mhurhangee/patent-ind-claim-en huggingface dataset:
Device for actuating a date star of a perpetual or semi-perpetual calendar mechanism comprising a large lever arranged to be able to cooperate with a month cam and to actuate the date star each day, said large lever being able to pivot with a stroke of variable amplitude depending on the month between a first initial actuation position defined by one of the positions of the large lever when it is in contact with the month cam , and a final actuation position, characterised in that it comprises a mechanism for limiting the stroke of the large lever so as to keep it between a second initial actuation position and the final actuation position, said second initial actuation position being intermediate between the first initial actuation position and the final actuation position, said limiting mechanism comprising a sub-mechanism for blocking the large lever , the sub-mechanism being able to move between a locked position in which the large lever is blocked in its pivoting in order that its travel be contained between its second initial actuation position and its final actuation position and an unlocked position in which the large lever is free to pivot between its first initial actuation position and its final actuation position, and a locking cam cooperating with said blocking sub-mechanism and arranged to define the days for which the blocking sub-mechanism is in a locked position or in an unlocked position, the blocking sub-mechanism being in the unlocked position at least on the last day of months of less than 31 days, when a catching-up of the days at the end of the month is necessary.
A coating composition for lubrication film comprising: (A) a high energy beam-curable resin which includes at least a polyfunctional compound having at least two of at least one type of polymerizable functional groups selected from an acryloyl group and a methacryloyl group; (B) silicone elastomer fine particles having an average particle diameter of from 0.1 μm to 50 μm.; measured as indicated in the description and (C) a gum-like polysiloxane which has a plasticity number > 0 (ASTM D926 - 08). (A) a high energy beam-curable resin which includes at least a polyfunctional compound having at least two of at least one type of polymerizable functional groups selected from an acryloyl group and a methacryloyl group; (B) silicone elastomer fine particles having an average particle diameter of from 0.1 μm to 50 μm.; measured as indicated in the description and (C) a gum-like polysiloxane which has a plasticity number > 0 (ASTM D926 - 08).
A method for transmitting remote user equipment, UE, related information or relay UE related information in a wireless communication system including a base station, BS, a relay UE , and a remote UE, the method performed by the relay UE and comprising: receiving, from the remote UE, the remote UE related information via a sidelink communication; and transmitting, to the BS, the remote UE related information or the relay UE related information based on comparing a priority of the remote UE related information and a priority of the relay UE related information after receiving the remote UE related information, wherein the relay UE performs a transmission by applying different physical channel parameters based on the priority of the remote UE related information and the priority of the relay UE related information, and wherein, based on the remote UE related information being wide area network, WAN, communication related control information or WAN communication related feedback information and the relay UE related information being WAN communication related data information, the priority of the remote UE related information is higher than the priority of the relay UE related information and the relay UE transmits accordingly the WAN communication related control information of the remote UE or the WAN communication related feedback information of the remote UE to the BS . receiving, from the remote UE, the remote UE related information via a sidelink communication; and transmitting, to the BS, the remote UE related information or the relay UE related information based on comparing a priority of the remote UE related information and a priority of the relay UE related information after receiving the remote UE related information, wherein the relay UE performs a transmission by applying different physical channel parameters based on the priority of the remote UE related information and the priority of the relay UE related information, and wherein, based on the remote UE related information being wide area network, WAN, communication related control information or WAN communication related feedback information and the relay UE related information being WAN communication related data information, the priority of the remote UE related information is higher than the priority of the relay UE related information and the relay UE transmits accordingly the WAN communication related control information of the remote UE or the WAN communication related feedback information of the remote UE to the BS .
A method performed by an apparatus included in a vehicle to detect an object using a radar, the method comprising: propagating , in a main mode period, a main mode transmission signal generated based on a default code sequence; receiving a main mode reception signal in the main mode period; detecting , in the main mode period, an object based on the default code sequence and the main mode reception signal; determining , in the main mode period, whether an interference signal is present based on a preliminary code sequence and the main mode reception signal; and propagating an alternative mode transmission signal in an alternative mode period next to the main mode period, wherein the propagating of the alternative mode transmission signal comprises: generating the alternative mode transmission signal based on the preliminary code sequence, in response to the interference signal not being determined to be present; and changing the preliminary code sequence and generating the alternative mode transmission signal based on the changed preliminary code sequence, in response to the interference signal being determined to be present; wherein the main mode transmission signal and the alternative mode transmission signal are each generated based on at least two codes, wherein the alternative mode transmission signal is used to detect an object. propagating , in a main mode period, a main mode transmission signal generated based on a default code sequence; receiving a main mode reception signal in the main mode period; detecting , in the main mode period, an object based on the default code sequence and the main mode reception signal; determining , in the main mode period, whether an interference signal is present based on a preliminary code sequence and the main mode reception signal; and propagating an alternative mode transmission signal in an alternative mode period next to the main mode period, wherein the propagating of the alternative mode transmission signal comprises: generating the alternative mode transmission signal based on the preliminary code sequence, in response to the interference signal not being determined to be present; and changing the preliminary code sequence and generating the alternative mode transmission signal based on the changed preliminary code sequence, in response to the interference signal being determined to be present; generating the alternative mode transmission signal based on the preliminary code sequence, in response to the interference signal not being determined to be present; and changing the preliminary code sequence and generating the alternative mode transmission signal based on the changed preliminary code sequence, in response to the interference signal being determined to be present; wherein the main mode transmission signal and the alternative mode transmission signal are each generated based on at least two codes, wherein the alternative mode transmission signal is used to detect an object.
A hand-held power tool including an electrical motor unit comprised of stator and a rotor arranged concentrically outside the stator ; characterized in that a heat pipe is arranged with a first end inside the stator thermally connected to said stator , and a second end reaching outside of the stator and being thermally connected to a cooling device comprising a heat sink for cooling the second end of the heat pipe , the heat pipe comprising a phase changing fluid for transporting heat from the first end to the second end to be dissipated at the cooling device , wherein a fan is arranged to provide a cooling air stream to said heat sink and wherein the fan is arranged to provide a cooling air stream to said heat sink independently of the operation of the motor unit .
A flow restriction device , comprising: a male luer connector portion defining a first lumen ; a female luer connector portion defining a second lumen ; a tube defining a third lumen , wherein the third lumen is in fluid communication with the first lumen and the second lumen, and the third lumen having a diameter between 0.508 millimeters and 0.635 millimeters (0.020 inches and 0.025 inches); and an overmolded body portion formed around the tube. a tube defining a third lumen , wherein the third lumen is in fluid communication with the first lumen and the second lumen, and the third lumen having a diameter between 0.508 millimeters and 0.635 millimeters (0.020 inches and 0.025 inches); and an overmolded body portion formed around the tube.
A service fault locating method, comprising: receiving (S101) a service fault locating request message, wherein the service fault locating request message carries a Network Protocol, IP, address IPs of a source layer-3 device of a service packet, an IP address IP D of a destination layer-3 device of the service packet, and a characteristic parameter of the service packet; determining (S102), according to the characteristic parameter of the service packet, the IPs, and the IP D , that a service fault is between a first layer-3 device and a second layer-3 device, wherein the second layer-3 device is a next hop layer-3 device of the first layer-3 device, wherein the service fault is a link fault, a port fault, or a device fault; obtaining (S 103) a first network topology between the first layer-3 device and the second layer-3 device; determining (S104) a first forwarding path of the service packet between the first layer-3 device and the second layer-3 device according to the first network topology and the characteristic parameter of the service packet; configuring (S105) a forwarding entry for a forwarding device in the first forwarding path, and triggering (S105) the first layer-3 device to generate an extended layer-2 OAM packet, so that the forwarding device forwards the extended layer-2 OAM packet according to the first forwarding path; and obtaining (S106) a first path parameter that is of the first forwarding path and sent by the forwarding device, and determining a specific location of the service fault according to the first path parameter. receiving (S101) a service fault locating request message, wherein the service fault locating request message carries a Network Protocol, IP, address IPs of a source layer-3 device of a service packet, an IP address IP D of a destination layer-3 device of the service packet, and a characteristic parameter of the service packet; determining (S102), according to the characteristic parameter of the service packet, the IPs, and the IP D , that a service fault is between a first layer-3 device and a second layer-3 device, wherein the second layer-3 device is a next hop layer-3 device of the first layer-3 device, wherein the service fault is a link fault, a port fault, or a device fault; obtaining (S 103) a first network topology between the first layer-3 device and the second layer-3 device; determining (S104) a first forwarding path of the service packet between the first layer-3 device and the second layer-3 device according to the first network topology and the characteristic parameter of the service packet; configuring (S105) a forwarding entry for a forwarding device in the first forwarding path, and triggering (S105) the first layer-3 device to generate an extended layer-2 OAM packet, so that the forwarding device forwards the extended layer-2 OAM packet according to the first forwarding path; and obtaining (S106) a first path parameter that is of the first forwarding path and sent by the forwarding device, and determining a specific location of the service fault according to the first path parameter.
A system comprising an inhaler and a refill pack, the inhaler comprising a reservoir for an inhalable composition, a heating element and/or vibrating transducer to selectively volatilise at least some components of the composition and at least one inhaler capacitor arranged to supply electrical power to the heater and/or vibrating transducer when a user inhales from the inhaler; the refill pack comprising a refill reservoir of inhalable composition and a battery coupled to a refill capacitor , wherein the refill pack is arranged to engage with the inhaler and to simultaneously refill the reservoir and recharge the inhaler capacitor from the refill capacitor ; wherein the pack is arranged to fully recharge and refill the inhaler from empty in less than 30 seconds.
Culinary article comprising a cooking surface compatible with induction cooking, a signal processing unit connected to a magnetic field measuring device and to a wireless bidirectional communication module characterised in that the culinary article comprises a battery or batteries to supply power to the signal processing unit and the communication module , and the signal processing unit generates at least one confirmation information of the presence or absence of a magnetic field and the bidirectional communication module transmits at least this information.
A hydraulic hybrid powertrain (200; 1200; 2200; 3200; 4200; 5200) for a vehicle, comprising: an internal combustion engine selectively drivingly engaged with an input of a stepped-ratio transmission through a torque converter and through a speed direction changing device , an output of the stepped-ratio transmission being selectively drivingly engaged with a vehicle output ; an intermediate gear set drivingly engaged with the speed direction changing device and drivingly engaged with the input of the stepped-ratio transmission ; and a hydraulic machine in fluid communication with a hydraulic accumulator assembly, a transmission shaft of the hydraulic machine being drivingly engaged or selectively drivingly engaged with the intermediate gear set for providing energy to the intermediate gear set and for absorbing energy from the intermediate gear set , wherein the hydraulic machine has a variable hydraulic displacement for regulating an amount of torque applied to the intermediate gear set; and a displacement control device for controlling the displacement of the hydraulic machine, the displacement control device comprising a hydraulic actuator and at least one electric valve for controlling a position of the hydraulic actuator, wherein the displacement control device is in fluid communication with a hydraulic circuit comprising the accumulator assembly and the hydraulic machine. an internal combustion engine selectively drivingly engaged with an input of a stepped-ratio transmission through a torque converter and through a speed direction changing device , an output of the stepped-ratio transmission being selectively drivingly engaged with a vehicle output ; an intermediate gear set drivingly engaged with the speed direction changing device and drivingly engaged with the input of the stepped-ratio transmission ; and a hydraulic machine in fluid communication with a hydraulic accumulator assembly, a transmission shaft of the hydraulic machine being drivingly engaged or selectively drivingly engaged with the intermediate gear set for providing energy to the intermediate gear set and for absorbing energy from the intermediate gear set , wherein the hydraulic machine has a variable hydraulic displacement for regulating an amount of torque applied to the intermediate gear set; and a displacement control device for controlling the displacement of the hydraulic machine, the displacement control device comprising a hydraulic actuator and at least one electric valve for controlling a position of the hydraulic actuator, wherein the displacement control device is in fluid communication with a hydraulic circuit comprising the accumulator assembly and the hydraulic machine.
A neural inference chip comprising a neural core , the neural core comprising: a vector-matrix multiplier adapted to: receive a weight matrix having a weight matrix precision; receive an input activation vector having an input activation vector precision; wherein the vector-matrix multiplier is further adapted to vary the weight matrix precision and dimension and/or the input activation vector precision and dimension while maintaining constant bandwidth; and compute a partial sum vector by multiplying the input activation vector by the weight matrix, the partial sum vector having a partial sum vector precision, the partial sum vector comprising an output of the vector-matrix multiplier; a vector processor adapted to: receive one or more partial sum vectors from one or more vector sources, the one or more vector sources including the vector-matrix multiplier; and perform one or more vector functions on the one or more partial sum vectors to yield a vector processor output vector, the vector processor output vector having a precision equal to the partial sum vector precision; responsive to a required output activation precision, the weight matrix precision and the input activation vector precision, an activation unit operatively coupled to the vector processor and adapted to apply an activation function to the vector processor output vector, yielding an output activation vector having an output activation precision; and wherein each of the vector-matrix multiplier, vector processor, and/or activation unit are adapted to operate at variable precisions. a vector-matrix multiplier adapted to: receive a weight matrix having a weight matrix precision; receive an input activation vector having an input activation vector precision; wherein the vector-matrix multiplier is further adapted to vary the weight matrix precision and dimension and/or the input activation vector precision and dimension while maintaining constant bandwidth; and compute a partial sum vector by multiplying the input activation vector by the weight matrix, the partial sum vector having a partial sum vector precision, the partial sum vector comprising an output of the vector-matrix multiplier; a vector processor adapted to: receive one or more partial sum vectors from one or more vector sources, the one or more vector sources including the vector-matrix multiplier; and perform one or more vector functions on the one or more partial sum vectors to yield a vector processor output vector, the vector processor output vector having a precision equal to the partial sum vector precision; responsive to a required output activation precision, the weight matrix precision and the input activation vector precision, an activation unit operatively coupled to the vector processor and adapted to apply an activation function to the vector processor output vector, yielding an output activation vector having an output activation precision; and wherein each of the vector-matrix multiplier, vector processor, and/or activation unit are adapted to operate at variable precisions.
Sulfur-crosslinkable rubber mixture, in particular for the tread of pneumatic vehicle tires, containing - 20-100 phr (parts by weight based on 100 parts by weight of the total rubbers in the mixture) of at least one functionalized styrene-butadiene copolymer A, wherein the functionalized styrene-butadiene copolymer A is functionalized with an amino- and/or ammonium-containing organosilyl group at one chain end and wherein the functionalized styrene-butadiene copolymer A is functionalized with an amino group at the other chain end, wherein the amino group at the other chain end is a cyclic diamine group - up to 80 phr of at least one further diene rubber, - 40-350 phr of at least one filler and - 5 to 150 phr of at least one resin based on isopropenylbenzene. - 20-100 phr (parts by weight based on 100 parts by weight of the total rubbers in the mixture) of at least one functionalized styrene-butadiene copolymer A, wherein the functionalized styrene-butadiene copolymer A is functionalized with an amino- and/or ammonium-containing organosilyl group at one chain end and wherein the functionalized styrene-butadiene copolymer A is functionalized with an amino group at the other chain end, wherein the amino group at the other chain end is a cyclic diamine group - up to 80 phr of at least one further diene rubber, - 40-350 phr of at least one filler and - 5 to 150 phr of at least one resin based on isopropenylbenzene.
Vehicle door handle assembly comprising: - a bowl configured to be mounted in an opening of a door panel , - a bracket configured to fasten the bowl to the door panel , - a switch module which can be activated by a finger of a user introduced within a recess of the bowl to open the vehicle door, wherein the vehicle door handle assembly further comprises: - a plastic intermediate force-transmitting member inserted between the door panel and the switch module , the plastic intermediate force-transmitting member being in contact with the door panel , at least along a contact surface of the plastic intermediate force-transmitting member , in order to transmit efforts coming from the switch module to the door panel , characterized in that : - the switch module is mounted on the bracket in an opening of the bowl , - the plastic intermediate force-transmitting member prevents the deformation of the switch module . - a bowl configured to be mounted in an opening of a door panel , - a bracket configured to fasten the bowl to the door panel , - a switch module which can be activated by a finger of a user introduced within a recess of the bowl to open the vehicle door, wherein the vehicle door handle assembly further comprises: - a plastic intermediate force-transmitting member inserted between the door panel and the switch module , the plastic intermediate force-transmitting member being in contact with the door panel , at least along a contact surface of the plastic intermediate force-transmitting member , in order to transmit efforts coming from the switch module to the door panel , - a plastic intermediate force-transmitting member inserted between the door panel and the switch module , the plastic intermediate force-transmitting member being in contact with the door panel , at least along a contact surface of the plastic intermediate force-transmitting member , in order to transmit efforts coming from the switch module to the door panel , characterized in that : - the switch module is mounted on the bracket in an opening of the bowl , - the plastic intermediate force-transmitting member prevents the deformation of the switch module . - the switch module is mounted on the bracket in an opening of the bowl , - the plastic intermediate force-transmitting member prevents the deformation of the switch module .