mhurhangee/ep-ind-claims huggingface dataset:
A method for isolating and analyzing an analyte that may be present in a fluid sample, the method comprising the automated steps of: a) providing a fluid sample in a receptacle in a first station; b) providing pipette tips in a tip rack (60,70), wherein said tip rack (60,70) is contacted by a handler and transported between stations; c) combining together a solid support material and said fluid sample in said receptacle for a period of time and under conditions sufficient to permit said analyte to be immobilized on the solid support material; d) isolating the solid support material from other material present in the fluid sample in a separation station; e) and purifying the analyte in the separation station by separating the fluid sample from the solid support material and washing the materials one or more times with a wash buffer; characterized in that said receptacle is a vessel of a multiwell plate, and that said multiwell plate is contacted by said handler and wherein said multiwell plate is transported between stations by said handler, wherein said contact between said handler and said multiwell plate is a form-locking contact and wherein said contact between said handler and said tip rack (60,70) is a form-locking contact. a) providing a fluid sample in a receptacle in a first station; b) providing pipette tips in a tip rack (60,70), wherein said tip rack (60,70) is contacted by a handler and transported between stations; c) combining together a solid support material and said fluid sample in said receptacle for a period of time and under conditions sufficient to permit said analyte to be immobilized on the solid support material; d) isolating the solid support material from other material present in the fluid sample in a separation station; e) and purifying the analyte in the separation station by separating the fluid sample from the solid support material and washing the materials one or more times with a wash buffer;
An energy-saving control method for a cell in a heterogeneous system, comprising: receiving, by an access control device of a serving cell, a service request of a multi-mode user equipment, UE; when a radio resource of the serving cell cannot satisfy the service request of the multi-mode UE, and if the access control device of the serving cell determines that a heterogeneous-system neighboring cell of the serving cell is in an energy-saving state, sending, by the access control device of the serving cell, an exit energy-saving state request message to an access control device of the heterogeneous-system neighboring cell, wherein the exit energy-saving state request message is used to request the heterogeneous-system neighboring cell to exit the energy-saving state; and sending, by the access control device of the serving cell, instruction information to the multi-mode UE, wherein the instruction information is used to instruct the multi-mode UE to, after the heterogeneous-system neighboring cell exits the energy-saving state, redirect to the heterogeneous-system neighboring cell to request for a service. receiving, by an access control device of a serving cell, a service request of a multi-mode user equipment, UE; when a radio resource of the serving cell cannot satisfy the service request of the multi-mode UE, and if the access control device of the serving cell determines that a heterogeneous-system neighboring cell of the serving cell is in an energy-saving state, sending, by the access control device of the serving cell, an exit energy-saving state request message to an access control device of the heterogeneous-system neighboring cell, wherein the exit energy-saving state request message is used to request the heterogeneous-system neighboring cell to exit the energy-saving state; and sending, by the access control device of the serving cell, instruction information to the multi-mode UE, wherein the instruction information is used to instruct the multi-mode UE to, after the heterogeneous-system neighboring cell exits the energy-saving state, redirect to the heterogeneous-system neighboring cell to request for a service.
A pregnancy tester with an absorbent tip partially pressed onto a test strip in a shell body having an upper shell (2.1) and a lower shell (2.2), and the test strip on a stabilizing pad reaches to a result-observation window having a C line permanent sign and a T line permanent sign, and the tester also has a protective external compound shell consisting of a top shell (5.1) and a bottom shell (5.2), whereas at the front portion of the pregnancy tester, on the internal surface of the two shells (5.1) and (5.2) there are opposite half-axles, (6.1) and (6.2) respectively that fit into holes (7.1) and (7.2), respectively, in said shells (2.1) and (2.2) of said body allowing rotation of the shell body with respect to the protective external compound shell, characterized in that at the back portion of the pregnancy tester, on the internal side of said top shell (5.1) there is a pin fitting into a connecting hole on the internal side of said bottom shell (5.2), at the front portion of which, on its internal side, there is a retaining boss, and above said boss, on the lower surface of said shell body, there is a groove in which said retaining boss moves at opening and closing, said groove repeating the trajectory of said retaining boss during those movements, whereupon on the lower surface of said bottom shell (2.2), which is visible in closed position, there is a concavity wherein said retaining boss gets into when in open position.
A method of making a piezoelectric film comprising the steps of: preparing a solution containing a solvent and a copolymer of vinylidene fluoride and trifluoroethylene in which vinylidene fluoride is contained at a proportion in a range from not less than 82 mol % to not more than 86 mol %, wherein the copolymer has a molecular weight of not less than Mw 600,000 (/mol); coating and drying the solution on a substrate to form a film of the copolymer thereon subjecting the film to a heat treatment at a temperature below the Curie point in a range of not less than 140°C and not more than 150°C for crystallization of the copolymer, thereby developing a piezoelectric property thereof; wherein heat treatment of the film starts at room temperature, then the film is subsequently treated at 100°C for 30 minutes, at 120°C for 30 minutes, at 130°C for 30 minutes, at 140°C for 30 minutes, and at 145°C for 120 minutes before finally being gradually cooled down to room temperature, while the film is retained on the substrate. preparing a solution containing a solvent and a copolymer of vinylidene fluoride and trifluoroethylene in which vinylidene fluoride is contained at a proportion in a range from not less than 82 mol % to not more than 86 mol %, wherein the copolymer has a molecular weight of not less than Mw 600,000 (/mol); coating and drying the solution on a substrate to form a film of the copolymer thereon subjecting the film to a heat treatment at a temperature below the Curie point in a range of not less than 140°C and not more than 150°C for crystallization of the copolymer, thereby developing a piezoelectric property thereof; wherein heat treatment of the film starts at room temperature, then the film is subsequently treated at 100°C for 30 minutes, at 120°C for 30 minutes, at 130°C for 30 minutes, at 140°C for 30 minutes, and at 145°C for 120 minutes before finally being gradually cooled down to room temperature, while the film is retained on the substrate.
A method of controlling a defrost process in a freezer cabinet having an evaporator heat exchanger for cooling air within the freezer cabinet and an evaporator fan for drawing air across the evaporator heat exchanger, wherein the evaporator heat exchanger is a part of a refrigeration circuit for cooling the freezer cabinet; the method comprising: switching the refrigeration circuit from a cooling mode to a defrost mode to warm the air within the freezer cabinet; and whilst in the defrost mode, measuring the temperature of the air at a first location within the freezer cabinet remote from the evaporator heat exchanger; the method characterised by, whilst in the defrost mode: switching the evaporator fan on to draw air over the evaporator heat exchanger if the measured temperature of the air exceeds a first switching temperature; and switching the evaporator fan off if the measured temperature of the air falls below a second switching temperature lower than the first switching temperature. switching the refrigeration circuit from a cooling mode to a defrost mode to warm the air within the freezer cabinet; and whilst in the defrost mode, measuring the temperature of the air at a first location within the freezer cabinet remote from the evaporator heat exchanger; the method characterised by, whilst in the defrost mode: switching the evaporator fan on to draw air over the evaporator heat exchanger if the measured temperature of the air exceeds a first switching temperature; and switching the evaporator fan off if the measured temperature of the air falls below a second switching temperature lower than the first switching temperature. switching the evaporator fan on to draw air over the evaporator heat exchanger if the measured temperature of the air exceeds a first switching temperature; and switching the evaporator fan off if the measured temperature of the air falls below a second switching temperature lower than the first switching temperature.
A smoke detector dynamic range adjustment system comprising: a smoke detector comprising inner walls defining an enclosed detection area; a light emitting element within the inner walls for emitting light at a plurality of light output levels; a light receiving element within the inner walls for receiving light emitted from the light emitting element; wherein the light output level of the light emitting element is automatically reduced by a controller when a saturation limit of the light receiving element is approached; wherein the plurality of light output levels comprises a first output level and a second output level that is half of the first output level; and wherein a dynamic range of the smoke detector is doubled by adjusting to the second output level relative to operation under only the first output level. a smoke detector comprising inner walls defining an enclosed detection area; a light emitting element within the inner walls for emitting light at a plurality of light output levels; a light receiving element within the inner walls for receiving light emitted from the light emitting element; wherein the light output level of the light emitting element is automatically reduced by a controller when a saturation limit of the light receiving element is approached; wherein the plurality of light output levels comprises a first output level and a second output level that is half of the first output level; and wherein a dynamic range of the smoke detector is doubled by adjusting to the second output level relative to operation under only the first output level.
A physical toy (102, 202) which corresponds to a virtual object in a virtual environment, the physical toy comprising: a processor; a memory; one or more sensors arranged to detect motion of the physical toy; a physics engine comprising device-executable instructions stored in the memory which when executed cause the processor to model motion of the virtual object in the virtual environment using data from the one or more sensors; an input for receiving control signals generated by the processor; and a controlling mechanism operative to change a motion of at least a part of the physical toy based on the generated control signals, and wherein the memory further comprises device-executable instructions which when executed cause the processor to: generate the control signals based on the modelling of the virtual object in the virtual environment; and generate graphical user interface data, the graphical user interface showing the virtual object in the virtual environment. a processor; a memory; one or more sensors arranged to detect motion of the physical toy; a physics engine comprising device-executable instructions stored in the memory which when executed cause the processor to model motion of the virtual object in the virtual environment using data from the one or more sensors; an input for receiving control signals generated by the processor; and a controlling mechanism operative to change a motion of at least a part of the physical toy based on the generated control signals, and wherein the memory further comprises device-executable instructions which when executed cause the processor to: generate the control signals based on the modelling of the virtual object in the virtual environment; and generate graphical user interface data, the graphical user interface showing the virtual object in the virtual environment. generate the control signals based on the modelling of the virtual object in the virtual environment; and generate graphical user interface data, the graphical user interface showing the virtual object in the virtual environment.
A process for preparing a recycled industrial process fluid containing a dissolved phenolic biocide and at least one amine, said process comprising: (a) treating an aqueous fluid collected after use in metal working, metal rolling or metal removal process, said collected fluid comprising water, a phenolic biocide, at least one amine and, optionally, a surfactant, an emulsifier, a lubricant, a thickener or an oil, with: (i) ultrafiltration to remove particulates from said fluid that are greater than about 6 nm in diameter; and (ii) mechanical vapor recompression to obtain components of the after-use fluid that azeotrope or distill with water; and (b) collecting recoverable material comprising water, dissolved phenolic biocide and at least one amine, wherein the recoverable material is in a form suitable for re-use. (a) treating an aqueous fluid collected after use in metal working, metal rolling or metal removal process, said collected fluid comprising water, a phenolic biocide, at least one amine and, optionally, a surfactant, an emulsifier, a lubricant, a thickener or an oil, with: (i) ultrafiltration to remove particulates from said fluid that are greater than about 6 nm in diameter; and (ii) mechanical vapor recompression to obtain components of the after-use fluid that azeotrope or distill with water; and (i) ultrafiltration to remove particulates from said fluid that are greater than about 6 nm in diameter; and (ii) mechanical vapor recompression to obtain components of the after-use fluid that azeotrope or distill with water; and (b) collecting recoverable material comprising water, dissolved phenolic biocide and at least one amine, wherein the recoverable material is in a form suitable for re-use.
A process for producing semiconductor wafers with epitaxial layer deposited from the gas phase in a deposition chamber, comprising the placement of a substrate wafer on a susceptor with circular perimeter by a robot, where the robot moves the substrate wafer into a placement position and places it on the susceptor, with a corrective precept causing the center of the substrate wafer not to lie above the center of the susceptor in the placement position; and the deposition of an epitaxial layer on the substrate wafer, wherein a first number of substrate wafers having a specific resistance which falls within a first range are moved into the placement position by the robot with a first corrective precept, and a second number of substrate wafers having a specific resistance which falls within a second range are moved into the placement position by the robot with a second corrective precept, where the first and second corrective precepts differ from one another. the placement of a substrate wafer on a susceptor with circular perimeter by a robot, where the robot moves the substrate wafer into a placement position and places it on the susceptor, with a corrective precept causing the center of the substrate wafer not to lie above the center of the susceptor in the placement position; and the deposition of an epitaxial layer on the substrate wafer, wherein a first number of substrate wafers having a specific resistance which falls within a first range are moved into the placement position by the robot with a first corrective precept, and a second number of substrate wafers having a specific resistance which falls within a second range are moved into the placement position by the robot with a second corrective precept, where the first and second corrective precepts differ from one another.
A calibration apparatus, comprising: a rolling element, which is resting on a surface; a force-sensing device, which is coupled to the surface and is configured to make a first measurement indicative of a force exerted in a direction perpendicular to the surface by a force-sensing probe pressing against the rolling element so as to hold the rolling element stationary; and a calibration processor, which is configured to collect the first measurement from the force-sensing device and which is coupleable to the force-sensing probe and characterized in that the calibration processor is further configured to collect from the force-sensing probe a second measurement of distortion of a distal tip of the probe which is indicative of the force, and to calibrate the force-sensing probe based on the first and second measurements. a rolling element, which is resting on a surface; a force-sensing device, which is coupled to the surface and is configured to make a first measurement indicative of a force exerted in a direction perpendicular to the surface by a force-sensing probe pressing against the rolling element so as to hold the rolling element stationary; and a calibration processor, which is configured to collect the first measurement from the force-sensing device and which is coupleable to the force-sensing probe and characterized in that the calibration processor is further configured to collect from the force-sensing probe a second measurement of distortion of a distal tip of the probe which is indicative of the force, and to calibrate the force-sensing probe based on the first and second measurements.
A stent comprising: an elongated body having a proximate end, a distal end, a central axis, and a center lumen and at least one open sinusoidally undulating channel helically and longitudinally wound around the central axis and extending from the proximal end to the distal end of the elongated body, said undulating channel formed on the exterior surface of said body to provide fluid communication between said proximal end and said distal end, wherein the diameter at the proximate end of the stent is smaller than the diameter at the distal end, wherein said undulating channel is not in fluid communication with the center lumen, wherein said elongated body comprises a bioabsorbable material, and wherein said center lumen can accommodate a guide wire and can provide additional flow throughput after the guide wire has been removed. an elongated body having a proximate end, a distal end, a central axis, and a center lumen and at least one open sinusoidally undulating channel helically and longitudinally wound around the central axis and extending from the proximal end to the distal end of the elongated body, said undulating channel formed on the exterior surface of said body to provide fluid communication between said proximal end and said distal end, wherein the diameter at the proximate end of the stent is smaller than the diameter at the distal end, wherein said undulating channel is not in fluid communication with the center lumen, wherein said elongated body comprises a bioabsorbable material, and wherein said center lumen can accommodate a guide wire and can provide additional flow throughput after the guide wire has been removed.
Packaging for the infusion of a fluid through an infusable substance via gravitational flow, suitable for cooperating with a support of a machine for preparing drinks, comprising a pouch containing a dose of infusable substance and a peripheral portion, around the pouch, comprising a frame, characterised in that the frame is suitable for pressing, under the effect of the weight of the packaging, on a bearing surface of the support and in that the peripheral portion comprises a joint provided with a sealing edge suitable for pressing against a lateral wall of the support transverse to the bearing surface.
A method for an aerosol delivery device, the method comprising: creating, using a wireless communication interface of the aerosol delivery device, a connectionless-state advertising packet that includes information relating to an identity and advertising state of the aerosol delivery device and a first set of information recording usage characteristics of the aerosol delivery device from a memory of the aerosol delivery device; and transmitting the advertising packet via the wireless communication interface; characterised in that the connectionless state advertising packet comprises a payload which includes the first set of information recording usage characteristics; and wherein the first set of information recording usage characteristics are arranged in the payload according to a predetermined schema defining the order and size of the values included in the payload. creating, using a wireless communication interface of the aerosol delivery device, a connectionless-state advertising packet that includes information relating to an identity and advertising state of the aerosol delivery device and a first set of information recording usage characteristics of the aerosol delivery device from a memory of the aerosol delivery device; and transmitting the advertising packet via the wireless communication interface; characterised in that the connectionless state advertising packet comprises a payload which includes the first set of information recording usage characteristics; and wherein the first set of information recording usage characteristics are arranged in the payload according to a predetermined schema defining the order and size of the values included in the payload.
Process for the realization of a dildo, comprising: - a coating step of a support body with plastic material for the formation of a coated body comprising a contact layer enveloping said support body; - a heat treatment step of said coated body for the stabilization of said contact layer; - a separation step of said contact layer from said support body to obtain a contact portion of a dildo; - a closing step of said contact portion for the realization of said dildo; characterized in that it comprises, prior to said sealing step, a filling step of said contact portion with insertable expanding material in the form of capsules or a filling step of said contact portion with sodium polyacrylate. - a coating step of a support body with plastic material for the formation of a coated body comprising a contact layer enveloping said support body; - a heat treatment step of said coated body for the stabilization of said contact layer; - a separation step of said contact layer from said support body to obtain a contact portion of a dildo; - a closing step of said contact portion for the realization of said dildo; characterized in that it comprises, prior to said sealing step, a filling step of said contact portion with insertable expanding material in the form of capsules or a filling step of said contact portion with sodium polyacrylate.
A composition for use in the treatment of Parkinsonism, said composition comprising acamprosate and baclofen, or salts thereof, or a sustained release formulation thereof.