mhurhangee/ep-ind-claims huggingface dataset:
A self-adjusting stud, comprising: a first portion having a first retractability, wherein the first portion includes: an impact-attenuating assembly having a hole therethrough; a plunger positioned to activate the impact-attenuating assembly when a force is applied to the plunger, wherein at least a portion of the plunger extends through the hole of the impact-attenuating assembly; and a tip that engages with the portion of the plunger that extends through the hole of the impact-attenuating assembly; wherein the tip is in a retracted position when the impact-attenuating assembly is in a first, unactivated state and the tip is in an extended position when the impact-attenuating assembly is in a second, activated state; and a second portion having a second retractability that is less than the first retractability, wherein the second portion surrounds the first portion; wherein the first portion and the second portion are substantially unretracted when the self-adjusting stud comes into contact with a surface of a first hardness and the first portion is retracted and the second portion is substantially unretracted when the self adjusting stud comes into contact with a surface of a second hardness, and wherein the first hardness is less than the second hardness. a first portion having a first retractability, wherein the first portion includes: an impact-attenuating assembly having a hole therethrough; a plunger positioned to activate the impact-attenuating assembly when a force is applied to the plunger, wherein at least a portion of the plunger extends through the hole of the impact-attenuating assembly; and a tip that engages with the portion of the plunger that extends through the hole of the impact-attenuating assembly; wherein the tip is in a retracted position when the impact-attenuating assembly is in a first, unactivated state and the tip is in an extended position when the impact-attenuating assembly is in a second, activated state; and an impact-attenuating assembly having a hole therethrough; a plunger positioned to activate the impact-attenuating assembly when a force is applied to the plunger, wherein at least a portion of the plunger extends through the hole of the impact-attenuating assembly; and a tip that engages with the portion of the plunger that extends through the hole of the impact-attenuating assembly; wherein the tip is in a retracted position when the impact-attenuating assembly is in a first, unactivated state and the tip is in an extended position when the impact-attenuating assembly is in a second, activated state; and a second portion having a second retractability that is less than the first retractability, wherein the second portion surrounds the first portion; wherein the first portion and the second portion are substantially unretracted when the self-adjusting stud comes into contact with a surface of a first hardness and the first portion is retracted and the second portion is substantially unretracted when the self adjusting stud comes into contact with a surface of a second hardness, and wherein the first hardness is less than the second hardness.
Clothes dryer comprising a process air circuit for process air for drying laundry to be dried, a first coolant circuit for a first coolant and a second coolant circuit for a second coolant, the first and second coolant circuits (6, 8) each having an evaporator (10, 12), a compressor (14, 16) which is fluidically connected to the evaporator (10, 12), a condenser (18, 20) which is fluidically connected to the compressor (14, 16), and a throttle (22, 24) which is fluidically connected to the condenser (18, 20), the throttle (22, 24) of the first coolant circuit being fluidically connected to the evaporator (10, 12) of the first coolant circuit and the throttle (22, 24) of the second coolant circuit being fluidically connected to the evaporator (10, 12) of the second coolant circuit, and the evaporator of the first coolant circuit and the condenser of the second coolant circuit each being arranged in the process air circuit in a heat-transferring manner so as to transfer heat with the process air, characterised in that the condenser of the first coolant circuit and the evaporator of the second coolant circuit are in direct heat-transfer connection, the condenser of the first coolant circuit and the evaporator of the second coolant circuit being arranged outside the process air circuit.
Method for selecting and optimizing oil field controls for production plateau comprising: - determining a reservoir model, - generating with numerical tools a development plan comprising a facilities model and the controls for a predetermined production rate, preferably the FOPR, said development plan comprising: ∘ distribution of production well locations and optionally injection well locations for the reservoir model, ∘ a drilling schedule and, ∘ a control of the wells, - simulating with numerical tools the reservoir model under the development plan conditions for the predetermined production rate adapted to generate an average production profile and the plateau duration, wherein the selection of the controls for production plateau comprises iteratively: - providing a guess for the production rate variable, - providing a cost function that evaluates an average ranking measure, preferably the net present value NPV, according to the production rate variable, - while the average ranking measure is not maximum carrying out the following steps: ∘ simulating the reservoir model for the production rate value providing the facilities model and the average ranking measure, ∘ if the average ranking measure is not maximum generating a new production rate, - providing the field controls according to the production rate that makes the average ranking measure maximum. - determining a reservoir model, - generating with numerical tools a development plan comprising a facilities model and the controls for a predetermined production rate, preferably the FOPR, said development plan comprising: ∘ distribution of production well locations and optionally injection well locations for the reservoir model, ∘ a drilling schedule and, ∘ a control of the wells, ∘ distribution of production well locations and optionally injection well locations for the reservoir model, ∘ a drilling schedule and, ∘ a control of the wells, - simulating with numerical tools the reservoir model under the development plan conditions for the predetermined production rate adapted to generate an average production profile and the plateau duration, - providing a guess for the production rate variable, - providing a cost function that evaluates an average ranking measure, preferably the net present value NPV, according to the production rate variable, - while the average ranking measure is not maximum carrying out the following steps: ∘ simulating the reservoir model for the production rate value providing the facilities model and the average ranking measure, ∘ if the average ranking measure is not maximum generating a new production rate, ∘ simulating the reservoir model for the production rate value providing the facilities model and the average ranking measure, ∘ if the average ranking measure is not maximum generating a new production rate, - providing the field controls according to the production rate that makes the average ranking measure maximum.
A method of transmitting new radio uplink control information, NR UCI, of a user equipment, UE, in an unlicensed band in a wireless communication system, the method comprising: generating the NR UCI comprising Hybrid Automatic Repeat reQuest-acknowledgement, HARQ-ACK, and channel state information, CSI, part I; and transmitting, to a base station, the NR UCI on a physical uplink shared channel, PUSCH, wherein a number of resource elements to which the CSI part I is mapped is determined based on a value of (i) a number of available resource elements for the NR UCI on the PUSCH minus (ii) a number of resource elements to which the HARQ-ACK and configured grant in the unlicensed band-uplink control information, CGU-UCI, are mapped. generating the NR UCI comprising Hybrid Automatic Repeat reQuest-acknowledgement, HARQ-ACK, and channel state information, CSI, part I; and transmitting, to a base station, the NR UCI on a physical uplink shared channel, PUSCH, wherein a number of resource elements to which the CSI part I is mapped is determined based on a value of (i) a number of available resource elements for the NR UCI on the PUSCH minus (ii) a number of resource elements to which the HARQ-ACK and configured grant in the unlicensed band-uplink control information, CGU-UCI, are mapped.
Retention member for securing a unit, in particular a pump, to a motor vehicle, having an annular damping element whose inner region is provided for receiving the unit and which has at the outer side a securing element whose upper side which is directed radially away from the center of the damping element is provided as an interface to the motor vehicle, there being arranged in the securing element a substantially plate-like insertion member which is configured to locally reinforce the damping element, characterized in that the insertion member has at each of the two opposing edges a wing which extends into the damping element.
A pharmaceutical composition for use in a combinational therapy of treating ovarian cancer in a subject, preferably a mammal, comprising a formulation including a benzo[b]azepine TLR8 agonist and a pharmaceutically acceptable carrier, wherein the combinational therapy further comprises an effective amount of doxorubicin, and the TLR8 agonist is 2-amino-N,N-dipropyl-8-(4-(pyrrolidine-1-carbonyl)phenyl)-3H-benzo[b]azepine-4-carboxamide or a pharmaceutically acceptable salt thereof.
A light irradiator, comprising: a light source including a plurality of light-emitting elements; a heat sink thermally coupled to the light source; a blower blowable toward the heat sink; a housing accommodating the light source, the blower, and the heat sink, the housing having an outlet adjacent to the heat sink and an inlet adjacent to the blower; and a partition in the housing, the partition dividing an internal space of the housing into an air blowing space between the blower and the heat sink and a remaining space excluding the air blowing space, wherein the partition includes a first wall, characterized in that the partition further includes a second wall perpendicularly connected to the first wall, and a pair of mounting pieces perpendicularly connected to the second wall, wherein the blower attached to the partition extends between the pair of mounting pieces. a light source including a plurality of light-emitting elements; a heat sink thermally coupled to the light source; a blower blowable toward the heat sink; a housing accommodating the light source, the blower, and the heat sink, the housing having an outlet adjacent to the heat sink and an inlet adjacent to the blower; and a partition in the housing, the partition dividing an internal space of the housing into an air blowing space between the blower and the heat sink and a remaining space excluding the air blowing space, wherein the partition includes a first wall, characterized in that the partition further includes a second wall perpendicularly connected to the first wall, and a pair of mounting pieces perpendicularly connected to the second wall, wherein the blower attached to the partition extends between the pair of mounting pieces.
A method for producing water-absorbing resin powder, comprising sequentially: a polymerization step for polymerizing an aqueous solution of acrylic acid (salt) to obtain a hydrogel-like cross-linked polymer; a drying step for drying the obtained hydrogel-like cross-linked polymer to obtain a dried polymer; a pulverization step for pulverizing the obtained dried polymer with a pulverizing means to obtain a pulverized polymer; a classification step for classifying the obtained pulverized polymer to obtain a classified polymer; and a surface cross-linking step for surface cross-linking the obtained classified polymer; characterized in that, at least a part of the classified polymer is supplied again to the same or different pulverization step, before the surface cross-linking step, wherein circulation pulverization ratio in the pulverization step, represented by the following equation is 1.10 to 1.50: Circulation pulverization ratio = total supply amount of the water-absorbing resin to the pulverization step / total discharge amount of the water-absorbing resin at the drying step wherein (total supply amount of the water-absorbing resin to the pulverization step)=(total discharge amount of the water-absorbing resin at the drying step)+(amount of the classified polymer supplied again to the same or different pulverization step). a polymerization step for polymerizing an aqueous solution of acrylic acid (salt) to obtain a hydrogel-like cross-linked polymer; a drying step for drying the obtained hydrogel-like cross-linked polymer to obtain a dried polymer; a pulverization step for pulverizing the obtained dried polymer with a pulverizing means to obtain a pulverized polymer; a classification step for classifying the obtained pulverized polymer to obtain a classified polymer; and a surface cross-linking step for surface cross-linking the obtained classified polymer; characterized in that, at least a part of the classified polymer is supplied again to the same or different pulverization step, before the surface cross-linking step, wherein circulation pulverization ratio in the pulverization step, represented by the following equation is 1.10 to 1.50: Circulation pulverization ratio = total supply amount of the water-absorbing resin to the pulverization step / total discharge amount of the water-absorbing resin at the drying step wherein (total supply amount of the water-absorbing resin to the pulverization step)=(total discharge amount of the water-absorbing resin at the drying step)+(amount of the classified polymer supplied again to the same or different pulverization step).
Method for adjusting failsafe monitoring in an industrial automation plant, wherein a first sensor of a mobile component of the industrial automation plant, which sensor monitors a first monitoring region of the mobile component, is used to determine a pose of the mobile component relative to a further component of the industrial automation plant in a failsafe manner, wherein a second sensor monitors a second monitoring region of the further component, wherein a communicative and failsafe coupling is set up between the mobile component and the further component, wherein successful coupling results in the first monitoring region of the mobile component being adjusted, characterized in that successful coupling results in the second monitoring region of the further component being adjusted. wherein a first sensor of a mobile component of the industrial automation plant, which sensor monitors a first monitoring region of the mobile component, is used to determine a pose of the mobile component relative to a further component of the industrial automation plant in a failsafe manner, wherein a second sensor monitors a second monitoring region of the further component, wherein a communicative and failsafe coupling is set up between the mobile component and the further component, wherein successful coupling results in the first monitoring region of the mobile component being adjusted, characterized in that successful coupling results in the second monitoring region of the further component being adjusted.
A method of aligning a missile with a target in a laser beam riding missile guidance system, the system including a laser transmitter adapted for generating and projecting a laser information field towards the target and an optical sight for aiming the laser information field towards the target, the missile comprising a light sensor, a target sensor, a guidance processor unit and a guidance control for controlling the flight of the missile, the method comprising: detecting, using the light sensor onboard the missile, light in the laser information field; determining, using the guidance processor unit onboard the missile, and based on the detected light, a point in the laser information field with which the missile is currently aligned; determining, using the guidance processor unit onboard the missile, a distance of the target from the missile, wherein the distance of the target from the missile is determined by comparing the distance of the target from the optical sight with the distance of the missile from the laser transmitter; wherein data conveying the distance of the target from the optical sight is received by the missile via the laser information field; determining, using the target sensor onboard the missile, a position of the target relative to the missile, thereby to determine an angular displacement between the missile's current direction of travel and the direction in which the target lies from the missile; determining, using the guidance processor unit onboard the missile, and based on said distance and angular displacement, a new point in the laser information field with which the missile should be aligned to reach the target; and using the guidance control onboard the missile to bring the missile into alignment with the new point in the laser information field. detecting, using the light sensor onboard the missile, light in the laser information field; determining, using the guidance processor unit onboard the missile, and based on the detected light, a point in the laser information field with which the missile is currently aligned; determining, using the guidance processor unit onboard the missile, a distance of the target from the missile, wherein the distance of the target from the missile is determined by comparing the distance of the target from the optical sight with the distance of the missile from the laser transmitter; wherein data conveying the distance of the target from the optical sight is received by the missile via the laser information field; determining, using the target sensor onboard the missile, a position of the target relative to the missile, thereby to determine an angular displacement between the missile's current direction of travel and the direction in which the target lies from the missile; determining, using the guidance processor unit onboard the missile, and based on said distance and angular displacement, a new point in the laser information field with which the missile should be aligned to reach the target; and using the guidance control onboard the missile to bring the missile into alignment with the new point in the laser information field.
An emergency vision apparatus (2; 74), comprising: a) an inflatable first enclosure (4; 76), the first enclosure (4; 76) being made of airtight material and having an expanded form when deployed and a deflated form when not in use; b) first and second clear members (6, 8; 82, 84) disposed at respective first and second ends of the first enclosure (4; 76) to enable a user to see through the first clear member of the first enclosure (4; 76) when expanded and observe a source of information disposed outside the inflatable first enclosure in front of the second clear member (8; 84) while smoke or other particulate matter is in the environment; c) the first enclosure (4; 76) including a closable opening configured for insertion of a user's hand to allow the user to operate a touch sensitive screen or hardware disposed outside the inflatable first enclosure in front of the second clear member (8; 84); and d) a sealable closure (14; 60) for closing the opening and sealing the opening around the user's hand. a) an inflatable first enclosure (4; 76), the first enclosure (4; 76) being made of airtight material and having an expanded form when deployed and a deflated form when not in use; b) first and second clear members (6, 8; 82, 84) disposed at respective first and second ends of the first enclosure (4; 76) to enable a user to see through the first clear member of the first enclosure (4; 76) when expanded and observe a source of information disposed outside the inflatable first enclosure in front of the second clear member (8; 84) while smoke or other particulate matter is in the environment; c) the first enclosure (4; 76) including a closable opening configured for insertion of a user's hand to allow the user to operate a touch sensitive screen or hardware disposed outside the inflatable first enclosure in front of the second clear member (8; 84); and d) a sealable closure (14; 60) for closing the opening and sealing the opening around the user's hand.
A belt cleaner system comprising: a cleaner blade for being biased into scraping engagement with a conveyor belt; a first resilient mount for the cleaner blade that allows said cleaner blade to shift away from the conveyor belt; a second resilient mount secured to the first resilient mount that allows the cleanser blade to shift away from the conveyor belt; a third resilient mount operably secured to the first and second resilient mounts (78, 102) for allowing the cleaner blade to shift away from the conveyor belt; and a fourth resilient mount secured to the third resilient mount that allows the cleaner blade to shift away from the conveyor belt with the resilient mounts (78, 102, 126, 128) cooperating to provide four distinct mounts that absorb energy of impacts on the cleaner blade during the operation of the conveyor belt with the cleaner blade shifting away from the conveyor belt, and provide for controlled release of the impact energy to minimize impact force of the cleaner blade against the conveyor belt; characterized in that the belt cleaning system comprises a plurality of cleaning blades arranged in side-by-side orientation for extending across the width of the conveyor belt, a plurality of first resilient mounts and a plurality of second resilient mounts, so that each cleaner blade includes a pair of said first and second resilient means (78,102) so as to form a plurality of modular cleaner units. a cleaner blade for being biased into scraping engagement with a conveyor belt; a first resilient mount for the cleaner blade that allows said cleaner blade to shift away from the conveyor belt; a second resilient mount secured to the first resilient mount that allows the cleanser blade to shift away from the conveyor belt; a third resilient mount operably secured to the first and second resilient mounts (78, 102) for allowing the cleaner blade to shift away from the conveyor belt; and a fourth resilient mount secured to the third resilient mount that allows the cleaner blade to shift away from the conveyor belt with the resilient mounts (78, 102, 126, 128) cooperating to provide four distinct mounts that absorb energy of impacts on the cleaner blade during the operation of the conveyor belt with the cleaner blade shifting away from the conveyor belt, and provide for controlled release of the impact energy to minimize impact force of the cleaner blade against the conveyor belt; characterized in that the belt cleaning system comprises a plurality of cleaning blades arranged in side-by-side orientation for extending across the width of the conveyor belt, a plurality of first resilient mounts and a plurality of second resilient mounts, so that each cleaner blade includes a pair of said first and second resilient means (78,102) so as to form a plurality of modular cleaner units.