mhurhangee/patent-ind-claim-en huggingface dataset:
A radiation monitor (M1 - M4) comprising: a radiation Light Emitting Element that contains a rare earth element and that emits light of a plurality of wavelengths caused by incident radiation; an optical fiber that is connected to the radiation Light Emitting Element and that transmits the light emitted from the radiation Light Emitting Element ; an electrical pulse converter that is connected to the optical fiber and that converts the transmitted light to electrical pulses at each wavelength; and an electrical pulse detector that is connected to the electrical pulse converter and that measures the counting rate of electrical pulses at each wavelength using the electrical pulses sent out from the electrical pulse converter ; characterized by an analyzer that is connected to the electrical pulse detector and that computes the dosage rate of radiation and the temperature of the radiation Light Emitting Element by collating the counting rate of electrical pulses measured at each wavelength and the relationship of the counting rate of photons to the temperature of the radiation Light Emitting Element and the dosage rate of radiation stored in a database in advance. a radiation Light Emitting Element that contains a rare earth element and that emits light of a plurality of wavelengths caused by incident radiation; an optical fiber that is connected to the radiation Light Emitting Element and that transmits the light emitted from the radiation Light Emitting Element ; an electrical pulse converter that is connected to the optical fiber and that converts the transmitted light to electrical pulses at each wavelength; and an electrical pulse detector that is connected to the electrical pulse converter and that measures the counting rate of electrical pulses at each wavelength using the electrical pulses sent out from the electrical pulse converter ; characterized by an analyzer that is connected to the electrical pulse detector and that computes the dosage rate of radiation and the temperature of the radiation Light Emitting Element by collating the counting rate of electrical pulses measured at each wavelength and the relationship of the counting rate of photons to the temperature of the radiation Light Emitting Element and the dosage rate of radiation stored in a database in advance.
Method for the infrared light-induced yield optimization of chemical reactions, wherein energy input into at least one starting material which is subjected to a chemical reaction, is carried out by means of infrared light pulses which have an average wavelength in the range from 2,000 to 100,000 nm, wherein the chemical reaction is a synthesis reaction in which a product is formed, the molecular formula of which is not equal to the molecular formula of the starting material , and wherein the yield optimization is predominantly not based on thermal heating of the starting material, wherein the infrared light pulses have a fixed wavelength and the energy input into the starting material takes place by means of vibrational excitation by a single-photon process, characterized in that the infrared light pulses cause an infrared light-induced vibrational excitation of a direct or indirect reaction coordinate in the electronic ground state of the synthesis reaction, in that the synthesis reaction is a thermally driven reaction, and in that at least 10% more of a desired product is obtained within a given time interval by the yield optimization than in the case of a non-yield-optimized execution of the reaction.
Coriolis mass flowmeter for determining the mass flow of a fluid with a flange connection comprising an inflow side flange and an outflow side flange for connection to an external pipeline, with at least one oscillation generator , with at least two oscillation sensors , with at least two measuring tubes , with at least one flow divider , wherein the flow divider is arranged upstream of the at least two measuring tubes in the direction of flow, and with at least one flow collector , wherein the flow collector is arranged downstream of the at least two measuring tubes , wherein the Coriolis mass flowmeter extends completely between its inflow flange and outflow flange and, as seen in the direction flow has the construction inflow flange , flow divider , measuring tube , flow collector , outflow flange , wherein at least an active measuring tube and at least a passive measuring tube are provided, wherein the at least one active measuring tube and the at least one passive measuring tube are designed and arranged separately from one another so that the fluid to be measured within the Coriolis mass flowmeter is separated into independent partial flows, wherein the individual partial flows do not influence the active measuring tube and the passive measuring tube due to the separate design, and wherein the at least one oscillation generator and the at least two oscillation sensors are arranged on the at least one active measuring tube .
A method for a user equipment, UE , to receive a physical downlink control channel, PDCCH, signal transmitted from a base station, BS , via a specific resource region, the method comprising: receiving a physical broadcast channel, PBCH, signal comprising a system bandwidth, and a first value, a, related to physical hybrid ARQ indicator channel, PHICH, transmission; and receiving the PDCCH signal from the BS via the specific resource region for downlink control information, wherein the specific resource region is determined among resource regions not being used for N PHICH mapping resources within one or more first orthogonal frequency division multiplexing, OFDM, symbols on a subframe, wherein N is an integer obtained by multiplying the received first value, a, by a number of resource blocks, N RB , predetermined according to the received system bandwidth, and wherein the received first value, a, is a weight value consisting of a positive number. receiving a physical broadcast channel, PBCH, signal comprising a system bandwidth, and a first value, a, related to physical hybrid ARQ indicator channel, PHICH, transmission; and receiving the PDCCH signal from the BS via the specific resource region for downlink control information, wherein the specific resource region is determined among resource regions not being used for N PHICH mapping resources within one or more first orthogonal frequency division multiplexing, OFDM, symbols on a subframe, wherein N is an integer obtained by multiplying the received first value, a, by a number of resource blocks, N RB , predetermined according to the received system bandwidth, and wherein the received first value, a, is a weight value consisting of a positive number.
A drilling device , having: a guide frame ; a guide table which is mounted on the guide frame such that it can move in a longitudinal direction of the guide frame ; and a drilling drive which is fastened on the guide table and comprises a motor-driven chuck head for the rotary driving of a drill rod , and a rod bushing which allows a drill rod released from the chuck head to be pulled through the drilling drive , characterised in that a rod-pushing apparatus is fastened to the guide frame and can be connected frictionally to the drill rod and is designed to move the drill rod in the longitudinal direction of the guide frame .
An adsorbent composition, comprising: a bismuth material on a support, the support comprising at least one of a metal oxide, a metalloid oxide or an activated carbon; and an arsenic material, wherein the adsorbent composition comprises about 5% to about 15% by mass of the bismuth material, and wherein the support comprises a moisture content of about 15% by mass or less. a bismuth material on a support, the support comprising at least one of a metal oxide, a metalloid oxide or an activated carbon; and an arsenic material, wherein the adsorbent composition comprises about 5% to about 15% by mass of the bismuth material, and wherein the support comprises a moisture content of about 15% by mass or less.
Apparatus, comprising: a catheter ; a tip electrode , at a distal end of the catheter, shaped to define a plurality of microelectrode apertures , and further shaped to define a plurality of fluid apertures configured to allow passage of a fluid therethrough; at least one printed circuit board (PCB) disposed within a lumen of the catheter, the PCB being positioned within a lumen of the tip electrode such as to define a space , between the PCB and an inner surface of the tip electrode, for passage of the fluid to the fluid apertures; and a plurality of microelectrodes coupled to the PCB and at least partly situated within the microelectrode apertures, the PCB being configured to carry signals from the microelectrodes, wherein the microelectrodes are fixed to respective perimeters of the microelectrode apertures. a catheter ; a tip electrode , at a distal end of the catheter, shaped to define a plurality of microelectrode apertures , and further shaped to define a plurality of fluid apertures configured to allow passage of a fluid therethrough; at least one printed circuit board (PCB) disposed within a lumen of the catheter, the PCB being positioned within a lumen of the tip electrode such as to define a space , between the PCB and an inner surface of the tip electrode, for passage of the fluid to the fluid apertures; and a plurality of microelectrodes coupled to the PCB and at least partly situated within the microelectrode apertures, the PCB being configured to carry signals from the microelectrodes, wherein the microelectrodes are fixed to respective perimeters of the microelectrode apertures.
A solid composition of matter, consisting of a support and a coating, whereby said support comprises a non-metallic, porous component (A), and said coating consists of a first metallic component (B) and a second metallic component (C), characterized in that • said component (A) is selected from the group consisting of metal oxides, silicates, and carbonaceous materials, • said component (B) is selected from the group consisting of gallium and gallium containing alloys having the oxidation state +/-0 and having a mp. below 200°C, • said component (C) is catalytically active and selected from the group of metals as defined by IUPAC group 3 to 12 and from the group of alloys comprising a metal as defined by IUPAC group 3 to 12, • said component (C) is present in component (B) in dissolved form, • said component (C) has a solubility of at least 0.01 wt-% in component (B), • said coating has a melting point below 200°C. • said component (A) is selected from the group consisting of metal oxides, silicates, and carbonaceous materials, • said component (B) is selected from the group consisting of gallium and gallium containing alloys having the oxidation state +/-0 and having a mp. below 200°C, • said component (C) is catalytically active and selected from the group of metals as defined by IUPAC group 3 to 12 and from the group of alloys comprising a metal as defined by IUPAC group 3 to 12, • said component (C) is present in component (B) in dissolved form, • said component (C) has a solubility of at least 0.01 wt-% in component (B), • said coating has a melting point below 200°C.
A composition comprising: an acrylamide compound (A1) having an ester structure and a molecular weight of from 150 to 200; an acylphosphine oxide polymerization initiator (B1); and at least one member selected from the group consisting of an α-aminoketone polymerization initiator, an α-hydroxyketone polymerization initiator, an oxime ester polymerization initiator, a thioxanthone polymerization initiator, a benzophenone polymerization initiator, and an acridone polymerization initiator. an acrylamide compound (A1) having an ester structure and a molecular weight of from 150 to 200; an acylphosphine oxide polymerization initiator (B1); and at least one member selected from the group consisting of an α-aminoketone polymerization initiator, an α-hydroxyketone polymerization initiator, an oxime ester polymerization initiator, a thioxanthone polymerization initiator, a benzophenone polymerization initiator, and an acridone polymerization initiator.
A method for obtaining a granulated phosphate fertiliser which consists of the steps of: i) Granulating ground phosphate rock in a granulator with a particle size between 100 and 500 μm and a humidity between 1 and 2%, a natural carbon source in ground state with a particle size between 0.1 and 1 mm and a humidity of 25 to 35%, a metabolic inducer of phosphorus-solubilising microorganisms and water; ii) Drying the granulate obtained in step i) by means of a stream of hot air progressively heated from 50 °C to 290 °C, avoiding rapid evaporation of the water, with a granule outlet temperature of 50 °C; iii) Cooling the dry granulate by means of a stream of dry air at room temperature, from 20 °C to 25 °C; iv) Sieving the cooled granules removing the non-granulated raw material and deteriorated granules to obtain granules with a particle size (average diameter) between 1.5 mm and 3.5 mm; v) Drying the granulate by direct heating at a temperature of 300 °C reducing the humidity of the granulate to a maximum of 2%, with a granule outlet temperature of 40 °C; vi) Cooling the granulate by means of a stream of dry air at room temperature, from 20 °C to 25 °C; vii) Optionally, adding 10 5 cfu/g r of additional phosphorus-solubilising microorganisms of the genus bacillus or pseudomonas; viii) Sieving the granulate to obtain granules with an average particle size between 2 mm and 4 mm. i) Granulating ground phosphate rock in a granulator with a particle size between 100 and 500 μm and a humidity between 1 and 2%, a natural carbon source in ground state with a particle size between 0.1 and 1 mm and a humidity of 25 to 35%, a metabolic inducer of phosphorus-solubilising microorganisms and water; ii) Drying the granulate obtained in step i) by means of a stream of hot air progressively heated from 50 °C to 290 °C, avoiding rapid evaporation of the water, with a granule outlet temperature of 50 °C; iii) Cooling the dry granulate by means of a stream of dry air at room temperature, from 20 °C to 25 °C; iv) Sieving the cooled granules removing the non-granulated raw material and deteriorated granules to obtain granules with a particle size (average diameter) between 1.5 mm and 3.5 mm; v) Drying the granulate by direct heating at a temperature of 300 °C reducing the humidity of the granulate to a maximum of 2%, with a granule outlet temperature of 40 °C; vi) Cooling the granulate by means of a stream of dry air at room temperature, from 20 °C to 25 °C; vii) Optionally, adding 10 5 cfu/g r of additional phosphorus-solubilising microorganisms of the genus bacillus or pseudomonas; viii) Sieving the granulate to obtain granules with an average particle size between 2 mm and 4 mm.
A device for detecting particulate matter , comprising: a laser , a reflector , an ellipsoidal reflector , a first baffle (114-1), a second baffle (114-2), and a detector , wherein: the laser is configured to emit a beam ; the reflector is configured to reflect the beam toward the ellipsoidal reflector ; the ellipsoidal reflector has a first focal region located on a path of the reflected beam , and a second focal region located at a surface of the detector ; and the first baffle (114-1) is positioned between the reflector and the ellipsoidal reflector to block light reflected by the ellipsoidal reflector outside of the first focal region from reaching the detector ; the second baffle (114-2) is positioned between the reflector and the second focal region to block light reflected by the ellipsoidal reflector outside of the first focal region from reaching the detector , wherein the reflector is positioned between the first focal region and the second focal region . the laser is configured to emit a beam ; the reflector is configured to reflect the beam toward the ellipsoidal reflector ; the ellipsoidal reflector has a first focal region located on a path of the reflected beam , and a second focal region located at a surface of the detector ; and the first baffle (114-1) is positioned between the reflector and the ellipsoidal reflector to block light reflected by the ellipsoidal reflector outside of the first focal region from reaching the detector ; the second baffle (114-2) is positioned between the reflector and the second focal region to block light reflected by the ellipsoidal reflector outside of the first focal region from reaching the detector , wherein the reflector is positioned between the first focal region and the second focal region .
A lubricating oil composition comprising: (d) a major amount of a lubricating oil, (e) a diarylamine antioxidant, and (f) 0.01 to 10 wt.% of an amidine compound of Formula (I), wherein R 1 is hydrogen, an alkyl or an aromatic group containing 1-30 carbon atoms; x is from 1 to 5; Y is an optional linking alkyl group; Z is carbon or nitrogen; and R 2 is hydrogen or alkyl groups containing 1-30 carbon atoms, wherein the concentration of the diarylamine antioxidant in the lubricating oil composition is 0.01 to 10 wt. %. (d) a major amount of a lubricating oil, (e) a diarylamine antioxidant, and (f) 0.01 to 10 wt.% of an amidine compound of Formula (I), wherein R 1 is hydrogen, an alkyl or an aromatic group containing 1-30 carbon atoms; x is from 1 to 5; Y is an optional linking alkyl group; Z is carbon or nitrogen; and R 2 is hydrogen or alkyl groups containing 1-30 carbon atoms, wherein the concentration of the diarylamine antioxidant in the lubricating oil composition is 0.01 to 10 wt. %.
A catheter (100; 200; 300A; 300B), comprising: an elongate body including a polymeric portion and a metallic portion ; a balloon over at least some of the polymeric portion ; a coupler formed between the polymeric and metallic portions ; and one or more scoring wires extending from a tip at a distal end of the elongate body , over the balloon , through the polymeric portion , through the coupler , and to the metallic portion , wherein the one or more scoring wires are fixed to the tip and an internal surface of the metallic portion proximate to the coupler . an elongate body including a polymeric portion and a metallic portion ; a balloon over at least some of the polymeric portion ; a coupler formed between the polymeric and metallic portions ; and one or more scoring wires extending from a tip at a distal end of the elongate body , over the balloon , through the polymeric portion , through the coupler , and to the metallic portion , wherein the one or more scoring wires are fixed to the tip and an internal surface of the metallic portion proximate to the coupler .
A wireless communication method, applied to a multiuser superposition transmission, MUST, system, comprising: determining (S201), by a base station, a transmission mode used to send data to a terminal in a current scheduling period, wherein the transmission mode is one of a paired transmission mode or a non-paired transmission mode; sending (S202), by the base station to the terminal, information indicating a terminal type corresponding to the transmission mode; and notifying (S203), by the base station, the terminal of a power parameter used to determine downlink data transmit power, wherein the power parameter comprises PA MUST and P A , wherein PA MUST is a power parameter in the MUST system and being chosen for determining downlink data transmit power when the terminal is in the paired transmission mode, and P A is a power parameter defined in an existing protocol; wherein the method further comprises: sending (S205), by the base station, downlink data transmit power ratio information or indication information of downlink data transmit power ratio information to the terminal, wherein the downlink data transmit power ratio information is a downlink data transmit power ratio of the terminal in the paired transmission mode. determining (S201), by a base station, a transmission mode used to send data to a terminal in a current scheduling period, wherein the transmission mode is one of a paired transmission mode or a non-paired transmission mode; sending (S202), by the base station to the terminal, information indicating a terminal type corresponding to the transmission mode; and notifying (S203), by the base station, the terminal of a power parameter used to determine downlink data transmit power, wherein the power parameter comprises PA MUST and P A , wherein PA MUST is a power parameter in the MUST system and being chosen for determining downlink data transmit power when the terminal is in the paired transmission mode, and P A is a power parameter defined in an existing protocol; wherein the method further comprises: sending (S205), by the base station, downlink data transmit power ratio information or indication information of downlink data transmit power ratio information to the terminal, wherein the downlink data transmit power ratio information is a downlink data transmit power ratio of the terminal in the paired transmission mode.
Method for delineating a ventricle from MRI data relating to the heart of a patient, the method comprising: a) providing a contrast-enhanced cine MRI dataset; b) providing one or more additional MRI datasets acquired with a different kind of MRI acquisition than the contrast-enhanced cine MRI dataset; c) segmenting one or more features on the one or more additional MRI dataset; d) mapping the one or more segmented features to the contrast-enhanced cine MRI dataset; e) using the one or more segmented features as mapped in step d) to assist segmentation of the ventricle on the contrast-enhanced cine MRI dataset, wherein the contrast-enhanced cine MRI dataset and the one or more additional MRI datasets are acquired during a single cardiac MRI examination of the patient and the one or more segmented features as mapped are used as seeds for ventricle segmentation on the contrast-enhanced cine MRI dataset. a) providing a contrast-enhanced cine MRI dataset; b) providing one or more additional MRI datasets acquired with a different kind of MRI acquisition than the contrast-enhanced cine MRI dataset; c) segmenting one or more features on the one or more additional MRI dataset; d) mapping the one or more segmented features to the contrast-enhanced cine MRI dataset; e) using the one or more segmented features as mapped in step d) to assist segmentation of the ventricle on the contrast-enhanced cine MRI dataset,
Container comprising at least one connection opening and at least one connection part , with grooves and latching elements being provided as interacting connecting elements for connecting the container and the connection part , and, in the connected state, each latching element being arranged in a receiving portion of a groove , which portion is arranged substantially perpendicularly to a longitudinal axis of the container , characterised in that the container and the connection part have run-on elements with run-on surfaces that extend obliquely to the longitudinal axis of the container, which elements interact by means of a rotational movement between the container and the connection part in such a way that the latching elements can be moved out of the receiving portion of the relevant groove and, in a rotated position, the latching connection between the container and the connection part is released.