mhurhangee/patent-ind-claim-en huggingface dataset:
An airfoil for a gas turbine rotor blade , comprising: a pressure side wall ; a suction side wall connected to the pressure side wall at a leading edge portion and a trailing edge portion , the pressure side wall and the suction side wall collectively defining an internal cavity within the airfoil ; and a plurality of pins disposed within the internal cavity ; wherein the trailing edge portion defines a first cooling passage (164(a)) comprising a first inlet (166(a)) spaced apart from a first outlet (168(a)) by a first length (176(a)), the first cooling passage (164(a)) having a first diameter (170(a)); and a second cooling passage (164(b)) comprising a second inlet (166(b)) spaced apart from a second outlet (168(b)) by a second length (176(b)), the first length (176(a)) being greater than the second length (176(b)), the second cooling passage (164(b)) having a second diameter (170(b)); and a third cooling passage (164(c)) comprising a third inlet (166(c)) spaced apart from a third outlet (168(c)), the third cooling passage (164(c)) having a third diameter (170(c)); and wherein the first cooling passage (164(a)) is positioned radially outwardly from the third cooling passage (164(c)), and wherein the third cooling passage (164(c)) is positioned radially outwardly from the second cooling passage (164(b)), the airfoil being characterised in that the first length (175(a)) being greater than the second length (176(b)); and in that the first diameter (170(a)) of the first cooling passage (164(a)) is less than a second diameter (170(b)) of the second cooling passage (164(b)) and a third diameter (170(c)) of the third cooling passage (164(c)) is less than the second diameter (170(b)) and greater than the first diameter (170(a)). a pressure side wall ; a suction side wall connected to the pressure side wall at a leading edge portion and a trailing edge portion , the pressure side wall and the suction side wall collectively defining an internal cavity within the airfoil ; and a plurality of pins disposed within the internal cavity ; wherein the trailing edge portion defines a first cooling passage (164(a)) comprising a first inlet (166(a)) spaced apart from a first outlet (168(a)) by a first length (176(a)), the first cooling passage (164(a)) having a first diameter (170(a)); and a second cooling passage (164(b)) comprising a second inlet (166(b)) spaced apart from a second outlet (168(b)) by a second length (176(b)), the first length (176(a)) being greater than the second length (176(b)), the second cooling passage (164(b)) having a second diameter (170(b)); and a third cooling passage (164(c)) comprising a third inlet (166(c)) spaced apart from a third outlet (168(c)), the third cooling passage (164(c)) having a third diameter (170(c)); and
A method of operating an energy management system for a fleet of aircraft , the method comprising: receiving, by a controller module of the energy management system , a desired flight plan database for the fleet of aircraft , defining at least a desired flight plan for each of the fleet of aircraft and a location of each of the fleet of aircraft ; receiving, by the controller module , a replaceable power source inventory database defining at least a set of dischargeable energy modules ; estimating an energy demand for at least a subset of the desired flight plans for the fleet of aircraft ; determining whether a set of dischargeable energy modules are locatable at a respective location of at least a subset of the fleet of aircraft based on at least the replaceable power source inventory database and the subset of desired flight plans of the desired flight plan database ; based on the determination that set of dischargeable energy modules are locatable at a respective location of at least a subset of the fleet of aircraft , generate, by the energy management system , a power source inventory distribution plan allocating a subset of dischargeable energy modules for the at least a subset of the desired flight plans for the fleet of aircraft ; and loading the set of dischargeable energy modules onto the at least a subset of the fleet of aircraft in accordance with the power source inventory distribution plan . receiving, by a controller module of the energy management system , a desired flight plan database for the fleet of aircraft , defining at least a desired flight plan for each of the fleet of aircraft and a location of each of the fleet of aircraft ; receiving, by the controller module , a replaceable power source inventory database defining at least a set of dischargeable energy modules ; estimating an energy demand for at least a subset of the desired flight plans for the fleet of aircraft ; determining whether a set of dischargeable energy modules are locatable at a respective location of at least a subset of the fleet of aircraft based on at least the replaceable power source inventory database and the subset of desired flight plans of the desired flight plan database ; based on the determination that set of dischargeable energy modules are locatable at a respective location of at least a subset of the fleet of aircraft , generate, by the energy management system , a power source inventory distribution plan allocating a subset of dischargeable energy modules for the at least a subset of the desired flight plans for the fleet of aircraft ; and
Attachment system for attaching an energy-absorbing and/or redirective initial structure to a protective device along a road, comprising the initial structure, the protective device , a connecting element and a deflector element , wherein the connecting element and the deflector element are arranged between the initial structure and the protective device , and wherein the connecting element is attached to the initial structure and the protective device on the road side and the deflector element has a first attachment section and a first guide section , wherein the deflector element in the first attachment section is attached to the protective device at the bottom and the first guide section extends angled from the first attachment section in the direction of a central axis X of the protective device to the initial structure, characterized in that the protective device has a redirecting surface in a base region and a deflecting surface above the base region, the connecting element has at least four surface sections which are each separated from one another by a bending line along which they are formed, the connecting element is connected to the deflecting surface of the protective device in a first surface section of the four surface sections, the connecting element is connected to the initial structure in a fourth surface section of the four surface sections, and the second and third surface sections of the four surface sections lie along the central axis X between the first and fourth surface sections and form a transition between the first and fourth surface sections .
A storage system comprising at least one transport vehicle having a plurality of sensors (120-1, 120-2, 120-3, 120-4); a computing device for generating signals to control the movement of the transport vehicle; and a radio modem for receiving radio signals generated by RFID circuits and the sensors and for modulating data signals generated by a computing device into radio signals and transmitting the radio signals to the transport vehicle, characterized in that the system further comprises a grid of guide strips installed in a floor configured for the transport vehicle to align its path by sensing the position of a guide strip relative to the transport vehicle , wherein a radio frequency identification (RFID) circuit is installed in an intersection of two guide strips on the grid of guide strips .
A multi-pack curable composition comprising: an A agent comprising a polyoxyalkylene polymer (A) having a reactive silicon group represented by a general formula , a (meth)acrylate ester polymer (B) having a reactive silicon group represented by the general formula , and an epoxy resin curing agent (D) having a tertiary amine; and a B agent comprising an epoxy resin (C) and a silanol condensation catalyst (E), wherein a weight ratio of the polyoxyalkylene polymer (A):the (meth)acrylate ester polymer (B) is 95:5 to 50:50, a weight ratio of a total of the polyoxyalkylene polymer (A) and the (meth)acrylate ester polymer (B):the epoxy resin (C) is 90:10 to 50:50, and the (meth)acrylate ester polymer (B) contains a polymer containing 40% by weight or more of alkyl (meth)acrylate having 1 to 3 alkyl carbon atoms in a total monomer: -SiX 3 (wherein X represents a hydroxyl group or a hydrolyzable group). an A agent comprising a polyoxyalkylene polymer (A) having a reactive silicon group represented by a general formula , a (meth)acrylate ester polymer (B) having a reactive silicon group represented by the general formula , and an epoxy resin curing agent (D) having a tertiary amine; and a B agent comprising an epoxy resin (C) and a silanol condensation catalyst (E), wherein a weight ratio of the polyoxyalkylene polymer (A):the (meth)acrylate ester polymer (B) is 95:5 to 50:50, a weight ratio of a total of the polyoxyalkylene polymer (A) and the (meth)acrylate ester polymer (B):the epoxy resin (C) is 90:10 to 50:50, and the (meth)acrylate ester polymer (B) contains a polymer containing 40% by weight or more of alkyl (meth)acrylate having 1 to 3 alkyl carbon atoms in a total monomer: -SiX 3 (wherein X represents a hydroxyl group or a hydrolyzable group).
A battery pack diagnostic apparatus for diagnosing a battery pack comprising a battery and a battery management system , the battery pack diagnostic apparatus comprising: a communication port configured to provide an electrical connection between the battery pack diagnostic apparatus and the battery management system; a measurer electrically connected to an output terminal of the battery pack and configured to measure a voltage and a current of the battery pack; and a controller configured to obtain a first measurement value with respect to a first voltage and a first current of the battery pack, wherein the first voltage and the first current are received from the battery management system which measures the first voltage and first current of the battery pack, to obtain a second measurement value with respect to a second voltage and a second current of the battery pack, wherein the second voltage and the second current are measured by the measurer, and to analyze a state of the battery pack based on the first measurement value and the second measurement value. a communication port configured to provide an electrical connection between the battery pack diagnostic apparatus and the battery management system; a measurer electrically connected to an output terminal of the battery pack and configured to measure a voltage and a current of the battery pack; and a controller configured to obtain a first measurement value with respect to a first voltage and a first current of the battery pack, wherein the first voltage and the first current are received from the battery management system which measures the first voltage and first current of the battery pack, to obtain a second measurement value with respect to a second voltage and a second current of the battery pack, wherein the second voltage and the second current are measured by the measurer, and to analyze a state of the battery pack based on the first measurement value and the second measurement value.
Device for attaching to a robot, - having a gripper module , wherein the gripper module is configured to hold an object , and - having an interface configured to mechanically attach the device to a robot, - having a drive configured to move the gripper module from an extended position into a retracted position, and - having an outer shell whose dimensions are designed for - gripping an object with the gripper module in the extended position and - at least partly covering the gripper module and the object in the retracted position. - having a gripper module , wherein the gripper module is configured to hold an object , and - having an interface configured to mechanically attach the device to a robot, - having a drive configured to move the gripper module from an extended position into a retracted position, and - having an outer shell whose dimensions are designed for - gripping an object with the gripper module in the extended position and - at least partly covering the gripper module and the object in the retracted position. - gripping an object with the gripper module in the extended position and - at least partly covering the gripper module and the object in the retracted position.
A state transitioning method used by a user equipment, UE, to switch between a connected state and an inactive state, and the method comprising: establishing a wireless connection to enter into a connected state; (S2201) receiving an inactive state command while being in the connected state; (S2202) entering into the inactive state in response to receiving the inactive state command; (S2203) transmitting a connection resume request while being in the inactive state; (S2204) receiving an uplink, UL, grant which corresponds to the connection resume request; (S2205) and transmitting UL data in response to receiving the UL grant (S2206), wherein the UL data comprises a small data indication, wherein the inactive state command is received from a first base station with which the wireless connection has been established, the inactive state command comprising information of a radio access network, RAN, based notification area, RNA, and a network criteria of the wireless connection, wherein the network criteria assists the UE to determine whether the small data indication indicates true or false and assists the UE to determine whether to enter into the inactive state based on the small data indication after transmitting the UL data. establishing a wireless connection to enter into a connected state; (S2201) receiving an inactive state command while being in the connected state; (S2202) entering into the inactive state in response to receiving the inactive state command; (S2203) transmitting a connection resume request while being in the inactive state; (S2204) receiving an uplink, UL, grant which corresponds to the connection resume request; (S2205) and transmitting UL data in response to receiving the UL grant (S2206), wherein the UL data comprises a small data indication, wherein the inactive state command is received from a first base station with which the wireless connection has been established, the inactive state command comprising information of a radio access network, RAN, based notification area, RNA, and a network criteria of the wireless connection, wherein the network criteria assists the UE to determine whether the small data indication indicates true or false and assists the UE to determine whether to enter into the inactive state based on the small data indication after transmitting the UL data.
A shaft assembly , comprising: a shaft frame ; an end effector comprising an end effector frame ; an articulation joint, wherein said articulation joint rotatably connects said end effector frame to said shaft frame; an articulation driver configured to rotate said end effector about said articulation joint; and a first articulation lock selectively actuatable to engage said end effector frame and prevent said end effector frame from rotating relative to said shaft frame; characterised by a second articulation lock selectively actuatable to engage said articulation driver and prevent displacement of said articulation driver to prevent said end effector frame from rotating relative to said shaft frame. a shaft frame ; an end effector comprising an end effector frame ; an articulation joint, wherein said articulation joint rotatably connects said end effector frame to said shaft frame; an articulation driver configured to rotate said end effector about said articulation joint; and a first articulation lock selectively actuatable to engage said end effector frame and prevent said end effector frame from rotating relative to said shaft frame; characterised by a second articulation lock selectively actuatable to engage said articulation driver and prevent displacement of said articulation driver to prevent said end effector frame from rotating relative to said shaft frame.
Surface heat exchanger , in particular for air-conditioning rooms , comprising a mounting plate and a pipe system for conducting a medium along the mounting plate , the pipe system being fixed to the mounting plate with the aid of strip-like heat conducting plates which overlap the pipe system on both sides in a closed manner, characterised in that at least one wing projecting from the mounting plate is associated with each of the heat conducting plates , which wing is formed by an element (23, 23', 23", 23′′′) that is separate with respect to the heat conducting plate and the mounting plate .
A method for determining a communication channel for providing content data prior to a call setup from a subscriber A to a subscriber B , the method, performed by a user equipment of the subscriber A, comprising: generating an inquiry with a communication application , the inquiry comprising an indicator for determining a capability of the subscriber B to support a specific communication framework implemented in a communication network, receiving a response to the inquiry, the response comprising an indication on the capability of the subscriber B to support the specific communication framework implemented in the communication network, in response to a detection that the subscriber B supports the predetermined communication framework triggering a transmission of the content data over the specific communication framework implemented in the communication network , and in response to a detection that the subscriber B does not support the specific communication framework implemented in the communication network triggering a transmission of the content data to the subscriber B over the communication network into which the subscriber B is connected to , wherein the method is characterized in that it further comprises: initiating a call setup to the subscriber B in response to a detection that the content data is delivered to the subscriber B . generating an inquiry with a communication application , the inquiry comprising an indicator for determining a capability of the subscriber B to support a specific communication framework implemented in a communication network, receiving a response to the inquiry, the response comprising an indication on the capability of the subscriber B to support the specific communication framework implemented in the communication network, in response to a detection that the subscriber B supports the predetermined communication framework triggering a transmission of the content data over the specific communication framework implemented in the communication network , and in response to a detection that the subscriber B does not support the specific communication framework implemented in the communication network triggering a transmission of the content data to the subscriber B over the communication network into which the subscriber B is connected to , wherein the method is characterized in that it further comprises: initiating a call setup to the subscriber B in response to a detection that the content data is delivered to the subscriber B .
Wall plug , in particular chemical, comprising: i) a holed tubular jacket , this jacket defining an internal housing which emerges at each of the longitudinal ends of the jacket, and ii) an outer sock which surrounds the jacket and covers the holes of the jacket, said sock covering a first longitudinal end of the jacket so as to close said internal housing on the side of this first end, characterized in that the sock is made from an elastically deformable material and is suitable to be torn at the level of said holes when the wall plug is compressed. i) a holed tubular jacket , this jacket defining an internal housing which emerges at each of the longitudinal ends of the jacket, and ii) an outer sock which surrounds the jacket and covers the holes of the jacket,
A device for treating a patient's heart by partitioning a chamber of the patient's heart into a primary productive portion and a secondary non-productive portion, comprising: a reinforced membrane which forms a recess when in an expanded deployed configuration, the membrane being reinforced with an expandable frame which is formed of a plurality of ribs having secured first ends and free second ends , wherein the free second ends of the ribs are outwardly curved; and at least one outwardly biased strand which is secured to and extends around a peripheral portion of the membrane to exert pressure on the membrane so as to seal the peripheral portion of the membrane against a ventricular wall surface defining in part the patient's heart chamber. a reinforced membrane which forms a recess when in an expanded deployed configuration, the membrane being reinforced with an expandable frame which is formed of a plurality of ribs having secured first ends and free second ends , wherein the free second ends of the ribs are outwardly curved; and at least one outwardly biased strand which is secured to and extends around a peripheral portion of the membrane to exert pressure on the membrane so as to seal the peripheral portion of the membrane against a ventricular wall surface defining in part the patient's heart chamber.
A method, comprising: by a wireless device : providing capability information to the first cellular base station , wherein the capability information indicates that the wireless device supports configuration of consecutive conditional handovers; receiving conditional handover information from the first cellular base station, wherein the conditional handover information specifies the conditions under which to perform conditional handover from one cell to another cell, explicitly indicates to keep the conditional handover information after handover completion, and supports consecutive conditional handovers; performing a first conditional handover using the conditional handover information received from the first cellular base station; and retaining the conditional handover information received from the first cellular base station after the first conditional handover. providing capability information to the first cellular base station , wherein the capability information indicates that the wireless device supports configuration of consecutive conditional handovers; receiving conditional handover information from the first cellular base station, wherein the conditional handover information specifies the conditions under which to perform conditional handover from one cell to another cell, explicitly indicates to keep the conditional handover information after handover completion, and supports consecutive conditional handovers; performing a first conditional handover using the conditional handover information received from the first cellular base station; and retaining the conditional handover information received from the first cellular base station after the first conditional handover.