mhurhangee/patent-ind-claim-en huggingface dataset:
A method to manufacture an absorbent article comprising a topsheet, a backsheet and an absorbent core disposed between the topsheet and the backsheet, the method comprising: providing a solution in a solvent system, said solution comprising a cyclodextrin comprising an odor controlling organic compound wherein said cyclodextrin is a substituted cyclodextrin wherein the H atom of OH groups in positions 2, 3 and 6 is partially or entirely replaced by a substituent -R having a substitution degree DS of 0.4 or to 2.5 -R substituents per glucose unit of cyclodextrin and wherein substitution in position 2 is about 20 percent or above, in position 6 is about 20 percent or above and substitution in position 3 is less than that of position 2 and/or position 6; providing a material component comprised by the absorbent article; applying an amount of the solution to the material component of the absorbent article in a target zone and wherein the substituted cyclodextrin is disposed in the absorbent core; and further comprising the step of evaporating the solvent and precipitating the cyclodextrin complex on the material component of the absorbent article. providing a solution in a solvent system, said solution comprising a cyclodextrin comprising an odor controlling organic compound wherein said cyclodextrin is a substituted cyclodextrin wherein the H atom of OH groups in positions 2, 3 and 6 is partially or entirely replaced by a substituent -R having a substitution degree DS of 0.4 or to 2.5 -R substituents per glucose unit of cyclodextrin and wherein substitution in position 2 is about 20 percent or above, in position 6 is about 20 percent or above and substitution in position 3 is less than that of position 2 and/or position 6; providing a material component comprised by the absorbent article; applying an amount of the solution to the material component of the absorbent article in a target zone and wherein the substituted cyclodextrin is disposed in the absorbent core; and further comprising the step of evaporating the solvent and precipitating the cyclodextrin complex on the material component of the absorbent article.
A cutting insert having a first end surface , a second end surface opposing the first end surface , and a peripheral side surface connecting the first and second end surfaces , wherein: the peripheral side surface includes a rake surface , a front flank and a first cutting edge located in an intersecting edge between the rake surface and the front flank ; the first end surface includes a central surface and a side flank located closer to the front flank than the central surface ; as viewed from a direction facing the rake surface , an intersecting edge between the central surface and the peripheral side surface serves as a first edge , and an intersecting edge between the side flank and the peripheral side surface serves as a second edge ; and when, as viewed from the direction facing the rake surface , an angle formed by the first cutting edge and the first edge serves as a first angle (α), and an angle formed by the first cutting edge and the second edge serves as a second angle (β), the first angle (α) is smaller than the second angle (β), characterized in that the second angle (β) is from 85° to 89°. the peripheral side surface includes a rake surface , a front flank and a first cutting edge located in an intersecting edge between the rake surface and the front flank ; the first end surface includes a central surface and a side flank located closer to the front flank than the central surface ; as viewed from a direction facing the rake surface , an intersecting edge between the central surface and the peripheral side surface serves as a first edge , and an intersecting edge between the side flank and the peripheral side surface serves as a second edge ; and when, as viewed from the direction facing the rake surface , an angle formed by the first cutting edge and the first edge serves as a first angle (α), and an angle formed by the first cutting edge and the second edge serves as a second angle (β), the first angle (α) is smaller than the second angle (β), characterized in that the second angle (β) is from 85° to 89°.
An aircraft for providing ground manipulation of a target objective at a ground surface , the aircraft comprising: an airframe ; a plurality of rotor booms extending radially from the airframe ; a plurality of propulsors , each of said plurality of propulsors positioned at a distal end of one of said plurality of rotor booms , wherein the plurality of propulsors are configured to be controlled by an aircraft processor ; an articulation arm coupled at its proximal end to the airframe ; an end-effector coupled to a distal end of the articulation arm configured to engage the target objective ; and a ground-fixing system configured to secure the airframe to the ground surface , wherein the ground-fixing system includes one or more laterally displaceable gripping devices configured to clamp with a protruding feature of the ground surface . an airframe ; a plurality of rotor booms extending radially from the airframe ; a plurality of propulsors , each of said plurality of propulsors positioned at a distal end of one of said plurality of rotor booms , wherein the plurality of propulsors are configured to be controlled by an aircraft processor ; an articulation arm coupled at its proximal end to the airframe ; an end-effector coupled to a distal end of the articulation arm configured to engage the target objective ; and a ground-fixing system configured to secure the airframe to the ground surface , wherein the ground-fixing system includes one or more laterally displaceable gripping devices configured to clamp with a protruding feature of the ground surface .
A delivery system for percutaneously delivering a heart valve prosthesis to a site of a native heart valve, the delivery system comprising: a delivery catheter including: an outer sheath ; an inner shaft slidably disposed within the outer sheath; and an orifice restriction mechanism coupled to a distal portion of the inner shaft, wherein the orifice restriction mechanism has a first state and an inflated second state; and a heart valve prosthesis including a valve member having a radially collapsed configuration and a radially expanded configuration, and a docking member having a radially collapsed configuration and a radially expanded configuration, wherein the orifice restriction mechanism is configured to be positioned within the docking member of the heart valve prosthesis after the docking member is in the radially expanded configuration within an annulus of the native heart valve, and wherein the orifice restriction mechanism is configured to temporarily replicate the operation of the native heart valve until the valve member is positioned within the docking member. a delivery catheter including: an outer sheath ; an inner shaft slidably disposed within the outer sheath; and an orifice restriction mechanism coupled to a distal portion of the inner shaft, wherein the orifice restriction mechanism has a first state and an inflated second state; and an outer sheath ; an inner shaft slidably disposed within the outer sheath; and an orifice restriction mechanism coupled to a distal portion of the inner shaft, wherein the orifice restriction mechanism has a first state and an inflated second state; and a heart valve prosthesis including a valve member having a radially collapsed configuration and a radially expanded configuration, and a docking member having a radially collapsed configuration and a radially expanded configuration, wherein the orifice restriction mechanism is configured to be positioned within the docking member of the heart valve prosthesis after the docking member is in the radially expanded configuration within an annulus of the native heart valve, and wherein the orifice restriction mechanism is configured to temporarily replicate the operation of the native heart valve until the valve member is positioned within the docking member.
A communication method, comprising: generating (S301), by a first terminal apparatus, a first demodulation reference sequence based on an aggregation level of a second control channel, wherein the first demodulation reference sequence is used to demodulate a first control channel, a first demodulation reference signal generated based on the first demodulation reference sequence is mapped to the first control channel, and first control information carried on the first control channel and second control information carried on the second control channel are used to demodulate a data channel; and sending (S302), by the first terminal apparatus, the first control channel, the second control channel, and the data channel to a second terminal apparatus in a first slot, wherein the generating (S301), by a first terminal apparatus, a first demodulation reference sequence based on an aggregation level of a second control channel comprises: determining, by the first terminal apparatus, an initial value of the first demodulation reference sequence based on the aggregation level of the second control channel; and generating, by the first terminal apparatus, the first demodulation reference sequence based on the initial value of the first demodulation reference sequence. generating (S301), by a first terminal apparatus, a first demodulation reference sequence based on an aggregation level of a second control channel, wherein the first demodulation reference sequence is used to demodulate a first control channel, a first demodulation reference signal generated based on the first demodulation reference sequence is mapped to the first control channel, and first control information carried on the first control channel and second control information carried on the second control channel are used to demodulate a data channel; and sending (S302), by the first terminal apparatus, the first control channel, the second control channel, and the data channel to a second terminal apparatus in a first slot, wherein the generating (S301), by a first terminal apparatus, a first demodulation reference sequence based on an aggregation level of a second control channel comprises: determining, by the first terminal apparatus, an initial value of the first demodulation reference sequence based on the aggregation level of the second control channel; and generating, by the first terminal apparatus, the first demodulation reference sequence based on the initial value of the first demodulation reference sequence. determining, by the first terminal apparatus, an initial value of the first demodulation reference sequence based on the aggregation level of the second control channel; and generating, by the first terminal apparatus, the first demodulation reference sequence based on the initial value of the first demodulation reference sequence.
Glass vial made of a boron-containing multicomponent glass, containing a liquid pharmaceutical active substance preparation and having a closure, wherein the glass vial has a total volume of < 4.5 ml and the fill level of the glass vial with the pharmaceutical active substance preparation is at most 0.25, and wherein the concentration of boron ions, measured at a measurement site below the plane of the container middle on the basis of a concentration depth profile at a depth in the range from 10 to 30 nm, has a value, averaged over the measured values of the concentration depth profile, which exhibits an increase of at most 30% relative to a concentration of boron ions measured on the basis of a concentration depth profile at a depth in the range from 10 to 30 nm with a measurement site in the plane of the container middle, wherein the position of the plane of the container middle is determined from the underside of the base in the direction of the opening of the vial.
A melter for melting glass batch materials, the melter comprising: a rigid exoskeleton comprising a base portion and a plurality of upright members and a plurality of cross members defining an exoskeleton interior volume , wherein: the plurality of upright members are rigidly attached to the base portion and extend upwards from the base portion in a generally vertical direction; and the plurality of cross members extend between and are rigidly attached to upper ends of at least two of the plurality of upright members such that the plurality of upright members are interconnected by the plurality of cross members and connection nodes formed at intersections of the plurality of cross members with the upper ends of the plurality of upright members are constrained from movement relative to the base portion in a longitudinal direction, a transverse direction, and a vertical direction; and a tank assembly positioned on the base portion in the exoskeleton interior volume such that the tank assembly is spaced apart from the rigid exoskeleton , wherein the tank assembly is coupled to the rigid exoskeleton; and characterized by rollers affixed to an underside of the base portion . a rigid exoskeleton comprising a base portion and a plurality of upright members and a plurality of cross members defining an exoskeleton interior volume , wherein: the plurality of upright members are rigidly attached to the base portion and extend upwards from the base portion in a generally vertical direction; and the plurality of cross members extend between and are rigidly attached to upper ends of at least two of the plurality of upright members such that the plurality of upright members are interconnected by the plurality of cross members and connection nodes formed at intersections of the plurality of cross members with the upper ends of the plurality of upright members are constrained from movement relative to the base portion in a longitudinal direction, a transverse direction, and a vertical direction; and the plurality of upright members are rigidly attached to the base portion and extend upwards from the base portion in a generally vertical direction; and the plurality of cross members extend between and are rigidly attached to upper ends of at least two of the plurality of upright members such that the plurality of upright members are interconnected by the plurality of cross members and connection nodes formed at intersections of the plurality of cross members with the upper ends of the plurality of upright members are constrained from movement relative to the base portion in a longitudinal direction, a transverse direction, and a vertical direction; and a tank assembly positioned on the base portion in the exoskeleton interior volume such that the tank assembly is spaced apart from the rigid exoskeleton , wherein the tank assembly is coupled to the rigid exoskeleton; and characterized by rollers affixed to an underside of the base portion .
A method for selectively filtering 1,2-diolein and 1,3-diolein ions from an olive oil sample, said method comprising: ionizing a mixture of an olive oil sample and a preionization modifier comprising silver using an ion source instructed by a processor ; separating ions received from the ion source and affected by a post-ionization modifier based on ion mobility using a differential mobility spectrometry (DMS) device instructed by the processor; selectively filtering separated 1,2-diolein precursor ions by selecting a first compensation voltage (CoV) for the DMS device using the DMS device instructed by the processor; and selectively filtering separated 1,3-diolein precursor ions by selecting a second CoV for the DMS device using the DMS device instructed by the processor. ionizing a mixture of an olive oil sample and a preionization modifier comprising silver using an ion source instructed by a processor ; separating ions received from the ion source and affected by a post-ionization modifier based on ion mobility using a differential mobility spectrometry (DMS) device instructed by the processor; selectively filtering separated 1,2-diolein precursor ions by selecting a first compensation voltage (CoV) for the DMS device using the DMS device instructed by the processor; and selectively filtering separated 1,3-diolein precursor ions by selecting a second CoV for the DMS device using the DMS device instructed by the processor.
Inkjet printing machine for printing individual sheets, comprising a) at least one printing station; b) a transport system defining a transport track for transporting the individual sheets through the printing station, along a transport direction; the transport system comprising a plurality of gripper conveyors running along the transport track for holding the individual sheets during a printing process in the printing station, at least one of the plurality of gripper conveyors comprising a gripper mechanism for gripping a leading edge of one of the individual sheets and at least one of the plurality of gripper conveyors comprising a gripper mechanism for gripping a trailing edge of the individual sheet such that during a printing process an individual sheet can be gripped by at least two gripping conveyors; the transport system further comprising a linear motor being controllable in such a way that movement of each of the gripper conveyors along the transport track is individually controllable, wherein the gripper mechanisms comprise a clamping bar including a first cross member and a second cross member, a relative distance of the cross members being adjustable to clamp the leading edge or the trailing edge of the individual sheet and the cross members having a main extension matching a maximum width of the printing station. a) at least one printing station; b) a transport system defining a transport track for transporting the individual sheets through the printing station, along a transport direction; the transport system comprising a plurality of gripper conveyors running along the transport track for holding the individual sheets during a printing process in the printing station, at least one of the plurality of gripper conveyors comprising a gripper mechanism for gripping a leading edge of one of the individual sheets and at least one of the plurality of gripper conveyors comprising a gripper mechanism for gripping a trailing edge of the individual sheet such that during a printing process an individual sheet can be gripped by at least two gripping conveyors; the transport system further comprising a linear motor being controllable in such a way that movement of each of the gripper conveyors along the transport track is individually controllable, wherein the gripper mechanisms comprise a clamping bar including a first cross member and a second cross member, a relative distance of the cross members being adjustable to clamp the leading edge or the trailing edge of the individual sheet and the cross members having a main extension matching a maximum width of the printing station.
A shower enclosure with at least one shower door including a planar or bent pane , which door is pivotable so as to close or release an entrance opening at least in part, and which is supported by a first holding rod equipped at one end with a floor attachment suitable to rest upon a floor , upon the edge of a shower tray or similar, and at the other end with a wall holding device or a ceiling holding device, wherein the holding rod includes at least two cross beams spaced apart from one another, which each are supported by means of an articulation on this holding rod so as to be pivotable around the longitudinal axis of the holding rod , and are attached by means of a suspension to the pane of the shower door at a distance from the side edge of the pane , characterized in that the first holding rod is arranged in the interior of the shower and is connected to a rail rod extending perpendicular thereto, the rail rod is connected to the holding rod at one end and includes a wall support at the other end. the holding rod includes at least two cross beams spaced apart from one another, which each are supported by means of an articulation on this holding rod so as to be pivotable around the longitudinal axis of the holding rod , and are attached by means of a suspension to the pane of the shower door at a distance from the side edge of the pane , characterized in that the first holding rod is arranged in the interior of the shower and is connected to a rail rod extending perpendicular thereto, the rail rod is connected to the holding rod at one end and includes a wall support at the other end.
Method for maintaining, commissioning and checking systems in warehouses , wherein a service technician has a view of the respective system and makes wireless contact with the controller of the system by means of a mobile computer in order to take over control thereof, whereby the taking over of control by the mobile computer is permitted by a central controller only if the service technician can have visual contact with the corresponding system, for which purpose the determination of the position and/or the orientation of the mobile computer of the service technician with respect to the respective system is effected via optical and/or acoustic recognition of a fingerprint of the system, whereby the acoustic recognition is effected by means of a microphone of the mobile computer which enables the central controller to compare an acoustic fingerprint stored in the central controller with instantaneous acoustic recordings of the normal operating noises of the respective system or, whereby that the optical recognition is effected by means of a camera of the mobile computer which enables the central controller to compare an optical fingerprint stored in the central controller with instantaneous optical recordings of patterns with the respective system itself.
A method for calculating network nodes' contribution to a service, comprising: receiving, by a network server , details of contribution to the service from a plurality of nodes (S310); verifying, by the network server , the received details of contribution to the service (S320); announcing, by the network server , the verified details of contribution to the service (S330); and calculating, by the network server , the contribution to the service of each of the plurality of nodes, by using a block chain including a block including the announced details of contribution to the service issued by the plurality of nodes, wherein the plurality of nodes includes a plurality of gateways that mediate data between an end terminal and the network server , wherein the network server mediates data between end terminals and an application server , wherein the application server provides the service according to data transmitted from the end terminal , wherein owners of the plurality of gateways are different from each other, and characterized in that the contribution to the service of each of the plurality of gateways is calculated and a profit for each of the owners is calculated based on the calculated contribution to the service of each gateway . receiving, by a network server , details of contribution to the service from a plurality of nodes (S310); verifying, by the network server , the received details of contribution to the service (S320); announcing, by the network server , the verified details of contribution to the service (S330); and calculating, by the network server , the contribution to the service of each of the plurality of nodes, by using a block chain including a block including the announced details of contribution to the service issued by the plurality of nodes, wherein the plurality of nodes includes a plurality of gateways that mediate data between an end terminal and the network server , wherein the network server mediates data between end terminals and an application server , wherein the application server provides the service according to data transmitted from the end terminal , wherein owners of the plurality of gateways are different from each other, and characterized in that the contribution to the service of each of the plurality of gateways is calculated and a profit for each of the owners is calculated based on the calculated contribution to the service of each gateway .