mhurhangee/patent-ind-claim-en huggingface dataset:
A capturing device with at least one sensor device , an evaluation device , a light source as well as an extensive carrier medium , wherein the extensive carrier medium is formed as a light guide, on which a coupling-in area and an outcoupling area are provided, wherein - the light source is formed to emit light ; - the coupling-in area is formed as a holographic element with a first deflecting structure , which is adapted to couple light , which is emitted by the light source and reflected on an object in an environment of the capturing device , into the extensive carrier medium ; - the extensive carrier medium is formed to transfer the coupled-in reflected light from the coupling-in area to the outcoupling area by means of internal reflection; - the outcoupling area is formed as a holographic element with a second deflecting structure , which is adapted to couple the transferred reflected light , which is incident on the second deflecting structure , out of the extensive carrier medium ; - the at least one sensor device is a time-of-flight camera device, which is formed to capture the light coupled out in the outcoupling area and to provide sensor data correlated with the captured light , which describes a time-of-flight duration of the light emitted by the light source and reflected on the object ; and - the evaluation device is formed to provide object data considering the sensor data, which describes a relative position of the object to a predetermined reference point; characterized in that the capturing device includes at least two sensor devices respectively spatially separated from each other, and the evaluation device is adapted to determine coordinates of the object on the capturing device based on the sensor data of the at least two sensor devices and to provide them as object data. - the light source is formed to emit light ; - the coupling-in area is formed as a holographic element with a first deflecting structure , which is adapted to couple light , which is emitted by the light source and reflected on an object in an environment of the capturing device , into the extensive carrier medium ; - the extensive carrier medium is formed to transfer the coupled-in reflected light from the coupling-in area to the outcoupling area by means of internal reflection; - the outcoupling area is formed as a holographic element with a second deflecting structure , which is adapted to couple the transferred reflected light , which is incident on the second deflecting structure , out of the extensive carrier medium ; - the at least one sensor device is a time-of-flight camera device, which is formed to capture the light coupled out in the outcoupling area and to provide sensor data correlated with the captured light , which describes a time-of-flight duration of the light emitted by the light source and reflected on the object ; and - the evaluation device is formed to provide object data considering the sensor data, which describes a relative position of the object to a predetermined reference point;
A system for providing inerting gas to a protected space , comprising an electrochemical cell comprising a cathode and an anode separated by a separator comprising an ion transfer medium; a cathode fluid flow path in operative fluid communication with a catalyst at the cathode between a cathode fluid flow path inlet and a cathode fluid flow path outlet; a cathode supply fluid flow path between the protected space and the cathode fluid flow path inlet; an anode fluid flow path in operative fluid communication with a catalyst at the anode, including an anode fluid flow path outlet; an electrical connection to a power source or power sink; an inerting gas flow path in operative fluid communication with the cathode flow path outlet and the protected space; and a gas treatment module configured to remove fuel vapor, smoke, or a contaminant from the cathode supply flow path, characterised in that the gas treatment module includes a membrane separator comprising the cathode supply fluid flow path on a first side of a membrane , and the inerting gas flow path as a sweep gas on a second side of the membrane. an electrochemical cell comprising a cathode and an anode separated by a separator comprising an ion transfer medium; a cathode fluid flow path in operative fluid communication with a catalyst at the cathode between a cathode fluid flow path inlet and a cathode fluid flow path outlet; a cathode supply fluid flow path between the protected space and the cathode fluid flow path inlet; an anode fluid flow path in operative fluid communication with a catalyst at the anode, including an anode fluid flow path outlet; an electrical connection to a power source or power sink; an inerting gas flow path in operative fluid communication with the cathode flow path outlet and the protected space; and a gas treatment module configured to remove fuel vapor, smoke, or a contaminant from the cathode supply flow path, characterised in that the gas treatment module includes a membrane separator comprising the cathode supply fluid flow path on a first side of a membrane , and the inerting gas flow path as a sweep gas on a second side of the membrane.
A leakage detection device for pressurized fuel tanks for storing a pressurized fuel, the device characterised in that it comprises - a fuel-sensing tracer ; and - a light-wave conducting component ; wherein the fuel sensing tracer is configured to alter its optical properties in the presence of a predetermined fuel; wherein the light-wave conducting component is in optical contact with the fuel sensing tracer; and wherein light travelling within the light-wave conducting component is modifiable by altered optical properties of the fuel sensing tracer such that modified light is indicative of the presence of fuel at the location of the fuel sensing tracer. - a fuel-sensing tracer ; and - a light-wave conducting component ; wherein the fuel sensing tracer is configured to alter its optical properties in the presence of a predetermined fuel; wherein the light-wave conducting component is in optical contact with the fuel sensing tracer; and wherein light travelling within the light-wave conducting component is modifiable by altered optical properties of the fuel sensing tracer such that modified light is indicative of the presence of fuel at the location of the fuel sensing tracer. wherein the fuel sensing tracer is configured to alter its optical properties in the presence of a predetermined fuel; wherein the light-wave conducting component is in optical contact with the fuel sensing tracer; and wherein light travelling within the light-wave conducting component is modifiable by altered optical properties of the fuel sensing tracer such that modified light is indicative of the presence of fuel at the location of the fuel sensing tracer.
A flame detector for industrial safety applications in hazardous locations, configured to discriminate the optical energy emitted by a flame from energy emitted by man-made optical sources, comprising: at least one optical sensor channel, each channel including an optical sensor configured to receive optical energy from a surveilled scene within a field of view, the at least one optical sensor channel producing signals providing an indication of the optical radiation received by the optical sensor within a sensor spectral bandwidth, the optical sensor configured for detecting optical radiation in a spectral region where flames emit strong optical radiation; a processor responsive to the signals from the at least one optical sensor channel and configured to digitally process and analyze the signals, characterised in that the processor includes a test mode module configured to process the signals and to determine if measured characteristics of the optical energy correspond to predetermined characteristics of a test signal from a remote optical test source , and to put the flame detector into a test mode if a test signal is detected, and a flame detection processing module responsive to the signals from the at least one optical sensor channel if no test signal is detected to provide a flame alarm signal upon detection of a real flame event. at least one optical sensor channel, each channel including an optical sensor configured to receive optical energy from a surveilled scene within a field of view, the at least one optical sensor channel producing signals providing an indication of the optical radiation received by the optical sensor within a sensor spectral bandwidth, the optical sensor configured for detecting optical radiation in a spectral region where flames emit strong optical radiation; a processor responsive to the signals from the at least one optical sensor channel and configured to digitally process and analyze the signals, characterised in that the processor includes a test mode module configured to process the signals and to determine if measured characteristics of the optical energy correspond to predetermined characteristics of a test signal from a remote optical test source , and to put the flame detector into a test mode if a test signal is detected, and a flame detection processing module responsive to the signals from the at least one optical sensor channel if no test signal is detected to provide a flame alarm signal upon detection of a real flame event.
A combined oil control ring comprising a pair of upper and lower side rails , and an axially corrugated spacer expander having upper and lower portions; said upper and lower portions of said spacer expander having tabs pushing inner peripheral surfaces of said side rails , projections supporting said side rails , and intermediate portions between said tabs and said projections ; each intermediate portion opposing said side rail having a bottom, characterized in that said bottom is center-raised when viewed along a substantially circumferential direction and a radial direction.
A method for improving competency of plant cells for bacterial-mediated transformation comprising contacting a mature plant embryo explant comprising the plant cells with an effective amount of a composition containing 10 to 50% by volume polyethylene glycol prior to transformation and rinsing the plant cells contacted with the polyethylene glycol in a non-PEG containing composition prior to transformation, wherein the plant cells are from cotton or soybean.
A composition comprising nanoparticles comprising paclitaxel and an albumin for use in a method for the treatment of lung cancer in an individual, wherein the method further comprises administering carboplatin.
A marker-holder system for an electrical terminal block comprising a longitudinal marker-holder device according to a direction of extension, with a first end in the direction of extension and a second end in the direction opposite to the direction of extension, the system comprising a first fastener configured to be disposed on the terminal block , the first end and the second end being configured to cooperate with the first fastener in a removable manner and in a rotary connection, between a first position in which a first face of the marker-holder device is oriented towards the terminal block and a second face of the marker-holder device is oriented in a direction opposite to the terminal block , and a second position in which the first face of the marker-holder device is oriented in a direction opposite to the terminal block and the second face of the marker-holder device is oriented towards the terminal block , the first end and/or the second end comprising a cylindrical portion , forcibly inserted into the at least one fastener , characterized in that said cylindrical portion is longitudinal along an axis transverse to the direction of extension and movable in rotation about the axis.
A process for preparing a molybdenum sulfide-based catalyst comprising drying a precipitated molybdenum sulfide-based catalyst precursor containing at least molybdenum and sulfur, under conditions such that a particulate catalyst precursor containing from 12 to 15 percent by weight water is formed; and then thermally auto-reducing the particulate catalyst precursor at a temperature ranging from 350 °C to 550 °C to form a catalyst; wherein the precipitated catalyst precursor is dried by either pressure filtration followed by vacuum drying, or by preparing a suspension of the precipitated catalyst precursor and then spray-drying the suspension; and wherein said vacuum drying includes exposing the precipitated catalyst precursor to air, with or without nitrogen, such that the precipitated catalyst precursor is passivated; wherein the particulate catalyst precursor is passivated either during the drying step or after the drying step, such that the particulate catalyst precursor prior to being auto-reduced self-heats to no more than 100 °C upon exposure to air; wherein if the passivation of the particulate catalyst precursor takes place after the drying step, passivation is carried out by means of exposure to dilute air having a concentration of > 0.1 vol% and < 20 vol% oxygen. and then thermally auto-reducing the particulate catalyst precursor at a temperature ranging from 350 °C to 550 °C to form a catalyst; wherein the precipitated catalyst precursor is dried by either pressure filtration followed by vacuum drying, or by preparing a suspension of the precipitated catalyst precursor and then spray-drying the suspension; and wherein said vacuum drying includes exposing the precipitated catalyst precursor to air, with or without nitrogen, such that the precipitated catalyst precursor is passivated; wherein the particulate catalyst precursor is passivated either during the drying step or after the drying step, such that the particulate catalyst precursor prior to being auto-reduced self-heats to no more than 100 °C upon exposure to air; wherein if the passivation of the particulate catalyst precursor takes place after the drying step, passivation is carried out by means of exposure to dilute air having a concentration of > 0.1 vol% and < 20 vol% oxygen.
A liquid radiation curable composition for additive fabrication comprising: (a) a cationically polymerizable component; (b) a (meth)acrylate component; (c) a cationic photoinitiator; (d) a free-radical photoinitiator; and (e) a filled matrix, further comprising a filled particle dispersion containing a nanoparticle constituent made up of a plurality of silica nanoparticles having an average particle size of at least 50 nanometers, and a solvent, and a microparticle constituent made up of a plurality of inorganic microparticles; wherein the ratio by weight of the microparticle constituent to the nanoparticle constituent is from 1 : 1 to 12 : 1, preferably from 4 : 1 to 8 : 1; and wherein the filled particle dispersion has a particle dispersion pH of greater than 5.5, wherein the average particle size is measured using laser diffraction particle size analysis in accordance with ISO 13320:2009. (a) a cationically polymerizable component; (b) a (meth)acrylate component; (c) a cationic photoinitiator; (d) a free-radical photoinitiator; and (e) a filled matrix, further comprising a filled particle dispersion containing a nanoparticle constituent made up of a plurality of silica nanoparticles having an average particle size of at least 50 nanometers, and a solvent, and a microparticle constituent made up of a plurality of inorganic microparticles; wherein the ratio by weight of the microparticle constituent to the nanoparticle constituent is from 1 : 1 to 12 : 1, preferably from 4 : 1 to 8 : 1; and wherein the filled particle dispersion has a particle dispersion pH of greater than 5.5, wherein the average particle size is measured using laser diffraction particle size analysis in accordance with ISO 13320:2009. a filled particle dispersion containing a nanoparticle constituent made up of a plurality of silica nanoparticles having an average particle size of at least 50 nanometers, and a solvent, and a microparticle constituent made up of a plurality of inorganic microparticles; a nanoparticle constituent made up of a plurality of silica nanoparticles having an average particle size of at least 50 nanometers, and a solvent, and a microparticle constituent made up of a plurality of inorganic microparticles; wherein the ratio by weight of the microparticle constituent to the nanoparticle constituent is from 1 : 1 to 12 : 1, preferably from 4 : 1 to 8 : 1; and wherein the filled particle dispersion has a particle dispersion pH of greater than 5.5,
A mucoadhesive microgel therapeutically active agent composition comprising a therapeutically active agent loaded into a mucoadhesive crosslinked microgel comprising a crosslinked poly(ethylene glycol) methyl ether methacrylate polymer comprising a mucoadhesive functionality, wherein the crosslinked poly(ethylene glycol) methyl ether methacrylate polymer comprises copolymer chains having diethylene glycol methacrylate monomeric units, oligoethylene glycol methacrylate monomeric units, methacrylic acid monomeric units, mucoadhesive monomeric units comprising dopamine acrylamide monomeric units, and crosslink moieties.
A thermosetting composition characterized in that it contains (A) a polyester resin of number average molecular weight 1,000-10,000, hydroxyl value 5-200 mg KOH/g and, (B) 0.5-2.0 equivalents relative to the hydroxyl groups of the aforesaid component (A) of a compound (B) which is a blocked aliphatic isocyanate compound having reactivity with the hydroxyl groups of component (A), wherein the blocking is methyl ethyl ketoxime and/or ε-caprolactam, (C) 0.05-5 parts by weight of a bismuth compound, per 100 parts by weight of total resin solids of component (A) and component (B), and (D) 0.5-50 parts by weight of an organosilicate represented by the following general formula (I) and/or a condensation product thereof, relative to 100 parts by weight of total resin solids of component (A) and component (B), wherein R 1 , R 2 , R 3 and R 4 in the formula each mean hydrogen atom or 1-10 carbon organic group, and can be the same or different, n is 1. (A) a polyester resin of number average molecular weight 1,000-10,000, hydroxyl value 5-200 mg KOH/g and, (B) 0.5-2.0 equivalents relative to the hydroxyl groups of the aforesaid component (A) of a compound (B) which is a blocked aliphatic isocyanate compound having reactivity with the hydroxyl groups of component (A), wherein the blocking is methyl ethyl ketoxime and/or ε-caprolactam, (C) 0.05-5 parts by weight of a bismuth compound, per 100 parts by weight of total resin solids of component (A) and component (B), and (D) 0.5-50 parts by weight of an organosilicate represented by the following general formula (I) and/or a condensation product thereof, relative to 100 parts by weight of total resin solids of component (A) and component (B), wherein R 1 , R 2 , R 3 and R 4 in the formula each mean hydrogen atom or 1-10 carbon organic group, and can be the same or different, n is 1.
An imaging system comprising: - an optical system comprising first and second lens systems with a common field of view, wherein a first lens system has a first optical axis and a first Numerical Aperture, and a second lens system has a second optical axis parallel to and spaced apart from said first optical axis and a second Numerical Aperture smaller than said first Numerical Aperture, - an imaging detection unit for detecting light collected by the first and second lens systems and generating image data indicative thereof, said image data comprising a first image corresponding to light collected by the first lens system and a second image corresponding to light collected by the second lens system; and - a control system for receiving and processing said image data, the processing comprising duplicating and shifting said second image with respect to the first image by summation of N shifted and weighted reproductions of said second image, the shift being a pixel shift, and addition of the first image to said summation, and producing a reconstructed image data. - an optical system comprising first and second lens systems with a common field of view, wherein a first lens system has a first optical axis and a first Numerical Aperture, and a second lens system has a second optical axis parallel to and spaced apart from said first optical axis and a second Numerical Aperture smaller than said first Numerical Aperture, - an imaging detection unit for detecting light collected by the first and second lens systems and generating image data indicative thereof, said image data comprising a first image corresponding to light collected by the first lens system and a second image corresponding to light collected by the second lens system; and - a control system for receiving and processing said image data, the processing comprising duplicating and shifting said second image with respect to the first image by summation of N shifted and weighted reproductions of said second image, the shift being a pixel shift, and addition of the first image to said summation, and producing a reconstructed image data.
A dynamic configuration method, performed by a terminal device, the method comprising: receiving , by the terminal device, configuration information of at least two Modulation and Coding Scheme, MCS, tables, the configuration information being used for determining the at least two MCS tables; receiving , by the terminal device, Downlink Control Information, DCI from a network side, wherein the DCI is scrambled by a Radio Network Temporary Identity, RNTI; and determining , by the terminal device, a target MCS table from the at least two MCS tables based on a type of the RNTI used for scrambling the DCI and a correspondence between MCS tables and multiple types of RNTIs used for scrambling DCIs, wherein the multiple types of RNTIs are distinguished according to respective RNTI values; wherein the correspondence between MCS tables and multiple types of RNTIs used for scrambling DCIs is determined based on a protocol; and the determining, by the terminal device, the target MCS table from the at least two MCS tables based on the type of the RNTI used for scrambling the DCI and the correspondence between MCS tables and multiple types of RNTIs used for scrambling DCIs comprises: determining, by the terminal device, the target MCS table from the at least two MCS tables based on a service type corresponding to the type of the RNTI and the correspondence between MCS tables and multiple service types corresponding to the multiple types of RNTIs; wherein the multiple service types comprise an Ultra Reliable Low Latency Communication, URLLC, service and an Enhanced Mobile Broadband, eMBB, service. receiving , by the terminal device, configuration information of at least two Modulation and Coding Scheme, MCS, tables, the configuration information being used for determining the at least two MCS tables; receiving , by the terminal device, Downlink Control Information, DCI from a network side, wherein the DCI is scrambled by a Radio Network Temporary Identity, RNTI; and determining , by the terminal device, a target MCS table from the at least two MCS tables based on a type of the RNTI used for scrambling the DCI and a correspondence between MCS tables and multiple types of RNTIs used for scrambling DCIs, wherein the multiple types of RNTIs are distinguished according to respective RNTI values; wherein the correspondence between MCS tables and multiple types of RNTIs used for scrambling DCIs is determined based on a protocol; and the determining, by the terminal device, the target MCS table from the at least two MCS tables based on the type of the RNTI used for scrambling the DCI and the correspondence between MCS tables and multiple types of RNTIs used for scrambling DCIs comprises: determining, by the terminal device, the target MCS table from the at least two MCS tables based on a service type corresponding to the type of the RNTI and the correspondence between MCS tables and multiple service types corresponding to the multiple types of RNTIs; wherein the multiple service types comprise an Ultra Reliable Low Latency Communication, URLLC, service and an Enhanced Mobile Broadband, eMBB, service.