mhurhangee/patent-ind-claim-en huggingface dataset:
A weighing unit for a waste collection system comprising a base , a collection unit beneath the base for storing waste, and a waste receiving unit supported on top of the base, wherein the waste receiving unit comprises a cylindrical rotary drum for receiving the waste; the weighing unit comprising: a housing defining a collection chute for receiving the waste from the cylindrical rotary drum, the housing configured to fit within the waste receiving unit and comprising a top portion complementary in shape to the rotary drum such that the top portion aligns close to but not connecting to the rotary drum; one or more movable flaps connected to and movably disposed within the housing, moveable to a closed position for weighing waste and an open position to allow waste through the housing to the collection unit; a frame for connecting the weighing unit to the waste collection system base ; and a load cell connecting the housing to the frame. a housing defining a collection chute for receiving the waste from the cylindrical rotary drum, the housing configured to fit within the waste receiving unit and comprising a top portion complementary in shape to the rotary drum such that the top portion aligns close to but not connecting to the rotary drum; one or more movable flaps connected to and movably disposed within the housing, moveable to a closed position for weighing waste and an open position to allow waste through the housing to the collection unit; a frame for connecting the weighing unit to the waste collection system base ; and a load cell connecting the housing to the frame.
A method of fabricating an edge coupling device, comprising: removing a portion of cladding material , wherein the cladding material comprises silicon dioxide, to form a trench over an inversely tapered silicon waveguide ; wherein the inversely tapered silicon waveguide is covered with the cladding material; depositing a high-index material having a refractive index, which is greater than a refractive index of silicon dioxide and less than a refractive index of silicon, over remaining portions of the cladding material and in the trench; and removing a portion of the high-index material within the trench to form a ridge waveguide , vertically aligned with the inversely tapered silicon waveguide. removing a portion of cladding material , wherein the cladding material comprises silicon dioxide, to form a trench over an inversely tapered silicon waveguide ; wherein the inversely tapered silicon waveguide is covered with the cladding material; depositing a high-index material having a refractive index, which is greater than a refractive index of silicon dioxide and less than a refractive index of silicon, over remaining portions of the cladding material and in the trench; and removing a portion of the high-index material within the trench to form a ridge waveguide , vertically aligned with the inversely tapered silicon waveguide.
A method of cementing comprising: providing a first set-delayed cement slurry comprising a pozzolanic cement and/or a Portland cement, water, and a first cement set retarder; providing a second set-delayed cement slurry comprising calcium-aluminate and a second cement set retarder; mixing the first slurry and the second slurry to form a cement composition; and allowing the cement composition to set. providing a first set-delayed cement slurry comprising a pozzolanic cement and/or a Portland cement, water, and a first cement set retarder; providing a second set-delayed cement slurry comprising calcium-aluminate and a second cement set retarder; mixing the first slurry and the second slurry to form a cement composition; and allowing the cement composition to set.
A water-in-oil emulsion cleaning composition, comprising: a. 3M base/de-ionized water in an amount of from 1.4%(w/w) of the composition; b. a hydrophobic solvent in an amount of from 10-90%(w/w) of the composition; c. an emulsifying agent in an amount of from 0.5-20%(w/w) of the composition; d. a surfactant, in an amount of from 0.01-20%(w/w) of the composition; and e. a rheological agent in an amount of from 0.5-8%(w/w) of the composition, wherein said hydrophobic solvent comprises at least one of dimethyl adipate, dimethyl glutarate, dimethyl succinate, dibasic acid esters of the formula CH 3 COO-(CH 2 ) n -COOCH 3 , where n is a number from 1-7, and tripropylene glycol methyl ether. a. 3M base/de-ionized water in an amount of from 1.4%(w/w) of the composition; b. a hydrophobic solvent in an amount of from 10-90%(w/w) of the composition; c. an emulsifying agent in an amount of from 0.5-20%(w/w) of the composition; d. a surfactant, in an amount of from 0.01-20%(w/w) of the composition; and e. a rheological agent in an amount of from 0.5-8%(w/w) of the composition,
An engine system comprising an internal combustion engine and a turbocharger , the internal combustion engine comprising: a cylinder head including at least one intake valve and at least one exhaust valve; a cylinder block positioned adjacent the cylinder head and comprising at least one cylinder bore ; a piston positioned within the at least one cylinder bore and having a bowl machined into a top surface of the piston , the bowl comprising a salient angle (A) between the top surface of the piston and a side of the bowl , an opening diameter, and a depth, the salient angle (A) projecting in the direction from the opening diameter to a rim of the piston such that the ratio between the opening diameter and the depth affect the salient angle; a combustion chamber defined by the cylinder head, the cylinder block, and the piston; and a high capability ignition system including an ignition device, an injector, and a pre-chamber, the high capability ignition system being configured to generate a long duration electrical discharge at the ignition device_to dissipate 400-1000 millijoules per discharge event; wherein a diameter of the at least one intake valve is greater than a diameter of the at least one exhaust valve , the salient angle (A) of the bowl is at least 10 degrees and less than or equal to 25 degrees, the ratio between the bowl opening diameter and the bowl depth is from 0.5 to 2.0, and the intake valve is configured to open before top dead center on an exhaust stroke of the internal combustion engine and close before bottom dead center of an intake stroke of the internal combustion engine . a cylinder head including at least one intake valve and at least one exhaust valve; a cylinder block positioned adjacent the cylinder head and comprising at least one cylinder bore ; a piston positioned within the at least one cylinder bore and having a bowl machined into a top surface of the piston , the bowl comprising a salient angle (A) between the top surface of the piston and a side of the bowl , an opening diameter, and a depth, the salient angle (A) projecting in the direction from the opening diameter to a rim of the piston such that the ratio between the opening diameter and the depth affect the salient angle; a combustion chamber defined by the cylinder head, the cylinder block, and the piston; and a high capability ignition system including an ignition device, an injector, and a pre-chamber, the high capability ignition system being configured to generate a long duration electrical discharge at the ignition device_to dissipate 400-1000 millijoules per discharge event;
A tissue retraction device , comprising: a first tissue engagement member including jaws , wherein the jaws are designed such that they move relative to one another, wherein the first tissue engagement member is coupled to an elastic member by a coupling assembly, the coupling assembly including: a first coupler body having a first end region; and a first compression member ; wherein the first end region of the first coupler body is configured to extend into a portion of a lumen of the elastic member ; wherein the compression member is designed to compress the elastic member onto the first coupler body such that the elastic member is fixedly engaged with the coupler body . a first tissue engagement member including jaws , wherein the jaws are designed such that they move relative to one another, wherein the first tissue engagement member is coupled to an elastic member by a coupling assembly, the coupling assembly including: a first coupler body having a first end region; and a first compression member ; a first coupler body having a first end region; and a first compression member ; wherein the first end region of the first coupler body is configured to extend into a portion of a lumen of the elastic member ; wherein the compression member is designed to compress the elastic member onto the first coupler body such that the elastic member is fixedly engaged with the coupler body .
Filter cartridge for separating particles, having a filter material surrounding the interior space and having an insert which divides the interior space of the filter cartridge into a plurality of interior space regions separated from each other, characterized in that the filter cartridge has two retaining rails which are provided opposite each other on an inner side of the filter cartridge , wherein the retaining rails are provided for use in a particle-separating filter system and comprise a main body on which there is a retaining area for attaching the insert and on which there is also an attachment area for coupling to the filter cartridge , wherein the insert has a contact point prepared to house the retaining area of the retaining rails and wherein the insert is detachably attached to the retaining portion , wherein the contact between the retaining area and the contact point is such that no raw gas/clean gas can flow from one interior space region to another interior space region .
A method of operating an Application Server , AS, that implements an IP Multimedia Subsystem, IMS, supplementary service for a user, the method comprising: configuring a rule for the user, the rule having an action specifying whether or not a user-configurable announcement is to be provided and, if a user-configurable announcement is to be provided, configuring the announcement for the user including the user specifying media to be used for the announcement; and determining if a condition of the rule is met by a Session Initiation Protocol, SIP, message relating to the user and, if so, implementing an announcement in accordance with the action, wherein the rule includes an additional action to indicate that the announcement is to be played if the condition of the rule is matched by the SIP message and comprising the media to be used for the announcement within the action. configuring a rule for the user, the rule having an action specifying whether or not a user-configurable announcement is to be provided and, if a user-configurable announcement is to be provided, configuring the announcement for the user including the user specifying media to be used for the announcement; and determining if a condition of the rule is met by a Session Initiation Protocol, SIP, message relating to the user and, if so, implementing an announcement in accordance with the action, wherein the rule includes an additional action to indicate that the announcement is to be played if the condition of the rule is matched by the SIP message and comprising the media to be used for the announcement within the action.
A test device for determining the concentration of inorganic phosphate in a liquid sample, wherein said test device contains a support matrix serving as a support for the liquid sample, the detection reagents and the detection reaction, wherein said support matrix comprises: a) at least one molybdate salt; b) at least one acid that is solid at room temperature; c) a polyvinyl pyrrolidone derivative, wherein said polyvinyl pyrrolidone derivative is polyvinyl pyrrolidone having a K value of 40; and d) one of the following combinations of two chromogenic reducing agents: (i) leuko Bindschedler's green and 3,3',5,5'-tetramethylbenzidine; (ii) leuko Bindschedler's green and 4,4'-methylene-N,N-bis(dimethylaniline); (iii) leuko Bindschedler's green and leuko malachite green; or (iv) leuko Bindschedler's green and leuko crystal violet. a) at least one molybdate salt; b) at least one acid that is solid at room temperature; c) a polyvinyl pyrrolidone derivative, wherein said polyvinyl pyrrolidone derivative is polyvinyl pyrrolidone having a K value of 40; and d) one of the following combinations of two chromogenic reducing agents: (i) leuko Bindschedler's green and 3,3',5,5'-tetramethylbenzidine; (ii) leuko Bindschedler's green and 4,4'-methylene-N,N-bis(dimethylaniline); (iii) leuko Bindschedler's green and leuko malachite green; or (iv) leuko Bindschedler's green and leuko crystal violet. (i) leuko Bindschedler's green and 3,3',5,5'-tetramethylbenzidine; (ii) leuko Bindschedler's green and 4,4'-methylene-N,N-bis(dimethylaniline); (iii) leuko Bindschedler's green and leuko malachite green; or (iv) leuko Bindschedler's green and leuko crystal violet.
Method of producing a spectacle lens comprising at least one substrate and at least one nanostructured and/or microstructured layer, wherein the method comprises the following steps: a) providing a substrate having a surface to be coated, b) masking or covering the surface to be coated with at least one layer of nanoparticles and/or microparticles, c) coating the at least one layer of nanoparticles and/or microparticles and the surface to be coated with at least one layer, d) removing the nanoparticles and/or microparticles from the at least one layer from step c) to form an interspace structure that forms on the surface to be coated within the at least one layer of nanoparticles and/or microparticles only at those sites where the nanoparticles and/or microparticles are not in contact, e) optionally coating the nanostructured and/or microstructured layer obtained after step d) with at least one further layer that is not identical to the at least one layer from step c), characterized in that the time which the spectacle lens for the attainment of 90% of the constant equilibrium value of water absorption and water release in an atmosphere at a temperature from a range from 30°C to 50°C and a relative air humidity from a range from 86% to 97% is less than 10 hours longer than for the identical substrate in an identical atmosphere. a) providing a substrate having a surface to be coated, b) masking or covering the surface to be coated with at least one layer of nanoparticles and/or microparticles, c) coating the at least one layer of nanoparticles and/or microparticles and the surface to be coated with at least one layer, d) removing the nanoparticles and/or microparticles from the at least one layer from step c) to form an interspace structure that forms on the surface to be coated within the at least one layer of nanoparticles and/or microparticles only at those sites where the nanoparticles and/or microparticles are not in contact, e) optionally coating the nanostructured and/or microstructured layer obtained after step d) with at least one further layer that is not identical to the at least one layer from step c),
A processor executable algorithm for controlling a transducer and generator assembly which when executed by the processor of the assembly comprises: sensing a current signal and a voltage signal at a transducer ; differentiating the voltage signal ; multiplying the differentiated voltage signal by a bulk capacitance value to determine a bulk capacitance current signal ; determining the difference between the current signal and the bulk capacitance current signal to determine a motional current signal corresponding to mechanical motion of the transducer ; determining an updated bulk capacitance value based on the determined motional current signal and the bulk capacitance current signal ; generating a transducer signal based on the motional current signal ; and driving the transducer with the transducer signal . sensing a current signal and a voltage signal at a transducer ; differentiating the voltage signal ; multiplying the differentiated voltage signal by a bulk capacitance value to determine a bulk capacitance current signal ; determining the difference between the current signal and the bulk capacitance current signal to determine a motional current signal corresponding to mechanical motion of the transducer ; determining an updated bulk capacitance value based on the determined motional current signal and the bulk capacitance current signal ; generating a transducer signal based on the motional current signal ; and driving the transducer with the transducer signal .
Method of isolating lipids from a lipids containing biomass, comprising the following steps: a) Providing a biomass suspension, wherein the cells of the biomass contain in average at least 10 wt.-% of lipids; b) Adding hydrophobic silica to the suspension; c) Heating the suspension thus obtained to a temperature of at least 50°C and incubating the suspension for at least 20 minutes; d) Separating the oil containing light phase from the water, salts, cell debris and residual oil containing aqueous phase. a) Providing a biomass suspension, wherein the cells of the biomass contain in average at least 10 wt.-% of lipids; b) Adding hydrophobic silica to the suspension; c) Heating the suspension thus obtained to a temperature of at least 50°C and incubating the suspension for at least 20 minutes; d) Separating the oil containing light phase from the water, salts, cell debris and residual oil containing aqueous phase.
A process for preparing a reverse osmosis membrane, comprising: (A) providing a polyamine, a polyfunctional acid halide, and a flux increasing additive having the formula Z + B - , where Z + has the formula R 1 R 2 R 3 R 4 N + , where R 1 , R 2 , R 3 , and R 4 , independently, are H, a C 1 -C 6 hydrocarbyl group, a benzyl group, or a phenyl group and B - is a beta-diketonate; (B) combining the polyamine, polyfunctional acid halide, and flux increasing additive on the surface of a porous support membrane; and (C) interfacially polymerizing the polyamine and the polyfunctional acid halide, and flux increasing additive on the surface of the porous support membrane to form a reverse osmosis membrane comprising (i) the porous support membrane and (ii) a discrimination layer comprising a polyamide, wherein the reverse osmosis membrane is characterized by a flux that is greater than the flux of the same membrane prepared in the absence of the flux increasing additive. (A) providing a polyamine, a polyfunctional acid halide, and a flux increasing additive having the formula Z + B - , where Z + has the formula R 1 R 2 R 3 R 4 N + , where R 1 , R 2 , R 3 , and R 4 , independently, are H, a C 1 -C 6 hydrocarbyl group, a benzyl group, or a phenyl group and B - is a beta-diketonate; (B) combining the polyamine, polyfunctional acid halide, and flux increasing additive on the surface of a porous support membrane; and (C) interfacially polymerizing the polyamine and the polyfunctional acid halide, and flux increasing additive on the surface of the porous support membrane to form a reverse osmosis membrane comprising (i) the porous support membrane and (ii) a discrimination layer comprising a polyamide,
A power usage prediction system, comprising: a power measurement unit for measuring power usage at a certain time interval; a modeling unit for generating, and storing, a plurality of data sets by grouping a certain number of a plurality of measurement data indicating the measured power usage in time series, characterized in that the modeling unit is configured to exclude an earliest measurement data in time series from a data set and to include a measurement data immediately after a last measurement data in the time series of said data set to generate a next data set , wherein the modeling unit is further configured to store the last measurement data of each of the data sets as a modeling output and to store measurement data other than the modeling output of the data set as a modeling input; and a prediction unit for inputting, in time series, real-time data measured in real time in the power measurement unit into the modeling unit , and for deriving a data set having the modeling input corresponding to the real-time data among the data sets stored in the modeling unit and for predicting the power usage after the real-time data by using the modeling output of the derived data set. a power measurement unit for measuring power usage at a certain time interval; a modeling unit for generating, and storing, a plurality of data sets by grouping a certain number of a plurality of measurement data indicating the measured power usage in time series, characterized in that the modeling unit is configured to exclude an earliest measurement data in time series from a data set and to include a measurement data immediately after a last measurement data in the time series of said data set to generate a next data set , wherein the modeling unit is further configured to store the last measurement data of each of the data sets as a modeling output and to store measurement data other than the modeling output of the data set as a modeling input; and a prediction unit for inputting, in time series, real-time data measured in real time in the power measurement unit into the modeling unit , and for deriving a data set having the modeling input corresponding to the real-time data among the data sets stored in the modeling unit and for predicting the power usage after the real-time data by using the modeling output of the derived data set.
An adiponectin receptor agonist for use in treating depression, anxiety or a neuroinflammatory disorder in a patient, wherein the adiponectin receptor agonist is a compound of the following formula : wherein: A represents a phenyl group optionally substituted with an halogen atom or a methyl group, Y 1 represents - (CHR 2 ) a -, wherein R 2 represents H or a methyl group and a represents 1; > X is CH; R 1 represents a C 1-7 alkyl group with m representing 0; Y 2 represents *-O-CH 2 -CONH;; Z represents a phenyl group (B) n represents -CO-R 4 or -O-R 4 , wherein R 4 is chosen from: • a phenyl group optionally substituted with a halogen atom, or • a pyridyl group optionally substituted with a halogen atom, and ; n represents 1. A represents a phenyl group optionally substituted with an halogen atom or a methyl group, Y 1 represents - (CHR 2 ) a -, wherein R 2 represents H or a methyl group and a represents 1; > X is CH; R 1 represents a C 1-7 alkyl group with m representing 0; Y 2 represents *-O-CH 2 -CONH;; Z represents a phenyl group (B) n represents -CO-R 4 or -O-R 4 , wherein R 4 is chosen from: • a phenyl group optionally substituted with a halogen atom, or • a pyridyl group optionally substituted with a halogen atom, and ; n represents 1. • a phenyl group optionally substituted with a halogen atom, or • a pyridyl group optionally substituted with a halogen atom, and ; n represents 1.