mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a chocolate mass for producing chocolate with a reduced energy value, comprising preparation of a water-in-oil emulsion, preparation of a chocolate composition and mixing of a melted chocolate composition with said emulsion, wherein, in order to prepare said chocolate composition, - an aqueous solution of erythritol is prepared, - said solution is mixed with a cocoa liquor, - a produced mixture is thickened and crystallized for producing a crumb comprising, wt.%: erythritol - 74-84, the cocoa liquor - 15-25, water - not more than 1.5; - the produced crumb is mixed with dietary fibers, cocoa products in the form of the cocoa liquor or a cocoa butter and, optionally, a milk powder in the following ingredient ratio, wt.%: the crumb - 30-60, the dietary fibers - 5-30, the cocoa liquor 30-40 and/or the cocoa butter - 12-15, the milk powder - 0-25, a melted chocolate composition being mixed with said emulsion in the following ingredient ratio, wt.%: the chocolate composition - 80-95, the emulsion - 5-20. - an aqueous solution of erythritol is prepared, - said solution is mixed with a cocoa liquor, - a produced mixture is thickened and crystallized for producing a crumb comprising, wt.%: erythritol - 74-84, the cocoa liquor - 15-25, water - not more than 1.5; erythritol - 74-84, the cocoa liquor - 15-25, water - not more than 1.5; - the produced crumb is mixed with dietary fibers, cocoa products in the form of the cocoa liquor or a cocoa butter and, optionally, a milk powder in the following ingredient ratio, wt.%: the crumb - 30-60, the dietary fibers - 5-30, the cocoa liquor 30-40 and/or the cocoa butter - 12-15, the milk powder - 0-25, a melted chocolate composition being mixed with said emulsion in the following ingredient ratio, wt.%: the chocolate composition - 80-95, the emulsion - 5-20. the crumb - 30-60, the dietary fibers - 5-30, the cocoa liquor 30-40 and/or the cocoa butter - 12-15, the milk powder - 0-25, the chocolate composition - 80-95, the emulsion - 5-20.
A gas turbine engine comprising: a core housing providing a core flow path (63,65); a fan; a compressor section comprising a first pressure compressor and a second pressure compressor upstream from the first pressure compressor, the second pressure compressor including multiple compressor stages (98,100); a shaft supporting a rotor of the second pressure compressor arranged within the core flow path (63,65), wherein the second pressure compressor is fluidly connected to the fan; first and second bearings (70,112) supporting the shaft relative to the core housing and are arranged radially inward of and axially overlapping with at least some of the multiple compressor stages (98,100); and a gear reduction; wherein the gas turbine engine is a high bypass geared aircraft engine having a bypass ratio of greater than six; wherein the gas turbine engine comprises three turbine rotors including a fan drive turbine, said fan drive turbine being configured to drive said fan, while each of the other two of said turbine rotors is configured to drive one of the first and second compressors (52,44), and wherein the gear reduction is positioned between the fan drive turbine and the fan. a core housing providing a core flow path (63,65); a fan; a compressor section comprising a first pressure compressor and a second pressure compressor upstream from the first pressure compressor, the second pressure compressor including multiple compressor stages (98,100); a shaft supporting a rotor of the second pressure compressor arranged within the core flow path (63,65), wherein the second pressure compressor is fluidly connected to the fan; first and second bearings (70,112) supporting the shaft relative to the core housing and are arranged radially inward of and axially overlapping with at least some of the multiple compressor stages (98,100); and a gear reduction; wherein the gas turbine engine is a high bypass geared aircraft engine having a bypass ratio of greater than six; wherein the gas turbine engine comprises three turbine rotors including a fan drive turbine, said fan drive turbine being configured to drive said fan, while each of the other two of said turbine rotors is configured to drive one of the first and second compressors (52,44), and wherein the gear reduction is positioned between the fan drive turbine and the fan.
A uterine treatment device, comprising: a shaft sized and configured for insertion into a uterus of a patient; inflow and outflow lumens (129, 131) disposed along a length of the shaft; at least one inflow port disposed at a distal end of the inflow lumen; at least one outflow port disposed at a distal end of the outflow lumen; a fluid reservoir disposed within a handle of the uterine treatment device and operatively coupled to the inflow and outflow lumens; one or more sensors configured to monitor a fluid level in the fluid reservoir; a fluid supply system connected to the fluid reservoir, the fluid supply system being configured to deliver fluid into the fluid reservoir; a pressure source connected to the fluid reservoir, the pressure source being configured to pressurize fluid in the fluid reservoir to deliver fluid from the reservoir into the uterus of the patient; a pressure regulator disposed between the pressure source and the fluid reservoir, the pressure regulator being configured to reduce a pressure from the pressure source to a predetermined pressure value; and a controller configured to activate the fluid supply system to deliver fluid into the fluid reservoir and deactivate the fluid supply system when the fluid level reaches an upper threshold, the controller being further configured to determine if there is a leak in the uterus based on a flow rate of the fluid supply system. a shaft sized and configured for insertion into a uterus of a patient; inflow and outflow lumens (129, 131) disposed along a length of the shaft; at least one inflow port disposed at a distal end of the inflow lumen; at least one outflow port disposed at a distal end of the outflow lumen; a fluid reservoir disposed within a handle of the uterine treatment device and operatively coupled to the inflow and outflow lumens; one or more sensors configured to monitor a fluid level in the fluid reservoir; a fluid supply system connected to the fluid reservoir, the fluid supply system being configured to deliver fluid into the fluid reservoir; a pressure source connected to the fluid reservoir, the pressure source being configured to pressurize fluid in the fluid reservoir to deliver fluid from the reservoir into the uterus of the patient; a pressure regulator disposed between the pressure source and the fluid reservoir, the pressure regulator being configured to reduce a pressure from the pressure source to a predetermined pressure value; and a controller configured to activate the fluid supply system to deliver fluid into the fluid reservoir and deactivate the fluid supply system when the fluid level reaches an upper threshold, the controller being further configured to determine if there is a leak in the uterus based on a flow rate of the fluid supply system.
Non-rail-bound vehicle, in particular a truck or bus, having a current collector for feeding electrical energy from a two-pole overhead contact line, the contact wires (1, 2) of which are formed as feed and return conductors, wherein the current collector has a linkage which on the contact wire side carries a rocker arrangement and on the vehicle side is coupled to an adjusting device for execution of an adjusting movement of the rocker arrangement oriented transversally to the vehicle longitudinal axis relative to the vehicle, characterised in that the rocker arrangement has contract strips by which the contact wires (1, 2) can be contacted, and that in the region of the rocker arrangement a vibration damper is arranged, which is designed to damp an intrinsic vibration of the rocker arrangement which can be stimulated in the adjusting movement direction.
A flexible tubular portion for an endoscope having a central axis, the flexible tubular portion comprising: a spiral tube including, along the longitudinal direction of the central axis, a closely wound portion to which an initial tension is applied, and sparsely wound portions (54a, 54b) provided on the distal side and the proximal side of the closely wound portion; and an outer layer (44, 46) covering the outside of the spiral tube; and further comprising an inhibiting portion (72; 130; 140; 150; 160; 170; 202, 204, 206;212; 45; 220; 250; 270) which inhibits the movement of at least a part of the sparsely wound portions relative to the outer layer in the longitudinal direction of the spiral tube. a spiral tube including, along the longitudinal direction of the central axis, a closely wound portion to which an initial tension is applied, and sparsely wound portions (54a, 54b) provided on the distal side and the proximal side of the closely wound portion; and an outer layer (44, 46) covering the outside of the spiral tube; and further comprising an inhibiting portion (72; 130; 140; 150; 160; 170; 202, 204, 206;212; 45; 220; 250; 270) which inhibits the movement of at least a part of the sparsely wound portions relative to the outer layer in the longitudinal direction of the spiral tube.
A reagent for assaying DNA, comprising: a plurality of encoded particles wherein a detectable code is embedded within the interior of the particles, the plurality of encoded particles having attached amplicons amplified from a template DNA sequence, each individual attached amplicon comprises a primer-derived DNA segment and a DNA sequence identical to a random portion of the template DNA sequence, wherein the amplicons together represent substantially the entire template DNA and wherein the nucleic acid sequence identical to a random portion of the template DNA sequence of each individual amplicon is shorter than the entire template DNA. a plurality of encoded particles wherein a detectable code is embedded within the interior of the particles, the plurality of encoded particles having attached amplicons amplified from a template DNA sequence, each individual attached amplicon comprises a primer-derived DNA segment and a DNA sequence identical to a random portion of the template DNA sequence, wherein the amplicons together represent substantially the entire template DNA and wherein the nucleic acid sequence identical to a random portion of the template DNA sequence of each individual amplicon is shorter than the entire template DNA.
An ink-jet head in which a head substrate is arranged opposite a wiring substrate having a wiring, and the head substrate includes: a pressure chamber that holds an ink; a nozzle that serves as a discharge hole of the ink within the pressure chamber; and an actuator that receives, with an electrode (15b, 15c) on a surface, power fed from the wiring of the wiring substrate and that discharges the ink within the pressure chamber through the nozzle, wherein the wiring substrate includes a first electrode that is electrically connected to the wiring and that protrudes to a side of the head substrate, the actuator includes a second electrode that is electrically connected to the electrode (15b, 15c), that protrudes to a side of the wiring substrate and that is electrically connected to the first electrode, the head substrate and the wiring substrate are adhered to each other through an adhesive layer such that a space to which the first electrode and the second electrode are exposed is hermetically sealed and the hermetically sealed space is in a vacuum state or is filled with a gas containing a predetermined amount of water or less, wherein the adhesive layer is formed with a thermosetting adhesive resin layer and a melting point of one of the first electrode and the second electrode is equal to or less than a curing temperature when the head substrate and the wiring substrate are joined together with the thermosetting adhesive resin layer. a pressure chamber that holds an ink; a nozzle that serves as a discharge hole of the ink within the pressure chamber; and an actuator that receives, with an electrode (15b, 15c) on a surface, power fed from the wiring of the wiring substrate and that discharges the ink within the pressure chamber through the nozzle, wherein the wiring substrate includes a first electrode that is electrically connected to the wiring and that protrudes to a side of the head substrate, the actuator includes a second electrode that is electrically connected to the electrode (15b, 15c), that protrudes to a side of the wiring substrate and that is electrically connected to the first electrode, the head substrate and the wiring substrate are adhered to each other through an adhesive layer such that a space to which the first electrode and the second electrode are exposed is hermetically sealed and the hermetically sealed space is in a vacuum state or is filled with a gas containing a predetermined amount of water or less, wherein the adhesive layer is formed with a thermosetting adhesive resin layer and a melting point of one of the first electrode and the second electrode is equal to or less than a curing temperature when the head substrate and the wiring substrate are joined together with the thermosetting adhesive resin layer.
A method for tuning performance of a motor drive, wherein the motor drive controls operation of a motor and wherein operation of the motor controls motion of a mechanical load coupled to the motor, the method comprising the steps of: measuring a response signal within the motor drive; storing a plurality of values of the response signal in a memory device of the motor drive; generating a first frequency response within the motor drive as a function of the plurality of values of the response signal; identifying a resonant frequency from the first frequency response; comparing the identified resonant frequency to a first threshold and a second threshold, wherein the first threshold is greater than the second threshold; adjusting (142; 260) a first control parameter when the identified resonant frequency is greater than the first threshold; adjusting (140; 254, 256) a second control parameter when the identified resonant frequency is between the first and the second thresholds; and adjusting (144; 262) a third control parameter when the identified resonant frequency is less than the second threshold. measuring a response signal within the motor drive; storing a plurality of values of the response signal in a memory device of the motor drive; generating a first frequency response within the motor drive as a function of the plurality of values of the response signal; identifying a resonant frequency from the first frequency response; comparing the identified resonant frequency to a first threshold and a second threshold, wherein the first threshold is greater than the second threshold; adjusting (142; 260) a first control parameter when the identified resonant frequency is greater than the first threshold; adjusting (140; 254, 256) a second control parameter when the identified resonant frequency is between the first and the second thresholds; and adjusting (144; 262) a third control parameter when the identified resonant frequency is less than the second threshold.
A converter unit comprising an ultrasonic transmission element (2, 2') having a transmission surface for transmitting an ultrasonic vibration to a tool which can be fixed to the transmission surface or to a material which is in contact therewith in the longitudinal direction along a longitudinal axis of the ultrasonic transmission element (2, 2'), and at least one ultrasonic transducer for generating an ultrasonic vibration with a propagation direction which is not oriented along the longitudinal direction, wherein the converter unit has an ultrasonic natural frequency, characterised in that the ultrasonic transducer is arranged in the propagation direction in a region within ± λ/4 about the longitudinal axis of the ultrasonic transmission element (2, 2'), wherein λ is the wavelength of the vibration belonging to the ultrasonic natural frequency.
A sound absorbing and insulating material comprising: a nonwoven fabric comprising 30-100 wt% of a heat-resistant fiber having a fineness of 1-15 denier, a yarn length of 20-100 mm, a limiting oxygen index of 25% or greater and a heat resistance temperature of 150 oC or greater; and a polyimide binder impregnated into the nonwoven fabric and present in the same layer as the nonwoven fabric, being distributed and attached on a yarn surface of the nonwoven fabric and maintaining a three-dimensional structure inside the nonwoven fabric by maintaining or further forming micro cavities of the nonwoven fabric, wherein the sound absorbing and insulating material is molded to correspond to a three-dimensional shape of an object to which the sound absorbing and insulating material is applied. a nonwoven fabric comprising 30-100 wt% of a heat-resistant fiber having a fineness of 1-15 denier, a yarn length of 20-100 mm, a limiting oxygen index of 25% or greater and a heat resistance temperature of 150 oC or greater; and a polyimide binder impregnated into the nonwoven fabric and present in the same layer as the nonwoven fabric, being distributed and attached on a yarn surface of the nonwoven fabric and maintaining a three-dimensional structure inside the nonwoven fabric by maintaining or further forming micro cavities of the nonwoven fabric, wherein the sound absorbing and insulating material is molded to correspond to a three-dimensional shape of an object to which the sound absorbing and insulating material is applied.
Method for localizing a marking unit of an object by means of a plurality of base units (12, 13, 14), wherein, for localizing, the marking unit determines whether it located in a reception area of the plurality of base units (12, 13, 14), in that the marking unit emits a transmission telegram during at least one prespecified transmission point in time, and operates a receiving device in order to receive a response telegram from one of the plurality of base units (12, 13, 14) as a response to the respective transmission telegram, wherein, in a synchronous mode, the marking unit defines the at least one transmission point in time by means of a prespecified transmission plan associated with one of the plurality of base units (12, 13, 14) and used in the synchronous mode, wherein, in the synchronous mode, the marking unit, in order to determine the transmission plan, determines its current movement profile by means of a movement sensor and, depending on the determined current movement profile, estimates, by means of a usage model which generates an indication of an estimated base unit (12, 13, 14) with respect to the determined movement profile, which of the plurality of base units (12, 13, 14) would need to currently be in transmission range and, depending on the estimated base unit, selects the transmission plan associated with the estimated base unit. wherein, in a synchronous mode, the marking unit defines the at least one transmission point in time by means of a prespecified transmission plan associated with one of the plurality of base units (12, 13, 14) and used in the synchronous mode, wherein, in the synchronous mode, the marking unit, in order to determine the transmission plan, determines its current movement profile by means of a movement sensor and, depending on the determined current movement profile, estimates, by means of a usage model which generates an indication of an estimated base unit (12, 13, 14) with respect to the determined movement profile, which of the plurality of base units (12, 13, 14) would need to currently be in transmission range and, depending on the estimated base unit, selects the transmission plan associated with the estimated base unit.
(2 S,3 S,4 S,5 S)-3- tert -butyl-4-{[(5-cyclobutyl-2-methoxypyridin-3-yl)methyl]amino}-1-[(2 S)-oxane-2-carbonyl]-5-[2-(propan-2-yl)phenyl]pyrrolidine-2-carboxylic acid or a pharmaceutically acceptable salt thereof.
Process for production of 9-amino-anthracycline-derivatives according to Formula 2 at least comprising two oxazolidine moieties at the anthracycline, at least comprising the steps of: a) Suspending 9-amino-anthracycline according to the following Formula 1 in an aprotic solvent wherein R 1 is selected from the group consisting of H, OH, OMe or F and R 2 is selected from the group consisting of methyl, ethyl or propyl; b) Reacting formaldehyde and the two 1,2 amino-alcohol-moieties of the 9-amino-anthracycline to form an anthracycline according to the following Formula 2 comprising two oxazolidine moieties a) Suspending 9-amino-anthracycline according to the following Formula 1 in an aprotic solvent wherein R 1 is selected from the group consisting of H, OH, OMe or F and R 2 is selected from the group consisting of methyl, ethyl or propyl; b) Reacting formaldehyde and the two 1,2 amino-alcohol-moieties of the 9-amino-anthracycline to form an anthracycline according to the following Formula 2 comprising two oxazolidine moieties
A reagent for clarifying oil/fat-in-water (O/W) emulsions comprising an aqueous solution of one or more salts having a water solubility of at least about 1 mole/l, one or more first nonionic surfactants having an HLB value of from 8.0 to 13.0 and a Cloud Point of from 0°C to 45°C and one or more second nonionic surfactants having an HLB value of 13.1 to 16.9 and a Cloud Point of 59°C to 100°C, wherein the reagent has a Cloud Point of equal to or less than 57°C, characterized in that the ratio of the amount of salt(s) to surfactant(s) is 0.25 moles to 2 moles per 100 g of total of surfactant(s) and the concentration of the salt(s) in the reagent is 0.5 to 12 moles/l.
A method for capturing rare cells in blood, comprising isolating rare cells in blood from blood, the method including a step of removing white blood cells using beads having magnetic properties, after blood filtration using a filter having a surface made of gold, platinum, palladium, or an alloy thereof, and the method comprising, before the blood filtration, a step of immersing the filter in an aqueous solution containing the serum or plasma of a mammal.
A transgenic mouse that is engineered by a deletion of endogenous Adam6a and Adam6b genes in a male mouse, wherein the mouse is homozygous for the deletion, and comprises in its genome only one exogenous Adam6 transgene, and expresses an ADAM6 protein comprising at least 90% sequence identity to SEQ ID NO:1 or SEQ ID NO:2, which Adam6 transgene is functional in a male mouse.
A wireless communication method, comprising: receiving, by a station (105, 107), a first frame from a first network device indicating a joint transmission to be performed by multiple access points, wherein the first frame includes a scheduling information for a secondary access point (103a, 103b) to perform the joint transmission and an indicator directing the station to forward the scheduling information to the secondary access point; and transmitting, by the station, a second frame to the secondary access point or a second intermediate device, wherein the second frame includes the scheduling information for the secondary access point to perform the joint transmission, wherein the secondary access point is configured to perform the joint transmission after a predetermined time duration. receiving, by a station (105, 107), a first frame from a first network device indicating a joint transmission to be performed by multiple access points, wherein the first frame includes a scheduling information for a secondary access point (103a, 103b) to perform the joint transmission and an indicator directing the station to forward the scheduling information to the secondary access point; and transmitting, by the station, a second frame to the secondary access point or a second intermediate device, wherein the second frame includes the scheduling information for the secondary access point to perform the joint transmission, wherein the secondary access point is configured to perform the joint transmission after a predetermined time duration.