mhurhangee/patent-ind-claim-en huggingface dataset:
Material having a structure-monitoring system , wherein the structure-monitoring system has: a signal-transmitting element ; and a sensor unit with a signal generator and a signal receiver; wherein the signal generator is designed to feed a first signal into the signal-transmission element , wherein the signal receiver is designed to read a second signal out of the signal-transmission element as a result of the first signal, wherein the second signal corresponds to the first signal to which a transmission function of the signal-transmission element is applied; wherein the material is a metallic material; wherein the signal-transmission element has carbon nanotubes and is arranged in the metallic material; characterized in that the signal-transmission element is introduced as a weld additive or as a powder metallurgy primary material during the manufacture of the material. a signal-transmitting element ; and a sensor unit with a signal generator and a signal receiver; wherein the signal generator is designed to feed a first signal into the signal-transmission element , wherein the signal receiver is designed to read a second signal out of the signal-transmission element as a result of the first signal, wherein the second signal corresponds to the first signal to which a transmission function of the signal-transmission element is applied; wherein the material is a metallic material; wherein the signal-transmission element has carbon nanotubes and is arranged in the metallic material; characterized in that the signal-transmission element is introduced as a weld additive or as a powder metallurgy primary material during the manufacture of the material.
A pharmaceutical composition comprising ceftolozane sulfate, 125-650 mg inorganic salt per 1000 mg of ceftolozane free base equivalent, and tazobactam sodium in an amount of 400-550 mg tazobactam free acid equivalent per 1000 mg of ceftolozane free base equivalent, wherein the composition is obtainable by lyophilizing the ceftolozane sulfate in the absence of tazobactam and then blending the lyophilized ceftolozane sulfate with a tazobactam sodium composition that was lyophilized in the absence of ceftolozane.
A pharmaceutical composition for intravenous administration comprising: Posaconazole or a pharmaceutically acceptable salt thereof; a modified β-cydodextrin which comprises sulfobutylether-β-cyclodextrin and a chelating agent which comprises EDTA in aqueous solution, wherein the concentration of said posaconazole is between about 14 and about 22 mg/ml, based on posaconazole free base, the concentration of said sulfobutylether-β-cyclodextrin is between about 350 and about 450 mg/mL, and the concentration of said EDTA is between about 0.1 and about 0.3 mg/mL and wherein the aqueous solution is acidified to a pH of between about 2.3 and about 3.0. Posaconazole or a pharmaceutically acceptable salt thereof; a modified β-cydodextrin which comprises sulfobutylether-β-cyclodextrin and a chelating agent which comprises EDTA in aqueous solution, wherein the concentration of said posaconazole is between about 14 and about 22 mg/ml, based on posaconazole free base, the concentration of said sulfobutylether-β-cyclodextrin is between about 350 and about 450 mg/mL, and the concentration of said EDTA is between about 0.1 and about 0.3 mg/mL and wherein the aqueous solution is acidified to a pH of between about 2.3 and about 3.0.
A method of manufacturing a three-dimensional, 3D, semiconductor device comprising a plurality of cells, each of which comprising a gate structure and a portion of a channel , wherein the method comprises the steps of: providing (S902) a horizontal layer structure above a crystalline semiconductor substrate , wherein the step of providing a horizontal layer structure comprises providing alternating layers of a gate material and an insulating material , wherein each of the gate structures of the plurality of cells comprises a respective layer of the gate material ; forming (S904) an opening that extends vertically through the horizontal layer structure to the substrate ; lining (S906) an inside surface of the opening with a gate stack comprising insulating layers; removing a horizontal part of the gate stack such that the opening extends to the substrate ; lining (S910) the inside surface of the opening with a sacrificial material layer ; filling (S912) the opening with a filling material ; removing (S914) parts of the sacrificial material layer to form a recess extending down to the substrate ; and forming (S916) the channel by epitaxially growing, in the recess , a channel material upwards from the substrate so that said gate stack separates each gate structure from said respective portion of the channel characterized in that said filling material is a filling oxide material . providing (S902) a horizontal layer structure above a crystalline semiconductor substrate , wherein the step of providing a horizontal layer structure comprises providing alternating layers of a gate material and an insulating material , wherein each of the gate structures of the plurality of cells comprises a respective layer of the gate material ; forming (S904) an opening that extends vertically through the horizontal layer structure to the substrate ; lining (S906) an inside surface of the opening with a gate stack comprising insulating layers; removing a horizontal part of the gate stack such that the opening extends to the substrate ; lining (S910) the inside surface of the opening with a sacrificial material layer ; filling (S912) the opening with a filling material ; removing (S914) parts of the sacrificial material layer to form a recess extending down to the substrate ; and forming (S916) the channel by epitaxially growing, in the recess , a channel material upwards from the substrate so that said gate stack separates each gate structure from said respective portion of the channel characterized in that said filling material is a filling oxide material .
An HVAC actuator , comprising an electric motor , wherein the HVAC actuator further comprises: an energy buffer configured to store electrical energy from a power supply , and to provide the electrical energy to the motor ; characterized by a power limiting circuit configured to limit input power from the power supply to the energy buffer to a threshold lower than motor power drawn by the motor from the energy buffer . an energy buffer configured to store electrical energy from a power supply , and to provide the electrical energy to the motor ; characterized by a power limiting circuit configured to limit input power from the power supply to the energy buffer to a threshold lower than motor power drawn by the motor from the energy buffer .
Input coupling module for selectively coupling a beam path provided at a stationary optical interface into a first or second stereoscopic partial beam path in an optical instrument , with a first beam splitter arranged in the first stereoscopic partial beam path , with a second beam splitter arranged in the second stereoscopic partial beam path , with an adjustable optics assembly which selectively guides the beam path provided at the optical interface to the first beam splitter or the second beam splitter , characterized in that the adjustable optics assembly contains at least one mirror element displaceable by linear movement from a first position to a second position, and vice versa, relative to the optical interface , said mirror element being arranged in the beam path provided at the optical interface in the first position, wherein the mirror element displaceable by linear movement, in the first position, directs the beam path provided at the optical interface to a further mirror element guiding the beam path to the first beam splitter for coupling into the first stereoscopic partial beam path , and, in the second position, uncovers the beam path provided at the optical interface for coupling into the second stereoscopic partial beam path to the second beam splitter , wherein the optical axis of the beam path provided at the optical interface is an axis of symmetry passing through the second beam splitter ; and wherein the adjustable optics assembly contains a shutter element displaceable by linear movement and coupled in terms of movement with the mirror element displaceable by linear movement, for selectively covering the first beam splitter and uncovering the second beam splitter or uncovering the first beam splitter and covering the second beam splitter .
A separation zone for separating a hydrocarbon phase and an ionic liquid phase , the separation zone comprising: a separation vessel having an outlet for an ionic liquid stream , an outlet for a hydrocarbon effluent stream , and, an inlet for an effluent stream , wherein the separation vessel comprises an upper portion with a first diameter and a lower portion with a second diameter being smaller than the first diameter; a plurality of ionic liquid distribution members disposed in the separation vessel between the outlet for a hydrocarbon effluent stream and the inlet for an effluent stream , the ionic liquid distribution members configured to allow up-flowing fluid to pass through the at least one ionic liquid distribution member and contact ionic liquid, and wherein the ionic liquid distribution members each comprise a tray , each tray comprising a plurality of passageways for the up-flowing fluid and a downcomer , and wherein downcomers of adjacent trays are staggered in relation to each other; and, a line configured to pass ionic liquid to the separation vessel above the plurality of ionic liquid distribution members ; wherein the separation vessel comprises a vertically orientated separation vessel ; wherein the separation zone further comprises a pump configured to pass the ionic liquid stream from the separation zone to a reaction zone , and wherein the pump is also configured to pass ionic liquid to the separation vessel . a separation vessel having an outlet for an ionic liquid stream , an outlet for a hydrocarbon effluent stream , and, an inlet for an effluent stream , wherein the separation vessel comprises an upper portion with a first diameter and a lower portion with a second diameter being smaller than the first diameter; a plurality of ionic liquid distribution members disposed in the separation vessel between the outlet for a hydrocarbon effluent stream and the inlet for an effluent stream , the ionic liquid distribution members configured to allow up-flowing fluid to pass through the at least one ionic liquid distribution member and contact ionic liquid, and wherein the ionic liquid distribution members each comprise a tray , each tray comprising a plurality of passageways for the up-flowing fluid and a downcomer , and wherein downcomers of adjacent trays are staggered in relation to each other; and, a line configured to pass ionic liquid to the separation vessel above the plurality of ionic liquid distribution members ; wherein the separation vessel comprises a vertically orientated separation vessel ; wherein the separation zone further comprises a pump configured to pass the ionic liquid stream from the separation zone to a reaction zone , and wherein the pump is also configured to pass ionic liquid to the separation vessel .
An apparatus for preparing wafers prior to epitaxial deposition, the apparatus comprising: a dielectric vessel within a metal enclosure , the dielectric vessel forming a plasma volume which is in fluid communication with an exhaust manifold , and the exhaust manifold connected to a vacuum pumping line ; a support pedestal positioned adjacent to the plasma volume , the support pedestal configured to support a semiconductor wafer and raise a temperature of the semiconductor wafer to at least 300° C; a supply of hydrogen gas and controller for controlling a flow thereof, the hydrogen gas flowed from the supply through tubing to one or more gas inlets of the dielectric vessel ; an induction coil disposed outside of and proximate to at least one side of the dielectric vessel ; a radio frequency (RF) power source connected through an impedance matching circuit to the induction coil ; a slotted electrostatic shield that is electrically grounded and positioned between the induction coil and the dielectric vessel ; and a protective liner that is disposed inside of the dielectric vessel proximate to a surface of the dielectric vessel , wherein the protective liner comprises at least one of crystalline silicon or polycrystalline silicon, wherein the protective liner comprises slots so as to allow a magnetic field of the induction coil to penetrate through the protective liner into the plasma volume. a dielectric vessel within a metal enclosure , the dielectric vessel forming a plasma volume which is in fluid communication with an exhaust manifold , and the exhaust manifold connected to a vacuum pumping line ; a support pedestal positioned adjacent to the plasma volume , the support pedestal configured to support a semiconductor wafer and raise a temperature of the semiconductor wafer to at least 300° C; a supply of hydrogen gas and controller for controlling a flow thereof, the hydrogen gas flowed from the supply through tubing to one or more gas inlets of the dielectric vessel ; an induction coil disposed outside of and proximate to at least one side of the dielectric vessel ; a radio frequency (RF) power source connected through an impedance matching circuit to the induction coil ; a slotted electrostatic shield that is electrically grounded and positioned between the induction coil and the dielectric vessel ; and a protective liner that is disposed inside of the dielectric vessel proximate to a surface of the dielectric vessel , wherein the protective liner comprises at least one of crystalline silicon or polycrystalline silicon, wherein the protective liner comprises slots so as to allow a magnetic field of the induction coil to penetrate through the protective liner into the plasma volume.
A leveler device for use in a bookbinding sewing machine , comprising one or more needles and one or more crochets for sewing signatures into book blocks with one or more sewing threads and a movable saddle for loading each current one of the signatures to be sewn, the leveler device being suitable for levelling each current signature onto the movable saddle , wherein the leveler device comprises: at least one inlet for receiving a gas jet, one or more nozzles for ejecting the gas towards corresponding free ends of the threads projecting from each current signature being a last one of the signatures of a completed one of the book blocks , and at least one channel for conveying the gas extending from the inlet to the nozzles . at least one inlet for receiving a gas jet, one or more nozzles for ejecting the gas towards corresponding free ends of the threads projecting from each current signature being a last one of the signatures of a completed one of the book blocks , and at least one channel for conveying the gas extending from the inlet to the nozzles .
A method for scheduling transmissions of multiple carriers from a single transmitting network node (10; 100) for multiple Narrow Band Internet of Things, NB-loT, cells , each of the cells having a cell specific anchor carrier among the multiple carriers which has NB-loT sub-frames allocated for the transmission of mandatory information related to the functionality of the specific cell, wherein the method comprises, - scheduling (S1) at least two cell specific anchor carriers of different cells by using time interleaved transmissions that enables NB-loT sub-frames belonging to different cell specific anchor carriers, and being allocated for the transmission of said mandatory information, to be transmitted at non-overlapping times. - scheduling (S1) at least two cell specific anchor carriers of different cells by using time interleaved transmissions that enables NB-loT sub-frames belonging to different cell specific anchor carriers, and being allocated for the transmission of said mandatory information, to be transmitted at non-overlapping times.
A data acquisition module for a system for measuring a nasal valve collapse of a patient, the data acquisition module being configured to: receive a plurality of images of a nasal valve from a camera of an endoscope positioned through an endoscope port of a facial mask and a plurality of air flow measurements from an air flow sensor configured to measure an air flow across an opening in the facial mask, determine (i) a first image of the plurality of images of the nasal valve taken during inhalation and (ii) a second image of the plurality of images of the nasal valve taken during a period between exhalation and inhalation, wherein the second image is synchronized with a zero flow measurement of the plurality of air flow measurements, wherein the first image is synchronized with a non-zero flow measurement of the plurality of air flow measurements, and determine, based on the first image and the second image, a size difference of the nasal valve during inhalation and during the period between exhalation and inhalation. receive a plurality of images of a nasal valve from a camera of an endoscope positioned through an endoscope port of a facial mask and a plurality of air flow measurements from an air flow sensor configured to measure an air flow across an opening in the facial mask, determine (i) a first image of the plurality of images of the nasal valve taken during inhalation and (ii) a second image of the plurality of images of the nasal valve taken during a period between exhalation and inhalation, wherein the second image is synchronized with a zero flow measurement of the plurality of air flow measurements, wherein the first image is synchronized with a non-zero flow measurement of the plurality of air flow measurements, and determine, based on the first image and the second image, a size difference of the nasal valve during inhalation and during the period between exhalation and inhalation.
A composition for therapeutic use in improving or stimulating the development of a healthy gut microbiota, by stimulating Bifidobacterium intra-species growth, in infants born with a lack of Bifidobacterium species at birth, preferably in infants whose mothers received antibiotics during delivery and/or in infants delivered via C-section, preferably in infants delivered via C-section, involving administering to the infant a composition comprising between 10 3 and 10 16 colony forming units (cfu) per serving of Bifidobacterium breve and between 0.1-5 gram per serving of at least one non-digestible oligosaccharide, wherein said non-digestible oligosaccharide comprises galactooligosaccharides, wherein the composition is administered to the infant once or twice only, and within the first week after birth only.
A method of determining a risk of head and neck squamous cell cancer in a subject using a kit comprising: saline solution; a cup for receiving an oral saline rinse; at least one antibody that specifically binds CD44; a reagent for determining total protein concentration; and reference levels for soluble CD44 (solCD44) and total protein, the method comprising: a) measuring a test amount of solCD44 in a sample of an oral saline rinse obtained from the subject in the cup, using the at least one antibody that specifically binds CD44; b) measuring a test amount of total protein in the sample using the reagent for determining total protein concentration; and c) determining the risk of head and neck squamous cell cancer in the subject by determining whether the test amount of solCD44 and the test amount of total protein are above or below the reference levels of solCD44 and total protein, wherein the reference levels of solCD44 are about 2.2 ng/mL and about 5.3 ng/mL and the reference levels of total protein are about 1.2 mg/mL and about 0.6 mg/mL, wherein the reference levels of solCD44 and total protein delimit different, statistically significant risks for the cancer and wherein the term about means within 5% of the specified value. a) measuring a test amount of solCD44 in a sample of an oral saline rinse obtained from the subject in the cup, using the at least one antibody that specifically binds CD44; b) measuring a test amount of total protein in the sample using the reagent for determining total protein concentration; and c) determining the risk of head and neck squamous cell cancer in the subject by determining whether the test amount of solCD44 and the test amount of total protein are above or below the reference levels of solCD44 and total protein, wherein the reference levels of solCD44 are about 2.2 ng/mL and about 5.3 ng/mL and the reference levels of total protein are about 1.2 mg/mL and about 0.6 mg/mL, wherein the reference levels of solCD44 and total protein delimit different, statistically significant risks for the cancer and wherein the term about means within 5% of the specified value.
A battery module comprising: a cell assembly ; a module case for accommodating the cell assembly therein; and a connector provided in the module case and having a cover configured to block flame discharged from the cell assembly; wherein the cover includes: a first portion coupled to an outer surface of the module case ; and a second portion coupled to an inner surface of the module case , wherein a part of the module case is disposed between the first portion and the second portion , wherein the second portion includes a material with higher heat resistance than the first portion , and wherein the second portion is disposed on the opposite side with the module case interposed therebetween from the first portion . a cell assembly ; a module case for accommodating the cell assembly therein; and a connector provided in the module case and having a cover configured to block flame discharged from the cell assembly; wherein the cover includes: a first portion coupled to an outer surface of the module case ; and a second portion coupled to an inner surface of the module case , wherein a part of the module case is disposed between the first portion and the second portion , wherein the second portion includes a material with higher heat resistance than the first portion , and wherein the second portion is disposed on the opposite side with the module case interposed therebetween from the first portion . a first portion coupled to an outer surface of the module case ; and a second portion coupled to an inner surface of the module case , wherein a part of the module case is disposed between the first portion and the second portion , wherein the second portion includes a material with higher heat resistance than the first portion , and wherein the second portion is disposed on the opposite side with the module case interposed therebetween from the first portion .
Tooling for use in a method for electromagnetic welding of two contacted surfaces of molded parts , the tooling comprising a rubber body and pressurizing means for pressurizing the rubber body and applying pressure to the contacted surfaces, wherein the rubber body comprises an embedded stiff body , wherein the pressurizing means comprises channeling provided in the stiff body, which channeling at one end is connected to a pressure source and at another end connects to the rubber body , characterized in that the stiff body is shaped such as to define different rubber body thicknesses in different directions , which causes a different pressure build-up in said different directions .
Multi-layer collation shrink film comprising a main layer based on a polyethylene mixture comprising 75 to 85 wt.-% low density polyethylene and 15 to 25 wt.-% high density polyethylene or linear low density polyethylene and a skin layer based on a polar ethylene copolymer with vinyl acetate or alkyl (meth)acrylate with a vinyl acetate or alkyl (meth)acrylate content of at least 15 wt.-% and containing 5000 to 20000 ppm silica and a slip agent.