mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising contacting a polymer composition with a metal processing surface wherein the metal processing surface is at a temperature of equal to or greater than 90°C, wherein the polymer composition comprises one or more base polymers selected from the group consisting of polyvinyl halides, poly(meth)acrylics, polycarbonates, olefin-based polymers, and polystryrenes and a lubricant package which comprises at least one release agent of the following formulas: where R is an alkyl group having 6 or more carbon atoms, M is a metal or cation, and X may be absent or selected from the group consisting of aromatic groups and ester groups, wherein the release agent is present in an amount from 0.001 to 0.5 phr. contacting a polymer composition with a metal processing surface wherein the metal processing surface is at a temperature of equal to or greater than 90°C, wherein the polymer composition comprises one or more base polymers selected from the group consisting of polyvinyl halides, poly(meth)acrylics, polycarbonates, olefin-based polymers, and polystryrenes and a lubricant package which comprises at least one release agent of the following formulas: where R is an alkyl group having 6 or more carbon atoms, M is a metal or cation, and X may be absent or selected from the group consisting of aromatic groups and ester groups, wherein the release agent is present in an amount from 0.001 to 0.5 phr.
A method of controlling a compressor, characterized in that the method comprises: after the compressor is stopped for protection, updating the number of protective stops of the compressor occurring during a current operation of an air conditioner (S10); and when the number of protective stops of the compressor is greater than a first preset number, lowering a frequency of the compressor so that when the compressor restarts the compressor starts and operates at the lowered frequency (S20). after the compressor is stopped for protection, updating the number of protective stops of the compressor occurring during a current operation of an air conditioner (S10); and when the number of protective stops of the compressor is greater than a first preset number, lowering a frequency of the compressor so that when the compressor restarts the compressor starts and operates at the lowered frequency (S20).
An assembly (50; 150) for an aircraft having a propeller , the assembly (50; 150) comprising: an engine assembly (10; 110) having an engine shaft configured for driving engagement with a propeller , the engine assembly (10; 110) including first and second heat exchangers configured for circulation of at least one of a liquid coolant and a lubricant therethrough; a first cooling duct receiving the first heat exchanger and having a first outlet downstream of the first heat exchanger , and a second cooling duct receiving the second heat exchanger and having a second outlet downstream of the second heat exchanger , the first and second outlets being in direct fluid communication with an environment of an aircraft, the first and second outlets being laterally spaced from each other; characterised by : a wheel well configured for receiving a retracted landing gear ; and being located between the first and second outlets . an engine assembly (10; 110) having an engine shaft configured for driving engagement with a propeller , the engine assembly (10; 110) including first and second heat exchangers configured for circulation of at least one of a liquid coolant and a lubricant therethrough; a first cooling duct receiving the first heat exchanger and having a first outlet downstream of the first heat exchanger , and a second cooling duct receiving the second heat exchanger and having a second outlet downstream of the second heat exchanger , the first and second outlets being in direct fluid communication with an environment of an aircraft, the first and second outlets being laterally spaced from each other; a wheel well configured for receiving a retracted landing gear ; and being located between the first and second outlets .
A suspension system for a vehicle comprising: a pivotable control arm having a first end connectable to a wheel carrier and a second end connectable to an inboard component of the vehicle; a rotary actuator ; and a linkage connecting the rotary actuator to the control arm , so that torque applied to the linkage by the rotary actuator is translated into a force which acts on the control arm to pivot the control arm and a wheel carrier connected to said first end , relative to said inboard component of the vehicle; wherein the rotary actuator comprises an output shaft and the linkage comprises a torque transfer arm attached to the output shaft and a pushrod to connect the torque transfer arm to the control arm ; wherein the rotary actuator comprises a housing mountable to an inboard component of the vehicle; and wherein the torque transfer arm comprises an axle rotatably mounted in the housing by a bearing located in the housing on either side of a slot in the housing , the torque transfer arm extending from said slot . a pivotable control arm having a first end connectable to a wheel carrier and a second end connectable to an inboard component of the vehicle; a rotary actuator ; and a linkage connecting the rotary actuator to the control arm , so that torque applied to the linkage by the rotary actuator is translated into a force which acts on the control arm to pivot the control arm and a wheel carrier connected to said first end , relative to said inboard component of the vehicle; wherein the rotary actuator comprises an output shaft and the linkage comprises a torque transfer arm attached to the output shaft and a pushrod to connect the torque transfer arm to the control arm ; wherein the rotary actuator comprises a housing mountable to an inboard component of the vehicle; and wherein the torque transfer arm comprises an axle rotatably mounted in the housing by a bearing located in the housing on either side of a slot in the housing , the torque transfer arm extending from said slot .
A Compound I having the following structural formula: or a pharmaceutically acceptable salt thereof, for use in the treatment of non-small cell lung cancer, wherein the Compound I is administered at intervals wherein the ratio of the number of days in the dosing period to the withdrawal period is 2: 0.5 to 2 .
A composition comprising an antimicrobial silver hydrated fatty acid-derived biomaterial comprising a fatty acid, and a glyceride, wherein the fatty acid and glyceride components are cross-linked to each other to form a bioabsorbable gel containing the cross-linked fatty acids and glycerides, wherein the biomaterial is hydrated with an aqueous form of silver to form silver fatty acid salts within the biomaterial, wherein the aqueous form of silver is selected from the group consisting of silver acetate and silver nitrate.
Composite panel for air cargo containers providing resistance to fire emanating from within the interior of the air cargo container and comprising: a. a foam core made from a fire-resistant, closed cell foam and having a density of between 12.0 kg/m 3 (0.75 lbs/ft 3 ) and 320.4 kg/m 3 and (20.0 lb/ft 3 ) and a thickness of at least 2.54mm (0.1 inch); b. a skin attached to each surface of the core, each skin formed by fire resistant fibers having a melt temperature of least 649°C (1200°F) with a matrix resin spread throughout the fibers; characterized in that : c. the resin composition being such that it does not melt, support the flame, or completely degrade, and continues to function as a binder in the presence of a temperature of 815.6° (1500° F); d. a foam core has a uniform thickness and is formed of foams selected from phenolic, carbon, ceramic, polyimides, polysulfides, polyketones and mineral based pumice; e. the composite panel is of such construction as to contain fire with temperatures of up to 815.6°C (1500°F) within an interior of an air cargo container having at least side walls, rear wall and roof constructed of said composite panels for a period of at least four hours. a. a foam core made from a fire-resistant, closed cell foam and having a density of between 12.0 kg/m 3 (0.75 lbs/ft 3 ) and 320.4 kg/m 3 and (20.0 lb/ft 3 ) and a thickness of at least 2.54mm (0.1 inch); b. a skin attached to each surface of the core, each skin formed by fire resistant fibers having a melt temperature of least 649°C (1200°F) with a matrix resin spread throughout the fibers; characterized in that : c. the resin composition being such that it does not melt, support the flame, or completely degrade, and continues to function as a binder in the presence of a temperature of 815.6° (1500° F); d. a foam core has a uniform thickness and is formed of foams selected from phenolic, carbon, ceramic, polyimides, polysulfides, polyketones and mineral based pumice; e. the composite panel is of such construction as to contain fire with temperatures of up to 815.6°C (1500°F) within an interior of an air cargo container having at least side walls, rear wall and roof constructed of said composite panels for a period of at least four hours. c. the resin composition being such that it does not melt, support the flame, or completely degrade, and continues to function as a binder in the presence of a temperature of 815.6° (1500° F); d. a foam core has a uniform thickness and is formed of foams selected from phenolic, carbon, ceramic, polyimides, polysulfides, polyketones and mineral based pumice; e. the composite panel is of such construction as to contain fire with temperatures of up to 815.6°C (1500°F) within an interior of an air cargo container having at least side walls, rear wall and roof constructed of said composite panels for a period of at least four hours.
An information transmission method, performed by a terminal device or a chip of a terminal device , comprising: receiving downlink control information, DCI, with cyclic redundancy code, CRC, scrambled by a radio network temporary identifier, RNTI, wherein the RNTI corresponds to a time domain resource set, the time domain resource set comprising at least one first time domain resource, and the DCI comprises second information indicating an index of the first time domain resource in the time domain resource set; determining the time domain resource set based on the RNTI; determining the first time domain resource based on the time domain resource set and the second information; and performing information transmission on the first time domain resource and through a physical channel; wherein the time domain resource set belongs to a plurality of time domain resource sets comprising a first time domain resource set and a second time domain resource set, a first RNTI corresponds to the first time domain resource set, and a second RNTI corresponds to the second time domain resource set, the second RNTI is different from the first RNTI; and the first time domain resource set is predefined in a protocol and the second time domain resource set is configured by radio resource control, RRC, signaling, or, the first time domain resource set and the second time domain resource set are configured by RRC signaling. receiving downlink control information, DCI, with cyclic redundancy code, CRC, scrambled by a radio network temporary identifier, RNTI, wherein the RNTI corresponds to a time domain resource set, the time domain resource set comprising at least one first time domain resource, and the DCI comprises second information indicating an index of the first time domain resource in the time domain resource set; determining the time domain resource set based on the RNTI; determining the first time domain resource based on the time domain resource set and the second information; and performing information transmission on the first time domain resource and through a physical channel; wherein the time domain resource set belongs to a plurality of time domain resource sets comprising a first time domain resource set and a second time domain resource set, a first RNTI corresponds to the first time domain resource set, and a second RNTI corresponds to the second time domain resource set, the second RNTI is different from the first RNTI; and the first time domain resource set is predefined in a protocol and the second time domain resource set is configured by radio resource control, RRC, signaling, or, the first time domain resource set and the second time domain resource set are configured by RRC signaling. the first time domain resource set is predefined in a protocol and the second time domain resource set is configured by radio resource control, RRC, signaling, or, the first time domain resource set and the second time domain resource set are configured by RRC signaling.
A method for providing a set of crease lines to a web of a packaging material for liquid food packaging, the crease lines facilitating folding of the packaging material to a package, the packaging material having a fibrous paperboard or carton bulk layer having a density higher than 300 kg/m3 and a bending stiffness index of from 6.0 to 24.0 Nm6/kg3, according to method ISO 2493-1 and SCAN-P 29:95 (equivalently 0.5 to 2.0 Nm7/kg3), the method comprising the steps of: arranging the packaging material to be creased between an elastic anvil and a pressing tool having a protrusive ridge pattern , which corresponds to the set of crease lines, facing the elastic anvil , wherein each crease line corresponds to one protrusive ridge, each ridge comprising a base portion and an imprint portion , wherein the width of the imprint portion is continuously decreasing from the base portion to an apex , feeding the packaging material through a nip formed between an elastic anvil 14 roller and a pressing tool 12 roller, at a rotational speed from 300 m/min and above, and pressing each protrusive ridge towards the elastic anvil such that the packaging material will be subject to an imprint, whereby the width of the imprint is continuously increasing as the protrusive ridge is pressed against the elastic anvil, wherein the step of pressing the protrusive ridge towards the elastic anvil is performed such that the width of the imprint is continuously increasing until the crease line is fully imprinted and such that the width of the imprint is increasing non-symmetrically along a central line of the imprint, and wherein each crease line to facilitate one folding operation has only one single fracture initiation line. arranging the packaging material to be creased between an elastic anvil and a pressing tool having a protrusive ridge pattern , which corresponds to the set of crease lines, facing the elastic anvil , wherein each crease line corresponds to one protrusive ridge, each ridge comprising a base portion and an imprint portion , wherein the width of the imprint portion is continuously decreasing from the base portion to an apex , feeding the packaging material through a nip formed between an elastic anvil 14 roller and a pressing tool 12 roller, at a rotational speed from 300 m/min and above, and pressing each protrusive ridge towards the elastic anvil such that the packaging material will be subject to an imprint, whereby the width of the imprint is continuously increasing as the protrusive ridge is pressed against the elastic anvil, wherein the step of pressing the protrusive ridge towards the elastic anvil is performed such that the width of the imprint is continuously increasing until the crease line is fully imprinted and such that the width of the imprint is increasing non-symmetrically along a central line of the imprint, and wherein each crease line to facilitate one folding operation has only one single fracture initiation line.
A method for evaluating analgesic sensitivity, comprising associating a gene polymorphism of a cyclic AMP responsive element binding protein gene or a haplotype constituted by the gene polymorphism with an individual analgesic sensitivity, wherein the gene polymorphism is rs2952768 of a CREB1 subtype gene and the C/C or T/C genotype is correlated with a low sensitivity to analgesic.
Hot-forming line for producing hot-formed and press-hardened sheet steel products , having a tempering station for heating at least one sheet blank and a hot-forming and press-hardening tool , and in that there is provided along the hot-forming line a linear conveying system , characterised in that the linear conveying system is formed from at least two parallel opposing rails , wherein the rails are displaceable in at least a translational direction and gripping elements are arranged on the rails , wherein the gripping elements are displaceable in the axial direction of the rails and in that the gripping elements can be raised and lowered orthogonally to the axial direction of the rails , wherein the hot-forming and press-hardening tool and the tempering station are disposed at a spacing of less than 2 m, preferably less than 1 m, more particularly less than 50 cm, and in that the hot-forming line is formed to be at least two-fall, so that initially two sheet blanks can be heated simultaneously and at least two sheet steel products can be hot-formed and press-hardened simultaneously.
A coil for magnetic stimulation of a head, the coil comprising: a base portion including multiple adjacent stimulating elements , said base portion configured to encircle at least a portion of a first section of the head and to provide electrical flow in a substantially clockwise or counter-clockwise path; a protruding return portion including multiple adjacent protruding return elements , said protruding return portion configured to encircle and protrude from the head, and to provide electrical flow in a continuation of the clockwise or counter-clockwise circular path of said base portion , wherein all of said multiple stimulating elements of said base portion are configured to contact the head and wherein all of said multiple protruding return elements are configured to protrude from the head; and a contacting return portion including multiple contacting return elements , said contacting return portion is configured to encircle and contact at least a portion of a second section of the head and to provide electrical flow in a continuation of the clockwise or counter-clockwise path of said base portion, characterised in that said first section is a frontal section of the head, and said second section is an occipital section of the head. a base portion including multiple adjacent stimulating elements , said base portion configured to encircle at least a portion of a first section of the head and to provide electrical flow in a substantially clockwise or counter-clockwise path; a protruding return portion including multiple adjacent protruding return elements , said protruding return portion configured to encircle and protrude from the head, and to provide electrical flow in a continuation of the clockwise or counter-clockwise circular path of said base portion , wherein all of said multiple stimulating elements of said base portion are configured to contact the head and wherein all of said multiple protruding return elements are configured to protrude from the head; and a contacting return portion including multiple contacting return elements , said contacting return portion is configured to encircle and contact at least a portion of a second section of the head and to provide electrical flow in a continuation of the clockwise or counter-clockwise path of said base portion, characterised in that said first section is a frontal section of the head, and said second section is an occipital section of the head.
A cooling system comprising: a first pump module configured to control a first pump to pump a first cooling fluid through a first cooling circuit ; a first condenser fan module configured to control a first condenser fan to transfer air across a first condenser of the first cooling circuit ; and at least one control module configured to, while operating in a pumped refrigerant economizer mode or a mixed mode, determine a requested call for cooling percentage, characterised in that the first pump module is configured to activate the first pump if the requested call for cooling percentage is greater than or equal to a first predetermined call for cooling percentage, and the first condenser fan module is configured to (i) if the requested call for cooling percentage is greater than or equal to the first predetermined call for cooling percentage, at least one of activate the first condenser fan or operate the first condenser fan at least at a first minimum speed , and (ii) based on the requested call for cooling percentage, adjust a speed of the first condenser fan between the first minimum speed and a first maximum permitted speed to provide the requested call for cooling percentage. a first pump module configured to control a first pump to pump a first cooling fluid through a first cooling circuit ; a first condenser fan module configured to control a first condenser fan to transfer air across a first condenser of the first cooling circuit ; and at least one control module configured to, while operating in a pumped refrigerant economizer mode or a mixed mode, determine a requested call for cooling percentage, characterised in that the first pump module is configured to activate the first pump if the requested call for cooling percentage is greater than or equal to a first predetermined call for cooling percentage, and the first condenser fan module is configured to (i) if the requested call for cooling percentage is greater than or equal to the first predetermined call for cooling percentage, at least one of activate the first condenser fan or operate the first condenser fan at least at a first minimum speed , and (ii) based on the requested call for cooling percentage, adjust a speed of the first condenser fan between the first minimum speed and a first maximum permitted speed to provide the requested call for cooling percentage. the first pump module is configured to activate the first pump if the requested call for cooling percentage is greater than or equal to a first predetermined call for cooling percentage, and the first condenser fan module is configured to (i) if the requested call for cooling percentage is greater than or equal to the first predetermined call for cooling percentage, at least one of activate the first condenser fan or operate the first condenser fan at least at a first minimum speed , and (ii) based on the requested call for cooling percentage, adjust a speed of the first condenser fan between the first minimum speed and a first maximum permitted speed to provide the requested call for cooling percentage.