mhurhangee/patent-ind-claim-en huggingface dataset:
A closure capsule for closing a container, comprising: - a support for a first product, said support being applicable to a container and comprising a frangible bottom ; - a cutter comprising a drum having at a first end , a cutting edge to be positioned opposite the frangible bottom ; said drum forming or contributing to forming a concavity which extends starting from said first end ; the capsule assuming at least a first and a second configuration; in the first configuration the frangible bottom being intact and at least said frangible bottom and said concavity forming in combination a chamber suitable to contain the first product; in the second configuration said frangible bottom being open to allow the mixing of the first product with a product present in the container ; characterised in that at least a part of the cutter is defined at least by: - a matrix made of a plastic material; - particles absorbing humidity which are dispersed within the matrix ; - a surface coating that acts as a barrier to the passage of humidity, said surface coating surrounding the matrix made of plastic material. - a support for a first product, said support being applicable to a container and comprising a frangible bottom ; - a cutter comprising a drum having at a first end , a cutting edge to be positioned opposite the frangible bottom ; said drum forming or contributing to forming a concavity which extends starting from said first end ; - a matrix made of a plastic material; - particles absorbing humidity which are dispersed within the matrix ; - a surface coating that acts as a barrier to the passage of humidity, said surface coating surrounding the matrix made of plastic material.
Electronic apparatus with at least one component to be cooled, a cooling element for cooling the component to be cooled, at least one power line and a corresponding current sensor for detecting a current intensity of a current flowing through the corresponding power line , wherein the cooling element has a recess , in which the current sensor engages or in which the current sensor is arranged, characterised in that multiple of the current sensors are arranged together in the recess in the cooling element .
A composition for use in treating cancer, comprising a pharmaceutically acceptable carrier and a curcuphenol compound of the formula or a pharmaceutically-acceptable salt thereof.
A method for extracting a carotenoid from oil containing by-products of the fermentative conversion of starch; wherein the by-product is selected from the group consisting of distillers' wet grain (DWG), distillers' dried grains (DDG), distillers' solubles (DS), distillers' dried solubles (DDS), distillers' dried grain with solubles (DDGS), and mixtures thereof; comprising the steps of: i) Converting starch containing material to fermentable sugars ii) Fermentation of the fermentable sugars with a microorganism iii) Separation of the by-product of said fermentation iv) Recovering the oil from the by-product v) Contacting the oil with a solid adsorption material vi) Separating the solid adsorption material containing the oil vii) Extracting a carotenoid from said adsorption material using tert-butylmethyl ether. i) Converting starch containing material to fermentable sugars ii) Fermentation of the fermentable sugars with a microorganism iii) Separation of the by-product of said fermentation iv) Recovering the oil from the by-product v) Contacting the oil with a solid adsorption material vi) Separating the solid adsorption material containing the oil vii) Extracting a carotenoid from said adsorption material using tert-butylmethyl ether.
A supply air device comprising: an outflow structure comprising a nozzle structure and an outflow channel structure, wherein the nozzle structure comprises a plurality of nozzles which are arranged to the bottom of the supply air device for supplying primary air, and wherein the outflow channel structure comprises an outflow channel , a first end of which is arranged in a first distance from said plurality of nozzles so that a mixing chamber is formed between said plurality of nozzles and the first end of the outflow channel and so that said plurality of nozzles supply the primary air towards the first end of the outflow channel and wherein the second end of the outflow channel is arranged outside the supply air device and wherein said primary air entrains secondary air from outside the supply air device to flow to the mixing chamber to be mixed with the primary air in the mixing chamber before the primary air and the secondary air enter the outflow channel through the first end of the outflow channel and flow out of the supply air device through the second end of the outflow channel, wherein the first end of outflow channel is arranged in a second distance from the side of the supply air device so that a notch is formed between the outflow channel and the side of the supply air device , characterized in that the cross-sectional area, which is perpendicular to the air flow of the outflow channel , remains constant, and wherein the second end of the outflow channel is wider in the vertical direction and narrower in the horizontal direction than the first end of the outflow channel .
Field-effect transistor, comprising: - a source , drain and channel formed in a semiconductor layer ; - a gate stack placed above the channel , comprising a metal electrode , a first layer of electrical insulator placed between the metal electrode and the channel , and a second layer of electrical insulator covering the metal electrode ; - a metal contact placed plumb with the source or drain and at least partially plumb with said gate stack; the field-effect transistor being characterized in that it comprises: - a third layer of electrical insulator placed between said metal contact and said source or said drain , said third layer of electrical insulator being configured so as to make an electrical contact through conduction via quantum tunnelling between said metal contact and said source or said drain , - and in that said third layer of electrical insulator at least partially covers said gate stack without completely covering the second layer of electrical insulator . - a source , drain and channel formed in a semiconductor layer ; - a gate stack placed above the channel , comprising a metal electrode , a first layer of electrical insulator placed between the metal electrode and the channel , and a second layer of electrical insulator covering the metal electrode ; - a metal contact placed plumb with the source or drain and at least partially plumb with said gate stack; the field-effect transistor being characterized in that it comprises: - a third layer of electrical insulator placed between said metal contact and said source or said drain , said third layer of electrical insulator being configured so as to make an electrical contact through conduction via quantum tunnelling between said metal contact and said source or said drain , - and in that said third layer of electrical insulator at least partially covers said gate stack without completely covering the second layer of electrical insulator . - a third layer of electrical insulator placed between said metal contact and said source or said drain , said third layer of electrical insulator being configured so as to make an electrical contact through conduction via quantum tunnelling between said metal contact and said source or said drain , - and in that said third layer of electrical insulator at least partially covers said gate stack without completely covering the second layer of electrical insulator .
A handheld ultrasound imaging probe , comprising: a housing having a first side portion opposite a second side portion , the housing defining a cavity ; an ultrasound transducer assembly and a circuit disposed within the cavity in the housing ; a first aperture in the first side portion in fluid communication with a second aperture in the second side portion ; a conduit extending through the housing from the first aperture to the second aperture , wherein the conduit includes a first conduit opening and a second conduit opening positioned adjacent the first aperture and the second aperture , respectively and further wherein the conduit includes an interior surface that defines a fluid path between the first aperture and the second aperture , wherein the interior surface is sealed from an interior portion of the housing such that air within the conduit cannot flow into the cavity in the housing , wherein the interior surface is made from a material having a thermal conductivity greater than a material from which the housing is formed such that thermal energy can be conveyed away from the ultrasound transducer assembly and circuit via air flowing through the conduit . a housing having a first side portion opposite a second side portion , the housing defining a cavity ; an ultrasound transducer assembly and a circuit disposed within the cavity in the housing ; a first aperture in the first side portion in fluid communication with a second aperture in the second side portion ; a conduit extending through the housing from the first aperture to the second aperture , wherein the conduit includes a first conduit opening and a second conduit opening positioned adjacent the first aperture and the second aperture , respectively and further wherein the conduit includes an interior surface that defines a fluid path between the first aperture and the second aperture , wherein the interior surface is sealed from an interior portion of the housing such that air within the conduit cannot flow into the cavity in the housing , wherein the interior surface is made from a material having a thermal conductivity greater than a material from which the housing is formed such that thermal energy can be conveyed away from the ultrasound transducer assembly and circuit via air flowing through the conduit .
A device for delivering an implant to a native valve of a patient's heart, comprising: a flexible hollow tube extending from a proximal end to a distal end , wherein the flexible hollow tube comprises: a first flexible portion extending from the proximal end to a middle portion ; a second flexible portion extending from the middle portion to the distal end ; a first pull wire extending through the first flexible portion to attach to the middle portion , the first pull wire extending along a first side of the flexible hollow tube , wherein applying tension to the first pull wire in a proximal direction creates a first bend in the first flexible portion in a first direction ; a second pull wire extending through the first and second flexible portions to attach to the distal end , the second pull wire extending along a second side of the flexible hollow tube , wherein applying tension to the second pull wire in a proximal direction creates a second bend in the second flexible portion in a second direction ; wherein the second side is offset from the first side by an offset angle (α) so that the second direction of the second bend is also offset from the first direction of the first bend by the offset angle (α); and wherein the offset angle (α) is in a range of about 160 degrees to about 200 degrees. a first flexible portion extending from the proximal end to a middle portion ; a second flexible portion extending from the middle portion to the distal end ; a first pull wire extending through the first flexible portion to attach to the middle portion , the first pull wire extending along a first side of the flexible hollow tube , wherein applying tension to the first pull wire in a proximal direction creates a first bend in the first flexible portion in a first direction ; a second pull wire extending through the first and second flexible portions to attach to the distal end , the second pull wire extending along a second side of the flexible hollow tube , wherein applying tension to the second pull wire in a proximal direction creates a second bend in the second flexible portion in a second direction ; wherein the second side is offset from the first side by an offset angle (α) so that the second direction of the second bend is also offset from the first direction of the first bend by the offset angle (α); and wherein the offset angle (α) is in a range of about 160 degrees to about 200 degrees.
A method by a user equipment, UE, of a telecommunications system, the method comprising: obtaining a first UE activity configuration; obtaining a second UE activity configuration, wherein an activity and/or inactivity duration defined by the first UE activity configuration is different than an activity and/or inactivity duration defined by the second activity configuration; performing a transition between the UE using the first UE activity configuration and the UE using the second UE activity configuration; and adapting one or more operations started or being performed under the first UE activity configuration being used just before the transition, which adaptation is based on at least one of: the type of operation, activity and/or inactivity level of the first UE activity configuration and/or of the second UE activity configuration, and a relation between the first UE activity configuration and the second UE activity configuration, characterised in that adapting one or more operations started or being performed under the first UE activity configuration being used just before the transition, comprises: delaying by a defined time period the configuring of the second UE activity configuration to enable the UE to complete at least one on-going operation started under the first UE activity configuration. obtaining a first UE activity configuration; obtaining a second UE activity configuration, wherein an activity and/or inactivity duration defined by the first UE activity configuration is different than an activity and/or inactivity duration defined by the second activity configuration; performing a transition between the UE using the first UE activity configuration and the UE using the second UE activity configuration; and adapting one or more operations started or being performed under the first UE activity configuration being used just before the transition, which adaptation is based on at least one of: the type of operation, activity and/or inactivity level of the first UE activity configuration and/or of the second UE activity configuration, and a relation between the first UE activity configuration and the second UE activity configuration, characterised in that adapting one or more operations started or being performed under the first UE activity configuration being used just before the transition, comprises: delaying by a defined time period the configuring of the second UE activity configuration to enable the UE to complete at least one on-going operation started under the first UE activity configuration.
A method performed by a first user equipment, UE, configured as a source secondary cell-user equipment, SC-UE , for a first base station-user equipment dual connectivity, BUDC, group , the first BUDC group comprising the source SC-UE and one or more UEs including a second UE, the source SC-UE and each of the one or more UEs communicating with a base station associated with the first BUDC group providing a primary cell to the first BUDC group , the method comprising: providing, by the source SC-UE , a first secondary cell to the one or more UEs by scheduling air interface resources for communications in the first BUDC group that use the first secondary cell; receiving, at the source SC-UE and from the base station , an indication to release, from the first BUDC group , the second UE; and releasing the second UE from the first BUDC group . providing, by the source SC-UE , a first secondary cell to the one or more UEs by scheduling air interface resources for communications in the first BUDC group that use the first secondary cell; receiving, at the source SC-UE and from the base station , an indication to release, from the first BUDC group , the second UE; and releasing the second UE from the first BUDC group .
A method of producing a Ni-based superalloy, comprising: using a hot working material which has a composition consisting of, in mass%, 0.001 to 0.050% of C, 1.0% to 4.0% of Al, 3.0% to 7.0% of Ti, 12% to 18% of Cr, 12% to 30% of Co, 1.5% to 5.5% of Mo, 0.5% to 2.5% of W, 0.001% to 0.050% of B, 0.001% to 0.100% of Zr, 0% to 0.01% of Mg, 0% to 5% of Fe, 0% to 3% of Ta, 0% to 3% of Nb, and the remainder of Ni and inevitable impurities, and in which a solvus temperature of a γ' phase is equal to or higher than 1050°C, a preliminary heating step of performing heating in a temperature range that is 980°C to 1050°C and has an upper limit set to be -30°C from the solvus temperature of the γ' phase, for 10 hours or longer; and a hot working step of performing hot working on the hot working material after the preliminary heating step, at a working speed having a strain rate of 2.0/second or more in a temperature range that is 980°C to 1050°C and has an upper limit set to be -30°C from the solvus temperature of the γ' phase. using a hot working material which has a composition consisting of, in mass%, 0.001 to 0.050% of C, 1.0% to 4.0% of Al, 3.0% to 7.0% of Ti, 12% to 18% of Cr, 12% to 30% of Co, 1.5% to 5.5% of Mo, 0.5% to 2.5% of W, 0.001% to 0.050% of B, 0.001% to 0.100% of Zr, 0% to 0.01% of Mg, 0% to 5% of Fe, 0% to 3% of Ta, 0% to 3% of Nb, and the remainder of Ni and inevitable impurities, and in which a solvus temperature of a γ' phase is equal to or higher than 1050°C, a preliminary heating step of performing heating in a temperature range that is 980°C to 1050°C and has an upper limit set to be -30°C from the solvus temperature of the γ' phase, for 10 hours or longer; and a hot working step of performing hot working on the hot working material after the preliminary heating step, at a working speed having a strain rate of 2.0/second or more in a temperature range that is 980°C to 1050°C and has an upper limit set to be -30°C from the solvus temperature of the γ' phase.
A hand-held vacuum cleaner comprising a cyclonic separation apparatus , the cyclonic separation apparatus comprising: a first cyclonic separating unit comprising a hollow substantially cylindrical dirt container with a longitudinal central axis and comprising an air inlet port arranged tangentially to the dirt container so as to cause air to flow in a helical path around the cylindrical dirt container; a second cyclonic separating unit comprising a plurality of cyclones each with an inlet port , an axial outlet port and a discharge nozzle ; and a substantially cylindrical intermediate wall arranged within the dirt container, wherein the intermediate wall comprises an air permeable wall arranged as an air flow outlet from the first cyclonic separating unit to the inlet ports of the plurality of cyclones , wherein the second cyclonic separating unit is located within the dirt container, wherein the second cyclonic separating unit receives air flow downstream from the first cyclonic separating unit, and wherein the first and second cyclonic separating units are arranged to deposit material separated from air flow at a longitudinal end of the dirt container, wherein the cyclonic separation apparatus comprises at least one protruding lip arranged to impede return of separated material from said longitudinal end of the dirt container and wherein the at least one lip protrudes radially outwardly from the intermediate wall. a first cyclonic separating unit comprising a hollow substantially cylindrical dirt container with a longitudinal central axis and comprising an air inlet port arranged tangentially to the dirt container so as to cause air to flow in a helical path around the cylindrical dirt container; a second cyclonic separating unit comprising a plurality of cyclones each with an inlet port , an axial outlet port and a discharge nozzle ; and a substantially cylindrical intermediate wall arranged within the dirt container, wherein the intermediate wall comprises an air permeable wall arranged as an air flow outlet from the first cyclonic separating unit to the inlet ports of the plurality of cyclones , wherein the second cyclonic separating unit is located within the dirt container, wherein the second cyclonic separating unit receives air flow downstream from the first cyclonic separating unit, and wherein the first and second cyclonic separating units are arranged to deposit material separated from air flow at a longitudinal end of the dirt container, wherein the cyclonic separation apparatus comprises at least one protruding lip arranged to impede return of separated material from said longitudinal end of the dirt container and wherein the at least one lip protrudes radially outwardly from the intermediate wall.
A base station wherein the base station comprises at least one baseband processing unit (115; 410, 420), a front-haul network and at least one remote radio unit , wherein the base station further comprising an adaptation unit configured to control transmission of one or more data packets between the baseband processing unit (115; 410, 420) and at least one remote radio unit , wherein the adaptation unit comprises a buffer module and a communication module , wherein the communication module is configured to determine if the buffer module comprises at least one data packet and in response to a detection that the buffer module comprises the at least one data packet to be transmitted to determine a scheduled instant of time of transmission, and in response to a detection that the at least one data packet is missing the communication module is configured to insert padding data to the buffer module , characterised in that the base station is further configured to determine a duration limit for processing of a data packet in the baseband processing unit (115; 410, 420) based on the generated information on the transmission delay, wherein the information on the transmission delay is generated by estimating, by a timing adjustment module of the adaptation unit , the transmission delay on a basis of timing information included in time stamps inserted in one or more transmitted data packets by network interface units residing in the base station on both sides of the front-haul network , and to adjust a processing of the data packets in the baseband processing unit (115; 410, 420) in order to meet the duration limit.