mhurhangee/patent-ind-claim-en huggingface dataset:
A method for forming a metallic structure having a secondary component, comprising: positioning the secondary component on a main formation surface of a main tool, the main formation surface corresponding to a desired shape of a first layer of material; depositing a layer of material on the secondary component and the main formation surface by cold spraying the layer of material such that the layer of material bonds to the secondary component; and removing the layer of material and the secondary component to form the metallic structure; characterized by further comprising positioning a secondary tool on the secondary component such that the layer of material is at least partially deposited on the secondary tool; and removing the secondary tool to form a space between at least a portion of the secondary component and the layer of material, wherein removing the secondary tool includes forming a hole in the layer of material and leaching the secondary tool from the layer of material through the hole via at least one of etching the secondary tool or melting the secondary tool, and further comprising sealing the hole after removing the secondary tool. positioning the secondary component on a main formation surface of a main tool, the main formation surface corresponding to a desired shape of a first layer of material; depositing a layer of material on the secondary component and the main formation surface by cold spraying the layer of material such that the layer of material bonds to the secondary component; and positioning a secondary tool on the secondary component such that the layer of material is at least partially deposited on the secondary tool; and removing the secondary tool to form a space between at least a portion of the secondary component and the layer of material, wherein removing the secondary tool includes forming a hole in the layer of material and leaching the secondary tool from the layer of material through the hole via at least one of etching the secondary tool or melting the secondary tool, and further comprising sealing the hole after removing the secondary tool. wherein removing the secondary tool includes forming a hole in the layer of material and leaching the secondary tool from the layer of material through the hole via at least one of etching the secondary tool or melting the secondary tool, and further comprising sealing the hole after removing the secondary tool.
Cosmetic article , comprising: - a cosmetic product reserve , and - at least two meshes , one upstream and one downstream relative to the direction in which the product is discharged from the article, said meshes including through-holes and being arranged such that the product passes through the upstream mesh and subsequently through the downstream mesh, at least one of the meshes being woven, the weaving consisting of warp and weft threads, said article being characterized in that the diameter of the warp threads is different from that of the weft threads. - a cosmetic product reserve , and - at least two meshes , one upstream and one downstream relative to the direction in which the product is discharged from the article, said meshes including through-holes and being arranged such that the product passes through the upstream mesh and subsequently through the downstream mesh, at least one of the meshes being woven, the weaving consisting of warp and weft threads, said article being characterized in that the diameter of the warp threads is different from that of the weft threads.
An assembly for nondestructive material testing with which shear waves are emitted and detected in elastic surfaces of components or workpieces, with an assembly of piezoelectric transducer elements and one component or workpiece, in which piezoelectric transducer elements are arranged above one another in multiple planes and the piezoelectric transducer elements are piezoelectric fibers and/or piezoelectric plate-like elements that are connected to or embedded in an elastically deformable material; and piezoelectric fibers are respectively aligned in a plane in parallel with one another and piezoelectric fibers are aligned in an adjacent plane inclined at an angle to the piezoelectric fibers that are arranged in the respective other plane, or plate-like piezoelectric transducer elements have a thickness with which a stretching or shortening can be achieved in at least one axial direction with an applied electric voltage and/or on formation of at least one electrical field, and the piezoelectric transducer elements arranged in adjacent planes can each be operated oppositely to one another such that in one plane extension of and in the adjacent plane simultaneously shortening of the length of one or more piezoelectric transducer elements is caused in at least one axial direction and the assembly is permanently connected to a workpiece or component with material continuity and/or with shape matching.
A refrigerator comprising: a main body having a storeroom for storing a food item; a plurality of shelf plates arranged in the storeroom , the shelf plates configured to be put a food item on; a door configured to open and close a side of the storeroom ; a camera arranged on an inner surface of the door , the camera begin configured to take an image of an inside of the storeroom ; a door pocket provided on an inside of the door , wherein a camera moving device is configured to move the camera in a vertical direction, characterized in that the camera moving device is configured to stop the camera at two or more positions for each of between the shelf plates lain next to each other, and between an inner surface of a top edge of the storeroom and the shelf plate lain next to the inner surface of the top edge of the storeroom , the camera is configured to take an image at each time when the camera moving device stops the move of the camera , and the camera moving device is configured to move the camera to a position and a direction in which the camera takes an image of an inside of the door pocket from above. a main body having a storeroom for storing a food item; a plurality of shelf plates arranged in the storeroom , the shelf plates configured to be put a food item on; a door configured to open and close a side of the storeroom ; a camera arranged on an inner surface of the door , the camera begin configured to take an image of an inside of the storeroom ; a door pocket provided on an inside of the door , wherein a camera moving device is configured to move the camera in a vertical direction, characterized in that the camera moving device is configured to stop the camera at two or more positions for each of between the shelf plates lain next to each other, and between an inner surface of a top edge of the storeroom and the shelf plate lain next to the inner surface of the top edge of the storeroom , the camera is configured to take an image at each time when the camera moving device stops the move of the camera , and the camera moving device is configured to move the camera to a position and a direction in which the camera takes an image of an inside of the door pocket from above.
A 3D printed prosthetic socket for a residual limb consisting of a 3D printed shell comprising a distal end adapted for linking an interconnecting adapter of the socket and a proximal end with an opening adapted for inserting the limb, wherein the shell comprises a first housing of the socket comprising an inner wall and a second housing comprising an outer wall of the prosthetic socket , wherein the second housing is located outside of the first housing and the first housing and the second housing are connected at the distal end of the prosthetic socket and at the proximal end of the prosthetic socket , characterised in that there is an air gap between the first housing and second housing , and the first housing and the second housing are made of single 3D printed part, wherein the first housing comprises an elastic region comprising set of shaped openings , and the first housing is connected with the second housing through a reinforcing structure composed of ribs .
An intraocular lens configured to suppress deterioration in contrast when an optical axis of the intraocular lens inserted into an eye is decentred from an optical axis of an eyeball, the intraocular lens comprising: a reference power distribution (Ma, Mb) is set to cancel, but may not perfectly cancel, a spherical aberration of cornea when the intraocular lens is inserted into the eye, characterized by at least one positive power deviation region (E1) having a larger power than that represented by the reference power distribution (Ma, Mb) in a region in the vicinity of the center (O) of the intraocular lens, and at least one negative power deviation region (E2) having a smaller power than that represented by the reference power distribution (Ma, Mb) in the region in the vicinity of the center (O) of the intraocular lens, wherein either the positive power deviation region (E1) is a circular region centered around the optical axis and the negative power deviation region (E2) is an annular region centered around the optical axis, or the negative power deviation region (E2) is a circular region centered around the optical axis and the positive power deviation region (E1) is an annular region centered around the optical axis. a reference power distribution (Ma, Mb) is set to cancel, but may not perfectly cancel, a spherical aberration of cornea when the intraocular lens is inserted into the eye, characterized by at least one positive power deviation region (E1) having a larger power than that represented by the reference power distribution (Ma, Mb) in a region in the vicinity of the center (O) of the intraocular lens, and at least one negative power deviation region (E2) having a smaller power than that represented by the reference power distribution (Ma, Mb) in the region in the vicinity of the center (O) of the intraocular lens, wherein either the positive power deviation region (E1) is a circular region centered around the optical axis and the negative power deviation region (E2) is an annular region centered around the optical axis, or the negative power deviation region (E2) is a circular region centered around the optical axis and the positive power deviation region (E1) is an annular region centered around the optical axis.
A lens moving apparatus comprising: a cover member comprising a top plate and a depressed portion formed in a corner of the top plate ; a housing disposed in the cover member and comprising corner portions and an opening ; a bobbin disposed in the housing ; drive magnets disposed at the housing ; a first coil disposed on the bobbin to face the drive magnets ; a base disposed under the housing ; and a second coil including a plurality of coils spaced apart from each other, disposed to face the drive magnets , wherein the housing comprises a stopper protruding an upper surface of the corner portions thereof, and wherein the depressed portion overlaps at least part of the stopper in a direction perpendicular to an optical axis, and wherein the depressed portion comprises: a stepped plate ; and a connecting plate connecting the stepped plate and the top plate of the cover member , and wherein an outer surface of the stopper faces an inner surface of the connecting plate , and wherein the top plate comprises four corners, and the depressed portion is formed at each of the four corners of the top plate , and wherein the stopper is formed at each of the four corners of the housing , and wherein the stopper is configured to serve as a mechanical stopper functioning in diagonal directions by virtue of interaction between the stopper and the connecting plate . a cover member comprising a top plate and a depressed portion formed in a corner of the top plate ; a housing disposed in the cover member and comprising corner portions and an opening ; a bobbin disposed in the housing ; drive magnets disposed at the housing ; a first coil disposed on the bobbin to face the drive magnets ; a base disposed under the housing ; and a second coil including a plurality of coils spaced apart from each other, disposed to face the drive magnets , wherein the housing comprises a stopper protruding an upper surface of the corner portions thereof, and wherein the depressed portion overlaps at least part of the stopper in a direction perpendicular to an optical axis, and wherein the depressed portion comprises: a stepped plate ; and a connecting plate connecting the stepped plate and the top plate of the cover member , and a stepped plate ; and a connecting plate connecting the stepped plate and the top plate of the cover member , and wherein an outer surface of the stopper faces an inner surface of the connecting plate , and wherein the top plate comprises four corners, and the depressed portion is formed at each of the four corners of the top plate , and wherein the stopper is formed at each of the four corners of the housing , and wherein the stopper is configured to serve as a mechanical stopper functioning in diagonal directions by virtue of interaction between the stopper and the connecting plate .
A method for coating metallic surfaces with an acidic aqueous conversion composition which is a solution or dispersion, wherein said composition comprises: a total of 0.01 to 1 g/L of TiF 6 2- , ZrF 6 2- and/or HfF 6 2- in the form of ions, calculated as ZrF 6 2- , 0 or 0.01 to 1 g/L in each case of Fe 2+ , Mn and/or Zn ions, at least one kind of these ions being present in the range from 0.01 to 1 g/L, 0.01 to 2 g/L of organic polymer and/or copolymer based on (meth)acrylate/(meth)acrylic acid and/or vinyl acetate-acrylic copolymer which is stable at a pH < 6.5, based on the solids content, 0 or 0.01 to 2 g/L of particulate SiO 2 with a mean particle diameter < 0.3 μm, based on the solids content, 0 or 0.01 to 10 g/L of at least one surfactant, 0 or 0.05 to 10 g/L of anions selected from the group consisting of carbonate, nitrate and sulfate, calculated by conversion to NO 3 - , even if CO 3 2- or SO 4 2- is present, and 0 or 0.001 to 2 g/L of carboxylate and/or sulfonate anions which have no adverse effect or almost none on coat formation, calculated as the corresponding anions, where the amount of molybdate calculated as MoO 4 2- and/or the amount of P-containing oxyanions calculated as PO 4 3- is in each case < 0.1 g/L or 0 g/L and the acidic aqueous composition has a pH in the range from 2.5 to 6.5, where no content of silane, silanol, siloxane and/or polysiloxane is added deliberately to the aqueous conversion composition. a total of 0.01 to 1 g/L of TiF 6 2- , ZrF 6 2- and/or HfF 6 2- in the form of ions, calculated as ZrF 6 2- , 0 or 0.01 to 1 g/L in each case of Fe 2+ , Mn and/or Zn ions, at least one kind of these ions being present in the range from 0.01 to 1 g/L, 0.01 to 2 g/L of organic polymer and/or copolymer based on (meth)acrylate/(meth)acrylic acid and/or vinyl acetate-acrylic copolymer which is stable at a pH < 6.5, based on the solids content, 0 or 0.01 to 2 g/L of particulate SiO 2 with a mean particle diameter < 0.3 μm, based on the solids content, 0 or 0.01 to 10 g/L of at least one surfactant, 0 or 0.05 to 10 g/L of anions selected from the group consisting of carbonate, nitrate and sulfate, calculated by conversion to NO 3 - , even if CO 3 2- or SO 4 2- is present, and 0 or 0.001 to 2 g/L of carboxylate and/or sulfonate anions which have no adverse effect or almost none on coat formation, calculated as the corresponding anions, where the amount of molybdate calculated as MoO 4 2- and/or the amount of P-containing oxyanions calculated as PO 4 3- is in each case < 0.1 g/L or 0 g/L and the acidic aqueous composition has a pH in the range from 2.5 to 6.5, where no content of silane, silanol, siloxane and/or polysiloxane is added deliberately to the aqueous conversion composition.
Apparatus for performing a medical procedure, comprising: an invasive probe , which is configured to be brought into contact with a heart in a body of a patient and to apply a therapy at multiple tissue sites in the heart with which the probe is brought into contact; means for sensing a location of the probe ; and a processor , which is coupled to the probe and is configured to display a map of the heart and to track the location of the probe relative to the map , to assess a stability of the contact between the probe and the tissue sites while applying the therapy by assessing changes in the location of the probe during application of the therapy, while compensating for variations in a position of the heart due to respiration, and to automatically mark the map , responsively to the assessed stability, to indicate the tissue sites at which the therapy was applied. an invasive probe , which is configured to be brought into contact with a heart in a body of a patient and to apply a therapy at multiple tissue sites in the heart with which the probe is brought into contact; means for sensing a location of the probe ; and a processor , which is coupled to the probe and is configured to display a map of the heart and to track the location of the probe relative to the map , to assess a stability of the contact between the probe and the tissue sites while applying the therapy by assessing changes in the location of the probe during application of the therapy, while compensating for variations in a position of the heart due to respiration, and to automatically mark the map , responsively to the assessed stability, to indicate the tissue sites at which the therapy was applied.
A composition comprising 15-hydroxyeicosapentaenoic acid (15-HEPE) or a pharmaceutically acceptable ester and/or salt thereof for use in treating or preventing a disease in a subject in need thereof, wherein the subject is in a fed state, having had a meal within the preceding 4 hours, wherein the disease is selected from liver disease, arthritis, fibrosis, idiopathic pulmonary fibrosis, impaired insulin sensitivity, psoriasis, cancer, neurodegenerative disorders, inflammatory disorders, adipocyte differentiation, pain and obesity, and wherein the composition is in the form of a tablet, caplet or capsule.
A light emitting diode (LED) display module comprising: a substrate ; a plurality of micro LED devices mounted to a top side of the substrate , each micro LED device having a chip having a size of 10~100μm; an upper circuit pattern formed on the top side of the substrate ; a controller device mounted to the top side or a bottom side of the substrate ; a lower circuit pattern formed on the bottom side of the substrate ; and lateral side wiring electrically connecting the upper circuit pattern and the lower circuit pattern , a connection terminal layer being disposed on a top side and a bottom side of the substrate , respectively, and connecting the upper circuit pattern and the lower circuit pattern through the lateral side wiring , the lateral side wiring comprising a conductive metal thin film layer having a thickness of 2 to 10μm formed by deposition, and the LED display module further comprising a protection layer deposited on the lateral side wiring . a substrate ; a plurality of micro LED devices mounted to a top side of the substrate , each micro LED device having a chip having a size of 10~100μm; an upper circuit pattern formed on the top side of the substrate ; a controller device mounted to the top side or a bottom side of the substrate ; a lower circuit pattern formed on the bottom side of the substrate ; and lateral side wiring electrically connecting the upper circuit pattern and the lower circuit pattern , a connection terminal layer being disposed on a top side and a bottom side of the substrate , respectively, and connecting the upper circuit pattern and the lower circuit pattern through the lateral side wiring , the lateral side wiring comprising a conductive metal thin film layer having a thickness of 2 to 10μm formed by deposition, and the LED display module further comprising a protection layer deposited on the lateral side wiring .
A production method of a nitrile rubber composition, wherein the nitrile rubber composition comprises a highly saturated nitrile rubber (A) containing α,β-ethylenically unsaturated nitrile monomer units in a ratio of 8 to 60 wt% and having an iodine value of 120 or less and an alkylated phenol compound (B); a ratio of content of the alkylated phenol compound (B) with respect to a total of the highly saturated nitrile rubber (A) and the alkylated phenol compound (B) in the nitrile rubber composition is 0.01 to 1 wt%; and the nitrile rubber composition has a difference (η2-η1) between a plasticity number η2 after storage at 70°C for 7 days in a state of an aqueous dispersion by being dispersed in water and a plasticity number η1 before the storage of 12 or less, wherein the production method comprises: a step of copolymerizing the monomers for forming a nitrile rubber by an emulsion polymerization to obtain a latex of the copolymer; a step of mixing the alkylated phenol compound (B) with the obtained latex of the copolymer; a step of hydrogenating the copolymer included in a composition with the alkylated phenol compound (B), so as to convert the copolymer into the highly saturated nitrile rubber (A); a step of coagulating; and a step of drying a step of copolymerizing the monomers for forming a nitrile rubber by an emulsion polymerization to obtain a latex of the copolymer; a step of mixing the alkylated phenol compound (B) with the obtained latex of the copolymer; a step of hydrogenating the copolymer included in a composition with the alkylated phenol compound (B), so as to convert the copolymer into the highly saturated nitrile rubber (A); a step of coagulating; and a step of drying
A gas insulated switchgear comprising: a grounded tank that is filled with an insulating gas; a central conductor that is provided inside the grounded tank and to which a voltage is applied; an insulating support member that is attached to the grounded tank and that supports the central conductor in an insulating manner; and a non-linear resistance part that is provided directly on an inner surface of the grounded tank on a lower side and that has a non-linear resistance material contained in an insulating material , characterized in that the non-linear resistance part contains a larger amount of the non-linear resistance material on a central conductor side than on a grounded tank side. a grounded tank that is filled with an insulating gas; a central conductor that is provided inside the grounded tank and to which a voltage is applied; an insulating support member that is attached to the grounded tank and that supports the central conductor in an insulating manner; and a non-linear resistance part that is provided directly on an inner surface of the grounded tank on a lower side and that has a non-linear resistance material contained in an insulating material , characterized in that the non-linear resistance part contains a larger amount of the non-linear resistance material on a central conductor side than on a grounded tank side.