mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle comprising a front bonnet having an inner wall and an outer wall which are connected to one another, connection means (14, 15) for connection to the body of the vehicle, and a reinforcing means arranged between the inner and outer walls and able to deform and absorb the forces in the event of impact with an element external to the vehicle, said reinforcing means being arranged at a hard point zone of the front bonnet, corresponding to a specific maximum distance between the inner wall and the outer wall of the front bonnet, with regard to the general length of the front bonnet, said reinforcement means comprising a plurality of fastening portions (18, 19, 20) intended to be fastened to the outer wall of the bonnet, and a connection portion connecting the various fastening portions (18, 19, 20) and intended to be fastened to the inner wall of the bonnet, which vehicle is characterized in that said reinforcing means comprises a first fastening portion, forming a solid wall, and second and third fastening portions forming two substantially parallel branches separated by an empty space and connected at their base by a transverse branch arranged as an extension of said connection portion of the reinforcing means.
A method implemented on a first user equipment, UE, for mitigating cross-link interference, CLI, between the first UE and a second UE, the method comprising: receiving a sounding reference signal, SRS, from the second UE; measuring the SRS to determine a measurement value according to a predetermined metric for measuring CLI, wherein the predetermined metric comprises: a cross-link - reference signal received power, CL-RSRP, that is a linear average of power of resource elements that carry the SRS in measurement band in a measurement resource, wherein the CL-RSRP is measured using one single SRS port; determining an event for triggering CLI measurement results reporting based on the measurement value, wherein the event is that the measurement value of the CLI is greater than or equal to a sum of an RSRP measured by the UE of a downlink measurement signal sent in the same cell as the UE and an offset value, wherein the offset value is associated with a plurality of power values of the SRS and is one of: a positive value, zero, or a negative value. receiving a sounding reference signal, SRS, from the second UE; measuring the SRS to determine a measurement value according to a predetermined metric for measuring CLI, wherein the predetermined metric comprises: a cross-link - reference signal received power, CL-RSRP, that is a linear average of power of resource elements that carry the SRS in measurement band in a measurement resource, wherein the CL-RSRP is measured using one single SRS port; determining an event for triggering CLI measurement results reporting based on the measurement value, wherein the event is that the measurement value of the CLI is greater than or equal to a sum of an RSRP measured by the UE of a downlink measurement signal sent in the same cell as the UE and an offset value, wherein the offset value is associated with a plurality of power values of the SRS and is one of: a positive value, zero, or a negative value.
An apparatus for position, length or angle determination, comprising: - a transmission region comprising at least one transmission element; - a reception region comprising a plurality of reception elements (201...232); - a coding region which comprises a code word with predefined sections (311...320), - wherein the transmission region, the reception region and the coding region are arranged and formed movable relative to one another such that the reception elements (201...232) receive a logical one or a logical zero in dependence on the position of the coding region and/or of the transmission region relative to the reception region; - an evaluation unit which is configured to detect a relative position of the reception elements (201...232) and to evaluate a deviation of the relative position from a desired position of at least one of the reception elements (201...232); and - a control unit which is configured to control the reception elements (201...232) in dependence on the deviation. - a transmission region comprising at least one transmission element; - a reception region comprising a plurality of reception elements (201...232); - a coding region which comprises a code word with predefined sections (311...320), - wherein the transmission region, the reception region and the coding region are arranged and formed movable relative to one another such that the reception elements (201...232) receive a logical one or a logical zero in dependence on the position of the coding region and/or of the transmission region relative to the reception region; - an evaluation unit which is configured to detect a relative position of the reception elements (201...232) and to evaluate a deviation of the relative position from a desired position of at least one of the reception elements (201...232); and - a control unit which is configured to control the reception elements (201...232) in dependence on the deviation.
A garment comprising a woven label, wherein: the label is comprising indicia; the garment is comprising a garment body; wherein the label is at least partially woven directly into the garment body; and wherein the label is woven all along its border, characterized in that the label is left unattached in its central area. the label is comprising indicia; the garment is comprising a garment body; wherein the label is at least partially woven directly into the garment body; and wherein the label is woven all along its border, characterized in that the label is left unattached in its central area.
An ultrasonic vibration system comprising a sonotrode which has two sonotrode end faces (8, 8') and a circumferentially extending lateral surface connecting the two sonotrode end faces (8, 8') together, wherein the sonotrode has an elongate core element and at least one wing element (3, 4), wherein core element and wing element (3, 4) respectively extend from the one sonotrode end face (8, 8') to the other sonotrode end face (8, 8') in a longitudinal direction, wherein the wing element has a sealing surface which is provided to come into contact with a material for processing thereof and is connected to the core element by way of a plurality of webs (5, 6) spaced from each other in the longitudinal direction, and a converter which is optionally connected to the sonotrode by way of an amplitude transformer, wherein the ultrasonic vibration system is connected to a machine stand by way of a mounting connected to the lateral surface, characterised in that the mounting has a material-bonded joint comprising a first joint member and a second joint member which are connected together by way of a flexible element, wherein a material-bonded joint is understood to be a joint in which the first and second joint members are material-bonded to one another, i.e. are manufactured in one piece, and their relative mobility is made possible by the resilience of the connection, namely of the flexible element, the resilience permitting deformation and thus relative movement between the first and second joint members.
An apparatus for treating living cells by means of a plasma, wherein the apparatus has conventional devices for generating a plasma, characterized in that the apparatus furthermore has devices for mixing encapsulated active ingredients in the form of nanoparticles and microparticles which possess a sheath which is not destroyed by the plasma discharge, and for transporting said encapsulated active ingredients into a gas stream of the plasma discharge.
Mutant Bovine Herpesvirus type 4 (BoHV-4) virus characterised in that it is not capable of making a functional ORF73 protein, whereby said BoHV-4 virus is characterised in that it has a mutation in the ORF73 gene; in that said virus comprises a second deletion; and in that said second deletion is a deletion in the ORF71-gene encoding a v-FLIP, the ORF16-gene encoding a v-Bcl-2 homologue, the Bo10 gene encoding glycoprotein gp80 or the ORF21-gene encoding thymidine kinase.
A laundry care composition comprising: (i) from 2 to 70 wt% of a surfactant; and (ii) from 0.0001 to 20.0 wt% of a leuco polymer comprising an alkoxylated polyethyleneimine covalently bound to a leuco moiety, wherein at least a first portion of nitrogen atoms of the alkoxylated polyethyleneimine have covalently bound thereto a leuco moiety; at least a second portion of nitrogen atoms of the alkoxylated polyethyleneimine have covalently bound thereto a moiety selected from the group consisting of oxyalkylene moieties, polyoxyalkylene moieties, and mixtures thereof; and at least a third portion of nitrogen atoms of the alkoxylated polyethyleneimine have covalently bound thereto a moiety selected from the group consisting of an alkylene chain, an alkylene chain having covalently bound thereto a phenyl or naphthyl group, and mixtures thereof. (i) from 2 to 70 wt% of a surfactant; and (ii) from 0.0001 to 20.0 wt% of a leuco polymer comprising an alkoxylated polyethyleneimine covalently bound to a leuco moiety, wherein at least a first portion of nitrogen atoms of the alkoxylated polyethyleneimine have covalently bound thereto a leuco moiety; at least a second portion of nitrogen atoms of the alkoxylated polyethyleneimine have covalently bound thereto a moiety selected from the group consisting of oxyalkylene moieties, polyoxyalkylene moieties, and mixtures thereof; and at least a third portion of nitrogen atoms of the alkoxylated polyethyleneimine have covalently bound thereto a moiety selected from the group consisting of an alkylene chain, an alkylene chain having covalently bound thereto a phenyl or naphthyl group, and mixtures thereof.
A cover body for a valve rotating device, comprising a ring-shaped upper part and a ring-shaped lower part, wherein the upper part and the lower part are axially spaced apart and are adapted to accommodate an axial spring element therebetween, wherein the upper part and the lower part are connected to each other by at least one connecting piece, wherein the at least one connecting piece is arranged at the location opposite to an insertion position of the axial spring element, characterized in that the ring-shaped upper part and the ring-shaped lower part (4, 6) are formed by punching from a metal sheet and are integrally connected to one another by the at least one connecting piece, wherein the punched metal sheet is transformed by bending into the cover body. a ring-shaped upper part and a ring-shaped lower part, wherein the upper part and the lower part are axially spaced apart and are adapted to accommodate an axial spring element therebetween, wherein the upper part and the lower part are connected to each other by at least one connecting piece, wherein the at least one connecting piece is arranged at the location opposite to an insertion position of the axial spring element, characterized in that the ring-shaped upper part and the ring-shaped lower part (4, 6) are formed by punching from a metal sheet and are integrally connected to one another by the at least one connecting piece, wherein the punched metal sheet is transformed by bending into the cover body.
An additive composition for a marine fuel or a heating oil comprising: a. a colloidal dispersion of catalytic metal particles, the particles comprising: i. a metal compound core, the metal compound comprising at least one of iron, ruthenium, osmium, and cerium; and ii. a polyalkenyl-substituted carboxylic acid or anhydride,; b. a neutral or overbased alkaline earth metal detergent comprising calcium and/or strontium; and c. a carrier fluid miscible with a marine fuel oil, a heavy fuel oil, a marine distillate fuel and/or a residual fuel oil. a. a colloidal dispersion of catalytic metal particles, the particles comprising: i. a metal compound core, the metal compound comprising at least one of iron, ruthenium, osmium, and cerium; and ii. a polyalkenyl-substituted carboxylic acid or anhydride,; i. a metal compound core, the metal compound comprising at least one of iron, ruthenium, osmium, and cerium; and ii. a polyalkenyl-substituted carboxylic acid or anhydride,; b. a neutral or overbased alkaline earth metal detergent comprising calcium and/or strontium; and c. a carrier fluid miscible with a marine fuel oil, a heavy fuel oil, a marine distillate fuel and/or a residual fuel oil.
A method for deterring and detecting fraudulent removal of a scratch-off coating from a substrate, comprising: forming a substrate comprising; at least one scratch-off area; and a background area surrounding the at least one scratch-off area; applying a scratch-off coating to the at least one scratch-off area; overlying a design on the scratch-off coating, the design extending over the scratch-off coating and onto the background area; and wherein misaligned portions of the design provides a visual indication of attempts to remove and reapply the scratch-off coating, characterized in that said design is selected from the group consisting of fingerprint patterns, water flow patterns, or Benday pattern series of lines. forming a substrate comprising; at least one scratch-off area; and a background area surrounding the at least one scratch-off area; applying a scratch-off coating to the at least one scratch-off area; overlying a design on the scratch-off coating, the design extending over the scratch-off coating and onto the background area; and wherein misaligned portions of the design provides a visual indication of attempts to remove and reapply the scratch-off coating, characterized in that said design is selected from the group consisting of fingerprint patterns, water flow patterns, or Benday pattern series of lines.
Device for the cremation of organic bodies containing a combustion chamber (2, 3, 36, 37, 38) formed from at least one material with heat-storing properties, the combustion chamber (2, 3, 36, 37, 38) having at least a first section (2, 36,37) and a second section (3, 38), an air inlet provided at the combustion chamber (2, 3, 36, 37, 38), a furnace outlet provided at the combustion chamber (2, 3, 36, 37, 38), at least one heating element and a first fan and the device has, arranged outside the combustion chamber (2, 3, 36, 37, 38), a gas-conveying duct which can be connected or is connected by a first end to the first section (2, 36, 37) of the combustion chamber (2, 3, 36, 37, 38) and is connectable or connected with a second end to the second section (3, 38) of the combustion chamber (2, 3, 36, 37, 38) and wherein the first fan and the at least one heating element are arranged in the gas-conveying duct, characterised in that the suction side of the first fan forms or faces the first end of the gas-conveying duct and the pressure side of the first fan faces the second end of the gas-conveying duct.
A grain handling system comprising: a piece of equipment (500;400) configured for moving grain particles; a sensor subsystem (1002;1110) including a particle movement sensor and an optical sensor; said particle movement sensor comprising a microphone in proximity to a particle movement path and configured for detecting a characteristic of said moving particles and generating an output signal corresponding to said moving particle characteristic; said optical sensor configured for detecting an optical characteristic of said grain and generating an output signal corresponding to said optical characteristic; and said particle movement and optical sensor output signals comprising a sensor subsystem input to a processor (212;1116), said microphone is configured for detecting sound waves from said particles in said path, for transforming said sound waves into electrical signals, and for sending said electrical signals to said processor; said processor (212;1116) configured for providing output based on particle movement and controlling an operating variable of said equipment piece in response to particle movement; characterized in that, said processor (212;1116) is configured for analyzing said electrical signals, for determining a pattern of grain particle delivery, for calculating a timing offset for optical data capture, and for triggering optical data capture at said timing offset upon receiving an electrical signal from said microphone. a piece of equipment (500;400) configured for moving grain particles; a sensor subsystem (1002;1110) including a particle movement sensor and an optical sensor; said particle movement sensor comprising a microphone in proximity to a particle movement path and configured for detecting a characteristic of said moving particles and generating an output signal corresponding to said moving particle characteristic; said optical sensor configured for detecting an optical characteristic of said grain and generating an output signal corresponding to said optical characteristic; and said particle movement and optical sensor output signals comprising a sensor subsystem input to a processor (212;1116), said microphone is configured for detecting sound waves from said particles in said path, for transforming said sound waves into electrical signals, and for sending said electrical signals to said processor; said processor (212;1116) configured for providing output based on particle movement and controlling an operating variable of said equipment piece in response to particle movement; characterized in that, said processor (212;1116) is configured for analyzing said electrical signals, for determining a pattern of grain particle delivery, for calculating a timing offset for optical data capture, and for triggering optical data capture at said timing offset upon receiving an electrical signal from said microphone.
A driver's cab (13, 58) of a working machine which can be used in agriculture or the construction industry, comprising two A-pillars (16 and 17, 61 and 62) provided in the front region of the cab, and at least two pillars (18, 19, 20, 21, 63, 64) which extend in spaced relationship with the A-pillars, wherein all pillars (16, 17, 18, 19, 20, 21, 61, 62, 63, 64) are arranged substantially vertically and carry a cab roof, and comprising a system for feeding fresh air into the cab (13, 58) and for the targeted distribution thereof in the interior of the cab (13, 58), wherein a fan conveys the fresh air into air distribution passages which extend along each of the A-pillars (16 and 17, 61 and 62), and are provided with air outlet openings (46, 47, 53, 54, 78, 79) for the flow of the fresh air into the interior of the cab (13, 58), characterised in that each of the air distribution passages is provided in a cladding element (37, 42, 49, 72) associated with the respective A-pillar (16 and 17, 61, and 62), wherein the cladding element (37, 42, 49, 72) has a wall configuration which is U-shaped as viewed in cross-section with side walls (43, 44, 50, 51, 74, 75) and a front wall (45, 77) connecting same together, that to form an air distribution passage the side walls (43, 44, 50, 51, 74, 75) are connected together at a spacing relative to the edges thereof (70 and 71) by way of a cover element in the form of a flat profile member and that the edges (70 and 71) projecting beyond the cover element serve for fixing the cladding element (37, 42, 49, 72) to the respective A-pillar (16 and 17, 61 and 62).
A computer-implemented method for providing access to secured content on a provisioning entity system, comprising: receiving, from a requesting entity system, a plurality of user requests to access the secured content stored at the provisioning entity system, each of the plurality of user requests received from a user of the requesting entity system and comprising a respective user ID and respective user identifying data, the user ID identifying the user with the requesting entity system without identifying the user with the provisioning entity system; determining, for each of the plurality of user requests, the respective user ID; deleting the respective user identifying data from each of the plurality of user requests; generating, for each of the plurality of user requests having the respective user identifying data deleted therefrom, a respective trusted token based on the respective user request, the trusted token comprising at least a variable term different for each of the trusted tokens generated for the plurality of user requests; adding a proof of authentication to each of the trusted tokens to enable the provisioning entity system to validate the respective trusted token; and transmitting at least one of the trusted tokens to the requesting entity system for use by the requesting entity system in a subsequent request to the provisioning entity system to access the secured content. receiving, from a requesting entity system, a plurality of user requests to access the secured content stored at the provisioning entity system, each of the plurality of user requests received from a user of the requesting entity system and comprising a respective user ID and respective user identifying data, the user ID identifying the user with the requesting entity system without identifying the user with the provisioning entity system; determining, for each of the plurality of user requests, the respective user ID; deleting the respective user identifying data from each of the plurality of user requests; generating, for each of the plurality of user requests having the respective user identifying data deleted therefrom, a respective trusted token based on the respective user request, the trusted token comprising at least a variable term different for each of the trusted tokens generated for the plurality of user requests; adding a proof of authentication to each of the trusted tokens to enable the provisioning entity system to validate the respective trusted token; and transmitting at least one of the trusted tokens to the requesting entity system for use by the requesting entity system in a subsequent request to the provisioning entity system to access the secured content.
An inhibitor of Secreted Modular Calcium-binding protein 2 (SMOC2) for use in prophylactic treatment of kidney fibrosis in a subject, wherein the inhibitor is an monoclonal antibody or antigen binding portion thereof that binds specifically to SMOC2 or an inhibitory nucleic acid that targets a SMOC2 transcript.
A method, comprising: formatting data for delivery, via a satellite, to user terminals, the formatting comprising providing, for each data frame of a plurality of data frames, a distributed physical layer header comprising multiple copies of a modcode partition, wherein the modcode partition represents at least one of a modulation, a coding, a spreading or a frame size of a data frame; and causing a signal, comprising the modcode partitions and the data frames, to be transmitted to the satellite. formatting data for delivery, via a satellite, to user terminals, the formatting comprising providing, for each data frame of a plurality of data frames, a distributed physical layer header comprising multiple copies of a modcode partition, wherein the modcode partition represents at least one of a modulation, a coding, a spreading or a frame size of a data frame; and causing a signal, comprising the modcode partitions and the data frames, to be transmitted to the satellite.