mhurhangee/patent-ind-claim-en huggingface dataset:
Network management entity for a communication network , wherein the network management entity comprises: a processor configured to operate a network slice in the communication network , wherein the network slice is configured to allow a first communication device to communicate via the network slice and to provide the first communication device with further resources of the network slice ; and a communication interface configured to receive a position signal from a detection device, wherein the position signal displays a position of a second mobile communication device ; characterized in that the processor is further configured to incorporate the second mobile communication device into the network slice in order to provide the network slice with at least one resource of the second mobile communication device if the detected position of the second mobile communication device falls into a defined position range ; and wherein the processor is further configured to use the communication interface to enable an application on the second mobile communication device and wherein the application provides at least some of the resource of the second mobile communication device . a processor configured to operate a network slice in the communication network , wherein the network slice is configured to allow a first communication device to communicate via the network slice and to provide the first communication device with further resources of the network slice ; and a communication interface configured to receive a position signal from a detection device, wherein the position signal displays a position of a second mobile communication device ; characterized in that the processor is further configured to incorporate the second mobile communication device into the network slice in order to provide the network slice with at least one resource of the second mobile communication device if the detected position of the second mobile communication device falls into a defined position range ; and wherein the processor is further configured to use the communication interface to enable an application on the second mobile communication device and wherein the application provides at least some of the resource of the second mobile communication device .
An apparatus comprising: means for transmitting, at a first Central Unit-Control Plane, CU-CP , of a first Integrated Access and Backhaul, IAB, donor to a second CU-CP of a second IAB donor , a request to transfer target traffic via a Distributed Unit, DU , of the second IAB donor , the request comprising first information of the target traffic, wherein the first information comprises at least one of: a traffic type indicating whether the target traffic comprises user plane traffic or control plane traffic, or a Quality of Service parameter for the target traffic; and means for receiving, from the second CU-CP , second information to be used for configuring the target traffic to be routed via the DU of the second IAB donor, wherein the second information, determined by the second CU-CP , is based on the first information means for transmitting, at a first Central Unit-Control Plane, CU-CP , of a first Integrated Access and Backhaul, IAB, donor to a second CU-CP of a second IAB donor , a request to transfer target traffic via a Distributed Unit, DU , of the second IAB donor , the request comprising first information of the target traffic, wherein the first information comprises at least one of: a traffic type indicating whether the target traffic comprises user plane traffic or control plane traffic, or a Quality of Service parameter for the target traffic; and means for receiving, from the second CU-CP , second information to be used for configuring the target traffic to be routed via the DU of the second IAB donor, wherein the second information, determined by the second CU-CP , is based on the first information
A light unit , comprising an array or grid of light sources , preferably LED-based light sources , disposed on a support structure , and wherein the support structure is provided with a protective cover over the light sources , and characterized in that the protective cover includes spaces such that the light sources are directly visible to a viewer without having light diffused through the cover . an array or grid of light sources , preferably LED-based light sources , disposed on a support structure , and wherein the support structure is provided with a protective cover over the light sources , and characterized in that the protective cover includes spaces such that the light sources are directly visible to a viewer without having light diffused through the cover .
An edge bending method of a steel plate (S) using an edge bending apparatus of a steel plate comprising: a pair of dies configured to be arranged corresponding to a widthwise edge (Sc, Sd) of a steel plate (S); an actuator configured to clamp the pair of dies with a predetermined pressing force; and a conveyance mechanism configured to convey the steel plate (S) in a direction along a longitudinal direction of the steel plate (S) as a conveyance direction , in which the widthwise edge (Sc, Sd) of the steel plate (S) is subjected to edge bending across an entire length by performing bending of the widthwise edge (Sc, Sd) of the steel plate (S) several times by the pair of dies while the steel plate (S) is intermittently conveyed by the conveyance mechanism , characterized in that one of the pair of dies that contacts a surface positioned at the outer side of bending of the widthwise edge (Sc, Sd) of the steel plate (S) comprises a flat part that contacts the surface positioned at the outer side of bending, wherein the flat part indicates a portion that is extended linearly along the conveyance direction , and a transition part formed of a curved surface provided adjacent to the flat part at least on a delivery side in the conveyance direction , and the flat part and the transition part are connected to have a common tangent line. a pair of dies configured to be arranged corresponding to a widthwise edge (Sc, Sd) of a steel plate (S); an actuator configured to clamp the pair of dies with a predetermined pressing force; and a conveyance mechanism configured to convey the steel plate (S) in a direction along a longitudinal direction of the steel plate (S) as a conveyance direction , in which the widthwise edge (Sc, Sd) of the steel plate (S) is subjected to edge bending across an entire length by performing bending of the widthwise edge (Sc, Sd) of the steel plate (S) several times by the pair of dies while the steel plate (S) is intermittently conveyed by the conveyance mechanism , characterized in that one of the pair of dies that contacts a surface positioned at the outer side of bending of the widthwise edge (Sc, Sd) of the steel plate (S) comprises a flat part that contacts the surface positioned at the outer side of bending, wherein the flat part indicates a portion that is extended linearly along the conveyance direction , and a transition part formed of a curved surface provided adjacent to the flat part at least on a delivery side in the conveyance direction , and the flat part and the transition part are connected to have a common tangent line.
A method of evaluating the suitability of an immune effector cell population for use in a CAR therapy, comprising (i) providing an immune effector cell population from a pediatric subject having a leukemia, wherein the immune effector cell population is acquired before the subject has been administered cyclophosphamide and/or cytarabine; and (ii) evaluating said population for the presence of at least 20% naive T cells, at least 2% stem central memory T cells, and/or at least 4% central memory T cells, wherein the presence of at least 20% naive T cells, at least 2% stem central memory T cells, and/or at least 4% central memory T cells is indicative of the suitability of the immune effector cell population for use in CAR therapy. (i) providing an immune effector cell population from a pediatric subject having a leukemia, wherein the immune effector cell population is acquired before the subject has been administered cyclophosphamide and/or cytarabine; and (ii) evaluating said population for the presence of at least 20% naive T cells, at least 2% stem central memory T cells, and/or at least 4% central memory T cells, wherein the presence of at least 20% naive T cells, at least 2% stem central memory T cells, and/or at least 4% central memory T cells is indicative of the suitability of the immune effector cell population for use in CAR therapy.
A trailer braking system, comprising: a vehicle having a continuously-variable hydrostatic transmission ; a trailer coupled for towing by the vehicle, the trailer having two or more wheels with trailer brakes operable from the vehicle; the system including a first pressure sensor arranged to measure a fluid pressure (PH, PSYS) at a predetermined point (UHC) within the transmission, and a rotation sensor arranged to determine a rotation direction of a predetermined component in a driveline of the vehicle; the system further comprising an electronic control unit (ECU 26) coupled to the first pressure sensor and to the rotation sensor , characterized in the ECU being configured to determine, based on respective output signals from the first pressure sensor and the rotation sensor , whether a PUSH condition exists in dependence a particular combination of fluid pressure at the predetermined point within the transmission and rotational direction of the predetermined component within the driveline of the vehicle, and further configured to operate the trailer brakes in response to a determination that a PUSH condition exists. a vehicle having a continuously-variable hydrostatic transmission ; a trailer coupled for towing by the vehicle, the trailer having two or more wheels with trailer brakes operable from the vehicle; the system including a first pressure sensor arranged to measure a fluid pressure (PH, PSYS) at a predetermined point (UHC) within the transmission, and a rotation sensor arranged to determine a rotation direction of a predetermined component in a driveline of the vehicle; the system further comprising an electronic control unit (ECU 26) coupled to the first pressure sensor and to the rotation sensor , characterized in the ECU being configured to determine, based on respective output signals from the first pressure sensor and the rotation sensor , whether a PUSH condition exists in dependence a particular combination of fluid pressure at the predetermined point within the transmission and rotational direction of the predetermined component within the driveline of the vehicle, and further configured to operate the trailer brakes in response to a determination that a PUSH condition exists.
An expandable, intervertebral spacer , comprising: a top component ; and a base component in engagement with the top component, the base component defining at least one channel for receiving a hardening material, wherein placement of the hardening material within the channel causes the top component to move between a first position in which the top component is a first distance from the base component and a second position in which the top component is a second distance from the base component, the second distance being greater than the first distance, and wherein the base component includes an injection port in fluid communication with the at least one channel, the spacer being characterized by further comprising a removable locking mechanism engageable with the injection port, the locking mechanism being a plug made from a material that does not adhere to the hardening material. a top component ; and a base component in engagement with the top component, the base component defining at least one channel for receiving a hardening material, wherein placement of the hardening material within the channel causes the top component to move between a first position in which the top component is a first distance from the base component and a second position in which the top component is a second distance from the base component, the second distance being greater than the first distance, and wherein the base component includes an injection port in fluid communication with the at least one channel, the spacer being characterized by further comprising a removable locking mechanism engageable with the injection port, the locking mechanism being a plug made from a material that does not adhere to the hardening material.
Spur gear transmission having at least two toothed spur gears , the toothings of which are in meshing engagement with one another and which are each rotatable about an axis of rotation ; 1.1 having an enveloping wall which encloses the two spur gears in a circumferential direction and in the direction of the axes of rotation ; wherein 1.2 the enveloping wall has an inner contour which is adapted to the outer diameters of the spur gears such that, between the enveloping wall and the spur gears , there are formed two ring-shaped gaps which transition into one another, wherein in each case one ring-shaped gap is arranged concentrically with respect to in each case one axis of rotation ; 1.3 the enveloping wall is formed by a multi-part housing which is closed along a parting joint , wherein the parting joint extends partially or entirely substantially within a plane in which one of the two axes of rotation runs or both axes of rotation run, characterized in that 1.4 the housing comprises an upper part and a lower part which are detachably joined to one another along the parting joint , wherein multiple individual housing parts (39.1, 39.2) of the lower part are detachably attached to the upper part , and the individual housing parts (39.1, 39.2) jointly form the lower part ; and 1.5 the spur gear transmission has a transmission housing which has an interior space , and the spur gears are positioned together with the enveloping wall in the interior space , wherein the enveloping wall is mounted in the transmission housing by means of individual locally delimited bearing points (40.1 - 40.7). 1.1 having an enveloping wall which encloses the two spur gears in a circumferential direction and in the direction of the axes of rotation ; wherein 1.2 the enveloping wall has an inner contour which is adapted to the outer diameters of the spur gears such that, between the enveloping wall and the spur gears , there are formed two ring-shaped gaps which transition into one another, wherein in each case one ring-shaped gap is arranged concentrically with respect to in each case one axis of rotation ; 1.3 the enveloping wall is formed by a multi-part housing which is closed along a parting joint , wherein the parting joint extends partially or entirely substantially within a plane in which one of the two axes of rotation runs or both axes of rotation run, characterized in that 1.4 the housing comprises an upper part and a lower part which are detachably joined to one another along the parting joint , wherein multiple individual housing parts (39.1, 39.2) of the lower part are detachably attached to the upper part , and the individual housing parts (39.1, 39.2) jointly form the lower part ; and 1.5 the spur gear transmission has a transmission housing which has an interior space , and the spur gears are positioned together with the enveloping wall in the interior space , wherein the enveloping wall is mounted in the transmission housing by means of individual locally delimited bearing points (40.1 - 40.7).
An IV access device comprising: a catheter adapter from which a catheter extends distally; an extension tube coupled to the catheter adapter ; a needle hub from which a needle extends distally, the needle hub being coupled to the catheter adapter such that the needle extends through the catheter , the needle hub including a flash chamber , a proximal end of the needle forming a fluid pathway for blood to flow into the flash chamber , wherein the flash chamber comprises a path-defining structure (210c; 800; 900) forming a path that commences from an opening (801; 901) in a distal end of the path-defining structure (210c; 800; 900) and wraps around the distal end of the path-defining structure (210c; 800; 900) prior to extending proximally along an outer surface of the path-defining structure (210c; 800; 900), wherein a porous material is located with the path-defining structure, wherein the porous material vents air while also wicking blood. a catheter adapter from which a catheter extends distally; an extension tube coupled to the catheter adapter ; a needle hub from which a needle extends distally, the needle hub being coupled to the catheter adapter such that the needle extends through the catheter , the needle hub including a flash chamber , a proximal end of the needle forming a fluid pathway for blood to flow into the flash chamber , wherein the flash chamber comprises a path-defining structure (210c; 800; 900) forming a path that commences from an opening (801; 901) in a distal end of the path-defining structure (210c; 800; 900) and wraps around the distal end of the path-defining structure (210c; 800; 900) prior to extending proximally along an outer surface of the path-defining structure (210c; 800; 900), wherein a porous material is located with the path-defining structure, wherein the porous material vents air while also wicking blood.
A thermosetting biophotonic composition comprising a block copolymer at a concentration of more than 20% weight per volume of the composition, the block copolymer comprising at least one sequence of polyethylene glycol-propylene glycol (PEG-PPG), polyethylene glycol-poly(lactic acid) (PEG-PLA) or polyethylene glycol-poly(ε-caprolactone) (PEG-PCL), and at least one xanthene dye selected from Eosin Y, Erythrosine B, Fluorescein, Rose Bengal and Phloxin B, solubilized within the block copolymer, the at least xanthene dye being from 0.001 % to 3% per weight of the composition, the thermosetting biophotonic composition being in liquid form at 22°C and thermosetting on exposure of heat.
A control system of an internal combustion engine using as a fuel a first fuel of ammonia and a second fuel which is easier to burn than ammonia and feeding these two types of fuel into a combustion chamber to burn, wherein a reference ammonia ratio (RA) indicating a ratio of an amount of ammonia fed to a total amount of fuels fed is set in advance in accordance with an operating state of the engine , an exhaust purification catalyst able to remove N 2 O is arranged in an engine exhaust passage, an air-fuel ratio sensor is arranged downstream of the exhaust purification catalyst , when feed of the fuels is restarted after feed of the fuels is suspended at the time of deceleration, the combustion air-fuel ratio ((A/F)g) is made the stoichiometric air-fuel ratio, and the ammonia ratio is temporarily made lower than the reference ammonia ratio (RA) in accordance with the operating state of the engine during the time in which the air-fuel ratio ((A/F)c) detected by the air-fuel ratio sensor is lean after feed of the fuels is restarted.
A near field communication, NFC, ring , comprising a processing unit and one or more rotatable components , wherein said processing unit is configured to perform one or more predefined functions in response to one or more predefined rotations of said components , wherein one of said components is an outer portion of said NFC ring , said outer portion being arranged to rotate with respect to an inner portion of said NFC ring , wherein the processing unit is configured to determine an angle of rotation between the outer portion and the inner portion , and to select one or more functions in dependence on said angle, characterized in that said angle of rotation falls within an angle range associated with said one or more functions.
A method for blast or impact mitigation, comprising: collectively choosing an elastic layer having an acoustic impedance and a viscoelastic dissipative layer having a critical damping frequency, wherein the elastic layer and the dissipative layer are collectively chosen to tune stress waves resulting from the blast or impact to one or more specific tuned frequencies that match the critical damping frequency of the dissipative layer, wherein the tuning is achieved in that the dissipative layer vibrates with the elastic layer as a mass-spring system; and placing the dissipative layer proximate to the elastic layer and bonding the dissipative layer to the elastic layer . collectively choosing an elastic layer having an acoustic impedance and a viscoelastic dissipative layer having a critical damping frequency, wherein the elastic layer and the dissipative layer are collectively chosen to tune stress waves resulting from the blast or impact to one or more specific tuned frequencies that match the critical damping frequency of the dissipative layer, wherein the tuning is achieved in that the dissipative layer vibrates with the elastic layer as a mass-spring system; and placing the dissipative layer proximate to the elastic layer and bonding the dissipative layer to the elastic layer .
A physical downlink control channel, PDCCH, monitoring method, performed by a terminal device , the method comprising: receiving (S101) group common physical downlink control channel, GC-PDCCH, information, wherein the GC-PDCCH information comprises first indication information, the first indication information is used to indicate a time domain location for PDCCH monitoring, and the time domain location comprises a first set of one or more symbol locations wherein the PDCCH monitoring is to be performed; performing (S102) the PDCCH monitoring based on the time domain location indicated by the first indication information and a preconfigured time domain location; the preconfigured time domain location being indicated, to the terminal device , by higher layer signalling and comprising a second set of one or more symbol locations wherein the PDCCH monitoring is to be performed; wherein an intersection of the time domain location indicated by the first indication information and the preconfigured time domain location is obtained, and the PDCCH monitoring is performed based on a time domain location obtained from the intersection. receiving (S101) group common physical downlink control channel, GC-PDCCH, information, wherein the GC-PDCCH information comprises first indication information, the first indication information is used to indicate a time domain location for PDCCH monitoring, and the time domain location comprises a first set of one or more symbol locations wherein the PDCCH monitoring is to be performed; performing (S102) the PDCCH monitoring based on the time domain location indicated by the first indication information and a preconfigured time domain location; the preconfigured time domain location being indicated, to the terminal device , by higher layer signalling and comprising a second set of one or more symbol locations wherein the PDCCH monitoring is to be performed; wherein an intersection of the time domain location indicated by the first indication information and the preconfigured time domain location is obtained, and the PDCCH monitoring is performed based on a time domain location obtained from the intersection.
A hairdryer comprising a body a fluid flow path extending through the body in an axial direction from a first fluid inlet through which a first fluid flow enters the hairdryer to a first fluid outlet for emitting the first fluid flow from the hairdryer, a primary fluid flow path extending from a second fluid inlet through which a primary fluid flow enters the hairdryer to a second fluid outlet (40b, 242,), wherein a section of the primary fluid flow path extends through the body in the axial direction and surrounds the fluid flow path, and a heater located within the section of the primary fluid flow path for heating fluid passing through the primary fluid flow path, and wherein the heater has a length extending in the axial direction characterised in that the heater is annular in shape.