mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing pet food which has a moisture content of 15% to 30% by mass and a saccharide content of 5% by mass or less in terms of solid content and contains 0.001% by mass or greater of free cysteine, the method comprising blending a total amount of cereals, beans, and starch in a range of 20% to 70% by mass; a total amount of vegetable protein sources in a range of 5% to 20% by mass, a total amount of animal protein sources in a range of 5% to 40% by mass, a total amount of added water and moisture in the ingredients in a range of 15% to 30% by mass, an amount of external additives in a range of 0.5% to 6.0% by mass, and a total amount of other components of 1% by mass or greater, wherein the total amount of blended ingredients is 100% by mass; the method comprising the steps of: a heating step of heating and granulating an ingredient mixture containing the cereals, beans, and starch, the vegetable protein sources, the animal protein sources and cysteine or a salt thereof and water, and a coating step of coating the ingredient mixture with the external additives after the granulating step, wherein the total content of the cysteine or the salt thereof is 0.01% by mass or greater and 0.5% by mass or less in terms of solid content with respect to the content of the ingredient mixture, and wherein the heating temperature in the heating step is in a range of 70°C to 160°C. a heating step of heating and granulating an ingredient mixture containing the cereals, beans, and starch, the vegetable protein sources, the animal protein sources and cysteine or a salt thereof and water, and a coating step of coating the ingredient mixture with the external additives after the granulating step, wherein the total content of the cysteine or the salt thereof is 0.01% by mass or greater and 0.5% by mass or less in terms of solid content with respect to the content of the ingredient mixture, and wherein the heating temperature in the heating step is in a range of 70°C to 160°C.
A patient support apparatus comprising: a support structure having a patient support surface adapted to support a patient thereon; a monitoring system configured to be armed and disarmed, the monitoring system adapted to monitor a set of conditions of the patient support apparatus and to generate an alert when the monitoring system is armed and at least one condition from the set of conditions changes from a desired state to an undesired state; a user interface comprising a display and a monitor navigation control ; and a controller operably coupled to the user interface , characterized in that the controller is configured to perform all of the following in response to a single action by a user to activate the monitor navigation control: display a monitoring control screen on the display ; determine whether a setting of the monitoring system was previously customized for the patient; and arm the monitoring system with the patient-customized setting if the setting was previously customized for the patient or with a preset setting if the setting was not previously customized for the patient. a support structure having a patient support surface adapted to support a patient thereon; a monitoring system configured to be armed and disarmed, the monitoring system adapted to monitor a set of conditions of the patient support apparatus and to generate an alert when the monitoring system is armed and at least one condition from the set of conditions changes from a desired state to an undesired state; a user interface comprising a display and a monitor navigation control ; and a controller operably coupled to the user interface , characterized in that the controller is configured to perform all of the following in response to a single action by a user to activate the monitor navigation control: display a monitoring control screen on the display ; determine whether a setting of the monitoring system was previously customized for the patient; and arm the monitoring system with the patient-customized setting if the setting was previously customized for the patient or with a preset setting if the setting was not previously customized for the patient. display a monitoring control screen on the display ; determine whether a setting of the monitoring system was previously customized for the patient; and arm the monitoring system with the patient-customized setting if the setting was previously customized for the patient or with a preset setting if the setting was not previously customized for the patient.
Lacquer preparation in aerosol form, comprising or consisting of (a) at least one SiH-functionalized polysiloxane, (b) a solvent, (c) a propellant gas and optionally (d) a base lacquer based on a self-crosslinking polymer, (a) at least one SiH-functionalized polysiloxane, (b) a solvent, (c) a propellant gas and optionally (d) a base lacquer based on a self-crosslinking polymer,
A cover structure for the transmission of a motorcycle, arranged sideways for the protection of the transmission member transmitting the driving force from the engine to the rear wheel, comprising: • a first cover member apt to protect said transmission members, longitudinally extending along a direction which coincides with the direction of travel (F), from a receding front area , corresponding to the engine axis, to a rear area corresponding to the driven axis of the rear wheel, and comprising an inlet hole positioned at an inlet port of the transmission at said receding front area ; • a second cover member partially overlapping said receding front area to protect said inlet hole , characterized in that the second cover member is forming, with the said first cover member , an air intake at a portion of the receding front area left uncovered by said second cover member , extending from an upper edge to a lower edge of the first cover member and defining an air inlet section facing said rear area , oriented in a direction opposite to the motorcycle direction of travel (F); and in that • a baffle , is disposed between the first and the second cover members at said air intake , in such a way as to form a channel driving the air upwardly to said inlet hole . • a first cover member apt to protect said transmission members, longitudinally extending along a direction which coincides with the direction of travel (F), from a receding front area , corresponding to the engine axis, to a rear area corresponding to the driven axis of the rear wheel, and comprising an inlet hole positioned at an inlet port of the transmission at said receding front area ; • a second cover member partially overlapping said receding front area to protect said inlet hole , characterized in that the second cover member is forming, with the said first cover member , an air intake at a portion of the receding front area left uncovered by said second cover member , extending from an upper edge to a lower edge of the first cover member and defining an air inlet section facing said rear area , oriented in a direction opposite to the motorcycle direction of travel (F); and in that • a baffle , is disposed between the first and the second cover members at said air intake , in such a way as to form a channel driving the air upwardly to said inlet hole .
Method for testing semiconductor wafers using a temperature-controllable tensioning device , comprising the steps of: temperature-controlling the tensioning device to a predetermined measurement temperature, using an electrical heating device (HE) having a predetermined heating power (PW) and a cooling device , through which a fluid (F) is passed for cooling, having a predetermined cooling power (PK); laying the rear face (R) of a semiconductor wafer on a support face (AF) of the temperature-controllable tensioning device ; positioning a probe card (7', 7'a) on the front face (O) of the semiconductor wafer ; testing the temperature-controlled semiconductor wafer by applying the test power (PT) of a testing device (TV) to a chip region (CH) of the front face (O) of the semiconductor wafer by means of probes of the positioned probe card (7', 7'a); and detecting, during the testing, a temperature increase, which reflects the test power (PT), of the fluid (F); wherein the heating power (PW) is greater than a predetermined test power (PT); and wherein the heating power (PW) is reduced by withdrawing the test power (PT) during the testing at a substantially constant cooling power (PK) while taking account of the temperature increase, detected during the testing, of the fluid (F); wherein the temperature increase of the fluid (F) is detected while taking account of the signals of a fifth and sixth temperature detection device (TS5, TS6), which detect, during the testing, the input temperature (Tin) and output temperature (Tout) of the fluid (F) supplied to the tensioning device by the cooling device for cooling. temperature-controlling the tensioning device to a predetermined measurement temperature, using an electrical heating device (HE) having a predetermined heating power (PW) and a cooling device , through which a fluid (F) is passed for cooling, having a predetermined cooling power (PK); laying the rear face (R) of a semiconductor wafer on a support face (AF) of the temperature-controllable tensioning device ; positioning a probe card (7', 7'a) on the front face (O) of the semiconductor wafer ; testing the temperature-controlled semiconductor wafer by applying the test power (PT) of a testing device (TV) to a chip region (CH) of the front face (O) of the semiconductor wafer by means of probes of the positioned probe card (7', 7'a); and detecting, during the testing, a temperature increase, which reflects the test power (PT), of the fluid (F); wherein the heating power (PW) is greater than a predetermined test power (PT); and wherein the heating power (PW) is reduced by withdrawing the test power (PT) during the testing at a substantially constant cooling power (PK) while taking account of the temperature increase, detected during the testing, of the fluid (F); wherein the temperature increase of the fluid (F) is detected while taking account of the signals of a fifth and sixth temperature detection device (TS5, TS6), which detect, during the testing, the input temperature (Tin) and output temperature (Tout) of the fluid (F) supplied to the tensioning device by the cooling device for cooling.
A drip chamber insert , comprising: an elongate body portion comprising an upper surface , and a base portion positioned downstream of the elongate body portion for coupling to a drip chamber, the base portion having an upper surface , and a lower surface defining an outlet orifice of the drip chamber insert; a first chamber disposed in the elongate body portion and fluidly coupled to the upper surface of the elongate body portion via an inlet orifice and to the outlet orifice via the base portion ; an anti-run-dry membrane disposed on the upper surface of the elongate body portion extending over the inlet orifice , and configured to allow a liquid to pass therethrough; a second chamber disposed in the elongate body portion and extending through the upper surface of the elongate body portion to the base portion , the second chamber having an open proximal end configured to receive at least a portion of the liquid into the second chamber ; and a low flowrate orifice extending from a base of the second chamber into the base portion for fluidly coupling the second chamber with the outlet orifice . an elongate body portion comprising an upper surface , and a base portion positioned downstream of the elongate body portion for coupling to a drip chamber, the base portion having an upper surface , and a lower surface defining an outlet orifice of the drip chamber insert; a first chamber disposed in the elongate body portion and fluidly coupled to the upper surface of the elongate body portion via an inlet orifice and to the outlet orifice via the base portion ; an anti-run-dry membrane disposed on the upper surface of the elongate body portion extending over the inlet orifice , and configured to allow a liquid to pass therethrough; a second chamber disposed in the elongate body portion and extending through the upper surface of the elongate body portion to the base portion , the second chamber having an open proximal end configured to receive at least a portion of the liquid into the second chamber ; and a low flowrate orifice extending from a base of the second chamber into the base portion for fluidly coupling the second chamber with the outlet orifice .
A synchronous superconducting rotary machine comprising: - a rotor arranged rotatably relative to a stator , wherein - the rotor comprises at least a back iron configured to be connected to a drive axis, the rotor further comprises a plurality of first pole units with superconductive rotor coils , the rotor coils are configured to interact with a plurality of stator coils arranged in the stator via an electromagnetic field when the rotor is rotated relative to the stator , - wherein each of the first pole units is removably connected to the back iron by means of at least one mechanical coupling comprising a first coupling element and a mating second coupling element , the first and second coupling elements extend in a longitudinal direction of the generator, wherein the first coupling element is configured to move in an axial direction relative to the second coupling element characterised in that the rotor comprises at least one base element arranged between the back iron and at least one of the first pole units and a thermally insulating support structure connected to the at least one base element and to the back iron of the rotor , and in that the mechanical coupling being arranged between the at least one base element and that first pole unit , wherein the at least one base element is spaced apart from the back iron by the support structure so that a magnetic air gap is formed between the base element and the back iron . - a rotor arranged rotatably relative to a stator , wherein - the rotor comprises at least a back iron configured to be connected to a drive axis, the rotor further comprises a plurality of first pole units with superconductive rotor coils , the rotor coils are configured to interact with a plurality of stator coils arranged in the stator via an electromagnetic field when the rotor is rotated relative to the stator , - wherein each of the first pole units is removably connected to the back iron by means of at least one mechanical coupling comprising a first coupling element and a mating second coupling element , the first and second coupling elements extend in a longitudinal direction of the generator, wherein the first coupling element is configured to move in an axial direction relative to the second coupling element characterised in that
A method for curing an adhesive composition , comprising: arranging an adhesive composition that transmits laser light of a first wavelength in contact with a surface of a first adherend that contains, at least at its surface, a first light-to-heat conversion material that generates heat by absorbing laser light of the first wavelength; and curing the adhesive composition by irradiating the adhesive composition and the first adherend with laser light of the first wavelength, characterized in that the adhesive composition contains a second light-to-heat conversion material that changes, when heated, to a material that generates heat by absorbing laser light of the first wavelength, the first light-to-heat conversion material is at least one color material select from the group consisting of inorganic pigments, organic pigments, and dyes, and the second light-to-heat conversion material is a thermochromic material. arranging an adhesive composition that transmits laser light of a first wavelength in contact with a surface of a first adherend that contains, at least at its surface, a first light-to-heat conversion material that generates heat by absorbing laser light of the first wavelength; and curing the adhesive composition by irradiating the adhesive composition and the first adherend with laser light of the first wavelength, characterized in that the adhesive composition contains a second light-to-heat conversion material that changes, when heated, to a material that generates heat by absorbing laser light of the first wavelength, the first light-to-heat conversion material is at least one color material select from the group consisting of inorganic pigments, organic pigments, and dyes, and the second light-to-heat conversion material is a thermochromic material.
A semiconductor device , comprising: a first electrode (E1) provided on a semiconductor multilayer structure ; a second electrode (E2) provided on a mounting substrate ; and a bonding metal layer that bonds the first electrode (E1) and the second electrode (E2) together, the bonding metal layer including a gap within the bonding metal layer, wherein the bonding metal layer is in contact with the first electrode (E1), and includes: a first layer having a first average crystal grain size, a second layer located opposite to the first electrode (E1) and having a second average crystal grain size, and a third layer located between the second layer and the mounting substrate and having a third average crystal grain size, the first average crystal grain size and the third average crystal grain size are greater than the second average crystal grain size, and the gap is present in the second layer , characterised in that the gap is present in the bonding metal layer in such a manner as to be embedded in the bonding metal layer without contacting the first electrode (El) or the second electrode (E2). a first electrode (E1) provided on a semiconductor multilayer structure ; a second electrode (E2) provided on a mounting substrate ; and a bonding metal layer that bonds the first electrode (E1) and the second electrode (E2) together, the bonding metal layer including a gap within the bonding metal layer, wherein the bonding metal layer is in contact with the first electrode (E1), and includes: a first layer having a first average crystal grain size, a second layer located opposite to the first electrode (E1) and having a second average crystal grain size, and a third layer located between the second layer and the mounting substrate and having a third average crystal grain size, the first average crystal grain size and the third average crystal grain size are greater than the second average crystal grain size, and the gap is present in the second layer , characterised in that the gap is present in the bonding metal layer in such a manner as to be embedded in the bonding metal layer without contacting the first electrode (El) or the second electrode (E2).
An antibody against human TGF-α containing a light chain variable region containing CDRs 1-3 as defined by SEQ ID NOs: 55 to 57, respectively, and a heavy chain variable region containing CDRs 1-3 as defined by SEQ ID NOs: 58 to 60, respectively.
A data transmission method for use with a free-space optical communication system, the method comprising: selecting , by a processing element , a data frame for transmission to a receiver device; prepending a current state of a resequencing buffer to the data frame to form an information block ; scrambling the information block with a scrambling sequence to generate scrambled data ; applying an error correction code to the scrambled data to obtain a frame; and transmitting , by a transmitter device, the frame to a receiver device of the free-space optical communication system. selecting , by a processing element , a data frame for transmission to a receiver device; prepending a current state of a resequencing buffer to the data frame to form an information block ; scrambling the information block with a scrambling sequence to generate scrambled data ; applying an error correction code to the scrambled data to obtain a frame; and transmitting , by a transmitter device, the frame to a receiver device of the free-space optical communication system.
Simulation apparatus with a rotating LiDAR light measurement system having LiDAR light transducer and a LiDAR light reception sensor , wherein the LiDAR light reception sensor rotates through 360° about a shaft , characterized in that a light transmitter strip is present in the plane of the LiDAR light reception sensor in the reception region of the LiDAR light reception sensor and a further light transmitter strip is present next to the light transmitter strip in a light strip cylinder , wherein the LiDAR light measurement system is arranged within the light strip cylinder, wherein a LiDAR light signal from the LiDAR light transducer is activated by a photodetector , an amplifier , a comparator , a retardation member , an LED driver and a LED or a laser diode driver and a laser diode in a first light transmitter (15.1, 15.2, 15.3) of the first light transmitter strip and/or a further light transmitter of the further light transmitter strip .
A fabric care composition comprising (i) at least one hydrophobically modified polyalkyleneimine, wherein the hydrophobically modified polyalkyleneimine comprises a polyalkyleneimine backbone having a weight-average molecular weight greater than or equal to 200 g/mol and less than 1000 g/mol, preferably greater than or equal to 300 g/mol and less than 1000 g/mol, more preferably greater than or equal to 500 g/mol and less than 1000 g/mol; and hydrophobic moieties which are covalently attached to the backbone of polyalkyleneimine; and (ii) at least one nonionic, anionic and/or cationic surfactant.
A liquid chromatograph mass spectrometer, comprising: a liquid chromatograph including a liquid feed pump configured to feed a mobile phase solvent toward a standard sample container ; and a mass spectrometer configured to analyze a mass of a sample; wherein the standard sample container configured to be installed between the liquid feed pump of the liquid chromatograph and the mass spectrometer , wherein the standard sample container is configured to be connected in series with the liquid chromatograph and the mass spectrometer , and to house a standard sample for mass calibration, characterized in that : the standard sample container includes: a cylindrical case that includes an injection hole (H1) at a first end and a discharge hole (H2) at a second end and that has a flow path direction as a longitudinal direction, and a partition plate configured to be movable along an inner wall of the case and partitioning an inside of the case , and wherein the partition plate is configured to be movable in a direction of the discharge hole (H2) due to movement of a mobile phase solution from the injection hole (H1). a liquid chromatograph including a liquid feed pump configured to feed a mobile phase solvent toward a standard sample container ; and a mass spectrometer configured to analyze a mass of a sample; wherein the standard sample container configured to be installed between the liquid feed pump of the liquid chromatograph and the mass spectrometer , wherein the standard sample container is configured to be connected in series with the liquid chromatograph and the mass spectrometer , and to house a standard sample for mass calibration, characterized in that : the standard sample container includes: a cylindrical case that includes an injection hole (H1) at a first end and a discharge hole (H2) at a second end and that has a flow path direction as a longitudinal direction, and a partition plate configured to be movable along an inner wall of the case and partitioning an inside of the case , and wherein the partition plate is configured to be movable in a direction of the discharge hole (H2) due to movement of a mobile phase solution from the injection hole (H1). a cylindrical case that includes an injection hole (H1) at a first end and a discharge hole (H2) at a second end and that has a flow path direction as a longitudinal direction, and a partition plate configured to be movable along an inner wall of the case and partitioning an inside of the case , and wherein the partition plate is configured to be movable in a direction of the discharge hole (H2) due to movement of a mobile phase solution from the injection hole (H1).