mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a high bulk continuous multifilament yarn for use as pile in a floor covering, comprising: in a first step, melt spinning a plurality of filaments of polymer to form a partially oriented yarn; in a second step, drawing and texturing one or more partially oriented yarns in a friction texturing process to form a draw textured yarn; and in a third step, twisting and/or cabling at least two plies of the draw textured yarn together in a range between 30 and 400 twists per meter and heat setting the twisted plies to obtain the high bulk continuous multifilament yarn having a weight of at least 1111,11 dTex (corresponding to 1000 denier), wherein at the end of the second step and prior to the third step, the draw textured yarn is wound to a bobbin or hank. in a first step, melt spinning a plurality of filaments of polymer to form a partially oriented yarn; in a second step, drawing and texturing one or more partially oriented yarns in a friction texturing process to form a draw textured yarn; and in a third step, twisting and/or cabling at least two plies of the draw textured yarn together in a range between 30 and 400 twists per meter and heat setting the twisted plies to obtain the high bulk continuous multifilament yarn having a weight of at least 1111,11 dTex (corresponding to 1000 denier), wherein at the end of the second step and prior to the third step, the draw textured yarn is wound to a bobbin or hank.
A crystalline form B of the compound -3-amino-4-(5-(4-((5-chloro-3-fluoropyridin-2-yl)oxy)phenyl)-2 H -tetrazol-2-yl)butanoic acid in its free form which is characterized by an x-ray powder diffraction pattern comprising four or more 2θ values selected from the group consisting of 11.3 ± 0.2 °2θ, 12.8 ± 0.2 °2θ, 15.2 ± 0.2 °2θ, 19.7 ± 0.2 °2θ, 20.0 ± 0.2 °2θ, 20.3 ± 0.2 °2θ, 21.0 ± 0.2 °2Θ, 22.6 ± 0.2 °2Θ, 24.1 ± 0.2 °2Θ, 24.4 ± 0.2 °2Θ, 25.1 ± 0.2 °2Θ, 26.3 ± 0.2 °2Θ, 28.5 ± 0.2 °2Θ, and 30.0 ± 0.2 °2Θ, measured at a temperature of about 25°C and an x-ray wavelength, λ, of 1.5418 Å.
A cover for a duct sensor comprising: an outer envelope circumferentially surrounding the cover and connecting to at least one seal, the at least one seal standing proud of the outer envelope and circumferentially surrounding the outer envelope, at least one duct with walls (8, 9) and with opposite side walls, the at least one duct extending through the cover, a front surface connecting to the outer envelope and to the walls (8, 9) of the at least one duct, wherein the at least one duct comprises a plurality of guide runners laterally arranged along the opposite side walls of the duct, wherein the cover comprises an opening in the front surface, wherein the opening provides an entry for a circuit board into the at least one duct, wherein the plurality of guide runners are configured to support a circuit board extending through the duct, wherein the plurality of guide runners and the opening are configured to prevent play of a circuit board extending through the duct, characterized in that the at least one seal comprises a tip arranged at the far end of the seal, and the at least one seal and the tip and the outer envelope and the cover form a single piece, and the at least one seal is configured to mate with a flat surface or with a reciprocating groove in an inner wall of a tubular housing of the duct sensor such that the arrangement becomes fluid-tight. an outer envelope circumferentially surrounding the cover and connecting to at least one seal, the at least one seal standing proud of the outer envelope and circumferentially surrounding the outer envelope, at least one duct with walls (8, 9) and with opposite side walls, the at least one duct extending through the cover, a front surface connecting to the outer envelope and to the walls (8, 9) of the at least one duct, wherein the at least one duct comprises a plurality of guide runners laterally arranged along the opposite side walls of the duct, wherein the cover comprises an opening in the front surface, wherein the opening provides an entry for a circuit board into the at least one duct, wherein the plurality of guide runners are configured to support a circuit board extending through the duct, wherein the plurality of guide runners and the opening are configured to prevent play of a circuit board extending through the duct, characterized in that the at least one seal comprises a tip arranged at the far end of the seal, and the at least one seal and the tip and the outer envelope and the cover form a single piece, and the at least one seal is configured to mate with a flat surface or with a reciprocating groove in an inner wall of a tubular housing of the duct sensor such that the arrangement becomes fluid-tight.
Lighting profile with a long profile rail which has a receiving groove extending in a longitudinal direction for a shelf, which receiving groove is open to a back side and is restricted by an upper wall and a lower wall, wherein the profile rail has at least one first groove, one second groove and one third groove for long lighting devices (16, 21, 23), wherein the first groove and the second groove are disposed on opposite sides of a middle line extending in a transverse direction and in the direction of a front side of the profile rail offset with respect to the receiving groove and the third groove is formed at an outer side of the lower wall, characterised in that a rib area is formed, extending in a transverse direction between the receiving groove and the first and second groove (14, 20), which is narrower than the receiving groove.
An olefin production process comprising reacting a ketone and hydrogen in the presence of at least one dehydration catalyst and a silver-containing catalyst, the at least one dehydration catalyst being selected from metal oxide catalysts containing at least one Group 6 element, zeolites, aluminas and heteropoly acid salts in which part or all the protons in heteropoly acids are exchanged with metal cations.
A method for detecting a location of at least one object on a touch surface on a radiation transmissive panel, said method comprising the steps of: introducing at least three beams of radiation into the panel, such that each beam propagates by internal reflection in the panel; obtaining at least two output signals (S1, S2) from a detection arrangement which is optically coupled to one or more elongate outcoupling sites on said panel, said at least two output signals (S1, S2) representing a respective spatial distribution of radiation along said one or more outcoupling sites; the method being characterised in that it comprises the steps of: generating at least two transmission signals, wherein said step of generating comprises dividing said at least two output signals (S1, S2) by a background signal and operating a logarithmic function on the result of said dividing; and identifying said location based on peaks in said at least two transmission signals, wherein the background signal represents the spatial distribution of radiation along said one or more outcoupling sites without said at least one object on the touch surface. introducing at least three beams of radiation into the panel, such that each beam propagates by internal reflection in the panel; obtaining at least two output signals (S1, S2) from a detection arrangement which is optically coupled to one or more elongate outcoupling sites on said panel, said at least two output signals (S1, S2) representing a respective spatial distribution of radiation along said one or more outcoupling sites; the method being characterised in that it comprises the steps of: generating at least two transmission signals, wherein said step of generating comprises dividing said at least two output signals (S1, S2) by a background signal and operating a logarithmic function on the result of said dividing; and identifying said location based on peaks in said at least two transmission signals, wherein the background signal represents the spatial distribution of radiation along said one or more outcoupling sites without said at least one object on the touch surface. generating at least two transmission signals, wherein said step of generating comprises dividing said at least two output signals (S1, S2) by a background signal and operating a logarithmic function on the result of said dividing; and identifying said location based on peaks in said at least two transmission signals, wherein the background signal represents the spatial distribution of radiation along said one or more outcoupling sites without said at least one object on the touch surface.
System for reducing forces acting on a person's spine, said system having a plurality of joinable exoskeleton elements; wherein at least two of the joinable exoskeleton elements are designed to be connected, during use of the system, to the person's body; and a first exoskeleton element of the joinable exoskeleton elements comprises a guide which is designed to guide a second exoskeleton element of the joinable exoskeleton elements along a curved trajectory relative to the first exoskeleton element and to enforce a superimposed translational and rotational relative movement between the first exoskeleton element and the second exoskeleton element when guiding the second exoskeleton element along the curved trajectory relative to the first exoskeleton element; characterised in that the system further comprises an actuator unit, wherein the actuator unit is designed to controllably displace the second exoskeleton element relative to the first exoskeleton element.
A method for producing a porous electrode substrate, comprising the steps of dispersing short carbon fibers, and short carbon fiber precursors (b) to be fibrillated by beating, to produce a precursor sheet; and subjecting the precursor sheet to carbonization treatment at a temperature of 1000°C or higher, wherein the short carbon fibers have an average fiber length of 2 to 12 mm, the short carbon fiber precursors (b) have an average fiber length of 1 to 20 mm, and the short carbon fiber precursors (b) to be fibrillated by beating are splittable sea-island composite fibers, capable of fibrillation by beating and comprise two or more different polymers, one of these polymers being selected from acrylic polymers containing 50% by mass or more of acrylonitrile units. dispersing short carbon fibers, and short carbon fiber precursors (b) to be fibrillated by beating, to produce a precursor sheet; and subjecting the precursor sheet to carbonization treatment at a temperature of 1000°C or higher, wherein the short carbon fibers have an average fiber length of 2 to 12 mm, the short carbon fiber precursors (b) have an average fiber length of 1 to 20 mm, and the short carbon fiber precursors (b) to be fibrillated by beating are splittable sea-island composite fibers, capable of fibrillation by beating and comprise two or more different polymers, one of these polymers being selected from acrylic polymers containing 50% by mass or more of acrylonitrile units.
Use of a tool for rapidly detecting preeclampsia in a urine sample of a pregnant women using adipsin as detection indicator, characterized in that the tool comprises a base plate, a water-absorbing pad, a nitrocellulose membrane, a gold labeling pad and a sampling pad, the water-absorbing pad, nitrocellulose membrane, gold labeling pad and sampling pad are successively joined from top to bottom and fixed on the base plate, and the gold labeling pad is partly overlapped by the sampling pad; the nitrocellulose membrane is provided with a detection line coated by rabbit anti-human adipsin polyclonal antibody, or goat anti-human adipsin polyclonal antibody, or mouse anti-human adipsin monoclonal antibody, and a control line coated by goat anti-mouse immunoglobulin G polyclonal antibody, the detection line is located under and spaced from the control line; the gold labeling pad is made of water absorbing material, and coated by a pad with gold labeled mouse anti-human adipsin monoclonal antibody conjugate. the tool comprises a base plate, a water-absorbing pad, a nitrocellulose membrane, a gold labeling pad and a sampling pad, the water-absorbing pad, nitrocellulose membrane, gold labeling pad and sampling pad are successively joined from top to bottom and fixed on the base plate, and the gold labeling pad is partly overlapped by the sampling pad; the nitrocellulose membrane is provided with a detection line coated by rabbit anti-human adipsin polyclonal antibody, or goat anti-human adipsin polyclonal antibody, or mouse anti-human adipsin monoclonal antibody, and a control line coated by goat anti-mouse immunoglobulin G polyclonal antibody, the detection line is located under and spaced from the control line; the gold labeling pad is made of water absorbing material, and coated by a pad with gold labeled mouse anti-human adipsin monoclonal antibody conjugate.
A method for registering absolute coding, wherein the absolute coding is embodied by code elements (100, 100') of a code track and the individual code elements (100, 100') respectively form a main point or centroid, comprising: illumination of the code elements (100, 100') with light; modulation of part of the illuminating light at code elements (100, 100'), registration of modulated light and generation of state signals, and establishment of a main point or centroid for the state signals and the positions thereof, characterized in that the modulation of the light at adjacent code elements (100, 100') in the direction of extent of the code track is effected in a continuously varying manner. illumination of the code elements (100, 100') with light; modulation of part of the illuminating light at code elements (100, 100'), registration of modulated light and generation of state signals, and establishment of a main point or centroid for the state signals and the positions thereof, characterized in that the modulation of the light at adjacent code elements (100, 100') in the direction of extent of the code track is effected in a continuously varying manner.
An event monitoring method, comprising: receiving, by an exposure function entity, a first message, wherein the first message is used to request a monitoring event configuration for a user group; obtaining, by the exposure function entity, member information of the user group, wherein the member information of the user group comprises: a quantity N of members in the user group; determining, by the exposure function entity based on the member information, whether monitoring event reports for all members in the user group are received, and when the exposure function entity determines that the monitoring event reports for all members in the user group are received, deleting, by the exposure function entity, the monitoring event configuration for the user group. receiving, by an exposure function entity, a first message, wherein the first message is used to request a monitoring event configuration for a user group; obtaining, by the exposure function entity, member information of the user group, wherein the member information of the user group comprises: a quantity N of members in the user group; determining, by the exposure function entity based on the member information, whether monitoring event reports for all members in the user group are received, and when the exposure function entity determines that the monitoring event reports for all members in the user group are received, deleting, by the exposure function entity, the monitoring event configuration for the user group.
Brewing apparatus for preparing a hot beverage, especially a coffee beverage, comprising - a brewing chamber for conducting a pre-specifiable total quantity of brewing water through the brewing chamber containing a quantity of a flavour carrier, especially coffee powder, which has been introduced into the brewing chamber, during a brewing operation, - a measuring device, which is arranged upstream or downstream of the brewing chamber, for determining a volumetric flow rate of the brewing water or a quantity of brewing water that has already been conducted through or is still to be conducted through, - a controllable counter-pressure valve which is arranged downstream of the brewing chamber in the throughflow direction, characterised by - a controller for actuating the counter-pressure valve in dependence upon the value determined by the measuring device, wherein the counter-pressure valve is in the form of a motor-operated needle valve and the controller further opens or closes the needle valve by actuation of a drive motor. - a brewing chamber for conducting a pre-specifiable total quantity of brewing water through the brewing chamber containing a quantity of a flavour carrier, especially coffee powder, which has been introduced into the brewing chamber, during a brewing operation, - a measuring device, which is arranged upstream or downstream of the brewing chamber, for determining a volumetric flow rate of the brewing water or a quantity of brewing water that has already been conducted through or is still to be conducted through, - a controllable counter-pressure valve which is arranged downstream of the brewing chamber in the throughflow direction, characterised by - a controller for actuating the counter-pressure valve in dependence upon the value determined by the measuring device,
An assembly for the construction of a concrete floor structure comprising: i) a rigid framework which comprises upper and lower framework elements in the form of meshes; ii) a series of expandable inflatable tubular members; and, characterised in that the framework further comprises restraint members that engage with the upper and lower framework elements, and wherein the expandable inflatable tubular members are enclosed within the framework and are expandable to an extent limited by the rigid framework such that said members adopt a position of having a truncated circular configuration comprising a flattened top and bottom, and wherein the framework provides reinforcement to the concrete floor structure. i) a rigid framework which comprises upper and lower framework elements in the form of meshes; ii) a series of expandable inflatable tubular members; and,
A method for forming a ring network of a plurality of at least three Bluetooth ® speakers as an organized set of Bluetooth ® speakers paired to one another in a chain, in which the end of the chain connects back to the beginning of the chain forming a ring architecture, the method comprising: populating a configurable speaker register of a first Bluetooth ® speaker (s(n)) of the plurality of at least three Bluetooth ® speakers with an address of a second Bluetooth ® speaker (s(n-1)) of the plurality of at least three Bluetooth ® speakers, the second Bluetooth ® speaker (s(n-1)) having a downstream port connected to an upstream port of the first Bluetooth ® speaker (s(n)); populating the configurable speaker register of the first Bluetooth ® speaker (s(n)) with an address of a third Bluetooth ® speaker (s(n+1)) of the plurality of at least three Bluetooth ® speakers, the first Bluetooth ® speaker (s(n)) having a downstream port connected to an upstream port of the third Bluetooth ® speaker (s(n+1)); and upon receiving audio data from an audio device, taking control of the ring network, by the first Bluetooth ® speaker (s(n)), by sending a ringleader message through the downstream port of the first Bluetooth ® speaker (s(n)) to the upstream port of the third Bluetooth ® speaker (s(n+1)) and forwarding the received audio data around the ring network to be played on each of the first, second and third Bluetooth ® speakers. populating a configurable speaker register of a first Bluetooth ® speaker (s(n)) of the plurality of at least three Bluetooth ® speakers with an address of a second Bluetooth ® speaker (s(n-1)) of the plurality of at least three Bluetooth ® speakers, the second Bluetooth ® speaker (s(n-1)) having a downstream port connected to an upstream port of the first Bluetooth ® speaker (s(n)); populating the configurable speaker register of the first Bluetooth ® speaker (s(n)) with an address of a third Bluetooth ® speaker (s(n+1)) of the plurality of at least three Bluetooth ® speakers, the first Bluetooth ® speaker (s(n)) having a downstream port connected to an upstream port of the third Bluetooth ® speaker (s(n+1)); and upon receiving audio data from an audio device, taking control of the ring network, by the first Bluetooth ® speaker (s(n)), by sending a ringleader message through the downstream port of the first Bluetooth ® speaker (s(n)) to the upstream port of the third Bluetooth ® speaker (s(n+1)) and forwarding the received audio data around the ring network to be played on each of the first, second and third Bluetooth ® speakers.
A rubber extrusion device comprising: a cylinder in a tubular shape; a screw disposed in an internal space of the cylinder; a head having an extrusion flow path installed in a front end of the cylinder to communicate with the internal space; and a die attached to the head to constitute an extrusion port at a front end position of the extrusion flow path, the die having: at least one extrusion port variable member disposed at the front end position of the extrusion flow path to move in a direction allowing an area of the extrusion port to be changed; and a rectifying body configured to move in an extension direction of the extrusion flow path while being in contact with an inner wall of the extrusion flow path to enter and exit the extrusion flow path, and the at least one extrusion port variable member and the rectifying body being each configured to be able to be positioned at a desired position in its movement direction, characterized in that the rectifying body is configured to enter and exit the extrusion flow path from a front end side of the extrusion flow path. a cylinder in a tubular shape; a screw disposed in an internal space of the cylinder; a head having an extrusion flow path installed in a front end of the cylinder to communicate with the internal space; and a die attached to the head to constitute an extrusion port at a front end position of the extrusion flow path, at least one extrusion port variable member disposed at the front end position of the extrusion flow path to move in a direction allowing an area of the extrusion port to be changed; and a rectifying body configured to move in an extension direction of the extrusion flow path while being in contact with an inner wall of the extrusion flow path to enter and exit the extrusion flow path, and the at least one extrusion port variable member and the rectifying body being each configured to be able to be positioned at a desired position in its movement direction, characterized in that the rectifying body is configured to enter and exit the extrusion flow path from a front end side of the extrusion flow path.