mhurhangee/ep-ind-claims huggingface dataset:
An angular position sensor, comprising a rotor core (1, 1 a, 1 b, 1 c, 1 d) and a stator core (2, 2a, 2b, 2c, 2d) coaxially around the rotor core, wherein: a first air gap is provided between the rotor core and the stator core, which is a uniformly distributed ring air gap, with its size in the radial direction of the rotor core being called width of the first air gap, and the ratio of its width to the diameter of the rotor core being bigger than or equal to 1:5; a second air gap with a hard magnet therein is provided inside the rotor core; and a third air gap with a magnetic flux sensing element therein is provided inside the stator core; characterized in that the ratio of the length to the width of the second air gap is bigger than or equal to 5:1 and in that the ratio of the width of the first air gap to that of the second air gap is bigger than or equal to 2:1. a first air gap is provided between the rotor core and the stator core, which is a uniformly distributed ring air gap, with its size in the radial direction of the rotor core being called width of the first air gap, and the ratio of its width to the diameter of the rotor core being bigger than or equal to 1:5; a second air gap with a hard magnet therein is provided inside the rotor core; and a third air gap with a magnetic flux sensing element therein is provided inside the stator core; characterized in that the ratio of the length to the width of the second air gap is bigger than or equal to 5:1 and in that the ratio of the width of the first air gap to that of the second air gap is bigger than or equal to 2:1.
Winch device, in particular for a construction-device assembly, comprising - a winch drum, - a support, on which the winch drum is mounted so as to be rotatable about a rotational axis via a rotary mount, - at least one rotary drive, by means of which the winch drum can be driven to rotate, - wherein the at least one rotary drive is attached to the winch drum and wherein the rotary drive together with the winch drum is rotatable about the rotational axis. characterised in that two rotary drives are arranged in a hub region of the winch drum. - a winch drum, - a support, on which the winch drum is mounted so as to be rotatable about a rotational axis via a rotary mount, - at least one rotary drive, by means of which the winch drum can be driven to rotate, - wherein the at least one rotary drive is attached to the winch drum and wherein the rotary drive together with the winch drum is rotatable about the rotational axis.
A reflector comprising: a wholly aromatic liquid crystalline polyester resin compound that comprises a repeating unit derived from a hydroxybenzoic acid and a repeating unit derived from a hydroxynaphthoic acid, but does not comprise a repeating unit derived from an aromatic dicarboxylic acid, wherein the wholly aromatic liquid crystalline polyester resin compound further comprises a white inorganic filler. a wholly aromatic liquid crystalline polyester resin compound that comprises a repeating unit derived from a hydroxybenzoic acid and a repeating unit derived from a hydroxynaphthoic acid, but does not comprise a repeating unit derived from an aromatic dicarboxylic acid, wherein the wholly aromatic liquid crystalline polyester resin compound further comprises a white inorganic filler.
Formwork unit comprising a connecting element and a first formwork plate, wherein the connecting element is designed for connecting at least the first formwork plate to a further structural unit during a concreting process, wherein the connecting element comprises: at least one first connecting leg which can be introduced in a form-fitting manner into a receptacle of the first formwork plate and can be shifted in the receptacle in parallel longitudinally along the active surface of the formwork plate as far as an intended end position, at least one first fixing opening, and at least one first wedge-shaped fixing element which can be inserted and locked in the first fixing opening for the force-fitting fixing of the connecting element to the first formwork plate, characterized in that the formwork plate has at least one receptacle, wherein the receptacle is designed as a groove in the formwork plate or as a profile fastened on the active surface of the formwork plate, and a bottom or diameter of the receptacle is wider than a longitudinal opening of the receptacle, wherein a connecting leg of the connecting element associated with the receptacle is formed as a form-fitting counterpart to the receptacle. at least one first connecting leg which can be introduced in a form-fitting manner into a receptacle of the first formwork plate and can be shifted in the receptacle in parallel longitudinally along the active surface of the formwork plate as far as an intended end position, at least one first fixing opening, and at least one first wedge-shaped fixing element which can be inserted and locked in the first fixing opening for the force-fitting fixing of the connecting element to the first formwork plate, characterized in that the formwork plate has at least one receptacle, wherein the receptacle is designed as a groove in the formwork plate or as a profile fastened on the active surface of the formwork plate, and a bottom or diameter of the receptacle is wider than a longitudinal opening of the receptacle, wherein a connecting leg of the connecting element associated with the receptacle is formed as a form-fitting counterpart to the receptacle.
A blanket assembly for protecting a joint formed between a first duct and a second duct, said blanket assembly comprising: a first blanket member configured to be coupled about the first duct, wherein said first blanket member includes a first side, an opposing second side, and a pair of reinforcing seams (241, 243) extending between said first and said second sides; a second blanket member configured to be coupled about the second duct, wherein said second blanket member extends from said first blanket member; and a strap coupled to said first blanket member and to said second blanket member, wherein said strap includes opposing ends and said strap is continuous between said opposing ends, and wherein said strap is configured to couple said first blanket member to said second blanket member such that a load path is provided from said second blanket member to said first blanket member during a duct burst event, wherein said strap extends between said reinforcing seams (241, 243) in a substantially zig-zag pattern. a first blanket member configured to be coupled about the first duct, wherein said first blanket member includes a first side, an opposing second side, and a pair of reinforcing seams (241, 243) extending between said first and said second sides; a second blanket member configured to be coupled about the second duct, wherein said second blanket member extends from said first blanket member; and a strap coupled to said first blanket member and to said second blanket member, wherein said strap includes opposing ends and said strap is continuous between said opposing ends, and wherein said strap is configured to couple said first blanket member to said second blanket member such that a load path is provided from said second blanket member to said first blanket member during a duct burst event, wherein said strap extends between said reinforcing seams (241, 243) in a substantially zig-zag pattern.
A composition comprising an enzyme exhibiting endo-1,4-β-xylanase activity, which enzyme comprises an amino acid sequence having at least 90 % identity with SEQ ID NO: 1; in combination with an enzyme exhibiting endo-1,3 -3-glucanase activity which enzyme comprises an amino acid sequence having at least 90% identity with SEQ ID NO:7.
A hair care composition comprising: a. from 0.025% to 0.25% by weight of the composition of histidine; b. a gel matrix comprising: i. from 0.1% to 20% of one or more high melting point fatty compounds, by weight of said hair care composition, wherein the one or more high melting point fatty compounds have a melting point of 25°C or higher, and comprise fatty alcohols, wherein the total amount of the one or more high melting point fatty compound ranges from 0.1% to 20%; ii. from 0.1% to 10% a cationic surfactant system comprising_cationic surfactant having single straight alkyl chain with 22 carbon atoms, by weight of said hair care composition; and iii. at least 20% of an aqueous carrier, by weight of said hair care composition. a. from 0.025% to 0.25% by weight of the composition of histidine; b. a gel matrix comprising: i. from 0.1% to 20% of one or more high melting point fatty compounds, by weight of said hair care composition, wherein the one or more high melting point fatty compounds have a melting point of 25°C or higher, and comprise fatty alcohols, wherein the total amount of the one or more high melting point fatty compound ranges from 0.1% to 20%; ii. from 0.1% to 10% a cationic surfactant system comprising_cationic surfactant having single straight alkyl chain with 22 carbon atoms, by weight of said hair care composition; and iii. at least 20% of an aqueous carrier, by weight of said hair care composition. i. from 0.1% to 20% of one or more high melting point fatty compounds, by weight of said hair care composition, wherein the one or more high melting point fatty compounds have a melting point of 25°C or higher, and comprise fatty alcohols, wherein the total amount of the one or more high melting point fatty compound ranges from 0.1% to 20%; ii. from 0.1% to 10% a cationic surfactant system comprising_cationic surfactant having single straight alkyl chain with 22 carbon atoms, by weight of said hair care composition; and iii. at least 20% of an aqueous carrier, by weight of said hair care composition.
Method for manufacturing an RFID tag comprising an IC and an antenna, characterized in that the method comprising the steps of: - providing an antenna made of a soldering material, which antenna is at least partly covered with a hot melt adhesive in solid form, - heating the antenna to a temperature above its melting point, wherein the heated parts of the antenna and the hot melt adhesive melt, - placing an IC in a predetermined position which position is suitable for the IC to connect to the antenna, - pressing the IC and antenna together, such that, an electrical connection between the IC and the antenna is established, and - cooling the RFID tag, such that the hot melt adhesive and the antenna solidify, wherein a soldered joint between the IC and the antenna is achieved and the hot melt adhesive surrounds the joint between the IC and the antenna. - providing an antenna made of a soldering material, which antenna is at least partly covered with a hot melt adhesive in solid form, - heating the antenna to a temperature above its melting point, wherein the heated parts of the antenna and the hot melt adhesive melt, - placing an IC in a predetermined position which position is suitable for the IC to connect to the antenna, - pressing the IC and antenna together, such that, an electrical connection between the IC and the antenna is established, and - cooling the RFID tag, such that the hot melt adhesive and the antenna solidify, wherein a soldered joint between the IC and the antenna is achieved and the hot melt adhesive surrounds the joint between the IC and the antenna.
Method for determining wheel slip information about an electrically driven wheel (12-1, 12- 2, 12-3, 12-4) of a motor vehicle, according to which, during travel the speed (n E-motor) of an electric motor driving the wheel (12-1, 12-2, 12-3, 12-4) is detected and the detected speed (n E-motor) of the electric motor is used to determine the wheel slip information, characterised in that each electrically driven wheel (12-1, 12-2, 12-3, 12-4) is assigned a separate electric motor, wherein a theoretical wheel speed (n wheel,theo) of the wheel (12-1, 12-2, 12-3, 12-4) is determined from the detected speed (n E-motor) of the electric motor and from the gear ratio (iG), and wherein an actual wheel speed (n wheel,actual) of the wheel (12-1, 12-2, 12-3, 12-4) is determined from the current driving speed (V vehicle) of the motor vehicle, wherein if the theoretical wheel speed (n wheel,theo) of the wheel (12-1, 12-2, 12-3, 12-4) deviates from the actual wheel speed (n wheel,actual) of the wheel (12-1, 12-2, 12-3, 12-4), it is determined as wheel slip information that the wheel (12-1, 12-2, 12-3, 12-4) is slipping.
A micro-fluid chip having a channel structure through which a fluid is delivered, the channel structure comprising: a main channel having an inflow port through which the fluid enters, and an outflow port through which the fluid flows out; a plurality of branch channels (11, 12, 13) connected to the main channel, each of the branch channels (11, 12 13) having an inflow end on a side connected to the main channel and an outflow end that is an end portion on an opposite side to the inflow end; and a sub-branch channel (14, 15) connected to the main channel between at least one pair of adjacent branch channels (11/12, 12/13) among the plurality of branch channels (11, 12, 13), the sub-branch channel (14, 15) having an inflow end on a side connected to the main channel, and the sub-branch channel (14, 15) having no outflow end; characterized in that the channel structure further comprises a connection channel connected to the outflow end side of the plurality of branch channels (11, 12, 13), wherein the connection channel is connected to the main channel. a main channel having an inflow port through which the fluid enters, and an outflow port through which the fluid flows out; a plurality of branch channels (11, 12, 13) connected to the main channel, each of the branch channels (11, 12 13) having an inflow end on a side connected to the main channel and an outflow end that is an end portion on an opposite side to the inflow end; and a sub-branch channel (14, 15) connected to the main channel between at least one pair of adjacent branch channels (11/12, 12/13) among the plurality of branch channels (11, 12, 13), the sub-branch channel (14, 15) having an inflow end on a side connected to the main channel, and the sub-branch channel (14, 15) having no outflow end;
A process to remove impurities from triacylglycerol oil, comprising the steps of: mixing the oil and a fluidic agent to form a fluidic mixture having an oil phase and a water phase, wherein the fluidic agent is added so as to form between 0.1% and 5.0% v/v of the fluidic mixture; heating or cooling the fluidic mixture to a temperature in the range of 10-90°C; creating hydrodynamic cavitation in the fluidic mixture by pumping the fluidic mixture at a pre-determined inlet pump pressure in the range of 5500 - 8300 kPa (800 - 1,200 psi) through three eleven-stage flow-through hydrodynamic cavitation apparatuses arranged in series; maintaining the hydrodynamic cavitation in the fluidic mixture for a pre-determined period of time; moving the impurities from the oil phase to the water phase; and separating the water phase from the oil phase. mixing the oil and a fluidic agent to form a fluidic mixture having an oil phase and a water phase, wherein the fluidic agent is added so as to form between 0.1% and 5.0% v/v of the fluidic mixture; heating or cooling the fluidic mixture to a temperature in the range of 10-90°C; creating hydrodynamic cavitation in the fluidic mixture by pumping the fluidic mixture at a pre-determined inlet pump pressure in the range of 5500 - 8300 kPa (800 - 1,200 psi) through three eleven-stage flow-through hydrodynamic cavitation apparatuses arranged in series; maintaining the hydrodynamic cavitation in the fluidic mixture for a pre-determined period of time; moving the impurities from the oil phase to the water phase; and separating the water phase from the oil phase.
Combination of a refractory lining and a tube wall for an incinerator, wherein the refractory lining is retained on the tube wall, the refractory lining comprising: at least four refractory tiles of ceramic material, which are arranged next to and above one another, wherein the tiles at their tube wall-side, which is facing the tube wall, are provided with a vertical insertion channel, and wherein an edge of each of the four tiles adjoins an edge of each of the three other tiles; a holder for each tile, wherein the tile holder is provided with an anchor that is attached to the tube wall, and wherein in mounted position of the lining, the holder extends substantially perpendicular to the tube wall and the holder partially extends into the insertion channel, and wherein a free space is formed between the tiles and the tube wall; joint material, which is provided between the refractory tiles; characterized in that a tile spacer is provided adjacent to the four mutually adjoining edges of the at least four refractory tiles, wherein the spacer supports at least one side face containing an adjoining edge of one of the four tiles wherein the spacer has an I-shape with flanges (21, 22) at both ends of the body, and wherein the spacer is partly made of a material that disappears, burns or evaporates during operation of the incinerator. at least four refractory tiles of ceramic material, which are arranged next to and above one another, wherein the tiles at their tube wall-side, which is facing the tube wall, are provided with a vertical insertion channel, and wherein an edge of each of the four tiles adjoins an edge of each of the three other tiles; a holder for each tile, wherein the tile holder is provided with an anchor that is attached to the tube wall, and wherein in mounted position of the lining, the holder extends substantially perpendicular to the tube wall and the holder partially extends into the insertion channel, and wherein a free space is formed between the tiles and the tube wall; joint material, which is provided between the refractory tiles; characterized in that a tile spacer is provided adjacent to the four mutually adjoining edges of the at least four refractory tiles, wherein the spacer supports at least one side face containing an adjoining edge of one of the four tiles wherein the spacer has an I-shape with flanges (21, 22) at both ends of the body, and wherein the spacer is partly made of a material that disappears, burns or evaporates during operation of the incinerator.
An electromagnetic radiation steering mechanism configured to steer electromagnetic radiation to address a specific location within a two-dimensional field of view comprising: a first optical element having an associated first actuator configured to rotate the first optical element about a first rotational axis to change a first coordinate of a first steering axis in the two-dimensional field of view; a second optical element having an associated second actuator configured to rotate the second optical element about a second rotational axis to change a second coordinate of a second steering axis in the two-dimensional field of view; and an electromagnetic radiation manipulator (a, b) optically disposed between the first and second optical elements (100A, 100B), wherein a first angle is defined between the first and second rotational axes (160, 170); a second angle is defined between the first and second steering axes; and, the electromagnetic radiation manipulator (a, b) is configured to introduce a difference between the first angle and the second angle, characterized in that the electromagnetic radiation manipulator (a, b) comprises a first mirror (a) and a second mirror (b) and wherein the first mirror (a) and the second mirror (b) are fixed with respect to each other. a first optical element having an associated first actuator configured to rotate the first optical element about a first rotational axis to change a first coordinate of a first steering axis in the two-dimensional field of view; a second optical element having an associated second actuator configured to rotate the second optical element about a second rotational axis to change a second coordinate of a second steering axis in the two-dimensional field of view; and an electromagnetic radiation manipulator (a, b) optically disposed between the first and second optical elements (100A, 100B), wherein a first angle is defined between the first and second rotational axes (160, 170); a second angle is defined between the first and second steering axes; and, the electromagnetic radiation manipulator (a, b) is configured to introduce a difference between the first angle and the second angle, characterized in that the electromagnetic radiation manipulator (a, b) comprises a first mirror (a) and a second mirror (b) and wherein the first mirror (a) and the second mirror (b) are fixed with respect to each other.
A system for integrating image frames, the system comprising: an image sharpness module configured to determine a sharpness metric for each image frame in a plurality of image frames, the sharpness metric being indicative of a pixel shift for each image frame; an image noise module configured to determine a noise metric for each image frame in the plurality of image frames, the noise metric being indicative of a variation in brightness or color in the image frame; an image jitter module configured to determine a jitter metric for each image frame in the plurality of image frames, the jitter metric being indicative of spatial shifts between the image frame and other image frames in the plurality of image frames; and an image integration module configured to: calculate one of the average, summation, or weighting of the metrics for each of the image frames and assign each of the image frames a priority value according to the respective calculated value; and generate an integrated image frame from more than one of the plurality of image frames, by selecting the more than one of the plurality of image frames having a priority value based on the sharpness metric, the noise metric and the jitter metric that exceeds a threshold. an image sharpness module configured to determine a sharpness metric for each image frame in a plurality of image frames, the sharpness metric being indicative of a pixel shift for each image frame; an image noise module configured to determine a noise metric for each image frame in the plurality of image frames, the noise metric being indicative of a variation in brightness or color in the image frame; an image jitter module configured to determine a jitter metric for each image frame in the plurality of image frames, the jitter metric being indicative of spatial shifts between the image frame and other image frames in the plurality of image frames; and an image integration module configured to: calculate one of the average, summation, or weighting of the metrics for each of the image frames and assign each of the image frames a priority value according to the respective calculated value; and generate an integrated image frame from more than one of the plurality of image frames, by selecting the more than one of the plurality of image frames having a priority value based on the sharpness metric, the noise metric and the jitter metric that exceeds a threshold. calculate one of the average, summation, or weighting of the metrics for each of the image frames and assign each of the image frames a priority value according to the respective calculated value; and generate an integrated image frame from more than one of the plurality of image frames, by selecting the more than one of the plurality of image frames having a priority value based on the sharpness metric, the noise metric and the jitter metric that exceeds a threshold.