mhurhangee/patent-ind-claim-en huggingface dataset:
An uplink control information sending method performed by a terminal device, , comprising: receiving configuration information through higher layer signaling from an access network device, wherein the configuration information indicating N channel resource sets, wherein N is a positive integer greater than or equal to 2; receiving, (S101) channel indication information from the access network device on a physical control channel; determining, (S102) a channel resource set of the N channel resource sets as a target channel resource set based on a quantity R α of bits of uplink control information, UCI, wherein the UCI includes at least one of hybrid automatic repeat request-acknowledgment, HARQ-ACK, information or channel state information, CSI; determining, (S103) a first target channel resource that is in the target channel resource set and that is indicated by the channel indication information; sending the UCI to the access network device on the first target channel resource. receiving configuration information through higher layer signaling from an access network device, wherein the configuration information indicating N channel resource sets, wherein N is a positive integer greater than or equal to 2; receiving, (S101) channel indication information from the access network device on a physical control channel; determining, (S102) a channel resource set of the N channel resource sets as a target channel resource set based on a quantity R α of bits of uplink control information, UCI, wherein the UCI includes at least one of hybrid automatic repeat request-acknowledgment, HARQ-ACK, information or channel state information, CSI; determining, (S103) a first target channel resource that is in the target channel resource set and that is indicated by the channel indication information; sending the UCI to the access network device on the first target channel resource.
A pressurized metered dose inhaler comprising: (a) a canister containing a formulation comprising an active pharmaceutical ingredient (API) selected from epinephrine and a pharmaceutically acceptable salt thereof; a liquified propellant; and a co-solvent; and (b) an actuator having one or more orifices with an effective diameter of from 0.12 mm to 0.33 mm. (a) a canister containing a formulation comprising an active pharmaceutical ingredient (API) selected from epinephrine and a pharmaceutically acceptable salt thereof; a liquified propellant; and a co-solvent; and an active pharmaceutical ingredient (API) selected from epinephrine and a pharmaceutically acceptable salt thereof; a liquified propellant; and a co-solvent; and (b) an actuator having one or more orifices with an effective diameter of from 0.12 mm to 0.33 mm.
A computer-implemented method for ending a view change in a Practical Byzantine Fault Tolerant, PBFT, mechanism at a first node to be implemented on a blockchair maintained by a number (N) of nodes where N is greater than 1, the method performed by the first node of the N nodes that is in a view change protocol, the method comprising: obtaining, respectively from at least a quorum of Q second nodes of the N nodes, at least Q first messages each comprising (a) a consistent current view known to the second node indicating a primary node designated among the N nodes and (b) a consistent current sequence number known to the second node, the current sequence number associated with a latest block or a latest transaction committed by the second node, wherein the current sequence number is larger than a first sequence number known to the first node, wherein the quorum Q is (N+F+1)/2 rounded up to the nearest integer, and F is (N-1)/3 rounded down to the nearest integer; responsive to obtaining the at least Q first messages, synchronizing a first copy of the blockchain maintained by the first node with a second copy of the blockchain maintained by a second node; and exiting the view change protocol to enter a normal operation protocol of the PBFT using the consistent current view for the first node. obtaining, respectively from at least a quorum of Q second nodes of the N nodes, at least Q first messages each comprising (a) a consistent current view known to the second node indicating a primary node designated among the N nodes and (b) a consistent current sequence number known to the second node, the current sequence number associated with a latest block or a latest transaction committed by the second node, wherein the current sequence number is larger than a first sequence number known to the first node, wherein the quorum Q is (N+F+1)/2 rounded up to the nearest integer, and F is (N-1)/3 rounded down to the nearest integer; responsive to obtaining the at least Q first messages, synchronizing a first copy of the blockchain maintained by the first node with a second copy of the blockchain maintained by a second node; and exiting the view change protocol to enter a normal operation protocol of the PBFT using the consistent current view for the first node.
A robot for working in an inflammable atmosphere, wherein noncombustible gas such as a nitrogen is supplied to an inside of the robot to increase the internal pressure making an atmosphere inside the device of non-explosive atmosphere, wherein the introduced gas in the robot generates airflow by mean of gas circulation; wherein a battery case is placed in the non-explosive atmosphere, the battery case comprising: a battery ; a circuit board that includes a circuit to protect the battery ; a chassis that houses the battery and the circuit board ; and at least two venthole openings disposed at the chassis to cause gas to pass through, characterized in that the battery case contains at least two venthole openings placed at respective positions facing one another at opposed side surface portions of the chassis . a battery case is placed in the non-explosive atmosphere, the battery case comprising: a battery ; a circuit board that includes a circuit to protect the battery ; a chassis that houses the battery and the circuit board ; and at least two venthole openings disposed at the chassis to cause gas to pass through, a battery ; a circuit board that includes a circuit to protect the battery ; a chassis that houses the battery and the circuit board ; and at least two venthole openings disposed at the chassis to cause gas to pass through, characterized in that the battery case contains at least two venthole openings placed at respective positions facing one another at opposed side surface portions of the chassis .
A method for resetting at least two pressure sensors (Capatm, Capsural, Capadmi) positioned in an air-intake line of an internal combustion engine, in which said at least two pressure sensors (Capatm, Capsural, Capadmi) are reset by a resetting compensation (Cr(T1) or Cr(T)) calculated for at least one second sensor (Capsural, Capadmi) with respect to a first pressure sensor (Capatm) serving as reference sensor between their respective pressure measurements at a temperature designated as initial temperature of the sensors when the engine is stopped, this resetting compensation (Cr(T1) or Cr(T)) being then applied to said at least one second sensor (Capsural, Capadmi) for correction of its pressure measurements, characterized in that there is carried out, prior to the application of the resetting compensation (Cr(T1) or Cr(T)) to said at least one second sensor (Capsural, Capadmi), an internal diagnostic step based on the value of the resetting compensation (Cr(T1) or CrT)) consisting of determining whether the resetting compensation (Cr(T1) or Cr(T)) exceeds a maximum compensation value (Crmax(T), Crmax(T1)), in which case it is diagnosed that one of said at least two sensors (Capatm, Capsural, Capadmi) is faulty and in that , in this case, the application of the resetting compensation (Cr(T1) or Cr(T)) is suspended.
Method of generating electrical energy by means of a fuel cell system operated with reformate gas, having the following steps: providing a fuel cell system having a first reactor (R1) for conversion of a fuel (B) to a first fuel gas (BG1) and a second reactor (R2) connected downstream of the first reactor (R1), where the second reactor (R2) forms one or more fuel cells for generation of electrical energy with formation of a cathode offgas (KA) and an anode offgas (AA), and where at least the second reactor is surrounded by a protective housing , providing a gas separation unit with which at least one of the gases CO 2 , N 2 and/or a partial gas mixture comprising CO 2 and N 2 is separable from the first fuel gas (BG1) or a further gas mixture formed therefrom, feeding at least a portion of the first fuel gas (BG1) or of the further gas mixture formed therefrom to the gas separation unit , separating the gases N 2 or CO 2 or the partial gas mixture from the first fuel gas (BG1) or the further gas mixture, feeding the gases N 2 or CO 2 separated or the partial gas mixture separated as inert gas into the protective housing and feeding a mixture of the first fuel gas (BG1) and an H 2 -enriched tail gas formed in the gas separation unit as second fuel gas (BG2) for operation of the fuel cells. providing a fuel cell system having a first reactor (R1) for conversion of a fuel (B) to a first fuel gas (BG1) and a second reactor (R2) connected downstream of the first reactor (R1), where the second reactor (R2) forms one or more fuel cells for generation of electrical energy with formation of a cathode offgas (KA) and an anode offgas (AA), and where at least the second reactor is surrounded by a protective housing , providing a gas separation unit with which at least one of the gases CO 2 , N 2 and/or a partial gas mixture comprising CO 2 and N 2 is separable from the first fuel gas (BG1) or a further gas mixture formed therefrom, feeding at least a portion of the first fuel gas (BG1) or of the further gas mixture formed therefrom to the gas separation unit , separating the gases N 2 or CO 2 or the partial gas mixture from the first fuel gas (BG1) or the further gas mixture, feeding the gases N 2 or CO 2 separated or the partial gas mixture separated as inert gas into the protective housing and feeding a mixture of the first fuel gas (BG1) and an H 2 -enriched tail gas formed in the gas separation unit as second fuel gas (BG2) for operation of the fuel cells.
A method, comprising: providing a mask pattern data having a plurality of exposure polygons to a processing unit of a digital lithography system, the processing unit having a plurality of image projection systems that receive the mask pattern data, each image projection system corresponds to a portion 2. of a plurality of portions of a substrate and receives an exposure polygon dataset corresponding to the portion; and scanning the substrate under the plurality of image projection systems and projecting pluralities of shots (308, 312a, 312b ... 312n) to the plurality of portions while shifting the mask pattern data, each shot of the pluralities of shots is inside the exposure polygon corresponding to the portion, shifting the mask pattern data comprises shifting the mask pattern data to positions between a maximum shift and a minimum shift at a shifting frequency. providing a mask pattern data having a plurality of exposure polygons to a processing unit of a digital lithography system, the processing unit having a plurality of image projection systems that receive the mask pattern data, each image projection system corresponds to a portion 2. of a plurality of portions of a substrate and receives an exposure polygon dataset corresponding to the portion; and scanning the substrate under the plurality of image projection systems and projecting pluralities of shots (308, 312a, 312b ... 312n) to the plurality of portions while shifting the mask pattern data, each shot of the pluralities of shots is inside the exposure polygon corresponding to the portion, shifting the mask pattern data comprises shifting the mask pattern data to positions between a maximum shift and a minimum shift at a shifting frequency.
An indoor unit of an air conditioner, comprising: an indoor unit main body including an inlet and an outlet ; a heat exchanger that performs heat exchange on air drawn in from the inlet ; and a cross-flow fan configured to blow out air, which has undergone heat exchange performed by the heat exchanger , from the outlet , wherein the cross-flow fan includes a blow-out flow path formed by a lower wall , left and right side walls , and an upper wall so that a cross-sectional area gradually increases downward, with the blow-out flow path guiding blown-out air to the outlet , a movement mechanism configured to switch between a stored state that does not project an element forming the blow-out flow path including the side walls out of the outlet and a projected state that projects at least the side walls out of the outlet , an indoor control unit configured to control the movement mechanism to switch between the stored state, in which the movable side walls do not project out of the outlet , and the projected state, in which the movable side walls project out of the outlet wherein the movement mechanism is further configured to be in the projected state when an air conditioning operation is performed, and the movement mechanism is configured to be in the stored state when an air conditioning operation is stopped, and characterized in that the side walls are configured to entirely cover transverse sides of the outlet in the projected state. an indoor unit main body including an inlet and an outlet ; a heat exchanger that performs heat exchange on air drawn in from the inlet ; and a cross-flow fan configured to blow out air, which has undergone heat exchange performed by the heat exchanger , from the outlet , wherein the cross-flow fan includes a blow-out flow path formed by a lower wall , left and right side walls , and an upper wall so that a cross-sectional area gradually increases downward, with the blow-out flow path guiding blown-out air to the outlet , a movement mechanism configured to switch between a stored state that does not project an element forming the blow-out flow path including the side walls out of the outlet and a projected state that projects at least the side walls out of the outlet , an indoor control unit configured to control the movement mechanism to switch between the stored state, in which the movable side walls do not project out of the outlet , and the projected state, in which the movable side walls project out of the outlet wherein the movement mechanism is further configured to be in the projected state when an air conditioning operation is performed, and the movement mechanism is configured to be in the stored state when an air conditioning operation is stopped, and characterized in that the side walls are configured to entirely cover transverse sides of the outlet in the projected state.
Method for emptying a flexible container of a bag contents therein, said flexible container comprising a bottom opening in its lower end and a top opening in its upper end , whereby the flexible container is placed in an emptying arrangement in such a way that the container's bottom opening is below the top opening , and the flexible container is turned around an axis of rotation that unites bottom opening and top opening , whereby the turning motion gradually propagates from the container's upper end towards its lower end at the same time as the container is twisted into a tight string in order to remove the bag contents from the flexible container via the bottom opening provided or made therein, characterised in that a restraint is applied to an upper surface of the flexible container , said restraint is essentially in continuous contact with the container in such a way that the restraint prevents rotation of that part of the flexible container lying below the restraint. the flexible container is placed in an emptying arrangement in such a way that the container's bottom opening is below the top opening , and the flexible container is turned around an axis of rotation that unites bottom opening and top opening , whereby the turning motion gradually propagates from the container's upper end towards its lower end at the same time as the container is twisted into a tight string in order to remove the bag contents from the flexible container via the bottom opening provided or made therein, characterised in that a restraint is applied to an upper surface of the flexible container , said restraint is essentially in continuous contact with the container in such a way that the restraint prevents rotation of that part of the flexible container lying below the restraint.
A compound of formula (I): wherein: R 1 , and R 2 are independently selected from linear or branched alkyl group, alkenyl group, alkoxy group and an alkylene aryl group having from 5 to 22 carbon atoms, wherein "aryl group" refers to a five or six membered cyclic, 8-10 membered bicyclic or 10-14 membered tricyclic group with aromatic character and includes groups which contain only hydrogen and carbon atoms and also heteroaromatic groups which contain hydrogen, carbon and one or more heteroatoms such as N, O or S; X 1 and X 2 are independently selected from -OC(O)- ; R 3 , R 4 , R 5 and R 6 are independently selected from hydrogen and C 1-4 alkyl group; Y 1 , Y 2 , Y 3 and Y 4 are independently selected from hydrogen, halogen, R 3 , -OR 3 provided that -OR 3 is not -O-alkenyl; a is 1 to 4; b is 0 or 1; x and y are independently selected from 0 or 1 provided that at least one of x and y is 1. R 1 , and R 2 are independently selected from linear or branched alkyl group, alkenyl group, alkoxy group and an alkylene aryl group having from 5 to 22 carbon atoms, wherein "aryl group" refers to a five or six membered cyclic, 8-10 membered bicyclic or 10-14 membered tricyclic group with aromatic character and includes groups which contain only hydrogen and carbon atoms and also heteroaromatic groups which contain hydrogen, carbon and one or more heteroatoms such as N, O or S; X 1 and X 2 are independently selected from -OC(O)- ; R 3 , R 4 , R 5 and R 6 are independently selected from hydrogen and C 1-4 alkyl group; Y 1 , Y 2 , Y 3 and Y 4 are independently selected from hydrogen, halogen, R 3 , -OR 3 provided that -OR 3 is not -O-alkenyl; a is 1 to 4; b is 0 or 1; x and y are independently selected from 0 or 1 provided that at least one of x and y is 1.
A frame for an aircraft fuselage, the frame comprising: a fluid duct , a skin mounting section configured to mount to a skin of the aircraft fuselage, wherein the fluid duct is spaced from the skin mounting section, further comprising an upper part forming the fluid duct and a lower part forming the skin mounting section, characterised in that the lower part is configured to be disposed between the skin of the fuselage and the fluid duct , wherein the upper part has spaced upper part feet which extend from opposing upper part webs , and the upper part webs extend from an upper part flange , wherein the upper part flange and webs define a frame channel . a fluid duct , a skin mounting section configured to mount to a skin of the aircraft fuselage, wherein the fluid duct is spaced from the skin mounting section, further comprising an upper part forming the fluid duct and a lower part forming the skin mounting section, characterised in that the lower part is configured to be disposed between the skin of the fuselage and the fluid duct , wherein the upper part has spaced upper part feet which extend from opposing upper part webs , and the upper part webs extend from an upper part flange , wherein the upper part flange and webs define a frame channel .
A method comprising: responsive to provisioning a media channel on a degree, the degree formed in part by an optical multiplexing/demultiplexing device, wherein the media channel is a contiguous portion of optical spectrum supporting N channels, N is greater than 1, causing allocation of optical filter bandwidth in the optical multiplexing/demultiplexing device for M channels in the media channel , where M is less than N, and characterized in that the allocation of optical filter bandwidth includes switching a plurality of adjacent filters to a same traffic switch port for each of the M channels ; causing provisioning of the M channels in the media channel ; and causing configuration of channel holders in the media channel from a channel holder source for a part of the contiguous portion of the optical spectrum, which is unoccupied by the M channels , by switching a second plurality of adjacent filters to a channel holder switch port . responsive to provisioning a media channel on a degree, the degree formed in part by an optical multiplexing/demultiplexing device, wherein the media channel is a contiguous portion of optical spectrum supporting N channels, N is greater than 1, causing allocation of optical filter bandwidth in the optical multiplexing/demultiplexing device for M channels in the media channel , where M is less than N, and characterized in that the allocation of optical filter bandwidth includes switching a plurality of adjacent filters to a same traffic switch port for each of the M channels ; causing provisioning of the M channels in the media channel ; and causing configuration of channel holders in the media channel from a channel holder source for a part of the contiguous portion of the optical spectrum, which is unoccupied by the M channels , by switching a second plurality of adjacent filters to a channel holder switch port .
A fall protection device adapted to be connected to a safety belt , comprising: a frame having a receiving space; a shaft disposed on the frame ; a decelerating member connected to the shaft , received in the receiving space, wherein an outer peripheral surface of the decelerating member has a plurality of friction surfaces arranged at intervals; and a safety belt base fitted around the decelerating member , having an outer peripheral surface and an inner peripheral surface , wherein the outer peripheral surface is adapted to be wrapped or be wound by the safety belt , and the inner peripheral surface is in contact with the plurality of friction surfaces of the decelerating member ; wherein the outer peripheral surface of the decelerating member has a plurality of connecting surfaces connected between any two adjacent friction surfaces ; each of the friction surfaces is disposed inside of an area surrounded by two extending surfaces (L1, L2) of any two adjacent connecting surfaces ; characterised in that each of the connecting surfaces is a flat surface. a frame having a receiving space; a shaft disposed on the frame ; a decelerating member connected to the shaft , received in the receiving space, wherein an outer peripheral surface of the decelerating member has a plurality of friction surfaces arranged at intervals; and a safety belt base fitted around the decelerating member , having an outer peripheral surface and an inner peripheral surface , wherein the outer peripheral surface is adapted to be wrapped or be wound by the safety belt , and the inner peripheral surface is in contact with the plurality of friction surfaces of the decelerating member ; wherein the outer peripheral surface of the decelerating member has a plurality of connecting surfaces connected between any two adjacent friction surfaces ; each of the friction surfaces is disposed inside of an area surrounded by two extending surfaces (L1, L2) of any two adjacent connecting surfaces ; characterised in that each of the connecting surfaces is a flat surface.