mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid management system , comprising: a fluid pump capable of generating a pulsatile flow of fluid; a fluid pathway for transporting the pulsatile flow of fluid from a fluid source through the fluid pump to a medical device; a dampening element in fluid communication with the fluid pathway, the dampening element comprising one or more barrels , each barrel including a movable seal member disposed within the barrel and a biasing member disposed within the barrel and engaged with the movable seal member, the dampening element being responsive to pressure fluctuations of the pulsatile fluid flow to actively dampen the pressure fluctuations and smoothen the pulsatile fluid flow; a fluid flow sensor disposed along the fluid pathway between the dampening element and the medical device to measure a flow rate of the smoothened pulsatile fluid flow; and a controller operatively connected to and/or in communication with the fluid flow sensor and the fluid pump ; characterized in that the fluid flow sensor is a flow sensor for measuring a flow rate of the smoothened pulsatile fluid flow in both flow directions of the fluid pathway. a fluid pump capable of generating a pulsatile flow of fluid; a fluid pathway for transporting the pulsatile flow of fluid from a fluid source through the fluid pump to a medical device; a dampening element in fluid communication with the fluid pathway, the dampening element comprising one or more barrels , each barrel including a movable seal member disposed within the barrel and a biasing member disposed within the barrel and engaged with the movable seal member, the dampening element being responsive to pressure fluctuations of the pulsatile fluid flow to actively dampen the pressure fluctuations and smoothen the pulsatile fluid flow; a fluid flow sensor disposed along the fluid pathway between the dampening element and the medical device to measure a flow rate of the smoothened pulsatile fluid flow; and a controller operatively connected to and/or in communication with the fluid flow sensor and the fluid pump ; characterized in that the fluid flow sensor is a flow sensor for measuring a flow rate of the smoothened pulsatile fluid flow in both flow directions of the fluid pathway.
A method of wireless communication of a user equipment, UE , comprising: receiving a request from a base station for information associated with downgraded band combinations and for information corresponding to at least one UE capability associated with each of the downgraded band combinations; and sending , to the base station , information indicating the downgraded band combinations and the at least one UE capability; wherein the downgraded band combinations are associated with one or more band combinations of a first set of band combinations; and wherein the downgraded band combinations are band combinations that support the at least one UE capability and a downgrade of at least one other UE capability. receiving a request from a base station for information associated with downgraded band combinations and for information corresponding to at least one UE capability associated with each of the downgraded band combinations; and sending , to the base station , information indicating the downgraded band combinations and the at least one UE capability; wherein the downgraded band combinations are associated with one or more band combinations of a first set of band combinations; and wherein the downgraded band combinations are band combinations that support the at least one UE capability and a downgrade of at least one other UE capability.
A picking system having: a rack warehouse having a plurality of racks , each configured to receive storage units , the racks comprising a plurality of vertical planes; at least one conveyor system which is configured in a rack aisle arranged between the racks , characterised in that each conveyor system is associated with at least one picking zone and wherein each conveyor system is configured to convey storage units from an adjacent rack along the rack aisle to the respective picking zone and back, wherein the conveyor system is configured to convey storage units horizontally along the planes, wherein the conveyor system comprises a plurality of conveying devices, wherein each conveying device is arranged in each plane and wherein the conveying devices are configured independently of one another to convey storage units horizontally along the respective planes to the respective picking zone; a transport system configured to transport transport units to and from each of the picking zones; and at least one manipulator , preferably a multi-axis articulated arm robot, the manipulator being configured to remove an article from the storage unit in one of the picking zones and to transfer the article into a transport unit in the same picking zone, the manipulator being configured to remove articles from storage units in different vertical positions in the picking zone. a rack warehouse having a plurality of racks , each configured to receive storage units , the racks comprising a plurality of vertical planes; at least one conveyor system which is configured in a rack aisle arranged between the racks , characterised in that each conveyor system is associated with at least one picking zone and wherein each conveyor system is configured to convey storage units from an adjacent rack along the rack aisle to the respective picking zone and back, wherein the conveyor system is configured to convey storage units horizontally along the planes, wherein the conveyor system comprises a plurality of conveying devices, wherein each conveying device is arranged in each plane and wherein the conveying devices are configured independently of one another to convey storage units horizontally along the respective planes to the respective picking zone; a transport system configured to transport transport units to and from each of the picking zones; and at least one manipulator , preferably a multi-axis articulated arm robot, the manipulator being configured to remove an article from the storage unit in one of the picking zones and to transfer the article into a transport unit in the same picking zone, the manipulator being configured to remove articles from storage units in different vertical positions in the picking zone.
A cooking attachment for a heatable vessel of a kitchen appliance , which cooking attachment has a bottom comprising at least one bottom opening , through which from the cooking attachment leaking condensate can enter into the vessel , wherein the bottom is at least partially inclined in the direction of the vessel , based on a horizontal plane of the kitchen appliance , which stands on a horizontal work area, wherein further the bottom opening as a condensate opening for the escape of condensate from the cooking attachment into the vessel , is arranged in a lowermost partial area of the inclined bottom , with regard to a vertical direction, characterized in that the lowermost partial area of the inclined bottom is embodied in a central area of the bottom and that the bottom is embodied overall funnel-shaped.
A method performed by a computing device comprising a central processing unit, CPU, comprising physical processors, PPs, , the method comprising: executing a hypervisor comprising a first kernel , and executing an operating system comprising a second kernel , wherein the operating system and the second kernel execute in a scheduling virtual machine , VM, comprising a corresponding scheduling virtual processor, VP; managing by the first kernel, scheduled VMs comprising respective scheduled virtual processors the managing comprising maintaining physical processor states of the respective scheduled VPs and swapping the physical processor states in and out of the PPs, the physical processor states being stored in the hypervisor, wherein the scheduled VPs do not include the scheduling VP; and scheduling the scheduled VPs to execute on the PPs, wherein the scheduling is performed by the scheduling VP executing the second kernel in the scheduling VM , wherein when the scheduling by the second kernel determines to execute a given scheduled VP, the second kernel identifies the given scheduled VP to the hypervisor and based thereon the first kernel performs a processor context switch on a PP for the given scheduled VP, the processor context switch performed using the physical processor state corresponding to the identified given scheduled VP. executing a hypervisor comprising a first kernel , and executing an operating system comprising a second kernel , wherein the operating system and the second kernel execute in a scheduling virtual machine , VM, comprising a corresponding scheduling virtual processor, VP; managing by the first kernel, scheduled VMs comprising respective scheduled virtual processors the managing comprising maintaining physical processor states of the respective scheduled VPs and swapping the physical processor states in and out of the PPs, the physical processor states being stored in the hypervisor, wherein the scheduled VPs do not include the scheduling VP; and scheduling the scheduled VPs to execute on the PPs, wherein the scheduling is performed by the scheduling VP executing the second kernel in the scheduling VM , wherein when the scheduling by the second kernel determines to execute a given scheduled VP, the second kernel identifies the given scheduled VP to the hypervisor and based thereon the first kernel performs a processor context switch on a PP for the given scheduled VP, the processor context switch performed using the physical processor state corresponding to the identified given scheduled VP.
Gas spring device for a chair, in particular a rotating chair, an office chair or a high chair, comprising: a gas spring arrangement , a first tubular element that is embodied from an electrically-conductive material in which the gas spring arrangement is received, a second tubular element that is embodied from an electrically-conductive material, wherein the second tubular element comprises a guiding device in which the first tubular element is received, wherein the guiding device is not electrically conductive or is only slightly conductive; a third tubular element that is embodied from electrically conductive material, which comprises a mounting arrangement , in particular that is embodied from an electrically non-conductive material or from an only slightly conductive material, for mounting the second tubular element , wherein the guiding device is provided with at least one first connecting element , which is embodied from an electrically conductive material, in such a manner that the first connecting element is in contact with the first tubular element and with the second tubular element , and wherein a second connecting element that is embodied from an electrically-conductive material is provided between the second tubular element and the third tubular element so as to bridge the mounting arrangement and to provide an electrically-conductive connection between the second tubular element and the third tubular element . a gas spring arrangement , a first tubular element that is embodied from an electrically-conductive material in which the gas spring arrangement is received, a second tubular element that is embodied from an electrically-conductive material, wherein the second tubular element comprises a guiding device in which the first tubular element is received, wherein the guiding device is not electrically conductive or is only slightly conductive; a third tubular element that is embodied from electrically conductive material, which comprises a mounting arrangement , in particular that is embodied from an electrically non-conductive material or from an only slightly conductive material, for mounting the second tubular element , wherein the guiding device is provided with at least one first connecting element , which is embodied from an electrically conductive material, in such a manner that the first connecting element is in contact with the first tubular element and with the second tubular element , and wherein a second connecting element that is embodied from an electrically-conductive material is provided between the second tubular element and the third tubular element so as to bridge the mounting arrangement and to provide an electrically-conductive connection between the second tubular element and the third tubular element .
Assembly with a plurality of light emitting diodes which are arranged on the assembly spaced by interspaces, wherein the interspaces between the light emitting diodes comprise a fire-proof or non-flammable material, wherein a front panel is present which comprises a fire-proof or non-flammable material, and wherein the light emitting diodes are arranged on a first surface , characterized in that the front panel is a front panel made from an optically transparent fire-proof material which lies over the light emitting diodes and that the heat-resistant or fire-proof or non-inflammable material is installed on the first surface in the form of a second surface , where the second surface, which is not transparent or not sufficiently transparent for the light emitted by the light emitting diodes, comprises a plurality of recesses which are arranged in the second surface such that the light emitted by the light emitting diodes, at least in the direction of a surface normal, is not inhibited from being irradiated by the second surface.
A steering control device configured to control a steering system with a structure in which a power transmission path between a steering unit and a turning unit that turns turning wheels according to steering input to the steering unit is cut off, the steering control device comprising: an electronic control unit configured to calculate a target reaction torque (Ts*) that is a target value of a steering reaction force that is a force against the steering input to the steering unit and to control operation of a steering-side motor that is provided in the steering unit such that a motor torque corresponding to the target reaction torque is generated, wherein the electronic control unit is configured to calculate an angle axial force (Fib), as an axial component based on an axial force acting on a turning shaft that operates to turn the turning wheels , the angle axial force (Fib) being an axial force in which road-surface information is not reflected, and the angle axial force being determined according to an angle (θt) convertible to a turning angle of the turning wheels , characterized in that the electronic control unit is configured to perform a guard process such that the angle axial force is not excessive. an electronic control unit configured to calculate a target reaction torque (Ts*) that is a target value of a steering reaction force that is a force against the steering input to the steering unit and to control operation of a steering-side motor that is provided in the steering unit such that a motor torque corresponding to the target reaction torque is generated, wherein the electronic control unit is configured to calculate an angle axial force (Fib), as an axial component based on an axial force acting on a turning shaft that operates to turn the turning wheels , the angle axial force (Fib) being an axial force in which road-surface information is not reflected, and the angle axial force being determined according to an angle (θt) convertible to a turning angle of the turning wheels , characterized in that the electronic control unit is configured to perform a guard process such that the angle axial force is not excessive.
Two metal members joined by a fillet arc welded joint formed by fillet arc welding a metal member and another metal member, the fillet arc welded joint comprising: at least one stiffening bead formed by arc welding on a surface of at least one of the metal members in addition to a fillet bead formed by the fillet arc welding, wherein the stiffening bead is formed in a direction crossing the fillet bead to have an angle of 45° to 135° with respect to the fillet bead and to overlap with the fillet bead, characterised in that the stiffening bead is formed to satisfy conditions (a1), (b), and (c) below: (a1) Sum total 1 of lengths of stiffening beads ≧ L × 0.5 , (b) Height h of the stiffening beads ≧ t/2 , and (c) Width w of the stiffening beads ≧ 2.5t, wherein L is length in millimetres of the fillet bead, and t is thickness in millimetres of the metal member on which the stiffening bead is formed, wherein the Height h of the stiffening bead refers to the distance in a height direction between the surface of the metal member on which the stiffening bead is formed and the highest position of the stiffening bead formed on the metal member, wherein the surface of the metal member is an area where no stiffening bead is formed. at least one stiffening bead formed by arc welding on a surface of at least one of the metal members in addition to a fillet bead formed by the fillet arc welding, wherein the stiffening bead is formed in a direction crossing the fillet bead to have an angle of 45° to 135° with respect to the fillet bead and to overlap with the fillet bead, characterised in that the stiffening bead is formed to satisfy conditions (a1), (b), and (c) below: (a1) Sum total 1 of lengths of stiffening beads ≧ L × 0.5 , (b) Height h of the stiffening beads ≧ t/2 , and (c) Width w of the stiffening beads ≧ 2.5t, wherein (a1) Sum total 1 of lengths of stiffening beads ≧ L × 0.5 , (b) Height h of the stiffening beads ≧ t/2 , and (c) Width w of the stiffening beads ≧ 2.5t, wherein L is length in millimetres of the fillet bead, and t is thickness in millimetres of the metal member on which the stiffening bead is formed, wherein the Height h of the stiffening bead refers to the distance in a height direction between the surface of the metal member on which the stiffening bead is formed and the highest position of the stiffening bead formed on the metal member, wherein the surface of the metal member is an area where no stiffening bead is formed.
A makeup brush , comprising a bristle head and a brush handle , wherein the bristle head is a combination of a brush head and a bristle sheet , and the bristle sheet is tightly bonded to an outer root of the brush head a height of the bristle sheet is less than that of an edge of the brush head ; the bristle sheet comprises a first bristle sheet layer and a second bristle sheet layer ; and a height of the second bristle sheet layer is greater than that of the first bristle sheet layer ; characterized in that the first bristle sheet layer abuts against the brush head and has a hardness greater than that of a bristle of the brush head ; the second bristle sheet layer is provided on an outer side of the first bristle sheet layer and has a hardness smaller than that of the bristle of the brush head . and a height of the second bristle sheet layer is greater than that of the first bristle sheet layer ; characterized in that the first bristle sheet layer abuts against the brush head and has a hardness greater than that of a bristle of the brush head ; the second bristle sheet layer is provided on an outer side of the first bristle sheet layer and has a hardness smaller than that of the bristle of the brush head .
A process for the production of ethylene by oxidative dehydrogenation of ethane, comprising: a) supplying ethane and oxygen to a first oxidative dehydrogenation zone which is formed by multiple reactor tubes containing a catalyst bed containing an oxidative dehydrogenation catalyst which is a mixed metal oxide catalyst; b) contacting the ethane and oxygen with the catalyst in the multiple reactor tubes in the first oxidative dehydrogenation zone resulting in multiple effluent streams, wherein the multiple reactor tubes are cooled by a coolant; c) mixing at least a portion of the multiple effluent streams from step b) resulting in a mixture comprising ethylene, unconverted ethane, unconverted oxygen, carbon dioxide, carbon monoxide and acetylene; d) supplying at least a portion of the mixture from step c) to a second oxidative dehydrogenation zone containing a catalyst bed containing an oxidative dehydrogenation catalyst which is a mixed metal oxide catalyst; e) contacting at least a portion of the mixture from step c) with the catalyst in the second oxidative dehydrogenation zone resulting in a stream comprising ethylene, unconverted ethane, carbon dioxide, carbon monoxide and acetylene; f) separating at least a portion of the stream resulting from step e) into a stream comprising carbon monoxide and a stream comprising ethylene, unconverted ethane and acetylene; g) subjecting at least a portion of the stream comprising ethylene, unconverted ethane and acetylene resulting from step f) to acetylene hydrogenation resulting in a stream comprising ethylene and unconverted ethane. a) supplying ethane and oxygen to a first oxidative dehydrogenation zone which is formed by multiple reactor tubes containing a catalyst bed containing an oxidative dehydrogenation catalyst which is a mixed metal oxide catalyst; b) contacting the ethane and oxygen with the catalyst in the multiple reactor tubes in the first oxidative dehydrogenation zone resulting in multiple effluent streams, wherein the multiple reactor tubes are cooled by a coolant; c) mixing at least a portion of the multiple effluent streams from step b) resulting in a mixture comprising ethylene, unconverted ethane, unconverted oxygen, carbon dioxide, carbon monoxide and acetylene; d) supplying at least a portion of the mixture from step c) to a second oxidative dehydrogenation zone containing a catalyst bed containing an oxidative dehydrogenation catalyst which is a mixed metal oxide catalyst; e) contacting at least a portion of the mixture from step c) with the catalyst in the second oxidative dehydrogenation zone resulting in a stream comprising ethylene, unconverted ethane, carbon dioxide, carbon monoxide and acetylene; f) separating at least a portion of the stream resulting from step e) into a stream comprising carbon monoxide and a stream comprising ethylene, unconverted ethane and acetylene; g) subjecting at least a portion of the stream comprising ethylene, unconverted ethane and acetylene resulting from step f) to acetylene hydrogenation resulting in a stream comprising ethylene and unconverted ethane.
Osteosynthesis device with a bone plate and with at least one bone screw , wherein the bone plate has at least one through-hole with a conical inner thread formed at least in part in the through-hole , the bone screw moreover has a screw shank and also a screw head with a conical thread, with the possibility of forming a connection at a variable and stable angle between the bone screw and the bone plate by receiving the screw head with the conical outer thread in the respective through-hole of the bone plate , wherein the thread in the screw head has a first portion (A) with a first conicity and a second portion (B) with a second conicity, wherein between the first portion (A) and the second portion (B) there is a point of discontinuity (US) with regard to the conicity, characterized in that the inner thread in the respective through-hole of the bone plate has a plurality of clearances in the form of thread-free recesses which are distributed around the circumference and which are directed towards the bone plate upper side or towards the screw-in side, wherein the inner thread in the respective through-hole of the bone plate is designed to be free of interruptions in the region of the bone plate lower side.