mhurhangee/patent-ind-claim-en huggingface dataset:
A product carrier for transporting food products, in particular chocolate products, in a transport device , in particular in a system for producing food products, wherein the product carrier has an upper side for placing and/or inserting products and a lower side opposite to the upper side , the product carrier has a rectangular basic shape with longitudinal sides having a length (l) in a longitudinal direction (L) and with wide sides having a width (b) in a width direction (B) perpendicular to the longitudinal direction (L), characterized in that on the longitudinal sides , the product carrier has longitudinal edge strips which are situated opposite one another and each of which has a drive recess , wherein the drive recesses of the two longitudinal edge strips are open in a direction (R) facing away from the upper side , have a longitudinal extent of greater than 50 %, preferably greater than 80c%, of the length (l) of the product carrier and have stop edges in and counter to the longitudinal direction (L), and on the wide sides , the product carrier has wide-side edge strips which are situated opposite one another and each have at least one guide recess , wherein the guide recesses of the wide-side edge strips are open in a direction (R) facing away from the upper side , such that web guide of a transport system, which web guide runs along the transport direction, can engage in the guide recesses so that the product carrier is supported from the lower side, and wherein the guide recesses have a width extent of less than 10 %, preferably less than 5 %, of the width (b) of the product carrier . wherein the product carrier has an upper side for placing and/or inserting products and a lower side opposite to the upper side , the product carrier has a rectangular basic shape with longitudinal sides having a length (l) in a longitudinal direction (L) and with wide sides having a width (b) in a width direction (B) perpendicular to the longitudinal direction (L), characterized in that on the longitudinal sides , the product carrier has longitudinal edge strips which are situated opposite one another and each of which has a drive recess , wherein the drive recesses of the two longitudinal edge strips are open in a direction (R) facing away from the upper side , have a longitudinal extent of greater than 50 %, preferably greater than 80c%, of the length (l) of the product carrier and have stop edges in and counter to the longitudinal direction (L), and on the wide sides , the product carrier has wide-side edge strips which are situated opposite one another and each have at least one guide recess , wherein the guide recesses of the wide-side edge strips are open in a direction (R) facing away from the upper side , such that web guide of a transport system, which web guide runs along the transport direction, can engage in the guide recesses so that the product carrier is supported from the lower side, and wherein the guide recesses have a width extent of less than 10 %, preferably less than 5 %, of the width (b) of the product carrier .
A leak test system for leak testing at least one battery cell, said cell being sealed and comprising parts and substances which are necessary to the operation of the battery cell, the system comprising the following components: - a vacuum chamber , - a vacuum pump connected to said vacuum chamber , - a detecting and measuring system connected to said vacuum chamber to detect gases and/or vapors which can leak from said cell, said gases and/or vapors deriving from the parts and/or the substances inside in the cell, and - a capillary element which connects the detecting and measuring system to the vacuum chamber and through which the gases and/or vapors leaking from said cell flow, characterized in that said leak test system further comprises heating devices adapted to heat at least one of said components of the leak test system to prevent residues of the gases and/or vapors leaking from the cell from being deposited on the internal walls of said components, thereby making the leak test system substantially memory-free. - a vacuum chamber , - a vacuum pump connected to said vacuum chamber , - a detecting and measuring system connected to said vacuum chamber to detect gases and/or vapors which can leak from said cell, said gases and/or vapors deriving from the parts and/or the substances inside in the cell, and - a capillary element which connects the detecting and measuring system to the vacuum chamber and through which the gases and/or vapors leaking from said cell flow,
An absorbent article , comprising: a polymer sheet including a superabsorbent polymer disposed between an upper-layer sheet disposed on a skin side and a lower-layer sheet disposed on a non-skin side; and an embossment that is formed on a skin-side surface of the polymer sheet along a longitudinal direction of the absorbent article and is shaped like a discontinuous line formed by arranging compressed parts and non-compressed parts alternately, wherein a ratio A:B of a length A of each of the compressed parts to a length B of each of the non-compressed parts is between 7:1 and 1:1. a polymer sheet including a superabsorbent polymer disposed between an upper-layer sheet disposed on a skin side and a lower-layer sheet disposed on a non-skin side; and an embossment that is formed on a skin-side surface of the polymer sheet along a longitudinal direction of the absorbent article and is shaped like a discontinuous line formed by arranging compressed parts and non-compressed parts alternately, wherein a ratio A:B of a length A of each of the compressed parts to a length B of each of the non-compressed parts is between 7:1 and 1:1.
A method performed by a terminal in a communication system, the method comprising: determining (S1410) a reference subcarrier spacing; receiving (S1420), from a base station, physical random access channel, PRACH, configuration information including a PRACH configuration index; determining (S1430) time resources of a random access preamble based on the reference subcarrier spacing and the PRACH configuration information; and transmitting (S1440), to the base station, the random access preamble based on the time resources; wherein the time resources, in which the random access preamble is to be transmitted, are determined based on the reference subcarrier spacing and the PRACH configuration index. determining (S1410) a reference subcarrier spacing; receiving (S1420), from a base station, physical random access channel, PRACH, configuration information including a PRACH configuration index; determining (S1430) time resources of a random access preamble based on the reference subcarrier spacing and the PRACH configuration information; and transmitting (S1440), to the base station, the random access preamble based on the time resources; wherein the time resources, in which the random access preamble is to be transmitted, are determined based on the reference subcarrier spacing and the PRACH configuration index.
A method performed by an access terminal for radio link monitoring on a shared communication medium, the method comprising: detecting a missed Discovery reference signaling, DRS, event associated with a radio link established on the shared communication medium between the access terminal and an access point, wherein detecting the missed DRS event comprises determining that the access terminal did not detect a Cell-specific Reference Signal, CRS, for measuring a quality of the radio link transmitted during a DRS Measurement Timing Configuration, DMTC, window; assigning a Block Error Rate, BLER, weight to the missed DRS event based on reference signal monitoring capabilities of the access terminal, wherein assigning the BLER weight comprises: assigning a first value to the BLER weight based on the access terminal being capable of monitoring multiple CRS opportunities in multiple subframes of the radio link reserved for CRS transmission; or assigning a second value to the BLER weight based on the access terminal not being capable of monitoring multiple CRS opportunities in multiple subframes of the radio link reserved for CRS transmission, wherein the first value is greater than the second value; and triggering a radio link failure based on the assigned BLER weight detecting a missed Discovery reference signaling, DRS, event associated with a radio link established on the shared communication medium between the access terminal and an access point, wherein detecting the missed DRS event comprises determining that the access terminal did not detect a Cell-specific Reference Signal, CRS, for measuring a quality of the radio link transmitted during a DRS Measurement Timing Configuration, DMTC, window; assigning a Block Error Rate, BLER, weight to the missed DRS event based on reference signal monitoring capabilities of the access terminal, wherein assigning the BLER weight comprises: assigning a first value to the BLER weight based on the access terminal being capable of monitoring multiple CRS opportunities in multiple subframes of the radio link reserved for CRS transmission; or assigning a second value to the BLER weight based on the access terminal not being capable of monitoring multiple CRS opportunities in multiple subframes of the radio link reserved for CRS transmission, wherein the first value is greater than the second value; and assigning a first value to the BLER weight based on the access terminal being capable of monitoring multiple CRS opportunities in multiple subframes of the radio link reserved for CRS transmission; or assigning a second value to the BLER weight based on the access terminal not being capable of monitoring multiple CRS opportunities in multiple subframes of the radio link reserved for CRS transmission, wherein the first value is greater than the second value; and triggering a radio link failure based on the assigned BLER weight
A labor-saving tent frame, comprising an upper hub , a lower hub and a drawstring structure, wherein the upper hub is articulated with inner ends of a plurality of long ribs , the lower hub is articulated with inner ends of a plurality of short ribs , and outer ends of the short ribs are articulated to middle portions of the long ribs in one-to-one correspondence; the tent frame further comprises a long-short-rib articulated torsion spring provided with a first force arm of the torsion spring and a second force arm of the torsion spring, and the long ribs and the short ribs are fixed to the first force arm and the second force arm of the torsion spring respectively; the drawstring structure comprises a drawstring with which the upper hub and the lower hub may be pulled closer, and two pulling ends of the drawstring hang down below the lower hub.
A system comprising: a stimulation generator configured to generate and deliver electrical stimulation therapy to a patient via at least one electrode; and a processor configured to control the stimulation generator to: generate a lower intensity electrical stimulation signal comprising a plurality of pulses; and deliver the lower intensity electrical stimulation signal to the patient via at least one electrode to a first anatomical location near a spine of the patient characterized in that the lower intensity electrical stimulation signal has a stimulation intensity of less than or equal to 40% of a paresthesia threshold or perception threshold of the patient. a stimulation generator configured to generate and deliver electrical stimulation therapy to a patient via at least one electrode; and a processor configured to control the stimulation generator to: generate a lower intensity electrical stimulation signal comprising a plurality of pulses; and deliver the lower intensity electrical stimulation signal to the patient via at least one electrode to a first anatomical location near a spine of the patient generate a lower intensity electrical stimulation signal comprising a plurality of pulses; and deliver the lower intensity electrical stimulation signal to the patient via at least one electrode to a first anatomical location near a spine of the patient
Use of a Lewis base to recover free fibers from a fiber reinforced polymer, wherein the Lewis base has a boiling point of at least 150°C at one atmosphere of pressure; wherein the Lewis base is one or more of triphenylphosphine oxide, triphenylphosphine sulfide, triphenylphosphine, triphenylphosphine selenide, 4-(dimethylamino)phenyldiphenylphosphine, tributyl phosphine oxide, tris(2-ethylhexyl)phosphine oxide, phenylbis(2,4,6-trimethylbenzoyl)phosphine oxide, trioctylphosphine oxide, triethylphosphine oxide, diphenylphosphine oxide, methyldiphenylphosphine oxide and Lawesson's reagent, each of which may be optionally substituted with one or more substituents selected from halogen, nitrate, sulfonic acid, alkyl, alkenyl, phenyl and aldehyde; and wherein the fiber reinforced polymer comprises a matrix material selected from an epoxy resin or a thermoset or thermoplastic polymer selected from polyester, vinyl ester, phenol formaldehyde resins and nylon resins. wherein the Lewis base is one or more of triphenylphosphine oxide, triphenylphosphine sulfide, triphenylphosphine, triphenylphosphine selenide, 4-(dimethylamino)phenyldiphenylphosphine, tributyl phosphine oxide, tris(2-ethylhexyl)phosphine oxide, phenylbis(2,4,6-trimethylbenzoyl)phosphine oxide, trioctylphosphine oxide, triethylphosphine oxide, diphenylphosphine oxide, methyldiphenylphosphine oxide and Lawesson's reagent, each of which may be optionally substituted with one or more substituents selected from halogen, nitrate, sulfonic acid, alkyl, alkenyl, phenyl and aldehyde; and wherein the fiber reinforced polymer comprises a matrix material selected from an epoxy resin or a thermoset or thermoplastic polymer selected from polyester, vinyl ester, phenol formaldehyde resins and nylon resins.
Method for separating at least a light phase from a heavy phase, which phases are present in a mixture, wherein the heavy phase is a liquid phase and the light phase is either a liquid phase or a solid phase, wherein either the heavy phase is comprised of black liquor from the boiling step of a process for producing pulp according to the kraft process and the light phase is comprised of crude tall oil soap comprised in the black liquor, wherein the method comprises the step of a) in a first separating step , performing a first separation of the mixture in a first centrifugal separator (131,132,133;200;300), resulting in a first heavy fraction comprised of the heavy phase with only small amounts of impurities in the form of the light phase and a first light fraction comprised of the light phase with impurities in the form of the heavy phase; characterized in that the method further comprises the step of b) in a second separating step , performing a second separation of the first light fraction in a second centrifugal separator (141;400) of purificator type, resulting in a second heavy fraction comprised of the heavy phase with impurities in the form of the light phase and a second light fraction comprised of the light phase with only small amounts of impurities in the form of the heavy phase; wherein at least the second centrifugal separator (141;400) is of hermetically closed type. a) in a first separating step , performing a first separation of the mixture in a first centrifugal separator (131,132,133;200;300), resulting in a first heavy fraction comprised of the heavy phase with only small amounts of impurities in the form of the light phase and a first light fraction comprised of the light phase with impurities in the form of the heavy phase; characterized in that the method further comprises the step of b) in a second separating step , performing a second separation of the first light fraction in a second centrifugal separator (141;400) of purificator type, resulting in a second heavy fraction comprised of the heavy phase with impurities in the form of the light phase and a second light fraction comprised of the light phase with only small amounts of impurities in the form of the heavy phase;
Method for preheating at least one mould for a tyre heating press, wherein the preheating is carried out before the mould is arranged in the region of the tyre heating press, in which a coupling is used to apply a heating medium to the mould, wherein a holding container and an insulating hood are used, and wherein the holding container for holding the mould is held by a frame , wherein the insulating hood is positioned relative to the holding container in such a way that the insulating hood is moved in a vertical direction, and that the preheating of the mould is carried out within the holding container.
A needle mechanism module , comprising: a rail housing component ; a slide insert component coupled to the rail housing component and configured to slide along the rail housing component ; a slide retract component coupled to the rail housing component and configured to slide along the rail housing component ; a hard stop component coupled to a first end of the rail housing component , the slide insert component and the slide retract component positioned toward a second, opposite end of the rail housing component , the slide insert component positioned closer to the hard stop component ; an insert extension spring coupled to the hard stop component and to the slide insert component ; a retract compression spring positioned between the slide insert component and the slide retract component ; a tension lock component positioned through the slide insert component and the slide retract component and configured to couple the slide insert component to the slide retract component ; an insert lock positioned against the slide insert component and configured to restrict movement of the slide insert component and the slide retract component toward the hard stop by the insert spring ; a needle coupled to the slide insert component and the slide retract component , the needle further coupled to a liquid drug stored in a reservoir of a wearable drug delivery device; and a cannula surrounding a portion of the needle extending from the slide insert component , an end of the cannula coupled to the slide insert component . a rail housing component ; a slide insert component coupled to the rail housing component and configured to slide along the rail housing component ; a slide retract component coupled to the rail housing component and configured to slide along the rail housing component ; a hard stop component coupled to a first end of the rail housing component , the slide insert component and the slide retract component positioned toward a second, opposite end of the rail housing component , the slide insert component positioned closer to the hard stop component ; an insert extension spring coupled to the hard stop component and to the slide insert component ; a retract compression spring positioned between the slide insert component and the slide retract component ; a tension lock component positioned through the slide insert component and the slide retract component and configured to couple the slide insert component to the slide retract component ; an insert lock positioned against the slide insert component and configured to restrict movement of the slide insert component and the slide retract component toward the hard stop by the insert spring ; a needle coupled to the slide insert component and the slide retract component , the needle further coupled to a liquid drug stored in a reservoir of a wearable drug delivery device; and a cannula surrounding a portion of the needle extending from the slide insert component , an end of the cannula coupled to the slide insert component .
A method of producing a nanoscale tall oil pitch emulsion, wherein the method comprises the following steps: a) providing an aqueous solution of an alkaline agent, wherein the aqueous solution has a pH in the range of 8 to 13, b) providing tall oil rosin, c) mixing the tall oil rosin with the aqueous solution of the alkaline agent to produce a tall oil rosin solution, d) providing a co-surfactant, e) mixing the co-surfactant with the tall oil rosin solution to produce a co-surfactant - tall oil rosin solution, f) providing tall oil pitch, g) adding the tall oil pitch gradually to the co-surfactant - tall oil rosin solution under continuous homogenization in a homogenizer to produce the nanoscale tall oil pitch emulsion, wherein the co-surfactant is an organic solvent having a hydrocarbon chain of 1 to 6 carbons, and wherein the homogenizer is a high pressure valve homogenizer, microfluidizer, or a sonicator, preferably an ultrasonicator. a) providing an aqueous solution of an alkaline agent, wherein the aqueous solution has a pH in the range of 8 to 13, b) providing tall oil rosin, c) mixing the tall oil rosin with the aqueous solution of the alkaline agent to produce a tall oil rosin solution, d) providing a co-surfactant, e) mixing the co-surfactant with the tall oil rosin solution to produce a co-surfactant - tall oil rosin solution, f) providing tall oil pitch, g) adding the tall oil pitch gradually to the co-surfactant - tall oil rosin solution under continuous homogenization in a homogenizer to produce the nanoscale tall oil pitch emulsion, wherein the co-surfactant is an organic solvent having a hydrocarbon chain of 1 to 6 carbons, and wherein the homogenizer is a high pressure valve homogenizer, microfluidizer, or a sonicator, preferably an ultrasonicator. wherein the co-surfactant is an organic solvent having a hydrocarbon chain of 1 to 6 carbons, and wherein the homogenizer is a high pressure valve homogenizer, microfluidizer, or a sonicator, preferably an ultrasonicator.
A method of producing nuclear fuel pellets with a burnable absorber, comprising preparing triuranium octoxide with a burnable absorber, preparing a molding powder therefrom, followed by its compression molding, sintering and polishing, characterized in that gadolinium hydroxycarbonate Gd(OH)CO 3 xH 2 O, or Gd(CO 3 ) 3 xH 2 O is used as the burnable absorber.