mhurhangee/ep-ind-claims huggingface dataset:
Tube mat comprising a. a plurality of tube portions in each case having a tube longitudinal axis and b. at least one web portion connecting two tube portions, c. at least one spacer (6; 8; 9), which has a thickness (d Ab), which is oriented perpendicular to a mat plane and is greater than an external diameter (d a) of a tube portion, wherein the tube mat is produced in one piece, characterised in that the spacer (6; 8; 9) is arranged on a web portion and between two adjacent tube portions, and the tube mat is configured to be rolled up. a. a plurality of tube portions in each case having a tube longitudinal axis and b. at least one web portion connecting two tube portions, c. at least one spacer (6; 8; 9), which has a thickness (d Ab), which is oriented perpendicular to a mat plane and is greater than an external diameter (d a) of a tube portion,
A method for modifying surface of aluminum oxide carrier, the method comprising: 1) dissolving soluble kazoe into deionized water and preparing kazoe aqueous solution; 2) soakingan aluminum oxide carrier in the kazoe aqueous solution and then drying the aluminum oxide carrier in a vacuum environment; 3) placing the dried aluminum oxide carrier in a reactor, adding silicon tetrachloride, dropping Grignard reagent, sealing the reactor, heating the reactor, and maintaining a temperature for reacting for 3 to 18 hours, wherein the volume ratio of added silicon tetrachloride and the aluminum oxide carrier is 0.5 to 5:1, the temperature for reacting is controlled to be 160 to 350°C; and 4) filtering the aluminum oxide carrier, washing the aluminum oxide carrier, drying the aluminum oxide carrier in the vacuum environment to obtain a modified aluminum oxide carrier. 1) dissolving soluble kazoe into deionized water and preparing kazoe aqueous solution; 2) soakingan aluminum oxide carrier in the kazoe aqueous solution and then drying the aluminum oxide carrier in a vacuum environment; 3) placing the dried aluminum oxide carrier in a reactor, adding silicon tetrachloride, dropping Grignard reagent, sealing the reactor, heating the reactor, and maintaining a temperature for reacting for 3 to 18 hours, wherein the volume ratio of added silicon tetrachloride and the aluminum oxide carrier is 0.5 to 5:1, the temperature for reacting is controlled to be 160 to 350°C; and 4) filtering the aluminum oxide carrier, washing the aluminum oxide carrier, drying the aluminum oxide carrier in the vacuum environment to obtain a modified aluminum oxide carrier.
A device for a website building system, WBS, said device characterized in that it comprises: a page composer configured to enable a designer to create, using said WBS, a containing website page having multiple components, said multiple components having visual and display attributes defining their format and style and said website page containing website instances of at least one third party application, TPA, hosted by a provider external to said WBS; a communication hub provided by said WBS in said containing website page, said communication hub configured to provide i) a channel of communication for control messages and data messages at runtime between said WBS and said at least one TPA; and ii) a back-channel between said at least one TPA and a second TPA also contained as an instance in said page, said communication hub comprising: a smart identifier and addresser configured to translate application-aware TPA descriptive addresses of the source or target of each said control message or data message into direct TPA addresses and to perform routing of said control and data messages; and an updater configured to enable the WBS to affect the style and display of said at least one TPA by implementing calls through which the WBS provides formatting and style guidelines to said at least one TPA via the said WBS-TPA channel of communication for control messages and of data messages. a page composer configured to enable a designer to create, using said WBS, a containing website page having multiple components, said multiple components having visual and display attributes defining their format and style and said website page containing website instances of at least one third party application, TPA, hosted by a provider external to said WBS; a communication hub provided by said WBS in said containing website page, said communication hub configured to provide i) a channel of communication for control messages and data messages at runtime between said WBS and said at least one TPA; and ii) a back-channel between said at least one TPA and a second TPA also contained as an instance in said page, i) a channel of communication for control messages and data messages at runtime between said WBS and said at least one TPA; and ii) a back-channel between said at least one TPA and a second TPA also contained as an instance in said page, said communication hub comprising: a smart identifier and addresser configured to translate application-aware TPA descriptive addresses of the source or target of each said control message or data message into direct TPA addresses and to perform routing of said control and data messages; and an updater configured to enable the WBS to affect the style and display of said at least one TPA by implementing calls through which the WBS provides formatting and style guidelines to said at least one TPA via the said WBS-TPA channel of communication for control messages and of data messages.
A method for detecting malicious native images of a machine code, the method comprising: receiving, by a hardware processor, a native image of the machine code; identifying, by the hardware processor, a parent assembly, which was used to create the native image; determining, by the hardware processor, whether the parent assembly corresponds to native image of the machine code; and determining, by the hardware processor, that the native image is malicious when the parent assembly does not correspond to native image of the machine code. receiving, by a hardware processor, a native image of the machine code; identifying, by the hardware processor, a parent assembly, which was used to create the native image; determining, by the hardware processor, whether the parent assembly corresponds to native image of the machine code; and determining, by the hardware processor, that the native image is malicious when the parent assembly does not correspond to native image of the machine code.
A composition for use in the prevention or treatment of a corneal injury comprising thymosin β4 and citric acid or its salt as active ingredients and further comprising at least one organic acid selected from the group consisting of acetic acid, ascorbic acid and salts thereof, wherein the said organic acid is in an amount of 15 to 70 parts by weight per 100 parts by weight of citric acid or its salt.
A bicyclol double-layer osmotic pump controlled release tablet, characterized in that the tablet comprises bicyclol and pharmaceutically acceptable excipients, and it comprises structurally a double-layer tablet core consisting of a drug layer and a push layer, wherein the tablet core is coated with a water-insoluble semipermeable film, and the semipermeable film has one or several drug-release orifices thereon, wherein the excipients used in the drug layer of the double-layer tablet core comprise polyoxyethylene polymer and hydroxypropyl methylcellulose; and the excipients used in the push layer of the double-layer tablet core comprise polyoxyethylene polymer and hydroxypropyl methylcellulose.
A pump comprising a housing and a rotor rotatably received in the housing, the housing including a fluid inlet and a fluid outlet, the rotor including a housing-engaging surface (20a, 20b; 52a, 52b, 52c) co-operating with an interior surface of the housing to form a seal therebetween and also including at least first and second shaped surfaces (21, 22; 50a, 50b, 50c) radially inwardly of the housing engaging surface (20a, 20b; 52a, 52b, 52c) and each forming with the interior surface of the housing respective chambers (23, 24; 51a, 51b, 51c) for conveying fluid from the inlet to the outlet on rotation of the rotor, a seal (12;56) being provided between the outlet and the inlet to engage the first and second shaped surfaces (21, 22; 50a, 50b, 50c) to prevent the passage of fluid from the outlet to the inlet as each shaped surface (21, 22; 50a, 50b, 50c) travels from the outlet to the inlet, the housing-engaging surface (20a, 20b; 52a, 52b, 52c) of the rotor characterised by including a portion extending axially and circumferentially between an edge of the first shaped surface (21;50a) and an edge of the second shaped surface (22; 50b) and having in planes normal to the axis of the rotor a curvature greater than the curvature of the interior surface of the housing in corresponding planes.
Method for determining a fault cause for a fault in a vehicle component, the method comprising: receiving at least one state code, which was delivered by the vehicle component, and a textual fault description, which was written for the fault; determining first model probabilities for fault causes of the fault from the at least one state code by using a first machine learning model (18, 18'); determining second model probabilities for fault causes of the fault from the textual fault description by using a second machine learning model, which is based on a neural network, wherein the textual fault description is broken down into text blocks and the text blocks are input into the second machine learning model; generating final probabilities for fault causes from the first and the second model probabilities; wherein the first and the second machine learning model (18, 18', 20) are an automatically trained learning model for which model data are generated by training the machine learning model and that comprises the possible fault causes and the first and second model probabilities (P1, P2) as outputs, the model probability (P1, P2) for a fault cause being based on a probability that is generated from the model data by an algorithm of the relevant machine learning model (18, 18', 20). receiving at least one state code, which was delivered by the vehicle component, and a textual fault description, which was written for the fault; determining first model probabilities for fault causes of the fault from the at least one state code by using a first machine learning model (18, 18'); determining second model probabilities for fault causes of the fault from the textual fault description by using a second machine learning model, which is based on a neural network, wherein the textual fault description is broken down into text blocks and the text blocks are input into the second machine learning model; generating final probabilities for fault causes from the first and the second model probabilities; wherein the first and the second machine learning model (18, 18', 20) are an automatically trained learning model for which model data are generated by training the machine learning model and that comprises the possible fault causes and the first and second model probabilities (P1, P2) as outputs, the model probability (P1, P2) for a fault cause being based on a probability that is generated from the model data by an algorithm of the relevant machine learning model (18, 18', 20).
A method for performing wireless communication by a first device, the method comprising: measuring (S1510, S1810), in a first slot, a channel busy ratio, CBR, which is a portion of sub-channels in a resource pool whose received signal strength indicator, RSSI, exceeds a threshold RSSI; determining power for physical sidelink shared channel, PSSCH, transmission in a second slot, based on the CBR measured in the first slot; and performing (S1520, S1830), to a second device, the PSSCH transmission in the second slot based on the power, wherein the first slot is a slot before congestion control processing time from the second slot, and wherein each of a plurality of numbers of slot regarding the congestion control processing time is related with a corresponding one of a plurality of subcarrier spacings, SCSs, of sidelink channel with which the PSSCH is to be transmitted. measuring (S1510, S1810), in a first slot, a channel busy ratio, CBR, which is a portion of sub-channels in a resource pool whose received signal strength indicator, RSSI, exceeds a threshold RSSI; determining power for physical sidelink shared channel, PSSCH, transmission in a second slot, based on the CBR measured in the first slot; and performing (S1520, S1830), to a second device, the PSSCH transmission in the second slot based on the power, wherein the first slot is a slot before congestion control processing time from the second slot, and wherein each of a plurality of numbers of slot regarding the congestion control processing time is related with a corresponding one of a plurality of subcarrier spacings, SCSs, of sidelink channel with which the PSSCH is to be transmitted.
A variegator comprising: a. one or more conduits each suitable for feeding one or more base frozen confections to a first set of one or more openings into a chamber, b. one or more conduits suitable for feeding one or more non-solid fluid variegating materials through a second set of one or more openings into the chamber, the second set of one or more openings being at points below the base frozen confections opening(s), and c. a static mixer below the one or more variegating material openings, said static mixer comprising at least two baffles in series, the axis of the conduit through which the variegating material is fed through the one or more second openings into the chambers is disposed perpendicularly at the point of entry to the chamber(s) to the axis of at least one of the one or more conduits through which the base frozen confection is fed to the base frozen confection opening into the chambers at the point of entry to the chamber(s), wherein the first of the at least two static mixer baffles beginning at from 0 to 12 mm of the bottom of the variegating material opening or openings and the baffles of the static mixer are helical. a. one or more conduits each suitable for feeding one or more base frozen confections to a first set of one or more openings into a chamber, b. one or more conduits suitable for feeding one or more non-solid fluid variegating materials through a second set of one or more openings into the chamber, the second set of one or more openings being at points below the base frozen confections opening(s), and c. a static mixer below the one or more variegating material openings, said static mixer comprising at least two baffles in series, the axis of the conduit through which the variegating material is fed through the one or more second openings into the chambers is disposed perpendicularly at the point of entry to the chamber(s) to the axis of at least one of the one or more conduits through which the base frozen confection is fed to the base frozen confection opening into the chambers at the point of entry to the chamber(s), wherein the first of the at least two static mixer baffles beginning at from 0 to 12 mm of the bottom of the variegating material opening or openings and the baffles of the static mixer are helical.
An integrated circuit (100, 200, 300), comprising: a semiconductor structure (102, 202, 302); a through-body via (104, 204, 304) extending through at least part of the semiconductor structure; and a liner (110, 210, 310) disposed between the semiconductor structure (102, 202, 302) and the through-body via (104, 204, 304), the liner (110, 210, 310) including a plurality of first insulation layers alternating with a plurality of second insulation layers different from the first insulation layers; wherein at least one of the first insulation layers has an inherent tensile stress and at least one of the second insulation layers has an inherent compressive stress. a semiconductor structure (102, 202, 302); a through-body via (104, 204, 304) extending through at least part of the semiconductor structure; and a liner (110, 210, 310) disposed between the semiconductor structure (102, 202, 302) and the through-body via (104, 204, 304), the liner (110, 210, 310) including a plurality of first insulation layers alternating with a plurality of second insulation layers different from the first insulation layers; wherein at least one of the first insulation layers has an inherent tensile stress and at least one of the second insulation layers has an inherent compressive stress.
A patient interface structure for delivery of respiratory therapy to a patient, comprising: a front plate; a mouth cushion defining a breathing chamber and provided to the front plate and configured to seal around the patient's mouth, the mouth cushion comprising a nasal support portion; a nasal cushion configured to seal the patient's nasal airways and supported by the mouth cushion; and a channel around the nasal support portion that permits movement of the nasal cushion, wherein the channel forms a flexible region with a localized thinning of material, wherein the nasal cushion does not contact a bridge of the patient's nose in use and extends at least partially into the breathing chamber so that the nasal seal resides within the mouth cushion and the patient's nose rests inside the mouth cushion during use. a front plate; a mouth cushion defining a breathing chamber and provided to the front plate and configured to seal around the patient's mouth, the mouth cushion comprising a nasal support portion; a nasal cushion configured to seal the patient's nasal airways and supported by the mouth cushion; and a channel around the nasal support portion that permits movement of the nasal cushion, wherein the channel forms a flexible region with a localized thinning of material, wherein the nasal cushion does not contact a bridge of the patient's nose in use and extends at least partially into the breathing chamber so that the nasal seal resides within the mouth cushion and the patient's nose rests inside the mouth cushion during use.
An imaging system for an aircraft, comprising: one or more image sensors configured to image a surrounding environment of the aircraft; a light source configured to emit light; a mask including one or more prisms (270 a-b) and one or more pinholes (290 a-b); wherein the one or more prisms are configured to direct the light from the light source to the one or more pinholes; wherein the one or more pinholes are configured to pass the light directed from the one or more prisms to the one or more image sensors; and characterized by: a controller communicatively coupled to the one or more image sensors, wherein the controller includes one or more processors configured to execute program instructions causing the one or more processors to: receive an image of the surrounding environment of the aircraft from the one or more image sensors, wherein the image comprises shadowed regions caused by the mask; wherein the image includes an artifact imposed on the shadowed regions based on the light passed by the one or more pinholes; determine extent data and centroid data of the artifact in the image; and determine an orientation of the artifact in the image with respect to a calibration artifact using the centroid data and the extent data. one or more image sensors configured to image a surrounding environment of the aircraft; a light source configured to emit light; a mask including one or more prisms (270 a-b) and one or more pinholes (290 a-b); wherein the one or more prisms are configured to direct the light from the light source to the one or more pinholes; wherein the one or more pinholes are configured to pass the light directed from the one or more prisms to the one or more image sensors; and characterized by: a controller communicatively coupled to the one or more image sensors, wherein the controller includes one or more processors configured to execute program instructions causing the one or more processors to: receive an image of the surrounding environment of the aircraft from the one or more image sensors, wherein the image comprises shadowed regions caused by the mask; wherein the image includes an artifact imposed on the shadowed regions based on the light passed by the one or more pinholes; determine extent data and centroid data of the artifact in the image; and determine an orientation of the artifact in the image with respect to a calibration artifact using the centroid data and the extent data. receive an image of the surrounding environment of the aircraft from the one or more image sensors, wherein the image comprises shadowed regions caused by the mask; wherein the image includes an artifact imposed on the shadowed regions based on the light passed by the one or more pinholes; determine extent data and centroid data of the artifact in the image; and determine an orientation of the artifact in the image with respect to a calibration artifact using the centroid data and the extent data.
A shade structure (8, 108), comprising a horizontal box (2, 102) that has an opening (5, 105) in a lower region and comprises within it a motorized roller (9, 109) with a shade associated therewith (8, 108) exiting from said opening (5, 105), a pair of bactericidal lamps (13a, 13b, 113a, 113b) arranged within said box (2, 102) mutually opposite in a region that is adjacent to said opening (5, 105) of said box (2, 102).
A virtual reality, VR, headset comprising: a plurality of structural components (1100, 1200, 1400), each structural component being formed from a respective cardboard sheet, the plurality of structural components (1100, 1200, 1400) being folded to form the VR headset, the plurality of structural components (1100, 1200, 1400) including: a plurality of flaps (112, 114, 116) that define an opening for placement of the VR headset near or against a face of a user in a first configuration of the VR headset; an internal wall of the VR headset; a bottom wall of the VR headset; a lens frame assembly; and a top wall of the VR headset; and characterized by: an enclosure flap hingeably coupled with the bottom wall of the VR headset, the enclosure flap being configured, in the first configuration of the VR headset, to secure an electronic device in the VR headset against the internal wall and, in a second configuration of the VR headset, to enclose the plurality of flaps (112, 114, 116) that define the opening between the internal wall and the enclosure flap. a plurality of flaps (112, 114, 116) that define an opening for placement of the VR headset near or against a face of a user in a first configuration of the VR headset; an internal wall of the VR headset; a bottom wall of the VR headset; a lens frame assembly; and a top wall of the VR headset; and characterized by: an enclosure flap hingeably coupled with the bottom wall of the VR headset, the enclosure flap being configured, in the first configuration of the VR headset, to secure an electronic device in the VR headset against the internal wall and, in a second configuration of the VR headset, to enclose the plurality of flaps (112, 114, 116) that define the opening between the internal wall and the enclosure flap.
A combination comprising (2,4-dihydroxy-5-isopropyl-phenyl)-[5-(4-methyl-piperazin-1-ylmethyl)-1,3-dihydro-isoindol-2-yl]-methanone or a salt thereof and 4-(2,6-dichlorobenzoylamino)-1H-pyrazole-3-carboxylic acid piperidin-4-ylamide or a salt thereof.