mhurhangee/ep-ind-claims huggingface dataset:
A system for inducing vibrational seismic energy into an elastic medium, including seismic transducer apparatus for inducing energy waves in the elastic medium comprising: a frame; a baseplate comprising an intermediate plate and a plurality of contact plates; wherein the intermediate plate is attached to the frame, the intermediate plate having a lower intermediate plate surface, the lower intermediate plate surface having a lower intermediate plate surface area; characterized in that the plurality of contact plates is secured to the lower intermediate plate surface, the contact plates having a lower contact surface for engagement of a surface of an elastic medium, wherein the lower contact surface of each contact plate is substantially flat, each lower contact surface having a contact plate surface area; wherein the sum of the contact plate surface areas is at least 25 percent, such as from 25 to 75 percent, of the lower intermediate plate surface area, optionally at least 50 percent, such as from 50 to 100 percent, of the lower intermediate plate surface area, optionally at least 75 percent, such as from 75 to 100 percent, of the lower intermediate plate surface area; and a reaction mass supported by the frame; and a driver configured to actuate the reaction mass in a reciprocating motion so as to impart vibratory energy to the baseplate. a frame; a baseplate comprising an intermediate plate and a plurality of contact plates; wherein the intermediate plate is attached to the frame, the intermediate plate having a lower intermediate plate surface, the lower intermediate plate surface having a lower intermediate plate surface area; characterized in that the plurality of contact plates is secured to the lower intermediate plate surface, the contact plates having a lower contact surface for engagement of a surface of an elastic medium, wherein the lower contact surface of each contact plate is substantially flat, each lower contact surface having a contact plate surface area; wherein the sum of the contact plate surface areas is at least 25 percent, such as from 25 to 75 percent, of the lower intermediate plate surface area, optionally at least 50 percent, such as from 50 to 100 percent, of the lower intermediate plate surface area, optionally at least 75 percent, such as from 75 to 100 percent, of the lower intermediate plate surface area; and a reaction mass supported by the frame; and a driver configured to actuate the reaction mass in a reciprocating motion so as to impart vibratory energy to the baseplate.
A battery separator comprising an electronically insulating layer comprising microparticles having an average particle diameter of 0.5 μm to 999 μm and nanoparticles having an average particle diameter of 3 nm to less than 500 nm, wherein at least one of the microparticles and the nanoparticles has a mesoporous structure.
Method for monitoring a security network gateway unit which receives a stream of data packets via a first interface, checks this data stream with respect to filtering rules and outputs it to a second interface, having the method steps of: - duplicating and outputting the data stream at the second interface, - checking the output data stream for impermissible data traffic, - transmitting a warning message to the security network gateway unit if impermissible data traffic is detected in the data stream, and - duplicating and outputting the data stream at the first interface, - comparing the data stream at the first interface with the data stream at the second interface, - transmitting a warning message to the security network gateway unit if the data stream from the second interface differs from the data stream from the first interface, and - restricting the data stream by means of the security network gateway unit if the warning message is received in the security network gateway unit, - the checking being carried out by means of filter rules corresponding to the active filter rules of the network gateway unit or by means of extended filter rules. - duplicating and outputting the data stream at the second interface, - checking the output data stream for impermissible data traffic, - transmitting a warning message to the security network gateway unit if impermissible data traffic is detected in the data stream, and - duplicating and outputting the data stream at the first interface, - comparing the data stream at the first interface with the data stream at the second interface, - transmitting a warning message to the security network gateway unit if the data stream from the second interface differs from the data stream from the first interface, and - restricting the data stream by means of the security network gateway unit if the warning message is received in the security network gateway unit, - the checking being carried out by means of filter rules corresponding to the active filter rules of the network gateway unit or by means of extended filter rules.
A process for the preparation of a material comprising at least silicon particles and silicon nanowires, said process comprising at least the following stages: the introduction, into a chamber of a reactor, of at least: - silicon particles, and - a catalyst, the introduction, into the chamber of the reactor, of a precursor composition of the silicon nanowires which comprises at least one precursor compound of the silicon nanowires chosen from a silane compound or a mixture of silane compounds, the decrease in the content of molecular oxygen in the chamber of the reactor, the application of a heat treatment at a temperature ranging from 270°C to 600°C, and the recovery of the product. the introduction, into a chamber of a reactor, of at least: - silicon particles, and - a catalyst, - silicon particles, and - a catalyst, the introduction, into the chamber of the reactor, of a precursor composition of the silicon nanowires which comprises at least one precursor compound of the silicon nanowires chosen from a silane compound or a mixture of silane compounds, the decrease in the content of molecular oxygen in the chamber of the reactor, the application of a heat treatment at a temperature ranging from 270°C to 600°C, and the recovery of the product.
Method for the production of an individualised optically variable element having polarising properties, wherein a film body (3, 6, 8) consisting of two or more layers, which has an LCP layer (32, 65, 85) consisting of liquid crystal material, is applied to a substrate body (4, 7, 9) for the production of the optically variable element, said substrate body (4, 7, 9) having an orientation layer (41, 75, 96) for the orientation of liquid crystals, wherein the orientation layer (41, 75, 96) of the substrate body (4, 7, 9) is individualised before application of the film body on the substrate body, and wherein the film body (3, 6, 8) is applied to the individualised orientation layer (41, 75, 96) of the substrate body(4, 7, 9)in such a way that the LCP layer (32, 65, 85) of the film body (3, 6, 8) lies on the individualised orientation layer of the substrate body for the orientation of liquid crystals of the LCP layer of the film body.
A support apparatus, comprising: a hinge assembly, wherein the hinge assembly comprises a rotating shaft mechanism and a shaft cover, and the rotating shaft mechanism is fastened to the shaft cover; a first housing and a second housing, wherein the first housing and the second housing are respectively located on two opposite sides of the hinge assembly, the first housing and the second housing are configured to rotate relative to the shaft cover through the rotating shaft mechanism, the first housing, the second housing, and the rotating shaft mechanism each have a support surface for supporting a foldable screen, and a first movement gap is present between the first housing and an outer surface of the shaft cover; and a first flexible sealing member, wherein the first flexible sealing member fits into and seals the first movement gap; wherein an embedded groove is formed on one of the first housing and the shaft cover, the first flexible sealing member comprises a flexible body portion, and the flexible body portion is disposed in the embedded groove; wherein a retaining groove is formed on a groove surface of the embedded groove, and a protruding portion (256a3) adapted to the retaining groove is formed on the flexible body portion. a hinge assembly, wherein the hinge assembly comprises a rotating shaft mechanism and a shaft cover, and the rotating shaft mechanism is fastened to the shaft cover; a first housing and a second housing, wherein the first housing and the second housing are respectively located on two opposite sides of the hinge assembly, the first housing and the second housing are configured to rotate relative to the shaft cover through the rotating shaft mechanism, the first housing, the second housing, and the rotating shaft mechanism each have a support surface for supporting a foldable screen, and a first movement gap is present between the first housing and an outer surface of the shaft cover; and a first flexible sealing member, wherein the first flexible sealing member fits into and seals the first movement gap; wherein an embedded groove is formed on one of the first housing and the shaft cover, the first flexible sealing member comprises a flexible body portion, and the flexible body portion is disposed in the embedded groove; wherein a retaining groove is formed on a groove surface of the embedded groove, and a protruding portion (256a3) adapted to the retaining groove is formed on the flexible body portion.
Method for automatic positioning of an X-ray source of a medical X-ray system with a mobile X-ray detector having the computer-implemented steps: a. determining an examination region of the examination object, b. acquiring a position and a location of the examination object and the examination region by means of an optical position determining system, c. localising the examination region, d. ascertaining a field point of the central ray of the X-ray source and a collimator size of the X-ray source on the basis of the localised examination region, and e. automatic positioning of the X-ray source on the basis of the field point and the collimator size. a. determining an examination region of the examination object, b. acquiring a position and a location of the examination object and the examination region by means of an optical position determining system, c. localising the examination region, d. ascertaining a field point of the central ray of the X-ray source and a collimator size of the X-ray source on the basis of the localised examination region, and e. automatic positioning of the X-ray source on the basis of the field point and the collimator size.
A biodegradable resin composition comprising: a biodegradable resin and a benzoate plasticizer, wherein the benzoate plasticizer is 2-(2-(2-phenylcarbonyloxyethoxy)ethoxy)ethyl benzoate and wherein the benzoate plasticizer is present in an amount of 5 parts by weight to 50 parts by weight based on 100 parts by weight of the biodegradable resin, the resin composition further comprising: 20 parts by weight or less of an acrylic copolymer, 10 parts by weight or less of stearic acid and 10 parts by weight or less of a carbodiimide anti-hydrolysis agent based on 100 parts by weight of the biodegradable resin.
A method of identifying a patient at risk for suffering an opioid-related adverse effect, wherein the method comprises analysing a sample obtained from the patient for presence or absence of at least one polymorphism associated with opioid-related adverse effects, wherein the presence or absence of the at least one polymorphism indicates that the patient has an elevated risk for suffering an opioid-related adverse effect wherein the at least one polymorphism is ABCB1 rs1045642 and the presence of the TT genotype at ABCB1 rs1045642 indicates that the patient has an increased risk of opioid induced respiratory depression, and wherein the method further comprises evaluating the subject for the non-genetic risk factor of race, and identifying the patient is at higher risk for opioid induced respiratory depression where the TT genotype is present and race is Caucasian, or identifying the patient is at higher risk for inadequate pain control where race is African American. wherein the at least one polymorphism is ABCB1 rs1045642 and the presence of the TT genotype at ABCB1 rs1045642 indicates that the patient has an increased risk of opioid induced respiratory depression, and wherein the method further comprises evaluating the subject for the non-genetic risk factor of race, and identifying the patient is at higher risk for opioid induced respiratory depression where the TT genotype is present and race is Caucasian, or identifying the patient is at higher risk for inadequate pain control where race is African American.
Pneumatic vehicle tyre of radial type of construction, having a tread with at least two profile block rows (3, 3') which are delimited at an outer side by in each case one circumferential channel and are separated from one another by a circumferential channel, wherein the profile block rows (3, 3') are divided into profile blocks by transverse channels which run substantially parallel to one another and which extend through the profile block rows (3, 3'), wherein the transverse channels running in one profile block row run substantially parallel to the transverse channels running in the other profile block row, and the profile block rows (3, 3') are delimited at the tread surface in each case by block edges (9, 10) running parallel to one another and have channel flanks (11, 12) running substantially in a radial direction, characterized in that in each case one transverse channel from one profile block row opens, in relation to a transverse channel from the other profile block row, into the circumferential channel running between the profile block rows (3, 3') with an offset (a 1) of 5.0 mm to 10.0 mm present in a circumferential direction, and in that the circumferential channel running between the profile block rows (3, 3') is interrupted, in each case between the transverse channels which open into said circumferential channel in a manner offset with respect to one another, by a web which connects a profile block from one profile block row to a profile block from the other profile block row, wherein the web is delimited by web flanks (5a, 5b) which are formed as continuations of the channel flanks (11, 12) of the transverse channels, wherein the web surface runs at the same level as the surfaces of the profile blocks.
A method of producing heat-expanded microspheres comprising the steps of: feeding a gas containing a plurality of heat-expandable microspheres, each heat-expandable microsphere comprising a shell of thermoplastic resin and a blowing agent encapsulated therein having a boiling point not higher than the softening point of the thermoplastic resin, and the plurality of heat-expandable microspheres having an average particle size from 1 to 100 micrometer, through a gas-introducing tube equipped with a dispersion nozzle on an outlet thereof and fixed inside a hot gas flow, and then jetting the gas from the dispersion nozzle; making the gas collide with a collision plate fixed on a downstream position of the dispersion nozzle in order to disperse the heat-expandable microspheres in the hot gas flow; and heating the dispersed heat-expandable microspheres in the hot gas flow, which contains turbulent flow generated by a turbulent flow generating member (9, 10, 11) set at an upstream position of the hot gas flow and fixed to a hot gas flow supplying pipe, at a temperature not lower than the expansion initiating temperature of the heat-expandable microspheres and thus expanding the same, wherein the turbulent flow generating member (9, 10, 11) is at least one selected from the group consisting of mesh, trays, rings and expansion chambers. feeding a gas containing a plurality of heat-expandable microspheres, each heat-expandable microsphere comprising a shell of thermoplastic resin and a blowing agent encapsulated therein having a boiling point not higher than the softening point of the thermoplastic resin, and the plurality of heat-expandable microspheres having an average particle size from 1 to 100 micrometer, through a gas-introducing tube equipped with a dispersion nozzle on an outlet thereof and fixed inside a hot gas flow, and then jetting the gas from the dispersion nozzle; making the gas collide with a collision plate fixed on a downstream position of the dispersion nozzle in order to disperse the heat-expandable microspheres in the hot gas flow; and heating the dispersed heat-expandable microspheres in the hot gas flow, which contains turbulent flow generated by a turbulent flow generating member (9, 10, 11) set at an upstream position of the hot gas flow and fixed to a hot gas flow supplying pipe, at a temperature not lower than the expansion initiating temperature of the heat-expandable microspheres and thus expanding the same, wherein the turbulent flow generating member (9, 10, 11) is at least one selected from the group consisting of mesh, trays, rings and expansion chambers.
Distribution and collection device for a simulated moving bed separation unit with a diameter of greater than 1 metre, the device comprising at least one column divided into a plurality of adsorbent beds and plates (n) supporting the adsorbent beds, in which: at least one plate (n), positioned between a first adsorbent bed and a second adsorbent bed (N+1), is divided into meridian panels that are mutually parallel and contiguous in order to cover the cross section of said plate (n); and each meridian panel comprises a collection channel suitable for withdrawing a fluid from the first adsorbent bed, a distribution channel suitable for distributing the fluid towards the second adsorbent bed (N+1), and a separation plate to separate the collection channel and the distribution channel, characterized in that the device comprises a plurality of peripheral ducts outside of the column, each peripheral duct being suitable for exclusively connecting a collection channel of a meridian panel to the distribution channel of said meridian panel. at least one plate (n), positioned between a first adsorbent bed and a second adsorbent bed (N+1), is divided into meridian panels that are mutually parallel and contiguous in order to cover the cross section of said plate (n); and each meridian panel comprises a collection channel suitable for withdrawing a fluid from the first adsorbent bed, a distribution channel suitable for distributing the fluid towards the second adsorbent bed (N+1), and a separation plate to separate the collection channel and the distribution channel, characterized in that the device comprises a plurality of peripheral ducts outside of the column, each peripheral duct being suitable for exclusively connecting a collection channel of a meridian panel to the distribution channel of said meridian panel.
A method of producing gaseous chlorine dioxide, the method comprising: contacting a solid chlorite reactant with an ozone-containing gas; and reacting the ozone in the ozone-containing gas with the solid chlorite reactant to produce the gaseous chlorine dioxide, wherein the ozone is reacted with the solid chlorite reactant in the presence of carbon dioxide. contacting a solid chlorite reactant with an ozone-containing gas; and reacting the ozone in the ozone-containing gas with the solid chlorite reactant to produce the gaseous chlorine dioxide, wherein the ozone is reacted with the solid chlorite reactant in the presence of carbon dioxide.
A method for controlling uplink congestion in a wireless network, the method comprising: - detecting congestion in an uplink in at least one cell of a cluster of cells within the wireless network; the method being characterized in that it comprises: - in response to said detection, dividing user devices of said cluster of cells into a plurality of groups (G1,...,GN), wherein said division is done according to one or more technical criteria; - assigning an uplink transmission schedule to each of the plurality of groups, said transmission schedule based on a type of the corresponding group. - detecting congestion in an uplink in at least one cell of a cluster of cells within the wireless network; - in response to said detection, dividing user devices of said cluster of cells into a plurality of groups (G1,...,GN), wherein said division is done according to one or more technical criteria; - assigning an uplink transmission schedule to each of the plurality of groups, said transmission schedule based on a type of the corresponding group.
A compound of formula: where: R 1 and R 2 are C 1-15 alkyl or, together with the carbon atom to which they are attached, C 5-30 cycloalkyl; R 3 and R 5 are H or C 1-15 alkyl; R 4 is C 1-15 alkyl; R 6 is C 1-15 alkyl; and n is 0, 1, 2 or 3; wherein the compound contains a total number of carbons atoms of from 20 to 50. where: R 1 and R 2 are C 1-15 alkyl or, together with the carbon atom to which they are attached, C 5-30 cycloalkyl; R 3 and R 5 are H or C 1-15 alkyl; R 4 is C 1-15 alkyl; R 6 is C 1-15 alkyl; and n is 0, 1, 2 or 3;