mhurhangee/patent-ind-claim-en huggingface dataset:
An ex vivo method for controlling transcription of a genetic sequence in a cell comprising a) targeted insertion of a gene encoding a transcriptional regulator protein into a first genetic safe harbour site; and b) targeted insertion of an inducible cassette into a second genetic safe harbour site, wherein said inducible cassette comprises said genetic sequence operably linked to an inducible promoter, and said promoter is regulated by the transcriptional regulator protein; wherein said first and second genetic safe harbour sites are different, and wherein the method does not comprise a process for modifying the germ line genetic identity of a human being. a) targeted insertion of a gene encoding a transcriptional regulator protein into a first genetic safe harbour site; and b) targeted insertion of an inducible cassette into a second genetic safe harbour site, wherein said inducible cassette comprises said genetic sequence operably linked to an inducible promoter, and said promoter is regulated by the transcriptional regulator protein;
A method of manufacturing a peelable plate, comprising sizing fibers woven with a preparation of base components for thermosetting resin so as to form sized sheets , stacking said sized sheets into a stack , and the transformation of the base components into a thermoset resin, the stack of sheets being maintained under pressure, method wherein the woven fibers , before being sized, are coated with a deposit of a fluoropolymer , the fluoropolymer being polytetrafluoroethylene and prior to sizing, the sheets of fibers coated with said deposit are pickled.
A method for adding a biocidal composition to a laundry washing process comprising the steps of adding a dose of from 4 to 40 ml of a liquid composition to the rinse aid dispenser of an automatic washing machine, optionally together with a dose of liquid fabric conditioner in the same dispensing compartment, the composition comprising one or more water soluble quaternary ammonium compounds and one or more water soluble organic hydroxy acids; wherein the weight ratio of the water soluble organic hydroxy acids to the quaternary ammonium compounds lies in the range from 95:5 to 52:48; wherein the acid in the composition comprises L-Lactic Acid; and wherein there are two water soluble quaternary ammonium compounds in the composition, one being ADEBAC (C12-C14-alkyl [(ethylphenyl) methyl] dimethyl ammonium chloride), and the other ADBAC (Benzyl C12-16 alkyl dimethyl ammonium chloride ).
Method for purifying wastewater contaminated with electrolytes and dyes, comprising the steps of: a) neutralizing the electrolyte salts by adding at least one first neutralizing agent, b) sedimentation of precipitable impurities and deposition of relatively clean water, c) diluting the neutralized water with fresh water, depending on the conductivity of the neutralized water, d) binding the dyes by adding at least one dye pigment binder, e) flocculation of the bound dye pigments by addition of at least one flocculant, f) accelerating flake formation by adding at least one flake-forming accelerator, g) sedimentation of precipitable impurities and deposition of relatively clean water, h) filtration of the treated water with a first filtration medium, i) filtration of the treated and filtered water with a second filtration medium, j) neutralization of the electrolyte salts by addition of at least one second neutralizing agent, k) reverse osmosis of the neutralized saline solution. a) neutralizing the electrolyte salts by adding at least one first neutralizing agent, b) sedimentation of precipitable impurities and deposition of relatively clean water, c) diluting the neutralized water with fresh water, depending on the conductivity of the neutralized water, d) binding the dyes by adding at least one dye pigment binder, e) flocculation of the bound dye pigments by addition of at least one flocculant, f) accelerating flake formation by adding at least one flake-forming accelerator, g) sedimentation of precipitable impurities and deposition of relatively clean water, h) filtration of the treated water with a first filtration medium, i) filtration of the treated and filtered water with a second filtration medium, j) neutralization of the electrolyte salts by addition of at least one second neutralizing agent, k) reverse osmosis of the neutralized saline solution.
A method of modelling and then physically forming an object, the method comprising: building a computer model of a mold for the object, wherein the step of building the computer model of the mold includes inputting parameters related to the object and the mold; identifying sensor locations in the computer model of the mold that correspond to locations where physical sensors would be located in a physical mold; placing virtual sensors in the computer model at the sensor locations; inputting parameters related to an injection material and an injection machine; creating a simulated injection by simulating flow of the injection material into the computer model of the mold; determining a desired flow rate profile of the injection material during the simulated injection; creating pressure, volume, and temperature curves for the desired flow rate profile of the injection material at the sensor locations; providing a physical mold corresponding to the computer model of the mold, wherein the physical mold has physical sensors at the sensor locations; injecting the injection material into the physical mold at a physical flow rate corresponding to the desired flow rate profile; monitoring pressure, volume, and temperature of the injection material by the physical sensors; controlling the physical flow rate when the monitored pressure, volume, or temperature of the injection material deviates from the pressure, volume, and temperature curves. building a computer model of a mold for the object, wherein the step of building the computer model of the mold includes inputting parameters related to the object and the mold; identifying sensor locations in the computer model of the mold that correspond to locations where physical sensors would be located in a physical mold; placing virtual sensors in the computer model at the sensor locations; inputting parameters related to an injection material and an injection machine; creating a simulated injection by simulating flow of the injection material into the computer model of the mold; determining a desired flow rate profile of the injection material during the simulated injection; creating pressure, volume, and temperature curves for the desired flow rate profile of the injection material at the sensor locations; providing a physical mold corresponding to the computer model of the mold, wherein the physical mold has physical sensors at the sensor locations; injecting the injection material into the physical mold at a physical flow rate corresponding to the desired flow rate profile; monitoring pressure, volume, and temperature of the injection material by the physical sensors; controlling the physical flow rate when the monitored pressure, volume, or temperature of the injection material deviates from the pressure, volume, and temperature curves.
A water-soluble composition for optical stereolithography, comprising: 10 to 70% by mass of (A) a water-soluble cationic polymerizable compound which is an ether derivative of sorbitol having a glycidyl ether structure; 1 to 30% by mass of (B) a water-soluble radical polymerizable compound having a methacrylic group and/or an acrylic group; 0.1 to 20% by mass of (C) an antimony-free cationic polymerization initiator which is a sulfonium compound or a bis(alkylphenyl)iodonium compound; and 0.1 to 20% by mass of (D) a radical polymerization initiator. 10 to 70% by mass of (A) a water-soluble cationic polymerizable compound which is an ether derivative of sorbitol having a glycidyl ether structure; 1 to 30% by mass of (B) a water-soluble radical polymerizable compound having a methacrylic group and/or an acrylic group; 0.1 to 20% by mass of (C) an antimony-free cationic polymerization initiator which is a sulfonium compound or a bis(alkylphenyl)iodonium compound; and 0.1 to 20% by mass of (D) a radical polymerization initiator.
An endoscopic imaging system for imaging a fluorescent agent in a patient, the system comprising an endoscope , the endoscope further comprising: a first optical channel communicating light from a first light source and a second light source , the first light source having an excitation wavelength and the second light source having a wavelength different than the wavelength of the first light source ; characterized in, that the endoscope further comprises: a field stop having a fluorescent indicator ; and a second optical channel in optical communication with the first light source and in optical communication with the fluorescent indicator on the field stop , wherein, when light from the first light source illuminates the fluorescent indicator on the field stop , the fluorescent indicator is detectable. a first optical channel communicating light from a first light source and a second light source , the first light source having an excitation wavelength and the second light source having a wavelength different than the wavelength of the first light source ; characterized in, that the endoscope further comprises: a field stop having a fluorescent indicator ; and a second optical channel in optical communication with the first light source and in optical communication with the fluorescent indicator on the field stop , wherein, when light from the first light source illuminates the fluorescent indicator on the field stop , the fluorescent indicator is detectable. a field stop having a fluorescent indicator ; and a second optical channel in optical communication with the first light source and in optical communication with the fluorescent indicator on the field stop , wherein, when light from the first light source illuminates the fluorescent indicator on the field stop , the fluorescent indicator is detectable.
A method of detecting a fungal metabolite in a sample from a source comprising the following steps: a) providing an Olfr90 or a ligand binding part thereof; b) placing the sample in contact with the Olfr90 or the ligand binding part thereof; and c) detecting the presence or absence of an Olfr90 ligand in the sample, wherein the Olfr90 ligand is a fungal metabolite. a) providing an Olfr90 or a ligand binding part thereof; b) placing the sample in contact with the Olfr90 or the ligand binding part thereof; and c) detecting the presence or absence of an Olfr90 ligand in the sample,
A refrigeration cycle apparatus comprising: a refrigerant circuit including a compressor , a condenser , a pressure-reducing device , and an evaporator ; and a controller configured to control the refrigerant circuit , wherein refrigerant circulating through the refrigerant circuit is refrigerant containing propane or propylene, the evaporator has a heat transfer pipe in which refrigerant flows, a refrigerant port temperature sensor for detecting temperature of refrigerant is provided at an entrance port of the evaporator , an inner temperature sensor for detecting temperature of refrigerant is provided in the heat transfer pipe of the evaporator , characterized in that , in the evaporator , a length of the heat transfer pipe between the entrance port of the evaporator and the inner temperature sensor is greater than or equal to 66% of a length of the heat transfer pipe between the entrance port of the evaporator and an exit port of the evaporator , and less than or equal to 88% of the length of the heat transfer pipe between the entrance port and the exit port, the controller configured to set a degree of superheat of refrigerant at an entrance port of the compressor to be a value greater than or equal to 10 degrees by controlling the opening degree of the pressure-reducing device , and the controller configured to control the opening degree of the pressure-reducing device so that the temperature of refrigerant detected by the inner temperature sensor is higher than the temperature of refrigerant detected by the refrigerant port temperature sensor . a refrigerant circuit including a compressor , a condenser , a pressure-reducing device , and an evaporator ; and a compressor , a condenser , a pressure-reducing device , and an evaporator ; and a controller configured to control the refrigerant circuit , wherein refrigerant circulating through the refrigerant circuit is refrigerant containing propane or propylene, the evaporator has a heat transfer pipe in which refrigerant flows, a refrigerant port temperature sensor for detecting temperature of refrigerant is provided at an entrance port of the evaporator , an inner temperature sensor for detecting temperature of refrigerant is provided in the heat transfer pipe of the evaporator , characterized in that , in the evaporator , a length of the heat transfer pipe between the entrance port of the evaporator and the inner temperature sensor is greater than or equal to 66% of a length of the heat transfer pipe between the entrance port of the evaporator and an exit port of the evaporator , and less than or equal to 88% of the length of the heat transfer pipe between the entrance port and the exit port, the controller configured to set a degree of superheat of refrigerant at an entrance port of the compressor to be a value greater than or equal to 10 degrees by controlling the opening degree of the pressure-reducing device , and the controller configured to control the opening degree of the pressure-reducing device so that the temperature of refrigerant detected by the inner temperature sensor is higher than the temperature of refrigerant detected by the refrigerant port temperature sensor .
An emergency rescue stretcher, comprising: a. a platform configured to support a person, the platform comprising a channel extending from an aperture on a surface of the platform and a restraint lock; b. a first flexible restraint configured to restrain a first portion of the person and having a first locking member, a portion of the first flexible restraint being enclosed within the channel and releasably connected to the restraint lock, wherein drawing the first flexible restraint through the channel tightens the first flexible restraint against the person; c. a second flexible restraint configured to restrain a second portion of the person and having a second locking member, a portion of the second flexible restraint connected to the platform, wherein the first and second locking members are releasably connectable to maintain the person on the platform; and d. a pull line coupled to the first flexible restraint and configured to pull the platform and draw the first flexible restraint through the channel. a. a platform configured to support a person, the platform comprising a channel extending from an aperture on a surface of the platform and a restraint lock; b. a first flexible restraint configured to restrain a first portion of the person and having a first locking member, a portion of the first flexible restraint being enclosed within the channel and releasably connected to the restraint lock, wherein drawing the first flexible restraint through the channel tightens the first flexible restraint against the person; c. a second flexible restraint configured to restrain a second portion of the person and having a second locking member, a portion of the second flexible restraint connected to the platform, wherein the first and second locking members are releasably connectable to maintain the person on the platform; and d. a pull line coupled to the first flexible restraint and configured to pull the platform and draw the first flexible restraint through the channel.
Device for gemination of seed, or germinator , comprising: a chamber defined by walls , at least one removable tray extending inside the chamber , said tray being configured to accommodate seeds, a spray nozzle configured to alternately disperse in the chamber , a water-air mixture as droplets, or air only, a control unit of the germination of the seed within the germinator configured to implement a step consisting in determining, from ambient parameters of the germinator , information relating to the amount, type of seeds to be germinated, and their respective location within the chamber , and from germination parameters specific to germination of seeds to be germinated in said chamber , parameters for controlling the spray nozzle so as to obtain, in the chamber , an environment conducive to germination of seeds, said controlled parameters comprising a frequency of dispersion, through the spray nozzle , the water-air mixture as droplets, and a frequency of dispersion of air; characterized in that the chamber is confined and in that the device comprises, furthermore : an air supply circuit , a water supply circuit , the spray nozzle being connected on the one hand to the air supply circuit , and on the other hand to the water supply circuit , the nozzle being disposed so that a portion of the nozzle extends within the chamber and so as to alternately disperse an air-water mixture, or air only, at the upper surface of the receptacle space of the tray .
A radio resource determining method, comprising: receiving , by a first service server, report information sent by a terminal, wherein the report information is used for reporting that the terminal is to perform a proximity-based service by using a radio resource, and the radio resource is selected by the terminal from a candidate resource; and learning , by the first service server according to the report information, of the radio resource used by the terminal to perform the proximity-based service, characterized in when the radio resource does not belong to a network to which the first service server belongs, sending, by the first service server, notification information to a second service server, wherein the notification information is used for reporting that the terminal is to perform the proximity-based service by using the radio resource, and the second service server belongs to the network to which the radio resource belongs. receiving , by a first service server, report information sent by a terminal, wherein the report information is used for reporting that the terminal is to perform a proximity-based service by using a radio resource, and the radio resource is selected by the terminal from a candidate resource; and learning , by the first service server according to the report information, of the radio resource used by the terminal to perform the proximity-based service, characterized in when the radio resource does not belong to a network to which the first service server belongs, sending, by the first service server, notification information to a second service server, wherein the notification information is used for reporting that the terminal is to perform the proximity-based service by using the radio resource, and the second service server belongs to the network to which the radio resource belongs.
Floor system which is laid on an elevated hollow floor system or floating, comprising a screed, in particular a calcium sulphate/anhydrite floating screed or concrete screed , wherein a) the floor system additionally has at least one statically effective textile layer of glass fibre fleece, b) the textile layer is formed from alkali-resistant glass fibres, c) the glass fibre fleece is bonded to the screed, d) wherein the individual fibres of the glass fibre fleece are enclosed by the screed and form a composite material, characterised in that e) the textile layer is impermeable to liquid water and permeable to water vapour, and f) wherein the water vapour permeability of the textile layer in accordance with DIN 52165 is between 0.01 m and 1.0 m, preferably 0.01 m to 0.1 m diffusion-equivalent air layer thickness. a) the floor system additionally has at least one statically effective textile layer of glass fibre fleece, b) the textile layer is formed from alkali-resistant glass fibres, c) the glass fibre fleece is bonded to the screed, d) wherein the individual fibres of the glass fibre fleece are enclosed by the screed and form a composite material, characterised in that e) the textile layer is impermeable to liquid water and permeable to water vapour, and f) wherein the water vapour permeability of the textile layer in accordance with DIN 52165 is between 0.01 m and 1.0 m, preferably 0.01 m to 0.1 m diffusion-equivalent air layer thickness.
Additive manufacturing apparatus for building a product according to a planned geometry by successive solidification of a radiation-curable fluid in the layer where solidification takes place during processing in a continuous solidification mode, the layer where solidification takes place during processing extending in a vertical direction from a fluid surface of the radiation-curable fluid to a work piece surface of the product, the apparatus comprising: - a vat for holding the radiation-curable fluid; - a work piece support for holding the product during building; - a feed control mechanism adapted for controlling feeding of radiation-curable fluid to the layer where solidification takes place during processing; - a curing radiation source adapted for generating a two-dimensional exposure pattern of curing radiation in the layer where solidification takes place during processing, wherein the exposure pattern is defined by a curing radiation pattern geometry and/or curing radiation intensity; wherein the apparatus further comprises: - a radiation sensor arranged to receive radiation from the layer where solidification takes place during processing, wherein the radiation sensor is configured to generate a sensor signal comprising information indicative of a solidification process status based on the received radiation; and - a control system communicatively connected to the feed control mechanism and the curing radiation source, the control system being adapted to receive the sensor signal, and to adjust process control parameters controlling the solidification in the layer where solidification takes place during processing, in response to said sensor signal, wherein the process control parameters include one or more of an amount and a rate of feeding radiation-curable fluid to the layer where solidification takes place during processing by the feed control mechanism. - a vat for holding the radiation-curable fluid; - a work piece support for holding the product during building; - a feed control mechanism adapted for controlling feeding of radiation-curable fluid to the layer where solidification takes place during processing; - a curing radiation source adapted for generating a two-dimensional - a radiation sensor arranged to receive radiation from the layer where solidification takes place during processing, wherein the radiation sensor is configured to generate a sensor signal comprising information indicative of a solidification process status based on the received radiation; and - a control system communicatively connected to the feed control mechanism and the curing radiation source, the control system being adapted to receive the sensor signal, and to adjust process control parameters controlling the solidification in the layer where solidification takes place during processing, in response to said sensor signal, wherein the process control parameters include one or more of an amount and a rate of feeding radiation-curable fluid to the layer where solidification takes place during processing by the feed control mechanism.