mhurhangee/ep-ind-claims huggingface dataset:
Method for equipping bottles or similar containers with equipment elements (3, 3.1) using at least three identical container-equipping subassemblies (9.1 - 9.3), which are designed for applying equipment elements (3, 3.1) to one and the same container region of the containers moving, on a transporting system, past the container-equipping subassemblies (9.1 - 9.3), wherein, during disruption-free operation, all the container equipping subassemblies (9.1, 9.2) of the at least one container-equipping-subassembly group are activated for equipping in each case one container which has not yet been labelled by another container-equipping subassembly of this container-equipping- subassembly group, and wherein, in the event of a disruption in an activated container-equipping subassembly (9.1 - 9.3), at least one other container-equipping subassembly (9.1 - 9.3) of the same container-equipping-subassembly group will take over the function of the disrupted container-equipping subassembly (9.1 - 9.3), characterised in that the at least one other container-equipping subassembly (9.1 - 9.3) of the same container-equipping subassembly group will take over the function of the disrupted container equipping subassembly (B.1 - 9.3) with increased assembly performance.
A hand-held tool comprising a housing with a gear head, a motor shaft that can be driven in rotation by a motor and that can be coupled, by means of an eccentric coupling mechanism, to a tool spindle in order to drive the latter, wherein the tool spindle can be driven in an oscillatory rotating manner about the longitudinal axis thereof and is designed to receive a tool, wherein the eccentric coupling mechanism comprises a coupling member which is coupled to the motor shaft and to the tool spindle, wherein the coupling member is furthermore mounted pivotably on a carrier element coupled to the housing, wherein the coupling member is designed as a lever or as a bent lever, wherein a bearing location for support on the carrier element is provided between two lever sections (a, b), and wherein the motor shaft is arranged substantially perpendicular to the tool spindle, characterized in that the coupling member is pivotable about an axis which is arranged substantially parallel to the motor shaft.
An endovascular delivery device, comprising: a central catheter; a stent graft circumferentially located about a portion of the central catheter, the stent graft comprising a tubular body of a biocompatible material with a lumen therethrough; a retention scaffold comprising a plurality of arches, each arch encompassing an aperture forming a helical path wherein the retention scaffold has distal and proximal ends and the arches bow radially outward when at least one of the distal or proximal ends moves longitudinally toward the other end; a trigger wire passing through at least two of the apertures following the helical path, wherein at least a portion of the stent graft is retained in a compressed configuration on the delivery device by the retention scaffold and the trigger wire. a central catheter; a stent graft circumferentially located about a portion of the central catheter, the stent graft comprising a tubular body of a biocompatible material with a lumen therethrough; a retention scaffold comprising a plurality of arches, each arch encompassing an aperture forming a helical path wherein the retention scaffold has distal and proximal ends and the arches bow radially outward when at least one of the distal or proximal ends moves longitudinally toward the other end; a trigger wire passing through at least two of the apertures following the helical path, wherein at least a portion of the stent graft is retained in a compressed configuration on the delivery device by the retention scaffold and the trigger wire.
A dryer stand comprising: a base which is disposed in a lower side of the dryer stand; a receptacle in which a dryer for discharging drying air can be mounted; and a body which is disposed above the base and accommodates the receptacle therein at a certain height in an upward direction from the base, characterized in that the dryer stand further comprises: an air purifier disposed in the body, and a fan positioned in the body to suck air into the body and to cause the sucked air to pass through the air purifier and be discharged to the outside of the dryer stand, wherein the base or the body is provided with a suction hole through which air sucked into the body by the fan passes. a base which is disposed in a lower side of the dryer stand; a receptacle in which a dryer for discharging drying air can be mounted; and a body which is disposed above the base and accommodates the receptacle therein at a certain height in an upward direction from the base, characterized in that the dryer stand further comprises: an air purifier disposed in the body, and a fan positioned in the body to suck air into the body and to cause the sucked air to pass through the air purifier and be discharged to the outside of the dryer stand, wherein the base or the body is provided with a suction hole through which air sucked into the body by the fan passes. an air purifier disposed in the body, and a fan positioned in the body to suck air into the body and to cause the sucked air to pass through the air purifier and be discharged to the outside of the dryer stand, wherein the base or the body is provided with a suction hole through which air sucked into the body by the fan passes.
A system comprising: a refrigerant compressor including an electric motor; a current sensor (121, 122) that is configured to measure current flow to the electric motor; a switching device configured to close and open to allow and prevent current flow to the electric motor, respectively; a first maximum continuous current, MCC, device that includes a resistance corresponding to a maximum continuous current for the electric motor; a second MCC device that includes a second resistance corresponding to a second maximum continuous current for the electric motor; and a motor protection module that is configured to: communicate with the first MCC device, the second MCC device, the current sensor (121, 122), and the switching device; determine the resistance of the first MCC device; determine a first MCC value for the electric motor as a function of the resistance of the first MCC device; determine a second MCC value for the electric motor as a function of the second resistance; selectively set a predetermined MCC value to the first MCC value; selectively set the predetermined MCC value to the second MCC value; and control the switching device based on a comparison of the current flow to the electric motor and the predetermined MCC value. a refrigerant compressor including an electric motor; a current sensor (121, 122) that is configured to measure current flow to the electric motor; a switching device configured to close and open to allow and prevent current flow to the electric motor, respectively; a first maximum continuous current, MCC, device that includes a resistance corresponding to a maximum continuous current for the electric motor; a second MCC device that includes a second resistance corresponding to a second maximum continuous current for the electric motor; and a motor protection module that is configured to: communicate with the first MCC device, the second MCC device, the current sensor (121, 122), and the switching device; determine the resistance of the first MCC device; determine a first MCC value for the electric motor as a function of the resistance of the first MCC device; determine a second MCC value for the electric motor as a function of the second resistance; selectively set a predetermined MCC value to the first MCC value; selectively set the predetermined MCC value to the second MCC value; and control the switching device based on a comparison of the current flow to the electric motor and the predetermined MCC value. communicate with the first MCC device, the second MCC device, the current sensor (121, 122), and the switching device; determine the resistance of the first MCC device; determine a first MCC value for the electric motor as a function of the resistance of the first MCC device; determine a second MCC value for the electric motor as a function of the second resistance; selectively set a predetermined MCC value to the first MCC value; selectively set the predetermined MCC value to the second MCC value; and control the switching device based on a comparison of the current flow to the electric motor and the predetermined MCC value.
A method for recovering copper (Cu), nickel (Ni), and cobalt (Co) which are valuable metals, from a raw material comprising a discarded lithium ion battery, the method comprising: preparing, as a raw material, a charge comprising the discarded lithium ion battery comprising at least phosphorus, iron (Fe), and the valuable metals; heating and melting the raw material into a melt, and then forming the melt into a molten material comprising an alloy and slag; and separating the slag from the molten material and recovering the alloy comprising the valuable metals, the method further comprising oxidatively roasting the raw material before heating and melting the raw material, to produce an oxidatively roasted material, in the oxidatively roasting step, the raw material being oxidatively roasted at a degree of oxidation such that part of iron contained in the raw material is oxidized but cobalt is not oxidized, during heating and melting of the raw material, flux comprising a calcium compound that forms a basic slag being added as well as an oxygen partial pressure in the melt being directly measured using an oxygen analyzer, the oxygen partial pressure being controlled to be within a range of 10 -12.5 (atm) or more and 10 -8.0 (atm) or less, based on the obtained measurement result. preparing, as a raw material, a charge comprising the discarded lithium ion battery comprising at least phosphorus, iron (Fe), and the valuable metals; heating and melting the raw material into a melt, and then forming the melt into a molten material comprising an alloy and slag; and separating the slag from the molten material and recovering the alloy comprising the valuable metals, the method further comprising oxidatively roasting the raw material before heating and melting the raw material, to produce an oxidatively roasted material, in the oxidatively roasting step, the raw material being oxidatively roasted at a degree of oxidation such that part of iron contained in the raw material is oxidized but cobalt is not oxidized, during heating and melting of the raw material, flux comprising a calcium compound that forms a basic slag being added as well as an oxygen partial pressure in the melt being directly measured using an oxygen analyzer, the oxygen partial pressure being controlled to be within a range of 10 -12.5 (atm) or more and 10 -8.0 (atm) or less, based on the obtained measurement result.
A multilayer polyester film comprising a layer A and a layer B which are laminated alternately, the layer A constituting the outermost layer on both sides of the film, wherein the layer A comprises a polyester A, and the layer B comprises a polyester B, the melting point of the polyester A is higher than the melting point of the polyester B by at least 15 °C, the layer A is a layer having an oriented structure, and the layer B is a layer having an unoriented structure, the ratio (a/b) of the total thickness (a) of the layer A to the total thickness (b) of the layer B is 0.01 to 3, and the in-plane tensile strength of the multilayer polyester film is 50 MPa or lower at a maximum, and the difference between its maximum value and minimum value is 20 MPa or smaller, wherein the in-plane tensile strength is determined by preparing a number of samples having a length in the longitudinal direction of 150 mm and a length in the transverse direction of 10 mm sampled from the longitudinal direction, 15° direction, 30° direction, 45° direction, 60° direction, 75° direction, transverse direction, 105° direction, 120° direction, 135° direction, 150° direction and 165° direction of the polyester film, holding and fixing the samples using chucks set at intervals of 100 mm in an atmosphere of 80 °C, measuring the loads using a load cell attached to a tensile tester at a rate of 100 mm/min and determining the tensile strength at break by dividing the load at rupture by the cross-sectional area of the sample prior to applying the load, wherein the film has a thickness unevenness of 10 % or lower and a haze value of 10 % or lower. the melting point of the polyester A is higher than the melting point of the polyester B by at least 15 °C, the layer A is a layer having an oriented structure, and the layer B is a layer having an unoriented structure, the ratio (a/b) of the total thickness (a) of the layer A to the total thickness (b) of the layer B is 0.01 to 3, and the in-plane tensile strength of the multilayer polyester film is 50 MPa or lower at a maximum, and the difference between its maximum value and minimum value is 20 MPa or smaller, wherein the in-plane tensile strength is determined by preparing a number of samples having a length in the longitudinal direction of 150 mm and a length in the transverse direction of 10 mm sampled from the longitudinal direction, 15° direction, 30° direction, 45° direction, 60° direction, 75° direction, transverse direction, 105° direction, 120° direction, 135° direction, 150° direction and 165° direction of the polyester film, holding and fixing the samples using chucks set at intervals of 100 mm in an atmosphere of 80 °C, measuring the loads using a load cell attached to a tensile tester at a rate of 100 mm/min and determining the tensile strength at break by dividing the load at rupture by the cross-sectional area of the sample prior to applying the load,
A pre-form for the making of a biaxially-oriented plastic container comprised of an orifice mounted on a ring, the said orifice being intended to form, after inflation, the orifice of the recipient, and, opposite the orifice, a tubular body intended to become, after stretching, the body of the container, characterised in that the ring of this preform includes a continuous band likely to be used in order to form a handle with a single ring for the future container, this band having two ends (14, 16), these two ends (14, 16) being fixed to the ring of the preform, the said band comprising a first segment connected to the ring of the preform and extending concentrically to this ring forming an arc of at least 175° around the ring and a second segment, butted up to the first segment, folded in a U-shape in relation to this first segment, extending by forming an arc of at least 175° around this ring, the free ends (14, 16) of this second segment connecting to the ring of the preform.
Process for the preparation of a mixture of protein factors from bovine colostrum comprising the following steps: a) dilution of bovine colostrum, skimming and precipitation of casein at pH between 4 and 6; b) centrifugation to remove the lipid and casein components; c) concentration and diafiltration on polymer membrane with a molecular cut between 1000 to 20000 Da to reduce the lactose content in the retentate; d) adjusting the pH around neutrality and centrifugation; e) filtration; f) drum filling and freezing; wherein the step c) is repeated to obtain a retentate having a lactose content ≤1% calculated with respect to dry weight. a) dilution of bovine colostrum, skimming and precipitation of casein at pH between 4 and 6; b) centrifugation to remove the lipid and casein components; c) concentration and diafiltration on polymer membrane with a molecular cut between 1000 to 20000 Da to reduce the lactose content in the retentate; d) adjusting the pH around neutrality and centrifugation; e) filtration; f) drum filling and freezing;
A multiligand construct of the structure [F-S 1 -S 2 -S 3 -] n CA where: F is a ligand for a receptor; S 1 is 1-amino-C 2-4 -alkyl; S 2 is -CO(CH 2) 3 CO-, -CO(CH 2) 4 CO- or -CO(CH 2) 5 CO; S 3 is of the structure: R is CH 3 or H; m is an integer between 1 and 5; * is other than H; A is CH 3 or absent, and n is 3 when A is CH 3 or n is 4 when A is absent. F is a ligand for a receptor; S 1 is 1-amino-C 2-4 -alkyl; S 2 is -CO(CH 2) 3 CO-, -CO(CH 2) 4 CO- or -CO(CH 2) 5 CO; S 3 is of the structure: R is CH 3 or H; m is an integer between 1 and 5; * is other than H; A is CH 3 or absent, and n is 3 when A is CH 3 or n is 4 when A is absent. R is CH 3 or H; m is an integer between 1 and 5; * is other than H; A is CH 3 or absent, and n is 3 when A is CH 3 or n is 4 when A is absent.
A piezoelectric material comprising Cu content and a perovskite-type metal oxide having the following general formula: Na x Ba 1-y Nb y Zr 1-y O 3 wherein x satisfies 0.85 ≤ x ≤ 0.96, and y satisfies 0.90 ≤ y ≤ 0.96, and wherein the Cu content corresponds to 2.00 mol% or less of the amount of the perovskite-type metal oxide.
A gas turbine engine, comprising: a compressor section which includes a rotor assembly having a plurality of disks, said disks being held in compression relative to one another by an outer shaft; wherein at least one seal is radially positioned between a bore of at least one of the disks and the outer shaft to divide the compressor section into a first zone and a second zone that is downstream from said first zone; and a buffer system (60, 160) that conditions an airflow to communicate a buffer cooling air to at least said first zone; characterised in that the gas turbine engine further comprises: a bleed source that communicates a bleed air to at least said second zone; wherein said buffer system includes a first bleed air supply, a second bleed air supply and a valve that selects between said first bleed air supply and said second bleed air supply to communicate said buffer cooling air to said first zone. a compressor section which includes a rotor assembly having a plurality of disks, said disks being held in compression relative to one another by an outer shaft; wherein at least one seal is radially positioned between a bore of at least one of the disks and the outer shaft to divide the compressor section into a first zone and a second zone that is downstream from said first zone; and a buffer system (60, 160) that conditions an airflow to communicate a buffer cooling air to at least said first zone; characterised in that the gas turbine engine further comprises: a bleed source that communicates a bleed air to at least said second zone; wherein said buffer system includes a first bleed air supply, a second bleed air supply and a valve that selects between said first bleed air supply and said second bleed air supply to communicate said buffer cooling air to said first zone.
A heating system for heating a building surface comprising a floor or a wall, the system comprising: a section of floor or wall covering including a laminar carbon veil heating element, an upper nonconductive layer having an exposed surface facing away from the floor or wall, and a lower nonconductive layer having an exposed surface facing the floor or wall, where the upper nonconductive layer and the lower nonconductive layer are laminated together with the laminar carbon veil heating element embedded between the upper nonconductive layer and the lower nonconductive layer with the carbon veil heating element disposed less than 1 mm from the exposed surface of the upper nonconductive layer, the carbon veil heating element comprising at least two electrically conductive veil busbars (204, 208) spaced apart from one another; at least one busbar track comprising at least two track electrical busbars (512, 514) electrically connected to the at least two veil busbars (204, 208), the at least two track busbars (512, 514) each comprising a conductive metal having a rectangular cross section having a width and a thickness in which the width is greater than 10X the thickness, the at least two track busbars (512, 514) connected to and electrically isolated from one another by a matrix of insulation; a controller electrically connected to the track busbars (512, 514) and configured to apply electrical current to the track busbars (512, 514) sufficient to cause the carbon veil to produce heat in a portion thereof located between the veil busbars (204, 208). a section of floor or wall covering including a laminar carbon veil heating element, an upper nonconductive layer having an exposed surface facing away from the floor or wall, and a lower nonconductive layer having an exposed surface facing the floor or wall, where the upper nonconductive layer and the lower nonconductive layer are laminated together with the laminar carbon veil heating element embedded between the upper nonconductive layer and the lower nonconductive layer with the carbon veil heating element disposed less than 1 mm from the exposed surface of the upper nonconductive layer, the carbon veil heating element comprising at least two electrically conductive veil busbars (204, 208) spaced apart from one another; at least one busbar track comprising at least two track electrical busbars (512, 514) electrically connected to the at least two veil busbars (204, 208), the at least two track busbars (512, 514) each comprising a conductive metal having a rectangular cross section having a width and a thickness in which the width is greater than 10X the thickness, the at least two track busbars (512, 514) connected to and electrically isolated from one another by a matrix of insulation; a controller electrically connected to the track busbars (512, 514) and configured to apply electrical current to the track busbars (512, 514) sufficient to cause the carbon veil to produce heat in a portion thereof located between the veil busbars (204, 208).
A vacuum cleaner (100, 200) comprising a suction drive unit (101, 201) in fluid communication with a vacuum chamber (106, 206) for accommodating a filter cartridge, the vacuum chamber (106, 206) itself being fed by a fluid inlet port in communication with a nozzle via which air is drawn into the vacuum chamber (106, 206) when the suction drive unit (101, 201) is in operation, wherein the filter cartridge (111, 211) comprises a gas-porous membrane including wall portions which define a filter interior, the cartridge (111, 211) having an airflow inlet at one end through which air-entrained dirt enters the filter (111, 211), with dirt retained in the interior and air passing through the gas-porous membrane, wherein the chamber (106, 206) is configurable between open and closed configurations, so that in the closed configuration the cartridge filter (111, 211), is enclosed and constrained within the vacuum chamber (106, 206) with the cartridge inlet disposed so as to be fed by the fluid inlet port (120, 222), and in the open configuration the constraint is at least partially removed so that the cartridge (111, 211) is free to be removed from the chamber (106, 206) by travel in a removal direction, and characterised in that the chamber is generally cylindrical in form, and in the open configuration a chamber wall portion is displaced to remove the constraint, wherein the chamber wall portion is an end-cap of the chamber (106, 206) and the end-cap is displaced by opening thereof, wherein the end-cap is provided at a nozzle-end region of the chamber (106, 206).