mhurhangee/patent-ind-claim-en huggingface dataset:
Tube supply device for a textile machine that produces cross-wound packages, which textile machine has, in the area of its two machine longitudinal sides, a plurality of workstations arranged next to one another and empty-tube conveyor belts and is equipped with a tube storage device, wherein the tube supply device comprises the tube storage device, wherein the tube storage device has at least two tube magazines , which are connected to the empty-tube conveyor belts by means of a tube distribution device of the tube supply device in such a way that the workstations of the textile machine can be properly supplied with empty tubes from each of the two tube magazines if required, wherein the tube distribution device has at least two tube trolleys , characterised in that the tube trolleys each have a movably mounted tube gripper and can be moved on a rail structure . wherein the tube supply device comprises the tube storage device, wherein the tube storage device has at least two tube magazines , which are connected to the empty-tube conveyor belts by means of a tube distribution device of the tube supply device in such a way that the workstations of the textile machine can be properly supplied with empty tubes from each of the two tube magazines if required, wherein the tube distribution device has at least two tube trolleys , characterised in that the tube trolleys each have a movably mounted tube gripper and can be moved on a rail structure .
A slip ring assembly for use in a surgical shaft assembly, the slip ring assembly comprising: a first connector flange comprising a conductor , wherein the conductor comprises a plurality of concentric conductors defined in a distal side of the first connector flange ; a second connector flange comprising a conductive element in contact with the conductor, wherein the second connector flange is rotatable relative to the first connector flange; and a support member , wherein the second connector flange is sandwiched between the first connector flange and the support member, and wherein the support member is configured to apply a load onto the second connector flange to maintain the contact between the conductor and the conductive element; and characterised in that the support member comprises a resilient member configured to apply the load onto the second connector flange. a first connector flange comprising a conductor , wherein the conductor comprises a plurality of concentric conductors defined in a distal side of the first connector flange ; a second connector flange comprising a conductive element in contact with the conductor, wherein the second connector flange is rotatable relative to the first connector flange; and a support member , wherein the second connector flange is sandwiched between the first connector flange and the support member, and wherein the support member is configured to apply a load onto the second connector flange to maintain the contact between the conductor and the conductive element; and characterised in that the support member comprises a resilient member configured to apply the load onto the second connector flange.
A rotor manufacturing apparatus for manufacturing a rotor including a rotor main body having a hole located at its center and an accommodation hole accommodating a magnet , and the magnet accommodated in the accommodation hole and fixed in the accommodation hole with a resin, the rotor manufacturing apparatus comprising: a first mold including a resin receive space portion receiving the resin to be supplied into the accommodation hole , a flow path through which the molten resin flows into the accommodation hole , and a contact portion configured to be inserted into the hole , the contact portion being configured to be in contact with an inner peripheral face of the hole ; and a second mold configured to sandwich the rotor main body in conjunction with the first mold , characterized in that the contact portion has a pin shape and protrudes from a face of the first mold facing the second mold towards the second mold . a first mold including a resin receive space portion receiving the resin to be supplied into the accommodation hole , a flow path through which the molten resin flows into the accommodation hole , and a contact portion configured to be inserted into the hole , the contact portion being configured to be in contact with an inner peripheral face of the hole ; and a resin receive space portion receiving the resin to be supplied into the accommodation hole , a flow path through which the molten resin flows into the accommodation hole , and a contact portion configured to be inserted into the hole , the contact portion being configured to be in contact with an inner peripheral face of the hole ; and a second mold configured to sandwich the rotor main body in conjunction with the first mold , characterized in that the contact portion has a pin shape and protrudes from a face of the first mold facing the second mold towards the second mold . characterized in that the contact portion has a pin shape and protrudes from a face of the first mold facing the second mold towards the second mold .
A method for performing integrated access and backhaul, IAB, in a cellular telecommunications network in which Time Division Duplex, TDD, is applied and that comprises a first IAB node and a second IAB node , the method being performed by the first IAB node , the method comprising: scheduling (S102), in a first phase, placed in a first downlink period according to a TDD pattern, downstream backhaul data from the first IAB node to the second IAB node ; and receiving (S106), in a third phase, placed in a second downlink period according to the TDD pattern, from the second IAB node , upstream backhaul data as scheduled by the second IAB node . scheduling (S102), in a first phase, placed in a first downlink period according to a TDD pattern, downstream backhaul data from the first IAB node to the second IAB node ; and receiving (S106), in a third phase, placed in a second downlink period according to the TDD pattern, from the second IAB node , upstream backhaul data as scheduled by the second IAB node .
A liquid circulating device for a liquid ejecting device which comprises a liquid replenishment tank and a liquid ejecting head , the liquid circulating device comprising: a first pump configured to supply a liquid of the liquid replenishment tank to the liquid ejecting head; a second pump configured to collect the liquid from the liquid ejecting head and to supply the liquid to the liquid replenishment tank; a filter provided in a flow path between the liquid replenishment tank and the liquid ejecting head; and characterized by a buffer tank that is connected to a flow path between the filter and the liquid ejecting head and a flow path between the liquid ejecting head and the second pump and to which the liquid ejected from the first pump flows in; and a pressure sensor configured to detect an internal pressure of the buffer tank; and a control unit configured to determine clogging of the filter based on a drive voltage of the second pump during adjustment circulation where a nozzle surface pressure of the liquid ejecting head is adjusted based on the pressure of the buffer tank. a first pump configured to supply a liquid of the liquid replenishment tank to the liquid ejecting head; a second pump configured to collect the liquid from the liquid ejecting head and to supply the liquid to the liquid replenishment tank; a filter provided in a flow path between the liquid replenishment tank and the liquid ejecting head; and characterized by a buffer tank that is connected to a flow path between the filter and the liquid ejecting head and a flow path between the liquid ejecting head and the second pump and to which the liquid ejected from the first pump flows in; and a pressure sensor configured to detect an internal pressure of the buffer tank; and a control unit configured to determine clogging of the filter based on a drive voltage of the second pump during adjustment circulation where a nozzle surface pressure of the liquid ejecting head is adjusted based on the pressure of the buffer tank.
A base material composition for foam tapes comprising: an acrylic monomer, a radical initiator, a crosslinking agent, a porous filler, and a surfactant, wherein the surfactant comprises a silicone surfactant including 60 wt% to 90 wt% of a siloxane based polymer and 10 wt% to 40 wt% of a non-siloxane based polymer, and an amine-based silicone compound, wherein the silicone surfactant and the amine-based silicone compound are present in the surfactant in a ratio of between 10:1 and 1:1. an acrylic monomer, a radical initiator, a crosslinking agent, a porous filler, and a surfactant, wherein the surfactant comprises a silicone surfactant including 60 wt% to 90 wt% of a siloxane based polymer and 10 wt% to 40 wt% of a non-siloxane based polymer, and an amine-based silicone compound, wherein the silicone surfactant and the amine-based silicone compound are present in the surfactant in a ratio of between 10:1 and 1:1.
An apparatus for testing a tissue ablation system, the tissue ablation system having a thermocouple comprising a first and second thermocouple metallic material, comprising: emulation circuitry configured to connect to an ablator module being tested, the ablator module having an adjustable radiofrequency (RF) power output and a monitor display , the emulation circuitry comprising: a first arm, comprising a positive terminal and linked to the power output of the ablator module, the first arm comprising the first thermocouple metallic material; a second arm, comprising a negative terminal and connected to the monitor display, the second arm comprising the second thermocouple metallic material; a return pathway extending from the first arm to ground comprising a DC blocking capacitor , the return pathway permitting passage of RF current and blocking direct current (DC) ; second circuitry , having a greater resistance to RF current than to direct current, and comprising: an adjustable voltage source producing a DC potential and connected across the first arm and the second arm; two inductors ; a chain of resistors connected in series with the inductors ; and an output circuit, having a greater resistance to RF current than to direct current, connected across the first and second arms, and comprising: an inductor (75; and a chain of resistors connected in series with the inductor ; and a load resistor connected to the RF power output and ground. a first arm, comprising a positive terminal and linked to the power output of the ablator module, the first arm comprising the first thermocouple metallic material; a second arm, comprising a negative terminal and connected to the monitor display, the second arm comprising the second thermocouple metallic material; a return pathway extending from the first arm to ground comprising a DC blocking capacitor , the return pathway permitting passage of RF current and blocking direct current (DC) ; second circuitry , having a greater resistance to RF current than to direct current, and comprising: an adjustable voltage source producing a DC potential and connected across the first arm and the second arm; two inductors ; a chain of resistors connected in series with the inductors ; and an output circuit, having a greater resistance to RF current than to direct current, connected across the first and second arms, and comprising: an inductor (75; and a chain of resistors connected in series with the inductor ; and a load resistor connected to the RF power output and ground. an adjustable voltage source producing a DC potential and connected across the first arm and the second arm; two inductors ; a chain of resistors connected in series with the inductors ; and an output circuit, having a greater resistance to RF current than to direct current, connected across the first and second arms, and comprising: an inductor (75; and a chain of resistors connected in series with the inductor ; and an inductor (75; and a chain of resistors connected in series with the inductor ; and a load resistor connected to the RF power output and ground.
Perforation block for a perforation unit for a perforation apparatus to selectively die-cut at least a support element , preferably a continuous strip, even more preferably provided with cells , comprising: - a kit of blades connected to said perforation block and comprising at least a first blade with a first cutting edge and provided with at least a through slit , and at least a second blade with a second cutting edge configured to be inserted at least in said through slit of said first blade , so that said first cutting edge and said second cutting edge are coplanar, - at least a first slit and at least a second slit perpendicular to said first slit , into which said first blade and said second blade are respectively inserted, wherein each of said through slits has both an upper part having a cross section equal to that of each of the corresponding longitudinal slits and also a lower characterised in that said lower part converges symmetrically toward the first cutting edge , with the same angle at the apex (α). - a kit of blades connected to said perforation block and comprising at least a first blade with a first cutting edge and provided with at least a through slit , and at least a second blade with a second cutting edge configured to be inserted at least in said through slit of said first blade , so that said first cutting edge and said second cutting edge are coplanar, - at least a first slit and at least a second slit perpendicular to said first slit , into which said first blade and said second blade are respectively inserted, wherein each of said through slits has both an upper part having a cross section equal to that of each of the corresponding longitudinal slits and also a lower characterised in that said lower part converges symmetrically toward the first cutting edge , with the same angle at the apex (α).
A conotoxin polypeptide κ-CPTx-bt101, characterized in that the polypeptide has a complete amino acid sequence of KCCTMSVCQPPPVCTCCA.
A method of identifying a compound effective for inhibiting a mutant MEK1 protein having a C121S amino acid substitution, the method comprising: (a) providing an assay composition comprising: a mutant MEK1 protein having MEK1 activity, the MEK1 activity comprising ERK1/2 phosphorylation, the mutant MEK1 protein comprising an amino acid substitution at position 121 of wild-type MEK1 protein shown in SEQ ID NO: 2 where the amino acid substitution is a C121S amino acid substitution, the C121S amino acid substitution conferring resistance to a RAF inhibitor and a MEK inhibitor; and a MEK substrate; (b) contacting the assay composition with a test compound under conditions that permit phosphorylation of the MEK substrate in the absence of the test compound; and (c) determining the effect of the compound on phosphorylation of the MEK substrate; wherein down-modulation of phosphorylation of the MEK substrate as compared to a suitable control identifies the test compound as a compound effective for inhibiting a mutant MEK1 protein having a C121S amino acid substitution. (a) providing an assay composition comprising: a mutant MEK1 protein having MEK1 activity, the MEK1 activity comprising ERK1/2 phosphorylation, the mutant MEK1 protein comprising an amino acid substitution at position 121 of wild-type MEK1 protein shown in SEQ ID NO: 2 where the amino acid substitution is a C121S amino acid substitution, the C121S amino acid substitution conferring resistance to a RAF inhibitor and a MEK inhibitor; and a MEK substrate; a mutant MEK1 protein having MEK1 activity, the MEK1 activity comprising ERK1/2 phosphorylation, the mutant MEK1 protein comprising an amino acid substitution at position 121 of wild-type MEK1 protein shown in SEQ ID NO: 2 where the amino acid substitution is a C121S amino acid substitution, the C121S amino acid substitution conferring resistance to a RAF inhibitor and a MEK inhibitor; and a MEK substrate; (b) contacting the assay composition with a test compound under conditions that permit phosphorylation of the MEK substrate in the absence of the test compound; and (c) determining the effect of the compound on phosphorylation of the MEK substrate;
A cartridge for a vaporizer device , the vaporizer device having a fuel cell , the cartridge comprising: a first compartment configured to hold a vaporizable material; a second compartment configured to hold a fuel; an outlet fluidically coupled to the second compartment and configured to deliver the fuel to the fuel cell ; a vaporization chamber in fluid communication with the first compartment , the vaporization chamber configured to vaporize the vaporizable material included in the first compartment when the fuel from the second compartment is delivered to the fuel cell ; and a cartridge thermal contact disposed on an outer surface of the cartridge , wherein the cartridge thermal contact conducts heat provided from the fuel cell to the vaporization chamber to vaporize the vaporizable material. a first compartment configured to hold a vaporizable material; a second compartment configured to hold a fuel; an outlet fluidically coupled to the second compartment and configured to deliver the fuel to the fuel cell ; a vaporization chamber in fluid communication with the first compartment , the vaporization chamber configured to vaporize the vaporizable material included in the first compartment when the fuel from the second compartment is delivered to the fuel cell ; and a cartridge thermal contact disposed on an outer surface of the cartridge , wherein the cartridge thermal contact conducts heat provided from the fuel cell to the vaporization chamber to vaporize the vaporizable material.
A method of making an injectable dermal filler composition comprising hyaluronic acid (HA) crosslinked with lysine for treating wrinkles in skin, the method comprising the steps of crosslinking HA with a di-amine crosslinker in the presence of a carbodiimide coupling agent wherein the di-amine crosslinker is lysine or lysine methyl ester and sizing the crosslinked hyaluronic acid (HA) hydrogel to a particle size from 10μm to 1000μm in diameter.
Non-therapeutic use of a compound expressed by the following Formula , or an acid addition salt thereof for skin whitening, wherein, X represents an alkylene group having 1 to 2 carbon atoms, where a hydrogen atom may be substituted with a methyl group; Y represents COOR 1 or CH 2 OR 2 ; R 1 represents a hydrogen atom, or an optionally branched alkyl group having 1 to 6 carbon atoms; and R 2 represents a hydrogen atom or an optionally branched acyl group having 1 to 6 carbon atoms.
A method of manufacturing a housing configured to hold an actuator and an electronic control unit for the actuator , characterised in that the method comprises: additively manufacturing the housing as a single piece, wherein the housing comprises a central portion configured to house the actuator , and one or more side portions configured to house components of the electronic control unit, wherein a plurality of heat exchanger components in the form of fins or needles are provided that interconnect the one or more side portions with the central portion ; and additively manufacturing the heat exchanger components with the housing such that the heat exchanger components form part of the single piece housing , so as to provide improved heat dissipation to the housing and a strong mechanical link between the portions . additively manufacturing the housing as a single piece, wherein the housing comprises a central portion configured to house the actuator , and one or more side portions configured to house components of the electronic control unit, wherein a plurality of heat exchanger components in the form of fins or needles are provided that interconnect the one or more side portions with the central portion ; and additively manufacturing the heat exchanger components with the housing such that the heat exchanger components form part of the single piece housing , so as to provide improved heat dissipation to the housing and a strong mechanical link between the portions .
A vehicle interior member obtained by further forming a cross-linked polyolefin resin foam, the cross-linked polyolefin resin foam obtained by cross-linking and foaming a polyolefin resin composition, the composition comprising a polyolefin resin-containing resin (A), azodicarbonamide (B), and at least one basic magnesium (C) selected from the group consisting of magnesium oxide and magnesium hydroxide, wherein the amount of the basic magnesium (C) included in the polyolefin resin composition is 0.05 to 0.5 parts by mass relative to 100 parts by mass of the resin (A), and the basic magnesium (C) has an average particle diameter of 0.1 to 15 μm.
A method of processing an Automatic Repeat Request, ARQ, transmission, the method comprising: - requesting a retransmission of a transport block , wherein the transport block includes at least one first code block and one second code block different from the at least one first code block, each of the at least one first code block and the at least one second code block being independently protected by an error-detecting code, in response to an error-detecting code indicating an error in the transport block as received in at least one previous transmission; - receiving the retransmission of the transport block; and - detecting modulation symbols using channel or noise estimation based on at least a part of the received retransmission and information from the at least one previous transmission, wherein the information results from re-encoding the at least one second code block previously decoded based on the at least one previous transmission, if the error-detecting code protecting the at least one second code block as received in the at least one previous transmission indicates no error; - deriving from the detected modulation symbols of the retransmission the at least one first code block; and - decoding the derived at least one first code block. - requesting a retransmission of a transport block , wherein the transport block includes at least one first code block and one second code block different from the at least one first code block, each of the at least one first code block and the at least one second code block being independently protected by an error-detecting code, in response to an error-detecting code indicating an error in the transport block as received in at least one previous transmission; - receiving the retransmission of the transport block; and - detecting modulation symbols using channel or noise estimation based on at least a part of the received retransmission and information from the at least one previous transmission, wherein the information results from re-encoding the at least one second code block previously decoded based on the at least one previous transmission, if the error-detecting code protecting the at least one second code block as received in the at least one previous transmission indicates no error; - deriving from the detected modulation symbols of the retransmission the at least one first code block; and - decoding the derived at least one first code block.
Method for manufacturing a dental working model to be detachably inserted into a cutout or recess of a holder having referencing, comprising at least one tooth part with a base , which or of which a section is inserted into said recess, the at least one tooth part being manufactured using digitized data of a jaw or a section thereof in that the digitized data are stored beforehand in a computer and with the use thereof are supplied to a machine tool for manufacturing the at least one tooth part, characterized in that the dental working model is formed by segments manufactured independently of one another and each having at least one tooth part and one base , and each segment is manufactured as a unit with the tooth part and the base, taking into account the digitized data of the jaw or of a section thereof stored in the computer and the referencing of the recess stored in the computer, said referencing ensuring a precisely positioned insertion of the segments into the holder.