mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment, comprising: receiving, when registered for a first radio access technology with a network, policy information from the network, wherein the policy information indicates at least one radio access technology preferred for a service, the at least one radio access technology preferred for the service being different from the first radio access technology; entering a coverage area of the at least one radio access technology preferred for the service; detecting that the service is offered in the coverage area; initiating a request for setup of the service; and setting up dual-connectivity to the first radio access technology and the radio access technology preferred for the service; wherein the first radio access technology comprises Long-Term Evolution and the radio access technology preferred for the service comprises 5G. receiving, when registered for a first radio access technology with a network, policy information from the network, wherein the policy information indicates at least one radio access technology preferred for a service, the at least one radio access technology preferred for the service being different from the first radio access technology; entering a coverage area of the at least one radio access technology preferred for the service; detecting that the service is offered in the coverage area; initiating a request for setup of the service; and setting up dual-connectivity to the first radio access technology and the radio access technology preferred for the service; wherein the first radio access technology comprises Long-Term Evolution and the radio access technology preferred for the service comprises 5G.
An apparatus comprising: a control unit ; a first interface configured to communicate with a probe filter configured to track cache lines that are cached by one or more of a plurality of processing nodes a second interface configured to communicate with an early probe cache configured to cache recent lookups to the probe filter ; wherein the control unit is configured to: perform, in parallel, a first lookup of the probe filter and a second lookup of the early probe cache, in response to a memory request ; identify a first node as an owner node of a region of memory targeted by the memory request, based on an entry of the early probe cache identified by the second lookup ; characterised in that the control unit is further configured to: modify a confidence indicator corresponding to the entry, in dependence on a result of the first lookup, wherein the confidence indicator indicates a level of confidence in whether the first node is an owner of a cache line targeted by a memory request . a control unit ; a first interface configured to communicate with a probe filter configured to track cache lines that are cached by one or more of a plurality of processing nodes a second interface configured to communicate with an early probe cache configured to cache recent lookups to the probe filter ; wherein the control unit is configured to: perform, in parallel, a first lookup of the probe filter and a second lookup of the early probe cache, in response to a memory request ; identify a first node as an owner node of a region of memory targeted by the memory request, based on an entry of the early probe cache identified by the second lookup ; characterised in that the control unit is further configured to: modify a confidence indicator corresponding to the entry, in dependence on a result of the first lookup, wherein the confidence indicator indicates a level of confidence in whether the first node is an owner of a cache line targeted by a memory request . perform, in parallel, a first lookup of the probe filter and a second lookup of the early probe cache, in response to a memory request ; identify a first node as an owner node of a region of memory targeted by the memory request, based on an entry of the early probe cache identified by the second lookup ; characterised in that the control unit is further configured to: modify a confidence indicator corresponding to the entry, in dependence on a result of the first lookup, wherein the confidence indicator indicates a level of confidence in whether the first node is an owner of a cache line targeted by a memory request .
An internal combustion engine including variable compression ratio comprising a crankshaft being rotatable about a crankshaft axis and having a crankpin , wherein the crankshaft axis and a centreline of the crankpin span a crank plane, a connecting rod , a piston being rotatably connected to a distal end portion of the connecting rod ; an eccentric member being rotatably mounted on the crankpin and comprising a bearing portion having an outer circumferential wall which bears a proximal end portion of the connecting rod such that the connecting rod is rotatably mounted on the bearing portion , wherein the bearing portion is eccentrically disposed with respect to the crankpin and the eccentric member is provided with an eccentric member gear which is drivably coupled to a gear train for rotating the eccentric member with respect to the crankpin , characterized in that the gear train comprises a balancing gear which is rotatably mounted to the crankshaft and rotates with respect to the crankshaft about a balancing gear axis at the same speed as the eccentric member gear under operating conditions, wherein the crankshaft axis and the balancing gear axis span a balancing gear plane, wherein the balancing gear has an eccentrical centre of gravity which is located such that under operating conditions it causes a counter torque against a torque that is exerted by the eccentric member gear onto the balancing gear due to an inertial force on the eccentric member . a crankshaft being rotatable about a crankshaft axis and having a crankpin , wherein the crankshaft axis and a centreline of the crankpin span a crank plane, a connecting rod , a piston being rotatably connected to a distal end portion of the connecting rod ; an eccentric member being rotatably mounted on the crankpin and comprising a bearing portion having an outer circumferential wall which bears a proximal end portion of the connecting rod such that the connecting rod is rotatably mounted on the bearing portion , wherein the bearing portion is eccentrically disposed with respect to the crankpin and the eccentric member is provided with an eccentric member gear which is drivably coupled to a gear train for rotating the eccentric member with respect to the crankpin , characterized in that the gear train comprises a balancing gear which is rotatably mounted to the crankshaft and rotates with respect to the crankshaft about a balancing gear axis at the same speed as the eccentric member gear under operating conditions, wherein the crankshaft axis and the balancing gear axis span a balancing gear plane, wherein the balancing gear has an eccentrical centre of gravity which is located such that under operating conditions it causes a counter torque against a torque that is exerted by the eccentric member gear onto the balancing gear due to an inertial force on the eccentric member .
Apparatus for preparing a beverage, comprising: at least one infusion assembly ; a hydraulic circuit adapted to connect said at least one infusion assembly with an external water-supply system , said hydraulic circuit defining, for at least one infusion assembly , at least one first fluidic path to connect said infusion assembly to said external water-supply system , and a second fluidic path to connect said infusion assembly to said external water-supply system , said hydraulic circuit being provided with at least one pump , said at least one pump being arranged on said second fluidic path ; wherein said first fluidic path joins said second fluidic path downstream of said at least one pump , so as to have a portion in common with said second fluidic path downstream of said at least one pump , and wherein a unidirectional-flow control element is arranged on said first fluidic path ; characterised in that only one pump serves two or more infusion assemblies and each infusion assembly comprises a circuit having said first fluidic path and said second fluidic path. at least one infusion assembly ; a hydraulic circuit adapted to connect said at least one infusion assembly with an external water-supply system , said hydraulic circuit defining, for at least one infusion assembly , at least one first fluidic path to connect said infusion assembly to said external water-supply system , and a second fluidic path to connect said infusion assembly to said external water-supply system , said hydraulic circuit being provided with at least one pump , said at least one pump being arranged on said second fluidic path ; wherein said first fluidic path joins said second fluidic path downstream of said at least one pump , so as to have a portion in common with said second fluidic path downstream of said at least one pump , and wherein a unidirectional-flow control element is arranged on said first fluidic path ; characterised in that only one pump serves two or more infusion assemblies and each infusion assembly comprises a circuit having said first fluidic path and said second fluidic path.
A testing device for testing a Local Interconnect Network, LIN, master device having a plurality of LIN channels, comprising: a plurality of LIN channel terminals, each for connection to a LIN bus associated with one of the LIN channels of the LIN master device; one or more Universal Asynchronous Receiver/Transmitter, UART, circuits communicatively coupled to the plurality of LIN channel terminals for receiving and transmitting signals on the respective LIN bus; and a controller communicatively coupled to the one or more UART circuits and configured to implement a LIN slave state machine on each of the LIN busses using the one or more UART circuits for emulating LIN slave behaviour. a plurality of LIN channel terminals, each for connection to a LIN bus associated with one of the LIN channels of the LIN master device; one or more Universal Asynchronous Receiver/Transmitter, UART, circuits communicatively coupled to the plurality of LIN channel terminals for receiving and transmitting signals on the respective LIN bus; and a controller communicatively coupled to the one or more UART circuits and configured to implement a LIN slave state machine on each of the LIN busses using the one or more UART circuits for emulating LIN slave behaviour.
A hair cosmetic comprising the following components (A) to (E): (A) 0.05% by mass or more and 5% by mass or less of a compound represented by the following general formula or a salt thereof: wherein a broken line represents the presence or absence of a π bond; R 1 represents a hydroxy group or an acetoxy group; R 2 represents a hydrogen atom or -COOR (R is a hydrogen atom, a methyl group, or an ethyl group); and R 3 represents a hydrogen atom, an acetyl group, a methyl group, or an ethyl group; (B) an alkaline agent; (C) a buffering agent; (D) 3% by mass or more and 40% by mass or less of an anionic surfactant comprising one or more selected from the group consisting of an alkyl ether sulfate and an alkyl ether carboxylate; and (E) 0.05% by mass or more and 5% by mass or less of a cationic polymer having a cation charge density of 0.01 meq/g or more and 4.8 meq/g or less, a mass ratio of the component (A) to the component (E) [(A)/(E)] being 0.05 or more and less than 2. (A) 0.05% by mass or more and 5% by mass or less of a compound represented by the following general formula or a salt thereof: wherein a broken line represents the presence or absence of a π bond; R 1 represents a hydroxy group or an acetoxy group; R 2 represents a hydrogen atom or -COOR (R is a hydrogen atom, a methyl group, or an ethyl group); and R 3 represents a hydrogen atom, an acetyl group, a methyl group, or an ethyl group; (B) an alkaline agent; (C) a buffering agent; (D) 3% by mass or more and 40% by mass or less of an anionic surfactant comprising one or more selected from the group consisting of an alkyl ether sulfate and an alkyl ether carboxylate; and (E) 0.05% by mass or more and 5% by mass or less of a cationic polymer having a cation charge density of 0.01 meq/g or more and 4.8 meq/g or less,
A developer accommodating unit for accommodating a developer for image formation, the developer accommodating unit comprising: a flexible container including a developer accommodating portion for accommodating the developer and an opening for permitting discharge of the developer, wherein the opening is formed in said flexible container and said flexible container also includes a multi-layer sheet structure portion ; a sealing member for sealing the opening , wherein said sealing member is bonded to said flexible container ; an unsealing member rotatable to move said sealing member to unseal the opening ; and a frame that (i) accommodates said flexible container , said sealing member , and said unsealing member and (ii) includes a fixing portion for fixing said flexible container , wherein said multi-layer sheet structure includes a fixed portion fixed to said fixing portion and said multi-layer sheet structure includes an interlayer bonding portion that (i) bonds layers of said multi-layer structure and (ii) is provided between said fixed portion and said developer accommodating portion. a flexible container including a developer accommodating portion for accommodating the developer and an opening for permitting discharge of the developer, wherein the opening is formed in said flexible container and said flexible container also includes a multi-layer sheet structure portion ; a sealing member for sealing the opening , wherein said sealing member is bonded to said flexible container ; an unsealing member rotatable to move said sealing member to unseal the opening ; and a frame that (i) accommodates said flexible container , said sealing member , and said unsealing member and (ii) includes a fixing portion for fixing said flexible container , wherein said multi-layer sheet structure includes a fixed portion fixed to said fixing portion and said multi-layer sheet structure includes an interlayer bonding portion that (i) bonds layers of said multi-layer structure and (ii) is provided between said fixed portion and said developer accommodating portion.
Lightweight façade module having a frame formed from frame profiles , an outer membrane arranged on the outer side of the frame profiles and an inner membrane arranged on the inner side of the frame profiles , characterised in that the frame profiles are configured in one piece or consist of an outer profile and an inner profile connected to the latter via insulating bars and in that the outer membrane and the inner membrane are attached to the frame profiles by releasably attached clamping elements arranged positively in recesses on the outer side and inner side of the frame profiles .
An airfoil for a gas turbine engine, comprising: an external airfoil surface ; an airfoil body comprising an external wall structure and an internal wall structure , wherein the external airfoil surface is adjacent the external wall structure , wherein the airfoil body defines: a skin core extending along_at least a portion of a leading edge of the airfoil and at least partially defined by a first section of the external wall structure and a first section of the internal wall structure , wherein a skin core heat transfer augmentation feature is formed within the skin core on a skin core surface of the first section of the external wall structure ; and an embedded core , wherein an embedded core heat transfer augmentation feature is formed within the embedded core on an embedded core surface of the first section of the internal wall structure , wherein the embedded core heat transfer augmentation feature is disposed between the skin core and the embedded core and formed on the embedded core surface of the first section of the internal wall structure ; characterised in that the embedded core is entirely defined by the internal wall structure . an external airfoil surface ; an airfoil body comprising an external wall structure and an internal wall structure , wherein the external airfoil surface is adjacent the external wall structure , wherein the airfoil body defines: a skin core extending along_at least a portion of a leading edge of the airfoil and at least partially defined by a first section of the external wall structure and a first section of the internal wall structure , wherein a skin core heat transfer augmentation feature is formed within the skin core on a skin core surface of the first section of the external wall structure ; and an embedded core , wherein an embedded core heat transfer augmentation feature is formed within the embedded core on an embedded core surface of the first section of the internal wall structure , wherein the embedded core heat transfer augmentation feature is disposed between the skin core and the embedded core and formed on the embedded core surface of the first section of the internal wall structure ; a skin core extending along_at least a portion of a leading edge of the airfoil and at least partially defined by a first section of the external wall structure and a first section of the internal wall structure , wherein a skin core heat transfer augmentation feature is formed within the skin core on a skin core surface of the first section of the external wall structure ; and an embedded core , wherein an embedded core heat transfer augmentation feature is formed within the embedded core on an embedded core surface of the first section of the internal wall structure , wherein the embedded core heat transfer augmentation feature is disposed between the skin core and the embedded core and formed on the embedded core surface of the first section of the internal wall structure ; characterised in that the embedded core is entirely defined by the internal wall structure .
A near-field radar device comprising a plurality of individual radar sensors, wherein all the radar sensors are fixedly arranged side by side in a mounting area in the form of a mounting plate or printed circuit board of the radar device , wherein all the radar sensors each have a transmitting antenna and a receiving antenna which are arranged on a common assembly of the radar sensor, wherein the radar sensors are arranged in a distributed manner such that they are not arranged side by side in a single straight line, the radar device having an electronic control unit which is set up to operate the radar sensors by actuating the radar sensors and by detecting the reflection signals picked up by the radar sensors , the control unit being set up for this purpose, to operate the radar sensors as synthetic aperture radar, wherein the radar sensors are arranged along a closed linear contour, wherein the control unit is set up to operate the radar sensors according to the MIMO principle or the MISO principle.
A reconfigurable surgical microscope , comprising: an eyepiece ; a relay lens system optically coupled to the eyepiece ; a zoom lens system optically coupled to the eyepiece and the relay lens system ; an illumination unit ; and an objective lens capable of being repositioned between a first objective lens position and a second objective lens position, the first objective lens position being for use in cataract surgery and comprising a first slot located between the zoom lens system and the illumination unit and the second objective lens position being for use in vitreoretinal surgery and comprising a second slot located such that the illumination unit is located between the second objective lens position and the zoom lens system , wherein the objective lens has a focal length, the focal length being longer than a specified working distance between an eye to be viewed and the objective lens when the objective lens is located in the first slot , and the focal length not being longer than the specified working distance between the eye to be viewed and the objective lens when the objective lens is located in the second slot . an eyepiece ; a relay lens system optically coupled to the eyepiece ; a zoom lens system optically coupled to the eyepiece and the relay lens system ; an illumination unit ; and an objective lens capable of being repositioned between a first objective lens position and a second objective lens position, the first objective lens position being for use in cataract surgery and comprising a first slot located between the zoom lens system and the illumination unit and the second objective lens position being for use in vitreoretinal surgery and comprising a second slot located such that the illumination unit is located between the second objective lens position and the zoom lens system , wherein the objective lens has a focal length, the focal length being longer than a specified working distance between an eye to be viewed and the objective lens when the objective lens is located in the first slot , and the focal length not being longer than the specified working distance between the eye to be viewed and the objective lens when the objective lens is located in the second slot .
Outsole for a shoe, comprising an at least partially profiled tread surface, which comprises at least one first profile region and, in the same plane, at least one second profile region , which is separate therefrom, wherein the first profile region has a higher Shore hardness than the second profile region , - at least one elastic grip shell is formed in the first profile region , and - the second profile region protrudes outwards in relation to the surface of the first profile region , characterized in that the grip shells are each arranged within a recess of the first profile region . - at least one elastic grip shell is formed in the first profile region , and - the second profile region protrudes outwards in relation to the surface of the first profile region , characterized in that