mhurhangee/patent-ind-claim-en huggingface dataset:
A mixing apparatus configured to mix a first audio signal representing a first sound and a second audio signal representing a second sound to enable a listener to listen to the first sound in a more prioritized manner than the second sound, comprising: a weighting circuit configured to perform weighting, within a particular control target band, an amplitude spectrum of at least one of the first audio signal and the second audio signal taking at least one of frequency masking and time masking into account; a calculator configured to calculate a particular control value based on an amplitude ratio, within the control target band, of the first audio signal and the second audio signal to which the weighting have been applied; an amplitude changer configured to perform an amplitude spectrum changing process of relatively amplifying an amplitude spectrum of the first audio signal within the control target band by changing the amplitude spectrum of the at least one of the first audio signal and the second audio signal based on the particular control value; a phase changer configured to perform a phase spectrum changing process of making a phase spectrum of the second audio signal approach a phase spectrum of the first audio signal, within the control target band, by changing a phase spectrum of at least one of the first audio signal and the second audio signal based on the particular control value; and a mixer configured to mix the first audio signal and the second audio signal on which have been performed the amplitude spectrum changing process and the phase spectrum changing process. a weighting circuit configured to perform weighting, within a particular control target band, an amplitude spectrum of at least one of the first audio signal and the second audio signal taking at least one of frequency masking and time masking into account; a calculator configured to calculate a particular control value based on an amplitude ratio, within the control target band, of the first audio signal and the second audio signal to which the weighting have been applied; an amplitude changer configured to perform an amplitude spectrum changing process of relatively amplifying an amplitude spectrum of the first audio signal within the control target band by changing the amplitude spectrum of the at least one of the first audio signal and the second audio signal based on the particular control value; a phase changer configured to perform a phase spectrum changing process of making a phase spectrum of the second audio signal approach a phase spectrum of the first audio signal, within the control target band, by changing a phase spectrum of at least one of the first audio signal and the second audio signal based on the particular control value; and a mixer configured to mix the first audio signal and the second audio signal on which have been performed the amplitude spectrum changing process and the phase spectrum changing process.
Method for the handling and / or marketing of item that are delivered by at least one first actor, such as supplier, to a receiving unit of a warehouse, wherein an individual identification is assigned to the item, wherein the item, using a handling system integrated in the warehouse, is automatically receive through the receiving unit and stored in a storage area of the warehouse and wherein the item, after entering the individual identification by at least one second actor or after identification of the at least one second actor, is automatically delivered from the storage area by means of the handling system to a discharge unit and is take out from the warehouse by the at least one second actor, such as a taker or customer, characterized in, that the assignment of the individual identification to the item occurs by recording the item or a coding of the item during the automated receiving, by an input from the first actor or by generating from the warehouse, wherein the item is assigned via the individual identification an information about a storage temperature, that a warehouse is used in which the storage area has different air conditioning zones, one of the air conditioning zones is a deep-freeze zone, that the item is automatically stored by means of a storage robot of the handling system according to the storage temperature assigned to the item in one of the air conditioning zones of the storage area and that the item via the individual identification information about a best before date or expiry date is assigned, wherein the item is relocated using the storage robot automatically according to previously defined process steps in the deep-freeze zone before the expiry date or expiry date expires.
A process for the preparation of levulinic acid comprising: (a) providing a feedstock comprising fructose and glucose; (b) mixing methanol and an acid with said feedstock and allowing insoluble matter to separate forming a first stream; (c) subjecting said first stream to solid-liquid separation forming a reaction mixture free of said insoluble matter; (d) maintaining said reaction mixture at an effective temperature for a specific time period forming in a second stream, wherein the temperature is between 90° C and 120° C; (e) subjecting said second stream to pH correction using an alkali forming a third stream; (f) distilling said third stream forming a fourth stream and a forming a first distillate stream; (g) filtering said fourth stream forming a fifth stream; (h) extracting said fourth stream with an organic solvent to get a mixture of aqueous and organic phases; (i) separating said mixture by liquid-liquid separation forming an organic stream and an aqueous stream; (j) subjecting said organic stream to distillation to remove said organic solvent and get a product stream comprising methyl levulinate; (k) recovering levulinic acid from said methyl levulinate by hydrolysis and removal of methanol; and (l) recovering glucose from said aqueous stream by hydrolysis and removal of methanol. (a) providing a feedstock comprising fructose and glucose; (b) mixing methanol and an acid with said feedstock and allowing insoluble matter to separate forming a first stream; (c) subjecting said first stream to solid-liquid separation forming a reaction mixture free of said insoluble matter; (d) maintaining said reaction mixture at an effective temperature for a specific time period forming in a second stream, wherein the temperature is between 90° C and 120° C; (e) subjecting said second stream to pH correction using an alkali forming a third stream; (f) distilling said third stream forming a fourth stream and a forming a first distillate stream; (g) filtering said fourth stream forming a fifth stream; (h) extracting said fourth stream with an organic solvent to get a mixture of aqueous and organic phases; (i) separating said mixture by liquid-liquid separation forming an organic stream and an aqueous stream; (j) subjecting said organic stream to distillation to remove said organic solvent and get a product stream comprising methyl levulinate; (k) recovering levulinic acid from said methyl levulinate by hydrolysis and removal of methanol; and (l) recovering glucose from said aqueous stream by hydrolysis and removal of methanol.
A wireless connection control method, comprising: establishing (S701), by a distributed unit with a centralized unit, a control plane connection between the distributed unit and the centralized unit; receiving (S702), by the distributed unit, a radio resource control, RRC, connection request sent by a terminal; sending (S703), by the distributed unit, a control plane message comprising the RRC connection request to the centralized unit through the control plane connection between the distributed unit and the centralized unit, wherein the control plane message comprising the RRC connection request further comprises a first terminal identifier of the terminal, an identifier of a cell accessed by the terminal, and a second terminal identifier of the terminal, the first terminal identifier identifies the terminal on an air interface, and the second terminal identifier is an identifier allocated by the distributed unit for the terminal on the control plane connection; receiving (S704), by the distributed unit through the control plane connection, a control plane message that is sent by the centralized unit and that comprises a RRC connection establishment message; sending (S705), by the distributed unit, the RRC connection establishment message to the terminal; receiving (S706), by the distributed unit, a RRC connection establishment complete message sent by the terminal; and sending (S707), by the distributed unit, the RRC connection establishment complete message to the centralized unit. establishing (S701), by a distributed unit with a centralized unit, a control plane connection between the distributed unit and the centralized unit; receiving (S702), by the distributed unit, a radio resource control, RRC, connection request sent by a terminal; sending (S703), by the distributed unit, a control plane message comprising the RRC connection request to the centralized unit through the control plane connection between the distributed unit and the centralized unit, wherein the control plane message comprising the RRC connection request further comprises a first terminal identifier of the terminal, an identifier of a cell accessed by the terminal, and a second terminal identifier of the terminal, the first terminal identifier identifies the terminal on an air interface, and the second terminal identifier is an identifier allocated by the distributed unit for the terminal on the control plane connection; receiving (S704), by the distributed unit through the control plane connection, a control plane message that is sent by the centralized unit and that comprises a RRC connection establishment message; sending (S705), by the distributed unit, the RRC connection establishment message to the terminal; receiving (S706), by the distributed unit, a RRC connection establishment complete message sent by the terminal; and sending (S707), by the distributed unit, the RRC connection establishment complete message to the centralized unit.
A waterstop joint comprising: a sealing strip made of an elastomer or a rubber like material; two bulged portions , each bulged portion extending along a different one of said two peripheries of the sealing strip ; two fixation strips , each fixation strip extending from a different one of said two bulged portions , and extending in the same plane as the sealing strip ; a multitude of injection tubes for injecting a curing liquid, such as epoxy resin, wherein one outer end of each of said injection tubes is mounted to, or in the vicinity of, one of the fixation strips ; characterized in that the outer end of each of said injection tubes is mounted to, or immediately adjacent to, one of said two bulged portions . a sealing strip made of an elastomer or a rubber like material; two bulged portions , each bulged portion extending along a different one of said two peripheries of the sealing strip ; two fixation strips , each fixation strip extending from a different one of said two bulged portions , and extending in the same plane as the sealing strip ; a multitude of injection tubes for injecting a curing liquid, such as epoxy resin, wherein one outer end of each of said injection tubes is mounted to, or in the vicinity of, one of the fixation strips ; characterized in that the outer end of each of said injection tubes is mounted to, or immediately adjacent to, one of said two bulged portions .
A system , comprising: a filtering unit configured to convolve a pair of binaural room impulse responses, BRIRs, containing directionally controlled reflections that impart a desired perceptual cue with an audio input signal to produce a set of left-ear and right-ear intermediate signals, a stochastic echo generator configured to generate coefficients for the filtering unit so as to produce the pair of BRIRs, wherein the directionally controlled reflections have a directional pattern in which a direction of arrival changes as a function of time, and in which a stochastic direction component is added by the stochastic echo generator; and a combining unit configured to receive the intermediate signals and combine them to form a binaural output signal. a filtering unit configured to convolve a pair of binaural room impulse responses, BRIRs, containing directionally controlled reflections that impart a desired perceptual cue with an audio input signal to produce a set of left-ear and right-ear intermediate signals, a stochastic echo generator configured to generate coefficients for the filtering unit so as to produce the pair of BRIRs, wherein the directionally controlled reflections have a directional pattern in which a direction of arrival changes as a function of time, and in which a stochastic direction component is added by the stochastic echo generator; and a combining unit configured to receive the intermediate signals and combine them to form a binaural output signal.
A pet bath comprising: a casing that defines a bathing enclosure (R), the casing having a front surface that defines an entrance (h1) to the bathing enclosure (R) and an open upper surface; a door configured to open and close the entrance (h1); an upper shower nozzle that is disposed vertically higher than the upper surface of the casing and configured to spray water into the bathing enclosure (R); and a movable arm that is rotatably coupled to the casing and configured to rotate vertically upward relative to the upper surface, wherein the upper shower nozzle is provided at the movable arm , wherein the movable arm comprises a first movable arm and a second movable arm that are provided at opposing sides of the upper surface of the casing , and wherein the upper shower nozzle comprises a first upper shower nozzle provided at the first movable arm and a second upper shower nozzle provided at the second movable arm . a casing that defines a bathing enclosure (R), the casing having a front surface that defines an entrance (h1) to the bathing enclosure (R) and an open upper surface; a door configured to open and close the entrance (h1); an upper shower nozzle that is disposed vertically higher than the upper surface of the casing and configured to spray water into the bathing enclosure (R); and a movable arm that is rotatably coupled to the casing and configured to rotate vertically upward relative to the upper surface, wherein the upper shower nozzle is provided at the movable arm , wherein the movable arm comprises a first movable arm and a second movable arm that are provided at opposing sides of the upper surface of the casing , and wherein the upper shower nozzle comprises a first upper shower nozzle provided at the first movable arm and a second upper shower nozzle provided at the second movable arm .
An apparatus comprising: an interface logic configured to determine a message type for a message to be communicated via a link operable to support the plurality of interconnect protocols and determine one of the plurality of interconnect protocols to process the message; and a multi-protocol multiplexer coupled to the interface logic , wherein the multi-protocol multiplexer is configured to communicate the message via the link ; wherein: the interface logic is configured to determine a first interconnect protocol of the plurality of interconnect protocols to process the message, the first interconnect protocol comprising a non-coherent protocol comprising a Peripheral Component Interconnect Express protocol; the interface logic is configured to determine a second interconnect protocol of the plurality of interconnect protocols to process the message, the second interconnect protocol comprising a coherent protocol; and the interface logic is configured to determine a third interconnect protocol of the plurality of interconnect protocols to process the message, the third interconnect protocol comprising a memory interconnect protocol, and wherein the message type is determined based on information associated with the message. an interface logic configured to determine a message type for a message to be communicated via a link operable to support the plurality of interconnect protocols and determine one of the plurality of interconnect protocols to process the message; and a multi-protocol multiplexer coupled to the interface logic , wherein the multi-protocol multiplexer is configured to communicate the message via the link ; wherein: the interface logic is configured to determine a first interconnect protocol of the plurality of interconnect protocols to process the message, the first interconnect protocol comprising a non-coherent protocol comprising a Peripheral Component Interconnect Express protocol; the interface logic is configured to determine a second interconnect protocol of the plurality of interconnect protocols to process the message, the second interconnect protocol comprising a coherent protocol; and the interface logic is configured to determine a third interconnect protocol of the plurality of interconnect protocols to process the message, the third interconnect protocol comprising a memory interconnect protocol, and the interface logic is configured to determine a first interconnect protocol of the plurality of interconnect protocols to process the message, the first interconnect protocol comprising a non-coherent protocol comprising a Peripheral Component Interconnect Express protocol; the interface logic is configured to determine a second interconnect protocol of the plurality of interconnect protocols to process the message, the second interconnect protocol comprising a coherent protocol; and the interface logic is configured to determine a third interconnect protocol of the plurality of interconnect protocols to process the message, the third interconnect protocol comprising a memory interconnect protocol, and wherein the message type is determined based on information associated with the message.
Melting device for melting a cheese, wherein the melting device has a housing base , a cheese carrier with a support unit for placing the cheese and a heating element for melting the cheese, wherein the cheese carrier and the heating element are arranged at and/or on the housing base and the cheese carrier is fixed, wherein the melting device has as a heating element a radiant heater arm with a radiant heater such that the radiant heater arm with the radiant heater is movable horizontally over the fixed cheese carrier by means of a displacement unit , characterised in that the radiant heater arm and the housing base are arranged in such a way that the radiant heater arm is movable horizontally by means of the displacement unit on and/or in the housing base .
A bioreactor outlet air conditioning system comprising: a. a bioreactor vessel comprising a body portion and a lid portion sealingly attachable thereto; and b. a heat exchanger comprising: i. an outlet fluid flow path from a headspace in the vessel for venting air from the vessel, wherein at least a portion of the outlet fluid flow path is an integral part of the bioreactor vessel , wherein the outlet fluid flow path is integral with the lid portion , wherein the outlet fluid flow path is oriented in the same plane as the lid portion ; and ii. a temperature control element in separable thermal contact with at least the portion of the outlet fluid flow path that is integral with the bioreactor vessel . a. a bioreactor vessel comprising a body portion and a lid portion sealingly attachable thereto; and b. a heat exchanger comprising: i. an outlet fluid flow path from a headspace in the vessel for venting air from the vessel, wherein at least a portion of the outlet fluid flow path is an integral part of the bioreactor vessel , wherein the outlet fluid flow path is integral with the lid portion , wherein the outlet fluid flow path is oriented in the same plane as the lid portion ; and ii. a temperature control element in separable thermal contact with at least the portion of the outlet fluid flow path that is integral with the bioreactor vessel . i. an outlet fluid flow path from a headspace in the vessel for venting air from the vessel, wherein at least a portion of the outlet fluid flow path is an integral part of the bioreactor vessel , wherein the outlet fluid flow path is integral with the lid portion , wherein the outlet fluid flow path is oriented in the same plane as the lid portion ; and ii. a temperature control element in separable thermal contact with at least the portion of the outlet fluid flow path that is integral with the bioreactor vessel .
Fire protection pipe connection comprising a connection housing which is made of cast iron and which is provided with at least one plug-in sleeve which has an insertion channel for inserting a tip end of a pipe , in particular a pipe made of cast iron, and an intumescent material which is arranged in the connection housing , characterised in that the connection housing is surrounded at the outer side by a cover whose material in the event of a fire prevents external cooling of the connection housing , in that the cover comprises a covering member made of thermally insulating material and in that the cover surrounds the connection housing at least in a region which receives the intumescent material which delimits the connection channel .
A method for decoding data received from a terminal device , the method being performed by a network node , the method comprising: receiving (S102) data, from the terminal device , during a set of user conditions prevailing for the terminal device , the set of user conditions comprising - a rank indicator value reported by the terminal device and - a measurement performed by the network node on at least one reference signal received from the terminal device ; selecting (S104), by providing the set of user conditions as input to a database , a channel matrix from the database , the database comprising a set of offline trained channel matrices; and decoding the received data for the terminal device using the selected channel matrix. receiving (S102) data, from the terminal device , during a set of user conditions prevailing for the terminal device , the set of user conditions comprising - a rank indicator value reported by the terminal device and - a measurement performed by the network node on at least one reference signal received from the terminal device ; - a rank indicator value reported by the terminal device and - a measurement performed by the network node on at least one reference signal received from the terminal device ; selecting (S104), by providing the set of user conditions as input to a database , a channel matrix from the database , the database comprising a set of offline trained channel matrices; and decoding the received data for the terminal device using the selected channel matrix.