mhurhangee/ep-ind-claims huggingface dataset:
Mounting bracket for mounting a cladding to a wall comprising a wall plate arranged to be fixed to the wall substantially in parallel with said wall and a first and a second bracket arm (3, 4) extending substantially transversely from said wall plate wherein a connection of said first bracket arm to the wall plate is substantially in parallel with and spaced apart from a connection of said second bracket arm to said wall plate such that a beam receiving space is present between said two bracket arms (3, 4), wherein the first bracket arm and the second bracket arm have a substantially triangular shape or a substantially truncated triangular shape, providing a relatively broad attachment basis of the first and second bracket arm (3, 4) to the wall plate, characterized in that the mounting bracket is made of plastic and in that at least one of the bracket arms (3, 4) is provided with a substantially triangular cut-out, having a basis that is in common with part of the basis of the corresponding bracket arm (3, 4).
A pipe machining apparatus comprising: a frame; a tool carrier coupled to the frame and movable relative to the frame; a tool support coupled to the tool carrier and adapted to support a tool for movement with the tool carrier relative to the frame, the tool support including an advancement member coupled to the tool to advance the tool; and an advancement mechanism rotatably coupled to the frame by a fastener and rotatable relative to the frame between a first position, in which the advancement mechanism is in a travel path of the advancement member and is adapted to be engaged by the advancement member to advance the tool, and a second position, in which the advancement mechanism is positioned out of the travel path of the advancement member and is not adapted to be engaged by the advancement member, characterized in that the advancement mechanism includes a base and the fastener for rotatably coupling the base to the frame, and wherein the base rotates between the first position and the second position about the fastener, wherein the first position is an operating position and the second position is a breakaway position, wherein the level of securement of the base to the frame by the fastener is a sufficient level to maintain the advancement mechanism in the operating position when the advancement member engages the advancement mechanism, but allows the advancement mechanism to rotate to the breakaway position if the advancement mechanism is improperly engaged by an undesirable portion of the apparatus. a frame; a tool carrier coupled to the frame and movable relative to the frame; a tool support coupled to the tool carrier and adapted to support a tool for movement with the tool carrier relative to the frame, the tool support including an advancement member coupled to the tool to advance the tool; and an advancement mechanism rotatably coupled to the frame by a fastener and rotatable relative to the frame between a first position, in which the advancement mechanism is in a travel path of the advancement member and is adapted to be engaged by the advancement member to advance the tool, and a second position, in which the advancement mechanism is positioned out of the travel path of the advancement member and is not adapted to be engaged by the advancement member, characterized in that the advancement mechanism includes a base and the fastener for rotatably coupling the base to the frame, and wherein the base rotates between the first position and the second position about the fastener, wherein the first position is an operating position and the second position is a breakaway position, wherein the level of securement of the base to the frame by the fastener is a sufficient level to maintain the advancement mechanism in the operating position when the advancement member engages the advancement mechanism, but allows the advancement mechanism to rotate to the breakaway position if the advancement mechanism is improperly engaged by an undesirable portion of the apparatus.
A hemostatic valve for sealing a medical device, the hemostatic valve comprising: an elongate member having a first end, a second end, and a central lumen extending therebetween, wherein the elongate member is pliable; and an active tensioning mechanism including an actuator coupled to the elongate member, wherein the actuator is moveable between (a) a first position wherein the central lumen is constricted and sealed and (b) a second position wherein the central lumen is open; and a biasing member configured to bias the actuator to the first position; characterized in that the hemostatic valve further comprises a reinforcement structure extending along at least a portion of the elongate member, wherein the reinforcement structure is coupled to the elongate member. an elongate member having a first end, a second end, and a central lumen extending therebetween, wherein the elongate member is pliable; and an active tensioning mechanism including an actuator coupled to the elongate member, wherein the actuator is moveable between (a) a first position wherein the central lumen is constricted and sealed and (b) a second position wherein the central lumen is open; and a biasing member configured to bias the actuator to the first position;
A magnetic toner which comprises magnetic toner particles containing at least a binder resin and a magnetic material, wherein; in a test in which the magnetic toner is dispersed in 5 mol/liter hydrochloric acid to dissolve the magnetic material, and where the dissolution percentage of the magnetic material with respect to the total content of the magnetic material at a point of time of 3 minutes after the magnetic toner has begun to be dispersed in the hydrochloric acid is represented by S 3 (% by mass) and the dissolution percentage of the magnetic material with respect to the total content of the magnetic material at a point of time of 15 minutes after the magnetic toner has begun to be dispersed in the hydrochloric acid is represented by S 15 (% by mass), the S 3 and the S 15 satisfy the following expressions: 0.5 ≤ S 3 ≤ 10, 40 ≤ S 15 ≤ 80; where the dissolution percentage of the magnetic material with respect to the total content of the magnetic material at a point of time of 30 minutes after the magnetic toner has begun to be dispersed in the hydrochloric acid is represented by S 30 (% by mass), the proportion S c of the dissolution level of the magnetic material at from 3 minutes to 15 minutes after the magnetic toner has begun to be dispersed in the hydrochloric acid to the dissolution level of the magnetic material at from 15 minutes to 30 minutes after the magnetic toner has begun to be dispersed in the hydrochloric acid, represented by (S 15 -S 3)/( S 30 -S 15), satisfies the following expressions: 1.2 ≤ S c = S 15 − S 3 / S 30 − S 15 ≤ 10; and the magnetic toner has a dielectric loss factor (tanδ) at 25°C and at a frequency 1.0 × 10 4 Hz, within the range of from 3.0 × 10 -3 or more to1.0 × 10 -2 or less.
Workstation of a textile machine, comprising a thread accumulator (4, 4a) for the intermediate storage of a thread portion and a thread winding device downstream of the thread accumulator (4, 4a), the thread accumulator (4, 4a) having a thread accumulator tube (7, 7a) that is arranged in the area of the thread path, has a thread inlet opening (8, 8a), and to which an air flow directed from the thread inlet opening (8, 8a) toward the inside of the thread accumulator tube is applied, characterised in that a first thread sensor (10, 10a) is integrated on the thread accumulator tube (7, 7a) in the area of the thread inlet opening (8, 8a) in such a way that the first thread sensor (10, 10a) monitors the thread path in the area in front of the thread inlet opening (8, 8a), in that a second thread sensor (11, 11a) is integrated on the thread accumulator tube (7, 7a) in the area of the thread inlet opening (8, 8a) of the thread accumulator tube (7, 7a), and in that the first thread sensor (10, 10a) and the second thread sensor (11, 11a) are arranged opposite one another at the thread inlet opening (8, 8a).
A control system for a hydraulic construction machine, comprising: a hydraulic actuator (5, 6); a work device including a boom, an arm, and a bucket driven by the hydraulic actuator (5, 6); a hydraulic pump (21, 22) supplying a hydraulic fluid to the hydraulic actuator (5, 6); a pump flow rate control section controlling a delivery flow rate of the hydraulic pump (21, 22); a pump horsepower control section controlling a horsepower of the hydraulic pump (21, 22); and a target surface distance acquiring section measuring or computing a target surface distance that is a distance between a construction target surface on which the work device works and the work device, characterized in that the pump flow rate control section is configured to perform control such that as the target surface distance decreases, the delivery flow rate decreases, and the pump horsepower control section is configured to perform control such that as the target surface distance decreases, the horsepower of the hydraulic pump (21, 22) increases.
An apparatus comprising: a housing comprising first, second, and third openings, the first opening configured to be secured to a support structure, and a cable track having a cross-section that forms a closed loop, the cable track configured to be coupled to a moveable object and to be pushed and pulled by the moveable object without buckling, wherein the cable track includes a first portion of the cable track extending along a first side of the second opening and a second portion of the cable track extending along a second side of the second opening, wherein the third opening allows the cable track to exit the second opening through the third opening, wherein the cable track is configured to transport at least one signal or material to or from the moveable object, wherein the cable track comprises a curved profile with an outer longer edge and an inner longer edge, and wherein a height of the cable track along the outer longer edge is greater than a height of the cable track along the inner longer edge. a housing comprising first, second, and third openings, the first opening configured to be secured to a support structure, and a cable track having a cross-section that forms a closed loop, the cable track configured to be coupled to a moveable object and to be pushed and pulled by the moveable object without buckling, wherein the cable track includes a first portion of the cable track extending along a first side of the second opening and a second portion of the cable track extending along a second side of the second opening, wherein the third opening allows the cable track to exit the second opening through the third opening, wherein the cable track is configured to transport at least one signal or material to or from the moveable object, wherein the cable track comprises a curved profile with an outer longer edge and an inner longer edge, and wherein a height of the cable track along the outer longer edge is greater than a height of the cable track along the inner longer edge.
A process to remove excess dye from dyed polyester fabric comprising (a) adding a reduction clearing agent which is a weak organic acid or salt thereof to the fabric in a dyeing vessel, (b) raising the temperature in the vessel, (c) allowing the acid or salt thereof to remain in contact with the fabric for a period of time, raising the pH to between pH 9 and pH 12, and (d) removing all liquid.
An inspection system comprising: a tank (102, 202) configured to contain a fluid, the tank defining an axial passage for a tube to be inserted and including an opening to the axial passage; a transducer probe (204A, 204B) disposed inside the tank and oriented toward the opening; a movable seal (208A, 208B) including a chamber (210A, 210B), the movable seal configured to move axially inside the axial passage, and the chamber configured to be filled with a fluid; and a membrane (206a, 206b) positioned in and sealing the opening for inspection of the tube using the transducer probe, providing a pathway for an ultrasound signal to be transmitted from the transducer probe, through the fluid in the tank, the membrane, and fluid in the chamber, to the tube in response to the movable seal occupying a measurement position, in which the chamber is positioned in front of the membrane. a tank (102, 202) configured to contain a fluid, the tank defining an axial passage for a tube to be inserted and including an opening to the axial passage; a transducer probe (204A, 204B) disposed inside the tank and oriented toward the opening; a movable seal (208A, 208B) including a chamber (210A, 210B), the movable seal configured to move axially inside the axial passage, and the chamber configured to be filled with a fluid; and a membrane (206a, 206b) positioned in and sealing the opening for inspection of the tube using the transducer probe, providing a pathway for an ultrasound signal to be transmitted from the transducer probe, through the fluid in the tank, the membrane, and fluid in the chamber, to the tube in response to the movable seal occupying a measurement position, in which the chamber is positioned in front of the membrane.
A payment assistance method performed by a mobile device, comprising: obtaining a merchant account identifier sent by a merchant device through short-range wireless communication; generating verification information to provide pre-generated verification information, and sending the pre-generated verification information and the merchant account identifier to a server; determining that a merchant account corresponding to the merchant account identifier is a payment receiving object so as to perform a payment, comprising receiving a verification information received from the merchant device through short-range wireless communication and successfully verifying that the verification information received from the merchant device is consistent with the pre-generated verification information, wherein the verification information received from the merchant device corresponds to the pre-generated verification information that the server delivered to the merchant device upon successful verification of the merchant account identifier; and determining the merchant account corresponding to the merchant account identifier to perform the payment. obtaining a merchant account identifier sent by a merchant device through short-range wireless communication; generating verification information to provide pre-generated verification information, and sending the pre-generated verification information and the merchant account identifier to a server; determining that a merchant account corresponding to the merchant account identifier is a payment receiving object so as to perform a payment, comprising receiving a verification information received from the merchant device through short-range wireless communication and successfully verifying that the verification information received from the merchant device is consistent with the pre-generated verification information, wherein the verification information received from the merchant device corresponds to the pre-generated verification information that the server delivered to the merchant device upon successful verification of the merchant account identifier; and determining the merchant account corresponding to the merchant account identifier to perform the payment.
A composition comprising an extract of Spirulina, which contains at least one non-blue protein and at least one phycocyanin, characterized in that the phycocyanin content is 8 to 50 wt% based on the total protein content, and the phycocyanin content is 0.5 to 2 wt% based on the total composition.
Prosthetic knit based on at least a first yarns of biocompatible polymer material defining first and second opposite and openwork faces, and on at least a second biocompatible and heat-fusible monofilament yarn, forming barbs that protrude outwards from at least said first face and are obtained by melting loops generated by said second yarn, wherein the chart followed for the knitting of said first and second yarns on a warp knitting machine having three guide bars B1, B2, B3 is the following, according to the ISO 11676 standard: - Bar B1: 1.0/0.1// characterized by - Bar B2: 1.0/7.7/6.6/7.7// said second yarn following the chart of bar B3 forming inlays linking a pair of barbs in every second course. - Bar B1: 1.0/0.1// - Bar B2: 1.0/7.7/6.6/7.7//
A method of emulating a printer on a computing device that is provided with printer firmware and programming code that interfaces with the firmware for a customized printing operation, the method comprising the steps of providing the firmware with the printer and the computing device, wherein the firmware is operable on each of the computing device and the printer as a function of at least one respective application programming interface provided with the printer, or provided with the computing device and the printer; providing the programming code with the computing device; and running the programming code on the computing device, wherein the programming code interfaces with the firmware provided with the computing device and causes the computing device to emulate the printer running the programming code, thereby accurately representing a printer output and the functioning of the printer, wherein the firmware being provided with and operating on the computing device enables the computing device to accurately represent the printed output and the functioning of the printer, the computing device and the printer are not connected to each other, the programming code is a label generation software application, and the computing device displays a virtual label generated by the programming code, wherein the displayed label appears the same as a physical label printed as a function of the printer running the programming code.
An apparatus comprising logic configured to cause a wireless communication unit to: transmit a frame configured to initiate a sounding feedback sequence of explicit beamforming training with a plurality of wireless communication stations (104, 106, 107), the frame comprising a sequence of a plurality of Association Identifiers, AIDs, corresponding to said plurality of wireless communication stations; during a first time period, process reception of a first beamforming feedback frame from a station corresponding to a first AID, which is first in order of said sequence of the plurality of AIDs; and during one or more second non-overlapping time periods, which are subsequent to said first time period, process reception of one or more second beamforming feedback frames (314, 316) from one or more other stations (106, 107) corresponding to one or more second AIDs in the sequence of the plurality of AIDs; wherein the logic is configured to cause the wireless communication unit to transmit a Multi-Input-Multi-Output, MIMO, transmission comprising two or more simultaneous transmissions to two or more respective stations of the plurality wireless communication stations based on two or more of the first beamforming feedback frame and the one or more second beamforming feedback frames; transmit a block acknowledgement request to the two or more stations; and receive a simultaneous uplink transmission including two or more simultaneous block acknowledgements from the two or more stations, respectively. transmit a frame configured to initiate a sounding feedback sequence of explicit beamforming training with a plurality of wireless communication stations (104, 106, 107), the frame comprising a sequence of a plurality of Association Identifiers, AIDs, corresponding to said plurality of wireless communication stations; during a first time period, process reception of a first beamforming feedback frame from a station corresponding to a first AID, which is first in order of said sequence of the plurality of AIDs; and during one or more second non-overlapping time periods, which are subsequent to said first time period, process reception of one or more second beamforming feedback frames (314, 316) from one or more other stations (106, 107) corresponding to one or more second AIDs in the sequence of the plurality of AIDs; wherein the logic is configured to cause the wireless communication unit to transmit a Multi-Input-Multi-Output, MIMO, transmission comprising two or more simultaneous transmissions to two or more respective stations of the plurality wireless communication stations based on two or more of the first beamforming feedback frame and the one or more second beamforming feedback frames; transmit a block acknowledgement request to the two or more stations; and receive a simultaneous uplink transmission including two or more simultaneous block acknowledgements from the two or more stations, respectively.
A hybrid diffusion-brazing process, comprising: providing a component having a temperature-tolerant region and a temperature-sensitive region; brazing a braze material to the temperature-tolerant region during a localized brazing cycle; then heating the component in a furnace during a diffusion cycle; wherein the brazing and the heating-diffusion braze the braze material to the component; and wherein the localized brazing cycle is performed independent of the diffusion cycle in the hybrid diffusion-brazing process, characterized by the hybrid diffusion-brazing process further comprising the step of maintaining the temperature-sensitive region below a tolerance temperature during the localized brazing cycle, wherein temperatures at or above the tolerance temperature cause the temperature-sensitive region to undergo one or more changes selected from the group consisting of micro-structural change, macro-structural change, melting, re-melting of existing braze joint, deformation, coating spallation, separation of sub-components, fatiguing, cracking, warping, deforming, and melting wherein the tolerance temperature is lower than a brazing temperature of the braze material. providing a component having a temperature-tolerant region and a temperature-sensitive region; brazing a braze material to the temperature-tolerant region during a localized brazing cycle; then heating the component in a furnace during a diffusion cycle; wherein the brazing and the heating-diffusion braze the braze material to the component; and wherein the localized brazing cycle is performed independent of the diffusion cycle in the hybrid diffusion-brazing process, characterized by the hybrid diffusion-brazing process further comprising the step of maintaining the temperature-sensitive region below a tolerance temperature during the localized brazing cycle, wherein temperatures at or above the tolerance temperature cause the temperature-sensitive region to undergo one or more changes selected from the group consisting of micro-structural change, macro-structural change, melting, re-melting of existing braze joint, deformation, coating spallation, separation of sub-components, fatiguing, cracking, warping, deforming, and melting