mhurhangee/patent-ind-claim-en huggingface dataset:
A bone fixation body , comprising: a plurality of links spaced from each other along a first direction (L), the links defining respective crests and valleys offset from each other along a second direction (T) that is perpendicular to the first direction (L), and side members that extend between the crests and valleys , such that at least some of the links , in combination, define a plurality of securement locations and a plurality of attachment locations that are spaced from each other at least along the first direction (L), wherein the attachment locations are configured to receive fasteners therethrough and into an underlying jaw bone so as to attach the bone fixation body to the underlying jaw bone, and wherein the securement locations are configured to engage with a respective securement device that secures the fixation body to complementary securement locations of a second fixation body , wherein the securement locations comprise tangs that extend from the respective ones ol the crests along a direction from the crests toward the valleys , characterized that the side members each define an offset region that offsets the securement locations from the attachment locations along a third direction (A) that is substantially perpendicular to each of the first and second directions (L, T). a plurality of links spaced from each other along a first direction (L), the links defining respective crests and valleys offset from each other along a second direction (T) that is perpendicular to the first direction (L), and side members that extend between the crests and valleys , such that at least some of the links , in combination, define a plurality of securement locations and a plurality of attachment locations that are spaced from each other at least along the first direction (L), wherein the attachment locations are configured to receive fasteners therethrough and into an underlying jaw bone so as to attach the bone fixation body to the underlying jaw bone, and wherein the securement locations are configured to engage with a respective securement device that secures the fixation body to complementary securement locations of a second fixation body , wherein the securement locations comprise tangs that extend from the respective ones ol the crests along a direction from the crests toward the valleys , characterized that the side members each define an offset region that offsets the securement locations from the attachment locations along a third direction (A) that is substantially perpendicular to each of the first and second directions (L, T).
A latch assembly for a hood of a vehicle comprising: - a first plate comprising an elongated slot extending in a horizontal direction (H), - a second plate , - a first member being mechanically connected to the second plate , the first member extending in a vertical direction (V) through the elongated slot , slidably connecting the first plate to the second plate , - at least one deformable element , in a retracted position of the latch assembly , secures the first plate to the second plate in the horizontal direction (H), and - the at least one deformable element being arranged to deform upon impact in the horizontal direction (H) allowing the first plate to slide relative to the second plate in the horizontal direction (H) to an extended position, characterized by the latch assembly comprising, - a second member being mechanically connected to the second plate , the first member being located at a first portion of the second plate and the second member extending in a vertical direction (V) and being located at a second portion of the second plate , and - a rod extending in the horizontal direction (H) from the first member to the second member and the rod being slidably connectable to a hood latch of a vehicle. - a first plate comprising an elongated slot extending in a horizontal direction (H), - a second plate , - a first member being mechanically connected to the second plate , the first member extending in a vertical direction (V) through the elongated slot , slidably connecting the first plate to the second plate , - at least one deformable element , in a retracted position of the latch assembly , secures the first plate to the second plate in the horizontal direction (H), and - the at least one deformable element being arranged to deform upon impact in the horizontal direction (H) allowing the first plate to slide relative to the second plate in the horizontal direction (H) to an extended position, characterized by the latch assembly comprising, - a second member being mechanically connected to the second plate , the first member being located at a first portion of the second plate and the second member extending in a vertical direction (V) and being located at a second portion of the second plate , and - a rod extending in the horizontal direction (H) from the first member to the second member and the rod being slidably connectable to a hood latch of a vehicle.
A method for deburring bevel gears using a deburring tool , which comprises at least one cutting edge , with the steps: - rotationally driving the deburring tool around a deburring spindle axis (Q1), - rotationally driving a bevel gear around a workpiece spindle axis (B), wherein - the rotational driving of the deburring tool and the rotational driving of the bevel gear take place in a coupled manner with an inverse coupling transmission ratio, characterized in that - it is a continuous method for deburring, in which the cutting edge executes a relative flight movement in relation to the bevel gear , - the relative flight movement is defined by a hypocycloid (Hy), and wherein - a burr is removed at least on one tooth edge (11.1, 11.2) of a tooth gap in the region of the bevel gear heel (Fe) and/or the bevel gear toe (Ze) by a cutting contact of the cutting edge with the tooth edge (11.1, 11.2). - rotationally driving the deburring tool around a deburring spindle axis (Q1), - rotationally driving a bevel gear around a workpiece spindle axis (B), wherein - the rotational driving of the deburring tool and the rotational driving of the bevel gear take place in a coupled manner with an inverse coupling transmission ratio, characterized in that - it is a continuous method for deburring, in which the cutting edge executes a relative flight movement in relation to the bevel gear , - the relative flight movement is defined by a hypocycloid (Hy), and wherein - a burr is removed at least on one tooth edge (11.1, 11.2) of a tooth gap in the region of the bevel gear heel (Fe) and/or the bevel gear toe (Ze) by a cutting contact of the cutting edge with the tooth edge (11.1, 11.2).
A technetium 99m isolation system comprising an initial introduction control part configured for introducing an aqueous solution containing molybdenum 99 and technetium 99m, and an organic solvent being capable of dissolving the technetium 99m into an extraction tank; a micro-mixing control part configured for micro-mixing the aqueous solution and the organic solvent by heating and stirring a mixed solution of the aqueous solution and the organic solvent introduced into the extraction tank with a heater; a separation control part configured for separating the mixed solution micro-mixed into two phases of aqueous solution anc an organic solvent; a taking-out introduction control part configured for passing the organic solvent separated into two phases through ar adsorption column be capable of adsorbing molybdenum 99 and introducing the organic solvent into an evaporation elution tank; an evaporation control part configured for evaporating the organic solvent and leaving residue by reducing pressure inside the evaporation elution tank and heating the organic solvent introduced into the evaporation elution tank with a heater; and an elution control part configured for introducing physiological saline solution into the residue and elutes technetium 99m into the physiological saline solution from the residue; characterised in that the micro-mixing control part is further configured to apply ultrasound to the mixed solution; and the evaporation control part is further configured to apply ultrasound to the organic solvent. an initial introduction control part configured for introducing an aqueous solution containing molybdenum 99 and technetium 99m, and an organic solvent being capable of dissolving the technetium 99m into an extraction tank; a micro-mixing control part configured for micro-mixing the aqueous solution and the organic solvent by heating and stirring a mixed solution of the aqueous solution and the organic solvent introduced into the extraction tank with a heater; a separation control part configured for separating the mixed solution micro-mixed into two phases of aqueous solution anc an organic solvent; a taking-out introduction control part configured for passing the organic solvent separated into two phases through ar adsorption column be capable of adsorbing molybdenum 99 and introducing the organic solvent into an evaporation elution tank; an evaporation control part configured for evaporating the organic solvent and leaving residue by reducing pressure inside the evaporation elution tank and heating the organic solvent introduced into the evaporation elution tank with a heater; and an elution control part configured for introducing physiological saline solution into the residue and elutes technetium 99m into the physiological saline solution from the residue; characterised in that the micro-mixing control part is further configured to apply ultrasound to the mixed solution; and the evaporation control part is further configured to apply ultrasound to the organic solvent.
Ventilation device , of the type comprising a fan having a case housing an impeller which rotates about an axis of rotation (Z-Z), said case having a gaseous fluid inlet through which the gaseous fluid is to flow into the fan , substantially parallel to the axis of rotation (Z-Z), and a gaseous fluid outlet through which the gaseous fluid is to be expelled, the ventilation device comprising, upstream of said gaseous fluid inlet , a gaseous fluid circulation circuit comprising a main duct and diverting means for diverting the flow (F) of gaseous fluid, such that: - the main duct extends along a direction of flow (D) which forms a non-zero angle with the axis of rotation (Z-Z), and - the diverting means are arranged between the main duct and the gaseous fluid inlet of the fan and are capable of diverting a flow (F) of gaseous fluid substantially parallel to said direction of flow (D), coming from the main duct , in order to orient it substantially parallel to the axis of rotation (Z-Z) at said gaseous fluid inlet , characterised in that the diverting means comprise a deflector in the form of a dome, preferably of substantially hemispherical shape, which covers the gaseous fluid inlet of the case , the case having a substantially circular shape in a cutting plane (P) perpendicular to the axis of rotation (Z-Z), and the deflector in the form of a dome has a dimension, in the direction of the axis of rotation (Z-Z), which is smaller than the diameter of the case in said cutting plane (P). - the main duct extends along a direction of flow (D) which forms a non-zero angle with the axis of rotation (Z-Z), and - the diverting means are arranged between the main duct and the gaseous fluid inlet of the fan and are capable of diverting a flow (F) of gaseous fluid substantially parallel to said direction of flow (D), coming from the main duct , in order to orient it substantially parallel to the axis of rotation (Z-Z) at said gaseous fluid inlet , characterised in that the diverting means comprise a deflector in the form of a dome, preferably of substantially hemispherical shape, which covers the gaseous fluid inlet of the case , the case having a substantially circular shape in a cutting plane (P) perpendicular to the axis of rotation (Z-Z), and the deflector in the form of a dome has a dimension, in the direction of the axis of rotation (Z-Z), which is smaller than the diameter of the case in said cutting plane (P).
Additive manufacturing support comprising, on a plate of an additive manufacturing machine, a stack produced by additive manufacturing, having: - on the one hand, a breakable zone with a lamellar structure comprising a plurality of solid portions spaced apart from one another which does not belong to the same block, the breakable zone being suitable for holding, during its manufacture, a part intended to be produced by additive manufacturing, and - on the other hand, between the plate and the zone with a breakable structure , an intermediate zone with a porous structure in one piece. - on the one hand, a breakable zone with a lamellar structure comprising a plurality of solid portions spaced apart from one another which does not belong to the same block, the breakable zone being suitable for holding, during its manufacture, a part intended to be produced by additive manufacturing, and - on the other hand, between the plate and the zone with a breakable structure , an intermediate zone with a porous structure in one piece.
A blood processing filter comprising: a container housing a filter element for blood processing, wherein the container comprises an inlet-side container member, and an outlet-side container member, wherein the filter element is held by being sandwiched between the inlet-side container member and the outlet side container member and an inside of the blood processing filter is partitioned by the filter element into an inlet-side space and an outlet-side space and wherein the filter element comprises a nonwoven polymer fabric being melt-blown and being further heat-treated using a heat source having a temperature equal to or higher than [melting point of the polymer - 120]°C during a heating-time of at least 3 seconds or longer, wherein the rebound strength (N) per unit basis weight (g/m 2 ) before steam heat treatment is 0.3 N.m 2 /g or larger and wherein the rebound strength after the steam heat treatment is larger than the rebound strength before the steam heat treatment. a container housing a filter element for blood processing, wherein the container comprises an inlet-side container member, and an outlet-side container member, wherein the filter element is held by being sandwiched between the inlet-side container member and the outlet side container member and an inside of the blood processing filter is partitioned by the filter element into an inlet-side space and an outlet-side space and wherein the filter element comprises a nonwoven polymer fabric being melt-blown and being further heat-treated using a heat source having a temperature equal to or higher than [melting point of the polymer - 120]°C during a heating-time of at least 3 seconds or longer, wherein the rebound strength (N) per unit basis weight (g/m 2 ) before steam heat treatment is 0.3 N.m 2 /g or larger and wherein the rebound strength after the steam heat treatment is larger than the rebound strength before the steam heat treatment.
A method implemented by one or more processors, comprising: receiving a group of data points generated based on sensor data from one or more sensors of a robot during physical manipulation of the robot, the physical manipulation being by a user to traverse a reference point of the robot from an initial point to a target point; wherein the data points of the group are uniformly distributed over time and each define a state of the robot at a corresponding time; resampling the group of data points to generate a spatial group of spatially distributed data points that are spatially uniformly distributed; generating a control policy that regulates both robot motion and robot interaction with an environment, wherein generating the control policy comprises using the spatial group of spatially distributed data points in learning a non-parametric potential function for use in the control policy, the non-parametric potential function having a global minimum based on the target point; and controlling the robot or an additional robot based on the control policy. receiving a group of data points generated based on sensor data from one or more sensors of a robot during physical manipulation of the robot, the physical manipulation being by a user to traverse a reference point of the robot from an initial point to a target point; wherein the data points of the group are uniformly distributed over time and each define a state of the robot at a corresponding time; resampling the group of data points to generate a spatial group of spatially distributed data points that are spatially uniformly distributed; generating a control policy that regulates both robot motion and robot interaction with an environment, wherein generating the control policy comprises using the spatial group of spatially distributed data points in learning a non-parametric potential function for use in the control policy, the non-parametric potential function having a global minimum based on the target point; and controlling the robot or an additional robot based on the control policy.
A mounting device , particularly a mounting arm and/or stand, for medical purposes, particularly for mounting an attached device, particularly surgical mechatronic assistance systems and/or surgical instruments, having a proximal end for attaching the mounting device to a base and a distal end for receiving an attached device ; at least one first and one second arm segment , the first arm segment being connected to a first joint and the second arm segment being connected to a second joint , each joint being releasable and lockable; an operator control device for releasing and/or locking the corresponding joint for placing the mounting device in a desired predefined pose; and a first indicator unit disposed on the first joint , and a second indicator unit disposed on the second joint , the first and/or second indicator unit being configured to display at least one status of the mounting device and/or of an attached device , the first indicator unit and the second indicator unit being configured to emit IR radiation, characterized in that at least one display unit (34, 36 100) is implemented substantially annularly about a pivot axis of the corresponding joint , and wherein the indicator units are configured to indicate a direction in which at least one joint is to be moved in order to move the mounting device from the current pose into the predefined pose. a proximal end for attaching the mounting device to a base and a distal end for receiving an attached device ; at least one first and one second arm segment , the first arm segment being connected to a first joint and the second arm segment being connected to a second joint , each joint being releasable and lockable; an operator control device for releasing and/or locking the corresponding joint for placing the mounting device in a desired predefined pose; and a first indicator unit disposed on the first joint , and a second indicator unit disposed on the second joint , the first and/or second indicator unit being configured to display at least one status of the mounting device and/or of an attached device , the first indicator unit and the second indicator unit being configured to emit IR radiation, characterized in that at least one display unit (34, 36 100) is implemented substantially annularly about a pivot axis of the corresponding joint , and wherein the indicator units are configured to indicate a direction in which at least one joint is to be moved in order to move the mounting device from the current pose into the predefined pose.
A device for connecting a piston and a crankshaft of an internal combustion engine , comprising: a first end connector for connection with the piston; a second end connector for connection with the crankshaft; and a connection rod portion including an elongated flexible body extending between a first end rotatably connected to the first end connector and a second end rotatably connected to the second end connector; wherein the elongated flexible body is configured to remain straight regardless of the angle of the crankshaft unless the elongated flexible body is flexed by cylinder pressure conditions; wherein the elongated flexible body defines a cross section with a depth extending in a direction paralleling an axis of rotation of the crankshaft and a width that is orthogonal to the depth , and wherein the depth is at least twice the width . a first end connector for connection with the piston; a second end connector for connection with the crankshaft; and a connection rod portion including an elongated flexible body extending between a first end rotatably connected to the first end connector and a second end rotatably connected to the second end connector; wherein the elongated flexible body is configured to remain straight regardless of the angle of the crankshaft unless the elongated flexible body is flexed by cylinder pressure conditions; wherein the elongated flexible body defines a cross section with a depth extending in a direction paralleling an axis of rotation of the crankshaft and a width that is orthogonal to the depth , and wherein the depth is at least twice the width .
A support structure for one or more windings wound around a core of a transformer leg of a power transformer , comprising: - a press structure configured to transfer and distribute a compression force from a yoke of the power transformer to the one or more windings ; - an insulator structure configured to electrically insulate the yoke from the one or more windings ; and - a coolant flow structure configured to guide and distribute a flow of a liquid coolant to or from different parts of the one or more windings ; characterized in that - the press structure , the insulator structure and the coolant flow structure are formed as one integrated part; - the integrated part comprises a polymer material; and - the coolant flow structure of the integrated part comprises a plurality of first orifices arranged at a first side of the support structure facing the yoke and a plurality of second orifices arranged at a second side of the support structure facing the one or more windings , and a plurality of protrusions formed on the first side and/or the second side , wherein the first and second orifices and the plurality of protrusions are configured to guide the flow of the liquid coolant from the first side to the second side . - a press structure configured to transfer and distribute a compression force from a yoke of the power transformer to the one or more windings ; - an insulator structure configured to electrically insulate the yoke from the one or more windings ; and - a coolant flow structure configured to guide and distribute a flow of a liquid coolant to or from different parts of the one or more windings ; - the press structure , the insulator structure and the coolant flow structure are formed as one integrated part; - the integrated part comprises a polymer material; and - the coolant flow structure of the integrated part comprises a plurality of first orifices arranged at a first side of the support structure facing the yoke and a plurality of second orifices arranged at a second side of the support structure facing the one or more windings , and a plurality of protrusions formed on the first side and/or the second side , wherein the first and second orifices and the plurality of protrusions are configured to guide the flow of the liquid coolant from the first side to the second side .