mhurhangee/patent-ind-claim-en huggingface dataset:
A drill bit suitable for use in drilling into masonry or rock, comprising a drilling head at a forward end of the drill bit, a clamping shank at a rearward end of the drill bit suitable for fitment within a tool, and a helical conveying portion extending between the drilling head and the clamping shank , wherein the helical conveying portion comprises at least four helically extending flutes separated by at least four corresponding helically extending webs ; wherein the helical conveying portion comprises a changeover , a pre-changeover portion between the drilling head and the changeover , and a post-changeover portion between the changeover and the clamping shank ; wherein in the pre-changeover portion the flutes have a pre-changeover pitch , at least the first and third webs have a first pre-changeover web width α and at least the second and fourth webs have a second pre-changeover web width α', and in the post-changeover portion the flutes have a post-changeover pitch , at least the first and third webs have a first post-changeover web width β and at least the second and fourth webs have a second post-changeover web width β'; and wherein the second post-changeover web width β' is greater than the second pre-changeover web width α'; characterised in that the post-changeover pitch is greater than the pre-changeover pitch and the first post-changeover web width β is less than the first pre-changeover web width α.
A lighting control analyzer for determining occupancy behavior in an area arranged to be at least partly illuminated by at least one lighting device (120a-c) controllable by a lighting controller , the lighting control analyzer being adapted to: receive light settings (d) for control of the at least one lighting device, the light settings being determined by the lighting controller using a lighting control strategy for said area, wherein the lighting control strategy represents a desired illumination of at least part of said area, based on presence information associated with at least one location in said area; and determine the occupancy behavior, based on the light settings and the lighting control strategy, characterised in that said determination is based on said light settings for a plurality of time instants, in that said light settings correspond to dimming levels from at least one dimmer associated with said at least one lighting device, and in that occupancy behavior comprises normal/common locations of occupants in the area, how often different locations in the area are occupied and/or locations at which occupants normally enter/exit the area. receive light settings (d) for control of the at least one lighting device, the light settings being determined by the lighting controller using a lighting control strategy for said area, wherein the lighting control strategy represents a desired illumination of at least part of said area, based on presence information associated with at least one location in said area; and determine the occupancy behavior, based on the light settings and the lighting control strategy,
A projector , comprising: a projection unit configured to project an image on a screen ; an angle detector configured to detect an inclination angle of the projection unit ; and a trapezoidal distortion correction unit configured to conduct automatic trapezoidal distortion correction of the image projected on the screen based on an inclination angle of the projection unit detected by the angle detector , and to conduct manual trapezoidal distortion correction of the image projected on the screen by a manual operation of a user, wherein the trapezoidal distortion correction unit is configured to determine an angle of correction based on an inclination angle detected by said angle detector , and to conduct automatic trapezoidal correction using the angle of correction; characterized in that the trapezoidal distortion correction unit is further configured to receive adjustment of said angle of correction by manual operation of a user, and to conduct manual trapezoidal distortion correction using the adjusted angle of correction, and in that the trapezoidal distortion correction unit is further configured to determine, after a given time period has elapsed, whether an angle deviation between an inclination angle of the projection unit detected by the angle detector after the given time period has elapsed and said adjusted angle of correction, exceeding a given threshold angle has occurred, and if such an angle deviation has occurred, conduct the automatic trapezoidal distortion correction again.. a projection unit configured to project an image on a screen ; an angle detector configured to detect an inclination angle of the projection unit ; and a trapezoidal distortion correction unit configured to conduct automatic trapezoidal distortion correction of the image projected on the screen based on an inclination angle of the projection unit detected by the angle detector , and to conduct manual trapezoidal distortion correction of the image projected on the screen by a manual operation of a user, wherein the trapezoidal distortion correction unit is configured to determine an angle of correction based on an inclination angle detected by said angle detector , and to conduct automatic trapezoidal correction using the angle of correction; characterized in that the trapezoidal distortion correction unit is further configured to receive adjustment of said angle of correction by manual operation of a user, and to conduct manual trapezoidal distortion correction using the adjusted angle of correction, and in that the trapezoidal distortion correction unit is further configured to determine, after a given time period has elapsed, whether an angle deviation between an inclination angle of the projection unit detected by the angle detector after the given time period has elapsed and said adjusted angle of correction, exceeding a given threshold angle has occurred, and if such an angle deviation has occurred, conduct the automatic trapezoidal distortion correction again..
A method of detecting a spatial orientation of a transducer by a handheld optical scanning device , the method comprising steps of: a) providing a first spatial orientation feature on at least a first outer housing surface of the transducer , b) arranging a handheld optical scanning device in a sightline of the first spatial orientation feature at a selected spatial orientation relative to the first outer surface of the transducer housing, and c) identifying the first spatial orientation feature by the handheld optical scanning device , wherein the first spatial orientation feature indicates a first axis of sensitivity of the transducer to a physical quantity such as acceleration, sound pressure, force, or strain measured by the transducer, characterized in that the method comprises steps of: d) detecting, by an orientation sensor of the optical handheld scanning device , a spatial orientation of the handheld scanning device in a predetermined coordinate reference system (x, y, z) in connection with the identification of the first spatial orientation feature , and e) determining a spatial orientation of the transducer in the predetermined coordinate reference system (x, y, z) based on the first spatial orientation feature and the detected spatial orientation of the optical scanning device . a) providing a first spatial orientation feature on at least a first outer housing surface of the transducer , b) arranging a handheld optical scanning device in a sightline of the first spatial orientation feature at a selected spatial orientation relative to the first outer surface of the transducer housing, and c) identifying the first spatial orientation feature by the handheld optical scanning device , wherein the first spatial orientation feature indicates a first axis of sensitivity of the transducer to a physical quantity such as acceleration, sound pressure, force, or strain measured by the transducer, characterized in that the method comprises steps of: d) detecting, by an orientation sensor of the optical handheld scanning device , a spatial orientation of the handheld scanning device in a predetermined coordinate reference system (x, y, z) in connection with the identification of the first spatial orientation feature , and e) determining a spatial orientation of the transducer in the predetermined coordinate reference system (x, y, z) based on the first spatial orientation feature and the detected spatial orientation of the optical scanning device . d) detecting, by an orientation sensor of the optical handheld scanning device , a spatial orientation of the handheld scanning device in a predetermined coordinate reference system (x, y, z) in connection with the identification of the first spatial orientation feature , and e) determining a spatial orientation of the transducer in the predetermined coordinate reference system (x, y, z) based on the first spatial orientation feature and the detected spatial orientation of the optical scanning device .
A liquid pharmaceutical composition, wherein at least 99 wt% of the composition consists of: (a) adalimumab; (b) a histidine buffering agent or histidine buffer system; (c) a non-reducing disaccharide; and (d) water; wherein the composition is free of arginine. (a) adalimumab; (b) a histidine buffering agent or histidine buffer system; (c) a non-reducing disaccharide; and (d) water;
A front vehicle-body structure of a vehicle, the front vehicle-body structure comprising a pair of left and right front side frames extending in a vehicle front-rear direction, wherein: each of the front side frames is formed to have a closed cross-section shape when seen from the vehicle front-rear direction and is formed such that a rear portion has a higher rigidity than a front portion ; characterised in that rigidities are different alternately in the vehicle front-rear direction in each of regions of the front portion and the rear portion . each of the front side frames is formed to have a closed cross-section shape when seen from the vehicle front-rear direction and is formed such that a rear portion has a higher rigidity than a front portion ; characterised in that rigidities are different alternately in the vehicle front-rear direction in each of regions of the front portion and the rear portion .
A method for a User Equipment, in the following also referred to as UE, , comprising: receiving a first signaling to configure a preconfigured uplink resource, in the following also referred to as PUR, to be used in a cell ; and determining whether to use the PUR in the cell at least based on whether a timing advance is valid , wherein whether the timing advance is valid is based on at least a difference between a first measurement result and a second measurement result, and wherein the first measurement result is derived at a first timing, and the second measurement result is derived at a second timing, characterized in that the first measurement result and the second measurement result are derived from different beams of the cell or are derived from at least one beam of the cell, which is indicated by a network for timing advance validation or configured with the PUR. receiving a first signaling to configure a preconfigured uplink resource, in the following also referred to as PUR, to be used in a cell ; and determining whether to use the PUR in the cell at least based on whether a timing advance is valid , wherein whether the timing advance is valid is based on at least a difference between a first measurement result and a second measurement result, and wherein the first measurement result is derived at a first timing, and the second measurement result is derived at a second timing, characterized in that the first measurement result and the second measurement result are derived from different beams of the cell or are derived from at least one beam of the cell, which is indicated by a network for timing advance validation or configured with the PUR.
A needle assembly for relieving a pneumothorax and/or a hemothorax, the needle assembly comprising a canula , the canula comprising: a distal end portion comprising a cutting end for puncturing a thoracic cavity wall , a proximal end portion for removing a fluid or gas from a thoracic cavity , a first curved portion between the distal end portion and the proximal end portion , and an intermediate portion between the first curved portion and the proximal end portion , wherein the needle assembly is characterized in that it further comprises: a first fixing bulge arranged between the first curved portion and the intermediate portion , wherein an outer diameter of the canula at the first fixing bulge is increased with respect to the diameter (D1) of the intermediate portion , said first fixing bulge being arranged such as to be placed at or close to the inner surface of the thoracic cavity wall , when the canula is inserted for relieving the pneumothorax, such as to prevent or to reduce the risk that the canula inadvertently slides out of its inserted position. a distal end portion comprising a cutting end for puncturing a thoracic cavity wall , a proximal end portion for removing a fluid or gas from a thoracic cavity , a first curved portion between the distal end portion and the proximal end portion , and an intermediate portion between the first curved portion and the proximal end portion , wherein the needle assembly is characterized in that it further comprises: a first fixing bulge arranged between the first curved portion and the intermediate portion , wherein an outer diameter of the canula at the first fixing bulge is increased with respect to the diameter (D1) of the intermediate portion , said first fixing bulge being arranged such as to be placed at or close to the inner surface of the thoracic cavity wall , when the canula is inserted for relieving the pneumothorax, such as to prevent or to reduce the risk that the canula inadvertently slides out of its inserted position.
An inductive heating cooker, comprising: a main body ; and a power-receiver device , the main body including a top plate on which a heating target is placed, a heating coil provided under the top plate and configured to inductively heat the heating target , a drive circuit configured to supply electric power to the heating coil , a power transmission coil configured to transmit the electric power by magnetic resonance, and a power transmission circuit configured to supply the electric power to the power transmission coil , the power-receiver device including a power reception coil configured to receive the electric power from the power transmission coil by the magnetic resonance, and a load circuit configured to operate by the electric power received by the power reception coil , the power transmission coil being provided to surround the heating coil in a plan view, characterized in that the power transmission coil is provided under the top plate and along an edge of the top plate . a main body ; and a power-receiver device , the main body including a top plate on which a heating target is placed, a heating coil provided under the top plate and configured to inductively heat the heating target , a drive circuit configured to supply electric power to the heating coil , a power transmission coil configured to transmit the electric power by magnetic resonance, and a power transmission circuit configured to supply the electric power to the power transmission coil , the power-receiver device including a power reception coil configured to receive the electric power from the power transmission coil by the magnetic resonance, and a load circuit configured to operate by the electric power received by the power reception coil , the power transmission coil being provided to surround the heating coil in a plan view, characterized in that the power transmission coil is provided under the top plate and along an edge of the top plate .
An implantable device comprising: a plurality of tubular members , each of the tubular members defining a longitudinal axis (C-C) and a lumen and including: an outer wall portion having a plurality of first strands defining a plurality of first openings therebetween, the outer wall portion having a first porosity; and a baffle portion including a plurality of second strands (220") defining a plurality of second openings (222") therebetween, the baffle portion having a second porosity that is lower than the first porosity of the outer wall portion, wherein each of the tubular members is joined to each other along their respective longitudinal axes, so that the baffle portions are configured to be disposed within the vessel lumen and the outer wall portions are configured to contact the walls of the vessel. an outer wall portion having a plurality of first strands defining a plurality of first openings therebetween, the outer wall portion having a first porosity; and a baffle portion including a plurality of second strands (220") defining a plurality of second openings (222") therebetween, the baffle portion having a second porosity that is lower than the first porosity of the outer wall portion, wherein each of the tubular members is joined to each other along their respective longitudinal axes, so that the baffle portions are configured to be disposed within the vessel lumen and the outer wall portions are configured to contact the walls of the vessel.
A method for handover from a source system to a target system, wherein the method comprises: when receiving (S302), from a source radio access network node, a user terminal handover required message that carries a target base station identifier, determining (S303), by a source mobility management function entity based on the target base station identifier, to trigger the handover; sending (S304), by the source mobility management function entity, a first message for requesting a session management context to a source session management function entity; receiving (S305), by the source mobility management function entity, a second message from the source session management function entity, wherein the second message comprises the session management context; and sending (S306), by the source mobility management function entity, a relocation request to a target mobility management function entity, wherein the relocation request is used to instruct to perform the handover on the user terminal, wherein the relocation request carries the target base station identifier, a terminal identifier of the user terminal, the session management context, and a mobility management context; wherein the source system is a 5G network, and the target system is a 4G network. when receiving (S302), from a source radio access network node, a user terminal handover required message that carries a target base station identifier, determining (S303), by a source mobility management function entity based on the target base station identifier, to trigger the handover; sending (S304), by the source mobility management function entity, a first message for requesting a session management context to a source session management function entity; receiving (S305), by the source mobility management function entity, a second message from the source session management function entity, wherein the second message comprises the session management context; and sending (S306), by the source mobility management function entity, a relocation request to a target mobility management function entity, wherein the relocation request is used to instruct to perform the handover on the user terminal, wherein the relocation request carries the target base station identifier, a terminal identifier of the user terminal, the session management context, and a mobility management context; wherein the source system is a 5G network, and the target system is a 4G network.
Device for dosing a foodstuff having a housing with a container for holding the foodstuff, comprising a receiving space , at a bottom of which at least one outlet opening is arranged, with at least one cylinder with a piston , with an inlet opening and an outlet opening, wherein an outlet valve opening upon pressure is provided in the cylinder for opening and closing the outlet opening of the cylinder , wherein the end of the piston protruding from the cylinder is movable on a drive device in the direction of the longitudinal axis of the cylinder , characterized by a heating block having a bottom side , the bottom side is complementary to a portion of the cylinder , wherein the heating block is removable from the housing and from the container . having a housing with a container for holding the foodstuff, comprising a receiving space , at a bottom of which at least one outlet opening is arranged, with at least one cylinder with a piston , with an inlet opening and an outlet opening, wherein an outlet valve opening upon pressure is provided in the cylinder for opening and closing the outlet opening of the cylinder , wherein the end of the piston protruding from the cylinder is movable on a drive device in the direction of the longitudinal axis of the cylinder , characterized by a heating block having a bottom side , the bottom side is complementary to a portion of the cylinder , wherein the heating block is removable from the housing and from the container .
Separator for separating solid matter from a fluid, comprising: - a separator housing section forming an at least partially cylindrical inner wall with respect to a vertical axis (V), - a funnel-shaped upper member with a large diameter portion being attached to said inner wall , - a funnel-shaped lower member with a large diameter portion being attached to said inner wall at a position lower than said large diameter portion of said funnel-shaped upper member , - an inlet opening arranged for leading fluid into said separator housing section at a position between said large diameter portions of the upper and lower funnel-shaped members with a flow direction of said fluid having at least a tangential component at said inlet opening , wherein said upper and lower funnel-shaped members are arranged in order to create an annular flow passage in between and each have axial openings at respective lower end portions opposite to said large diameter portions . - a separator housing section forming an at least partially cylindrical inner wall with respect to a vertical axis (V), - a funnel-shaped upper member with a large diameter portion being attached to said inner wall , - a funnel-shaped lower member with a large diameter portion being attached to said inner wall at a position lower than said large diameter portion of said funnel-shaped upper member , - an inlet opening arranged for leading fluid into said separator housing section at a position between said large diameter portions of the upper and lower funnel-shaped members with a flow direction of said fluid having at least a tangential component at said inlet opening ,