mhurhangee/ep-ind-claims huggingface dataset:
A method for supplying spout attachment bags, said method comprising the steps of: positioning an empty spout attachment bag in a horizontal orientation, picking up the positioned bag by a suction cup and lifting the bag upward, and then transferring the bag toward a predetermined delivery position while holding the bag in a horizontal orientation, characterized in that one vertical plane is set as a reference plane, a center line of the positioned bag is located in the reference plane, the bag is a corner-spout attachment bag, the suction cup is rotated centered on a vertical rotational axis, the rotational axis of the suction cup is kept located in the reference plane, the position of the rotational axis when the suction cup picks up the bag is set to a position where a corner opening perpendicular line that passes through a center of a spout attachment corner opening of the bag intersects the reference plane, and wherein the method rotates the suction cup at a specific angle centered on the rotational axis between a time when the bag is picked up and when the bag is transferred to the delivery position, and sets the corner opening perpendicular line of the bag, which is at the delivery position, in the reference plane. positioning an empty spout attachment bag in a horizontal orientation, picking up the positioned bag by a suction cup and lifting the bag upward, and then transferring the bag toward a predetermined delivery position while holding the bag in a horizontal orientation, one vertical plane is set as a reference plane, a center line of the positioned bag is located in the reference plane, the bag is a corner-spout attachment bag, the suction cup is rotated centered on a vertical rotational axis, the rotational axis of the suction cup is kept located in the reference plane, the position of the rotational axis when the suction cup picks up the bag is set to a position where a corner opening perpendicular line that passes through a center of a spout attachment corner opening of the bag intersects the reference plane, and wherein the method rotates the suction cup at a specific angle centered on the rotational axis between a time when the bag is picked up and when the bag is transferred to the delivery position, and sets the corner opening perpendicular line of the bag, which is at the delivery position, in the reference plane.
A resource allocation method, comprising: - configuring, by a base station when a user equipment establishes a connection, paired user equipments and a group radio network temporary identifier, RNTI, used in resource scheduling, wherein the paired user equipments comprise paired user equipments that communicate in terminal direct mode, the paired user equipments comprise at least two user equipments, wherein one equipment of the at least two equipments corresponds to another user equipment; - receiving, by the base station, an amount of data which is sent by the one user equipment in the paired user equipments by using a buffer status report, BSR, and needs to be uploaded by the one user equipment; - sending, by the base station and on a same physical downlink control channel, PDCCH, a sending resource grant to the one user equipment, and sending receiving resource allocation to the another user equipment, wherein control information comprised in the sending resource grant sent by the base station to the another user equipment is completely the same in content as control information comprised in the receiving resource allocation sent by the base station to the one user equipment, and the sending resource grant and the receiving resource allocation are scrambled by the base station by using the group RNTI; and - instructing, by the base station, the one user equipment and the another user equipment to perform data communication in terminal direct mode respectively according to the sending resource grant and the receiving resource allocation. - configuring, by a base station when a user equipment establishes a connection, paired user equipments and a group radio network temporary identifier, RNTI, used in resource scheduling, wherein the paired user equipments comprise paired user equipments that communicate in terminal direct mode, the paired user equipments comprise at least two user equipments, wherein one equipment of the at least two equipments corresponds to another user equipment; - receiving, by the base station, an amount of data which is sent by the one user equipment in the paired user equipments by using a buffer status report, BSR, and needs to be uploaded by the one user equipment; - sending, by the base station and on a same physical downlink control channel, PDCCH, a sending resource grant to the one user equipment, and sending receiving resource allocation to the another user equipment, wherein control information comprised in the sending resource grant sent by the base station to the another user equipment is completely the same in content as control information comprised in the receiving resource allocation sent by the base station to the one user equipment, and the sending resource grant and the receiving resource allocation are scrambled by the base station by using the group RNTI; and - instructing, by the base station, the one user equipment and the another user equipment to perform data communication in terminal direct mode respectively according to the sending resource grant and the receiving resource allocation.
Assembly including a balance spring which comprises two opposite lateral surfaces (31, 32) separated by a reference thickness, and a balance spring stud including a housing dimensioned to receive said balance spring with two opposite lateral surfaces (31, 32) separated by a reference thickness, said stud including, around said housing, at least one one-piece component made of a shape memory alloy and including at least two lugs (11, 12) defining together an air gap and each arranged to rest on one of said opposite lateral surfaces (31, 32) of said balance spring, and wherein, in the free state, the minimum width of said air-gap is greater than the maximum value of said reference thickness when said component is in an open position corresponding to a martensitic structure, and wherein the maximum width of said air-gap is less than the minimum value of said reference thickness when said component is in a closed position corresponding to an austenitic structure, characterized in that said balance spring locally includes at least one area of lesser thickness whose minimum thickness is said reference thickness for which said stud is devised, and which is surrounded by areas of large thickness whose minimum thickness is greater than said reference thickness.
Heating, ventilation and/or air-conditioning device for a motor vehicle, comprising a main body (12, 14, 16) having at least a first duct for circulation of air, intended to supply a first part of an interior of a motor vehicle, a second duct for circulation of air, intended to supply a second part of the interior, an air-inlet housing mounted on the main body (12, 14, 16) upstream of the said first and second circulation ducts (32, 34) of the main body with respect to the direction of circulation of the air (F1, F2), the air-inlet housing having, passing through it, a first air-inlet duct that opens facing the first circulation duct of the main body (12, 14, 16) and a second air-inlet duct that opens facing the second circulation duct of the main body (12, 14, 16), the first and second air-inlet ducts (32, 34) of the housing being separated by a first separating partition of the air-inlet housing, the surface area of the air passage section of the first air-inlet duct at the air-inlet housing being different from the surface area of the air passage section of the second air-inlet duct, the first air-inlet duct being subdivided into a first conduit and a second conduit that are separated from one another by a second separating partition of the air-inlet housing and the second air-inlet duct being subdivided to a first conduit and a second conduit that are separated from one another by a third separating partition of the air-inlet housing, characterized in that the device is equipped with obturating means by which it is possible to independently close off each one of the first (38, 44) and the second (40, 46) conduits of each of the first and second air-inlet ducts.
Blind system with a blind, a motor for moving the blind, and with two terminals for connection with an external control, which performs the actuation via the switching on and off and/or the pole reversal of a DC voltage, characterized in that the motor is a brushless motor, and in that the blind system comprises a control electronics for the actuation of the brushless motor, which receives the drive voltage through the terminals and generates a rotating field for driving the motor, wherein target values for the speed are stored in the control electronics, with which the blind is displaced.
An exhaust gas purification system of a working machine, comprising: a common rail type engine which is mounted to a working machine; an exhaust gas purification device which is arranged in an exhaust system of the engine, and in which a diesel oxidation catalyst and a soot filter are arranged in series, the diesel oxidation catalyst being arranged in an upstream side; and at least one of an intake air throttle device and an exhaust gas throttle device which are arranged in intake and exhaust systems of the engine, wherein the exhaust gas purification system is structured so as to execute an auxiliary renewing mode which raises a temperature of an exhaust gas from the engine by closing the at least one throttle device to a predetermined opening degree, on the basis of detected information of a differential pressure sensor, which is structured so as to detect a pressure difference between upstream and downstream sides with respect to the soot filter, and a forced renewing mode which supplies a fuel into the exhaust gas purification device on the basis of a post injection, and the exhaust gas purification system includes mode selection input means which selects whether the auxiliary renewing mode is executed or the forced renewing mode is executed in the case that a clogged state of the exhaust gas purification device is equal to or more than a prescribed level. a common rail type engine which is mounted to a working machine; an exhaust gas purification device which is arranged in an exhaust system of the engine, and in which a diesel oxidation catalyst and a soot filter are arranged in series, the diesel oxidation catalyst being arranged in an upstream side; and at least one of an intake air throttle device and an exhaust gas throttle device which are arranged in intake and exhaust systems of the engine, wherein the exhaust gas purification system is structured so as to execute an auxiliary renewing mode which raises a temperature of an exhaust gas from the engine by closing the at least one throttle device to a predetermined opening degree, on the basis of detected information of a differential pressure sensor, which is structured so as to detect a pressure difference between upstream and downstream sides with respect to the soot filter, and a forced renewing mode which supplies a fuel into the exhaust gas purification device on the basis of a post injection, and the exhaust gas purification system includes mode selection input means which selects whether the auxiliary renewing mode is executed or the forced renewing mode is executed in the case that a clogged state of the exhaust gas purification device is equal to or more than a prescribed level.
An autosampler system (100, 200, 300) comprising: a sampling platform; an x-axis rail; a y-axis rail; a z-axis rail; a pickup tool coupled to one or more motors configured to traverse the x-axis rail, the y-axis rail, and the z-axis rail, wherein the pickup tool is configured to move a sample container (102, 104, 106, 108, 202) from a sample tray (132, 134, 146) to the sampling platform; a sample wand configured to draw a known mass of a gas sample, having a volume in the range of 1-2500cc, from the sample container without addition of another gas into a sample preconcentrator, fluidly coupled to the sample wand, using a mass flow controller or vacuum reservoir, wherein the pickup tool is further configured to move the sample wand to the sample container, and wherein the sample wand is configured to draw the gas sample into the sample preconcentrator when the gas sample is at a pressure that is greater than, less than, or equal to atmospheric pressure while contained in the sample container; and a chemical analysis device fluidly coupled to the sample preconcentrator. a sampling platform; an x-axis rail; a y-axis rail; a z-axis rail; a pickup tool coupled to one or more motors configured to traverse the x-axis rail, the y-axis rail, and the z-axis rail, wherein the pickup tool is configured to move a sample container (102, 104, 106, 108, 202) from a sample tray (132, 134, 146) to the sampling platform; a sample wand configured to draw a known mass of a gas sample, having a volume in the range of 1-2500cc, from the sample container without addition of another gas into a sample preconcentrator, fluidly coupled to the sample wand, using a mass flow controller or vacuum reservoir, wherein the pickup tool is further configured to move the sample wand to the sample container, and wherein the sample wand is configured to draw the gas sample into the sample preconcentrator when the gas sample is at a pressure that is greater than, less than, or equal to atmospheric pressure while contained in the sample container; and a chemical analysis device fluidly coupled to the sample preconcentrator.
A polyether polyamide composition comprising 100 parts by mass of a polyether polyamide or of a polyether polyamide having blended therein from 0.01 to 15 parts by mass of at least one molecular chain extender selected from a carbodiimide compound and a compound containing two or more epoxy groups in a molecule thereof wherein in the polyether polyamide a diamine constituent unit thereof is derived from a polyether diamine compound (a1-1) represented by the following general formula wherein (xl + z1) is from 1 to 30; y1 is from 1 to 50; and R 1 represents a propylene group, and a xylylenediamine (a-2), and a dicarboxylic acid constituent unit thereof is derived from an α,ω-linear aliphatic dicarboxylic acid having from 4 to 20 carbon atoms, and wherein in the polyether polyamide a diamine constituent unit thereof is derived from a polyether diamine compound (a2-1) represented by the following general formula wherein (x2 + z2) is from 1 to 60; y2 is from 1 to 50; and R 2 represents a propylene group, and a xylylenediamine (a-2), and a dicarboxylic acid constituent unit thereof is derived from an α,ω-linear aliphatic dicarboxylic acid having from 4 to 20 carbon atoms. wherein (xl + z1) is from 1 to 30; y1 is from 1 to 50; and R 1 represents a propylene group, and a xylylenediamine (a-2), and a dicarboxylic acid constituent unit thereof is derived from an α,ω-linear aliphatic dicarboxylic acid having from 4 to 20 carbon atoms, and wherein in the polyether polyamide a diamine constituent unit thereof is derived from a polyether diamine compound (a2-1) represented by the following general formula wherein (x2 + z2) is from 1 to 60; y2 is from 1 to 50; and R 2 represents a propylene group, and a xylylenediamine (a-2), and a dicarboxylic acid constituent unit thereof is derived from an α,ω-linear aliphatic dicarboxylic acid having from 4 to 20 carbon atoms.
An aluminium alloy wire to be used as a conductor, containing in mass%: Mg at 0.2% to 1.5%; Si at 0.1% to 2.0%; Fe at 0.1% to 1.0% or at least one element selected from Cu, Cr, Mn and Zr, and Fe at a total of 0.1 % to 1.0%; and the balance being Al and impurities, and having: an electrical conductivity of 40% IACS or more; a tensile strength of 150 MPa or more; an elongation of 5% or more; a wire diameter of 0.5 mm or less; and a maximum grain size of 50 μm or less. Mg at 0.2% to 1.5%; Si at 0.1% to 2.0%; Fe at 0.1% to 1.0% or at least one element selected from Cu, Cr, Mn and Zr, and Fe at a total of 0.1 % to 1.0%; and the balance being Al and impurities, and having: an electrical conductivity of 40% IACS or more; a tensile strength of 150 MPa or more; an elongation of 5% or more; a wire diameter of 0.5 mm or less; and a maximum grain size of 50 μm or less. an electrical conductivity of 40% IACS or more; a tensile strength of 150 MPa or more; an elongation of 5% or more; a wire diameter of 0.5 mm or less; and a maximum grain size of 50 μm or less.
An apparatus comprising: a processor circuit for an evolved Node B, eNB, an enable component for execution by the processor circuit to generate a physical multicast channel-InfoList, PMCH-InfoList, information element, IE, that includes a 256QAMenabled field indicating whether 256 quadrature amplitude modulation, 256QAM, is enabled for downlink transmissions to one or more user equipment, UEs, over a PMCH; a send component for execution by the processor circuit to cause the PMCH-InfoList IE to be sent to the one or more UEs; and a select component for execution by the processor circuit to select a value for a dataMCS field of the PMCH-InfoList IE that indicates a first modulation coding scheme, MCS, to use for the downlink transmissions to the one or more UEs over the PMCH, the value based on 256QAM being enabled. a processor circuit for an evolved Node B, eNB, an enable component for execution by the processor circuit to generate a physical multicast channel-InfoList, PMCH-InfoList, information element, IE, that includes a 256QAMenabled field indicating whether 256 quadrature amplitude modulation, 256QAM, is enabled for downlink transmissions to one or more user equipment, UEs, over a PMCH; a send component for execution by the processor circuit to cause the PMCH-InfoList IE to be sent to the one or more UEs; and a select component for execution by the processor circuit to select a value for a dataMCS field of the PMCH-InfoList IE that indicates a first modulation coding scheme, MCS, to use for the downlink transmissions to the one or more UEs over the PMCH, the value based on 256QAM being enabled.
An automated system, comprising: a storage structure for storing eaches of goods in a plurality of product totes at a plurality of storage locations; a central control system configured to manage automated processes in the automated system, the CCS further storing a customer packing preference defining how eaches are to be grouped for packing based on at least one of a plurality of home locations where products are placed in the customer's home; a picking workstation (416, 516) where eaches are transferred from the product totes to one or more order bags or order totes; wherein the CCS directs the transfer of the customer-selected eaches in at least one product tote to the picking workstation, and transfer of the customer-selected eaches from the at least one product tote to the one or more order bags or order totes, and wherein the CCS uses item compatibility rules and item attributes to assign the customer-selected eaches to the one or more order bags or order totes, such that the customer-selected eaches destined for one of the kitchen, pantry, bathroom and garage in the customer's home are packed in the one or more order bags or order totes in accordance with the customer home locations specified in the packing preference. a storage structure for storing eaches of goods in a plurality of product totes at a plurality of storage locations; a central control system configured to manage automated processes in the automated system, the CCS further storing a customer packing preference defining how eaches are to be grouped for packing based on at least one of a plurality of home locations where products are placed in the customer's home; a picking workstation (416, 516) where eaches are transferred from the product totes to one or more order bags or order totes; wherein the CCS directs the transfer of the customer-selected eaches in at least one product tote to the picking workstation, and transfer of the customer-selected eaches from the at least one product tote to the one or more order bags or order totes, and wherein the CCS uses item compatibility rules and item attributes to assign the customer-selected eaches to the one or more order bags or order totes, such that the customer-selected eaches destined for one of the kitchen, pantry, bathroom and garage in the customer's home are packed in the one or more order bags or order totes in accordance with the customer home locations specified in the packing preference.
A screw for screwing into a borehole in a material, the screw (5; 5a; 5b; 5c) comprising a. a core having an insertion end and having a central longitudinal axis, b. a cutting thread extending from the insertion end as a helical line for cutting into the material, i. wherein the cutting thread has a cutting thread diameter (D SG), ii. wherein the cutting thread has a lower cutting flank facing the insertion end and an upper cutting flank facing away from the insertion end, c. at least one cutting projection (12; 12a; 12b; 12c) projecting from the cutting thread, which is asymmetrical with respect to the helical line, characterized in that a lower volume fraction of the at least one cutting projection (12; 12a; 12b; 12c) arranged at the lower cutting flank is larger than a volume fraction arranged at the upper cutting flank. a. a core having an insertion end and having a central longitudinal axis, b. a cutting thread extending from the insertion end as a helical line for cutting into the material, i. wherein the cutting thread has a cutting thread diameter (D SG), ii. wherein the cutting thread has a lower cutting flank facing the insertion end and an upper cutting flank facing away from the insertion end, i. wherein the cutting thread has a cutting thread diameter (D SG), ii. wherein the cutting thread has a lower cutting flank facing the insertion end and an upper cutting flank facing away from the insertion end, c. at least one cutting projection (12; 12a; 12b; 12c) projecting from the cutting thread, which is asymmetrical with respect to the helical line, characterized in that a lower volume fraction of the at least one cutting projection (12; 12a; 12b; 12c) arranged at the lower cutting flank is larger than a volume fraction arranged at the upper cutting flank. which is asymmetrical with respect to the helical line, characterized in that a lower volume fraction of the at least one cutting projection (12; 12a; 12b; 12c) arranged at the lower cutting flank is larger than a volume fraction arranged at the upper cutting flank.
A pharmaceutical formulation for a monoclonal antibody comprising: a. 200 mg/mL monoclonal antibody; b. 10 mM of a Histidine buffering agent; c. 115 mM of NaCl; d. 25 mM of arginine; and e. 0.01% (w/v) of polysorbate 80; at pH 6.0; and wherein the monoclonal antibody comprises heavy and light chains comprising amino acid sequences of SEQ ID NOs: 6 and 7. a. 200 mg/mL monoclonal antibody; b. 10 mM of a Histidine buffering agent; c. 115 mM of NaCl; d. 25 mM of arginine; and e. 0.01% (w/v) of polysorbate 80; at pH 6.0; and