mhurhangee/patent-ind-claim-en huggingface dataset:
A vacuum insulator comprising: an outer envelope sealable by vacuum sealing; and a container accommodated within the outer envelope , the container comprising: an adsorbent configured to adsorb gas, characterized in further comprising a plurality of openings respectively formed in two facing facets of the container , wherein an axis passes through the plurality of openings , wherein the outer envelope comprises a discharge port through which vacuum suction is performed by a vacuum pump, and the axis of the plurality of openings passes through the discharge port , and wherein when the container having the plurality of openings formed therein is disposed in a predetermined position inside the outer envelope , a first part of the adsorbent exists in a first space formed with an inside surface of the container , and a second part of the adsorbent is arranged to be drawn out, by suction, from the first space of the container through an opening of the plurality of openings that is proximal to the discharge port and dispersed into a second space formed with an outside surface of the container and an inside surface of the outer envelope during vacuum sealing of the outer envelope by the vacuum pump. an outer envelope sealable by vacuum sealing; and a container accommodated within the outer envelope , the container comprising: an adsorbent configured to adsorb gas, characterized in further comprising a plurality of openings respectively formed in two facing facets of the container , an adsorbent configured to adsorb gas, characterized in further comprising a plurality of openings respectively formed in two facing facets of the container , wherein an axis passes through the plurality of openings , wherein the outer envelope comprises a discharge port through which vacuum suction is performed by a vacuum pump, and the axis of the plurality of openings passes through the discharge port , and wherein when the container having the plurality of openings formed therein is disposed in a predetermined position inside the outer envelope , a first part of the adsorbent exists in a first space formed with an inside surface of the container , and a second part of the adsorbent is arranged to be drawn out, by suction, from the first space of the container through an opening of the plurality of openings that is proximal to the discharge port and dispersed into a second space formed with an outside surface of the container and an inside surface of the outer envelope during vacuum sealing of the outer envelope by the vacuum pump.
A capnography system configured for use with a system for providing supplemental oxygen to a patient, comprising: a controller configured to obtain a sample gas flow from a physical interface for the subject ; during a sampling time interval, determine a change (ΔDP, ΔSGF) over each breathing cycle (BC) of the patient in a differential sample gas pressure (DP) along the sample gas flow and/or in the sample gas flow rate (SGF); determine whether the change or the ratio between the change (ΔSGF) in the sample gas flow rate and the change (ΔDP) in differential sample gas pressure is equal to or greater than a corresponding threshold value; determine that supplemental oxygen is being provided to the subject when it is determined that the change (ΔDP, ΔSGF) or the ratio of the changes is equal to or greater than the threshold value; and otherwise determine that supplemental oxygen is not being provided; and render results of the determination whether or not supplemental oxygen is being provided. obtain a sample gas flow from a physical interface for the subject ; during a sampling time interval, determine a change (ΔDP, ΔSGF) over each breathing cycle (BC) of the patient in a differential sample gas pressure (DP) along the sample gas flow and/or in the sample gas flow rate (SGF); determine whether the change or the ratio between the change (ΔSGF) in the sample gas flow rate and the change (ΔDP) in differential sample gas pressure is equal to or greater than a corresponding threshold value; determine that supplemental oxygen is being provided to the subject when it is determined that the change (ΔDP, ΔSGF) or the ratio of the changes is equal to or greater than the threshold value; and otherwise determine that supplemental oxygen is not being provided; and render results of the determination whether or not supplemental oxygen is being provided.
A method for producing 2,5-bis(aminomethyl)tetrahydrofuran, the method comprising subjecting 2,5-bis(aminomethyl)furan to a reaction with a hydrogen source in a non-aqueous solvent by using a hydrogenation catalyst to obtain 2,5-bis(aminomethyl)tetrahydrofuran, wherein the amount of the non-aqueous solvent is from 1.0 to 20 times by mass, relative to the mass of 2,5-bis(aminomethyl)furan.
A modified adeno-associated virus (AAV) vector packaging a recombinant AAV (rAAV)-based genome, for use in a method for treating a motor neuron degenerative disorder, the method comprising: administering to a subject suffering from said motor neuron degenerative disorder a modified adeno-associated virus (AAV) vector packaging a recombinant AAV (rAAV)-based genome, wherein the rAAV-based genome comprises a ciliary neurotrophic factor receptor alpha (CNTFRα) cDNA insert, and wherein the method up-regulates CNTFRα RNA expression in skeletal muscle.
A method of measuring an expression level of HER2 protein in vitro in a breast cancer sample to provide an information for determining HER2 scoring, the method comprising steps of: determining an amount of a specific HER2 peptide fragment prepared from the breast cancer sample digested with a protease; and as a normalization factor, determining an amount of the peptide VTFLPTGITFK (SEQ ID NO: 3) from JAM1; and normalizing the amount of the specific HER2 peptide with the normalization factor to provide a normalized amount of the HER2 peptide; wherein the specific HER2 peptide fragment is VLQGLPR (SEQ ID NO: 1) or FVVIQNEDLGPASPLDSTFYR (SEQ ID NO: 2); and wherein the amount of the peptide fragment is determined by a mass spectrometry. determining an amount of a specific HER2 peptide fragment prepared from the breast cancer sample digested with a protease; and as a normalization factor, determining an amount of the peptide VTFLPTGITFK (SEQ ID NO: 3) from JAM1; and normalizing the amount of the specific HER2 peptide with the normalization factor to provide a normalized amount of the HER2 peptide; wherein the specific HER2 peptide fragment is VLQGLPR (SEQ ID NO: 1) or FVVIQNEDLGPASPLDSTFYR (SEQ ID NO: 2); and wherein the amount of the peptide fragment is determined by a mass spectrometry.
A glasses-type electronic device comprising: a housing ; a lens frame unit provided as a part of the housing; a first wearing unit extending from one end of the lens frame unit; a first PCB accommodated in the first wearing unit; a second wearing unit extending from another end of the lens frame unit; a second PCB accommodated in the second wearing unit; and a flexible PCB (FPCB) extending from the first PCB through the lens frame unit and electrically connected to the second PCB, wherein, the FPCB is disposed in the lens frame unit, the FPCB includes a plurality of layers (2-7, 902-907) configured to provide a power or signal wiring line, and the plurality of layers include a first wiring line for a first signal, which is disposed in at least one of the uppermost layer or the lowermost layer of the plurality of layers, and a second wiring line for a second signal, which is disposed in an inner layer disposed between the uppermost layer and the lowermost layer among the plurality of layers, wherein the first signal has a higher speed than that of the second signal. a housing ; a lens frame unit provided as a part of the housing; a first wearing unit extending from one end of the lens frame unit; a first PCB accommodated in the first wearing unit; a second wearing unit extending from another end of the lens frame unit; a second PCB accommodated in the second wearing unit; and a flexible PCB (FPCB) extending from the first PCB through the lens frame unit and electrically connected to the second PCB, wherein, the FPCB is disposed in the lens frame unit, the FPCB includes a plurality of layers (2-7, 902-907) configured to provide a power or signal wiring line, and the plurality of layers include a first wiring line for a first signal, which is disposed in at least one of the uppermost layer or the lowermost layer of the plurality of layers, and a second wiring line for a second signal, which is disposed in an inner layer disposed between the uppermost layer and the lowermost layer among the plurality of layers, wherein the first signal has a higher speed than that of the second signal.
A roof window comprising a frame , a sash , a set of covering members , a glazing profile and a set of dampening and/or insulating members , the set of dampening and/or insulating members comprising at least one member attached to a respective roof window component comprising the glazing profile , a side sash covering and/or a top frame covering member , in an assembled state of the roof window, wherein the set of covering members comprises a bottom sash covering , characterised in that the at least one dampening and/or insulating member comprises a sash profile seal (75; 175; 275) configured to be attached to the lower end of the glazing profile for at least a proportion of the length where the glazing profile is overlapping with the bottom sash covering in the assembled state, that the sash profile seal (75; 175; 275) comprises a base portion (751; 1751; 2751), an inner leg portion (752; 1752; 2752), and an outer leg portion (753; 1753; 2753) to fit the sash profile seal (75; 175; 275) on to the glazing profile , that said sash profile seal (75; 175; 275) has an inner width (W0) between the inner leg portion (752; 1752; 2752) and the outer leg portion (753; 1753; 2753) substantially matching a width (WGP) of the glazing profile in the assembled state of the roof window, and that said sash profile seal (75; 175; 275) has a top width (W1) exceeding a bottom width (W2) and the inner width (W0) and a length (L) of the same order of magnitude as the bottom width (W2). wherein the set of covering members comprises a bottom sash covering , characterised in that the at least one dampening and/or insulating member comprises a sash profile seal (75; 175; 275) configured to be attached to the lower end of the glazing profile for at least a proportion of the length where the glazing profile is overlapping with the bottom sash covering in the assembled state, that the sash profile seal (75; 175; 275) comprises a base portion (751; 1751; 2751), an inner leg portion (752; 1752; 2752), and an outer leg portion (753; 1753; 2753) to fit the sash profile seal (75; 175; 275) on to the glazing profile , that said sash profile seal (75; 175; 275) has an inner width (W0) between the inner leg portion (752; 1752; 2752) and the outer leg portion (753; 1753; 2753) substantially matching a width (WGP) of the glazing profile in the assembled state of the roof window, and that said sash profile seal (75; 175; 275) has a top width (W1) exceeding a bottom width (W2) and the inner width (W0) and a length (L) of the same order of magnitude as the bottom width (W2).
A composite aluminum plate assembly, comprising at least two aluminum honeycomb profile units , wherein, each aluminum honeycomb profile unit comprises a sandwich aluminum honeycomb , a first aluminum plate and a second aluminum plate , and the sandwich aluminum honeycomb is filled in between the first aluminum plate and the second aluminum plate ; an extended section is provided on a butt-joint side of at least one of the aluminum plates on two sides of each aluminum honeycomb profile unit , and the extended section extends to an outside of the sandwich aluminum honeycomb on this side; the composite aluminum plate assembly further comprises a support member, and the strength of the support member is greater than the strength of the sandwich aluminum honeycomb , each extended section of the two adjacent aluminum honeycomb profile units is correspondingly assembled and fixedly connected by the support member, wherein the support member is an aluminum profile and comprises a first auxiliary aluminum plate, a second auxiliary aluminum plate and a reinforcing rib, the first auxiliary aluminum plate is parallel to the second auxiliary aluminum plate, the reinforcing rib supports between the first auxiliary aluminum plate and the second auxiliary aluminum plate to form an "H" shape , the first auxiliary aluminum plate and the second auxiliary aluminum plate are respectively fitted with the extended sections on the two sides and the first auxiliary aluminum plate and the second auxiliary aluminum plate cover the butt-joint seam formed by the two extended sections on the corresponding side.
A process for manufacturing a compound of formula (I) by reacting a compound of formula (II) and a compound of formula (III) in a non-continuous process in the presence of either i) a mixture of a rhodium complex and water-soluble phosphine salt of formula (IV-a) or (IV-b) or ii) a rhodium complex obtained from a reaction of a rhodium complex and water-soluble phosphine salt of formula (IV-a) or (IV-b) and in the presence of water and an organic solvent being selected from the group consisting of C 1 -C 5 alcohols, alkylethers of C 1 -C 5 alcohols, C 2 -C 6 alkane diols, monoalkylethers of C 2 -C 6 alkane diols, dialkylethers of C 2 -C 6 alkane diols, esters of C 1 -C 5 carboxyl acids or diacids, lactones and lactames; wherein the residue R 1 stands for a C 1-10 -alkyl group, preferably for a C 1-5 -alkyl group, more preferably for a methyl group; n stands for a value of 1-4, preferably for 1; M n+ stands for an organic or inorganic cation of the charge +n, preferably for an alkali metal ion, most preferably for Na + wherein the dotted line in formula (I) indicates a carbon-carbon double bond which is located at one of the two indicated positions. either i) a mixture of a rhodium complex and water-soluble phosphine salt of formula (IV-a) or (IV-b) or ii) a rhodium complex obtained from a reaction of a rhodium complex and water-soluble phosphine salt of formula (IV-a) or (IV-b) and in the presence of water and an organic solvent being selected from the group consisting of C 1 -C 5 alcohols, alkylethers of C 1 -C 5 alcohols, C 2 -C 6 alkane diols, monoalkylethers of C 2 -C 6 alkane diols, dialkylethers of C 2 -C 6 alkane diols, esters of C 1 -C 5 carboxyl acids or diacids, lactones and lactames; i) a mixture of a rhodium complex and water-soluble phosphine salt of formula (IV-a) or (IV-b) or ii) a rhodium complex obtained from a reaction of a rhodium complex and water-soluble phosphine salt of formula (IV-a) or (IV-b) and in the presence of water and an organic solvent being selected from the group consisting of C 1 -C 5 alcohols, alkylethers of C 1 -C 5 alcohols, C 2 -C 6 alkane diols, monoalkylethers of C 2 -C 6 alkane diols, dialkylethers of C 2 -C 6 alkane diols, esters of C 1 -C 5 carboxyl acids or diacids, lactones and lactames; wherein the residue R 1 stands for a C 1-10 -alkyl group, preferably for a C 1-5 -alkyl group, more preferably for a methyl group; n stands for a value of 1-4, preferably for 1; M n+ stands for an organic or inorganic cation of the charge +n, preferably for an alkali metal ion, most preferably for Na + wherein the dotted line in formula (I) indicates a carbon-carbon double bond which is located at one of the two indicated positions.
A method for generating a plot in a field during a crop input application operation using a variable application implement (16-1) being a planter in a system comprising a computer in data communication with a monitor , the method comprising: displaying a geo-referenced prescription map of the field; prompting a user to select a marker location on said displayed prescription map , said marker location corresponding to at least one geo-referenced location in the field; placing a marker on the prescription map at the marker location ; after placing the marker has occured, the computer or monitor allowing the user to set a plot application rate to associate with a plot to be created based on the marker location , said plot defining a plot region within the field; after said plot application rate has been set, initiating the crop input application operation using the variable application implement (16-1); applying a crop input, by planting, on a first portion of the field at varying application rates according to the prescription map , said prescription map associating each of a plurality of regions in the field with one of a plurality of application rates; characterized by once the planting has begun, the monitor determining that the planter has crossed the marker location on the prescription map ; once the planter has crossed the marker location , the monitor determining whether the planter has begun a new pass; and once the planter has begun a new pass after crossing the marker location , the monitor commanding drives on the planter to plant at the plot application rate . displaying a geo-referenced prescription map of the field; prompting a user to select a marker location on said displayed prescription map , said marker location corresponding to at least one geo-referenced location in the field; placing a marker on the prescription map at the marker location ; after placing the marker has occured, the computer or monitor allowing the user to set a plot application rate to associate with a plot to be created based on the marker location , said plot defining a plot region within the field; after said plot application rate has been set, initiating the crop input application operation using the variable application implement (16-1); applying a crop input, by planting, on a first portion of the field at varying application rates according to the prescription map , said prescription map associating each of a plurality of regions in the field with one of a plurality of application rates; characterized by once the planting has begun, the monitor determining that the planter has crossed the marker location on the prescription map ; once the planter has crossed the marker location , the monitor determining whether the planter has begun a new pass; and once the planter has begun a new pass after crossing the marker location , the monitor commanding drives on the planter to plant at the plot application rate .
A method, comprising: receiving , by a network node, a request from each of a first and a second wireless device, to schedule a device-to-device direct communication session between the first and second wireless devices, each request including device-to-device channel quality information and device-to-network node channel quality information; scheduling , by the network node, a mixed communication session comprising a unidirectional, direct device-to-device link to transmit second data from the second wireless device to the first wireless device using a frequency band below 6 GHz, and a unidirectional link to transmit first data from the first wireless device to the network node using a frequency band between 10 and 300 GHz, the network node acting as a relay to forward the first data to the second wireless device, if the device-to-device channel quality information of the first and second wireless devices does not meet a first predefined criterion for the frequency band between 10 and 300 GHz and if the device-to-network node channel quality information for the first wireless device to the network node meets a second predefined criterion for the frequency band between 10 and 300 GHz.
Apparatus designed for determining an instantaneous mass flow rate of a fluidized medium , namely a gas and/or a viscous liquid , a float flowmeter , comprising a means for determining and/or reading input values , comprising input values: an indication of the material of the fluidized medium, temperature and pressure of the fluidized medium and, in the form of an output signal of the float flowmeters a stroke value of a float , whereby the float is raised by the stroke value from a measuring flow of the flowing fluid medium by the stroke value , a means for processing the input values of temperature and pressure in a unit of calculation , whereby the instantaneous mass flow rate is determined by means of a corrector for the flowing fluid medium and the input values , a means for the output of a result value for the instantaneous mass flow rate , whereby the Input values can be input as analogue and/or digital signals from sensors, which sensors as sensor means are integrated into the means for determining the input values whereby, when determining the instantaneous mass flow rate of the flowing fluid medium , the correction means comprises a correction factor for gases, taking into account temperature and pressure , namely a density correction as a function of pressure and temperature of the gas , namely correction factors for pressure dependence and temperature dependence 7), whereby the input values are to be converted into result values taking into account the correction factors and/or compensation parameter calibration table , whereby wireless communication, in particular via WLAN, is provided with the float flowmeter for the transmission of input values and result values and correction factors and/or a compensation parameter calibration table .
Support system for the manufacture of dental restorations, comprising a measuring device determining restoration tooth data, in particular the tooth color as well as color coordinates of a tooth restoration , a data processing device connected or connectable with the measuring device for transmitting the measured restoration tooth data, an analysis module for comparing the measured restoration tooth data with specified target tooth data , said module being provided in the data processing device , and a display device for displaying an analysis result, said device being connected with the data processing device . a measuring device determining restoration tooth data, in particular the tooth color as well as color coordinates of a tooth restoration , a data processing device connected or connectable with the measuring device for transmitting the measured restoration tooth data, an analysis module for comparing the measured restoration tooth data with specified target tooth data , said module being provided in the data processing device , and a display device for displaying an analysis result, said device being connected with the data processing device .
High entropy alloy with a composition containing between 4 and 9 major elements chosen from the list comprising Cr, Fe, V, Al, Si, Mn, Mo, Ti and Ni with: - 3 major elements which are Cr, Fe and V, each having an atomic concentration comprised between 20 and 40%, - 1 or 2 major elements chosen from Al and Si each having an atomic concentration greater than or equal to 5% with a total concentration for these 2 major elements of less than or equal to 25%, - 0, 1, 2, 3 or 4 major elements chosen from Mn, Mo, Ti and Ni, each having an atomic concentration greater than or equal to 5% with a total atomic concentration for these 4 major elements of less than or equal to 35%, the total atomic concentration for all of the 4 to 9 major elements being greater than or equal to 80% and the remainder being made up of impurities and/or one or more minor elements each having an atomic concentration of less than 5%. - 3 major elements which are Cr, Fe and V, each having an atomic concentration comprised between 20 and 40%, - 1 or 2 major elements chosen from Al and Si each having an atomic concentration greater than or equal to 5% with a total concentration for these 2 major elements of less than or equal to 25%, - 0, 1, 2, 3 or 4 major elements chosen from Mn, Mo, Ti and Ni, each having an atomic concentration greater than or equal to 5% with a total atomic concentration for these 4 major elements of less than or equal to 35%,