mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment supporting conditional handovers to cells of a cellular network , configured to Receive from the cellular network configuration data , Check the trigger conditions comprised in the configuration data , and if the trigger conditions are fulfilled, execute the conditional handover with the help of the configuration data , Characterized in that the configuration data is for configuring multiple conditional handovers as a sequence, wherein the configuration data is configured to configure multiple target cells over the user equipment mobility path or route as handover candidates , wherein the configuration data comprises not only trigger conditions to trigger a conditional handover and configuration information of a conditional handover from the current serving cell to a next potential target cell , but further trigger conditions and configuration information of subsequent handovers to one or more other potential target cells, in which the current serving cell is not involved. Receive from the cellular network configuration data , Check the trigger conditions comprised in the configuration data , and if the trigger conditions are fulfilled, execute the conditional handover with the help of the configuration data , Characterized in that the configuration data is for configuring multiple conditional handovers as a sequence, wherein the configuration data is configured to configure multiple target cells over the user equipment mobility path or route as handover candidates , wherein the configuration data comprises not only trigger conditions to trigger a conditional handover and configuration information of a conditional handover from the current serving cell to a next potential target cell , but further trigger conditions and configuration information of subsequent handovers to one or more other potential target cells, in which the current serving cell is not involved. wherein the configuration data is configured to configure multiple target cells over the user equipment mobility path or route as handover candidates , wherein the configuration data comprises not only trigger conditions to trigger a conditional handover and configuration information of a conditional handover from the current serving cell to a next potential target cell , but further trigger conditions and configuration information of subsequent handovers to one or more other potential target cells, in which the current serving cell is not involved.
Dog clutch having two clutch elements provided with teeth or claws, one of which is movable, and an adjusting device for engaging or disengaging the clutch by an adjusting movement of the movable clutch element , wherein a sensor is arranged along the movement path of the movable clutch element , which sensor detects the movement of the clutch element into the engaged state, and wherein the clutch element is provided with an actuation contour , which moves past the sensor , when the clutch is engaged, characterised in that the sensor is an electromagnetic actuator for retaining the movable clutch element when the clutch is in the engaged state.
An induction heating cooker comprising: a top plate on which a heating target is mounted; a plurality of coils are provided under the top plate and induction-heats the heating target mounted on the top plate ; a body unit that houses the coil and is disposed so as to support the top plate ; and a display that displays cooking information about cooking of the induction heating cooker, wherein the display includes a communication unit communicating with the body unit and is provided so as to be movable separately from the body unit , characterised in that the body unit includes a plurality of light-emitting units that are disposed around each of the coils , a temperature detector configured to detect a temperature of the coils , and a controller , the controller is configured to cause one or more of the light-emitting units to emit light based on the temperature detected by the temperature detector and the size of the display , and the one or more light-emitting units display a position at which the display is capable of being mounted. a top plate on which a heating target is mounted; a plurality of coils are provided under the top plate and induction-heats the heating target mounted on the top plate ; a body unit that houses the coil and is disposed so as to support the top plate ; and a display that displays cooking information about cooking of the induction heating cooker, wherein the display includes a communication unit communicating with the body unit and is provided so as to be movable separately from the body unit , characterised in that the body unit includes a plurality of light-emitting units that are disposed around each of the coils , a temperature detector configured to detect a temperature of the coils , and a controller , the controller is configured to cause one or more of the light-emitting units to emit light based on the temperature detected by the temperature detector and the size of the display , and the one or more light-emitting units display a position at which the display is capable of being mounted.
Manufacturing method for manufacturing a connecting element , namely a rivet, a bolt or a nut , comprising the following steps: a) producing a wire rod from a material in which the material a1) has a mechanical tensile strength of at least 350 MPa, a2) has an electrical conductivity of at least 50% IACS, and a3) is a copper-chromium alloy having a chromium mass fraction of 0.2%-1%, wherein the manufacturing of the wire rod comprises the steps of: a4) melting said material in a vacuum furnace, and subsequently a5) hot rolling of the material into the wire rod, b) solution annealing of the wire rod b1) for a duration of 5-15 minutes b2) at a temperature of +800°C to +1200°C, wherein the solution annealing of the wire rod comprises the following steps: b3) heating the wire rod, b4) quenching of the wire rod, c) removal of an oxide layer on the wire rod, d) drawing the wire rod to a specified nominal diameter. a) producing a wire rod from a material in which the material a1) has a mechanical tensile strength of at least 350 MPa, a2) has an electrical conductivity of at least 50% IACS, and a3) is a copper-chromium alloy having a chromium mass fraction of 0.2%-1%, wherein the manufacturing of the wire rod comprises the steps of: a4) melting said material in a vacuum furnace, and subsequently a5) hot rolling of the material into the wire rod, a1) has a mechanical tensile strength of at least 350 MPa, a2) has an electrical conductivity of at least 50% IACS, and a3) is a copper-chromium alloy having a chromium mass fraction of 0.2%-1%, a4) melting said material in a vacuum furnace, and subsequently a5) hot rolling of the material into the wire rod, b) solution annealing of the wire rod b1) for a duration of 5-15 minutes b2) at a temperature of +800°C to +1200°C, wherein the solution annealing of the wire rod comprises the following steps: b3) heating the wire rod, b4) quenching of the wire rod, b1) for a duration of 5-15 minutes b2) at a temperature of +800°C to +1200°C, b3) heating the wire rod, b4) quenching of the wire rod, c) removal of an oxide layer on the wire rod, d) drawing the wire rod to a specified nominal diameter.
Spheroidal alumina particles comprising a nitrogen adsorption isotherm volume, referred to as V meso , which is representative of the mesopore volume, of between 0.65 and 0.85 mL/g and a sub-7 μm diameter pore volume, referred to as V meso+macro , measured by mercury porosimetry, of between 0.65 and 0.85 mL/g, and for which the ratio Q = [ (V meso+macro -V meso ) / (V meso+macro ) ] is less than 10%, said particles comprising a mean diameter of between 1.2 and 3 mm, a BET specific surface area of between 150 and 300 m 2 /g and a tapped packing density value of between 0.5 and 0.6 g/ml.
A container for consumer goods comprising: a box having an access opening ; and a hinged lid rotatable between open and closed positions, wherein the lid is hinged to a back wall of the box, characterised in that the lid comprises a front edge or a front wall having a resiliently deformable flap that extends beyond the access opening in the box when the lid is in the closed position, wherein the flap is attached only to the front edge or the front wall of the lid , wherein, during initial movement of the lid from the open position towards the closed position when a force is exerted on the top wall of the lid , the flap is resiliently biased away from the front edge of the box at an intermediate position at which an inner surface of the flap makes contact with the front edge of the box , whereby continued movement of the lid past the intermediate position causes the flap to snap closed against the box thereby to provide a closing mechanism that facilitates ease of closing the lid . a box having an access opening ; and a hinged lid rotatable between open and closed positions, wherein the lid is hinged to a back wall of the box, characterised in that the lid comprises a front edge or a front wall having a resiliently deformable flap that extends beyond the access opening in the box when the lid is in the closed position, wherein the flap is attached only to the front edge or the front wall of the lid , wherein, during initial movement of the lid from the open position towards the closed position when a force is exerted on the top wall of the lid , the flap is resiliently biased away from the front edge of the box at an intermediate position at which an inner surface of the flap makes contact with the front edge of the box , whereby continued movement of the lid past the intermediate position causes the flap to snap closed against the box thereby to provide a closing mechanism that facilitates ease of closing the lid .
Two-layer multi-strand cord (50; 51; 52; 53; 54; 55; 56; 57; 58; 59), comprising: - an internal layer (CI) of the cord made up of an internal strand (Tl) having three layers (C1, C2, C3) comprising: • an internal layer (C1) made up of Q=1 internal wire (F1), • an intermediate layer (C2) made up of M intermediate wires (F2) wound around the internal layer (C1) with a pitch p2, and • an external layer (C3) made up of N external wires (F3) wound around the intermediate layer (C2) with a pitch p3, - an external layer (CE) of the cord made up of L>1 external strands (TE) having at least two layers (C1', C3') comprising: • an internal layer (C1') made up of Q' internal wire(s) (F1') and • an external layer (C3') made up of N' external wires (F3') wound around the internal layer (C1'), in which: - the external layer (CE) of the cord is wound around the internal layer (CI) of the cord in a direction of winding of the cord; - the external layer (CE) of the cord is desaturated; Characterized in that : - each external layer (C3, C3') of each internal and external strand (Tl, TE) is wound respectively around the intermediate (C2) and internal (C1') layer of each internal and external strand (Tl, TE) respectively in a same direction of winding that is the opposite of the direction of winding of the cord; , and - the pitches p2 and p3 satisfy the relationship: 0,43 ≤ (p3-p2)/p3 ≤ 0.57. - an internal layer (CI) of the cord made up of an internal strand (Tl) having three layers (C1, C2, C3) comprising: • an internal layer (C1) made up of Q=1 internal wire (F1), • an intermediate layer (C2) made up of M intermediate wires (F2) wound around the internal layer (C1) with a pitch p2, and • an external layer (C3) made up of N external wires (F3) wound around the intermediate layer (C2) with a pitch p3, • an internal layer (C1) made up of Q=1 internal wire (F1), • an intermediate layer (C2) made up of M intermediate wires (F2) wound around the internal layer (C1) with a pitch p2, and • an external layer (C3) made up of N external wires (F3) wound around the intermediate layer (C2) with a pitch p3, - an external layer (CE) of the cord made up of L>1 external strands (TE) having at least two layers (C1', C3') comprising: • an internal layer (C1') made up of Q' internal wire(s) (F1') and • an external layer (C3') made up of N' external wires (F3') wound around the internal layer (C1'), • an internal layer (C1') made up of Q' internal wire(s) (F1') and • an external layer (C3') made up of N' external wires (F3') wound around the internal layer (C1'), - the external layer (CE) of the cord is wound around the internal layer (CI) of the cord in a direction of winding of the cord; - the external layer (CE) of the cord is desaturated; - each external layer (C3, C3') of each internal and external strand (Tl, TE) is wound respectively around the intermediate (C2) and internal (C1') layer of each internal and external strand (Tl, TE) respectively in a same direction of winding that is the opposite of the direction of winding of the cord; , and - the pitches p2 and p3 satisfy the relationship: 0,43 ≤ (p3-p2)/p3 ≤ 0.57.
An apparatus for handling data traffic in a core network domain of a communication network , the apparatus being configured to be located in the core network domain and to: receive data traffic sent, by a data traffic sender located outside the core network domain , under control of a transport layer protocol that is configured to apply a congestion control algorithm, CCA; analyze the data traffic to obtain a data traffic analyzation result; obtain , based on the analyzation result, CCA information about the CCA that can be or is applied by the transport layer protocol, wherein the CCA information is obtained from a mapping that associates the analyzation result with the CCA information and the mapping has been configured in the core network domain by the data traffic sender located outside the core network domain ; and perform a traffic handling action for the data traffic taking into account the obtained CCA information. receive data traffic sent, by a data traffic sender located outside the core network domain , under control of a transport layer protocol that is configured to apply a congestion control algorithm, CCA; analyze the data traffic to obtain a data traffic analyzation result; obtain , based on the analyzation result, CCA information about the CCA that can be or is applied by the transport layer protocol, wherein the CCA information is obtained from a mapping that associates the analyzation result with the CCA information and the mapping has been configured in the core network domain by the data traffic sender located outside the core network domain ; and perform a traffic handling action for the data traffic taking into account the obtained CCA information.
An adhesive label comprising an uniaxially oriented multilayer facestock, wherein the facestock is uniaxially oriented in machine direction and comprises a core layer, a printable skin layer adjoined to the core layer, and an adhesive receiving skin layer adjoined to the core layer opposite the printable skin layer, and wherein the core layer consists of the following components: 40 to 87 wt.% of propylene homopolymer; 5 to 20 wt.% of a modifier consisting of at least one of the following: ethylene-butene elastomer, ethylene-octene elastomer, and ethylene-octene block copolymer; low density polyethylene; and an antioxidant, and wherein the printable skin layer consists of propylene homopolymer(s); Ziegler-Natta catalysed linear low density polyethylene comprising density between 0.930 and 0.940 g/cm 3 , when measured according to standard ASTM D 792; and at least one of the following: 0.05 to 0.2 wt.% of an antiblocking agent and 0.1-0.6 wt.% of an antioxidant, wherein the adhesive label further comprises a pressure sensitive adhesive layer adjacent to the adhesive receiving skin layer. 40 to 87 wt.% of propylene homopolymer; 5 to 20 wt.% of a modifier consisting of at least one of the following: ethylene-butene elastomer, ethylene-octene elastomer, and ethylene-octene block copolymer; low density polyethylene; and an antioxidant, and wherein the printable skin layer consists of propylene homopolymer(s); Ziegler-Natta catalysed linear low density polyethylene comprising density between 0.930 and 0.940 g/cm 3 , when measured according to standard ASTM D 792; and at least one of the following: 0.05 to 0.2 wt.% of an antiblocking agent and 0.1-0.6 wt.% of an antioxidant, wherein the adhesive label further comprises a pressure sensitive adhesive layer adjacent to the adhesive receiving skin layer.
A method for determining an actual position of a portable device (132, .., 136, 214) in an environment using one or more luminaires (110, .., 120, 212) and one or more wireless beacons (122, ..., 128, 210), the method comprising: receiving a wireless signal from a wireless beacon (122, .., 128); performing, by a processor , a distance calculation using a signal parameter of the wireless signal; determining, by the processor , an estimated position of the portable device (132, .., 136, 214) in the environment using the distance calculation; receiving an image of a field of view of an imaging sensor , wherein the one or more luminaires (110, .., 120, 212) are within the field of view; determining, by the processor , an estimated position of each of the one or more luminaires (110, .., 120, 212) in the field of view based on an angle at which the imaging sensor receives a light signal from each of the one or more luminaires (110, .., 120, 212); querying a database , by the processor , to identify an actual position of each of the one or more luminaires (110, .., 120, 212) using the estimated positions of the one or more luminaires (110, .., 120, 212) and the estimated position of the portable device (132, .., 136, 214); and performing, by the processor , a triangulation using the actual position of the one or more luminaires (110, .., 120, 212) from the database to determine the actual position of the portable device (132, .., 136, 214). receiving a wireless signal from a wireless beacon (122, .., 128); performing, by a processor , a distance calculation using a signal parameter of the wireless signal; determining, by the processor , an estimated position of the portable device (132, .., 136, 214) in the environment using the distance calculation; receiving an image of a field of view of an imaging sensor , wherein the one or more luminaires (110, .., 120, 212) are within the field of view; determining, by the processor , an estimated position of each of the one or more luminaires (110, .., 120, 212) in the field of view based on an angle at which the imaging sensor receives a light signal from each of the one or more luminaires (110, .., 120, 212); querying a database , by the processor , to identify an actual position of each of the one or more luminaires (110, .., 120, 212) using the estimated positions of the one or more luminaires (110, .., 120, 212) and the estimated position of the portable device (132, .., 136, 214); and performing, by the processor , a triangulation using the actual position of the one or more luminaires (110, .., 120, 212) from the database to determine the actual position of the portable device (132, .., 136, 214).
A surgical instrument, comprising: an elongate shaft assembly including a shaft spine defining a shaft axis, and comprising a distal end; a surgical end effector comprising a proximal end that is pivotally coupled to said distal end of said elongate shaft assembly such that said surgical end effector is selectively movable between an unarticulated position and a fully articulated position on a first lateral side of said shaft axis; and a firing beam movably supported within a pathway formed in said spine of said elongate shaft assembly for selective longitudinal travel therein, said pathway configured to position a portion of said firing beam exiting the distal end of said elongate shaft assembly to an off axis position relative to said shaft axis, wherein said pathway is continuous and the course of said pathway is independent of the articulation position and comprises: a first pathway portion aligned on said shaft axis; and a second arcuate pathway portion communicating with said first pathway portion and curving in a first direction away from said shaft axis; characterized in that the pathway further comprises: a third arcuate pathway portion communicating with said second arcuate pathway portion, curving in a second direction toward said shaft axis, and opening at a distal end of the pathway at a location that is laterally offset from the shaft axis and located on a second lateral side of the shaft axis opposite from the first lateral side . an elongate shaft assembly including a shaft spine defining a shaft axis, and comprising a distal end; a surgical end effector comprising a proximal end that is pivotally coupled to said distal end of said elongate shaft assembly such that said surgical end effector is selectively movable between an unarticulated position and a fully articulated position on a first lateral side of said shaft axis; and a firing beam movably supported within a pathway formed in said spine of said elongate shaft assembly for selective longitudinal travel therein, said pathway configured to position a portion of said firing beam exiting the distal end of said elongate shaft assembly to an off axis position relative to said shaft axis, wherein said pathway is continuous and the course of said pathway is independent of the articulation position and comprises: a first pathway portion aligned on said shaft axis; and a second arcuate pathway portion communicating with said first pathway portion and curving in a first direction away from said shaft axis; characterized in that the pathway further comprises: a third arcuate pathway portion communicating with said second arcuate pathway portion, curving in a second direction toward said shaft axis, and opening at a distal end of the pathway at a location that is laterally offset from the shaft axis and located on a second lateral side of the shaft axis opposite from the first lateral side .
A flavor emulsion comprising flavor oil droplets, an aqueous phase, and a lysolecithin composition as an emulsifier, wherein the flavor oil droplets, each having a particle size of 1 to 1000 nanometers and present at 1 to 20 wt%, are suspended in the aqueous phase; and the lyso lecithin composition, present at 0.1 to 30 wt%, contains (i) lysophospholipids 50% or greater, preferably 60% or greater and more preferably 70% or greater, by weight of the lysolecithin composition, (ii) one or more free fatty acids 15% or less, preferably 10% or less and more preferably 5% or less, by weight of the lysolecithin composition, and (iii) glycerophosphocholine 20% or less, preferably 15% or less and more preferably 10% or less, by weight of the lyso lecithin composition.