjustable by the same actuator between the first reclining position (P2) and the second reclining position (P3), wherein the angle between the seat and the backrest changes during the movement back and forth between the first reclining position (P2) and the second reclining position (P3) and wherein the relaxation mode comprises a plurality of cycles between the first reclining position (P2) and the second reclining position (P3).
Playing device for a rebound type of sport, comprising a playing surface , against which a ball is playable by a player for bouncing off an impact site of the playing surface according to a predetermined set of rules of the rebound type of sport and which comprises a sensor system , which is designed to detect two-dimensional first coordinates of the impact site and to transfer them to a computing unit of the playing device , which is designed to ascertain, in dependence on the first coordinates according to a predetermined rule, two-dimensional second coordinates, a parameter and/or a shape of at least one target field and to control a projector of the playing device with which the target field is projectable onto a projection surface located within the playing surface so as to be visually perceivable by the player , against which the ball is subsequently playable by the player for bouncing off the target field according to the set of rules of the rebound type of sport, characterized in that the sensor system has a light grid for one of the two-dimensional first coordinates and, for recording the playing surface, a camera with an image evaluation unit, with which the other one of the two-dimensional first coordinates is detectable.
Method for automatic positioning of an X-ray source of a medical X-ray system with a mobile X-ray detector having the computer-implemented steps: a. determining an examination region of the examination object , b. acquiring a position and a location of the examination object and the examination region by means of an optical position determining system, c. localising the examination region, d. ascertaining a field point of the central ray of the X-ray source and a collimator size of the X-ray source on the basis of the localised examination region, and e. automatic positioning of the X-ray source on the basis of the field point and the collimator size. a. determining an examination region of the examination object , b. acquiring a position and a location of the examination object and the examination region by means of an optical position determining system, c. localising the examination region, d. ascertaining a field point of the central ray of the X-ray source and a collimator size of the X-ray source on the basis of the localised examination region, and e. automatic positioning of the X-ray source on the basis of the field point and the collimator size.
A computer-implemented method comprising steps of receiving a patient-specific volume image comprising structural information about a patient's vessels represented in voxels, retrieving a three-dimensional geometry of at least one blood vessel, extracting a skeleton graph from the geometry, determining endpoints of the at least one blood vessel to determine an inlet and at least one outlet, computing at least one initial centerline of at least one blood vessel, the at least one initial centerline being defined by points and computed with the sub-voxel resolution, correcting the at least one initial centerline with sub-voxel precision to obtain a corrected centerline, comprising an iterative process involving equalizing points by defining the centerline by bringing each point closer to the mean position of adjacent points outputting and using the corrected centerline to extract and/or present patient-specific data characterized in that the determination of endpoints includes an automatic breadth-first search of the geometry nodes and determining inlets and outlets of vessels using a gradient of thickness as a criterion, and in the step of correcting of the at least one initial centerline comprises, the iterative process includes additionally at least an operation of centering points defining the centerline by locating them further from the closest surface defined in the geometry, and wherein the centering and the equalizing are executed sequentially, until the predefined stop condition is met. receiving a patient-specific volume image comprising structural information about a patient's vessels represented in voxels, retrieving a three-dimensional geometry of at least one blood vessel, extracting a skeleton graph from the geometry, determining endpoints of the at least one blood vessel to determine an inlet and at least one outlet, computing at least one initial centerline of at least one blood vessel, the at least one initial centerline being defined by points and computed with the sub-voxel resolution, correcting the at least one initial centerline with sub-voxel precision to obtain a corrected centerline, comprising an iterative process involving equalizing points by defining the centerline by bringing each point closer to the mean position of adjacent points outputting and using the corrected centerline to extract and/or present patient-specific data characterized in that the determination of endpoints includes an automatic breadth-first search of the geometry nodes and determining inlets and outlets of vessels using a gradient of thickness as a criterion, and in the step of correcting of the at least one initial centerline comprises, the iterative process includes additionally at least an operation of centering points defining the centerline by locating them further from the closest surface defined in the geometry, and wherein the centering and the equalizing are executed sequentially, until the predefined stop condition is met.
A track drive for outdoor power equipment characterized by : a support frame , wherein said support frame defines an aperture , said aperture being located substantially on a center line of said support frame with respect to a forward end and a rear end of said support frame ; a drive axle configured to attach to an associated drive hub on said outdoor power equipment , wherein said drive axle passes through said aperture ; a hub bearing mounted on said drive axle and said support frame , said hub bearing enables said drive axle to rotate relative to said support frame ; a drive sprocket attached to said drive axle , wherein said drive sprocket comprises an interior half sprocket and an exterior half sprocket , said half sprockets are located on either side of said support frame , wherein said drive sprocket comprises drive teeth spaced radially about said drive sprocket ; and an endless track , wherein said drive sprocket is movably engaged with said endless track to transmit force to rotate said endless track and propel said outdoor power equipment . a support frame , wherein said support frame defines an aperture , said aperture being located substantially on a center line of said support frame with respect to a forward end and a rear end of said support frame ; a drive axle configured to attach to an associated drive hub on said outdoor power equipment , wherein said drive axle passes through said aperture ; a hub bearing mounted on said drive axle and said support frame , said hub bearing enables said drive axle to rotate relative to said support frame ; a drive sprocket attached to said drive axle , wherein said drive sprocket comprises an interior half sprocket and an exterior half sprocket , said half sprockets are located on either side of said support frame , wherein said drive sprocket comprises drive teeth spaced radially about said drive sprocket ; and an endless track , wherein said drive sprocket is movably engaged with said endless track to transmit force to rotate said endless track and propel said outdoor power equipment .
Method for calculating a route for a fluid vehicle, wherein the fluid vehicle is an underwater vehicle, wherein the method comprises the following steps: a) ascertaining the boundary parameters and b) ascertaining the optimum route, wherein step a) comprises the following steps: a1) defining a use profile, a2) defining a target position, a3) obtaining the vehicle's own position, a4) acquiring information on the surroundings, a5) acquiring the vehicle's own information, a6) acquiring static third-party information, wherein the steps a1) to a6) are carried out in any desired sequence, wherein in step a4) three-dimensional information on the surroundings is acquired, in step a4) dynamic information on the surroundings is acquired, wherein other fluid vehicles are searched for as dynamic information on the surroundings by means of a sensor, wherein step b) comprises the following steps: b1) determining areas which are not to be passed through from the three-dimensional information on the surroundings acquired in step a4), b2) determining areas which are not to be passed through from the dynamic information on the surroundings obtained in step a4), in correlation with both static third-party information acquired in step a6) and the use profile defined in step a1), b3) determining the route while avoiding the areas which are not to be passed through and which were determined in steps b1) and b2) as well as route parameters corresponding to the use profile defined in step a1), wherein in step a4) information about the position and type of other fluid vehicles is acquired, wherein in step a1) the use profile is selected from the group comprising transfer journey, silent running, taking on process, surfacing, diving, attacking, fleeing, long-term dive, avoidance action, characterized in that in step a6) the detection range is acquired as static third-party information on the basis of the type of other fluid vehicles ascertained in step a4) . a) ascertaining the boundary parameters and b) ascertaining the optimum route, wherein a1) defining a use profile, a2) defining a target position, a3) obtaining the vehicle's own position, a4) acquiring information on the surroundings, a5) acquiring the vehicle's own information, a6) acquiring static third-party information, b1) determining areas which are not to be passed through from the three-dimensional information on the surroundings acquired in step a4), b2) determining areas which are not to be passed through from the dynamic information on the surroundings obtained in step a4), in correlation with both static third-party information acquired in step a6) and the use profile defined in step a1), b3) determining the route while avoiding the areas which are not to be passed through and which were determined in steps b1) and b2) as well as route parameters corresponding to the use profile defined in step a1),
A light emitting device comprising: a flip-chip light emitting diode (LED) semiconductor die comprising an upper surface , a lower surface opposite to the upper surface , an edge surface , and a set of electrodes , wherein the edge surface extends between the upper surface of the LED semiconductor die and the lower surface of the LED semiconductor die , and the set of electrodes is disposed on the lower surface of the LED semiconductor die ; a photoluminescent structure comprising a top portion disposed on the upper surface of the LED semiconductor die , and an edge portion covering the edge surface of the LED semiconductor die ; and a beam shaping structure disposed surrounding an edge surface of the edge portion of the photoluminescent structure and not covering the top portion of the photoluminescent structure, wherein the beam shaping structure comprises a polymer resin material and light scattering particles dispersed in the polymer resin material with a weight percentage of the light scattering particles in the beam shaping structure not greater than 30% and the beam shaping structure reduces a viewing angle of the light emitting device by redirecting a portion of a light beam toward an upper surface of the beam shaping structure . a flip-chip light emitting diode (LED) semiconductor die comprising an upper surface , a lower surface opposite to the upper surface , an edge surface , and a set of electrodes , wherein the edge surface extends between the upper surface of the LED semiconductor die and the lower surface of the LED semiconductor die , and the set of electrodes is disposed on the lower surface of the LED semiconductor die ; a photoluminescent structure comprising a top portion disposed on the upper surface of the LED semiconductor die , and an edge portion covering the edge surface of the LED semiconductor die ; and a beam shaping structure disposed surrounding an edge surface of the edge portion of the photoluminescent structure and not covering the top portion of the photoluminescent structure, wherein the beam shaping structure comprises a polymer resin material and light scattering particles dispersed in the polymer resin material with a weight percentage of the light scattering particles in the beam shaping structure not greater than 30% and the beam shaping structure reduces a viewing angle of the light emitting device by redirecting a portion of a light beam toward an upper surface of the beam shaping structure .