mhurhangee/ep-ind-claims huggingface dataset:
A hydrotreating catalyst for hydrocarbon oil using an oxide support containing aluminum and phosphorus, the oxide support containing 0.5 to 2.0 mass% of phosphorus in terms of P 2 O 5, the oxide support carrying a metal in Group 6A of the periodic table, and a metal in Group 8 of the periodic table, the hydrotreating catalyst having a specific surface area of 150 m 2 /g or more as measured by the BET method, the hydrotreating catalyst having a total pore volume of 0.40 to 0.75 ml/g as measured by a mercury intrusion method, the hydrotreating catalyst having two maximal peaks in a pore diameter range of 6 nm to 13 nm in a log differential pore volume distribution measured by a mercury intrusion method, the hydrotreating catalyst having an abrasion strength of 0.5% or less as measured based on ASTM D4058-81, and the hydrotreating catalyst having a compressive strength of 15 N/mm or more as measured using a Kiya hardness meter. the oxide support containing 0.5 to 2.0 mass% of phosphorus in terms of P 2 O 5, the oxide support carrying a metal in Group 6A of the periodic table, and a metal in Group 8 of the periodic table, the hydrotreating catalyst having a specific surface area of 150 m 2 /g or more as measured by the BET method, the hydrotreating catalyst having a total pore volume of 0.40 to 0.75 ml/g as measured by a mercury intrusion method, the hydrotreating catalyst having two maximal peaks in a pore diameter range of 6 nm to 13 nm in a log differential pore volume distribution measured by a mercury intrusion method, the hydrotreating catalyst having an abrasion strength of 0.5% or less as measured based on ASTM D4058-81, and the hydrotreating catalyst having a compressive strength of 15 N/mm or more as measured using a Kiya hardness meter.
A projector display system comprising: a light source; a controller, said controller receiving input image data and sending control signals in response to said input image data; a first modulator, said first modulator controllable by said control signals from said controller, and said first modulator configured to produce a blurred image based on said input image data; a relay optical system, said relay optical system configured to receive blurred image from said first modulator and further configured to provide a desired amount of defocusing of the blurred image to provide a plurality of substantially Gaussian spots; and a second modulator, said second modulator configured to receive said plurality of Gaussian spots and further modulate the light to produce an image for further projection, wherein optionally said light source is one of a group, said group comprising: lasers, partially coherent light, colored partially coherent light, LEDs, Xenon lamp. a light source; a controller, said controller receiving input image data and sending control signals in response to said input image data; a first modulator, said first modulator controllable by said control signals from said controller, and said first modulator configured to produce a blurred image based on said input image data; a relay optical system, said relay optical system configured to receive blurred image from said first modulator and further configured to provide a desired amount of defocusing of the blurred image to provide a plurality of substantially Gaussian spots; and a second modulator, said second modulator configured to receive said plurality of Gaussian spots and further modulate the light to produce an image for further projection, wherein optionally said light source is one of a group, said group comprising: lasers, partially coherent light, colored partially coherent light, LEDs, Xenon lamp.
Propylene polymer comprising at least one comonomer and at least two propylene polymer fractions of different melt flow index, said propylene polymer being characterized by - a melt flow index in the range from 0.5 dg/min to 8.0 dg/min, determined according to ISO 1133, condition L at 230°C and 2.16 kg, - a xylene solubles content in the range from 1.0 wt% to 4.0 wt%, relative to the total weight of the propylene polymer, determined using the method of the experimental part of the description, and - a recovery compliance of at least 6.0 • 10-4 Pa-1 and of at most 7.5 • 10-4 Pa-1, determined at 230°C using a parallel-plate rotational stress rheometer as disclosed in the experimental part of the description, - a total comonomer content of from 0.1 wt% to 1.0 wt%, relative to the total weight of the propylene polymer, determined by NMR analysis, as disclosed in the experimental part of the description, wherein said fraction with the lowest melt flow index has a melt flow index in the range from 0.2 dg/min to 1.0 dg/min, determined according to ISO 1133, condition L at 230°C and 2.16 kg, and wherein each of the at least two propylene polymer fractions has substantially the same comonomer content, or wherein the propylene polymer fraction with the lowest melt flow index has at least 80 wt% and at most 95 wt% of the total comonomer content of the propylene polymer. - a melt flow index in the range from 0.5 dg/min to 8.0 dg/min, determined according to ISO 1133, condition L at 230°C and 2.16 kg, - a xylene solubles content in the range from 1.0 wt% to 4.0 wt%, relative to the total weight of the propylene polymer, determined using the method of the experimental part of the description, and - a recovery compliance of at least 6.0 • 10-4 Pa-1 and of at most 7.5 • 10-4 Pa-1, determined at 230°C using a parallel-plate rotational stress rheometer as disclosed in the experimental part of the description, - a total comonomer content of from 0.1 wt% to 1.0 wt%, relative to the total weight of the propylene polymer, determined by NMR analysis, as disclosed in the experimental part of the description,
A method for regenerating used denitration catalyst, characterized in that the method comprises: bringing a used denitration catalyst into contact with a suspension of particles comprising manganese oxide, wherein the used denitration catalyst comprises titanium oxide as an essential ingredient and further comprises arsenic, the arsenic comes from an exhaust gas and is adhered to the used denitration catalyst, and the particles comprising manganese oxide are those in which manganese oxide is supported on carrier particles and the carrier particles are titanium oxide particles or aluminum oxide particles; subjecting the resulting product to a liquid draining; and subjecting the liquid-drained product to a drying process, whereby the arsenic acting as a catalyst poison is removed from the used denitration catalyst even if the arsenic is adsorbed on the titanium oxide as essential ingredient of the used denitration catalyst in a state of oxoacid. bringing a used denitration catalyst into contact with a suspension of particles comprising manganese oxide, wherein the used denitration catalyst comprises titanium oxide as an essential ingredient and further comprises arsenic, the arsenic comes from an exhaust gas and is adhered to the used denitration catalyst, and the particles comprising manganese oxide are those in which manganese oxide is supported on carrier particles and the carrier particles are titanium oxide particles or aluminum oxide particles; subjecting the resulting product to a liquid draining; and subjecting the liquid-drained product to a drying process, whereby the arsenic acting as a catalyst poison is removed from the used denitration catalyst even if the arsenic is adsorbed on the titanium oxide as essential ingredient of the used denitration catalyst in a state of oxoacid.
A deployable tensegrity structure comprising, in the deployed state, a support structure having a ring shape around a longitudinal axis and comprising: - a first flexible tension member defining a first contour of said ring and a second flexible tension member defining a second contour of said ring; - a first plurality of rigid compression members (103, 103', 103") extending between said first and second contours (101, 102), one end (1030, 1030') of each rigid compression member of the first plurality being mounted on the first contour whereas the other end (1031, 1031") is not mounted on a contour and; a second plurality of rigid compression members (104, 104') extending between said first and second contours (101, 102), one end of each rigid compression member of the second plurality being mounted on the second contour whereas the other end (1041, 1041') is not mounted on a contour; said first and second plurality of rigid compression members (103, 103', 103" 104, 104') being arranged with a repetitive crossing pattern around the ring; - a first plurality of flexible tension members (105, 106, 107, 110, 111) linking each end (1030, 1030', 1040') of a compression member mounted on one of said contours (101, 102) to an end of another compression member which is not mounted on one of said contours and, a second plurality of flexible tension members (108, 109, 112) linking each end (1031, 1031", 1041, 1041') of a compression member which is not mounted on a contour to an end of another compression member which is also not mounted on a contour. - a first flexible tension member defining a first contour of said ring and a second flexible tension member defining a second contour of said ring; - a first plurality of rigid compression members (103, 103', 103") extending between said first and second contours (101, 102), one end (1030, 1030') of each rigid compression member of the first plurality being mounted on the first contour whereas the other end (1031, 1031") is not mounted on a contour and; a second plurality of rigid compression members (104, 104') extending between said first and second contours (101, 102), one end of each rigid compression member of the second plurality being mounted on the second contour whereas the other end (1041, 1041') is not mounted on a contour; said first and second plurality of rigid compression members (103, 103', 103" 104, 104') being arranged with a repetitive crossing pattern around the ring; - a first plurality of flexible tension members (105, 106, 107, 110, 111) linking each end (1030, 1030', 1040') of a compression member mounted on one of said contours (101, 102) to an end of another compression member which is not mounted on one of said contours and, a second plurality of flexible tension members (108, 109, 112) linking each end (1031, 1031", 1041, 1041') of a compression member which is not mounted on a contour to an end of another compression member which is also not mounted on a contour.
A system for tire pressure monitoring comprising a tire valve for disposition on a wheel rim of a vehicle, said tire valve comprising a tire valve stem and a tire valve base, wherein a holding means is disposed on the tire valve base, and a tire pressure monitoring unit comprising a housing in which a pressure sensor for measuring the tire pressure and a transmitter for wireless transmission of tire pressure data are disposed, wherein the tire valve and the housing of the tire pressure monitoring unit are able to be fastened by means of a fastening element which is implemented in one piece with or made of the same material as the housing and which interacts with the holding means, wherein the holding means and the fastening element are implemented such that the tire pressure monitoring unit on the tire valve base can only move in one direction, in particular in the direction of a rim well, and the fastening element is implemented as an elastic lever arm, characterized in that the lever arm extends essentially orthogonally to a central axis of the tire valve. a tire pressure monitoring unit comprising a housing in which a pressure sensor for measuring the tire pressure and a transmitter for wireless transmission of tire pressure data are disposed, wherein the tire valve and the housing of the tire pressure monitoring unit are able to be fastened by means of a fastening element which is implemented in one piece with or made of the same material as the housing and which interacts with the holding means, wherein the holding means and the fastening element are implemented such that the tire pressure monitoring unit on the tire valve base can only move in one direction, in particular in the direction of a rim well, and the fastening element is implemented as an elastic lever arm, characterized in that the lever arm extends essentially orthogonally to a central axis of the tire valve.
Vehicle tyre with a sidewall with a decorative sidewall hatching comprising at least one hatching area, which has two differently designed types of hatching area parts (5a, 5b), a first type of hatching area part and a second type of hatching area part, wherein a plurality of elevations (3a, 3b) which run next to one another, in particular parallel to one another, and are substantially triangular in cross section are provided in each hatching area part (5a, 5b), wherein, in the first type of hatching area part, the elevations run with a concentration that is less than the concentration of the elevations in the second hatching area part, wherein the elevations in the first type of hatching area part run at an angle (β) of at least 45° in relation to the elevations in the second type of hatching area part and wherein the elevations (3a, 3b) have side flanks (6, 7), which run at a smaller angle (α 2) in relation to a perpendicular to the sidewall at the elevations in the second type of hatching area part than at the elevations in the first type of hatching area part, characterized in that, in the second type of hatching area part, the elevations have a height (h 2) that is greater by at least 0.1 mm than the elevations in the first type of hatching area part.
Method of producing a spectacle lens comprising a substrate and at least one coating, which comprises at least the following steps in the order given below: - providing at least a substrate with a front surface and a back surface, - coating or covering at least one of the surfaces of the substrate, in full or in part, with at least one layer, - bringing at least some of the surface of the at least one layer into contact with at least one medium, - removing the at least one medium, characterized in that the surface topography of the at least some of the surface of the at least one layer is changed as a result of being brought into contact with the at least one medium. - providing at least a substrate with a front surface and a back surface, - coating or covering at least one of the surfaces of the substrate, in full or in part, with at least one layer, - bringing at least some of the surface of the at least one layer into contact with at least one medium, - removing the at least one medium,
A method for controlling a secondary component carrier downlink, DL, in a wireless communication network using carrier aggregation, the method comprising: detecting, by a mobile entity, an event indicating a constraint of system resources within the mobile entity related to a data transmission from a base station to the mobile entity on a secondary component carrier of a carrier aggregation enabled connection; and in response to detecting the event, controlling the data transmission by signaling a status of the secondary component carrier DL to the base station to allow the system resource requirements of the mobile entity to be reduced. detecting, by a mobile entity, an event indicating a constraint of system resources within the mobile entity related to a data transmission from a base station to the mobile entity on a secondary component carrier of a carrier aggregation enabled connection; and in response to detecting the event, controlling the data transmission by signaling a status of the secondary component carrier DL to the base station to allow the system resource requirements of the mobile entity to be reduced.
A monitoring system for monitoring a wind turbine during operation thereof, said monitoring system being configured to monitor a vertical displacement (Δy) between a foundation member of said wind turbine and a base member attached to the foundation member, wherein the monitoring system comprises: - three sensors adapted to measure displacement (Δy) between the foundation member and the base member configured to measure said vertical displacement (Δy) between the foundation member and the base member of a tower, wherein each of the three sensors are arranged on a vertically extending rod fixed to the foundation member - a control unit configured to receive displacement data from the sensors and to send the received displacement data to an external unit (12, 14); the monitoring system further comprising means for sending a stop command to said wind turbine when a predefined displacement between the foundation member and the base member being exceeded. - three sensors adapted to measure displacement (Δy) between the foundation member and the base member configured to measure said vertical displacement (Δy) between the foundation member and the base member of a tower, wherein each of the three sensors are arranged on a vertically extending rod fixed to the foundation member - a control unit configured to receive displacement data from the sensors and to send the received displacement data to an external unit (12, 14); the monitoring system further comprising means for sending a stop command to said wind turbine when a predefined displacement between the foundation member and the base member being exceeded.
A computer implemented method for training a deep convolutional neural network model to provide a beam model for a radiation machine to deliver a radiation treatment dose to a subject, the method comprising: determining a range of parameter values for at least one parameter of a beam model corresponding to the radiation machine; generating a plurality of sets of beam model parameter values, wherein one or more individual sets of beam model parameter values includes a parameter value selected from the determined range of parameter values; providing a plurality of corresponding dose profiles respectively corresponding to respective individual sets of beam model parameter values in the plurality of sets of beam model parameter values; and training the neural network model using the plurality of sets of beam model parameter values and the corresponding dose profiles. determining a range of parameter values for at least one parameter of a beam model corresponding to the radiation machine; generating a plurality of sets of beam model parameter values, wherein one or more individual sets of beam model parameter values includes a parameter value selected from the determined range of parameter values; providing a plurality of corresponding dose profiles respectively corresponding to respective individual sets of beam model parameter values in the plurality of sets of beam model parameter values; and training the neural network model using the plurality of sets of beam model parameter values and the corresponding dose profiles.
A method comprising: parsing a report generated based on a security analysis of a detected software sample, the report comprising identifiers of a plurality of entities associated with a sequence of events that occurred during the security analysis and a verdict that the detected software sample is malicious; identifying a first malware instance indicated in the report, wherein the first malware instance corresponds to one of the plurality of entities; determining from the report a plurality of actions and a plurality of behaviors recorded during the security analysis; determining, from the report, relationships among the plurality of entities; generating a causality tree comprising a plurality of nodes and a plurality of edges that connects the plurality of nodes based on the relationships among the plurality of entities, wherein each of the plurality of nodes corresponds to a respective one of the plurality of entities, and wherein generating the causality tree comprises determining a root node of the causality tree based on a first of the relationships corresponding to the first malware instance; for each node of one or more of the plurality of nodes, associating indications of corresponding ones of the plurality of actions and indications of the plurality of behaviors with the node; and displaying a visualization of the causality tree on a graphical user interface. parsing a report generated based on a security analysis of a detected software sample, the report comprising identifiers of a plurality of entities associated with a sequence of events that occurred during the security analysis and a verdict that the detected software sample is malicious; identifying a first malware instance indicated in the report, wherein the first malware instance corresponds to one of the plurality of entities; determining from the report a plurality of actions and a plurality of behaviors recorded during the security analysis; determining, from the report, relationships among the plurality of entities; generating a causality tree comprising a plurality of nodes and a plurality of edges that connects the plurality of nodes based on the relationships among the plurality of entities, wherein each of the plurality of nodes corresponds to a respective one of the plurality of entities, and wherein generating the causality tree comprises determining a root node of the causality tree based on a first of the relationships corresponding to the first malware instance; for each node of one or more of the plurality of nodes, associating indications of corresponding ones of the plurality of actions and indications of the plurality of behaviors with the node; and displaying a visualization of the causality tree on a graphical user interface.
A method for producing an olefinic resin porous material, comprising the steps of: preparing a single phase in which an olefinic resin, a hydrocarbon compound, and a polar compound are mixed one another, in a pressure-resistant container; introducing high pressure carbon dioxide into the pressure-resistant container; and releasing a pressure in the pressure-resistant container, wherein the polar compound has a hydroxy group or a carbonyl group, and introducing the high pressure carbon dioxide is carried out such that a pressure in the pressure-resistant container reaches 6 MPa or higher. preparing a single phase in which an olefinic resin, a hydrocarbon compound, and a polar compound are mixed one another, in a pressure-resistant container; introducing high pressure carbon dioxide into the pressure-resistant container; and releasing a pressure in the pressure-resistant container, wherein the polar compound has a hydroxy group or a carbonyl group, and introducing the high pressure carbon dioxide is carried out such that a pressure in the pressure-resistant container reaches 6 MPa or higher.