mhurhangee/patent-ind-claim-en huggingface dataset:
A battery pack , comprising: at least one battery module and electric parts electrically connected to the at least one battery module ; a tray configured to support the at least one battery module and the electric parts at an upper surface thereof; and a pack cover having a rim that faces a rim of the tray , the pack cover being coupled to the tray to cover the battery module and the electric parts , wherein the pack cover includes a cover body with a depth sufficient to cover the at least one battery module and electric parts , wherein the rim of the pack cover forms an outer periphery of the cover body , characterized in that the cover body is a deep drawn cover body , and the tray includes a tray stopper provided at the rim of the tray and bent upwards to support the rim of the pack cover from an outer side toward an inner side. at least one battery module and electric parts electrically connected to the at least one battery module ; a tray configured to support the at least one battery module and the electric parts at an upper surface thereof; and a pack cover having a rim that faces a rim of the tray , the pack cover being coupled to the tray to cover the battery module and the electric parts , wherein the pack cover includes a cover body with a depth sufficient to cover the at least one battery module and electric parts , wherein the rim of the pack cover forms an outer periphery of the cover body , characterized in that the cover body is a deep drawn cover body , and the tray includes a tray stopper provided at the rim of the tray and bent upwards to support the rim of the pack cover from an outer side toward an inner side.
Process for additive manufacturing of a machine component , comprising the steps of: a) providing at least one material layer ; b) irradiating the material layer with a laser to effect local melting of the material layer ; characterized in that in step a) a hardening agent is added to a base material of the material layer in locally adjustable fashion, wherein the addition of the hardening agent is adjustable to the extent that it is specifiable how much hardening agent is added to the material layer of the base material at a selectable site on the surface, with the result that a locally changeable fractional composition of the material layer in terms of the base material and the hardening agent is brought about, and in step b) the hardening agent is at least embedded in the base material by the irradiation with the laser . a) providing at least one material layer ; b) irradiating the material layer with a laser to effect local melting of the material layer ; characterized in that in step a) a hardening agent is added to a base material of the material layer in locally adjustable fashion, wherein the addition of the hardening agent is adjustable to the extent that it is specifiable how much hardening agent is added to the material layer of the base material at a selectable site on the surface, with the result that a locally changeable fractional composition of the material layer in terms of the base material and the hardening agent is brought about, and in step b) the hardening agent is at least embedded in the base material by the irradiation with the laser . characterized in that in step a) a hardening agent is added to a base material of the material layer in locally adjustable fashion, wherein the addition of the hardening agent is adjustable to the extent that it is specifiable how much hardening agent is added to the material layer of the base material at a selectable site on the surface, with the result that a locally changeable fractional composition of the material layer in terms of the base material and the hardening agent is brought about, and in step b) the hardening agent is at least embedded in the base material by the irradiation with the laser .
A power tool , comprising: a housing ; a main shaft being capable of rotating about a first axis , a brake disc , wherein the shaft is formed with or fixedly connected with the brake disc; and a brake spring (17, 17', 17") for contacting with the brake disc so as to brake the main shaft, the brake spring comprising: fixed portions fixedly connected with the housing, a moving portion being capable of moving relative to the housing, a friction plate (22, 22', 22") capable of engaging with the brake disc, wherein when the moving portion is in a first position, the friction plate is disengaged with the brake disc, when the moving portion is in a second position, the friction plate is contacted with the brake disc, and wherein the moving portion of the brake spring is configured to be moved from the first position to the second position under the action of a biasing force of the brake spring, characterized in that the brake spring is a brake leaf spring, and the moving portion is mounted with the friction plate fixed thereon. a housing ; a main shaft being capable of rotating about a first axis , a brake disc , wherein the shaft is formed with or fixedly connected with the brake disc; and a brake spring (17, 17', 17") for contacting with the brake disc so as to brake the main shaft, the brake spring comprising: fixed portions fixedly connected with the housing, a moving portion being capable of moving relative to the housing, a friction plate (22, 22', 22") capable of engaging with the brake disc, wherein when the moving portion is in a first position, the friction plate is disengaged with the brake disc, when the moving portion is in a second position, the friction plate is contacted with the brake disc, and wherein the moving portion of the brake spring is configured to be moved from the first position to the second position under the action of a biasing force of the brake spring, characterized in that the brake spring is a brake leaf spring, and the moving portion is mounted with the friction plate fixed thereon. fixed portions fixedly connected with the housing, a moving portion being capable of moving relative to the housing, a friction plate (22, 22', 22") capable of engaging with the brake disc, wherein when the moving portion is in a first position, the friction plate is disengaged with the brake disc, when the moving portion is in a second position, the friction plate is contacted with the brake disc, and wherein the moving portion of the brake spring is configured to be moved from the first position to the second position under the action of a biasing force of the brake spring, characterized in that the brake spring is a brake leaf spring, and the moving portion is mounted with the friction plate fixed thereon.
A method for optimizing deep resistivity measurements, comprising: obtaining one or more first multi-component measurements from a downhole tool disposed in a borehole , wherein the downhole tool comprises a single receiver and transmitter (Rx, Tx), both being antennae, wherein one of the transmitter and receiver is tilted with respect to the longitudinal axis of the downhole tool and the other one of the transmitter and receiver is non-tilted; determining a relative structural dip angle, Φ, of the downhole tool; adjusting a tilt angle of the tilted antenna relative to an axis of the tool, wherein the adjusted tilt angle is based on the relative structural dip angle of the downhole tool; obtaining one or more second multi-component measurements associated with the adjusted tilt angle; and determining a formation characteristic based, at least in part, on the one or more second multi-component measurements without including anisotropy effects, wherein determining the relative structural dip angle of the downhole tool comprises obtaining one or more measurements from a second downhole tool. obtaining one or more first multi-component measurements from a downhole tool disposed in a borehole , wherein the downhole tool comprises a single receiver and transmitter (Rx, Tx), both being antennae, wherein one of the transmitter and receiver is tilted with respect to the longitudinal axis of the downhole tool and the other one of the transmitter and receiver is non-tilted; determining a relative structural dip angle, Φ, of the downhole tool; adjusting a tilt angle of the tilted antenna relative to an axis of the tool, wherein the adjusted tilt angle is based on the relative structural dip angle of the downhole tool; obtaining one or more second multi-component measurements associated with the adjusted tilt angle; and determining a formation characteristic based, at least in part, on the one or more second multi-component measurements without including anisotropy effects, wherein determining the relative structural dip angle of the downhole tool comprises obtaining one or more measurements from a second downhole tool.
A system , comprising: at least one processor and a memory; and a compiler , executing on the at least one processor, that: generates a ranked order of one or more global variables in a program based on usage of the one or more global variables in the program; forms a group of select ones of the one or more global variables that are used within a same function of a program; selects a base global variable from the group , wherein the base global variable has a highest rank in the ranked order ; and generates a first instruction to load a base address of a memory page of the base global variable, a second instruction to add a first offset to the base address to generate an address of the base global variable, and a third instruction to add a second offset to the address of the base global variable to generate an address of a second global variable within the same function of the program, wherein the second offset is based on a distance of the second global variable from the base global variable in the ranked order of global variables. at least one processor and a memory; and a compiler , executing on the at least one processor, that: generates a ranked order of one or more global variables in a program based on usage of the one or more global variables in the program; forms a group of select ones of the one or more global variables that are used within a same function of a program; selects a base global variable from the group , wherein the base global variable has a highest rank in the ranked order ; and generates a first instruction to load a base address of a memory page of the base global variable, a second instruction to add a first offset to the base address to generate an address of the base global variable, and a third instruction to add a second offset to the address of the base global variable to generate an address of a second global variable within the same function of the program, wherein the second offset is based on a distance of the second global variable from the base global variable in the ranked order of global variables. generates a ranked order of one or more global variables in a program based on usage of the one or more global variables in the program; forms a group of select ones of the one or more global variables that are used within a same function of a program; selects a base global variable from the group , wherein the base global variable has a highest rank in the ranked order ; and generates a first instruction to load a base address of a memory page of the base global variable, a second instruction to add a first offset to the base address to generate an address of the base global variable, and a third instruction to add a second offset to the address of the base global variable to generate an address of a second global variable within the same function of the program, wherein the second offset is based on a distance of the second global variable from the base global variable in the ranked order of global variables.
A sports racquet and removable wrist strap system comprising: a head ; a handle coupled to the head ; a flexible tether extending from an end of the handle ; a wrist strap ; and a wrist strap connector releasably connecting the wrist strap to the flexible tether , the wrist strap connector comprising: a collar connected to one of the wrist strap and the flexible tether , the collar having an interior having a side opening and a side slot extending from the side opening ; and an insert connected to the other of the wrist strap and the flexible tether , wherein the insert is insertable into the interior through the side opening while portions of the wrist strap or the flexible tether are insertable into the interior through the side slot . a head ; a handle coupled to the head ; a flexible tether extending from an end of the handle ; a wrist strap ; and a wrist strap connector releasably connecting the wrist strap to the flexible tether , the wrist strap connector comprising: a collar connected to one of the wrist strap and the flexible tether , the collar having an interior having a side opening and a side slot extending from the side opening ; and an insert connected to the other of the wrist strap and the flexible tether , wherein the insert is insertable into the interior through the side opening while portions of the wrist strap or the flexible tether are insertable into the interior through the side slot . a collar connected to one of the wrist strap and the flexible tether , the collar having an interior having a side opening and a side slot extending from the side opening ; and an insert connected to the other of the wrist strap and the flexible tether , wherein the insert is insertable into the interior through the side opening while portions of the wrist strap or the flexible tether are insertable into the interior through the side slot .
Method for operating a fine sieve machine having at least one screen deck for receiving at least one screen lining which has an inclination of at least 10° relative to a horizontal plane, and at least one ultrasonic vibration exciter for generating ultrasonic vibrations which are transmitted to the screen lining , so that at least one ultrasonic vibration exciter is operated in pulsed mode, wherein the ultrasonic vibration exciter repeatedly alternates between a first operating mode having a first vibration amplitude and a second operating mode having a second vibration amplitude which is smaller than the first vibration amplitude, wherein the first and the second operating mode alternate regularly, wherein the at least one ultrasonic vibration exciter is operated for a first period of time in the first operating mode, the first period of time being shorter than an average residence time of unsieved screening particles on the screen lining, and wherein the at least one ultrasonic vibration exciter is operated in the second operating mode for a second period of time which is between 0.01 s and 5 s.
A method for manufacturing a photovoltaic module comprising one or more photovoltaic cells embedded in a fiber-reinforced thermosetting composite material , the one or more photovoltaic cells having a front side to be irradiated and a back side, the method comprising providing the one or more photovoltaic cells, providing glass fibers at the front side of the one or more photovoltaic cells having aminosilane coupling agents covalently attached to the glass fibers, and providing a substantially transparent uncured epoxy resin on the front side of the photovoltaic cells, chemically reacting the uncured epoxy resin and the aminosilane coupling agents with each other such that, after the reaction, the refractive indices of the glass fibers and the epoxy resin differ less than 2% from each other in a light wavelength region of 300 nm to 2000 nm and, after the reaction, a covalent bonding of the epoxy resin and the glass fibers is achieved thereby obtaining a void content of less than 2%. providing the one or more photovoltaic cells, providing glass fibers at the front side of the one or more photovoltaic cells having aminosilane coupling agents covalently attached to the glass fibers, and providing a substantially transparent uncured epoxy resin on the front side of the photovoltaic cells, chemically reacting the uncured epoxy resin and the aminosilane coupling agents with each other such that, after the reaction, the refractive indices of the glass fibers and the epoxy resin differ less than 2% from each other in a light wavelength region of 300 nm to 2000 nm and, after the reaction, a covalent bonding of the epoxy resin and the glass fibers is achieved thereby obtaining a void content of less than 2%.
A propulsion assembly for an unmanned aerial vehicle, UAV, said assembly comprising: a motor configured to rotate in a first direction ; a propeller seat configured to be driven by the motor to rotate in the first direction and to receive a propeller ; a sensor ; and one or more processors, i) wherein the sensor is configured to collect sensing data for determining i.1) when the propeller is locked to the propeller seat , and i.2) when the propeller is not locked to the propeller seat , without requiring operation of the motor ; and the one or more processors are configured to obtain the sensing data from the sensor and to determine a spatial configuration between the propeller seat and the propeller based on the sensing data, or ii) wherein the sensor is configured to collect sensing data for determining whether the propeller matches the propeller seat , without requiring operation of the motor ; and the one or more processors are configured to obtain the sensing data from the sensor . a motor configured to rotate in a first direction ; a propeller seat configured to be driven by the motor to rotate in the first direction and to receive a propeller ; a sensor ; and one or more processors, i) wherein the sensor is configured to collect sensing data for determining i.1) when the propeller is locked to the propeller seat , and i.2) when the propeller is not locked to the propeller seat , without requiring operation of the motor ; and the one or more processors are configured to obtain the sensing data from the sensor and to determine a spatial configuration between the propeller seat and the propeller based on the sensing data, or ii) wherein the sensor is configured to collect sensing data for determining whether the propeller matches the propeller seat , without requiring operation of the motor ; and the one or more processors are configured to obtain the sensing data from the sensor . i) wherein the sensor is configured to collect sensing data for determining i.1) when the propeller is locked to the propeller seat , and i.2) when the propeller is not locked to the propeller seat , without requiring operation of the motor ; and the one or more processors are configured to obtain the sensing data from the sensor and to determine a spatial configuration between the propeller seat and the propeller based on the sensing data, or ii) wherein the sensor is configured to collect sensing data for determining whether the propeller matches the propeller seat , without requiring operation of the motor ; and the one or more processors are configured to obtain the sensing data from the sensor .
A method of cutting a tubular , comprising: providing a rotatable cutting tool in the tubular, the cutting tool having a blade rotatable about a pivot point , the blade comprising a blade body having an attachment including a protrusion , with a cutting structure disposed on a leading edge of the protrusion; extending the blade body from a retracted position relative to the cutting tool; rotating the cutting tool relative to the tubular; guiding the cutting structure into contact with the tubular using an initial engagement point disposed on the protrusion, wherein the initial engagement point comprises a wearable member , thereby preventing interrupted cutting; cutting the tubular using the cutting structure of the blade; and limiting extension of the blade by engaging the tubular using a stop disposed on the attachment. providing a rotatable cutting tool in the tubular, the cutting tool having a blade rotatable about a pivot point , the blade comprising a blade body having an attachment including a protrusion , with a cutting structure disposed on a leading edge of the protrusion; extending the blade body from a retracted position relative to the cutting tool; rotating the cutting tool relative to the tubular; guiding the cutting structure into contact with the tubular using an initial engagement point disposed on the protrusion, wherein the initial engagement point comprises a wearable member , thereby preventing interrupted cutting; cutting the tubular using the cutting structure of the blade; and limiting extension of the blade by engaging the tubular using a stop disposed on the attachment.
A data transmission control method, comprising: receiving (S101, S307, S402, S502), by a radio communication node, a data packet of a transport protocol layer from a base station, wherein a Packet Data Convergence Protocol protocol data unit, PDCP PDU, of the base station is encapsulated in the data packet; acquiring (S102, S308, S403, S503), by the radio communication node, the PDCP PDU encapsulated in the data packet, wherein the PDCP PDU is used as a Radio Link Control service data unit, RLC SDU; sending (S103, S309, S404, S504), by the radio communication node, to a user equipment, UE, at least one RLC PDU, generated by using the RLC SDU; receiving (S104, S310, S405, S505), by the radio communication node, a second status report from the user equipment, wherein the second status report is used to indicate whether the user equipment successfully receives the at least one RLC PDU; sending (S105, S311, S406, S506), by the radio communication node, a first status report to the base station, wherein if the second status report indicates that the user equipment successfully receives the at least one RLC PDU, the first status report indicates that the PDCP PDU is successfully sent to the user equipment; characterized by : receiving, by the radio communication node, a request message sent by the base station, wherein the request message is used to request the radio communication node to send the first status report to the base station. receiving (S101, S307, S402, S502), by a radio communication node, a data packet of a transport protocol layer from a base station, wherein a Packet Data Convergence Protocol protocol data unit, PDCP PDU, of the base station is encapsulated in the data packet; acquiring (S102, S308, S403, S503), by the radio communication node, the PDCP PDU encapsulated in the data packet, wherein the PDCP PDU is used as a Radio Link Control service data unit, RLC SDU; sending (S103, S309, S404, S504), by the radio communication node, to a user equipment, UE, at least one RLC PDU, generated by using the RLC SDU; receiving (S104, S310, S405, S505), by the radio communication node, a second status report from the user equipment, wherein the second status report is used to indicate whether the user equipment successfully receives the at least one RLC PDU; sending (S105, S311, S406, S506), by the radio communication node, a first status report to the base station, wherein if the second status report indicates that the user equipment successfully receives the at least one RLC PDU, the first status report indicates that the PDCP PDU is successfully sent to the user equipment; characterized by : receiving, by the radio communication node, a request message sent by the base station, wherein the request message is used to request the radio communication node to send the first status report to the base station.