mhurhangee/patent-ind-claim-en huggingface dataset:
Coordinate measuring machine comprising: • a Delta Robot as a support structure having an end effector maximally movable within a motion zone, • a tool-holder fixed to the end effector configured to accommodate a camera , • a control unit controlling the motion of the end effector with the tool-holder and the camera within the motion zone and over a possible target object , • an analysing unit for processing images taken by said camera , the analysing unit comprising storage means for storing said images and comprising a circuit unit for processing said images, characterized in that • the camera comprises an optics having a field of view encompassing maximum 20% of the motion zone which means that, if the end effector is at a boundary position of the motion zone and the camera fixed at the end effector takes a view through the motion zone to the boundary at the most outranged other side of the motion zone, the field of view of the camera encompasses maximum 20% of a projection of the motion zone onto an image taken from the motion zone by said camera from said perspective, and • the control unit and the camera are configured for an "on the fly"-mode, in the course of which the control unit is configured to move the camera continuously over the target object , and the camera is configured to take pictures only at positions of interest, wherein the pictures are taken without stopping at those positions of interest. • a Delta Robot as a support structure having an end effector maximally movable within a motion zone, • a tool-holder fixed to the end effector configured to accommodate a camera , • a control unit controlling the motion of the end effector with the tool-holder and the camera within the motion zone and over a possible target object , • an analysing unit for processing images taken by said camera , the analysing unit comprising storage means for storing said images and comprising a circuit unit for processing said images, characterized in that • the camera comprises an optics having a field of view encompassing maximum 20% of the motion zone which means that, if the end effector is at a boundary position of the motion zone and the camera fixed at the end effector takes a view through the motion zone to the boundary at the most outranged other side of the motion zone, the field of view of the camera encompasses maximum 20% of a projection of the motion zone onto an image taken from the motion zone by said camera from said perspective, and • the control unit and the camera are configured for an "on the fly"-mode, in the course of which the control unit is configured to move the camera continuously over the target object , and the camera is configured to take pictures only at positions of interest, wherein the pictures are taken without stopping at those positions of interest.
A method of controlling a washing machine having a tub , a drum installed in the tub, a motor to rotate the drum, a water supply device to supply water to the tub, and a detergent supply device to supply detergent to the tub, wherein the washing machine is configured to use an input unit to perform a first washing course for removing smell or mould from laundry, and a second washing course for removing contaminants from laundry, the method comprising performing the first washing course by using a controller to: operate the detergent supply device to supply a smaller amount of detergent than the amount of detergent supplied for the second washing course; operate the water supply device to supply a larger amount of water than the amount of water supplied for the second washing course; and operate the motor at a lower operating rate than the operating rate for the second washing course. operate the detergent supply device to supply a smaller amount of detergent than the amount of detergent supplied for the second washing course; operate the water supply device to supply a larger amount of water than the amount of water supplied for the second washing course; and operate the motor at a lower operating rate than the operating rate for the second washing course.
Recycling method for a deep-hole drill, wherein the method comprises the following steps: (a) providing a deep-hole drill which has symptoms of wear and tear on the drill tip, wherein the deep-hole drill has at least one essentially rectilinear flute with one or several cutting edges and a guide section that is at least partly coated, wherein the coated part defines a guide section, and the guide section comprises a first coating extending over its effective length, starting from the drill tip to an area over which the guide edge is effective with respect to the guidance of the drill tip, wherein additionally a second coating is applied only in an area at the tip of the drill in the cutting region and the region of which extends over an axial length that, at most, corresponds to double the nominal diameter of the drill, wherein the second coating is a coating which is different from the first coating; (b) removing the second coating by means of re-sharpening; (c) in a step subsequent to step (b), coating the deep-hole drill with a further coating, and wherein: - in step (b), a layer-free main functional area of the deep-hole drill is created by re-sharpening, and - in step (c), the layer-free main functional area of the deep-hole drill is coated with the further coating, wherein the further coating is the same as the original second coating. (a) providing a deep-hole drill which has symptoms of wear and tear on the drill tip, wherein the deep-hole drill has at least one essentially rectilinear flute with one or several cutting edges and a guide section that is at least partly coated, wherein the coated part defines a guide section, and the guide section comprises a first coating extending over its effective length, starting from the drill tip to an area over which the guide edge is effective with respect to the guidance of the drill tip, wherein additionally a second coating is applied only in an area at the tip of the drill in the cutting region and the region of which extends over an axial length that, at most, corresponds to double the nominal diameter of the drill, wherein the second coating is a coating which is different from the first coating; (b) removing the second coating by means of re-sharpening; (c) in a step subsequent to step (b), coating the deep-hole drill with a further coating, and wherein: - in step (b), a layer-free main functional area of the deep-hole drill is created by re-sharpening, and - in step (c), the layer-free main functional area of the deep-hole drill is coated with the further coating, wherein the further coating is the same as the original second coating. - in step (b), a layer-free main functional area of the deep-hole drill is created by re-sharpening, and - in step (c), the layer-free main functional area of the deep-hole drill is coated with the further coating, wherein the further coating is the same as the original second coating.
A heat-treated steel material, comprising: a chemical composition represented by, in mass%: C: 0.05% to 0.28%; Mn: 2.0% to 10.0%; Cr: 0.01% to 1.00%; Ti: 0.010% to 0.100%; B: 0.0010% to 0.0100%; Si: 0.08% or less; P: 0.050% or less; S: 0.0500% or less; N: 0.0100% or less; Ni: 0.0% to 2.0%; Cu: 0.0% to 1.0%; Mo: 0.0% to 1.0%; V: 0.0% to 1.0%; Al: 0.00% to 1.00%; Nb: 0.00% to 1.00%; and the balance: Fe and impurities, and a microstructure represented by martensite: 90 volume% or more, wherein an "Expression 1" is satisfied where [C] denotes a C content (mass%) and [Mn] denotes a Mn content (mass%), 4612 × C + 102 × Mn + 605 ≥ 1800 wherein a dislocation density in the martensite is equal to or more than 9.0 × 10 15 m -2 ; and wherein a tensile strength measured based on rules of ASTM standard E8 is 1.800 GPa or more. a chemical composition represented by, in mass%: C: 0.05% to 0.28%; Mn: 2.0% to 10.0%; Cr: 0.01% to 1.00%; Ti: 0.010% to 0.100%; B: 0.0010% to 0.0100%; Si: 0.08% or less; P: 0.050% or less; S: 0.0500% or less; N: 0.0100% or less; Ni: 0.0% to 2.0%; Cu: 0.0% to 1.0%; Mo: 0.0% to 1.0%; V: 0.0% to 1.0%; Al: 0.00% to 1.00%; Nb: 0.00% to 1.00%; and the balance: Fe and impurities, and C: 0.05% to 0.28%; Mn: 2.0% to 10.0%; Cr: 0.01% to 1.00%; Ti: 0.010% to 0.100%; B: 0.0010% to 0.0100%; Si: 0.08% or less; P: 0.050% or less; S: 0.0500% or less; N: 0.0100% or less; Ni: 0.0% to 2.0%; Cu: 0.0% to 1.0%; Mo: 0.0% to 1.0%; V: 0.0% to 1.0%; Al: 0.00% to 1.00%; Nb: 0.00% to 1.00%; and the balance: Fe and impurities, and a microstructure represented by martensite: 90 volume% or more, wherein an "Expression 1" is satisfied where [C] denotes a C content (mass%) and [Mn] denotes a Mn content (mass%), 4612 × C + 102 × Mn + 605 ≥ 1800 wherein a dislocation density in the martensite is equal to or more than 9.0 × 10 15 m -2 ; and wherein a tensile strength measured based on rules of ASTM standard E8 is 1.800 GPa or more.
A method of characterizing glycosylation of a protein or a peptide comprising the steps of: providing a plurality of O-glycosylated proteins and/or peptides; mixing the plurality of O-glycosylated proteins and/or peptides with a plurality of proteases and a digestion buffer, wherein the plurality of proteases cleaves the protein and/or the peptide with serine, threonine, tyrosine or hydroxylysine in an in-solution proteolytic digestion process to produce an O-glycan amino acid complex; and tagging the O-glycan amino acid complex with a tagging reagent to produce a labeled O-glycan amino acid complex; detecting the labeled O-glycan amino acid complex; and characterizing glycosylation of the protein and/or the peptide through a LC, MS or LC/MS analysis through the detection of the labeled O-glycan amino acid complex. providing a plurality of O-glycosylated proteins and/or peptides; mixing the plurality of O-glycosylated proteins and/or peptides with a plurality of proteases and a digestion buffer, wherein the plurality of proteases cleaves the protein and/or the peptide with serine, threonine, tyrosine or hydroxylysine in an in-solution proteolytic digestion process to produce an O-glycan amino acid complex; and tagging the O-glycan amino acid complex with a tagging reagent to produce a labeled O-glycan amino acid complex; detecting the labeled O-glycan amino acid complex; and characterizing glycosylation of the protein and/or the peptide through a LC, MS or LC/MS analysis through the detection of the labeled O-glycan amino acid complex.
An audio unit arrangement configured to be installed in a space (S) of a camera , the space (S) being formed between a camera unit and a removable cover of the camera , the audio unit arrangement comprising an audio unit being configured to be electronically connected to the camera unit , and an audio unit holder being configured to be mechanically connected to the camera unit and having an audio unit container being configured to receive the audio unit , characterized in that the audio unit container is provided with or is configured to receive a spring element , the spring element allowing the audio unit to be pushed into the audio unit container in a first direction (L1) against a resilience of the spring element and thereby resiliently forcing the audio unit in a second direction (L2), opposite the first direction (L1), outward relative to the audio unit container such that, when the audio unit arrangement is installed in the camera and the camera is in an assembled state including the removable cover , the audio unit is forced into abutment against an inside of the removable cover of the camera .
A method, comprising: flowing a material through a conduit while exciting a vibration mode of the conduit using at least a first driver (D1) and a second driver (D2) spaced along the conduit; measuring the relative motion of the vibrating conduit using both the first driver and the second driver; measuring a relative phase of a right eigenvector while exciting the vibration mode of the conduit; determining the material flow through the conduit using the relative phase of a right eigenvector corrected by a zero offset the method further comprising: measuring a relative phase of the left eigenvector for the conduit using the relative motion of the vibrating conduit by using alternately one of the first driver and the second driver; determining a new zero offset without stopping the material flow through the conduit; and determining the material flow through the conduit using the relative phase of a right eigenvector corrected by the new zero offset. flowing a material through a conduit while exciting a vibration mode of the conduit using at least a first driver (D1) and a second driver (D2) spaced along the conduit; measuring the relative motion of the vibrating conduit using both the first driver and the second driver; measuring a relative phase of a right eigenvector while exciting the vibration mode of the conduit; determining the material flow through the conduit using the relative phase of a right eigenvector corrected by a zero offset the method further comprising: measuring a relative phase of the left eigenvector for the conduit using the relative motion of the vibrating conduit by using alternately one of the first driver and the second driver; determining a new zero offset without stopping the material flow through the conduit; and determining the material flow through the conduit using the relative phase of a right eigenvector corrected by the new zero offset. measuring a relative phase of the left eigenvector for the conduit using the relative motion of the vibrating conduit by using alternately one of the first driver and the second driver; determining a new zero offset without stopping the material flow through the conduit; and determining the material flow through the conduit using the relative phase of a right eigenvector corrected by the new zero offset.
An RF interface device to be used with a mobile device, comprising: an RF transceiver configured to receive power wirelessly, a wireless reader configured to interrogate a non-RF-compliant wireless device, the wireless reader further configured to provide power to the wireless device and receive a wireless signal from the wireless device, an output component electrically coupled to the wireless reader and configured to generate an output signal based on the received wireless signal, and an attachment device, wherein the RF transceiver supplies power to the wireless reader, wherein the RF interface device is configured to be attached to the mobile device via the attachment device, wherein the RF transceiver is configured to receive power wirelessly via an RF reader, wherein the RF transceiver is further configured to receive a command from the RF reader, and wherein the wireless reader is configured to initiate an interrogation to the wireless device in response to the command received from the RF reader. an RF transceiver configured to receive power wirelessly, a wireless reader configured to interrogate a non-RF-compliant wireless device, the wireless reader further configured to provide power to the wireless device and receive a wireless signal from the wireless device, an output component electrically coupled to the wireless reader and configured to generate an output signal based on the received wireless signal, and an attachment device, wherein the RF transceiver supplies power to the wireless reader, wherein the RF interface device is configured to be attached to the mobile device via the attachment device, wherein the RF transceiver is configured to receive power wirelessly via an RF reader, wherein the RF transceiver is further configured to receive a command from the RF reader, and wherein the wireless reader is configured to initiate an interrogation to the wireless device in response to the command received from the RF reader.
A method for the extraction and recovery of vanadium from its ores, the method characterised by the steps of: (i) Acid leaching of an ore containing vanadium, titanium and iron to extract vanadium and iron into solution; (ii) Passing the product of the leach step (i) to a solid/liquid separation step; (iii) Passing the liquid product of separation step (ii) to a solvent extraction step in which vanadium and iron are extracted into an organic extractant from that liquid product; (iv) Passing the loaded organic extractant produced in step (iii) to a stripping step in which acid is used to selectively and sequentially strip the vanadium and iron from the organic extractant; and (v) Passing the vanadium containing strip solution of step (iv) to a recovery step, wherein a leach residue cake produced in step (ii) is used as an ilmenite concentrate. (i) Acid leaching of an ore containing vanadium, titanium and iron to extract vanadium and iron into solution; (ii) Passing the product of the leach step (i) to a solid/liquid separation step; (iii) Passing the liquid product of separation step (ii) to a solvent extraction step in which vanadium and iron are extracted into an organic extractant from that liquid product; (iv) Passing the loaded organic extractant produced in step (iii) to a stripping step in which acid is used to selectively and sequentially strip the vanadium and iron from the organic extractant; and (v) Passing the vanadium containing strip solution of step (iv) to a recovery step,
A method for manufacturing a semiconductor diamond substrate comprising: preparing a seed substrate , the seed substrate being a single-crystal semiconductor diamond substrate; forming an ion implanted layer at a depth from a front surface of a main surface of the seed substrate not smaller than 0.05 μm and not greater than 10 μm by implanting ions into the seed substrate, the depth from the front surface of the main surface of the seed substrate being a distance between the main surface of the seed substrate and the center of the ion implanted layer , the center of the ion implanted layer being a position where a concentration of implanted ions is highest; growing a semiconductor layer composed of diamond on the main surface of the seed substrate with a vapor-phase synthesis method; characterised by separating a semiconductor diamond substrate including the semiconductor layer and a part of the seed substrate by irradiating the front surface of the main surface of at least any of the semiconductor layer and the seed substrate with light, wherein the ion implanted layer absorbs light , energy of light vaporizes and expands the implanted ions present in the ion implanted layer , an expansion pressure of the implanted ions pushes and spreads a portion of the ion implanted layer weak in bond between elements of the semiconductor material, and the semiconductor diamond substrate including the semiconductor layer and a part of the seed substrate is separated from a most part of the seed substrate . preparing a seed substrate , the seed substrate being a single-crystal semiconductor diamond substrate; forming an ion implanted layer at a depth from a front surface of a main surface of the seed substrate not smaller than 0.05 μm and not greater than 10 μm by implanting ions into the seed substrate, the depth from the front surface of the main surface of the seed substrate being a distance between the main surface of the seed substrate and the center of the ion implanted layer , the center of the ion implanted layer being a position where a concentration of implanted ions is highest; growing a semiconductor layer composed of diamond on the main surface of the seed substrate with a vapor-phase synthesis method; characterised by separating a semiconductor diamond substrate including the semiconductor layer and a part of the seed substrate by irradiating the front surface of the main surface of at least any of the semiconductor layer and the seed substrate with light, wherein the ion implanted layer absorbs light , energy of light vaporizes and expands the implanted ions present in the ion implanted layer , an expansion pressure of the implanted ions pushes and spreads a portion of the ion implanted layer weak in bond between elements of the semiconductor material, and the semiconductor diamond substrate including the semiconductor layer and a part of the seed substrate is separated from a most part of the seed substrate .
Method of manufacturing a furniture board, in particular a base for a storage furniture, - in which, in a first process step, a core layer with an impregnate arranged on a top side and a bottom side is pressed, whereby a polymer layer is produced from each of the impregnates, and - in which in a second process step, the polymer layers are joined with cover layers by means of an adhesive layer. - in which, in a first process step, a core layer with an impregnate arranged on a top side and a bottom side is pressed, whereby a polymer layer is produced from each of the impregnates, and - in which in a second process step, the polymer layers are joined with cover layers by means of an adhesive layer.
A heater assembly (10; 30; 110; 150) comprising: a heated hose construction comprising: a thermoplastic conduit (12; 112; 132) having a wall thickness between 0.0076 cm and 0.1143 cm through which conduit (12; 112; 132) a process fluid to be heated flows, a support member (34; 154; 214; 320) for the heated hose construction, a resistance wire or resistance ribbon wound around an exterior periphery of the conduit (12; 112; 132) and in thermal communication therewith, a non-conductive braid layer being disposed over the resistance wire or resistance ribbon , characterized in that an overall coverage of a surface area of the conduit (12; 112; 132) by the resistance wire or resistance ribbon is at least 50% of the surface area of the conduit, so that the resistance wire or resistance ribbon reinforces or supports the conduit (12; 112; 132), and the braid layer is permeable to vapor leaking out of the conduit. a thermoplastic conduit (12; 112; 132) having a wall thickness between 0.0076 cm and 0.1143 cm through which conduit (12; 112; 132) a process fluid to be heated flows, a support member (34; 154; 214; 320) for the heated hose construction, a resistance wire or resistance ribbon wound around an exterior periphery of the conduit (12; 112; 132) and in thermal communication therewith, a non-conductive braid layer being disposed over the resistance wire or resistance ribbon , characterized in that an overall coverage of a surface area of the conduit (12; 112; 132) by the resistance wire or resistance ribbon is at least 50% of the surface area of the conduit, so that the resistance wire or resistance ribbon reinforces or supports the conduit (12; 112; 132), and the braid layer is permeable to vapor leaking out of the conduit.