mhurhangee/ep-ind-claims huggingface dataset:
A sensor element including: an element body having an elongate rectangular parallelepiped shape and including solid electrolyte layers with oxygen ion conductivity, an outer electrode disposed on a first surface that is one of surfaces of the element body, and a protective layer covering at least a part of a second surface of the element body on a side opposite to the first surface and including one or more first interior spaces (92, 92A, 95B2, 95C2, 92D-92I, 95J2, 95K2) to which the second surface is exposed, wherein the volume of one first interior space is 12500 mm 3 or more, and the total volume of the one or more first interior spaces is 0.03 mm 3 or more, and wherein the second surface has a region covered by the protective layer, and at least one of the first interior spaces (92, 92A, 95B2, 95C2, 92D-92I, 95J2, 95K2) is positioned in an overlapping relation to the middle of said region of the second surface, when viewed from a direction perpendicular to the second surface, said middle of said region of the second surface being located at the middle of said region in at least one of the short-length direction and the longitudinal direction of the second surface, and wherein the sensor element has a heater, disposed at a position closer to the second surface than to the first surface. an element body having an elongate rectangular parallelepiped shape and including solid electrolyte layers with oxygen ion conductivity, an outer electrode disposed on a first surface that is one of surfaces of the element body, and a protective layer covering at least a part of a second surface of the element body on a side opposite to the first surface and including one or more first interior spaces (92, 92A, 95B2, 95C2, 92D-92I, 95J2, 95K2) to which the second surface is exposed, wherein the volume of one first interior space is 12500 mm 3 or more, and the total volume of the one or more first interior spaces is 0.03 mm 3 or more, and wherein the second surface has a region covered by the protective layer, and at least one of the first interior spaces (92, 92A, 95B2, 95C2, 92D-92I, 95J2, 95K2) is positioned in an overlapping relation to the middle of said region of the second surface, when viewed from a direction perpendicular to the second surface, said middle of said region of the second surface being located at the middle of said region in at least one of the short-length direction and the longitudinal direction of the second surface, and wherein the sensor element has a heater, disposed at a position closer to the second surface than to the first surface.
A device for fastening a bird control net to a surface, comprising: - a rail-shaped carrier element, comprising a planar fastening surface and a plurality of hook elements, - the hook elements being arranged over the length of the carrier element at an equal distance from one another, - the inner faces of each hook element each enclosing an open space, at the opening of which, on an inner face, a stop is formed, which narrows the opening in the relevant open space, and - the inner face of each hook element that forms the end of the open space being able to be brought into engagement with a frame cable of the bird control net, characterized in that the carrier element also comprises a plurality of support elements, which each comprise a contact surface, - one support element being provided between two adjacent hook elements, and - the frame cable being able to be brought into contact with the contact surface of each of the support elements. - a rail-shaped carrier element, comprising a planar fastening surface and a plurality of hook elements, - the hook elements being arranged over the length of the carrier element at an equal distance from one another, - the inner faces of each hook element each enclosing an open space, at the opening of which, on an inner face, a stop is formed, which narrows the opening in the relevant open space, and - the inner face of each hook element that forms the end of the open space being able to be brought into engagement with a frame cable of the bird control net, characterized in that the carrier element also comprises a plurality of support elements, which each comprise a contact surface, - one support element being provided between two adjacent hook elements, and - the frame cable being able to be brought into contact with the contact surface of each of the support elements.
A compound of formula: or a pharmaceutically acceptable salt, hydrate, solvate, or stereoisomer thereof, wherein, R 12 is NHR 7; wherein R 7 is R 1 is H, NH 2 or NHR 7; wherein R 7 is an alkyl, aryl, (C=O)-alkyl, (C=O)-aryl, SO 2 -alkyl or SO 2 -aryl; R 2 and R 5 are independently -CH 2 -R 8 or wherein R 8 is (CH 2)n-NH(C=NH)NH 2; n is 1 to 3; m is 0 to 3; and R 10 is -C(=NH)-NH 2, NH 2 or NH alkyl; R 3 is: a linear alkyl; an alkyl substituted with NH 2, OH, NH 2, NHCO-alkyl, NHCO-aryl, NHSO 2 -alkyl, NHSO 2 -aryl or heteroaryl; or an aryl or a substituted aryl; R 4 is an alkyl, an aryl, a substituted alkyl or a substituted aryl; R 6 is CF 3, CO 2 H, CONH-alkyl, CONH-aryl or CONH-amino acid; wherein W, X, Y and Z are independently CH or N; V and U are independently S, O, NH or NCH 3; and R 11 is H, CO 2 H, CONH-alkyl, CONH-aryl, aryl, heteroaryl. R 12 is NHR 7; wherein R 7 is R 1 is H, NH 2 or NHR 7; wherein R 7 is an alkyl, aryl, (C=O)-alkyl, (C=O)-aryl, SO 2 -alkyl or SO 2 -aryl; R 2 and R 5 are independently -CH 2 -R 8 or wherein R 8 is (CH 2)n-NH(C=NH)NH 2; n is 1 to 3; m is 0 to 3; and R 10 is -C(=NH)-NH 2, NH 2 or NH alkyl; wherein R 8 is (CH 2)n-NH(C=NH)NH 2; n is 1 to 3; m is 0 to 3; and R 10 is -C(=NH)-NH 2, NH 2 or NH alkyl; R 3 is: a linear alkyl; an alkyl substituted with NH 2, OH, NH 2, NHCO-alkyl, NHCO-aryl, NHSO 2 -alkyl, NHSO 2 -aryl or heteroaryl; or an aryl or a substituted aryl; a linear alkyl; an alkyl substituted with NH 2, OH, NH 2, NHCO-alkyl, NHCO-aryl, NHSO 2 -alkyl, NHSO 2 -aryl or heteroaryl; or an aryl or a substituted aryl; R 4 is an alkyl, an aryl, a substituted alkyl or a substituted aryl; R 6 is CF 3, CO 2 H, CONH-alkyl, CONH-aryl or CONH-amino acid; wherein W, X, Y and Z are independently CH or N; V and U are independently S, O, NH or NCH 3; and R 11 is H, CO 2 H, CONH-alkyl, CONH-aryl, aryl, heteroaryl. wherein W, X, Y and Z are independently CH or N; V and U are independently S, O, NH or NCH 3; and R 11 is H, CO 2 H, CONH-alkyl, CONH-aryl, aryl, heteroaryl.
Gear unit for a food processor, which has a first gear stage (7, 37, 46) with a first sun wheel (20, 42, 47) and at least one first planetary wheel (25, 43, 48) which engages with the first sun wheel (20, 42, 47) and is rotatably mounted on a planetary carrier (23, 51), a first coupling piece (24, 45, 50) for receiving a first shaft of a first tool, wherein the first coupling piece (24, 45, 50) is connected to a first planetary wheel (25, 43, 48) of the first gear stage (7, 37, 46), wherein in addition to the first coupling piece (24, 45, 50) a second coupling piece (22, 44, 53) for receiving a second shaft of a second tool is mounted rotatably on or in the planetary carrier (23, 51), wherein the gear unit is designed to drive the second coupling piece so that the second coupling piece (22, 44, 53) rotates together with the planetary carrier (23, 51) with a self-rotation which differs from the first coupling piece (24, 45, 50), wherein the gear unit comprises a second gear stage (8, 38), which is designed to drive the second coupling piece (22, 44) so that the second coupling piece (22, 44) rotates together with the planetary carrier with a self-rotation which differs from the first coupling piece (24, 45), characterised in that the second gear stage (8, 38) comprises a second sun wheel (19, 39) and at least one second planetary wheel (21, 40) which engages with the second sun wheel (19, 39) and which is mounted rotatably on the planetary carrier, wherein one of the second planetary wheels (21, 40) is connected to the second coupling piece (22, 44).
Method for producing an electrical component, comprising: - providing a ceramic semiconducting base body having a surface and a first side area (S10a) lying opposite the surface, wherein a metallic layer is contained within the base body, - arranging at least two further metallic layers separately from one another on the side area (S10a) of the base body, - sintering the arrangement composed of the base body and the further metallic layers, - arranging an electrically insulating layer on the first side area (S10a) between the at least two further metallic layers, - arranging a respective contact layer on the at least two further metallic layers by means of a chemical process, characterized in that, during the arrangement of the contact layers, the material of the base body is removed by the chemical process proceeding from the surface of the base body, specifically at most as far as the metallic layer arranged within the base body. - providing a ceramic semiconducting base body having a surface and a first side area (S10a) lying opposite the surface, wherein a metallic layer is contained within the base body, - arranging at least two further metallic layers separately from one another on the side area (S10a) of the base body, - sintering the arrangement composed of the base body and the further metallic layers, - arranging an electrically insulating layer on the first side area (S10a) between the at least two further metallic layers, - arranging a respective contact layer on the at least two further metallic layers by means of a chemical process, characterized in that, during the arrangement of the contact layers, the material of the base body is removed by the chemical process proceeding from the surface of the base body, specifically at most as far as the metallic layer arranged within the base body.
A method of handling a molten metal processing by-product, the method including: providing a container unit; providing the by-product in the container unit; providing apparatus, the apparatus including an element having a first position outside of the container unit and a second position in which at least a part of the element is in the container unit; providing the container unit in the apparatus; moving the element from the first position to the second position; transferring heat from the contents of the container unit to the element; compressing at least a part of the contents of the container unit; moving the element from the second position towards the first position; removing the container unit from the apparatus; and positioning the container unit at a cooling location; characterised in that the transition from the first to the second position and/or transferring heat from the contents of the container unit to the element, causes an oxygen impermeable and/or oxygen flow inhibiting layer to form on the by-product, the by-product having an aluminium content of less than 25% by weight and the by-product having a salt content of 10% to 75% by weight. providing a container unit; providing the by-product in the container unit; providing apparatus, the apparatus including an element having a first position outside of the container unit and a second position in which at least a part of the element is in the container unit; providing the container unit in the apparatus; moving the element from the first position to the second position; transferring heat from the contents of the container unit to the element; compressing at least a part of the contents of the container unit; moving the element from the second position towards the first position; removing the container unit from the apparatus; and positioning the container unit at a cooling location;
A removable cartridge (100, 200) for use with a liquid diffusion device, the removable cartridge (100, 200) comprising: a cartridge housing (110, 210) defining an internal housing cavity (113, 213) partially filled with a liquid to be diffused; a diffusion head (140, 240) positioned within the internal housing cavity (113, 213), the diffusion head (140, 240) including a venturi device (142, 242) for generating diffused liquid from the liquid contained in the internal housing cavity (113, 213), and a plurality of chambers downstream of the venturi device (142, 242) through which the diffused liquid sequentially moves towards an outlet of the cartridge (100, 200), wherein the plurality of chambers include a primary expansion chamber (148, 248), a secondary chamber (113, 213) and a tertiary chamber (172, 272), characterized in that the secondary chamber (113, 213) is provided above a fluid level of the liquid to be diffused and is separated from the primary expansion chamber (148, 248) by a bulkhead having a plurality of apertures (158, 258) that provide fluid communication between the primary expansion chamber (148, 248) and the secondary chamber (113, 213), and the diffusion head (140, 240) defining at least a portion of a gas supply conduit (112, 212) that extends from a bottom end of the removable cartridge (100, 200) to the venturi device (142, 242) through the liquid to be diffused to enable the venturi device (142, 242) to be supplied with pressurized gas from an external source (102, 202) via the bottom end of the removable cartridge (100, 200). a cartridge housing (110, 210) defining an internal housing cavity (113, 213) partially filled with a liquid to be diffused; a diffusion head (140, 240) positioned within the internal housing cavity (113, 213), the diffusion head (140, 240) including a venturi device (142, 242) for generating diffused liquid from the liquid contained in the internal housing cavity (113, 213), and a plurality of chambers downstream of the venturi device (142, 242) through which the diffused liquid sequentially moves towards an outlet of the cartridge (100, 200), wherein the plurality of chambers include a primary expansion chamber (148, 248), a secondary chamber (113, 213) and a tertiary chamber (172, 272),
A cylinder lock (10; 100) intended to be operated by a key, comprising a rotor (12; 112) mounted rotatably in a housing (14; 114), a plurality of spring-loaded tumblers arranged moveably in the rotor (12; 112) and in the housing (14; 114) along a locking direction between a locked position in which they prevent a rotation of the rotor (12; 112) and an unlocked position in which they allow the rotation of the rotor (12; 112), each tumbler being pretensioned towards its locked position by a spring element arranged alongside the tumbler with regard to the locking direction, each spring element being arranged in a receptacle formed in the rotor (12; 112), a sidebar (34; 134) being provided on the rotor (12; 112), the sidebar (34; 134) being arranged for motion between a locked position in which it prevents the rotation of the rotor (12; 112) and an unlocked position in which it allows the rotation of the rotor (12; 112), characterized in that the sidebar (34; 134) is arranged along the locking direction of the tumblers beyond a radially inner end of all receptacles of the spring elements.
An antenna system for use on a vehicle, the antenna system comprising: a telematics module having a front surface, a rear surface, and four side surfaces; two first antenna modules (1100a, 1100b) coupled to two side surfaces of the four side surfaces of the telematics module, wherein the first antenna modules (1100a, 1100b) include a plurality of antenna elements configured to perform Multiple-Input and Multi-Output, MIMO, communication by transmitting or receiving a plurality of first signals according to a first communication system, wherein the first antenna modules (1100a, 1100b) include first, second, third and fourth antenna elements (1111, 1112, 1113, 1114) configured to perform 4×4 MIMO communication, and wherein the first and second antenna elements (1111, 1112) are disposed at first and second ends of one of the first antenna modules, and the third and fourth antenna elements (1113, 1114) are disposed at first and second ends of another one of the first antenna modules. a telematics module having a front surface, a rear surface, and four side surfaces; two first antenna modules (1100a, 1100b) coupled to two side surfaces of the four side surfaces of the telematics module, wherein the first antenna modules (1100a, 1100b) include a plurality of antenna elements configured to perform Multiple-Input and Multi-Output, MIMO, communication by transmitting or receiving a plurality of first signals according to a first communication system, wherein the first antenna modules (1100a, 1100b) include first, second, third and fourth antenna elements (1111, 1112, 1113, 1114) configured to perform 4×4 MIMO communication, and wherein the first and second antenna elements (1111, 1112) are disposed at first and second ends of one of the first antenna modules, and the third and fourth antenna elements (1113, 1114) are disposed at first and second ends of another one of the first antenna modules.
An oral composition comprising a highly BSH active bacteria, isolate or supernatant thereof, wherein the highly BSH active bacteria degrades >2000 μmol GDCA/g/hr and >500 μmol TDCA/g/hr when measured over 30 minutes or optionally >15000 μmol GDCA/g/hr and >2000 μmol TDCA/g/hr when measured over 30 minutes.
A method of forming a coating on a surface of a substrate in a vacuum chamber, comprising: providing in the vacuum chamber an evaporation chamber, wherein the evaporation chamber comprises at least a first vapor and a second vapor, the first vapor comprising a monomer and the second vapor comprising a compound and a non-polymerizable carrier fluid, wherein the compound is substantially insoluble with respect to the monomer and wherein the non-polymerizable carrier is an organic solvent or an aqueous solvent; homogenizing said vapors to form a composite vapor while heating the first vapor and the second vapor at a temperature below that at which thermal polymerization of the monomer is initiated; allowing said composite vapor to flow to the surface of the substrate, the surface maintained at a temperature below the boiling point of the composite vapor, or portion thereof; condensing at least a portion of said composite vapor on the surface of the substrate to form a layer comprising the monomer; and polymerizing said layer to form the coating. providing in the vacuum chamber an evaporation chamber, wherein the evaporation chamber comprises at least a first vapor and a second vapor, the first vapor comprising a monomer and the second vapor comprising a compound and a non-polymerizable carrier fluid, wherein the compound is substantially insoluble with respect to the monomer and wherein the non-polymerizable carrier is an organic solvent or an aqueous solvent; homogenizing said vapors to form a composite vapor while heating the first vapor and the second vapor at a temperature below that at which thermal polymerization of the monomer is initiated; allowing said composite vapor to flow to the surface of the substrate, the surface maintained at a temperature below the boiling point of the composite vapor, or portion thereof; condensing at least a portion of said composite vapor on the surface of the substrate to form a layer comprising the monomer; and polymerizing said layer to form the coating.
A torque-limiting ratchet driver comprising: a body having a handle and an inner annular wall; an upper clutch shank with gear teeth on one side and an annular wall around the periphery on the opposite side forming the peripheral wall of drive body guides; a lower shank having a drive socket on one side and gear teeth on the opposing side; a nut; a spring with an outer and an inner diameter between the upper clutch shank and the nut, wherein the spring is configured to apply a force across the upper clutch shank and the lower shank; a shaft having a workpiece-engaging tip and a drive connection engaged within the drive socket of the lower shank, the shaft extending axially through the lower shank, the upper clutch shank, and the spring and connected to the nut; a plurality of ratchet teeth formed or molded on the inner annular wall; one or more of movable drive bodies mounted to the upper clutch shank with a toe that protrudes through a passageway beyond the annular wall to engage a ratchet tooth when rotated in the positive lock direction; wherein the upper clutch shank and the lower shank engage for relative rotation, and wherein the upper clutch shank and the lower shank disengage when a predetermined torque limit is exceeded; and, wherein when the body rotates in an unlocked direction the toes disengage from the ratchet teeth and the shaft does not rotate. a body having a handle and an inner annular wall; an upper clutch shank with gear teeth on one side and an annular wall around the periphery on the opposite side forming the peripheral wall of drive body guides; a lower shank having a drive socket on one side and gear teeth on the opposing side; a nut; a spring with an outer and an inner diameter between the upper clutch shank and the nut, wherein the spring is configured to apply a force across the upper clutch shank and the lower shank; a shaft having a workpiece-engaging tip and a drive connection engaged within the drive socket of the lower shank, the shaft extending axially through the lower shank, the upper clutch shank, and the spring and connected to the nut; a plurality of ratchet teeth formed or molded on the inner annular wall; one or more of movable drive bodies mounted to the upper clutch shank with a toe that protrudes through a passageway beyond the annular wall to engage a ratchet tooth when rotated in the positive lock direction; wherein the upper clutch shank and the lower shank engage for relative rotation, and wherein the upper clutch shank and the lower shank disengage when a predetermined torque limit is exceeded; and, wherein when the body rotates in an unlocked direction the toes disengage from the ratchet teeth and the shaft does not rotate.
A breathable, multi-component exhaust insulation sleeve for an exhaust pipe, said insulation sleeve comprising: an inner layer comprising a braided fabric made from a first high-temperature resistant material forming a sleeve, wherein said sleeve is configured to be positioned adjacent to and disposed about an outer surface of a section of the exhaust pipe; and an outer cover layer comprising a circular knitted fabric including yarns comprising glass fibers and heat cured thermoplastic resin-based fibers, wherein the outer cover layer is positioned adjacent to and disposed over the inner layer, wherein the yarns are fused together, wherein the fused yarns dimensionally stabilize and stiffen the outer cover layer around the inner layer. an inner layer comprising a braided fabric made from a first high-temperature resistant material forming a sleeve, wherein said sleeve is configured to be positioned adjacent to and disposed about an outer surface of a section of the exhaust pipe; and an outer cover layer comprising a circular knitted fabric including yarns comprising glass fibers and heat cured thermoplastic resin-based fibers, wherein the outer cover layer is positioned adjacent to and disposed over the inner layer, wherein the yarns are fused together, wherein the fused yarns dimensionally stabilize and stiffen the outer cover layer around the inner layer.