mhurhangee/ep-ind-claims huggingface dataset:
A centrifugal pump, comprising: a housing; a centrifugal element including an impeller that rotates about a rotational axis relative to the housing; and a selectable regenerative style pumping element operatively associated with the centrifugal element including a regenerative pump rotor formed as part of the impeller; characterized by at least one side wall flow channel formed by a selectively rotating disc, wherein the regenerative pumping element is selectable between a first state in which the disc does not rotate with the impeller and a second state in which the disc rotates with the impeller. a housing; a centrifugal element including an impeller that rotates about a rotational axis relative to the housing; and a selectable regenerative style pumping element operatively associated with the centrifugal element including a regenerative pump rotor formed as part of the impeller; characterized by at least one side wall flow channel formed by a selectively rotating disc, wherein the regenerative pumping element is selectable between a first state in which the disc does not rotate with the impeller and a second state in which the disc rotates with the impeller.
Method for producing a compression garment for a limb of a patient, wherein a tension value of a limb of a person is automatically determined, the tension value of the limb being used along with a skin value of the limb for the production of the custom-tailored compression garment for the limb, the skin value describing the circumference of the limb without any applied compression and the tension value describing the circumference of the limb with the compression garment applying a desired compression, wherein the skin value of the limb is received and the tension value of the limb is calculated from the skin value according to a calculation instruction parametrized by at least one parameter, wherein the parameter is derived from a dataset comprising multiple associated tuples of skin values and tension values, wherein, after calculating the tension value, the compression garment is automatically produced by a garment production apparatus, in particular a knitting machine, using the received skin value and the determined tension value.
A strip section of a strip for fastening a leaf of a door, a window or the like to a frame so as to be pivotally movable about a hinge axis, with a hinge part (1, 101) comprising a receptacle (2, 102) for a strip pin (3, 103) defining the hinge axis, and with a fastening part (6, 106), by means of which the strip section (100, 200, 300) can be fastened to a fastening surface of the leaf or of the frame, wherein the hinge part (1, 101) can be displaced relative to the fastening part (6, 106) approximately perpendicularly to the hinge axis in an adjustment direction, wherein the fastening part (6, 106) comprises an abutment leg that forms a counter abutment surface (7, 107) against which the hinge part (1, 101) directly or indirectly rests with an abutment surface (4, 104), wherein the fastening part (6, 106) comprises a fastening leg provided for resting against the fastening surface, which fastening leg extends approximately perpendicularly from the counter abutment surface (7, 107), wherein a recess into which the fastening leg protrudes is provided in the abutment surface (4, 104), and wherein at least one through-bore (27, 127) for fastening means, in particular for a fastening screw (26, 126) for fastening the strip section in the frame, is provided in the fastening leg, which through-bore extends approximately parallel to the counter abutment surface (7, 107), characterized in that at least one recess which extends in the adjustment direction and through which a tool can be engaged with the fastening means is provided in the counter abutment surface (7, 107).
Method for preparing a crosslinked hyperbranched (co)polymer with ion exchange groups providing the steps of: - providing a hyperbranched (co)polymer being a methacrylate or acrylamide based polymer; - providing a crosslinker; - crosslinking the hyperbranched (co)polymer with the crosslinker; wherein during the crosslinking step an ion exchange group is formed wherein the ion exchange group is an anion exchange group, wherein the reactive group of the hyperbranched (co)polymer is a tertiary amine, a pyridine, a guanidine and/or phosphine group and the reactive group of the crosslinker is a halide, tosylate, mesylate or triflate group wherein the hyperbranched (co)polymer and crosslinker comprise reactive groups that are capable of reacting with each other forming a covalent bond and the quaternary ammonium, pyridinium, guanidium or phosphonium anion exchange group, wherein the hyperbranched (co)polymer is prepared by a method comprising the steps of: - providing one or more branching monomer(s), - providing one or more co-monomer(s), - providing an initiator, preferably a free radical initiator, and - reacting the branching monomer(s), the co-monomer(s), and the initiator to form a hyperbranched (co)polymer; and wherein the hyperbranched (co)polymer comprises a branching monomer that comprises at least two vinyl groups and a co-monomer that comprises one vinyl group, wherein the vinyl groups are suitable for addition polymerization and wherein one or more of the co-monomers comprise a tertiary amine, a pyridine, a guanidine and/or phosphine group as a precursor for the anion exchange group. - providing a hyperbranched (co)polymer being a methacrylate or acrylamide based polymer; - providing a crosslinker; - crosslinking the hyperbranched (co)polymer with the crosslinker; - providing one or more branching monomer(s), - providing one or more co-monomer(s), - providing an initiator, preferably a free radical initiator, and - reacting the branching monomer(s), the co-monomer(s), and the initiator to form a hyperbranched (co)polymer; and
An electronic device, comprising: a camera configured to capture a first front image; a display module configured to display a preview screen of the first front image obtained by the camera; and characterized by a controller configured to: receive a focus input including a designation of a first object and a second object in the preview screen, receive an input for performing continuous capture, control the camera to capture a first image group in which the first object zooms in or zooms out while a focus on the first object remains intact, and capture a second image group in which the second object zooms in or zooms out while a focus on the second object remains intact. a camera configured to capture a first front image; a display module configured to display a preview screen of the first front image obtained by the camera; and characterized by a controller configured to: receive a focus input including a designation of a first object and a second object in the preview screen, receive an input for performing continuous capture, control the camera to capture a first image group in which the first object zooms in or zooms out while a focus on the first object remains intact, and capture a second image group in which the second object zooms in or zooms out while a focus on the second object remains intact. receive a focus input including a designation of a first object and a second object in the preview screen, receive an input for performing continuous capture, control the camera to capture a first image group in which the first object zooms in or zooms out while a focus on the first object remains intact, and capture a second image group in which the second object zooms in or zooms out while a focus on the second object remains intact.
A controller-integrated electric rotating machine comprising: an electric rotating machine having a rotor with a rotating shaft and a stator disposed so as to surround the rotor; a power circuit unit having switching elements (30a, 30b) for converting DC power to AC power for supplying the AC power to the electric rotating machine; a control circuit unit for controlling the switching elements (30a, 30b) of the power circuit unit; a rotational position detection sensor arranged on the rotating shaft for detecting the rotation of the rotating shaft; a cover for storing the power circuit unit and having a hole for allowing cooling air to flow in; and a case for storing the control circuit unit, wherein the power circuit unit and the control circuit unit are thermally separated, wherein the control circuit unit is disposed at a position where the power circuit unit is essentially not disposed when viewed in the direction of the rotating shaft, and is disposed at a position shifted radially outward so as not to be overlapped with the rotational position detection sensor when viewed in the direction of the rotating shaft, characterized in that the case for storing the control circuit unit also has a function for storing the rotational position detection sensor. an electric rotating machine having a rotor with a rotating shaft and a stator disposed so as to surround the rotor; a power circuit unit having switching elements (30a, 30b) for converting DC power to AC power for supplying the AC power to the electric rotating machine; a control circuit unit for controlling the switching elements (30a, 30b) of the power circuit unit; a rotational position detection sensor arranged on the rotating shaft for detecting the rotation of the rotating shaft; a cover for storing the power circuit unit and having a hole for allowing cooling air to flow in; and a case for storing the control circuit unit, wherein the power circuit unit and the control circuit unit are thermally separated, wherein the control circuit unit is disposed at a position where the power circuit unit is essentially not disposed when viewed in the direction of the rotating shaft, and is disposed at a position shifted radially outward so as not to be overlapped with the rotational position detection sensor when viewed in the direction of the rotating shaft, characterized in that the case for storing the control circuit unit also has a function for storing the rotational position detection sensor.
An electrode assembly comprising: a first layer comprising a printed circuit board having an electrically insulating substrate and a plurality of electrodes arranged on the substrate that are separated by one or more gaps, wherein the substrate has one or more apertures therethrough that are respectively coincident with said one or more gaps; and at least one second layer arranged to cover said one or more gaps and prevent electric fields passing through said one or more gaps, said at least one second layer having electrically conductive material located to be coincident with said one or more gaps in the first layer. a first layer comprising a printed circuit board having an electrically insulating substrate and a plurality of electrodes arranged on the substrate that are separated by one or more gaps, wherein the substrate has one or more apertures therethrough that are respectively coincident with said one or more gaps; and at least one second layer arranged to cover said one or more gaps and prevent electric fields passing through said one or more gaps, said at least one second layer having electrically conductive material located to be coincident with said one or more gaps in the first layer.
A system of absorbent articles arranged to ensure a properly fitting absorbent device, comprising: at least a first absorbent article and a second absorbent article, each absorbent article of the system comprising: a chassis, the chassis having a substantially rectangular shape including a chassis length extending in a longitudinal direction from the back to the front of a user and chassis width extending in a lateral direction substantially perpendicular to the chassis length between first and second longitudinal edges of the chassis, the chassis comprising a first portion, a second portion and a crotch portion extending between the first and second portions, a portion of the chassis being configured to absorb fluids; a first securement portion operatively coupled to the first portion of the chassis, the first securement portion having a securement width extending in a lateral direction from the first longitudinal edge of the chassis first portion and a securement length extending longitudinally along the first longitudinal edge; and a second securement portion operatively coupled to the second portion of the chassis in a position longitudinally spaced from the first securement portion and configured to releasably attach to the first securement portion; wherein the first absorbent article chassis length is a first length, the first absorbent chassis width is a first width, and the first absorbent article first securement portion width is a second width; and wherein the second absorbent article chassis length is a second length different from the first length, the second absorbent chassis width is the first width, and the second absorbent article first securement portion width is a third width greater than the second width. a chassis, the chassis having a substantially rectangular shape including a chassis length extending in a longitudinal direction from the back to the front of a user and chassis width extending in a lateral direction substantially perpendicular to the chassis length between first and second longitudinal edges of the chassis, the chassis comprising a first portion, a second portion and a crotch portion extending between the first and second portions, a portion of the chassis being configured to absorb fluids; a first securement portion operatively coupled to the first portion of the chassis, the first securement portion having a securement width extending in a lateral direction from the first longitudinal edge of the chassis first portion and a securement length extending longitudinally along the first longitudinal edge; and a second securement portion operatively coupled to the second portion of the chassis in a position longitudinally spaced from the first securement portion and configured to releasably attach to the first securement portion; wherein the first absorbent article chassis length is a first length, the first absorbent chassis width is a first width, and the first absorbent article first securement portion width is a second width; and
A lumen device decontamination system for decontaminating a medical device having one or more lumens extending there-through, the lumen device decontamination system comprising: a lumen device container defining a lumen device receiving area; and a fluid connector connected to the lumen device container so as to deliver a decontaminating fluid to the lumen device receiving area, the fluid connector comprising: a fluid passage suitable for conducting flow of the decontaminating fluid; and a connector end positioned at an end of the fluid passage, wherein the connector end comprises a concave contact surface operable for contacting a distal end of a lumen port of the medical device positioned in the lumen device receiving area, characterised in that the contact surface has a concavely curved shape to cause the contact surface to align with the distal end of the lumen port. a lumen device container defining a lumen device receiving area; and a fluid connector connected to the lumen device container so as to deliver a decontaminating fluid to the lumen device receiving area, the fluid connector comprising: a fluid passage suitable for conducting flow of the decontaminating fluid; and a connector end positioned at an end of the fluid passage, a fluid passage suitable for conducting flow of the decontaminating fluid; and a connector end positioned at an end of the fluid passage,
Method for manufacturing a flap carrier for an exhaust gas flap, especially for the exhaust gas stream of an internal combustion engine, comprising the steps: a) provision of a flap housing, b) provision of a stop ring, c) insertion of the stop ring into the flap housing in a position corresponding to an installed position, d) fixing of the stop ring to the flap housing, e) after carrying out step d), insertion of at least one shaft opening (60, 62) at least into the stop ring for a pivot shaft carrying a flap diaphragm with at least one flap wing (28, 30). a) provision of a flap housing, b) provision of a stop ring, c) insertion of the stop ring into the flap housing in a position corresponding to an installed position, d) fixing of the stop ring to the flap housing, e) after carrying out step d), insertion of at least one shaft opening (60, 62) at least into the stop ring for a pivot shaft carrying a flap diaphragm with at least one flap wing (28, 30).
A battery cell comprising: a positive electrode; a negative electrode; a separator disposed between the positive electrode and the negative electrode and having at least one perforated portion; and a short circuit induction member disposed on the perforated portion, wherein the short circuit induction member includes a cover unit covering the perforated portion; and one or more magnetic units disposed on a side surface of the cover unit. a positive electrode; a negative electrode; a separator disposed between the positive electrode and the negative electrode and having at least one perforated portion; and a short circuit induction member disposed on the perforated portion, wherein the short circuit induction member includes a cover unit covering the perforated portion; and one or more magnetic units disposed on a side surface of the cover unit.
A powertrain mount assembly configured to connect a powertrain to a side rail (2a, 2b) of a vehicle frame structure, wherein the powertrain mount assembly comprises: a mounting bracket comprising a first side wall and a second side wall spaced apart from the first side wall, the mounting bracket being configured to receive a resilient member and a bracket arm between the first and second side walls, the bracket arm being connectable to the powertrain; characterised in that the powertrain mount assembly further comprises: a first support bracket connectable to a surface of the side rail (2a, 2b), wherein the first side wall of the mounting bracket is fastenable to the first support bracket and wherein the first support bracket is configured to be connected to the side rail (2a, 2b) at a location between the first and second side walls (112a, 112b) of the mounting bracket. a mounting bracket comprising a first side wall and a second side wall spaced apart from the first side wall, the mounting bracket being configured to receive a resilient member and a bracket arm between the first and second side walls, the bracket arm being connectable to the powertrain; characterised in that the powertrain mount assembly further comprises: a first support bracket connectable to a surface of the side rail (2a, 2b), wherein the first side wall of the mounting bracket is fastenable to the first support bracket and wherein the first support bracket is configured to be connected to the side rail (2a, 2b) at a location between the first and second side walls (112a, 112b) of the mounting bracket. a first support bracket connectable to a surface of the side rail (2a, 2b), wherein the first side wall of the mounting bracket is fastenable to the first support bracket and wherein the first support bracket is configured to be connected to the side rail (2a, 2b) at a location between the first and second side walls (112a, 112b) of the mounting bracket.
A recombinant meganuclease that recognizes and cleaves a recognition sequence consisting of SEQ ID NO: 1, wherein said recombinant meganuclease comprises a first subunit and a second subunit, wherein said first subunit recognizes a first recognition half-site of said recognition sequence and comprises: (a) an amino acid sequence having at least 80% sequence identity to residues 198-344 of SEQ ID NO: 7; and (b) a first hypervariable region consisting of residues 215-270 of SEQ ID NO: 7; and wherein said second subunit recognizes a second recognition half-site of said recognition sequence and comprises: (i) an amino acid sequence having at least 80% sequence identity to residues 7-153 of SEQ ID NO: 7; and (ii) a second hypervariable region consisting of residues 24-79 of SEQ ID NO: 7. (a) an amino acid sequence having at least 80% sequence identity to residues 198-344 of SEQ ID NO: 7; and (b) a first hypervariable region consisting of residues 215-270 of SEQ ID NO: 7; (i) an amino acid sequence having at least 80% sequence identity to residues 7-153 of SEQ ID NO: 7; and (ii) a second hypervariable region consisting of residues 24-79 of SEQ ID NO: 7.
A bonded body comprising: a ceramic member made of ceramics; and a Cu member which is made of Cu or a Cu alloy and bonded to the ceramic member through a Cu-P-Sn-based brazing filler material and a Ti material, wherein the Cu-P-Sn-based brazing filler material is a Cu-P-Sn brazing filler material, a Cu-P-Sn-Ni brazing filler material, a Cu-P-Sn-Zn brazing filler material, a Cu-P-Sn-Mn brazing filler material or a Cu-P-Sn-Cr brazing filler material and contains 3 mass% to 10 mass% of P and 0.5 mass% to 25 mass% of Sn, a Cu-Sn layer, which is positioned close to the ceramic member and in which Sn forms a solid solution with Cu, and a Ti layer which is positioned between the Cu member and the Cu-Sn layer, are formed at a bonded interface between the ceramic member and the Cu member, a first intermetallic compound layer made of Cu and Ti is formed between the Cu member and the Ti layer, and a second intermetallic compound layer containing P is formed between the Cu-Sn layer and the Ti layer. a ceramic member made of ceramics; and a Cu member which is made of Cu or a Cu alloy and bonded to the ceramic member through a Cu-P-Sn-based brazing filler material and a Ti material, wherein the Cu-P-Sn-based brazing filler material is a Cu-P-Sn brazing filler material, a Cu-P-Sn-Ni brazing filler material, a Cu-P-Sn-Zn brazing filler material, a Cu-P-Sn-Mn brazing filler material or a Cu-P-Sn-Cr brazing filler material and contains 3 mass% to 10 mass% of P and 0.5 mass% to 25 mass% of Sn, a Cu-Sn layer, which is positioned close to the ceramic member and in which Sn forms a solid solution with Cu, and a Ti layer which is positioned between the Cu member and the Cu-Sn layer, are formed at a bonded interface between the ceramic member and the Cu member, a first intermetallic compound layer made of Cu and Ti is formed between the Cu member and the Ti layer, and a second intermetallic compound layer containing P is formed between the Cu-Sn layer and the Ti layer.
A cell culture comprising human cells wherein at least 26% of said human cells are pancreatic-duodenal homoebox factor- 1 positive, dorsally-biased, foregut endoderm cells that express at least one marker selected from the group consisting of CDH6, GABRA2, GRIA3, IL6R, KCNJ2, LGALS3, LGALS3/GALIG, SERPINF2, SLC27A2, DUSP9, and SOX9, said PDX1 -positive, dorsally-biased, foregut endoderm cells being multipotent cells that can differentiate into cells of the dorsal pancreatic bud.