mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving a B-format primary ambisonic signal including W, X, Y, and Z components; determining , for a first signal band of the primary ambisonic signal, a difference between a total energy of the X, Y, and Z components and a total energy of the W component of the primary ambisonic signal; determining a secondary ambisonic signal using information about the difference between the total energy of the X, Y, and Z components and the total energy of the W component of the primary ambisonic signal; generating an output signal based on the secondary ambisonic signal, the generating including scaling the secondary ambisonic signal for one or more of independent output, decoding, and spatial rendering; wherein the method is characterised by : generating a re-balanced primary ambisonic signal based on a difference between the primary ambisonic signal as-received and the secondary ambisonic signal; and generating an output signal based on the re-balanced primary ambisonic signal. receiving a B-format primary ambisonic signal including W, X, Y, and Z components; determining , for a first signal band of the primary ambisonic signal, a difference between a total energy of the X, Y, and Z components and a total energy of the W component of the primary ambisonic signal; determining a secondary ambisonic signal using information about the difference between the total energy of the X, Y, and Z components and the total energy of the W component of the primary ambisonic signal; generating an output signal based on the secondary ambisonic signal, the generating including scaling the secondary ambisonic signal for one or more of independent output, decoding, and spatial rendering; wherein the method is characterised by : generating a re-balanced primary ambisonic signal based on a difference between the primary ambisonic signal as-received and the secondary ambisonic signal; and generating an output signal based on the re-balanced primary ambisonic signal. generating a re-balanced primary ambisonic signal based on a difference between the primary ambisonic signal as-received and the secondary ambisonic signal; and generating an output signal based on the re-balanced primary ambisonic signal.
Method of feeding newly hatched chicks in an industrial environment in a climate chamber during a first stage of life from hatching, the method comprising; a) controlling the temperature and humidity in the climate chamber, b) operating a ventilation means to generate an air flow through the climate chamber, and c) supplying the newly hatched chicks with self moving live feed as perceived by the newly hatched chicken in the climate chamber, wherein the first stage of life comprises the first 1 to 4 days of life. a) controlling the temperature and humidity in the climate chamber, b) operating a ventilation means to generate an air flow through the climate chamber, and c) supplying the newly hatched chicks with self moving live feed as perceived by the newly hatched chicken in the climate chamber,
A use of a solid alkaline detergent composition for reducing corrosion and providing metal protection, the composition comprising: at least 0.05 wt. % of a carbonate alkalinity source; from 1 wt. % to 7.5 wt. % of one or more nonionic surfactants, wherein the nonionic surfactant comprises a combination of ethylene and propylene oxide; a metal protecting component comprising from 15 wt. % to 30 wt. % of a silicate and from 0.01 wt. % to 3.5 wt. % of an amino carboxylate, wherein said metal protecting component comprises 33.5 wt. % or less of said detergent composition, from 0.1 wt. % to 15 wt. % of a corrosion inhibitor, wherein said corrosion inhibitor comprises one or more of a maleic acid copolymer or an acrylic acid polymer; from 1 wt. % to 10 wt. % of chelant, wherein the chelant is selected from amino phosphonates, polyfunctionally-substituted aromatic chelating agents, and mixtures thereof; and from 4 wt. % to 10 wt. % of water. at least 0.05 wt. % of a carbonate alkalinity source; from 1 wt. % to 7.5 wt. % of one or more nonionic surfactants, wherein the nonionic surfactant comprises a combination of ethylene and propylene oxide; a metal protecting component comprising from 15 wt. % to 30 wt. % of a silicate and from 0.01 wt. % to 3.5 wt. % of an amino carboxylate, wherein said metal protecting component comprises 33.5 wt. % or less of said detergent composition, from 0.1 wt. % to 15 wt. % of a corrosion inhibitor, wherein said corrosion inhibitor comprises one or more of a maleic acid copolymer or an acrylic acid polymer; from 1 wt. % to 10 wt. % of chelant, wherein the chelant is selected from amino phosphonates, polyfunctionally-substituted aromatic chelating agents, and mixtures thereof; and from 4 wt. % to 10 wt. % of water.
Use of an oil composition comprising silicone oil for stabilizing storage of hydrogen peroxide, wherein the oil composition is applied to an inner surface of a container or a syringe.
A method for manufacturing a shaft joint of a universal joint using a pipe, the universal joint comprising a combination of a shaft joint and a pipe joint integrated with yokes (25 and 35), respectively; the shaft joint being manufactured by: a material preparation step (S11) of preparing a material (B) by cutting a seamless pipe (A) to a predetermined length; a shaft formation step (S12) of forming a shaft by reducing an outer diameter of a shaft formation portion , obtained by excluding a head formation portion from the material (B), by forming an outside of the shaft formation portion with a forming machine; a cutting step (S13) of bisecting the non-reduced head formation portion by forming a split across the non-reduced head formation portion in an axial direction by means of a cutting machine or a metal laser cutting machine; a yoke formation step (S14) of forming both opposite members of a yoke in a head by means of a pressing method of introducing the bisected head formation portion into a die and then pressing an upper press die into an inside of the head formation portion ; a pinhole formation step (S15) of forming a pinhole across the yoke ; and a spline shaft formation step (S16) of forming a spline shaft on an outer surface of the reduced hollow shaft . a material preparation step (S11) of preparing a material (B) by cutting a seamless pipe (A) to a predetermined length; a shaft formation step (S12) of forming a shaft by reducing an outer diameter of a shaft formation portion , obtained by excluding a head formation portion from the material (B), by forming an outside of the shaft formation portion with a forming machine; a cutting step (S13) of bisecting the non-reduced head formation portion by forming a split across the non-reduced head formation portion in an axial direction by means of a cutting machine or a metal laser cutting machine; a yoke formation step (S14) of forming both opposite members of a yoke in a head by means of a pressing method of introducing the bisected head formation portion into a die and then pressing an upper press die into an inside of the head formation portion ; a pinhole formation step (S15) of forming a pinhole across the yoke ; and a spline shaft formation step (S16) of forming a spline shaft on an outer surface of the reduced hollow shaft .
A chip card comprising a card body which is equipped with a cavity in the top side thereof, and a chip module which is inserted into the cavity, wherein the chip module is inserted into the cavity in such a manner that module contacts of the chip module face antenna contacts of an antenna arranged in the card body, said antenna contacts being arranged in a bottom of the cavity, and wherein the module contacts make electrical contact with the antenna contacts via wire connections which are formed by contact conductors and are arranged in the cavity, characterised in that the wire connections have a contact conductor cross-section whose width along a transverse axis arranged parallel to a contact surface of the antenna contacts and of the module contacts is larger than the height of said cross-section along a vertical axis arranged perpendicular to the contact surface of the antenna contacts and of the module contacts, wherein the contact conductor cross-section is formed as a flat ribbon cross-section , having a bottom edge and a top edge which are formed so as to be substantially parallel to the transverse axis , wherein the contact conductors have at least one kink , wherein, for forming the kink , the contact conductors have a kink cross-section having a reduced cross-sectional area. wherein the chip module is inserted into the cavity in such a manner that module contacts of the chip module face antenna contacts of an antenna arranged in the card body, said antenna contacts being arranged in a bottom of the cavity, and wherein the module contacts make electrical contact with the antenna contacts via wire connections which are formed by contact conductors and are arranged in the cavity, characterised in that the wire connections have a contact conductor cross-section whose width along a transverse axis arranged parallel to a contact surface of the antenna contacts and of the module contacts is larger than the height of said cross-section along a vertical axis arranged perpendicular to the contact surface of the antenna contacts and of the module contacts, wherein the contact conductor cross-section is formed as a flat ribbon cross-section , having a bottom edge and a top edge which are formed so as to be substantially parallel to the transverse axis , wherein the contact conductors have at least one kink , wherein, for forming the kink , the contact conductors have a kink cross-section having a reduced cross-sectional area.
A screen, preferably for use in the wood-working industry, at which the screening is implemented by means of meshes having different mesh sizes and comprising a number of mesh levels one above another, with which screen wood-based raw material is screened into different-sized fractions, preferably after chipping and drying, which screen comprises a frame part and a moving part , wherein the moving part of the screen comprises at least two screen modules and at least one frame module , characterized in that the pressure of a dust explosion possibly occurring in a screen module is conducted in the frame module via at least one flame extinguisher of the screen and/or that the walls facing towards the frame module of the screen modules are provided with explosion hatches and/or burst discs for directing the pressure of a dust explosion into the space of the frame module and/or between the screen modules and from there either upwards or downwards into a free space. the pressure of a dust explosion possibly occurring in a screen module is conducted in the frame module via at least one flame extinguisher of the screen and/or that the walls facing towards the frame module of the screen modules are provided with explosion hatches and/or burst discs for directing the pressure of a dust explosion into the space of the frame module and/or between the screen modules and from there either upwards or downwards into a free space.
A method of adjusting a position of a superconducting coil in an electromagnet, wherein a magnetic structure is proximate to the superconducting coil, the method comprising: determining a rotational position associated with the electromagnet; and characterised by based on the rotational position, controlling a position of one or more magnetic shims in the magnetic structure proximate to the superconducting coil to adjust a position of the superconducting coil by changing a magnetic field produced by the magnetic structure. determining a rotational position associated with the electromagnet; and characterised by based on the rotational position, controlling a position of one or more magnetic shims in the magnetic structure proximate to the superconducting coil to adjust a position of the superconducting coil by changing a magnetic field produced by the magnetic structure.
The invention relates to industrially prefabricated elements for erecting a structure, consisting of a rectangular frame made of sheet metal profiles and a flat panelling , wherein the frame consists of C-shaped or U-shaped sheet metal profiles and the panelling consists of a wood material, wherein the long sides of the sheet metal profiles form the outer edges, i.e. the end faces, of the elements , and wherein the size of the individual elements is chosen so that they can be carried by two men and can be joined together and wherein several elements can be stacked on a pallet, characterised in that the panelling is only mounted on one side in the prefabrication, wherein the elements are standardised and modular, wherein only a limited number of different elements are constructed, wherein there are three different basic types of elements, namely wall elements (A1, A2, A3, etc.), ceiling elements (DE) and lintels (UE1, UE2, UE3, etc.), wherein the lintels (UE1, UE2, UE3, etc.) complete the walls at the top, i.e. lintels are mounted between ceiling elements (DE) and wall elements (A1, A2, A3, etc.), wherein the wall elements (A1, A2, A3, etc.) have a basic size and there are compensating elements (B1, B2, C1, C2, etc.) of different sizes in order to easily implement different wall openings for windows, doors or something like that.
A method for controlling a robotic device by a control unit (CU) of a clipping machine (CM), the robotic device being arranged in a system for producing sausage-shaped products (S) by filling a filling material into a tubular packaging casing supply (M) arranged on a filling tube of the clipping machine (CM), wherein the system comprises at least the clipping machine (CM) provided with at least a first filling tube and preferably a second filling tube and a first and preferably a second casing brake assembly , a storage device for storing at least one tubular packaging casing supply (M), and a robotic device for transferring a tubular packaging casing supply (M) from the storage device onto a filling tube of the clipping machine (CM), wherein the control unit (CU) is adapted to provide control commands at least to the robotic device , and wherein the robotic device includes a first gripper unit for gripping a tubular packaging casing supply (M) and a second gripper unit for gripping the first casing brake assembly , the method comprises the steps of: - removing the casing brake assembly from the filling tube by the second gripper unit ; - moving the robotic device into a take-up position for taking up by the first gripper unit a tubular packaging casing supply (M) provided in a storage device ; - gripping the tubular packaging casing supply (M) provided in a storage device by the first gripper unit ; - moving the robotic device from the take-up position toward the filling tube ; - transferring the tubular packaging casing supply (M) onto the filling tube by the first gripper unit ; - releasing the tubular packaging casing supply (M) onto the filling tube of the clipping machine (CM) by the first gripper unit , and - positioning the casing brake assembly on the filling tube by the second gripper unit . - removing the casing brake assembly from the filling tube by the second gripper unit ; - moving the robotic device into a take-up position for taking up by the first gripper unit a tubular packaging casing supply (M) provided in a storage device ; - gripping the tubular packaging casing supply (M) provided in a storage device by the first gripper unit ; - moving the robotic device from the take-up position toward the filling tube ; - transferring the tubular packaging casing supply (M) onto the filling tube by the first gripper unit ; - releasing the tubular packaging casing supply (M) onto the filling tube of the clipping machine (CM) by the first gripper unit , and - positioning the casing brake assembly on the filling tube by the second gripper unit .
A magazine assembly for temporarily receiving joining elements , having - a housing defining a longitudinal axis , within which a plurality of joining elements can be accommodated axially in sequence, and - a conveyor , which is configured for conveying joining elements from a first axial end of the housing to an opposite second axial end of the housing, characterized in that a plurality of housing nests is formed within the housing , which are arranged in sequence along the longitudinal axis and which are each configured for receiving a joining element , wherein the conveyor is configured for conveying a single joining element or several joining elements in cycles from an infeed housing nest at the first axial end of the housing to a dispensing housing nest at the opposite second axial end of the housing . - a housing defining a longitudinal axis , within which a plurality of joining elements can be accommodated axially in sequence, and - a conveyor , which is configured for conveying joining elements from a first axial end of the housing to an opposite second axial end of the housing,
An energy harvesting device configured to be integrated into an item of clothing, comprising: an insulated container , comprising: an outer membrane having a first side in contact with an external environment and a second side that defines at least a portion of an internal cavity; an outer heat exchanger extending though the outer membrane , the outer heat exchanger comprising at least one surface in contact with the external environment; a thermoelectric generator module positioned within the internal cavity, the thermoelectric generator sandwiched between the outer heat exchanger and an inner heat exchanger ; and an expandable membrane encapsulating a mass of phase-change material , at least a portion of the expandable membrane coupled to the inner heat exchanger , wherein the outer heat exchanger , the thermoelectric generator , and the inner heat exchanger are configured to allow bi-directional conduction of heat between the phase-change material and the external environment, and wherein the phase-change material is configured to store a portion of heat energy absorbed during a dryer cycle as the item of clothing is laundered. an insulated container , comprising: an outer membrane having a first side in contact with an external environment and a second side that defines at least a portion of an internal cavity; an outer heat exchanger extending though the outer membrane , the outer heat exchanger comprising at least one surface in contact with the external environment; a thermoelectric generator module positioned within the internal cavity, the thermoelectric generator sandwiched between the outer heat exchanger and an inner heat exchanger ; and an expandable membrane encapsulating a mass of phase-change material , at least a portion of the expandable membrane coupled to the inner heat exchanger , an outer membrane having a first side in contact with an external environment and a second side that defines at least a portion of an internal cavity; an outer heat exchanger extending though the outer membrane , the outer heat exchanger comprising at least one surface in contact with the external environment; a thermoelectric generator module positioned within the internal cavity, the thermoelectric generator sandwiched between the outer heat exchanger and an inner heat exchanger ; and an expandable membrane encapsulating a mass of phase-change material , at least a portion of the expandable membrane coupled to the inner heat exchanger , wherein the outer heat exchanger , the thermoelectric generator , and the inner heat exchanger are configured to allow bi-directional conduction of heat between the phase-change material and the external environment, and wherein the phase-change material is configured to store a portion of heat energy absorbed during a dryer cycle as the item of clothing is laundered.
A method for building a representation of behavior of a container, the method comprising: Injecting (S2) a probe in an operating system associated with the container to monitor system calls to the operating system coming from the container, producing (S4) records for respective system calls, each record containing an identifier of a system call and a stack size used by the container for the system call, the records being put in an ordered queue, processing (S5) the records in the ordered queue into a graph comprising nodes respectively associated with used stack sizes and edges respectively associated with identifiers of system call between nodes, wherein an edge from one record is associated with the identifier of the system call of the one record and links a node associated with a previous record to the node associated with the one record. Injecting (S2) a probe in an operating system associated with the container to monitor system calls to the operating system coming from the container, producing (S4) records for respective system calls, each record containing an identifier of a system call and a stack size used by the container for the system call, the records being put in an ordered queue, processing (S5) the records in the ordered queue into a graph comprising nodes respectively associated with used stack sizes and edges respectively associated with identifiers of system call between nodes, wherein an edge from one record is associated with the identifier of the system call of the one record and links a node associated with a previous record to the node associated with the one record.