mhurhangee/patent-ind-claim-en huggingface dataset:
A negative electrode active material, wherein the negative electrode active material contains: Sn: 10 to 35at%, and one or more selected from the group consisting of Ti: 1.0 to 9.0 at%, V: 1.0 to 49.0 at%, Cr: 1.0 to 49.0 at%, Mn: 1.0 to 9.0 at%, Fe: 1.0 to 49.0 at%, Co: 1.0 to 15.0 at%, Ni: 1.0 to 9.0 at%, Zn: 1.0 to 29.0 at%, Al: 1.0 to 49.0 at%, Si: 1.0 to 49.0 at%, B: 1.0 to 5.0 at%, and C: 1.0 to 5.0 at%, with the balance being Cu and impurities, characterised in that the negative electrode active material comprises an alloy phase, wherein the alloy phase undergoes thermoelastic diffusionless transformation either when releasing metal ions, or when occluding the metal ions, wherein the alloy phase contains a crystal structure which is DO 3 in Strukturbericht notation, the alloy phase undergoes the thermoelastic diffusionless transformation when occluding the metal ions, and undergoes reverse transformation when releasing the metal ions, the alloy phase after the thermoelastic diffusionless transformation contains a crystal structure which is 2H in Ramsdell notation, and the crystal structure which is 2H in Ramsdell notation transforms to a crystal structure which is DO 3 in Strukturbericht notation when undergoing reverse transformation. Sn: 10 to 35at%, and one or more selected from the group consisting of Ti: 1.0 to 9.0 at%, V: 1.0 to 49.0 at%, Cr: 1.0 to 49.0 at%, Mn: 1.0 to 9.0 at%, Fe: 1.0 to 49.0 at%, Co: 1.0 to 15.0 at%, Ni: 1.0 to 9.0 at%, Zn: 1.0 to 29.0 at%, Al: 1.0 to 49.0 at%, Si: 1.0 to 49.0 at%, B: 1.0 to 5.0 at%, and C: 1.0 to 5.0 at%, with the balance being Cu and impurities, characterised in that the negative electrode active material comprises an alloy phase, wherein the alloy phase undergoes thermoelastic diffusionless transformation either when releasing metal ions, or when occluding the metal ions, wherein the alloy phase contains a crystal structure which is DO 3 in Strukturbericht notation, the alloy phase undergoes the thermoelastic diffusionless transformation when occluding the metal ions, and undergoes reverse transformation when releasing the metal ions, the alloy phase after the thermoelastic diffusionless transformation contains a crystal structure which is 2H in Ramsdell notation, and the crystal structure which is 2H in Ramsdell notation transforms to a crystal structure which is DO 3 in Strukturbericht notation when undergoing reverse transformation.
A tissue engineering material for nerve injury repair, wherein, the tissue engineering material for nerve injury repair is a N-cadherin covalently crosslinked biodegradable material, wherein the biodegradable material is collagen; preferably a linear ordered collagen scaffold.
A method for detecting a burner failure in a gas turbine engine having a combustor and a turbine disposed downstream of the combustor , the combustor having a plurality of burners arranged annularly, the method comprising the steps of: A) providing a plurality of temperature sensors arranged annularly at an outlet of the turbine , the plurality of temperature sensors having respective temperature ranges ; B) obtaining a plurality of temperature signals from the plurality of temperature sensors ; C) determining a plurality of validated temperature signals from the plurality of temperature signals , wherein the plurality of validated temperature signals is within the respective temperature ranges of the respective temperature sensors ; D) determining a temperature focus at least based on the plurality of validated temperature signals ; E) improving the temperature focus such that the temperature focus is within a tolerance range ; and F) performing at least one hazard protection action at least when the temperature focus crosses a predetermined threshold . A) providing a plurality of temperature sensors arranged annularly at an outlet of the turbine , the plurality of temperature sensors having respective temperature ranges ; B) obtaining a plurality of temperature signals from the plurality of temperature sensors ; C) determining a plurality of validated temperature signals from the plurality of temperature signals , wherein the plurality of validated temperature signals is within the respective temperature ranges of the respective temperature sensors ; D) determining a temperature focus at least based on the plurality of validated temperature signals ; E) improving the temperature focus such that the temperature focus is within a tolerance range ; and F) performing at least one hazard protection action at least when the temperature focus crosses a predetermined threshold .
A method for determining, in a patient presenting with hematuria, the level of risk for having urothelial cancer, comprising: a. providing a sample of urine from said patient; b. quantifying a value, MI, comprising quantifying the levels of expression of human MDK, CDC2, HOXA13, and IGFBP5, and a further value, IL-8Rb, in said sample; c. assessing the phenotypic variables Frequency of Hematuria (HFREQ), Age (AgeGT50), Gender, Smoking (SMK), and Red Blood Cell Count (RBC) of said patient; d. calculating a Genotypic plus Phenotypic Index (G+P INDEX) according to either: G + P INDEX = 1 ∗ HFREQ + 3 ∗ Gender + 4 ∗ SMK + 5 ∗ MI + 2 ∗ IL − 8 Rb , G + P INDEX = w 1 ∗ HFREQ + w 2 ∗ AgeGT 50 + w 3 ∗ Gender + w 4 ∗ SMK + w 5 ∗ RBC + w 6 ∗ MI + w 7 ∗ IL − 8 Rb , or G + P INDEX = − 8.46 + 0.79 IGFBP5 − 1.60 HOXA13 + 2.10 MDK + 0.95 CDC2 − 0.38 IL 8 − Rb + 0.98 SMK + 0.56 HFREQ + 1.11 Gender + 0.64 AgeGT50 ; wherein HFREQ means the frequency of finding 3 or more red blood cells per high power field in a 6-month period; if frequency is low then HFREQ = 0, and if higher than 3 red blood cells per high power field, then 1; AgeGT50 refers to subject's age; if greater than 50 years then AgeGT50 = 1, and if less than 50 years, then 0; gender is assigned a value of 1 for male, and 0 for female; SMK means whether the subject is a current or ex-smoker; if non-smoker then SMK = 0 and if a smoker, then 1; RBC means red blood cell count; if 25 or more then RBC is set to 1, and if less than 25, then 0; and e. determining whether the G+P INDEX is greater than a threshold indicating the level of risk that the patient has urothelial cancer. a. providing a sample of urine from said patient; b. quantifying a value, MI, comprising quantifying the levels of expression of human MDK, CDC2, HOXA13, and IGFBP5, and a further value, IL-8Rb, in said sample; c. assessing the phenotypic variables Frequency of Hematuria (HFREQ), Age (AgeGT50), Gender, Smoking (SMK), and Red Blood Cell Count (RBC) of said patient; d. calculating a Genotypic plus Phenotypic Index (G+P INDEX) according to either: G + P INDEX = 1 ∗ HFREQ + 3 ∗ Gender + 4 ∗ SMK + 5 ∗ MI + 2 ∗ IL − 8 Rb , G + P INDEX = w 1 ∗ HFREQ + w 2 ∗ AgeGT 50 + w 3 ∗ Gender + w 4 ∗ SMK + w 5 ∗ RBC + w 6 ∗ MI + w 7 ∗ IL − 8 Rb , or G + P INDEX = − 8.46 + 0.79 IGFBP5 − 1.60 HOXA13 + 2.10 MDK + 0.95 CDC2 − 0.38 IL 8 − Rb + 0.98 SMK + 0.56 HFREQ + 1.11 Gender + 0.64 AgeGT50 ; wherein HFREQ means the frequency of finding 3 or more red blood cells per high power field in a 6-month period; if frequency is low then HFREQ = 0, and if higher than 3 red blood cells per high power field, then 1; AgeGT50 refers to subject's age; if greater than 50 years then AgeGT50 = 1, and if less than 50 years, then 0; gender is assigned a value of 1 for male, and 0 for female; SMK means whether the subject is a current or ex-smoker; if non-smoker then SMK = 0 and if a smoker, then 1; RBC means red blood cell count; if 25 or more then RBC is set to 1, and if less than 25, then 0; and e. determining whether the G+P INDEX is greater than a threshold indicating the level of risk that the patient has urothelial cancer.
Device for injecting liquid active substances into the vessels of woody plants , comprising an injection unit (19; 55) with at least one injection needle (45; 79) which can be introduced into a vessel and through which the active substances can be fed to the plant , and comprising - a unit which is displaceable in the direction of travel for moving the injection unit (19; 55) from plant to plant , and comprising - an injection arm (16; 100) which is fastened at its first end to the displaceable unit and at the second end of which the injection unit (19; 55) is arranged, - the injection arm (16; 100) having adjusting means with which a change of the injection unit (19; 55) between a first position for moving the injection unit (19; 55) of plant to plant and a second position for injecting the active substances into the vessels of a woody plant can be carried out, characterized in that - the adjusting means act transversely to the direction of travel , and - a control unit (SE) and sensors (S1, S2) are provided for operating the adjusting means, - the sensors (S1, S2) being designed to detect the relative position of the plant to be treated relative to the displaceable unit and to transmit the signals generated in the process to the control unit (SE), and - the control unit (SE) being designed to output control signals to the adjusting means in the course of processing the received signals. - a unit which is displaceable in the direction of travel for moving the injection unit (19; 55) from plant to plant , and comprising - an injection arm (16; 100) which is fastened at its first end to the displaceable unit and at the second end of which the injection unit (19; 55) is arranged, - the injection arm (16; 100) having adjusting means with which a change of the injection unit (19; 55) between a first position for moving the injection unit (19; 55) of plant to plant and a second position for injecting the active substances into the vessels of a woody plant can be carried out, characterized in that - the adjusting means act transversely to the direction of travel , and - a control unit (SE) and sensors (S1, S2) are provided for operating the adjusting means, - the sensors (S1, S2) being designed to detect the relative position of the plant to be treated relative to the displaceable unit and to transmit the signals generated in the process to the control unit (SE), and - the control unit (SE) being designed to output control signals to the adjusting means in the course of processing the received signals.
A machine for positioning objects, comprising - a first conveyor belt configured to receive a plurality of objects (O); - machine vision means configured to identify the position and the shape of the objects (O) arranged on the first conveyor belt ; - robotic collection means configured to collect the objects (O) from the first conveyor belt according to the information received from the machine vision means ; - a second conveyor belt configured to enable the outlet of said objects (O); and - a transfer conveyor that has a plurality of transfer carriers configured to move by means of magnetic induction in a closed loop through it enabling the speed and position thereof to be individually controlled, said transfer carriers being configured to receive the objects (O) coming from the robotic collection means and deliver said objects (O) to the second conveyor belt , wherein the transfer conveyor is arranged in a tilted position (6 l ) between the first conveyor belt and the second conveyor belt , and the transfer carriers are configured to receive the objects (O) coming from the robotic collection means in a horizontal position (O H ) and deliver said objects (O) to the second conveyor belt in a vertical position (Ov); or wherein the transfer conveyor is arranged in a vertical position between the first conveyor belt and the second conveyor belt , and the transfer carriers are configured to receive the objects (O) coming from the robotic collection means in an inverted vertical position (O IN ) and deliver said objects (O) to the second conveyor belt in a vertical position (Ov). - a first conveyor belt configured to receive a plurality of objects (O); - machine vision means configured to identify the position and the shape of the objects (O) arranged on the first conveyor belt ; - robotic collection means configured to collect the objects (O) from the first conveyor belt according to the information received from the machine vision means ; - a second conveyor belt configured to enable the outlet of said objects (O); and - a transfer conveyor that has a plurality of transfer carriers configured to move by means of magnetic induction in a closed loop through it enabling the speed and position thereof to be individually controlled, said transfer carriers being configured to receive the objects (O) coming from the robotic collection means and deliver said objects (O) to the second conveyor belt , wherein the transfer conveyor is arranged in a tilted position (6 l ) between the first conveyor belt and the second conveyor belt , and the transfer carriers are configured to receive the objects (O) coming from the robotic collection means in a horizontal position (O H ) and deliver said objects (O) to the second conveyor belt in a vertical position (Ov); or wherein the transfer conveyor is arranged in a vertical position between the first conveyor belt and the second conveyor belt , and the transfer carriers are configured to receive the objects (O) coming from the robotic collection means in an inverted vertical position (O IN ) and deliver said objects (O) to the second conveyor belt in a vertical position (Ov).
Device (E) for operating decentralised functional units (DFE) monitoring and/or controlling traffic arranged in a rail infrastructure, comprising: a) a superordinate control system which is designed to interchange information with the decentralised functional units (DFE) by means of data telegrams (DT), b) a data transport network (TN) with a number of network access points (2 to 16), wherein the superordinate control system is coupled via at least one network access point to the data transport network (TN); c) communication units (18 to 28), which are connected to a network access point (6 to 16) and are designed to provide the decentralised functional units with access to the data transport network (TN), d) an energy transport bus (ETN) to which the decentralised functional units (DFE) are connected and which is designed to supply the decentralised functional units (DFE) with electrical energy, wherein the capacitance of the energy transport bus (ETN) is attuned to an average power input of the decentralised functional units (DFE) connected to the energy transport bus (ETN), characterised by e) a number of intelligent energy stores (IES) connected to the energy transport bus (ETN), wherein the intelligent energy stores (IES) are designed to carry out an energy input if at most the average power input in the energy transport bus (ETN) occurs by means of one or more decentralised functional units (DFE), and wherein the intelligent energy stores (IES) are designed to carry out an energy output in order to smooth an electrical power input which exceeds the average power input by means of one or more of the decentralised functional units (DFE), wherein the intelligent energy stores comprise control and communication means, with which the intelligent energy stores are designed to coordinate the energy input and the energy output with one another by means of a corresponding data communication. a) a superordinate control system which is designed to interchange information with the decentralised functional units (DFE) by means of data telegrams (DT), b) a data transport network (TN) with a number of network access points (2 to 16), wherein the superordinate control system is coupled via at least one network access point to the data transport network (TN); c) communication units (18 to 28), which are connected to a network access point (6 to 16) and are designed to provide the decentralised functional units with access to the data transport network (TN), d) an energy transport bus (ETN) to which the decentralised functional units (DFE) are connected and which is designed to supply the decentralised functional units (DFE) with electrical energy, wherein the capacitance of the energy transport bus (ETN) is attuned to an average power input of the decentralised functional units (DFE) connected to the energy transport bus (ETN),
Casement lock with an actuation lug , a locking shaft which is coupled to the actuation lug , which locking shaft comprises two opposite flattened axial regions at least at its free end and comprises a profiled circumferential design in the circumferential direction between the flattened axial regions , and a cage which supports a closure element and which can be placed with an opening on the free end of the locking shaft and which can be fixed to the locking shaft , wherein a locking element is provided on the cage , characterised in that the locking element in a locking position secures the cage on the locking shaft against tilting, wherein in a release position of the locking element the cage can be tilted relative to the locking shaft and the cage can be moved in the axial direction along the locking shaft only in a state when tilted relative to the locking shaft .
A low-erosion internal ion source for cyclotrons, comprising: a hollow body whose interior walls define a cylindrical cavity , wherein the body has a gas supply inlet through which a plasma-forming gas is introduced into the cavity ; a coaxial conductor disposed in the cavity of the body and arranged parallel to the longitudinal axis of the cavity ; an expansion chamber connected to the cavity through a plasma outlet hole made in the body ; an ion-extraction aperture in contact with the expansion chamber ; wherein: the body has a power supply input through which radio frequency energy is injected into the cavity ; the interior walls of the body are conductive; at least one of the ends (15a; 15b) of the coaxial conductor is in contact with at least one circular interior wall of the body , forming a coaxial resonant cavity; characterised in that : the coaxial conductor has a conductive protuberance that extends radially into the cavity , said conductive protuberance being opposite the plasma outlet hole . a hollow body whose interior walls define a cylindrical cavity , wherein the body has a gas supply inlet through which a plasma-forming gas is introduced into the cavity ; a coaxial conductor disposed in the cavity of the body and arranged parallel to the longitudinal axis of the cavity ; an expansion chamber connected to the cavity through a plasma outlet hole made in the body ; an ion-extraction aperture in contact with the expansion chamber ; the body has a power supply input through which radio frequency energy is injected into the cavity ; the interior walls of the body are conductive; at least one of the ends (15a; 15b) of the coaxial conductor is in contact with at least one circular interior wall of the body , forming a coaxial resonant cavity; characterised in that : the coaxial conductor has a conductive protuberance that extends radially into the cavity , said conductive protuberance being opposite the plasma outlet hole .
A driver socket for installation of a ground reinforcement bolt, wherein the driver socket comprises a rotation sensor for measuring rotation of the driver socket , wherein the driver socket comprises a processing unit configured to receive a signal from the rotation sensor and configured to derive, based on the signal from the rotation sensor , rotation data related to the number of revolutions the driver socket has been rotated, wherein the rotation sensor comprises a gyroscope and/or an accelerometer and/or an inclinometer, and wherein the gyroscope, accelerometer and/or inclinometer is/are configured to determine the rotation data taking account of the position/orientation of the rotation sensor relative to the rotational axis of the driver socket, and wherein the driver socket further comprises a wireless transmitter or transceiver configured to emit a signal comprising the rotation data. wherein the driver socket comprises a rotation sensor for measuring rotation of the driver socket , wherein the driver socket comprises a processing unit configured to receive a signal from the rotation sensor and configured to derive, based on the signal from the rotation sensor , rotation data related to the number of revolutions the driver socket has been rotated, wherein the rotation sensor comprises a gyroscope and/or an accelerometer and/or an inclinometer, and wherein the gyroscope, accelerometer and/or inclinometer is/are configured to determine the rotation data taking account of the position/orientation of the rotation sensor relative to the rotational axis of the driver socket, and wherein the driver socket further comprises a wireless transmitter or transceiver configured to emit a signal comprising the rotation data.
A process to obtain a non-mechanically micronized digoxin, wherein a purified and concentrated solution of digoxin in a mixture of a chlorinated solvent with an alcohol, having a digoxin concentration between 50 and 200 g/L, is further concentrated until obtaining digoxin precipitation, then added with methanol, stirred for 1-6 hours, followed by recovery and drying of the precipitate.
A wavelength conversion device , comprising a substrate , a reflective layer , and a light emitting layer stacked successively, wherein the reflective layer contains reflective particles for reflecting light, and characterized in that the reflective layer further contains auxiliary particles for filling voids between the reflective particles, and a first binder for binding the reflective particles and the auxiliary particles to form the reflective layer , and wherein the light emitting layer contains a wavelength conversion material and a second binder, the reflective particles are aluminum oxide particles and the auxiliary particles are titanium oxide particles, wherein a thickness of the reflective layer is less than 70 μm, and a reflectivity of the reflective layer for visible light is higher than 95%.
A laser system comprising a purging system , the purging system comprising a cartridge that houses a desiccant material and which is removably mounted within a cavity of an enclosure of the laser system , the cartridge comprising a first mesh layer that provides a means for a fluid to flow to the desiccant material housed within the cartridge when the cartridge is mounted within the cavity wherein the cavity is suitable for housing the cartridge and a porous membrane , the membrane being held within a frame of the enclosure so that the membrane is located between the cartridge and an internal volume of the enclosure, and over the first mesh layer when the cartridge is mounted within the cavity and wherein the membrane remains in position when the cartridge is removed from the enclosure and forms part of the purging system .
A method of molding a gas turbine engine component comprising the steps of: inserting a core assembly into a mold for a gas turbine engine component, the core assembly having a ceramic component with a tapered shape in a radial direction extending away from a platform to a tip of the gas turbine engine component; a refractory metal component extending radially from said ceramic core component ; and injecting metal into a cavity in said mold, and about the core assembly, allowing the metal to solidify, and leaching away the core assembly, leaving internal cavity in a component formed in said mold, said airfoil extending from a leading edge to a trailing edge, and in said radial direction away from the platform. inserting a core assembly into a mold for a gas turbine engine component, the core assembly having a ceramic component with a tapered shape in a radial direction extending away from a platform to a tip of the gas turbine engine component; a refractory metal component extending radially from said ceramic core component ; and injecting metal into a cavity in said mold, and about the core assembly, allowing the metal to solidify, and leaching away the core assembly, leaving internal cavity in a component formed in said mold, said airfoil extending from a leading edge to a trailing edge, and in said radial direction away from the platform.