mhurhangee/patent-ind-claim-en huggingface dataset:
A respiratory therapy device for treating the muscles of respiratory tracts, lung functions and/or mucous deposits in the lungs, nose and/or throat of a patient , consisting of: - a hollow body in which at least one through-channel is provided, - a mouthpiece or nosepiece inserted into the hollow body and connected to the patient over the duration of the treatment by the respiratory therapy device , - and at least one oscillating body that is situated inside the hollow body and that is set into an oscillating vibration by the inhalation and/or exhalation of the patient , wherein a retaining body into which at least one opening is incorporated is inserted into the hollow body , wherein a freely oscillating tongue for generating oscillations, which are acoustically perceptible to the human ear and which, due to their different frequency, enable distinguishing inspiration from expiration, is attached to the retaining body in the region of the opening , by means of which the opening of the retaining body is closed or partially opened depending on the air flows prevailing in the interior of the hollow body , wherein the end face of the hollow body opposite the mouthpiece is open, wherein a stenosis is inserted into this end face , at least two through-openings being provided in the lateral surface of said stenosis, through which air flows flow into, or conversely, flow out of, the interior of the hollow body , wherein the through-openings of the stenosis have different cross-sectional areas as air passages for the air flows and wherein the stenosis is rotatably mounted in the hollow body in such a way that one of the through-openings can be selected or adjusted as an air passage by rotating the stenosis . - a hollow body in which at least one through-channel is provided, - a mouthpiece or nosepiece inserted into the hollow body and connected to the patient over the duration of the treatment by the respiratory therapy device , - and at least one oscillating body that is situated inside the hollow body and that is set into an oscillating vibration by the inhalation and/or exhalation of the patient ,
An LRRC33 inhibitor for use in: (a) treatment of a hematologic proliferative disorder, a solid tumor, and/or fibrosis in a subject; and/or (b) a method of treating a subject by depleting cells expressing cell-surface LRRC33 in the subject, the method comprising a step of administering to the subject the LRRC33 inhibitor in an amount effective to reduce the number of cells expressing LRRC33 on the cell surface, wherein the subject suffers from a disease associated with LRRC33 overexpression and/or abnormal macrophage activation, and wherein the disease is a fibrosis, myopathy or tumor; and/or (c) a therapeutic method, the method comprising reversing an immunosuppressive disease environment, so as to boost immunity in a subject wherein the inhibitor is an antibody or fragment thereof that specifically binds an epitope present on the extracellular portion of LRRC33 or LRRC33-containing complex present on the cell-surface, and wherein the antibody induces internalization of cell-surface LRRC33 or LRRC33-containing complex. (a) treatment of a hematologic proliferative disorder, a solid tumor, and/or fibrosis in a subject; and/or (b) a method of treating a subject by depleting cells expressing cell-surface LRRC33 in the subject, the method comprising a step of administering to the subject the LRRC33 inhibitor in an amount effective to reduce the number of cells expressing LRRC33 on the cell surface, wherein the subject suffers from a disease associated with LRRC33 overexpression and/or abnormal macrophage activation, and wherein the disease is a fibrosis, myopathy or tumor; and/or (c) a therapeutic method, the method comprising reversing an immunosuppressive disease environment, so as to boost immunity in a subject wherein the inhibitor is an antibody or fragment thereof that specifically binds an epitope present on the extracellular portion of LRRC33 or LRRC33-containing complex present on the cell-surface, and wherein the antibody induces internalization of cell-surface LRRC33 or LRRC33-containing complex. wherein the inhibitor is an antibody or fragment thereof that specifically binds an epitope present on the extracellular portion of LRRC33 or LRRC33-containing complex present on the cell-surface, and wherein the antibody induces internalization of cell-surface LRRC33 or LRRC33-containing complex.
Process flavour with an amount of acrylamide, based on product dry matter, between 10 ppb and 800 ppb, preferably between 10 ppb and 600 ppb, more preferably between 10 ppb and 400 ppb, most preferably between 10 ppb and 200 ppb.
A pigment water dispersion comprising (A) a pigment, (B) a carboxy group-containing crosslinked polymer and (C) an alkyl group-containing ethanolamine having an acid dissociation constant (pKa) of not less than 8.7, wherein the crosslinked polymer (B) is in the form of a copolymer comprising a constitutional unit derived from at least one compound selected from the group consisting of methacrylic acid and acrylic acid, wherein the crosslinked polymer (B) is a polymer crosslinked with a compound comprising two or more epoxy groups in a molecule thereof, and wherein the ethanolamine (C) comprises an alkyl group having not less than 3 and not more than 20 carbon atoms.
A gas turbine comprising: an air compressor ; a turbine coaxially coupled to the compressor ; a turbine casing accommodating the compressor and the turbine ; a compressor output shaft protruding from the turbine casing towards a side opposite to the turbine ; a turbine output shaft protruding from the turbine casing towards a side opposite to the compressor ; a compressor end mounting section provided at a section of the turbine casing that is near the compressor ; a turbine end mounting section provided at a section of the turbine casing that is near the turbine ; a rigid structure support member (6; 12) and a flexible structure support member that are used in a pair, characterized in that : only one of the compressor output shaft and the turbine output shaft is connected to a rotary device, the rigid structure support member is mounted to the compressor end mounting section or the turbine end mounting section , whichever is closer to the rotary device, the flexible structure support member is mounted to the compressor end mounting section or the turbine end mounting section , whichever is far from the rotary device, and the rigid structure support member is more rigid than the flexible structure support member . an air compressor ; a turbine coaxially coupled to the compressor ; a turbine casing accommodating the compressor and the turbine ; a compressor output shaft protruding from the turbine casing towards a side opposite to the turbine ; a turbine output shaft protruding from the turbine casing towards a side opposite to the compressor ; a compressor end mounting section provided at a section of the turbine casing that is near the compressor ; a turbine end mounting section provided at a section of the turbine casing that is near the turbine ; a rigid structure support member (6; 12) and a flexible structure support member that are used in a pair, characterized in that : only one of the compressor output shaft and the turbine output shaft is connected to a rotary device, the rigid structure support member is mounted to the compressor end mounting section or the turbine end mounting section , whichever is closer to the rotary device, the flexible structure support member is mounted to the compressor end mounting section or the turbine end mounting section , whichever is far from the rotary device, and the rigid structure support member is more rigid than the flexible structure support member . only one of the compressor output shaft and the turbine output shaft is connected to a rotary device, the rigid structure support member is mounted to the compressor end mounting section or the turbine end mounting section , whichever is closer to the rotary device, the flexible structure support member is mounted to the compressor end mounting section or the turbine end mounting section , whichever is far from the rotary device, and the rigid structure support member is more rigid than the flexible structure support member .
An aqueous curable binder composition comprising (i) a polyphenolic macromolecular compound which bears a multitude of phenol or polyhydroxybenzene radicals, selected from lignosulfonate salts and condensed tannins and mixtures thereof, and (ii) a polyamine functional compound comprising primary and/or secondary and/or tertiary and/or quaternary amine functional groups, and/or reaction product of (i) and (ii), the ratio of polyphenolic macromolecular compound to polyamine functional compound ranging from 98:2 to 50:50, preferably from 98:2 to 70:30w %, more preferably from 95:5 to 80:20 w% the binder composition further comprising a matrix polymer, the polyamine functional compound being selected from diamines, triamines, tetramines, pentamines and polymeric polyamines or polyimines, different types of polyethylenimines, and polyetheramines in linear and branched form, and the matrix polymer being selected from cellulose, starch, alginate, and cellulose derivatives selected from carboxymethyl cellulose (CMC), sodium carboxymethyl cellulose (NaCMC), hydroxypropyl cellulose (HPC), 2-hydroxyethyl cellulose (HEC), oligosaccharides, polyvinyls (PVA, PVAc, PAN), polyacrylics, polyacrylate, polymethacrylate, polyacrylamide, polymethacrylamides,, aliphatic isocyanate oligomers, azetidinium containing polymer, chitosan and its derivatives, copolymers thereof and mixtures thereof.
A lamination head having self-threading capability, comprising: a material supply drum configured to support a material roll of backed material , the backed material comprising layup material backed by a backing layer ; a backing layer collection drum configured to move from a collection drum home position to a collection drum engagement position proximate the material supply drum , engage, in the collection drum engagement position, a backing layer leading edge of the backing layer on the material roll , and move back to the collection drum home position while dispensing a threadable portion of at least the backing layer between the material supply drum and the backing layer collection drum ; and a backing layer separation assembly having a backing layer separation device and at least one backing layer separation mechanism , the backing layer separation device configured to translate from a separation device home position to a separation device engagement position and engage the threadable portion for moving the threadable portion into proximity to the backing layer separation mechanism for separating the backing layer from the layup material prior to application of the layup material onto a substrate . a material supply drum configured to support a material roll of backed material , the backed material comprising layup material backed by a backing layer ; a backing layer collection drum configured to move from a collection drum home position to a collection drum engagement position proximate the material supply drum , engage, in the collection drum engagement position, a backing layer leading edge of the backing layer on the material roll , and move back to the collection drum home position while dispensing a threadable portion of at least the backing layer between the material supply drum and the backing layer collection drum ; and a backing layer separation assembly having a backing layer separation device and at least one backing layer separation mechanism , the backing layer separation device configured to translate from a separation device home position to a separation device engagement position and engage the threadable portion for moving the threadable portion into proximity to the backing layer separation mechanism for separating the backing layer from the layup material prior to application of the layup material onto a substrate .
A blade comprising a blade body made of organic matrix composite material reinforced by fibers and a leading edge shield made of a material that withstands point impacts better than the composite material of the blade body, the leading edge shield being assembled on the blade body , the blade being characterized in that the blade includes bonding reinforcement adhesively bonded on the leading edge shield and on the blade body , wherein the bonding reinforcement has fibers that are preferably oriented perpendicularly to the free edge of the leading edge shield .
An auxiliary heater control device comprising: a temperature sensor that senses a temperature of a fluid of a fluid circulation circuit for circulating the fluid, the fluid circulation circuit being configured by connecting, in order, a heat pump apparatus performing defrost operation in addition to normal operation and including a compressor that is controllable, an auxiliary heater that is controllable, a heated fluid utilization apparatus that utilizes the fluid heated by the normal operation of the heat pump apparatus, and a circulation pump that is controllable and circulates the fluid from the auxiliary heater to the heated fluid utilization apparatus, the temperature sensor sensing the temperature of the fluid flowing between the auxiliary heater and the heated fluid utilization apparatus; and a control unit that monitors a sensed temperature tS sensed by the temperature sensor during the defrost operation of the heat pump apparatus, and selectively controls at least one of the circulation pump, the compressor, and the auxiliary heater according to the sensed temperature tS wherein the control unit increases a rotational speed of the circulation pump as a control operation of the circulation pump, wherein the control unit lowers an operating frequency of the compressor during the defrost operation as a control operation of the compressor, and wherein the control unit activates the auxiliary heater as a control operation of the auxiliary heater. a temperature sensor that senses a temperature of a fluid of a fluid circulation circuit for circulating the fluid, the fluid circulation circuit being configured by connecting, in order, a heat pump apparatus performing defrost operation in addition to normal operation and including a compressor that is controllable, an auxiliary heater that is controllable, a heated fluid utilization apparatus that utilizes the fluid heated by the normal operation of the heat pump apparatus, and a circulation pump that is controllable and circulates the fluid from the auxiliary heater to the heated fluid utilization apparatus, the temperature sensor sensing the temperature of the fluid flowing between the auxiliary heater and the heated fluid utilization apparatus; and a control unit that monitors a sensed temperature tS sensed by the temperature sensor during the defrost operation of the heat pump apparatus, and selectively controls at least one of the circulation pump, the compressor, and the auxiliary heater according to the sensed temperature tS wherein the control unit increases a rotational speed of the circulation pump as a control operation of the circulation pump, wherein the control unit lowers an operating frequency of the compressor during the defrost operation as a control operation of the compressor, and wherein the control unit activates the auxiliary heater as a control operation of the auxiliary heater.
A method for grinding and polishing glass sheets , the method comprising the steps of feeding a succession of glass sheets in a longitudinal direction at a given speed rate; progressively grinding at least one perimeter surface of the glass sheets by means of one or more grinding wheels independent of one another, the grinding comprising the step of rotating each grinding wheel about a rotation axis thereof by means of a respective grinding electric motor and by moving each glass sheet and the grinding wheel or wheels relative to one another at a given relative grinding speed; and polishing the ground surface with said grinding wheel or wheels by means of one or more polishing wheels rotated about the respective axes by respective polishing electric motors; the polishing comprising the step of exerting a predefined thrust action directed towards said glass sheet on each polishing wheel and moving each glass sheet or polishing wheel or wheels relative to one another at a respective polishing speed; the method further comprising a control step, in turn, comprising the step of detecting the current absorbed by at least a first of the grinding electric motors during the processing of said glass sheets , and being characterized in that said control step comprises the operations of establishing, for at least the first of said electric motors , a respective absorbable current limit value, of comparing the respective said absorbable current limit value with the value of current absorbed by said first motor and of reducing at least one of either the speed or said thrust action when said measured current value exceeds said absorbable current limit value by continuing to feed the succession of glass sheets in said longitudinal direction .
A method of making a silicone gel adhesive comprising: providing an acrylic polymer, the acrylic polymer comprising at least 50 wt.-% of polymerized units of C 1 -C 32 (meth)acrylate ester monomer; providing at least one non-functional polydiorganosiloxane, hydroxy-functional polydiorganosiloxane, or a mixture thereof; combining the acrylic polymer and polydiorganosiloxane into a mixture; coating the mixture onto a substrate, and subjecting the mixture to radiation thereby crosslinking the mixture. providing an acrylic polymer, the acrylic polymer comprising at least 50 wt.-% of polymerized units of C 1 -C 32 (meth)acrylate ester monomer; providing at least one non-functional polydiorganosiloxane, hydroxy-functional polydiorganosiloxane, or a mixture thereof; combining the acrylic polymer and polydiorganosiloxane into a mixture; coating the mixture onto a substrate, and subjecting the mixture to radiation thereby crosslinking the mixture.
A control method of a liquefied gas transport container, comprising following steps: step S10, measuring a pressure in a container in real time and calculating a remaining time T1 for the pressure to reach a discharge pressure, acquiring a time T2 for the container to reach a non-discharge road section in real time, and keeping the pressure in the container being lower than the discharge pressure before the container leaves the non-discharge road section; and step S20, when T1<T2, discharging gas when the pressure in the container reaches the discharge pressure, and when T1≥T2, discharging gas before the container reaches the non-discharge road section. step S10, measuring a pressure in a container in real time and calculating a remaining time T1 for the pressure to reach a discharge pressure, acquiring a time T2 for the container to reach a non-discharge road section in real time, and keeping the pressure in the container being lower than the discharge pressure before the container leaves the non-discharge road section; and step S20, when T1<T2, discharging gas when the pressure in the container reaches the discharge pressure, and when T1≥T2, discharging gas before the container reaches the non-discharge road section.
A method for generating a tooth panoramic image, comprising: determining a frame frequency of a reference detector, and determining a frame frequency of a photographing detector according to the frame frequency of the reference detector ; photographing teeth of a user according to the frame frequency of the photographing detector to generate a plurality of images ; performing a shift and superposition on the plurality of images to generate a first panoramic image ; characterised by : acquiring a fuzzy region in the first panoramic image ; and performing a frame frequency adjustment on each row in the fuzzy region to generate a clear image, and fusing the clear image and the first panoramic image to generate a second panoramic image . determining a frame frequency of a reference detector, and determining a frame frequency of a photographing detector according to the frame frequency of the reference detector ; photographing teeth of a user according to the frame frequency of the photographing detector to generate a plurality of images ; performing a shift and superposition on the plurality of images to generate a first panoramic image ; characterised by : acquiring a fuzzy region in the first panoramic image ; and performing a frame frequency adjustment on each row in the fuzzy region to generate a clear image, and fusing the clear image and the first panoramic image to generate a second panoramic image . acquiring a fuzzy region in the first panoramic image ; and performing a frame frequency adjustment on each row in the fuzzy region to generate a clear image, and fusing the clear image and the first panoramic image to generate a second panoramic image .
Method for providing a heat carrier with at least three temperature levels for a heating network , in which at least one heat storage is connected in a heat-carrier-conductive manner to heating network lines of the heating network as a working storage and enables a heat carrier to be stored at the respective temperature levels of the heating network , wherein a heat carrier circulates between at least one heat pump and at least the one heat storage , characterized in that the heat carrier is directed through a condenser and an evaporator of the heat pump , the heat carrier from the heat storage , which forms a working storage, is supplied to the evaporator at a lower temperature level of the heat storage , heat is extracted from the heat carrier in the evaporator , the heat carrier leaving the evaporator reaches a heat exchanger via a heat-exchanger supply line outbound from the evaporator , the heat carrier from the heat exchanger reaches a mixer via a heat carrier line , from which mixer the heat carrier enters a storage supply line or a condenser supply line or the storage supply line and the condenser supply line , the heat carrier from the storage supply line is supplied to a section of the heat storage for heat carrier at a medium temperature level, and the heat extracted from the heat carrier in the evaporator is supplied to the heat carrier in the condenser , wherein the heat carrier leaving the condenser has a temperature equal to or higher than an upper temperature level in the heat storage , which forms a working storage. the heat carrier is directed through a condenser and an evaporator of the heat pump , the heat carrier from the heat storage , which forms a working storage, is supplied to the evaporator at a lower temperature level of the heat storage , heat is extracted from the heat carrier in the evaporator , the heat carrier leaving the evaporator reaches a heat exchanger via a heat-exchanger supply line outbound from the evaporator , the heat carrier from the heat exchanger reaches a mixer via a heat carrier line , from which mixer the heat carrier enters a storage supply line or a condenser supply line or the storage supply line and the condenser supply line , the heat carrier from the storage supply line is supplied to a section of the heat storage for heat carrier at a medium temperature level, and the heat extracted from the heat carrier in the evaporator is supplied to the heat carrier in the condenser , wherein the heat carrier leaving the condenser has a temperature equal to or higher than an upper temperature level in the heat storage , which forms a working storage.