mhurhangee/ep-ind-claims huggingface dataset:
Process for manufacturing an infant formula product comprising the following steps: (a) subjecting an aqueous mixture having a protein component and a carbohydrate component to a heat treatment step, (b) mixing the aqueous mixture with a lipid component, (c) subjecting the aqueous mixture comprising the lipid component, the carbohydrate component and the heat-treated protein component to a homogenization and emulsification step to obtain a homogenized oil-in-water emulsion having a total solids content in the range of 45 - 73 wt%; (d) conveying the homogenized emulsion into an extruder, independently adding digestible carbohydrates and optionally dietary fibres to the extruder and extruding the contents of the extruder wherein a gas is injected into the extruder, to obtain an extruded aerated material; (e) preparing an infant formula product from the extruded aerated material, wherein the extrusion of step (d) is performed at a temperature below 75 °C and wherein the extruded aerated material contains substantially all proteins and/or lipids that are nutritionally required for an infant formula. (a) subjecting an aqueous mixture having a protein component and a carbohydrate component to a heat treatment step, (b) mixing the aqueous mixture with a lipid component, (c) subjecting the aqueous mixture comprising the lipid component, the carbohydrate component and the heat-treated protein component to a homogenization and emulsification step to obtain a homogenized oil-in-water emulsion having a total solids content in the range of 45 - 73 wt%; (d) conveying the homogenized emulsion into an extruder, independently adding digestible carbohydrates and optionally dietary fibres to the extruder and extruding the contents of the extruder wherein a gas is injected into the extruder, to obtain an extruded aerated material; (e) preparing an infant formula product from the extruded aerated material,
An exhalation measurement device, which measures a specific component in exhalation blown in, comprising: a chamber that temporarily holds exhalation blown in; a measurement component that measures the specific component in exhalation; a piezoelectric pump that supplies the measurement component with exhalation held in the chamber; a first learning controller that performs operational setting on the piezoelectric pump; and a second learning controller that performs operational setting on the piezoelectric pump after the piezoelectric pump has started supplying the exhalation in the chamber to the measurement component, but before the measurement component performs its measurement; characterized in that: the operational setting performed by the first learning controller is performed before the piezoelectric pump supplies the exhalation in the chamber to the measurement component. a chamber that temporarily holds exhalation blown in; a measurement component that measures the specific component in exhalation; a piezoelectric pump that supplies the measurement component with exhalation held in the chamber; a first learning controller that performs operational setting on the piezoelectric pump; and a second learning controller that performs operational setting on the piezoelectric pump after the piezoelectric pump has started supplying the exhalation in the chamber to the measurement component, but before the measurement component performs its measurement; characterized in that: the operational setting performed by the first learning controller is performed before the piezoelectric pump supplies the exhalation in the chamber to the measurement component.
Layer system which comprises at least: a substrate, a lower layer (7, 7', 7", 7'") which is present on the substrate, in particular directly on the substrate, optionally an outer layer (10, 10', 10", 10''', 10 IV, 10 V) on the lower layer (7, 7', 7", 7"'), wherein particles composed of aluminium (Al) having a soft hardness, in particular a hardness of up to Hv50, are present in the layer system, characterized in that the layer (7, 7', 7", 7"', 10, 10', 10", 10"', 10 IV, 10 V) comprises aluminium-containing particles (AL*) which are harder than the particles composed of aluminium (Al) and in that the aluminium-containing particles (AL*) comprise an aluminium alloy or aluminium having a hardening mechanism, in particular a precipitation-hardening aluminium alloy wherein the precipitation-hardening aluminium-containing particles (AL*) comprise, very particularly preferably consist of, aluminium-zinc (Al-Zn) and/or aluminium-zinc-manganese (Al-Zn-Mn) and/or aluminium-manganese-scandium (Al-Mn-Sc) and/or aluminium-magnesium-manganese (Al-Mg-Mn) and/or aluminium-magnesium-zinc-copper (Al-Mg-Zn-Cu) and/or aluminium-magnesium-zinc-copper-cobalt (Al-Mg-Zn-Cu-Co) and/or aluminium-copper-manganese-zinc (Al-Cu-Mn-Zn) and/or in particular the following alloys: Al 3 Li and/or AlZn4.5Mg1 and/or AlZnMgCu1.5 and/or AlZnMgCu0.5 and/or AlMg4.5Mn. a substrate, a lower layer (7, 7', 7", 7'") which is present on the substrate, in particular directly on the substrate, optionally an outer layer (10, 10', 10", 10''', 10 IV, 10 V) on the lower layer (7, 7', 7", 7"'), wherein particles composed of aluminium (Al) having a soft hardness, in particular a hardness of up to Hv50, are present in the layer system, the layer (7, 7', 7", 7"', 10, 10', 10", 10"', 10 IV, 10 V) comprises aluminium-containing particles (AL*) which are harder than the particles composed of aluminium (Al) and in that the aluminium-containing particles (AL*) comprise an aluminium alloy or aluminium having a hardening mechanism, in particular a precipitation-hardening aluminium alloy wherein the precipitation-hardening aluminium-containing particles (AL*) comprise, very particularly preferably consist of, aluminium-zinc (Al-Zn) and/or aluminium-zinc-manganese (Al-Zn-Mn) and/or aluminium-manganese-scandium (Al-Mn-Sc) and/or aluminium-magnesium-manganese (Al-Mg-Mn) and/or aluminium-magnesium-zinc-copper (Al-Mg-Zn-Cu) and/or aluminium-magnesium-zinc-copper-cobalt (Al-Mg-Zn-Cu-Co) and/or aluminium-copper-manganese-zinc (Al-Cu-Mn-Zn) and/or in particular the following alloys: Al 3 Li and/or AlZn4.5Mg1 and/or AlZnMgCu1.5 and/or AlZnMgCu0.5 and/or AlMg4.5Mn.
A method of making an optical biometric sensor, comprising: forming a collimator filter layer on an image sensor wafer, wherein a plurality of light collimating apertures in the collimator filter layer are aligned with a plurality of light sensing elements in the image sensor wafer; and after the forming the collimator filter layer on the image sensor wafer, singulating the image sensor wafer into a plurality of individual optical sensors. wherein one or more redistribution layers are disposed on a first side of the image sensor wafer, characterised in that forming the collimator filter layer comprises forming the plurality of light collimating apertures and routing circuitry for the light sensing elements of the image sensor wafer in the one or more redistribution layers. forming a collimator filter layer on an image sensor wafer, wherein a plurality of light collimating apertures in the collimator filter layer are aligned with a plurality of light sensing elements in the image sensor wafer; and after the forming the collimator filter layer on the image sensor wafer, singulating the image sensor wafer into a plurality of individual optical sensors. wherein one or more redistribution layers are disposed on a first side of the image sensor wafer, characterised in that forming the collimator filter layer comprises forming the plurality of light collimating apertures and routing circuitry for the light sensing elements of the image sensor wafer in the one or more redistribution layers.
A method for producing granulated blast-furnace slag, which is obtained by quenching and comminuting slag that accumulates in a smelting reactor, characterised in that slag-forming raw material in fine-grained form is first pre-heated and at least a partial quantity is pre-calcined and then fed to the smelting reactor, in that the pre-heated and pre-calcined raw material is incorporated in fine-grained form into the melt and the generated slag is withdrawn from the smelting reactor whilst more than 50% of the melt remains in the smelting reactor.
A package for unitizing a plurality of containers comprising: a flexible carrier having an array of container receiving apertures formed in longitudinal rows and transverse ranks wherein each container receiving aperture engages with a respective container of the plurality of containers and includes an outer band; and a secondary package is positioned with respect to the carrier and containers, characterised in that; each container receiving aperture is arcuate toward a centre of the flexible carrier and straight along an outer portion of flexible carrier; and in that the outer band is substantially narrower than remaining bands in the carrier and comprises a yielding section such that the outer band permanently deforms following stretching engagement with and application to a respective container. a flexible carrier having an array of container receiving apertures formed in longitudinal rows and transverse ranks wherein each container receiving aperture engages with a respective container of the plurality of containers and includes an outer band; and a secondary package is positioned with respect to the carrier and containers, characterised in that; each container receiving aperture is arcuate toward a centre of the flexible carrier and straight along an outer portion of flexible carrier; and in that the outer band is substantially narrower than remaining bands in the carrier and comprises a yielding section such that the outer band permanently deforms following stretching engagement with and application to a respective container.
A household laundry dryer comprising a cabinet, a drying circuit (9-13, 17, 18; 9-13, 17, 18, 21), motor means and a laundry drum having at least one inlet (7e; 7f) and one outlet (17; 7d) for the passage of drying air, the drum being mounted within the cabinet and having at least one member for agitating the laundry (8a, 8b), wherein the drum has a structure comprising a front wall, a rear wall and a peripheral wall that extends between the front wall and the rear wall for defining a volume for containing the laundry, wherein: - a first part (20; 20, 20'; 20") of the structure of the drum, including at least one of the front wall and the rear wall, as well as at least one respective portion (7c1, 7c2) of the peripheral wall, is mounted in a stationary position within the cabinet; - a second part of the structure of the drum, including at least one respective portion (7c3) of the peripheral wall is rotatably mounted within the cabinet, for rotating about a substantially horizontal axis of rotation, the first part (20; 20, 20'; 20") and the second part of the structure of the drum being substantially coaxial and there being associated to the second part of the structure of the drum the at least one member (8a, 8b) for agitating the laundry; - said portions (7c1, 7c2, 7c3) of the peripheral wall belonging to the first part (20; 20, 20'; 20") and to the second part of the structure of the drum are substantially cylindrical at least in a coupling region thereof; and - the motor means are operatively coupled to the second part of the structure of the drum for causing rotation thereof; characterized in that at least one portion of the first part (20; 20, 20'; 20") of the structure of the drum is shaped so as to present recesses or projections outwards for the purposes of housing or positioning one or more functional elements of the laundry dryer outside the drum. - a first part (20; 20, 20'; 20") of the structure of the drum, including at least one of the front wall and the rear wall, as well as at least one respective portion (7c1, 7c2) of the peripheral wall, is mounted in a stationary position within the cabinet; - a second part of the structure of the drum, including at least one respective portion (7c3) of the peripheral wall is rotatably mounted within the cabinet, for rotating about a substantially horizontal axis of rotation, the first part (20; 20, 20'; 20") and the second part of the structure of the drum being substantially coaxial and there being associated to the second part of the structure of the drum the at least one member (8a, 8b) for agitating the laundry; - said portions (7c1, 7c2, 7c3) of the peripheral wall belonging to the first part (20; 20, 20'; 20") and to the second part of the structure of the drum are substantially cylindrical at least in a coupling region thereof; and - the motor means are operatively coupled to the second part of the structure of the drum for causing rotation thereof;
A control apparatus (100a, 100b) of a robot cleaner comprising: a user interface unit (110a, 110b) configured to receive a user command controlling the robot cleaner; a controller (130a, 130b) configured to generate a control signal to receive a map of a cleaning area, based on the user command; and a communicator (120a, 120b) configured to receive the map of the cleaning area from an external server or from the robot cleaner, based on the control signal, wherein in response to the user interface receiving a schedule recommendation command from the user, the controller generates a cleaning schedule of the cleaning area that is appropriate for a state of the robot cleaner. a user interface unit (110a, 110b) configured to receive a user command controlling the robot cleaner; a controller (130a, 130b) configured to generate a control signal to receive a map of a cleaning area, based on the user command; and a communicator (120a, 120b) configured to receive the map of the cleaning area from an external server or from the robot cleaner, based on the control signal, wherein in response to the user interface receiving a schedule recommendation command from the user, the controller generates a cleaning schedule of the cleaning area that is appropriate for a state of the robot cleaner.
A method for determining the wear of a sliding bearing arranged in a wind turbine gearbox, in particular a planetary gearbox, which sliding bearing serves for mounting a gearbox component, characterized in that, by means of at least one distance sensor, which is arranged in the wind turbine gearbox, a radial displacement of the position of the gearbox component pivoted by means of the sliding bearing can be detected.
A device for rearing shellfish at sea, the set-up comprising: - a frame intended to be placed on the seabed; - at least one rearing enclosure delimiting internally a receiving volume for shellfish; - a link of said at least one rearing enclosure to the frame, permitting a rotation of said at least one rearing enclosure with respect to the frame about at least one substantially horizontal axis of rotation; - a float system linked to said at least one rearing enclosure by a flexible link of length chosen so that the float system, when the flexible link is tensioned vertically, is in the tidal range zone; the device being characterized in that same comprises a plurality of rearing enclosures located one above the other, each connected to the frame by a link permitting a rotation of said rearing enclosure with respect to the frame about at least one substantially horizontal axis of rotation, all the rearing enclosures being connected to the same float system; in that each rearing enclosure has a lower bottom, substantially flat; and in that the float system is configured to follow the sea level when the tide is at sea level, in order to transfer to the rearing enclosure a variation in inclination from top downwards and from bottom upwards as the sea rises and descends, so that the shells descend to the lower bottom. - a frame intended to be placed on the seabed; - at least one rearing enclosure delimiting internally a receiving volume for shellfish; - a link of said at least one rearing enclosure to the frame, permitting a rotation of said at least one rearing enclosure with respect to the frame about at least one substantially horizontal axis of rotation; - a float system linked to said at least one rearing enclosure by a flexible link of length chosen so that the float system, when the flexible link is tensioned vertically, is in the tidal range zone; in that each rearing enclosure has a lower bottom, substantially flat; and in that the float system is configured to follow the sea level when the tide is at sea level, in order to transfer to the rearing enclosure a variation in inclination from top downwards and from bottom upwards as the sea rises and descends, so that the shells descend to the lower bottom.
A method for detecting decompression of tires (FL, FR, RL, RR) based on the rotational speed of the wheels mounted on a vehicle, comprising the steps of: detecting rotational speed of each of said wheels; storing said rotational speed; determining a judgment value of decompression of tires by using a relative comparison of said rotational speed; storing the judgment value obtained in a memory; determining an average value obtained by a moving average of certain number of said judgment values; and judging decompression of tires by comparing said average value with a threshold, characterized in that the memory is a non volatile memory, and the judgment values are continuously calculated and stored in the non-volatile memory, even if the traveling of the vehicle is stopped, and the moving average is calculated at one of the next travelings. detecting rotational speed of each of said wheels; storing said rotational speed; determining a judgment value of decompression of tires by using a relative comparison of said rotational speed; storing the judgment value obtained in a memory; determining an average value obtained by a moving average of certain number of said judgment values; and judging decompression of tires by comparing said average value with a threshold, the memory is a non volatile memory, and the judgment values are continuously calculated and stored in the non-volatile memory, even if the traveling of the vehicle is stopped, and the moving average is calculated at one of the next travelings.
A hierarchical beamforming method, adapted to a base station, and comprising: performing a network entry procedure via a plurality of coarse beams sent by the base station by respectively using a superframe header (421, 410, 63) of a superframe (42, 53) corresponding to each of the coarse beams; receiving a success message of the network entry procedure from one of the coarse beams; identifying said one of the coarse beams as the preferred coarse beam, so as to transmit back a network entry done message in response to the success message by using the preferred coarse beam; and performing a user equipment connection via a plurality of fine beams sent by the base station within a direction range of the preferred coarse beam, so as to determine a preferred fine beam from the fine beams by using frame headers (423_1, 423_2, 501) of a plurality of basic frames (422_1∼422_(G*N), 500) respectively corresponding to the fine beams, and performing a data packet transmission by using a packet transmission block (424_1, 424_2, 502) of the basic frame (422_1∼422_(G*N), 500) corresponding to the preferred fine beam. performing a network entry procedure via a plurality of coarse beams sent by the base station by respectively using a superframe header (421, 410, 63) of a superframe (42, 53) corresponding to each of the coarse beams; receiving a success message of the network entry procedure from one of the coarse beams; identifying said one of the coarse beams as the preferred coarse beam, so as to transmit back a network entry done message in response to the success message by using the preferred coarse beam; and performing a user equipment connection via a plurality of fine beams sent by the base station within a direction range of the preferred coarse beam, so as to determine a preferred fine beam from the fine beams by using frame headers (423_1, 423_2, 501) of a plurality of basic frames (422_1∼422_(G*N), 500) respectively corresponding to the fine beams, and performing a data packet transmission by using a packet transmission block (424_1, 424_2, 502) of the basic frame (422_1∼422_(G*N), 500) corresponding to the preferred fine beam.
A cleaning composition, comprising: 1) hydroxylamine; 2) at least one first chelating agent, the first chelating agent being a polyaminopolycarboxylic acid; 3) at least one metal corrosion inhibitor, the metal corrosion inhibitor being a substituted or unsubstituted benzotriazole; 4) at least one organic solvent selected from the group consisting of water soluble alcohols, water soluble ketones, water soluble esters, and water soluble ethers; 5) at least one quaternary ammonium hydroxide; and 6) water. 1) hydroxylamine; 2) at least one first chelating agent, the first chelating agent being a polyaminopolycarboxylic acid; 3) at least one metal corrosion inhibitor, the metal corrosion inhibitor being a substituted or unsubstituted benzotriazole; 4) at least one organic solvent selected from the group consisting of water soluble alcohols, water soluble ketones, water soluble esters, and water soluble ethers; 5) at least one quaternary ammonium hydroxide; and 6) water.
A robot cleaner comprising: a traveling unit configured to move a main body; a cleaning unit configured to execute cleaning; a camera configured to capture an image including foreign substances; a communication unit configured to exchange data with a mobile terminal or a server; and a controller configured to control transmission of the image including the foreign substances and image related information to the mobile terminal or to the server; the controller is configured to execute cleaning of an area around the foreign substances based on cleaning execution information regarding the foreign substances or to execute no cleaning of the area around the foreign substances based on cleaning avoidance information regarding the foreign substances, transmitted from the mobile terminal or the server and characterised in that the controller is configured to control operation of the camera if a pet mode is set and to control, if an image related to excrement in the pet mode is acquired, transmission of the image related to excrement and image related information to the mobile terminal. a traveling unit configured to move a main body; a cleaning unit configured to execute cleaning; a camera configured to capture an image including foreign substances; a communication unit configured to exchange data with a mobile terminal or a server; and a controller configured to control transmission of the image including the foreign substances and image related information to the mobile terminal or to the server; the controller is configured to execute cleaning of an area around the foreign substances based on cleaning execution information regarding the foreign substances or to execute no cleaning of the area around the foreign substances based on cleaning avoidance information regarding the foreign substances, transmitted from the mobile terminal or the server and characterised in that the controller is configured to control operation of the camera if a pet mode is set and to control, if an image related to excrement in the pet mode is acquired, transmission of the image related to excrement and image related information to the mobile terminal.