mhurhangee/patent-ind-claim-en huggingface dataset:
An arrangement for overcoming heights or at least largely vertical distances, such as in particular on high-voltage masts, masts for wind turbines, buildings, high-bay warehouses, etc., having: - an at least longitudinally extended, rail-like profile or guide member, which has a U-shaped design, V-shaped design or is designed essentially straight in the form of a band, - at least one lift element , which is attached releasably to the profile or guide member, consisting of a drive part , which can be moved up and down along the profile or guide member, and a platform for receiving at least one person or loads, wherein the drive of the drive part is suppliable by an energy storage unit, such as a rechargeable battery , a battery or a fuel storage tank, located in the lift element , characterised in that holding members , which each laterally engage around the profile or guide member, as seen in the longitudinal direction, are provided on the driving part , said holding members being latchable into a fixing position in order to ensure secure holding of the driving part on the profile or guide member. - an at least longitudinally extended, rail-like profile or guide member, which has a U-shaped design, V-shaped design or is designed essentially straight in the form of a band, - at least one lift element , which is attached releasably to the profile or guide member, consisting of a drive part , which can be moved up and down along the profile or guide member, and a platform for receiving at least one person or loads, wherein the drive of the drive part is suppliable by an energy storage unit, such as a rechargeable battery , a battery or a fuel storage tank, located in the lift element , characterised in that holding members , which each laterally engage around the profile or guide member, as seen in the longitudinal direction, are provided on the driving part , said holding members being latchable into a fixing position in order to ensure secure holding of the driving part on the profile or guide member.
A polypeptide comprising a) a first signaling domain, and b) a potassium sensor comprising b1) a first domain of the potassium sensor comprising an amino acid sequence which exhibits at least 70 % identity to the sequence according to SEQ ID NO: 1; and b2) a second domain of the potassium sensor comprising an amino acid sequence which exhibits at least 70 % identity to the sequence according to SEQ ID NO: 2; wherein the potassium sensor is capable of binding positively charged potassium ion and the first signaling domain is capable of generating a detectable signal upon binding of positively charged potassium ion to the potassium sensor. a) a first signaling domain, and b) a potassium sensor comprising b1) a first domain of the potassium sensor comprising an amino acid sequence which exhibits at least 70 % identity to the sequence according to SEQ ID NO: 1; and b2) a second domain of the potassium sensor comprising an amino acid sequence which exhibits at least 70 % identity to the sequence according to SEQ ID NO: 2; b1) a first domain of the potassium sensor comprising an amino acid sequence which exhibits at least 70 % identity to the sequence according to SEQ ID NO: 1; and b2) a second domain of the potassium sensor comprising an amino acid sequence which exhibits at least 70 % identity to the sequence according to SEQ ID NO: 2;
A polymer composition comprising: at least one multimodal ethylene-based polymer having a density from 0.900 to 0.940 g/cc when measured according to ASTM D792 and a melt index (I 2 ) from 0.1 to 10 g/10 min when measured according to ASTM D1238 at a load of 2.16 kg and temperature of 190 °C, the multimodal ethylene-based polymer comprising a first ethylene-based component, a second ethylene-based component, and a third ethylene-based component, wherein each of the first ethylene-based component, the second ethylene-based component, and the third ethylene-based component are polymerized reaction products of ethylene monomer and at least one C 3 -C 12 α-olefin comonomer, wherein; the first ethylene-based component has a density of 0.860 to 0.915 g/cc, and a weight-average molecular weight (M w(GPC) ) of 128,000 g/mol to 363,000 g/mol, the multimodal ethylene-based polymer comprising at least 20% by weight of the first ethylene-based component; the second ethylene-based component has a density greater than the density of the first ethylene-based component and less than 0.940 g/cc, and a weight-average molecular weight (M w(GPC) ) of 88,500 g/mol to 363,000 g/mol, and the third ethylene-based component has a density greater than the density of the second ethylene-based component. at least one multimodal ethylene-based polymer having a density from 0.900 to 0.940 g/cc when measured according to ASTM D792 and a melt index (I 2 ) from 0.1 to 10 g/10 min when measured according to ASTM D1238 at a load of 2.16 kg and temperature of 190 °C, the multimodal ethylene-based polymer comprising a first ethylene-based component, a second ethylene-based component, and a third ethylene-based component, wherein each of the first ethylene-based component, the second ethylene-based component, and the third ethylene-based component are polymerized reaction products of ethylene monomer and at least one C 3 -C 12 α-olefin comonomer, wherein; the first ethylene-based component has a density of 0.860 to 0.915 g/cc, and a weight-average molecular weight (M w(GPC) ) of 128,000 g/mol to 363,000 g/mol, the multimodal ethylene-based polymer comprising at least 20% by weight of the first ethylene-based component; the second ethylene-based component has a density greater than the density of the first ethylene-based component and less than 0.940 g/cc, and a weight-average molecular weight (M w(GPC) ) of 88,500 g/mol to 363,000 g/mol, and the third ethylene-based component has a density greater than the density of the second ethylene-based component. the first ethylene-based component has a density of 0.860 to 0.915 g/cc, and a weight-average molecular weight (M w(GPC) ) of 128,000 g/mol to 363,000 g/mol, the multimodal ethylene-based polymer comprising at least 20% by weight of the first ethylene-based component; the second ethylene-based component has a density greater than the density of the first ethylene-based component and less than 0.940 g/cc, and a weight-average molecular weight (M w(GPC) ) of 88,500 g/mol to 363,000 g/mol, and the third ethylene-based component has a density greater than the density of the second ethylene-based component.
A composition for use in the treatment, inhibition, and/or prevention of cancer comprising, 1) at least one inhibitor of induction, activity, or signaling by indoleamine 2,3-dioxygenase-1 (IDO1); and 2) at least one second agent, wherein said second agent is an anti-vasculogenic/anti-angiogenic agent and/or therapeutic agent which acts by imposing nutrient/oxygen starvation on a cancer cell or exploiting nutrient/oxygen starvation in a cancer cell. 1) at least one inhibitor of induction, activity, or signaling by indoleamine 2,3-dioxygenase-1 (IDO1); and 2) at least one second agent, wherein said second agent is an anti-vasculogenic/anti-angiogenic agent and/or therapeutic agent which acts by imposing nutrient/oxygen starvation on a cancer cell or exploiting nutrient/oxygen starvation in a cancer cell.
A method of monitoring a fuel cell system, comprising: determining a single frequency to apply to a set of fuel cells, wherein fuel utilization of the set of fuel cells is dependent on imaginary impedance at the single frequency; determining the imaginary impedance of the set of fuel cells at the single frequency using electrochemical impedance spectroscopy; comparing the imaginary impedance of the set of fuel cells to a first threshold; initiating a corrective action when the imaginary impedance crosses the first threshold; and wherein determining the single frequency to apply to the set of fuel cells comprises: applying a range of frequencies to the set of fuel cells for a plurality of known fuel utilization values; varying, at each frequency in the range of frequencies, operational parameters of the set of fuel cells; measuring the imaginary impedance of the set of fuel cells at each frequency in the range of frequencies and for each of the plurality of known fuel utilization values while the operational parameters are varied; determining the single frequency as the frequency in the range of frequencies at which the plurality of known fuel utilization values is more dependent on imaginary impedance than on the operational parameters; storing the single frequency in memory; and wherein operational parameters include at least one of temperature and air utilization. determining a single frequency to apply to a set of fuel cells, wherein fuel utilization of the set of fuel cells is dependent on imaginary impedance at the single frequency; determining the imaginary impedance of the set of fuel cells at the single frequency using electrochemical impedance spectroscopy; comparing the imaginary impedance of the set of fuel cells to a first threshold; initiating a corrective action when the imaginary impedance crosses the first threshold; and wherein determining the single frequency to apply to the set of fuel cells comprises: applying a range of frequencies to the set of fuel cells for a plurality of known fuel utilization values; varying, at each frequency in the range of frequencies, operational parameters of the set of fuel cells; measuring the imaginary impedance of the set of fuel cells at each frequency in the range of frequencies and for each of the plurality of known fuel utilization values while the operational parameters are varied; determining the single frequency as the frequency in the range of frequencies at which the plurality of known fuel utilization values is more dependent on imaginary impedance than on the operational parameters; storing the single frequency in memory; and wherein operational parameters include at least one of temperature and air utilization.
A phosphorescent phosphor represented by the following composition formula : Sr 1-a Mg b Al 2 O 4 ;Eu d M e ... wherein a, b, d, and e satisfy (b + d + e) < a, 0.05 ≤ a ≤ 0.8, 0.01 ≤ b < 0.1, 0 ≤ d ≤ 0.2, and 0 ≤ e ≤ 0.15, respectively, and M represents at least one element selected from the group consisting of dysprosium, samarium, lanthanum, praseodymium, terbium, holmium, thulium, lutetium, ytterbium, erbium, gadolinium, neodymium and cerium; wherein the phosphorescent phosphor emits light due to excitation light in a wavelength region of 430 to 480 nm. wherein a, b, d, and e satisfy (b + d + e) < a, 0.05 ≤ a ≤ 0.8, 0.01 ≤ b < 0.1, 0 ≤ d ≤ 0.2, and 0 ≤ e ≤ 0.15, respectively, and M represents at least one element selected from the group consisting of dysprosium, samarium, lanthanum, praseodymium, terbium, holmium, thulium, lutetium, ytterbium, erbium, gadolinium, neodymium and cerium; wherein the phosphorescent phosphor emits light due to excitation light in a wavelength region of 430 to 480 nm.
A method for performing in situ balancing of an internal rotating component of a gas turbine engine , the method comprising: inserting a repair tool through an access port of the gas turbine engine, the repair tool including a tip end positioned within the gas turbine engine and a material supply end positioned outside the gas turbine engine; positioning the tip end of the repair tool adjacent to a surface of the internal rotating component of the gas turbine engine; supplying new material from the material supply end of the repair tool to the tip end of the repair tool; and expelling the new material from the tip end of the repair tool in a direction of the surface of the rotating component such that the new material is added onto a portion of the rotating part. inserting a repair tool through an access port of the gas turbine engine, the repair tool including a tip end positioned within the gas turbine engine and a material supply end positioned outside the gas turbine engine; positioning the tip end of the repair tool adjacent to a surface of the internal rotating component of the gas turbine engine; supplying new material from the material supply end of the repair tool to the tip end of the repair tool; and expelling the new material from the tip end of the repair tool in a direction of the surface of the rotating component such that the new material is added onto a portion of the rotating part.
A fluid delivery system comprising: a control interface ; and multiple loading guides , the multiple loading guides retractable from the fluid delivery system to retain and control movement of a fluid pump assembly to contact the control interface , wherein the multiple loading guides include a first loading guide (475-1) and a second loading guide, the first loading guide (475-1) receiving a first tab disposed on a first edge of the fluid pump assembly , the first loading guide (475-1) including a corresponding channel to receive the first tab, the corresponding channel including a stop to retain the first tab in the corresponding channel, wherein the second loading guide (475-2) includes a respective channel operable to receive a second tab disposed on the frame of the fluid pump assembly, the second tab disposed on a second edge of the fluid pump assembly, wherein the stop matably aligns a port on the fluid pump assembly to a port of the control interface disposed on a facing of the fluid delivery system. a control interface ; and multiple loading guides , the multiple loading guides retractable from the fluid delivery system to retain and control movement of a fluid pump assembly to contact the control interface , wherein the multiple loading guides include a first loading guide (475-1) and a second loading guide, the first loading guide (475-1) receiving a first tab disposed on a first edge of the fluid pump assembly , the first loading guide (475-1) including a corresponding channel to receive the first tab, the corresponding channel including a stop to retain the first tab in the corresponding channel, wherein the second loading guide (475-2) includes a respective channel operable to receive a second tab disposed on the frame of the fluid pump assembly, the second tab disposed on a second edge of the fluid pump assembly, wherein the stop matably aligns a port on the fluid pump assembly to a port of the control interface disposed on a facing of the fluid delivery system.
A vehicle including a solid propellant containing lithium for propelling the vehicle, said vehicle operable to transform optical energy into thermal energy and utilize the thermal energy to liquefy at least a portion of the solid propellant to propel said vehicle, said vehicle, comprising: a propellant tank ; a quantity of solid propellant containing lithium within said propellant tank; an optical absorber operable to transform optical energy into thermal energy; a heat exchanger operable to transfer thermal energy from said optical absorber to said quantity of solid propellant to liquefy at least a portion of the solid propellant, said heat exchanger operable to boil the liquefied portion of the lithium in the propellant; an engine operable to utilize lithium vapor from the boiled lithium to propel said vehicle; and a heat conduit to transfer the thermal energy from said heat exchanger to said quantity of solid propellant; and a pump , said pump operable to pump the liquefied portion of the solid propellant into said heat exchanger . a propellant tank ; a quantity of solid propellant containing lithium within said propellant tank; an optical absorber operable to transform optical energy into thermal energy; a heat exchanger operable to transfer thermal energy from said optical absorber to said quantity of solid propellant to liquefy at least a portion of the solid propellant, said heat exchanger operable to boil the liquefied portion of the lithium in the propellant; an engine operable to utilize lithium vapor from the boiled lithium to propel said vehicle; and a heat conduit to transfer the thermal energy from said heat exchanger to said quantity of solid propellant; and a pump , said pump operable to pump the liquefied portion of the solid propellant into said heat exchanger .
Joining piece for producing a mechanical joint between two elements, comprising: - a female part comprising a portion for mechanical assembly with a first element separate from the part, and a receiving portion continuing on from the mechanical assembly portion, the receiving portion comprising a single shell in the shape of an equatorial section of a sphere, - a male part comprising a portion for mechanical assembly with a second element separate from the part, and an insertion portion continuing on from the mechanical assembly portion, the insertion portion being in the shape of an equatorial section of a sphere, inserted with clearance into the shell of the receiving portion and being retained in it, so that the male part is rotatably mobile in one or more degrees of freedom relative to the female part while being mechanically assembled with it, characterized in that the male part and the female part are assembled together without any additional component or means, and the joining piece is configured so that the outer surface of the insertion portion and the inner surface of the shell of the receiving portion are in continuous contact over the entire circumference of the inside of the joining piece. - a female part comprising a portion for mechanical assembly with a first element separate from the part, and a receiving portion continuing on from the mechanical assembly portion, the receiving portion comprising a single shell in the shape of an equatorial section of a sphere, - a male part comprising a portion for mechanical assembly with a second element separate from the part, and an insertion portion continuing on from the mechanical assembly portion, the insertion portion being in the shape of an equatorial section of a sphere, inserted with clearance into the shell of the receiving portion and being retained in it, so that the male part is rotatably mobile in one or more degrees of freedom relative to the female part while being mechanically assembled with it, characterized in that the male part and the female part are assembled together without any additional component or means, and
A process for preparing compound f, comprising precipitating a solid from a mixed solution formed by the mixture containing compound f and compound f1 with a solvent; the solvent is selected from the group consisting of a nitriles solvent, an esters solvent, an ethers solvent, a mixed solvent of an ethers solvent and an alkanes solvent, a mixed solvent of a nitriles solvent and an alkanes solvent, and a mixed solvent of an esters solvent and an alkanes solvent; wherein, A is wherein, each of R 1 , R 1a , R 1b , R 1c and R 1d is independently H, a C 1 -C 4 alkoxy or a halogen; R 2 is H, a C 1 -C 4 alkyl or hydroxy, wherein, the nitriles solvent is acetonitrile; and/or, the esters solvent is ethyl acetate; and/or, the ethers solvent is methyl tert-butyl ether; and/or, the alkanes solvent is a C5-C8 alkanes solvent. wherein, the nitriles solvent is acetonitrile; and/or, the esters solvent is ethyl acetate; and/or, the ethers solvent is methyl tert-butyl ether; and/or, the alkanes solvent is a C5-C8 alkanes solvent.
A light-detecting device comprising: a wiring substrate which has a principal surface; a light detector which is disposed on the principal surface of the wiring substrate and is electrically connected to the wiring substrate ; a support member which is disposed around the light detector , on the principal surface of the wiring substrate ; and a Fabry-Perot interference filter which has a light transmission region and is disposed on the principal surface of the wiring substrate with the support member therebetween, wherein the support member support the Fabry-Perot interference filter in a surrounding region of the light transmission region, and the support member is arranged to form an opening (A1) via which an inner side of the surrounding region in air-communication with an outer side of the surrounding region, when viewed from a light transmission direction in the light transmission region, characterized in that the Fabry-Perot interference filter comprises a stress adjustment layer which comprises a stress adjustment layer opening to include the light transmission region , and a light shielding layer formed on a surface of a light emission side of the stress adjustment layer . a wiring substrate which has a principal surface; a light detector which is disposed on the principal surface of the wiring substrate and is electrically connected to the wiring substrate ; a support member which is disposed around the light detector , on the principal surface of the wiring substrate ; and a Fabry-Perot interference filter which has a light transmission region and is disposed on the principal surface of the wiring substrate with the support member therebetween, wherein the support member support the Fabry-Perot interference filter in a surrounding region of the light transmission region, and the support member is arranged to form an opening (A1) via which an inner side of the surrounding region in air-communication with an outer side of the surrounding region, when viewed from a light transmission direction in the light transmission region,
A method for ascertaining the time-dependent curve of the blood pressure including the following steps: - noninvasive detection of time-dependent and volume-dependent blood flow values, in the form of photoplethysmographic values P(t), in a section of tissue with good blood circulation by means of a photoplethysmographically functioning sensor; - transformation of the photoplethysmographic values P(t) into blood pressure values B(t) through the use of the following transformation formula: B t = k 0 ⋅ P t + k 1 ⋅ P " t , with the first derivate P ′ t = dP dt the second derivate P " t = d 2 P dt 2 predetermined coefficients ko,k 1 ,k 2; - outputting of the transformed blood pressure values B(t) as time-dependent blood pressure values to a display and/or memory unit. - noninvasive detection of time-dependent and volume-dependent blood flow values, in the form of photoplethysmographic values P(t), in a section of tissue with good blood circulation by means of a photoplethysmographically functioning sensor; - transformation of the photoplethysmographic values P(t) into blood pressure values B(t) through the use of the following transformation formula: B t = k 0 ⋅ P t + k 1 ⋅ P " t , with the first derivate P ′ t = dP dt the second derivate P " t = d 2 P dt 2 predetermined coefficients ko,k 1 ,k 2; the first derivate P ′ t = dP dt the second derivate P " t = d 2 P dt 2 predetermined coefficients ko,k 1 ,k 2; - outputting of the transformed blood pressure values B(t) as time-dependent blood pressure values to a display and/or memory unit.