mhurhangee/ep-ind-claims huggingface dataset:
A drug delivery device comprising: a drug container assembly containing a drug, and a plunger positioned within the container assembly, the drug container assembly having an outlet for dispensing the drug, wherein, in an initial position, the outlet is sealed; a drive mechanism comprising a first stored energy source operable to apply pressure on the plunger or the drug container assembly to pressurise the drug; a first release mechanism operable to unseal the outlet after the drug has been pressurised; characterised by a second release mechanism operable to release the first stored energy source or store energy within the first stored energy source to pressurise the drug, wherein the second release mechanism is operated by removing a cap or cover from the device. a drug container assembly containing a drug, and a plunger positioned within the container assembly, the drug container assembly having an outlet for dispensing the drug, wherein, in an initial position, the outlet is sealed; a drive mechanism comprising a first stored energy source operable to apply pressure on the plunger or the drug container assembly to pressurise the drug; a first release mechanism operable to unseal the outlet after the drug has been pressurised; characterised by a second release mechanism operable to release the first stored energy source or store energy within the first stored energy source to pressurise the drug, wherein the second release mechanism is operated by removing a cap or cover from the device.
An annular combustor for a gas turbine engine comprising: a radially outer support shell and a radially inner support shell; said inner and outer support shells (12, 14) forming a combustion chamber; an array of forward heat shield panels (18, 22) attached to said inner and outer support shells (12, 14); an array of rear heat shield panels (20, 24) attached to said inner and outer support shells (12, 14); said forward heat shield panels (18, 22) each having a plurality of dilution holes through which air passes into said combustion chamber; said rear heat shield panels (20, 24) each having a plurality of rails; characterized in that: said rails in each said rear heat shield panel (20, 24) are circumferentially offset from the dilution holes of the radially opposing forward heat shield panel (18, 22) to mitigate any loss of cooling effectiveness. a radially outer support shell and a radially inner support shell; said inner and outer support shells (12, 14) forming a combustion chamber; an array of forward heat shield panels (18, 22) attached to said inner and outer support shells (12, 14); an array of rear heat shield panels (20, 24) attached to said inner and outer support shells (12, 14); said forward heat shield panels (18, 22) each having a plurality of dilution holes through which air passes into said combustion chamber; said rear heat shield panels (20, 24) each having a plurality of rails; characterized in that: said rails in each said rear heat shield panel (20, 24) are circumferentially offset from the dilution holes of the radially opposing forward heat shield panel (18, 22) to mitigate any loss of cooling effectiveness. said rails in each said rear heat shield panel (20, 24) are circumferentially offset from the dilution holes of the radially opposing forward heat shield panel (18, 22) to mitigate any loss of cooling effectiveness.
A composition comprising: a recombinant multimeric lubricin glycoprotein expressed from a human PRG4 gene in a host cell culture, comprising at least 30% by weight glycosidic residues, wherein at least 90% by weight of glycosylation of the lubricin glycoprotein is core 1 glycosylation, and producing a dynamic coefficient of friction no greater than 150% of the dynamic coefficient of friction of purified native bovine lubricin as measured in a cartilage on cartilage friction test.
A method for the quantification of N-methyl-2-pyrrolidone in a sample from a steam cracking process of naphtha, comprising introducing a sample comprising NMP, if any, into a gas chromatography system coupled to a nitrogen phosphorous detector to produce a first signal for quantifying the amount of NMP in the sample, wherein the sample is generated from steam cracking of naphtha, wherein the sample is directly introduced from the steam cracking into the gas chromatography system without processing the sample prior to introducing the sample into the gas chromatography system, wherein the sample is not concentrated for NMP prior to the introduction of the sample into the gas chromatography system, said method being characterized in that the sample comprises 1,3-butadiene. introducing a sample comprising NMP, if any, into a gas chromatography system coupled to a nitrogen phosphorous detector to produce a first signal for quantifying the amount of NMP in the sample, wherein the sample is generated from steam cracking of naphtha, wherein the sample is directly introduced from the steam cracking into the gas chromatography system without processing the sample prior to introducing the sample into the gas chromatography system, wherein the sample is not concentrated for NMP prior to the introduction of the sample into the gas chromatography system, said method being characterized in that the sample comprises 1,3-butadiene.
Blade cascade segment (100, 200) of a blade cascade for a turbomachine, the blade cascade segment comprising a platform having a platform surface, and a first airfoil and a second airfoil, characterized in that the platform surface has a first elevation (110, 210) which extends as far as the pressure side of the first airfoil, and a second elevation (120, 220) which extends as far as the suction side of the second airfoil, and a boundary of the second elevation (120, 220) having at least one furthest downstream point, the axial position of which differs from an axial position of at least one highest point of the first elevation (110, 210) by at most 10% of an axial cascade width (g) of the blade cascade segment.
A water-based pesticidal suspension comprising (a) an agricultural chemical or its salt having an aqueous solubility of from 500 mg/L to 6,000 mg/L at 20°C, (b) a polycarboxylate type surfactant, (c) a sulfonate type surfactant, and (d) water, wherein the agricultural chemical (a) is flonicamid, wherein the polycarboxylate type surfactant (b) is a polycarboxylate, wherein the sulfonate type surfactant (c) is at least one member selected from the group consisting of an alkyl sulfosuccinate, a lignosulfonate, a C 8-18 alkyl benzene sulfonate and a C 8-18 alkyl diphenyl ether disulfonate. (a) an agricultural chemical or its salt having an aqueous solubility of from 500 mg/L to 6,000 mg/L at 20°C, (b) a polycarboxylate type surfactant, (c) a sulfonate type surfactant, and (d) water,
An integrated circuit, the integrated circuit comprising: a substrate; an n-well (606, 702) formed on the substrate; a p-well (604, 704) formed on the substrate, wherein the integrated circuit comprises a plurality of memory cells (602, 710-720) in a column and having n-channel transistors (109, 302, 304) in the p-well and p-channel transistors (115, 306, 308) in the n-well; and a p-tap (608, 708) formed in the p-well adjacent to the n-well, wherein the p-tap extends between the p-channel transistors of the plurality of memory cells formed in the n-well and the n-channel transistors of the plurality of memory cells formed in the p-well and is coupled to a ground potential, wherein the p-tap surrounds the n-well. a substrate; an n-well (606, 702) formed on the substrate; a p-well (604, 704) formed on the substrate, wherein the integrated circuit comprises a plurality of memory cells (602, 710-720) in a column and having n-channel transistors (109, 302, 304) in the p-well and p-channel transistors (115, 306, 308) in the n-well; and a p-tap (608, 708) formed in the p-well adjacent to the n-well, wherein the p-tap extends between the p-channel transistors of the plurality of memory cells formed in the n-well and the n-channel transistors of the plurality of memory cells formed in the p-well and is coupled to a ground potential, wherein the p-tap surrounds the n-well.
A method of extracting at least one selected from carbonic acid, aliphatic acid, aliphatic acid ester and aliphatic alcohol from an aqueous medium, the method comprising the steps: (a) contacting the carbonic acid, aliphatic acid, aliphatic acid ester and/or aliphatic alcohol in the aqueous medium with an extracting medium containing at least one alkyl-phosphine oxide for a time sufficient to extract the carbonic acid, aliphatic acid, aliphatic acid ester and/or aliphatic alcohol from the aqueous medium into the extracting medium, and (b) separating the extracting medium with the extracted carbonic acid, aliphatic acid, aliphatic acid ester and/or aliphatic alcohol from the aqueous medium, characterized in that the at least one alkyl-phosphine oxide contains at least two different alkyl radicals per alkyl-phosphine oxide molecule and the aqueous medium in (a) contains a living microorganism producing the carbonic acid, aliphatic acid, aliphatic acid ester and/or aliphatic alcohol and wherein the pH of the aqueous medium during step a) is from 5.0 to 9.0 and the microorganism is cultured at a temperature ranging from 20° C to 80° C. (a) contacting the carbonic acid, aliphatic acid, aliphatic acid ester and/or aliphatic alcohol in the aqueous medium with an extracting medium containing at least one alkyl-phosphine oxide for a time sufficient to extract the carbonic acid, aliphatic acid, aliphatic acid ester and/or aliphatic alcohol from the aqueous medium into the extracting medium, and (b) separating the extracting medium with the extracted carbonic acid, aliphatic acid, aliphatic acid ester and/or aliphatic alcohol from the aqueous medium,
Method for operating a gas turbine, the gas turbine comprising a compressor, a combustor (13, 16), a turbine (14, 17) downstream of the combustor (13, 16), a total number of turbine outlet temperature measurements (18, 19) and a controller having a clock, the method comprising the steps of: - measuring the turbine outlet temperature of the turbine (14, 17) with the turbine outlet temperature measurements (18, 19) of the respective turbine (14, 17); - selecting a number of turbine outlet temperature measurements (18, 19) which is smaller than the total number of the turbine outlet temperature measurements (18, 19); - averaging the measured temperatures of the selected turbine outlet temperature measurements (18, 19) to obtain an average turbine outlet temperature (TAT AVG); and - controlling the operation of the gas turbine in dependence of the average turbine outlet temperature (TAT AVG); wherein for each of the turbine outlet temperature measurements (18, 19) the temperature difference between an actual measured value and the average turbine outlet temperature (TAT AVG) of the previous controller cycle is calculated, and wherein only measurement values with a temperature difference which is below a maximum temperature deviation are selected for averaging the turbine outlet temperature (TAT AVG) of the current cycle. - measuring the turbine outlet temperature of the turbine (14, 17) with the turbine outlet temperature measurements (18, 19) of the respective turbine (14, 17); - selecting a number of turbine outlet temperature measurements (18, 19) which is smaller than the total number of the turbine outlet temperature measurements (18, 19); - averaging the measured temperatures of the selected turbine outlet temperature measurements (18, 19) to obtain an average turbine outlet temperature (TAT AVG); and - controlling the operation of the gas turbine in dependence of the average turbine outlet temperature (TAT AVG);
A method for producing plastic straps, comprising a provision of a semi-crystalline, thermoplastic plastic material, melting the plastic material, and extrusion of the melted plastic material to form at least one plastic strand, by means of an extrusion apparatus, cooling of the extruded plastic strand, monoaxial or predominantly monoaxial stretching of the cooled plastic strand to form a stretched strand, by means of at least one stretching device, which stretched strand has two surfaces, which are spaced apart from one another by a thickness of the stretched strand, wherein at least one surface of the stretched strand is provided with a microstructure, by means of a surface treatment apparatus, in particular with a microstructure that cannot be optically resolved by the naked human eye, and wherein an embossing apparatus comprising at least one embossing roll is used as the surface treatment apparatus, characterized in that the at least one surface of the stretched strand is provided with the microstructure by means of at least one embossing roll, having a surface profile with an average roughness R a between 2 μm and 15 μm.
A device for positioning and contacting test contacts on a contact carrier for producing a test contact arrangement comprising a contact head (26, 45) having a test contact holding device and at least one transmission channel for transmitting thermal energy, said contact head (26, 45) being equipped with a test contact receptacle (13, 28) on the contact end thereof and in the region of a channel mouth (27, 39), wherein said test contact receptacle (13, 28) comprises a positioning device having at least a first positioning face and at least a second positioning face for the positioning abutment against a test contact and positioning of an absorption region of the test contact in the channel mouth, said absorption region serving to absorb the thermal energy, wherein the channel mouth (27, 39) is formed by an outlet funnel of the transmission channel and exhibits an opening cross-section which is dimensioned in accordance with the absorption cross-section of the absorption region of the test contact, wherein the opening cross section is arranged at an inclined angle α with respect to a longitudinal axis of the contact head, wherein the first positioning face is formed by an opening edge of the channel mouth (27, 39), which limits the opening cross-section, the second positioning face is formed by a lower edge of an outer wall of the contact head and the opening cross-section is disposed in the region of the channel mouth (27, 39) such that it is arranged in parallel to said adjacent outer wall of the contact head (26, 45).
A device for preventing excessive increase of an internal pressure of a rolling assembly, the rolling assembly having a rotation axis and comprising a wheel and a tire, the tire being mounted onto the wheel creating an inner cavity surrounded by a wheel internal surface and a tire internal surface, the device comprising a cold spot placed in the inner cavity of the rolling assembly for condensing vapor contained in a gas filled in the inner cavity, the device being characterized in that the device comprises a storage means for capturing and keeping condensed vapor.
Housing seal of two housing parts lying against each other, of a first housing part with a first sealing surface and of a second housing part with a second sealing surface, with a seal introduced in a groove in the first sealing surface of the first housing part, wherein the groove is covered by the second sealing surface of the second housing part, wherein the groove has an opening between the sealing surfaces (6, 7), said opening serving for ventilation of the grooves with the introduced seal, characterized in that the opening has an opening width (b) within a range of 0.5 to 1 mm or greater, wherein the groove is completely covered by the second housing part, wherein the opening forms a direct connection to a free region of the second housing part or of the surroundings, wherein the opening is designed as a slot, and wherein the slot runs radially along the seal.
Method for detecting at least one artificially synthesized direct factor Xa inhibitor in a urine sample, comprising the steps of: (a) providing a urine sample containing at least one artificially synthesized direct factor Xa inhibitor; (b) providing a composition containing factor Xa; (c) providing a composition containing a chromogenic substrate conjugated to a detectable substance; (d) mixing the urine sample of step (a) with the composition of step (b) and the composition of step (c) under conditions which allow the binding of the at least one artificially synthesized direct factor Xa inhibitor to factor Xa and which allow the factor Xa to release the detectable substance from the chromogenic substrate; and (e) measuring the amount of released detectable substance. (a) providing a urine sample containing at least one artificially synthesized direct factor Xa inhibitor; (b) providing a composition containing factor Xa; (c) providing a composition containing a chromogenic substrate conjugated to a detectable substance; (d) mixing the urine sample of step (a) with the composition of step (b) and the composition of step (c) under conditions which allow the binding of the at least one artificially synthesized direct factor Xa inhibitor to factor Xa and which allow the factor Xa to release the detectable substance from the chromogenic substrate; and (e) measuring the amount of released detectable substance.
Receiving adapter for holding a replaceable fluid container with an inseparably integrated pump unit in a fluid dispenser with lever mechanism not intended for this purpose, which is intended to accommodate a standard fluid container, wherein the receiving adapter comprises a tilting holder with a fastening section and a holding section, wherein the fastening section is designed to be inserted into a receptacle of a housing of the fluid dispenser in a positive-locking manner and wherein the holding section is designed to hold a section of the fluid container, and wherein the receiving adapter furthermore comprises a rigid pressure lever (28, 70) which has a fixation section and an actuation section, wherein the fixation section is designed to be connected in positive-locking manner to a lever mechanism of a fluid dispenser and wherein the actuation section is designed to direct a force acting on the fixation section to a pump head of a pump unit. wherein the receiving adapter comprises a tilting holder with a fastening section and a holding section, wherein the fastening section is designed to be inserted into a receptacle of a housing of the fluid dispenser in a positive-locking manner and wherein the holding section is designed to hold a section of the fluid container, and wherein the receiving adapter furthermore comprises a rigid pressure lever (28, 70) which has a fixation section and an actuation section, wherein the fixation section is designed to be connected in positive-locking manner to a lever mechanism of a fluid dispenser and wherein the actuation section is designed to direct a force acting on the fixation section to a pump head of a pump unit.
A device assembly system for implementing automatic shelving or unshelving of an apparatus in a rack in a data center, wherein the system comprises a control apparatus, a mobile apparatus, a lifting apparatus, and a plug in/out apparatus, wherein the control apparatus is configured to control, based on an operation and maintenance instruction, the mobile apparatus, the lifting apparatus, and the plug in/out apparatus to complete an operation of the operation and maintenance instruction, and the operation and maintenance instruction instructs the system to complete an operation of assembly of a device; the mobile apparatus is configured to move the system to a first location, and the first location identifies a rack in which the device is assembled; the lifting apparatus is configured to move the plug in/out apparatus to a target location in a first direction, the target location is a location for storing the device in the rack, and the first direction is perpendicular to the ground; and the plug in/out apparatus is configured to place the device at the target location, or obtain the device from the target location, characterized in that the lifting apparatus comprises a holding mechanism, configured to connect the rack and the device assembly system; and the holding mechanism comprises a fourth drive assembly and a holding hook, and the fourth drive assembly is configured to drive the holding hook to be fixedly connected to the rack. the control apparatus is configured to control, based on an operation and maintenance instruction, the mobile apparatus, the lifting apparatus, and the plug in/out apparatus to complete an operation of the operation and maintenance instruction, and the operation and maintenance instruction instructs the system to complete an operation of assembly of a device; the mobile apparatus is configured to move the system to a first location, and the first location identifies a rack in which the device is assembled; the lifting apparatus is configured to move the plug in/out apparatus to a target location in a first direction, the target location is a location for storing the device in the rack, and the first direction is perpendicular to the ground; and the plug in/out apparatus is configured to place the device at the target location, or obtain the device from the target location, characterized in that the lifting apparatus comprises a holding mechanism, configured to connect the rack and the device assembly system; and the holding mechanism comprises a fourth drive assembly and a holding hook, and the fourth drive assembly is configured to drive the holding hook to be fixedly connected to the rack.
A method comprising: receiving an input signal representing audio captured by a sensor (302;402) disposed in an active noise reduction, ANR, device; determining, by one or more processing devices, that the ANR device is operating in a first operational mode; responsive to determining that the ANR device is operating in the first operational mode, applying a first gain to the input signal to generate a first amplified input signal, and providing the first amplified input signal to a first processor (308A;408C) corresponding to the first operational mode; determining, by the one or more processing devices, that the ANR device is operating in a second operational mode different from the first operational mode; responsive to determining that the ANR device is operating in the second operational mode, applying a second gain to the input signal to generate a second amplified input signal, wherein the second gain is different from the first gain, and providing the second amplified input signal to a second processor (308B;410), separate from the first processor, corresponding to the second operational mode; processing the first or second amplified input signal to generate an output signal; and generating, by an acoustic transducer, an audio output based on the output signal. receiving an input signal representing audio captured by a sensor (302;402) disposed in an active noise reduction, ANR, device; determining, by one or more processing devices, that the ANR device is operating in a first operational mode; responsive to determining that the ANR device is operating in the first operational mode, applying a first gain to the input signal to generate a first amplified input signal, and providing the first amplified input signal to a first processor (308A;408C) corresponding to the first operational mode; determining, by the one or more processing devices, that the ANR device is operating in a second operational mode different from the first operational mode; responsive to determining that the ANR device is operating in the second operational mode, applying a second gain to the input signal to generate a second amplified input signal, wherein the second gain is different from the first gain, and providing the second amplified input signal to a second processor (308B;410), separate from the first processor, corresponding to the second operational mode; processing the first or second amplified input signal to generate an output signal; and generating, by an acoustic transducer, an audio output based on the output signal.