mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry care composition comprising: (i) from 2 to 70 wt% of a surfactant; and (ii) from 0.0001 to 20.0 wt% of a leuco polymer comprising a polyamine covalently bound to a leuco moiety. (i) from 2 to 70 wt% of a surfactant; and (ii) from 0.0001 to 20.0 wt% of a leuco polymer comprising a polyamine covalently bound to a leuco moiety.
A power management system for providing a mechanism of power transaction between two or more facilities connected to a power grid, the system comprising: a controller configured to extract, from two or more facilities , a first facility to sell power other than a second facility to purchase power by an input from a user terminal corresponding to the second facility which is one of the two or more facilities , and calculate a score indicating an evaluation of the first facility based on a communication time in a communication path between the first facility and the second facility; and a communication unit configured to notify the user terminal of the score. a controller configured to extract, from two or more facilities , a first facility to sell power other than a second facility to purchase power by an input from a user terminal corresponding to the second facility which is one of the two or more facilities , and calculate a score indicating an evaluation of the first facility based on a communication time in a communication path between the first facility and the second facility; and extract, from two or more facilities , a first facility to sell power other than a second facility to purchase power by an input from a user terminal corresponding to the second facility which is one of the two or more facilities , and calculate a score indicating an evaluation of the first facility based on a communication time in a communication path between the first facility and the second facility; and a communication unit configured to notify the user terminal of the score.
A reinforced fabric comprising a plurality of substantially parallel metal reinforcing elements extending in a main direction, arranged in a transverse direction perpendicular to the main direction at a laying pitch p expressed in mm, embedded in an elastomer composition based on at least one elastomer, a reinforcing filler, and a crosslinking system, each metal reinforcing element having, in a plane perpendicular to the main direction, a cross-section inscribed in a rectangle of length W and height T and having a breaking strength R F expressed in MPa and measured in accordance with ISO 6892:1984, said fabric having a breaking force expressed in N/mm equal to R n , wherein the laying pitch of the metal reinforcing elements is p≥ 0.8. R F /R n .(a-1+π/4).T 2 , where a=W/T and 1/a ranges from 0.35 to 0.75.
A lamp, comprising a lamp body in a trough shape, a light source assembly , and a heat dissipation assembly ; wherein, the heat dissipation assembly comprises an aluminum plate , a heat dissipation fin and a glass radiator ; the aluminum plate is disposed on a trough wall of the lamp body ; the heat dissipation fin is disposed on a side of the aluminum plate facing a trough bottom part of the lamp body ; and the glass radiator is disposed on a side of the aluminum plate facing a trough top opening part of the lamp body ; the light source assembly comprises a PCB board and a plurality of LED lamp beads ; the PCB board is disposed on a side of the glass radiator facing away from the aluminum plate ; and the plurality of LED lamp beads are arranged on a side of the PCB board facing away from the glass radiator forming a light emitting surface facing the trough top opening part .
Diaphragm wall device for creating a trench in the ground, comprising - a base frame which extends in a longitudinal direction, - at least one soil removal device , which is arranged on a lower end region of the base frame , - a holding device for holding the diaphragm wall device on its upper region, - a bracing device with at least two opposite bracing elements displaceable laterally, transversely to the longitudinal direction and with at least one actuating element, by means of which the bracing elements can be extended laterally in the trench for bracing at least a part of the diaphragm wall device , - an intermediate frame , on which the bracing device with the at least two bracing elements and the at least one actuating element is arranged, and - a pressing-on device , by means of which the at least one soil removal device can be applied with a pressure force, - wherein the pressing-on device is arranged between the intermediate frame and the base frame , so that the base frame is displaceable relative to the intermediate frame by means of the pressing-on device , - wherein the holding device is fixedly connected with the intermediate frame , and - wherein the base frame with the soil removal device is displaceable with respect to the holding device , characterized - in that the intermediate frame is displaceably mounted in a lower region of the base frame along the base frame and - in that the holding device is fixedly connected to the intermediate frame via one or multiple longitudinal beams , which extend along the base frame . - a base frame which extends in a longitudinal direction, - at least one soil removal device , which is arranged on a lower end region of the base frame , - a holding device for holding the diaphragm wall device on its upper region, - a bracing device with at least two opposite bracing elements displaceable laterally, transversely to the longitudinal direction and with at least one actuating element, by means of which the bracing elements can be extended laterally in the trench for bracing at least a part of the diaphragm wall device , - an intermediate frame , on which the bracing device with the at least two bracing elements and the at least one actuating element is arranged, and - a pressing-on device , by means of which the at least one soil removal device can be applied with a pressure force, - wherein the pressing-on device is arranged between the intermediate frame and the base frame , so that the base frame is displaceable relative to the intermediate frame by means of the pressing-on device , - wherein the holding device is fixedly connected with the intermediate frame , and - wherein the base frame with the soil removal device is displaceable with respect to the holding device , - in that the intermediate frame is displaceably mounted in a lower region of the base frame along the base frame and - in that the holding device is fixedly connected to the intermediate frame via one or multiple longitudinal beams , which extend along the base frame .
A cascade assembly for a jet engine thrust reverser , the cascade assembly comprising: an inflow cascade having a plurality of inflow vanes , a plurality of inflow strongbacks , and a front inflow flange ; an outflow cascade having a plurality of outflow vanes , a plurality of outflow strongbacks , and a front outflow flange , wherein each of the plurality of outflow strongbacks are parallel to each other; and fasteners extending through the front inflow flange and the front outflow flange , wherein the inflow cascade and the outflow cascade are separated by a set spacing . an inflow cascade having a plurality of inflow vanes , a plurality of inflow strongbacks , and a front inflow flange ; an outflow cascade having a plurality of outflow vanes , a plurality of outflow strongbacks , and a front outflow flange , wherein each of the plurality of outflow strongbacks are parallel to each other; and fasteners extending through the front inflow flange and the front outflow flange , wherein the inflow cascade and the outflow cascade are separated by a set spacing .
An antibody, or an O-acetylated-GD2 ganglioside binding fragment thereof comprising a CH1 domain, which binds specifically to the O-acetylated-GD2 ganglioside, said antibody comprising: a) a light chain comprising three light chain complementary regions (CDRs) having the following amino acid sequences: i) the light chain CDR1: QSLLKNNGNTFL (SEQ id n°1); ii) the light chain CDR2: KVS; iii) the light chain CDR3: SQSTHIPYT (SEQ id n°2); and four light chain framework regions from an immunoglobulin light chain, and a human kappa (κ) CL domain; and b) a heavy chain comprising three heavy chain complementary regions (CDRs) having the following amino acid sequences: i) the heavy chain CDR1: EFTFTDYY (SEQ id n°3); ii) the heavy chain CDR2: IRNRANGYTT (SEQ id n°4); iii) the heavy chain CDR3: ARVSNWAFDY (SEQ id n°5); and four heavy chain framework regions from an immunoglobulin heavy chain, and: 1) the CH2 and CH3 domains from a human IgG1, and 2) a CH1 domain from a human IgG1, wherein the amino acid at the 133 or 134 position of SEQ id n°29, according to EU index as set forth in Kabat et al., has been substituted by a cysteine residue thereby restoring the pairing between CH1 and CL domains that is typical of human IgG2, IgG3 and IgG4 subclasses, or a CH1 domain from a human IgG2, IgG3 or IgG4. a) a light chain comprising three light chain complementary regions (CDRs) having the following amino acid sequences: i) the light chain CDR1: QSLLKNNGNTFL (SEQ id n°1); ii) the light chain CDR2: KVS; iii) the light chain CDR3: SQSTHIPYT (SEQ id n°2); and four light chain framework regions from an immunoglobulin light chain, and a human kappa (κ) CL domain; and i) the light chain CDR1: QSLLKNNGNTFL (SEQ id n°1); ii) the light chain CDR2: KVS; iii) the light chain CDR3: SQSTHIPYT (SEQ id n°2); and b) a heavy chain comprising three heavy chain complementary regions (CDRs) having the following amino acid sequences: i) the heavy chain CDR1: EFTFTDYY (SEQ id n°3); ii) the heavy chain CDR2: IRNRANGYTT (SEQ id n°4); iii) the heavy chain CDR3: ARVSNWAFDY (SEQ id n°5); and four heavy chain framework regions from an immunoglobulin heavy chain, and: 1) the CH2 and CH3 domains from a human IgG1, and 2) a CH1 domain from a human IgG1, wherein the amino acid at the 133 or 134 position of SEQ id n°29, according to EU index as set forth in Kabat et al., has been substituted by a cysteine residue thereby restoring the pairing between CH1 and CL domains that is typical of human IgG2, IgG3 and IgG4 subclasses, or a CH1 domain from a human IgG2, IgG3 or IgG4. i) the heavy chain CDR1: EFTFTDYY (SEQ id n°3); ii) the heavy chain CDR2: IRNRANGYTT (SEQ id n°4); iii) the heavy chain CDR3: ARVSNWAFDY (SEQ id n°5); and 1) the CH2 and CH3 domains from a human IgG1, and 2) a CH1 domain from a human IgG1, wherein the amino acid at the 133 or 134 position of SEQ id n°29, according to EU index as set forth in Kabat et al., has been substituted by a cysteine residue thereby restoring the pairing between CH1 and CL domains that is typical of human IgG2, IgG3 and IgG4 subclasses, or a CH1 domain from a human IgG2, IgG3 or IgG4.
Tank for storing cryogenic fluid, and in particular a two-phase mixture of liquid and of gas, comprising a first casing intended to contain the cryogenic fluid, at least one drawing-off pipe having an upstream end connected to the first casing and being configured to allow fluid contained in the first casing to be drawn-off toward the outside of the tank, a circuit for filling the tank, the tank comprising a set of one or more sensor (s) measuring the pressure in the first casing , the tank comprising a pipe for pressurizing the first casing and comprising a first end connected to the lower end of the first casing and a second end connected to the upper part of the first casing , the pressurization pipe comprising at least one regulating valve and a heater , in particular a vaporization heat exchanger, the regulating valve of the pressurization pipe being configured to automatically maintain the pressure in the first casing at a minimum determined pressure value by ensuring, when the pressure in the first casing is lower than said minimum value, that the liquid taken from the first casing is circulated in the heater and that this heated fluid is re-introduced into the first casing , characterized in that the tank comprises an air venting regulator connected to the upper end of the first casing , and in that the tank comprises a vaporized gas drawing-off pipe comprising a first upstream end connected to the upper part of the first casing for drawing-off fluid in the gaseous state, said vaporized gas drawing-off pipe comprising a vaporizer and at least one regulating valve toward a downstream distribution end , and in that at least two from among: the regulating valve of the pressurization pipe , the air venting regulator , the regulating valve of the vaporized gas drawing-off pipe , are made up of the same automated regulating valve comprising a plurality of inlets and outlets respectively connected to the first end of the pressurization pipe for pressurizing the first casing , to the first upstream end of the drawing-off pipe, to the downstream distribution end of the vaporized gas drawing-off pipe , and to the atmosphere .
A method for producing a valve with a valve seat , formed from a passage and a valve element closing the passage , comprising the following step: - the valve element repeatedly impacting on the passage for fitting and calibrating the valve seat , wherein an energized magnetic coil excites the valve element for repeated impacting, and wherein, following repeated impacting, the valve element remains in the valve and is usable in regular operation of the valve , characterized in that the valve to be produced is a magnetic valve with a magnetic valve coil for opening and closing the valve element in regular operation, and wherein a proper placed impact magnetic coil excites the valve element for repeated impact on the passage for fitting and calibrating the valve seat. - the valve element repeatedly impacting on the passage for fitting and calibrating the valve seat ,
A method for producing a structured surface on an object, wherein the total area of the structured surface is divided into sub-surfaces (1, 2, 3, ..., n) and a periodic structure having a structure period Λ(d) is formed in the individual sub-surfaces (1, 2, 3, ..., n) of the structural elements formed by way of laser radiation so that, from an observation position (P), a plurality of sub-surfaces (1, 2, 3, ..., n), which are arranged at differing distances and angles with respect to the observation position (P) discretely with respect to one another, in each case an image having the same color effect with the same wavelength λ is detectable or identifiable during an irradiation of the structured surface with white light and, in the process the structure period Λ(d) of the individual sub-surfaces (1, 2, 3, ..., n) is determined according to the equation Λ d = mλ / ( sin θ i − sin θ obs d , with θi being the angle of incidence of the white light on the structured surface; λi being the particular predefined wavelength of the particular color of the color effect of the particular sub-surface (1, 2, 3, .... , n); θobsn(d=0) being the angle, proceeding from the observation position (P), to the particular sub-surface (n), which is calculated according to equation θ obsn d = 0 = arctan L / h , L being the distance of the particular sub-surface (1, 2, 3..., n) in the horizontal direction from the observation position (P), and h being the distance of the particular sub-surface (1, 2, 3, ..., n) in the vertical direction from the observation position (P). a periodic structure having a structure period Λ(d) is formed in the individual sub-surfaces (1, 2, 3, ..., n) of the structural elements formed by way of laser radiation so that, from an observation position (P), a plurality of sub-surfaces (1, 2, 3, ..., n), which are arranged at differing distances and angles with respect to the observation position (P) discretely with respect to one another, in each case an image having the same color effect with the same wavelength λ is detectable or identifiable during an irradiation of the structured surface with white light and, in the process the structure period Λ(d) of the individual sub-surfaces (1, 2, 3, ..., n) is determined according to the equation Λ d = mλ / ( sin θ i − sin θ obs d , with θi being the angle of incidence of the white light on the structured surface; λi being the particular predefined wavelength of the particular color of the color effect of the particular sub-surface (1, 2, 3, .... , n); θobsn(d=0) being the angle, proceeding from the observation position (P), to the particular sub-surface (n), which is calculated according to equation θ obsn d = 0 = arctan L / h , L being the distance of the particular sub-surface (1, 2, 3..., n) in the horizontal direction from the observation position (P), and h being the distance of the particular sub-surface (1, 2, 3, ..., n) in the vertical direction from the observation position (P).
A method for displaying a frame, applied in smart glasses having a photographic device and a separate digital photographic apparatus, the method comprising: determining a frame indicating the field of view of the current image acquired by an electronic viewfinder of the digital photographic apparatus; determining whether the field of view of the digital photographic apparatus is contained within the current field of view of a photographic device of the smart glasses; and displaying the frame on a lens of the smart glasses (S102) when the field of view of the digital photographic apparatus is contained within the current field of view of the photographic device of the smart glasses; characterized in that the method further comprises: obtaining, using the digital photographic apparatus, the current image acquired by the electronic viewfinder of the digital photographic apparatus (S402); determining a percentage of the pixels repeated in the field of view of the current image acquired by the electronic viewfinder of the digital photographic apparatus and a current field of view of the photographic device of the smart glasses (S403); displaying the frame on a lens of the smart glasses according to the percentage of the pixels repeated. determining a frame indicating the field of view of the current image acquired by an electronic viewfinder of the digital photographic apparatus; determining whether the field of view of the digital photographic apparatus is contained within the current field of view of a photographic device of the smart glasses; and displaying the frame on a lens of the smart glasses (S102) when the field of view of the digital photographic apparatus is contained within the current field of view of the photographic device of the smart glasses; characterized in that the method further comprises: obtaining, using the digital photographic apparatus, the current image acquired by the electronic viewfinder of the digital photographic apparatus (S402); determining a percentage of the pixels repeated in the field of view of the current image acquired by the electronic viewfinder of the digital photographic apparatus and a current field of view of the photographic device of the smart glasses (S403); displaying the frame on a lens of the smart glasses according to the percentage of the pixels repeated. obtaining, using the digital photographic apparatus, the current image acquired by the electronic viewfinder of the digital photographic apparatus (S402); determining a percentage of the pixels repeated in the field of view of the current image acquired by the electronic viewfinder of the digital photographic apparatus and a current field of view of the photographic device of the smart glasses (S403); displaying the frame on a lens of the smart glasses according to the percentage of the pixels repeated.
A method for reading machine-readable labels disposed on receptacles carried on a receptacle rack , reading machine-readable labels disposed on the rack, and writing data relating to the receptacles and the positions of the receptacles to a memory element , said method comprising: (a) placing a rack holding at least one receptacle having a machine-readable label disposed thereon in a rack-receiving location in a sample testing instrument , wherein the rack comprises a cover configured to be removably secured to the rack so as to cover each of the at least one receptacle(s) held within the rack; (b) during or after performing step (a), using a label reading device to read the machine-readable label of each receptacle to obtain receptacle data for each receptacle; (c) during or after performing step (a), using the label reading device to read receptacle position-identifying labels disposed on the rack to obtain receptacle position data for each receptacle; (d) using a data writing device to write the receptacle data and the corresponding receptacle position data for each receptacle to the memory element, wherein the memory element is disposed on the rack; and (e) determining if the cover disposed over the at least one receptacle(s) held within the rack during or prior to step (d) has been removed after step (d). (a) placing a rack holding at least one receptacle having a machine-readable label disposed thereon in a rack-receiving location in a sample testing instrument , wherein the rack comprises a cover configured to be removably secured to the rack so as to cover each of the at least one receptacle(s) held within the rack; (b) during or after performing step (a), using a label reading device to read the machine-readable label of each receptacle to obtain receptacle data for each receptacle; (c) during or after performing step (a), using the label reading device to read receptacle position-identifying labels disposed on the rack to obtain receptacle position data for each receptacle; (d) using a data writing device to write the receptacle data and the corresponding receptacle position data for each receptacle to the memory element, wherein the memory element is disposed on the rack; and (e) determining if the cover disposed over the at least one receptacle(s) held within the rack during or prior to step (d) has been removed after step (d).
Drive apparatus for a motor vehicle, comprising a driven shaft and an electric machine , which has a stator as well as a rotor mounted rotatably about an axis of rotation with respect to the stator , the rotor being coupled to the driven shaft by way of an angular gearing for the directional conversion of the torque provided by the electric machine , wherein an electric winding of the stator and/or an electric winding of the rotor projects in axial direction with respect to the axis of rotation of the rotor beyond a coil former of the stator and/or a coil former of the rotor to form a winding head of the stator and/or a winding head of the rotor and the angular gearing is arranged overlapping with the winding head of the stator and/or with the winding head of the rotor as viewed in axial direction of the rotor , so that the winding head of the stator and/or the winding head of the rotor engages around the angular gear in circumferential direction of the stator and/or the rotor , characterised in that the angular gearing has at least one bevel gear , which is coaxial to the axis of rotation of the rotor and is coupled in a rotationally secure manner to a drive shaft , which is in permanent operative connection with the rotor and is arranged in axial direction with respect to the axis of rotation of the rotor overlapping with the winding head of the stator and/or with the winding head of the rotor , so that the winding head of the stator and/or the winding head of the rotor engages around the bevel gear in circumferential direction of the stator and/or the rotor .