mhurhangee/patent-ind-claim-en huggingface dataset:
Device for collecting samples from a bed of a waterbody, having a control unit to be positioned in a remote position; a top lift unit , which can be attached to a lifting and lowering unit of a vessel via a cable , such that it can be lifted and lowered relative to said bed of a waterbody; a corer unit , releasable attached to the top lift unit by a fixation unit and arranged for being at least partly driven into layers of the bed of a waterbody to collect the samples from there, when released from the top lift unit ; wherein the top lift unit comprises a positioning unit bi-directionally communicating with the control unit for controlling the position of the corer unit , and the device comprises a depth stabilizer configured to keep the corer unit and top lift unit stable in a vertical direction when they are still attached and to level the top lift unit after the corer unit is released from the top lift unit . a control unit to be positioned in a remote position; a top lift unit , which can be attached to a lifting and lowering unit of a vessel via a cable , such that it can be lifted and lowered relative to said bed of a waterbody; a corer unit , releasable attached to the top lift unit by a fixation unit and arranged for being at least partly driven into layers of the bed of a waterbody to collect the samples from there, when released from the top lift unit ; wherein the top lift unit comprises a positioning unit bi-directionally communicating with the control unit for controlling the position of the corer unit , and the device comprises a depth stabilizer configured to keep the corer unit and top lift unit stable in a vertical direction when they are still attached and to level the top lift unit after the corer unit is released from the top lift unit .
An automated root pass arc welding system comprising: - a welding torch configured to perform a root pass welding operation at a joint between a first workpiece and a second workpiece ; and - control circuitry configured to - apply a high energy welding phase via the welding torch to establish a first root condition; and - apply a low energy welding phase via the welding torch to establish a second root condition, characterized by a welding robot configured to move the welding torch relative to the first workpiece ; the control circuitry controlling movement of the welding robot relative to the first workpiece ; the automated root pass welding system further comprising a sensor configured to sense one or more parameters indicative of the first and second root conditions, wherein the sensor outputs a root condition signal to the control circuitry , wherein the control circuitry is configured to determine establishment of the first and second root conditions based at least in part upon the root condition signal received from the sensor , wherein the first root condition is creation of a keyhole between the first and second workpieces . - a welding torch configured to perform a root pass welding operation at a joint between a first workpiece and a second workpiece ; and - control circuitry configured to - apply a high energy welding phase via the welding torch to establish a first root condition; and - apply a low energy welding phase via the welding torch to establish a second root condition, - apply a high energy welding phase via the welding torch to establish a first root condition; and - apply a low energy welding phase via the welding torch to establish a second root condition, a welding robot configured to move the welding torch relative to the first workpiece ; the control circuitry controlling movement of the welding robot relative to the first workpiece ; the automated root pass welding system further comprising a sensor configured to sense one or more parameters indicative of the first and second root conditions, wherein the sensor outputs a root condition signal to the control circuitry , wherein the control circuitry is configured to determine establishment of the first and second root conditions based at least in part upon the root condition signal received from the sensor , wherein the first root condition is creation of a keyhole between the first and second workpieces .
A process, comprising the steps of: providing CO and H2; providing a first catalyst which is an organometallic complex of rhodium and one type of an organophosphorus ligand or an organometallic complex of rhodium and more than one type of an organophosphorus ligand; providing a linear alpha olefin; isomerizing said linear alpha olefin by said first catalyst in the presence of CO and H2 at a first pressure to produce an isomerized olefin; and hydroformylating said isomerized olefin by said first catalyst in the presence of CO and H2 at a second pressure higher than said first pressure to produce a branched aldehyde. providing CO and H2; providing a first catalyst which is an organometallic complex of rhodium and one type of an organophosphorus ligand or an organometallic complex of rhodium and more than one type of an organophosphorus ligand; providing a linear alpha olefin; isomerizing said linear alpha olefin by said first catalyst in the presence of CO and H2 at a first pressure to produce an isomerized olefin; and hydroformylating said isomerized olefin by said first catalyst in the presence of CO and H2 at a second pressure higher than said first pressure to produce a branched aldehyde.
A method performed by a server for implementing a 3D map database , the method comprising: receiving one or more keyframes and associated metadata from a client ; storing the received one or more keyframes in the 3D map database ; tagging the received one or more keyframes in the 3D map database according to the received metadata; searching the 3D map database for 3D maps to stitch with the one or more keyframes and the associated metadata; stitching, according to the results of the search for 3D maps to stitch and a stitching processing schedule of the server , the one or more keyframes with one or more keyframes or 3D maps in the 3D map database , wherein the stitching is based on a background maintenance process independent from pending client requests; and storing the result of stitching the one or more keyframes as a 3D map tagged with at least some of the associated metadata; receiving a client request for map data; searching the 3D map database for map data according to the client request; providing , in response to the searching, a resulting map data to the client requesting the map data, wherein the map data provides a fixed 3D map anchor point to enable synchronizing of the reference coordinate systems between multiple client maps. receiving one or more keyframes and associated metadata from a client ; storing the received one or more keyframes in the 3D map database ; tagging the received one or more keyframes in the 3D map database according to the received metadata; searching the 3D map database for 3D maps to stitch with the one or more keyframes and the associated metadata; stitching, according to the results of the search for 3D maps to stitch and a stitching processing schedule of the server , the one or more keyframes with one or more keyframes or 3D maps in the 3D map database , wherein the stitching is based on a background maintenance process independent from pending client requests; and storing the result of stitching the one or more keyframes as a 3D map tagged with at least some of the associated metadata; receiving a client request for map data; searching the 3D map database for map data according to the client request; providing , in response to the searching, a resulting map data to the client requesting the map data, wherein the map data provides a fixed 3D map anchor point to enable synchronizing of the reference coordinate systems between multiple client maps.
Use - of an alkyltrichlorosilane of the following formula I R-SiCl 3 (formula I), wherein R represents an alkyl group, Si represents a silicon atom and Cl represents a chlorine atom, for the removal of microplastic particles from water and/or a body of water. - of an alkyltrichlorosilane of the following formula I R-SiCl 3 (formula I), wherein R represents an alkyl group, Si represents a silicon atom and Cl represents a chlorine atom,
A coated article comprising: a cushioning element having an externally-facing side comprising a first polymeric material; and a cured coating disposed on the first polymeric material of the externally-facing side, wherein the cured coating 32) includes a plurality of pigment particles entrapped in a matrix of crosslinked polyurethanes, and wherein the cured coating is a product of crosslinking a coating composition comprising uncrosslinked polyurethane polymers and a plurality of pigment particles. a cushioning element having an externally-facing side comprising a first polymeric material; and a cured coating disposed on the first polymeric material of the externally-facing side, wherein the cured coating 32) includes a plurality of pigment particles entrapped in a matrix of crosslinked polyurethanes, and wherein the cured coating is a product of crosslinking a coating composition comprising uncrosslinked polyurethane polymers and a plurality of pigment particles.
A rotor of rotating electric machine, comprising: a rotor core fixed to an output shaft ; a plurality of magnets arranged on an outer circumference of the rotor core along a circumferential direction of the output shaft ; and a plurality of magnet holders each having an arm portion extending along an axial direction of the output shaft and a base portion retaining the arm portion , wherein the base portion has a press-fit pin press-fitted into a press-fit hole provided at an end surface of the rotor core , the arm portion has a holder rib which protrudes inward in a radial direction of the output shaft and of which one end surface in the circumferential direction serves as a pressing surface , and a protrusion inserted into an insertion groove provided at an outer circumferential surface of the rotor core , and the magnets are located between the rotor core and the magnet holders , one end surface in the circumferential direction of each magnet contacts with the pressing surface , and another end surface in the circumferential direction of each magnet contacts with a core rib protruding from the rotor core . a rotor core fixed to an output shaft ; a plurality of magnets arranged on an outer circumference of the rotor core along a circumferential direction of the output shaft ; and a plurality of magnet holders each having an arm portion extending along an axial direction of the output shaft and a base portion retaining the arm portion , wherein the base portion has a press-fit pin press-fitted into a press-fit hole provided at an end surface of the rotor core , the arm portion has a holder rib which protrudes inward in a radial direction of the output shaft and of which one end surface in the circumferential direction serves as a pressing surface , and a protrusion inserted into an insertion groove provided at an outer circumferential surface of the rotor core , and the magnets are located between the rotor core and the magnet holders , one end surface in the circumferential direction of each magnet contacts with the pressing surface , and another end surface in the circumferential direction of each magnet contacts with a core rib protruding from the rotor core .
A cosmetic comprising: (A) spherical organopolysiloxane particles which are at least 90 mol% composed of organosilsesquioxane units and have a volume mean particle size of from 0.1 to 30 μm and an average refractive index of from 1.44 to 1.57, (B) an oil, and one, two or more substance selected from (C) crosslinked silicones and (D) silicone-resin-coated silicone rubber powders. (A) spherical organopolysiloxane particles which are at least 90 mol% composed of organosilsesquioxane units and have a volume mean particle size of from 0.1 to 30 μm and an average refractive index of from 1.44 to 1.57, (B) an oil, and
A lithium electrode comprising: a lithium metal layer; and an acrylic polymer layer formed on at least one surface of the lithium metal layer, wherein the acrylic polymer layer comprises an acrylic polymer and an acid releasing agent, and wherein the acid releasing agent is a fatty acid. a lithium metal layer; and an acrylic polymer layer formed on at least one surface of the lithium metal layer, wherein the acrylic polymer layer comprises an acrylic polymer and an acid releasing agent, and wherein the acid releasing agent is a fatty acid.
Method for producing a gas turbine component , which in the intended mounted state comes in frictional contact with at least one friction partner during the gas turbine operation, the method comprising the steps: - providing a base body which is produced from a superalloy, in particular from a nickel-based alloy; - applying a first metal coating onto a surface of the base body , which surface faces toward the at least one friction partner in the intended mounted state, an additive manufacturing method using a first metal powder being employed for the application; and - applying a second metal coating onto the first metal coating , an additive manufacturing method using a second metal powder and a pore-forming agent in powder form being employed for the application, and the porosity of the second metal coating being adjusted by the addition of the pore-forming agent in such a way that it is greater than the porosity of the first metal coating , and the volume flow rates of the supplied metal powder and the supplied pore-forming agent in powder form being adjusted or regulated separately. - providing a base body which is produced from a superalloy, in particular from a nickel-based alloy; - applying a first metal coating onto a surface of the base body , which surface faces toward the at least one friction partner in the intended mounted state, an additive manufacturing method using a first metal powder being employed for the application; and - applying a second metal coating onto the first metal coating , an additive manufacturing method using a second metal powder and a pore-forming agent in powder form being employed for the application, and the porosity of the second metal coating being adjusted by the addition of the pore-forming agent in such a way that it is greater than the porosity of the first metal coating , and the volume flow rates of the supplied metal powder and the supplied pore-forming agent in powder form being adjusted or regulated separately.
Use of a catalyst comprising titanium oxide granules having copper oxide supported thereon and containing titanium oxide as an active component, wherein the catalyst has the following characteristics: the granules each have a substantially spherical shape; wherein an angle at which a granule first starts sliding is from 0.5° to 15.0° and an angle at which all the granules finish sliding is from 2.0° to 30.0°; granules each having a particle diameter of from 0.2 mm to 1.6 mm account for 70% or more of all the granules; an amount of copper oxide to be supported is from 0.1 wt% to 10.0 wt% in terms of copper oxide for decomposing plastic waste, such as for decomposing thermoplastic or thermosetting plastic compositions, or for decomposing silicone oil compositions. the granules each have a substantially spherical shape; wherein an angle at which a granule first starts sliding is from 0.5° to 15.0° and an angle at which all the granules finish sliding is from 2.0° to 30.0°; granules each having a particle diameter of from 0.2 mm to 1.6 mm account for 70% or more of all the granules; an amount of copper oxide to be supported is from 0.1 wt% to 10.0 wt% in terms of copper oxide for decomposing plastic waste, such as for decomposing thermoplastic or thermosetting plastic compositions, or for decomposing silicone oil compositions.
A differential test probe tip comprising: a socket of electrically conductive material at a proximate end of the probe tip , the socket including a concavity to receive a signal pin; a reference body of conductive material adjacent to the socket ; and an insulating spacer element of non-conductive material surrounding the reference body at the proximate end of the probe tip , the insulating spacer element including: a signal port to receive the signal pin into the socket , and a reference port to receive a reference pin and maintain the reference pin in electrical communication with a proximate end of the reference body ; characterised in that the insulating spacer element is shaped to accept the signal pin and the reference pin into the test probe tip while a proximate wall of the insulating spacer element abuts a Device Under Test, DUT, surface, and to isolate the signal pin from an electrical field from an adjacent DUT pin. a socket of electrically conductive material at a proximate end of the probe tip , the socket including a concavity to receive a signal pin; a reference body of conductive material adjacent to the socket ; and an insulating spacer element of non-conductive material surrounding the reference body at the proximate end of the probe tip , the insulating spacer element including: a signal port to receive the signal pin into the socket , and a reference port to receive a reference pin and maintain the reference pin in electrical communication with a proximate end of the reference body ; characterised in that the insulating spacer element is shaped to accept the signal pin and the reference pin into the test probe tip while a proximate wall of the insulating spacer element abuts a Device Under Test, DUT, surface, and to isolate the signal pin from an electrical field from an adjacent DUT pin. a signal port to receive the signal pin into the socket , and a reference port to receive a reference pin and maintain the reference pin in electrical communication with a proximate end of the reference body ; characterised in that the insulating spacer element is shaped to accept the signal pin and the reference pin into the test probe tip while a proximate wall of the insulating spacer element abuts a Device Under Test, DUT, surface, and to isolate the signal pin from an electrical field from an adjacent DUT pin.
Installation for forming workpieces, in particular for forming sheet-metal body panels, having - a first magnetic forming device which comprises at least one first forming tool and at least one first magnetic tool ; and - a second magnetic forming device which comprises at least one second forming tool and at least one second magnetic tool ; - wherein the first magnetic forming device is configured to form a workpiece in a first magnetic forming process; - wherein the second magnetic forming device , subsequent to the first magnetic forming process, is configured to further form the workpiece in a second magnetic forming process; - wherein the installation has a changeover device for changing over the magnetic tools ; and - wherein the installation has a changeover device for displacing and/or for rotating and/or for pivoting the first and/or the second forming tool . - a first magnetic forming device which comprises at least one first forming tool and at least one first magnetic tool ; and - a second magnetic forming device which comprises at least one second forming tool and at least one second magnetic tool ; - wherein the first magnetic forming device is configured to form a workpiece in a first magnetic forming process; - wherein the second magnetic forming device , subsequent to the first magnetic forming process, is configured to further form the workpiece in a second magnetic forming process; - wherein the installation has a changeover device for changing over the magnetic tools ; and - wherein the installation has a changeover device for displacing and/or for rotating and/or for pivoting the first and/or the second forming tool .
A vehicle battery pack comprising: a battery case in which a battery module is built; a first electrical component configured to convert electric power from the battery module ; a second electrical component configured to electrically connect the battery module to the first electrical component ; and a housing configured to house the battery case , the first electrical component , and the second electrical component , characterized in that the first electrical component and the second electrical component are arranged side by side on a vehicle front side and a vehicle rear side in a space formed on a lateral side of the battery case in the housing in a vehicle width direction, and are electrically connected to each other via a conductive member , the first electrical component includes a first connection portion to which one end portion of the conductive member is connected, the second electrical component includes a second connection portion to which the other end portion of the conductive member is connected, the first connection portion and the second connection portion are arranged such that height positions of the first connection portion and the second connection portion are different, the conductive member includes an inclined portion inclined to be higher from the second connection portion toward the first connection portion , and an interval is provided between the first electrical component and the second electrical component . a battery case in which a battery module is built; a first electrical component configured to convert electric power from the battery module ; a second electrical component configured to electrically connect the battery module to the first electrical component ; and a housing configured to house the battery case , the first electrical component , and the second electrical component , the first electrical component and the second electrical component are arranged side by side on a vehicle front side and a vehicle rear side in a space formed on a lateral side of the battery case in the housing in a vehicle width direction, and are electrically connected to each other via a conductive member , the first electrical component includes a first connection portion to which one end portion of the conductive member is connected, the second electrical component includes a second connection portion to which the other end portion of the conductive member is connected, the first connection portion and the second connection portion are arranged such that height positions of the first connection portion and the second connection portion are different, the conductive member includes an inclined portion inclined to be higher from the second connection portion toward the first connection portion , and an interval is provided between the first electrical component and the second electrical component .