mhurhangee/ep-ind-claims huggingface dataset:
A method of pretreating a metal substrate prior to painting comprising: applying a first coating solution onto the metal substrate wherein the first coating solution comprises sulfuric acid, citric acid, and polyaniline particles at a pH less than 7 to yield a first coating on the metal substrate; rinsing the metal substrate to remove unreacted polyaniline and excess acid; and applying a second coating solution post-rinse which comprises fluorozirconic acid and aminosilane at a pH less than 7 to yield a second coating on the metal substrate. applying a first coating solution onto the metal substrate wherein the first coating solution comprises sulfuric acid, citric acid, and polyaniline particles at a pH less than 7 to yield a first coating on the metal substrate; rinsing the metal substrate to remove unreacted polyaniline and excess acid; and applying a second coating solution post-rinse which comprises fluorozirconic acid and aminosilane at a pH less than 7 to yield a second coating on the metal substrate.
A hydraulic mount with an inner mount consisting of as many plastic parts as possible, a connection between a mount cover, a rolling bellows, a nozzle body and a supporting spring as plastic parts and a supporting body being effected by clipping the supporting body to the mount cover, wherein the hydraulic mount has a stable stop housing, characterised in that the stable stop housing can be connected to a carrier at fastening points by means of suitable fastening elements in such a way that the clipping of the inner bearing is relieved by this connection and the effective operating forces are transmitted to the carrier via the stop housing and the mount cover.
A piezoelectric element comprising: a piezoelectric layer; and an electrode connected to the piezoelectric layer, wherein the piezoelectric layer comprises a complex oxide having a Perovskite-type structure (ABO 3) comprising bismuth and iron, the complex oxide further comprising (i) a first dopant selected from the group consisting of sodium, potassium, calcium, strontium and barium and (ii) a second dopant which is cerium, wherein the bismuth, the first doping element and the second doping element are included at an A site, and the iron is included at a B site of the perovskite complex oxide. a piezoelectric layer; and an electrode connected to the piezoelectric layer, wherein the piezoelectric layer comprises a complex oxide having a Perovskite-type structure (ABO 3) comprising bismuth and iron, the complex oxide further comprising (i) a first dopant selected from the group consisting of sodium, potassium, calcium, strontium and barium and (ii) a second dopant which is cerium, wherein the bismuth, the first doping element and the second doping element are included at an A site, and the iron is included at a B site of the perovskite complex oxide. wherein the piezoelectric layer comprises a complex oxide having a Perovskite-type structure (ABO 3) comprising bismuth and iron, the complex oxide further comprising (i) a first dopant selected from the group consisting of sodium, potassium, calcium, strontium and barium and (ii) a second dopant which is cerium, wherein the bismuth, the first doping element and the second doping element are included at an A site, and the iron is included at a B site of the perovskite complex oxide.
A vessel having a compartment for containing water, which compartment is delimited by a portion of the vessel's hull and an interior wall arrangement of the vessel connecting to the hull, and which compartment has at least one opening in a wall thereof for allowing water to pass therethrough, wherein the compartment comprises an assembly (1, 2) of a grating and at least one anti-biofouling source, the grating being positioned in the opening for blocking items from passing through the opening along with the water, and comprising a number of elements and spaces between the elements, and the anti-biofouling source being configured to emit ultraviolet light during operation thereof for realizing anti-biofouling of at least a portion of the grating, the vessel being characterized in that at least one of the elements of the grating is at least partially transparent to the ultraviolet light.
A method, comprising: arranging over a substrate at least one semiconductor chip and a plurality of current-carrying formations (16A, 16B, 16C) coupled to the at least one semiconductor chip, characterized in that the substrate is exempt from electrically conductive formations coupling the current-carrying formations (16A, 16B, 16C) in the plurality of current-carrying formations (16A, 16B, 16C), and forming at least one electrical contact (162; 162A, 162B) between adjacent current-carrying formations (16A, 16B, 16C) in the plurality of current-carrying formations (16A, 16B, 16C), wherein adjacent current-carrying formations (16A, 16B, 16C) having at least one contact (162; 162A, 162B) formed therebetween are coupled into a multi-formation current-carrying channel (CH#1). arranging over a substrate at least one semiconductor chip and a plurality of current-carrying formations (16A, 16B, 16C) coupled to the at least one semiconductor chip, characterized in that the substrate is exempt from electrically conductive formations coupling the current-carrying formations (16A, 16B, 16C) in the plurality of current-carrying formations (16A, 16B, 16C), and forming at least one electrical contact (162; 162A, 162B) between adjacent current-carrying formations (16A, 16B, 16C) in the plurality of current-carrying formations (16A, 16B, 16C), wherein adjacent current-carrying formations (16A, 16B, 16C) having at least one contact (162; 162A, 162B) formed therebetween are coupled into a multi-formation current-carrying channel (CH#1).
Device for the sealing occlusion or for the space-filling tamponade of hollow organs or other cavities in the human body, comprising a balloon, which is fully and residually formed and abuts the wall of the organ to be occluded or tamponaded under a sealing pressure of the balloon, which is as constant as possible, and comprising an isobarically acting regulator of the filling pressure within the interior of the balloon, the regulator comprising a volume reservoir arranged extracorporeally outside of the body as well as a supply line for communicatively connecting the extracorporeal regulator o the interior of the balloon, characterized in that the connecting supply line between the balloon and-the regulator a) is formed as a supply channel having a cross-sectional area which is equivalent to a circular cross-sectional area having a circle diameter of at least 2 mm, b) comprises a flow-directing check valve that prevents the reverse flow from the balloon to the volume reservoir, c) as well as a nonflow-directing throttle element arranged in parallel to the flow-directing check valve, which allows a slow volume compensation between the balloon and the volume reservoir. a) is formed as a supply channel having a cross-sectional area which is equivalent to a circular cross-sectional area having a circle diameter of at least 2 mm, b) comprises a flow-directing check valve that prevents the reverse flow from the balloon to the volume reservoir, c) as well as a nonflow-directing throttle element arranged in parallel to the flow-directing check valve, which allows a slow volume compensation between the balloon and the volume reservoir.
A water-soluble silicone macromer having a structure presented by formula below: E-(M 1) x -(M 2) y formula; wherein M 1 is a repeating unit derived from a silicone containing monomer, and M 1 is in an amount of 30-60 wt% based on the total weight of the water-soluble silicone macromer; M 2 is a repeating unit derived from a first hydrophilic monomer, and M 2 is in an amount of 40-70 wt% based on the total weight of the water-soluble silicone macromer; E is a group derived from an ethylenically unsaturated compound; x is an integer of 1-20; y is an integer of 1-20; a number-average molecular weight of the water-soluble silicone macromer ranges from 2000 to 5000; and an aqueous solution composed of 0.5 wt% of the water-soluble silicone macromere and water has a light transmittance of greater than 20 % at a wavelength of 450nm. wherein M 1 is a repeating unit derived from a silicone containing monomer, and M 1 is in an amount of 30-60 wt% based on the total weight of the water-soluble silicone macromer; M 2 is a repeating unit derived from a first hydrophilic monomer, and M 2 is in an amount of 40-70 wt% based on the total weight of the water-soluble silicone macromer; E is a group derived from an ethylenically unsaturated compound; x is an integer of 1-20; y is an integer of 1-20; a number-average molecular weight of the water-soluble silicone macromer ranges from 2000 to 5000; and an aqueous solution composed of 0.5 wt% of the water-soluble silicone macromere and water has a light transmittance of greater than 20 % at a wavelength of 450nm.
A catheter for delivering energy to a body lumen, the catheter comprising: a flexible elongate shaft having a proximal portion and a distal portion adapted for insertion into a body lumen; an energy transfer basket coupled to the shaft, the energy transfer basket comprising a plurality of legs adapted to apply energy to the body lumen, each leg having a distal end, a proximal end, and a flexure length that is less than a full length of the leg; a near alignment component having a plurality of near seats extending along an axis of the alignment component, the near alignment component secured to the elongate shaft; and a far alignment component having a plurality of far seats extending along an axis of the alignment component, wherein the plurality of near seats are in alignment with the plurality of far seats; wherein the distal end of each leg is nested within a far seat and the proximal end of each leg is nested within a near seat such that an angle between adjacent legs is determined by an angle between adjacent seats and the flexure length is determined by the distance between near and far alignment components; wherein the far alignment component includes a distal alignment stop and the near alignment component includes a proximal stop, wherein the distal end of one of the legs contacts the distal stop and the proximal end of the same leg contacts the proximal stop to control the flexure length of each leg, and wherein the distal alignment stop protrudes radially from a surface of the far alignment component. a flexible elongate shaft having a proximal portion and a distal portion adapted for insertion into a body lumen; an energy transfer basket coupled to the shaft, the energy transfer basket comprising a plurality of legs adapted to apply energy to the body lumen, each leg having a distal end, a proximal end, and a flexure length that is less than a full length of the leg; a near alignment component having a plurality of near seats extending along an axis of the alignment component, the near alignment component secured to the elongate shaft; and a far alignment component having a plurality of far seats extending along an axis of the alignment component, wherein the plurality of near seats are in alignment with the plurality of far seats; wherein the distal end of each leg is nested within a far seat and the proximal end of each leg is nested within a near seat such that an angle between adjacent legs is determined by an angle between adjacent seats and the flexure length is determined by the distance between near and far alignment components; wherein the far alignment component includes a distal alignment stop and the near alignment component includes a proximal stop, wherein the distal end of one of the legs contacts the distal stop and the proximal end of the same leg contacts the proximal stop to control the flexure length of each leg, and wherein the distal alignment stop protrudes radially from a surface of the far alignment component.
A guiding element for a sliding door, in particular for an all-glass sliding door, wherein the guiding element comprises a bearing body, which may be attached to the floor, and a U-shaped carrying body with two legs, wherein the legs form a guiding groove, in which at least one gliding element of the guiding element is being disposed, wherein the carrying body is retained on the bearing body by means of a guide, characterized in that the gliding element narrows the guiding groove by means of elastic deformation, wherein the gliding element includes two load-bearing members, between which an elastic plate is disposed, and wherein the elastic deformation of the plate is generated by means of an attachment element, which is disposed at the frontal side within the leg, wherein at least one leg includes a depression on its inside, in which the gliding element is disposed, wherein in this case the attachment element penetrates through the leg as far as into the depression.
An apparatus for wireless communications in an integrated access and backhaul, IAB, node, comprising: a processing system configured to: determine one or more traffic parameters associated with data configured for communication via wireless links comprising at least one reception link and at least one transmission link; select a full-duplex, FD, slot type for communication of the data via the wireless links, wherein the selection of the FD slot type is based on the one or more traffic parameters; determine, based on the one or more traffic parameters, a slot pattern comprising a plurality of slots, wherein the plurality of slots are associated with at least one FD slot type or non-FD slot type, wherein the at least one FD slot type comprises the selected FD slot type; and communicate the data with one or more wireless nodes via the wireless links in accordance with the determined slot pattern. determine one or more traffic parameters associated with data configured for communication via wireless links comprising at least one reception link and at least one transmission link; select a full-duplex, FD, slot type for communication of the data via the wireless links, wherein the selection of the FD slot type is based on the one or more traffic parameters; determine, based on the one or more traffic parameters, a slot pattern comprising a plurality of slots, wherein the plurality of slots are associated with at least one FD slot type or non-FD slot type, wherein the at least one FD slot type comprises the selected FD slot type; and communicate the data with one or more wireless nodes via the wireless links in accordance with the determined slot pattern.
A clip assembly (18; 18a) for securing an end portion of a sinuous spring to a wooden rail, said clip assembly (18; 18a) comprising: a plastic clip (22; 22b) having a generally planar body portion and a generally planar flange portion extending outwardly from one end of the body portion opposite a U-shaped hook portion in a direction generally perpendicular to the body portion, the flange portion having spaced grooves adapted to receive flexible connectors to join multiple clip assemblies (18; 18a) together; a metal fastener (24; 24a) including at least two tacks (42; 42a) extending downwardly from a generally planar generally U-shaped portion of the fastener (24; 24a) wherein each of the tacks (42; 42a) passes through a preexisting opening in the flange portion of the plastic clip (22; 22b) and the grooves are located adjacent the generally planar generally U-shaped portion of the metal fastener (24; 24a); and portions of the flexible connectors being sandwiched between the spaced grooves of the plastic clip (22; 22b) and the metal fastener (24; 24a) of the clip assembly (18; 18a). a plastic clip (22; 22b) having a generally planar body portion and a generally planar flange portion extending outwardly from one end of the body portion opposite a U-shaped hook portion in a direction generally perpendicular to the body portion, the flange portion having spaced grooves adapted to receive flexible connectors to join multiple clip assemblies (18; 18a) together; a metal fastener (24; 24a) including at least two tacks (42; 42a) extending downwardly from a generally planar generally U-shaped portion of the fastener (24; 24a) wherein each of the tacks (42; 42a) passes through a preexisting opening in the flange portion of the plastic clip (22; 22b) and the grooves are located adjacent the generally planar generally U-shaped portion of the metal fastener (24; 24a); and portions of the flexible connectors being sandwiched between the spaced grooves of the plastic clip (22; 22b) and the metal fastener (24; 24a) of the clip assembly (18; 18a).
A milking box, comprising: a stall portion; and a backplane positioned in the stall portion of the milking box, the backplane operable to: move toward the rear of the stall portion in response to pressure applied to a contact surface of the backplane; and move toward the front of the stall portion in response to pressure removed from the contact surface, a robotic attacher comprising a controller and a supplemental arm, the controller operable to: determine the position of the backplane relative to the rear of the stall portion; determine an x- offset based at least in part upon the position of the backplane; and communicate a signal to move the robotic attacher in an x-direction, the amount of movement determined at least in part according to the x-offset, a sensor operable to read an identifier associated with a dairy livestock located in the stall portion and to communicate the identifier to the controller; wherein the controller is further operable to determine relative positions of the teats of the dairy livestock based at least in part upon the identifier; and wherein the amount of movement in the x- direction is further determined at least in part according to the relative positions of the teats. a stall portion; and a backplane positioned in the stall portion of the milking box, the backplane operable to: move toward the rear of the stall portion in response to pressure applied to a contact surface of the backplane; and move toward the front of the stall portion in response to pressure removed from the contact surface, move toward the rear of the stall portion in response to pressure applied to a contact surface of the backplane; and move toward the front of the stall portion in response to pressure removed from the contact surface, a robotic attacher comprising a controller and a supplemental arm, the controller operable to: determine the position of the backplane relative to the rear of the stall portion; determine an x- offset based at least in part upon the position of the backplane; and communicate a signal to move the robotic attacher in an x-direction, the amount of movement determined at least in part according to the x-offset, determine the position of the backplane relative to the rear of the stall portion; determine an x- offset based at least in part upon the position of the backplane; and communicate a signal to move the robotic attacher in an x-direction, the amount of movement determined at least in part according to the x-offset, a sensor operable to read an identifier associated with a dairy livestock located in the stall portion and to communicate the identifier to the controller; wherein the controller is further operable to determine relative positions of the teats of the dairy livestock based at least in part upon the identifier; and wherein the amount of movement in the x- direction is further determined at least in part according to the relative positions of the teats.
An isolated TIMP-3 mutein having a mature region that is at least 90% identical in amino acid sequence to the mature region of TIMP-3 set forth in SEQ ID NO:2 or a TIMP-3 mutein having a mature region that is at least 90% identical in amino acid sequence to amino acids 24-211 of SEQ ID NO:2, selected from the group consisting of: a) a TIMP-3 mutein having the mutations H78N/Q80T, K94N/E96T, D110N/K112T and R138T, optionally in combination with one or more of mutations selected from the group consisting of K45N/V47T; K50N/V52T; and P56N/G58T; b) the TIMP-3 mutein according to a) that further comprises an additional mutation G173T; and c) the TIMP-3 mutein according to a) or b) that further comprises the mutation F57N. a) a TIMP-3 mutein having the mutations H78N/Q80T, K94N/E96T, D110N/K112T and R138T, optionally in combination with one or more of mutations selected from the group consisting of K45N/V47T; K50N/V52T; and P56N/G58T; b) the TIMP-3 mutein according to a) that further comprises an additional mutation G173T; and c) the TIMP-3 mutein according to a) or b) that further comprises the mutation F57N.
A hood inner panel, comprising: an inner panel main body forming part of a hood of a vehicle; a front bead provided on the inner panel main body and extending along a vehicle width direction; and a rear bead provided on the inner panel main body, located on a rear side of the front bead and extending along the vehicle width direction, the front bead being curved toward a front of the vehicle such that a center portion in the vehicle width direction is located in front of each end portion in the vehicle width direction, and the rear bead being curved toward a back of the vehicle such that a center portion in the vehicle width direction is located behind each end portion in the vehicle width direction. an inner panel main body forming part of a hood of a vehicle; a front bead provided on the inner panel main body and extending along a vehicle width direction; and a rear bead provided on the inner panel main body, located on a rear side of the front bead and extending along the vehicle width direction, the front bead being curved toward a front of the vehicle such that a center portion in the vehicle width direction is located in front of each end portion in the vehicle width direction, and the rear bead being curved toward a back of the vehicle such that a center portion in the vehicle width direction is located behind each end portion in the vehicle width direction.
A robot assembling system for assembling a multi-layer cage comprising a bottom case, a top case, at least one partition plate and at least two partition assemblies, the robot assembling system comprising: a first assembling workstation configured to assemble the partition plate and the at least two partition assemblies to form a partition means; a second assembling workstation configured to assemble the partition means and the top case to form a top case assembly; a third assembling workstation configured to assemble the top case assembly and the bottom case to form a multi-layer cage; and at least one robot configured to transfer the bottom case, the top case, the partition plate, the at least two partition assemblies, the partition means or the top case assembly between respective assembling workstation (1, 2, 3), and assist an assembly process at each assembling workstation (1, 2, 3). a first assembling workstation configured to assemble the partition plate and the at least two partition assemblies to form a partition means; a second assembling workstation configured to assemble the partition means and the top case to form a top case assembly; a third assembling workstation configured to assemble the top case assembly and the bottom case to form a multi-layer cage; and at least one robot configured to transfer the bottom case, the top case, the partition plate, the at least two partition assemblies, the partition means or the top case assembly between respective assembling workstation (1, 2, 3), and assist an assembly process at each assembling workstation (1, 2, 3).