mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a non-transitory memory storing a software component library for use with an interactive voice response flow information; and one or more hardware processors configured to execute instructions to cause the system to perform operations comprising: determining the IVR flow information from each webpage element of a plurality of webpage elements in a webpage, wherein the IVR flow information comprises a sequence of audio outputs for presentation of the plurality of webpage elements to a user using a device; transmitting the software component library to the device for processing on a user initiation to present an IVR interface to the user using the IVR flow information, wherein the user utilizes the IVR interface to enter at least one input to at least one of the plurality of webpage elements in response to the sequence of the audio outputs; and receiving the at least one input from the user. a non-transitory memory storing a software component library for use with an interactive voice response flow information; and one or more hardware processors configured to execute instructions to cause the system to perform operations comprising: determining the IVR flow information from each webpage element of a plurality of webpage elements in a webpage, wherein the IVR flow information comprises a sequence of audio outputs for presentation of the plurality of webpage elements to a user using a device; transmitting the software component library to the device for processing on a user initiation to present an IVR interface to the user using the IVR flow information, wherein the user utilizes the IVR interface to enter at least one input to at least one of the plurality of webpage elements in response to the sequence of the audio outputs; and receiving the at least one input from the user. determining the IVR flow information from each webpage element of a plurality of webpage elements in a webpage, wherein the IVR flow information comprises a sequence of audio outputs for presentation of the plurality of webpage elements to a user using a device; transmitting the software component library to the device for processing on a user initiation to present an IVR interface to the user using the IVR flow information, wherein the user utilizes the IVR interface to enter at least one input to at least one of the plurality of webpage elements in response to the sequence of the audio outputs; and receiving the at least one input from the user.
A method of forming a functional razor cartridge for repeated shaving, comprising the steps of: a) additive manufacturing a housing of said razor cartridge, wherein said housing comprises a front wall, a rear wall and opposing side walls disposed transverse to and between said front and rear walls (14, 16); b) direct metal laser sintering a metal insert, the metal insert comprising a front wall, a rear wall, opposing side walls disposed transverse to and between said front and rear walls (32, 34) and a strut extending between the front and rear walls (32, 34); c) wire eroding said opposing side walls and said strut to form slots for receiving therein said one or more elongate blade assemblies; d) loading the metal insert with one or more elongate blade assemblies; and e) disposing said metal insert in the housing such that said one or more blade assemblies extend between said opposing side walls. a) additive manufacturing a housing of said razor cartridge, wherein said housing comprises a front wall, a rear wall and opposing side walls disposed transverse to and between said front and rear walls (14, 16); b) direct metal laser sintering a metal insert, the metal insert comprising a front wall, a rear wall, opposing side walls disposed transverse to and between said front and rear walls (32, 34) and a strut extending between the front and rear walls (32, 34); c) wire eroding said opposing side walls and said strut to form slots for receiving therein said one or more elongate blade assemblies; d) loading the metal insert with one or more elongate blade assemblies; and e) disposing said metal insert in the housing such that said one or more blade assemblies extend between said opposing side walls.
Process for producing polymeric carbodiimides of formula R 1 -R 2 -(-N=C=N-R 2 -) m -R 1, in which m represents an integer from 2 to 500, preferably 3 to 20, very particularly preferably 4 to 10, R 2 = C 1 -C 18 -alkylene, C 5 -C 18 -cycloalkylene, arylene, C 7 -C 18 -alkylarylene and/or C 7 -C 18 -aralkylene, preferably alkylarylene and/or C 7 -C 18 -aralkylene and R 1 = -NCO, -NCNR 2, -NHCONHR 4, -NHCONR 4 R 5 or -NHCOOR 6, wherein in R 1 independently of one another R 4 and R 5 are identical or different and represent a C 1 -C 6 -alkyl, C 6 -C 10 -cycloalkyl or C 7 -C 18 -aralkyl radical and R 6 represents a polyester or a polyamide radical or -(CH 2) h -O-[(CH 2) k -O] g -R 7, where h = 1-3, k = 1-3, g = 0-12 and R 7 = H or C 1 -C 4 -alkyl, characterized in that isocyanate-containing compounds of formula O=C=N-R 2 -R 1, optionally in the presence of isocyanate-containing compounds of formula O=C=N-R 2 ' wherein R 1 and R 2 are as defined above, are converted (carbodiimidized) in the presence of at least one basic cesium salt at temperatures between 120°C to 220°C, preferably 160°C to 200°C, very particularly preferably 180°C to 200°C. m represents an integer from 2 to 500, preferably 3 to 20, very particularly preferably 4 to 10, R 2 = C 1 -C 18 -alkylene, C 5 -C 18 -cycloalkylene, arylene, C 7 -C 18 -alkylarylene and/or C 7 -C 18 -aralkylene, preferably alkylarylene and/or C 7 -C 18 -aralkylene and R 1 = -NCO, -NCNR 2, -NHCONHR 4, -NHCONR 4 R 5 or -NHCOOR 6, wherein in R 1 independently of one another R 4 and R 5 are identical or different and represent a C 1 -C 6 -alkyl, C 6 -C 10 -cycloalkyl or C 7 -C 18 -aralkyl radical and R 6 represents a polyester or a polyamide radical or -(CH 2) h -O-[(CH 2) k -O] g -R 7, where h = 1-3, k = 1-3, g = 0-12 and R 7 = H or C 1 -C 4 -alkyl, characterized in that isocyanate-containing compounds of formula O=C=N-R 2 -R 1, optionally in the presence of isocyanate-containing compounds of formula O=C=N-R 2 ' wherein R 1 and R 2 are as defined above, are converted (carbodiimidized) in the presence of at least one basic cesium salt at temperatures between 120°C to 220°C, preferably 160°C to 200°C, very particularly preferably 180°C to 200°C.
An actuator (21; 21A; 21B; 21B'; 21C) comprising a gas generator configured to generate an actuating gas when actuated, wherein the actuator further comprises a housing section (22; 22B; 22C) that houses and holds the gas generator and a pressing section (52; 52B; 52C) that is deployable, when pressed by an actuating gas generated by the gas generator, in such a fashion as to move forward relative to the housing section (22; 22B; 22C) and be separated from the housing section (22; 22B; 22C); the pressing section (52; 52B; 52C) includes a sliding portion that is slidable against a sliding portion of the housing section (22; 22B; 22C) such that the pressing section (52; 52B; 52C) and the housing section (22; 22B; 22C) are slidable against each other; the sliding portion of the housing section (22; 22B; 22C) serves as an inner section that is located closer to a moving central axis of the pressing section (52; 52B; 52C) than the sliding portion of the pressing section (52; 52B; 52C) whereas the sliding portion of the pressing section (52; 52B; 52C) serves as an outer section that surrounds the inner section; the gas generator is located closer to the moving central axis than the sliding portion of the pressing section (52; 52B; 52C) and partially overlaps with a part of the pressing section (52; 52B; 52C) in an inactive state in a direction orthogonal to the moving central axis; the housing section (22; 22B; 22C) includes at a leading end thereof an opening end for releasing an actuating gas and houses the gas generator; the sliding portion of the housing section (22; 22B; 22C) is located on an outer circumference of the housing section (22; 22B; 22C); the housing section (22; 22B; 22C) serves as an inner member; the pressing section (52; 52B; 52C) includes a ceiling wall that covers the opening end of the housing section (22; 22B; 22C) and a circumferential wall that covers a region of the outer circumference of the housing section (22; 22B; 22C) from an outer peripheral edge of the ceiling wall up to at least an area where the gas generator is located; the sliding portion of the pressing section (52; 52B; 52C) to slide against the sliding portion of the housing section (22; 22B; 22C) is composed of an inner circumference of the circumferential wall; and the pressing section (52; 52B; 52C) serves as an outer member that surrounds the housing section (22; 22B; 22C) as the inner member.
A connector for the mechanical connection of a frame profile to a mullion, transom or muntin profile in window and door construction, comprising: a connecting plate for resting on the frame profile; and at least one abutment element (18, 18') for abutting against a wall of the mullion, transom or muntin profile, wherein the at least one abutment element (18, 18') is configured to be movable about an axis and has a substantially L-shaped geometry, wherein the L-shaped geometry of the abutment element/abutment elements (18, 18') comprises a long leg and a short leg that is arranged substantially perpendicularly thereto, characterised in that the connecting plate contains recesses for receiving the short legs. a connecting plate for resting on the frame profile; and at least one abutment element (18, 18') for abutting against a wall of the mullion, transom or muntin profile, wherein the at least one abutment element (18, 18') is configured to be movable about an axis and has a substantially L-shaped geometry, wherein the L-shaped geometry of the abutment element/abutment elements (18, 18') comprises a long leg and a short leg that is arranged substantially perpendicularly thereto, characterised in that the connecting plate contains recesses for receiving the short legs.
A method of manufacturing snack food chips, the method comprising the steps of: i. providing a first starch-containing component which comprises a cold water swelling starch, a second starch-containing component which comprises substantially ungelatinized starch, and a third starch-containing component which comprises fresh corn masa that is ungelatinized; ii. forming a dough from a mixture of the first, second and third starch-containing components and water, the cold water swelling starch forming a gel matrix in the dough; iii. forming a dough sheet from the dough; iv. cutting a plurality of dough pieces from the dough sheet; and v. cooking the dough pieces to form a plurality of snack food chips, the cooking step being carried out to cause the substantially ungelatinized starch in the second starch-containing component to gelatinize, the snack food chips comprising a starch matrix formed from the first and second starch-containing components, and substantially ungelatinized corn masa particles dispersed in the starch matrix, wherein the cooking comprises or consists of frying and the frying temperature is from 160 to 200 °C and the frying time is from 15 to 30 seconds. i. providing a first starch-containing component which comprises a cold water swelling starch, a second starch-containing component which comprises substantially ungelatinized starch, and a third starch-containing component which comprises fresh corn masa that is ungelatinized; ii. forming a dough from a mixture of the first, second and third starch-containing components and water, the cold water swelling starch forming a gel matrix in the dough; iii. forming a dough sheet from the dough; iv. cutting a plurality of dough pieces from the dough sheet; and v. cooking the dough pieces to form a plurality of snack food chips, the cooking step being carried out to cause the substantially ungelatinized starch in the second starch-containing component to gelatinize, the snack food chips comprising a starch matrix formed from the first and second starch-containing components, and substantially ungelatinized corn masa particles dispersed in the starch matrix, wherein the cooking comprises or consists of frying and the frying temperature is from 160 to 200 °C and the frying time is from 15 to 30 seconds.
A makeup brush, comprising a bristle head and a brush handle, wherein the bristle head is a combination of a brush head and a bristle sheet, and the bristle sheet is tightly bonded to an outer root of the brush head a height of the bristle sheet is less than that of an edge of the brush head; the bristle sheet comprises a first bristle sheet layer and a second bristle sheet layer; and a height of the second bristle sheet layer is greater than that of the first bristle sheet layer; characterized in that the first bristle sheet layer abuts against the brush head and has a hardness greater than that of a bristle of the brush head; the second bristle sheet layer is provided on an outer side of the first bristle sheet layer and has a hardness smaller than that of the bristle of the brush head. and a height of the second bristle sheet layer is greater than that of the first bristle sheet layer; characterized in that the first bristle sheet layer abuts against the brush head and has a hardness greater than that of a bristle of the brush head; the second bristle sheet layer is provided on an outer side of the first bristle sheet layer and has a hardness smaller than that of the bristle of the brush head.
A method for manufacturing a perforated composite part, the method comprising: producing a precursor comprising structural fibres embedded in a partially cured or fully cured matrix material and interposed between two removable plies, the precursor also comprising a sacrificial fibre extending through the removable plies, the matrix material and between the structural fibres; removing at least one of the removable plies from the precursor; and characterized by removing the sacrificial fibre from the precursor after removing the at least one of the removable plies to form a through hole in the precursor at a location of the sacrificial fibre. producing a precursor comprising structural fibres embedded in a partially cured or fully cured matrix material and interposed between two removable plies, the precursor also comprising a sacrificial fibre extending through the removable plies, the matrix material and between the structural fibres; removing at least one of the removable plies from the precursor; and characterized by removing the sacrificial fibre from the precursor after removing the at least one of the removable plies to form a through hole in the precursor at a location of the sacrificial fibre.
A selective laser solidification method comprising; depositing a plurality of successive powder layers onto a powder bed, generating a flow of gas from an inlet on one side of the powder bed to an outlet on an opposite side of the powder bed such that the flow of gas passes over the powder bed in a gas flow direction, and scanning a laser beam over each successive powder layer in a scanning sequence to selectively solidify at least part of the powder layer to form one or more objects, the scanning sequence characterised by areas to be solidified in each successive layer being scanned in an order such that each area of the successive layer located downwind in the gas flow direction of another area of the successive layer is scanned before the other area.
A method for wireless communication, comprising: identifying a first component carrier, CC, and a second CC configured for a user equipment, UE, for carrier aggregation, the first and second CCs being associated with different system configurations, wherein the different system configurations comprise a first uplink-downlink configuration for the first CC and a second uplink-downlink configuration for the second CC, wherein the first and second uplink-downlink configurations are different; sending multiple uplink grants on the first CC in a first subframe to schedule the UE for uplink data transmission on the second CC, the multiple uplink grants being for the second CC and uplink data transmissions in multiple subframes and being sent on the first CC based on a Hybrid Automatic Repeat Request, HARQ, transmission timeline for the first CC; receiving uplink data transmission sent on the second CC by the UE based on the multiple uplink grants; determining acknowledgements/negative acknowledgements, ACK/NACK for the uplink data transmission; and sending acknowledgements/negative acknowledgements, ACK/NACK, on the first CC in a second subframe determined based on a Hybrid Automatic Repeat Request, HARQ, transmission timeline for the first CC, wherein the HARQ transmission timeline is associated with each uplink subframe of the uplink-downlink configuration and indicates the first subframe and the second subframe. identifying a first component carrier, CC, and a second CC configured for a user equipment, UE, for carrier aggregation, the first and second CCs being associated with different system configurations, wherein the different system configurations comprise a first uplink-downlink configuration for the first CC and a second uplink-downlink configuration for the second CC, wherein the first and second uplink-downlink configurations are different; sending multiple uplink grants on the first CC in a first subframe to schedule the UE for uplink data transmission on the second CC, the multiple uplink grants being for the second CC and uplink data transmissions in multiple subframes and being sent on the first CC based on a Hybrid Automatic Repeat Request, HARQ, transmission timeline for the first CC; receiving uplink data transmission sent on the second CC by the UE based on the multiple uplink grants; determining acknowledgements/negative acknowledgements, ACK/NACK for the uplink data transmission; and sending acknowledgements/negative acknowledgements, ACK/NACK, on the first CC in a second subframe determined based on a Hybrid Automatic Repeat Request, HARQ, transmission timeline for the first CC, wherein the HARQ transmission timeline is associated with each uplink subframe of the uplink-downlink configuration and indicates the first subframe and the second subframe.
A water management unit comprising: an elongate collection portion; and an extraction portion arranged to discharge extracted water into the collection portion, wherein the extraction portion comprises at least one rib extending laterally from the collection portion along a length of the collection portion; and wherein the extraction portion further comprises a water extraction formation arranged to extract water by capillary action located on the underside of the at least one rib; characterised in that the at least one rib comprises a plurality of parallel rods spaced apart for capillary action water extraction. an elongate collection portion; and an extraction portion arranged to discharge extracted water into the collection portion, wherein the extraction portion comprises at least one rib extending laterally from the collection portion along a length of the collection portion; and wherein the extraction portion further comprises a water extraction formation arranged to extract water by capillary action located on the underside of the at least one rib; characterised in that the at least one rib comprises a plurality of parallel rods spaced apart for capillary action water extraction.
Use of guanidinoacetic acid and/or salts thereof, in combination with choline and/or betaine, for producing an agent for improving brain function in humans or vertebrates, wherein the molar ratio of the amount of guanidinoacetic acid used to choline and/or betaine is in the range of 1:1.
A brake device for an elevator system, comprising: a fixed member; a moving member (2, 21, 22, 23) that is movable between a retracted position and a braking position so as to realize switching of the moving member (2, 21, 22, 23) between an attracting state and a braking state, respectively; an elastic member (51, 52), disposed between the moving member (2, 21, 22, 23) and the fixed member, for providing a spring force tending to push the moving member (2, 21, 22, 23) toward the braking position; a coil (61, 62) configured to produce an electromagnetic force tending to drive the moving member (2, 21, 22, 23) to move toward the retracted position when energized; and a controller configured to control a magnitude of the electromagnetic force produced by the coil (61, 62) to change in a process of testing the spring force of the elastic member (51, 52), and to acquire information of the corresponding electrical signal for controlling the magnitude of the electromagnetic force when the moving member (2, 21, 22, 23) switches from the attracting state to the braking state so as to evaluate the spring force being tested; characterized in that: the electrical signal is represented as a pulse width modulation voltage signal, the information of the electrical signal including voltage magnitude information corresponding to a duty cycle of the pulse width modulation voltage signal. a fixed member; a moving member (2, 21, 22, 23) that is movable between a retracted position and a braking position so as to realize switching of the moving member (2, 21, 22, 23) between an attracting state and a braking state, respectively; an elastic member (51, 52), disposed between the moving member (2, 21, 22, 23) and the fixed member, for providing a spring force tending to push the moving member (2, 21, 22, 23) toward the braking position; a coil (61, 62) configured to produce an electromagnetic force tending to drive the moving member (2, 21, 22, 23) to move toward the retracted position when energized; and a controller configured to control a magnitude of the electromagnetic force produced by the coil (61, 62) to change in a process of testing the spring force of the elastic member (51, 52), and to acquire information of the corresponding electrical signal for controlling the magnitude of the electromagnetic force when the moving member (2, 21, 22, 23) switches from the attracting state to the braking state so as to evaluate the spring force being tested; characterized in that: the electrical signal is represented as a pulse width modulation voltage signal, the information of the electrical signal including voltage magnitude information corresponding to a duty cycle of the pulse width modulation voltage signal.