mhurhangee/patent-ind-claim-en huggingface dataset:
An oil-in-water emulsion composition comprising: (A) 0.1 to 5 % by mass of a polyether-modified silicone having an HLB (Si) of 5 to 14; (B) one or more hydrophilic thickeners; (C) a metal oxide hydrophobically treated by one or more compounds selected from the group consisting of methylhydrogen polysiloxane, dimethylpolysiloxane, methylphenylpolysiloxane, methyltriethoxysilane, ethyltriethoxysilane, hexyltriethoxysilane, octyltriethoxysilane, trifluoromethylethyl trimethoxysilane, heptadecafluorodecyl trimethoxysilane, and dextrin palmitate, without using a metal soap; (D) a non-volatile oil other than a silicone oil; wherein when a silicone oil is blended in the oil-in-water emulsion composition, the total blended amount is limited to 3 % by mass or less, wherein the (C) hydrophobically treated metal oxide is present in the internal phase. (A) 0.1 to 5 % by mass of a polyether-modified silicone having an HLB (Si) of 5 to 14; (B) one or more hydrophilic thickeners; (C) a metal oxide hydrophobically treated by one or more compounds selected from the group consisting of methylhydrogen polysiloxane, dimethylpolysiloxane, methylphenylpolysiloxane, methyltriethoxysilane, ethyltriethoxysilane, hexyltriethoxysilane, octyltriethoxysilane, trifluoromethylethyl trimethoxysilane, heptadecafluorodecyl trimethoxysilane, and dextrin palmitate, without using a metal soap; (D) a non-volatile oil other than a silicone oil; wherein when a silicone oil is blended in the oil-in-water emulsion composition, the total blended amount is limited to 3 % by mass or less, wherein the (C) hydrophobically treated metal oxide is present in the internal phase. wherein when a silicone oil is blended in the oil-in-water emulsion composition, the total blended amount is limited to 3 % by mass or less, wherein the (C) hydrophobically treated metal oxide is present in the internal phase.
A method of producing or machining a toothing on a workpiece , wherein the workpiece, which is rotationally driven around its axis of rotation (C), is brought into rolling machining engagement with a tool toothing rotating around an axis of rotation (C2) which in particular is at a non-null crossed-axes angle (Σ) to the axis of rotation of the workpiece, and wherein the machining engagement is automatically monitored through a capture thereof using sensors which is already taking place during the machining engagement, characterised in that the monitoring includes monitoring of periodicities on time scales which are greater than the product of the number of teeth (Z) and the rotational speed (n) of the workpiece for a recurring irregularity originating from tool wear of at least one tool tooth , which is greater than that of other tool teeth.
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 system for calibration of a robot, the system comprising: a medical imaging system comprising a detector ; two or more cameras , the two or more cameras being mounted on the detector ; and a registration device configured to align positions of a light spot or pattern on a reference platform as detected by the two or more cameras with robot positions corresponding with the light spot or pattern positions to register an imaging system coordinate system of the medical imaging system with a robot coordinate system . a medical imaging system comprising a detector ; two or more cameras , the two or more cameras being mounted on the detector ; and a registration device configured to align positions of a light spot or pattern on a reference platform as detected by the two or more cameras with robot positions corresponding with the light spot or pattern positions to register an imaging system coordinate system of the medical imaging system with a robot coordinate system .
An exhaust system for a compression ignition engine comprising an oxidation catalyst for treating an exhaust gas from the compression ignition engine and an emissions control device, wherein the emissions control device is separate to the oxidation catalyst and the oxidation catalyst is upstream of the emissions control device, wherein the oxidation catalyst comprises: a first washcoat region comprising platinum (Pt) and a first support material, wherein either (i) the platinum is the only platinum group metal (PGM) in the first washcoat region or (ii) the first washcoat region further comprises palladium (Pd), and the first washcoat region has a ratio by mass of platinum (Pt) to palladium (Pd) of > 4:1; and wherein the first washcoat region does not comprise a hydrocarbon adsorbent, which is a zeolite; a second washcoat region comprising platinum (Pt), palladium (Pd), a second support material, and a hydrocarbon adsorbent, which is a zeolite, wherein the second washcoat region has a ratio by mass of platinum (Pt) to palladium (Pd) of 4:1 to 1:1; and a substrate; and wherein the first washcoat region is a first washcoat zone disposed directly on to the substrate at an inlet end of the substrate, and the second washcoat region is a second washcoat zone disposed directly on to substrate and downstream of the first washcoat zone, such that the first washcoat region is arranged on the substrate to contact inlet exhaust gas before the second washcoat region comprising the hydrocarbon adsorbent. a first washcoat region comprising platinum (Pt) and a first support material, wherein either (i) the platinum is the only platinum group metal (PGM) in the first washcoat region or (ii) the first washcoat region further comprises palladium (Pd), and the first washcoat region has a ratio by mass of platinum (Pt) to palladium (Pd) of > 4:1; and wherein the first washcoat region does not comprise a hydrocarbon adsorbent, which is a zeolite; a second washcoat region comprising platinum (Pt), palladium (Pd), a second support material, and a hydrocarbon adsorbent, which is a zeolite, wherein the second washcoat region has a ratio by mass of platinum (Pt) to palladium (Pd) of 4:1 to 1:1; and a substrate; and wherein the first washcoat region is a first washcoat zone disposed directly on to the substrate at an inlet end of the substrate, and the second washcoat region is a second washcoat zone disposed directly on to substrate and downstream of the first washcoat zone, such that the first washcoat region is arranged on the substrate to contact inlet exhaust gas before the second washcoat region comprising the hydrocarbon adsorbent.
A method for processing a transmission path fault, comprising: Receiving (S201), by a first network device, a first packet sent by a second network device, wherein the second network device is a previous-hop network device of the first network device on a primary path; Determining (S202), by the first network device when determining that a third network device is faulty, a difference between an initial value of a segment routing global block SRGB of the first network device and an initial value of an SRGB of the third network device, wherein the third network device is a next-hop network device of the first network device on the primary path; Obtaining (S203), by the first network device, a first label from the first packet, wherein the first label is determined based on the initial value of the SRGB of the third network device and a node segment identifier of a fourth network device, and the fourth network device is a next-hop network device of the third network device on the primary path; Using (S204), by the first network device, a sum value of the first label and the difference as an incoming label of a backup path from the first network device to the fourth network device, and determining, from a backup forwarding table, an outgoing label of the backup path from the first network device to the fourth network device; and Sending (S205), by the first network device, the first packet to a next-hop network device of the first network device on the backup path based on the outgoing label. Receiving (S201), by a first network device, a first packet sent by a second network device, wherein the second network device is a previous-hop network device of the first network device on a primary path; Determining (S202), by the first network device when determining that a third network device is faulty, a difference between an initial value of a segment routing global block SRGB of the first network device and an initial value of an SRGB of the third network device, wherein the third network device is a next-hop network device of the first network device on the primary path; Obtaining (S203), by the first network device, a first label from the first packet, wherein the first label is determined based on the initial value of the SRGB of the third network device and a node segment identifier of a fourth network device, and the fourth network device is a next-hop network device of the third network device on the primary path; Using (S204), by the first network device, a sum value of the first label and the difference as an incoming label of a backup path from the first network device to the fourth network device, and determining, from a backup forwarding table, an outgoing label of the backup path from the first network device to the fourth network device; and Sending (S205), by the first network device, the first packet to a next-hop network device of the first network device on the backup path based on the outgoing label.
Household appliance , having - a treatment chamber , which has a loading opening , and - a door for closing the loading opening , which has at least one window (6; 26), wherein - the window (6; 26) is a household appliance window (6; 26) which is illuminated at the edge and has at least one light-scattering light output region (11, 18, 19; 25), characterised in that - the at least one light-scattering light output region is an engraved region and - the window (6; 26) has at least one inwardly reflecting coating on a side facing away from the treatment chamber , said coating covering at least the at least one light output region (11, 18, 19; 25). - a treatment chamber , which has a loading opening , and - a door for closing the loading opening , which has at least one window (6; 26), wherein - the window (6; 26) is a household appliance window (6; 26) which is illuminated at the edge and has at least one light-scattering light output region (11, 18, 19; 25), - the at least one light-scattering light output region is an engraved region and - the window (6; 26) has at least one inwardly reflecting coating on a side facing away from the treatment chamber , said coating covering at least the at least one light output region (11, 18, 19; 25).
An automatic machine for grinding the edges of the perimeter of rectangular or nonrectangular contoured glass sheets that are substantially planar and arranged vertically or slightly inclined with respect to the vertical, comprising a machine body and at least ons pair of working heads , the machine body being provided with a pseudovertical resting and sliding surface, preceded by a corresponding upstream pseudovertical resting and sliding surface and followed by a corresponding downstream pseudovertical resting and sliding surface and with corresponding motorized support and conveyance rollers or belts , arranged below respective pseudovertical resting and sliding surfaces and actuating a synchronous axis X0 for the conveyance of the lower portion of said glass sheet and of said at least one pair of working heads , which can move with respect to said glass sheet along its perimeter with a synchronous feeding motion and provided with a synchronous rotary motion (θ5, θ6), each one of said pair of working heads being movable on corresponding vertical carriages provided with a synchronous vertical translational motion along the vertical axes (Y3, Y4) and comprising a fixed body and a rotating body , each fixed and rotating body ending with a working head which comprises a tool of the type with a rigid grinding wheel which has a circular shape in rotation with a cutting motion in order to perform said grinding, adjustable with an adjustment motion along the axes (Z7, Z8), which are perpendicular to the plane of said glass sheet , characterized in that through said machine body and said motorized support and conveyance rollers or belts and said input conveyor and said motorized support and conveyance rollers or belts and said output conveyor and said motorized support and conveyance rollers or belts , or part thereof, at least two conveyance means for said glass sheets , a lower one and an upper one , which actuate respectively the synchronous motions about axes (X1, X2), engage and convey said glass sheets , said glass sheets being interfaced alternately, the odd sheets with said lower conveyance means and the even sheets with said upper conveyance means .
A vacuum pump comprising: a rotor; and a stator; an inlet for receiving gas during operation; and an exhaust for exhausting said gas; a conduit defining an axial passage extending through said pump from an opening in a base of said pump to an opening axially beyond said pump inlet, said rotor and said stator extending around said conduit , characterised in that a plate is configured to obscure said inlet by a controllable amount and thereby control an inlet conductance of said pump ; a shaft for mounting said plate is hollow and extends around said passage; said plate comprises a hole in a central portion through which said conduit extends. a rotor; and a stator; an inlet for receiving gas during operation; and an exhaust for exhausting said gas; a conduit defining an axial passage extending through said pump from an opening in a base of said pump to an opening axially beyond said pump inlet, said rotor and said stator extending around said conduit , characterised in that a plate is configured to obscure said inlet by a controllable amount and thereby control an inlet conductance of said pump ; a shaft for mounting said plate is hollow and extends around said passage; said plate comprises a hole in a central portion through which said conduit extends.
A method for producing a dental restoration , comprising the steps of: - rendering (S101) a first digital tooth model (200-1) with a first material combination to generate a first actual data set (DS-I-1) representing the optical properties of the first digital tooth model (200-1); - determining (S102) a first deviation (ΔE1 S,I ) between a target data set (DS-S) and the first actual data set (DS-I-1) ; - rendering (S103) a second digital tooth model (200-2) with a second material combination to generate a second actual data set (DS-I-2) representing the optical properties of the second digital tooth model (200-2); - determining (S104) a second deviation (ΔE2 S,I ) between the target data set (DS-S) and the second actual data set (DS-I-2); and characterized by the further step of: - producing (S105) the dental restoration based on the first digital tooth model (200-1) if the first deviation (ΔE1 S,I ) is smaller than the second deviation (ΔE2 S,I ), and producing the dental restoration based on the second digital tooth model (200-2) if the second deviation (ΔE2 S,I ) is smaller than the first deviation (ΔE1 S,I ). - rendering (S101) a first digital tooth model (200-1) with a first material combination to generate a first actual data set (DS-I-1) representing the optical properties of the first digital tooth model (200-1); - determining (S102) a first deviation (ΔE1 S,I ) between a target data set (DS-S) and the first actual data set (DS-I-1) ; - rendering (S103) a second digital tooth model (200-2) with a second material combination to generate a second actual data set (DS-I-2) representing the optical properties of the second digital tooth model (200-2); - determining (S104) a second deviation (ΔE2 S,I ) between the target data set (DS-S) and the second actual data set (DS-I-2); and characterized by the further step of: - producing (S105) the dental restoration based on the first digital tooth model (200-1) if the first deviation (ΔE1 S,I ) is smaller than the second deviation (ΔE2 S,I ), and producing the dental restoration based on the second digital tooth model (200-2) if the second deviation (ΔE2 S,I ) is smaller than the first deviation (ΔE1 S,I ).
A method of producing a composite image by an electronic device , the method comprising: receiving , by the electronic device, visible image data and near infrared, NIR, image data from a composite sensor ; identifying , by the electronic device, any portions of the NIR image data having a level of detail greater than or equal to a threshold; if, in the identifying step, at least one portion of the NIR image data having a level of detail greater than or equal to a threshold is identified, generating , by the electronic device, the composite image with the visible image data and the identified portions of the NIR image data; and storing , by the electronic device, the composite image in a memory ; otherwise, outputting the visible image as the composite image. receiving , by the electronic device, visible image data and near infrared, NIR, image data from a composite sensor ; identifying , by the electronic device, any portions of the NIR image data having a level of detail greater than or equal to a threshold; if, in the identifying step, at least one portion of the NIR image data having a level of detail greater than or equal to a threshold is identified, generating , by the electronic device, the composite image with the visible image data and the identified portions of the NIR image data; and storing , by the electronic device, the composite image in a memory ; otherwise, outputting the visible image as the composite image.
A furnace stave comprising a plurality of internal channels or conduits for circulating cooling fluid through the stave; an inlet and an outlet channel associated with each internal channel or conduit; wherein one of the internal channels or conduits is disposed in a protrusion from the stave; wherein the protrusion is located at the top of the stave.
A method of controlling gas turbine engine debris monitoring sensors comprising: detecting debris carried by air moving through an engine (10;10') using at least first and second debris sensors (50;50a,54; 54a) that are at different axial locations within the engine and characterised by : processing signals from both the first and second debris sensors (50;50a,54;54a) using a common signal conditioning unit .
An electrical device having a housing part and a cover part , wherein the cover part is connected to the housing part , in particular wherein the cover part covers an opening of the housing part , wherein a first printed circuit board is connected to the cover part , wherein the first printed circuit board is arranged at the inner side of the cover part, wherein at least one component part producing heat is pressed towards the cover part by an elastically pre-stressed sheet-metal part , wherein the heat-producing component part is electrically connected to conducting tracks of the first printed circuit board , wherein the sheet-metal part is held in a manner elastically pre-stressed towards the cover part by screw parts screwed into tapped holes of the cover part , wherein the first printed circuit board is electrically connected to the second printed circuit board by at least partial plugging into a plug-and-socket connector part arranged on a second printed circuit board , wherein the second printed circuit board is arranged in the housing part and is connected thereto.
A method of eddy current testing for flaws in a tube, comprising: passing an eddy current probe through the tube and obtaining eddy current data on a number of channels for a first number of positions along the tube ; analyzing the eddy current data on the number of channels to generate background noise data for a second number of positions along the tube , the background noise data comprising a plurality of noise data values wherein each of the noise data values is associated with a respective one of the second number of positions; comparing each piece of eddy current data on the number of channels to a respective extraction threshold value, wherein the extraction threshold value is a predetermined value above the background noise data that corresponds to the piece of eddy current data that is being examined; generating extracted data, wherein the extracted data corresponds to the pieces of eddy current data that exceed the respective extraction threshold values; and determining whether a flaw of a particular category is present in the tube based on a set of one or more of rules applied to at least a portion of the extracted data, wherein at least one of the rules uses a particular part of the extracted data and employs a minimum threshold that is a function of the background noise data that is associated with the particular part of the extracted data. passing an eddy current probe through the tube and obtaining eddy current data on a number of channels for a first number of positions along the tube ; analyzing the eddy current data on the number of channels to generate background noise data for a second number of positions along the tube , the background noise data comprising a plurality of noise data values wherein each of the noise data values is associated with a respective one of the second number of positions; comparing each piece of eddy current data on the number of channels to a respective extraction threshold value, wherein the extraction threshold value is a predetermined value above the background noise data that corresponds to the piece of eddy current data that is being examined; generating extracted data, wherein the extracted data corresponds to the pieces of eddy current data that exceed the respective extraction threshold values; and determining whether a flaw of a particular category is present in the tube based on a set of one or more of rules applied to at least a portion of the extracted data, wherein at least one of the rules uses a particular part of the extracted data and employs a minimum threshold that is a function of the background noise data that is associated with the particular part of the extracted data.