mhurhangee/ep-ind-claims huggingface dataset:
Sensor element, in particular for detecting a physical property of a gas, in particular for detecting the concentration of a gas component or the temperature or a solid constituent part or a liquid constituent part of an exhaust gas of an internal combustion engine, wherein the sensor element has a first end region and a second end region which are situated opposite one another in its longitudinal direction, wherein the sensor element has, in the first end region, in the interior of the sensor element, a functional element (31, 311, 312) which is electrically conductively connected to a contact area (43, 44, 45) which is arranged in the second end region on the outer surface of the sensor element, wherein the electrically conductive connection between the functional element (31, 311, 312) and the contact area (43, 44, 45) has a conductor track (321, 322, 328) which runs substantially in the longitudinal direction in the interior of the sensor element and has a bushing (501, 502, 503) which runs substantially perpendicularly to the longitudinal direction of the sensor element, wherein an electrical resistance of the conductor track (321, 322, 328) and an electrical resistance of the bushing (501, 502, 503) are in a ratio to one another that is not greater than 3 and not less than 1/3, and wherein the bushing (501, 502, 503) consists of a conductive coating of the radial wall of a plated through-hole (601, 602, 603) of the sensor element and the conductor track (321, 322, 328) comprises a feed line (323, 325, 327) and a collar (324, 326, 329), wherein the feed line (323, 325, 327) or an end region, remote from the exhaust gas, of the feed line (323, 325, 327) has a constant or a substantially constant feed line width and leads from the functional element (31, 311, 312) into the region of the bushing (501, 502, 503), and the collar (324, 326, 329) is arranged in the form of a circular ring around the plated through-hole (601, 602, 603) in a plan view of the sensor element and creates the electrical connection between the bushing (501, 502, 503) and the feed line (323, 325, 327), wherein the circular ring has a circular ring width (b) measured radially in a plan view of the plated through-hole (601, 602, 603), wherein the functional element is an electrical resistance heater, and wherein a width ratio, circular ring width (b) through feed line width, lies in the range of from 0.1 to 0.4.
An aromatics hydrogenation process for a hydrocarbon feedstream, comprising contacting a hydrocarbon feedstream that contains aromatics with a hydrogenation catalyst in the presence of a hydrogen-containing treat gas in a reaction stage operated under effective aromatics hydrogenation conditions, wherein the hydrogenation catalyst comprises MCM-41 composited with alumina, and at least one hydrogenation-dehydrogenation component selected from the Group VIII noble metals, wherein the MCM-41 contains SiO 2 and XO 2, where X is Ti, and the MCM-41 is formed from a synthesis mixture having a ratio of SiO 2: XO 2 of 100:1 or less, and has, after calcination, a hexagonal arrangement of uniformly-sized pores having an average pore diameter of 20 Angstroms to 30 Angstroms, based on Ar sorption data, and exhibiting a hexagonal diffraction pattern that can be indexed with a d100 value of greater than 18 Angstroms.
An autonomous transport robot for transporting a payload (1700, 1700P) comprising: a payload bed having at least one reference datum surface (1510S1, 1510S2, 1510F); and at least one payload justification device (1510R, 1530); characterized in that the at least one payload justification device being configured to position a payload on the payload bed in substantial contact with the at least one reference datum surface that is arranged relative the payload bed to place each payload so that a payload side is at a repeatable predetermined position on the payload bed relative to at least a longitudinal axis of the autonomous transport robot.
Solid pharmaceutical composition comprising (a) granules comprising (i) at least one drug selected from tamsulosin or a pharmaceutically acceptable salt or solvate thereof, and (ii) polyethylene oxide, and (b) an extragranular phase comprising (iii) polyethylene oxide. (a) granules comprising (i) at least one drug selected from tamsulosin or a pharmaceutically acceptable salt or solvate thereof, and (ii) polyethylene oxide, and (b) an extragranular phase comprising (iii) polyethylene oxide.
A method performed by a wireless device in a wireless communication system, the method comprising, receiving, from a network, a system information block, SIB2, including a first configuration to allow relaxation of measurement, wherein the first configuration includes at least one parameter related to at least one relaxed measurement condition; receiving, from the network, a radio resource control, RRC, release message including a second configuration, wherein the second configuration includes at least one carrier set to be measured during an idle state and/or an inactive state; performing normal measurements for at least one frequency based on the first configuration; determining that the at least one relaxed measurement condition for the at least one frequency is fulfilled for the at least one parameter; and based on that the at least one frequency being not included in the at least one carrier set included in the second configuration, determining to perform a relaxed measurement or no measurement on the at least one frequency. receiving, from a network, a system information block, SIB2, including a first configuration to allow relaxation of measurement, wherein the first configuration includes at least one parameter related to at least one relaxed measurement condition; receiving, from the network, a radio resource control, RRC, release message including a second configuration, wherein the second configuration includes at least one carrier set to be measured during an idle state and/or an inactive state; performing normal measurements for at least one frequency based on the first configuration; determining that the at least one relaxed measurement condition for the at least one frequency is fulfilled for the at least one parameter; and based on that the at least one frequency being not included in the at least one carrier set included in the second configuration, determining to perform a relaxed measurement or no measurement on the at least one frequency.
An imaging device comprising: a control unit configured to perform an interchangeable lens status change estimation to indicate a change in status of an interchangeable lens, and configured to output warning information to a warning unit to warn a user in a case where interchangeable lens status is determined to be different from user setting lens status on a basis of a result of the interchangeable lens status change estimation, characterized in that the interchangeable lens status change estimation is performed by the control unit without obtaining information regarding the lens status from the interchangeable lens.
Electrical winding arrangement comprising an active part, which has a core, windings (4A, 4B), press parts and outgoing lines, and a tank which encloses the active part, wherein at least one stabilizing element, which leads through the interior of the tank, is arranged between - a first wall section of the tank and - the active part or a second wall section of the tank, characterized in that the stabilizing element is designed for a pressure loading and the stabilizing element comprises a plurality of sections which are arranged in a linear manner and form a supporting chain, wherein a section is arranged between two windings (4A, 4B) of the active part or between a winding and a core of the active part. - a first wall section of the tank and - the active part or a second wall section of the tank,
A method of processing data for a receiver, the method comprising: receiving a broadcast signal comprising data groups, wherein each of the data groups includes main service data, mobile service data, signaling data, and known data; demodulating the received broadcast signal; detecting the known data from the demodulated broadcast signal; decoding the signaling data from the demodulated broadcast signal, wherein the signaling data include a fast information channel, FIC, and a transmission parameter channel, TPC, the FIC containing cross layer information between a physical layer and a upper layer for fast service acquisition, the TPC containing transmission parameters; turbo decoding the mobile service data from the demodulated broadcast signal based on the decoded signaling data; forming a Reed-Solomon, RS, frame from the turbo-decoded mobile service data based on the decoded signaling data and performing error correction decoding on the RS frame, wherein the RS frame comprises a plurality of mobile and handheld, M/H, transport packets, wherein each of the plurality of M/H transport packets has an M byte header including identification information, k bytes of stuffing data, and an (N-M-k)-byte payload, and wherein N and M are integers, and k is equal to or greater than 0; obtaining IP datagrams of the mobile service data from the error correction decoded RS frame; and decoding at least one of a video stream and an audio stream included in the obtained IP datagrams. receiving a broadcast signal comprising data groups, wherein each of the data groups includes main service data, mobile service data, signaling data, and known data; demodulating the received broadcast signal; detecting the known data from the demodulated broadcast signal; decoding the signaling data from the demodulated broadcast signal, wherein the signaling data include a fast information channel, FIC, and a transmission parameter channel, TPC, the FIC containing cross layer information between a physical layer and a upper layer for fast service acquisition, the TPC containing transmission parameters; turbo decoding the mobile service data from the demodulated broadcast signal based on the decoded signaling data; forming a Reed-Solomon, RS, frame from the turbo-decoded mobile service data based on the decoded signaling data and performing error correction decoding on the RS frame, wherein the RS frame comprises a plurality of mobile and handheld, M/H, transport packets, wherein each of the plurality of M/H transport packets has an M byte header including identification information, k bytes of stuffing data, and an (N-M-k)-byte payload, and wherein N and M are integers, and k is equal to or greater than 0; obtaining IP datagrams of the mobile service data from the error correction decoded RS frame; and decoding at least one of a video stream and an audio stream included in the obtained IP datagrams.
Optical fiber winding for measuring the current circulating through a conductor, comprising: • a central support core extending in a longitudinal direction, • a first optical fiber cable arranged around the central support core, and • a second optical fiber cable arranged around the central support core, wherein the optical fiber cables (120, 130) extend in a helical manner around the central support core, characterized in that the optical fiber cables (120, 130) are standard single-mode optical fiber cables, the first optical fiber cable is twisted about its longitudinal axis in a first twist direction, and the second optical fiber cable is twisted about its longitudinal axis in a second twist direction, the first twist direction being opposite the second twist direction, so that, since the optical fiber cables (120, 130) are twisted in opposite directions, the efforts that said optical fiber cables (120, 130) make to recover their shape are counteracted. • a central support core extending in a longitudinal direction, • a first optical fiber cable arranged around the central support core, and • a second optical fiber cable arranged around the central support core,
A method for producing a heat sink for a liquid cooling system of a supercomputer computing blade, said heat sink comprising a body, a fluidic connection member and a heat dissipation fin module, said body comprising a heat collection face intended to be positioned in line with a heat-generating electronic component, and a fluidic connection face opposite said heat collection face, the body delimiting a central through-opening connecting the heat collection face and the fluidic connection face, said fluidic connection member comprising a parallelepiped central part from which extends, from a first face, an attachment element and, from a second face, two channels for circulating a liquid coolant, said fin module comprising a base plate and at least two fin assemblies extending from one face of said base plate, said method comprising the steps of: - positioning the attachment element of the fluidic connection member in the through-opening of the body so as to be flush with the heat collection face of the body, - machining the heat collection face so as to form two cavities for receiving the fin assemblies of the fin module, a central rib consisting of both the material of the attachment element of the fluidic connection member and the material of the heat collection face of the body, and a rim for supporting the base plate of the fin module, - placing the fin module on the body so as to bear on the rim such that each fin assembly is arranged in one of the cavities, - friction stir welding the base plate at the machined central rib and at the machined rim. - positioning the attachment element of the fluidic connection member in the through-opening of the body so as to be flush with the heat collection face of the body, - machining the heat collection face so as to form two cavities for receiving the fin assemblies of the fin module, a central rib consisting of both the material of the attachment element of the fluidic connection member and the material of the heat collection face of the body, and a rim for supporting the base plate of the fin module, - placing the fin module on the body so as to bear on the rim such that each fin assembly is arranged in one of the cavities, - friction stir welding the base plate at the machined central rib and at the machined rim.
An edge diffraction effect RF antenna structure, comprising: a non-conductive cover; an antenna element facing the non-conductive cover and coupled to a mounting bracket at a portion of the antenna element facing away from the non-conductive cover, wherein the mounting bracket comprises a drain hole; a deflector coupled to said mounting bracket and having a sloped portion configured to intersect a main beam of said antenna element, wherein the deflector and mounting bracket combination slopes towards the non-conductive cover and away from the antenna element; and an edge coupled to a top portion of the deflector facing the non-conductive-cover and positioned to have an edge diffraction effect on the RF signal of said antenna element to bend the RF signal in a direction downward from said deflector. a non-conductive cover; an antenna element facing the non-conductive cover and coupled to a mounting bracket at a portion of the antenna element facing away from the non-conductive cover, wherein the mounting bracket comprises a drain hole; a deflector coupled to said mounting bracket and having a sloped portion configured to intersect a main beam of said antenna element, wherein the deflector and mounting bracket combination slopes towards the non-conductive cover and away from the antenna element; and an edge coupled to a top portion of the deflector facing the non-conductive-cover and positioned to have an edge diffraction effect on the RF signal of said antenna element to bend the RF signal in a direction downward from said deflector.
A multi-stage polymer composition comprising: a crosslinked core which comprises greater than 95 weight percent of units derived from one or more monomers selected from the group consisting of alkyl (meth)acrylate monomers, from 0.1 to 5 weight percent of units derived from a cross-linking monomer, graft-linking monomer, or combination thereof, and wherein the crosslinked core has a Tg of from -85 to -10 °C; an intermediate region which comprises one or more intermediate layers, wherein each of the intermediate layers comprises from 88.5 to 100 weight percent of units derived from a one or more monomers selected from the group consisting of alkyl (meth)acrylate monomers, from 0 to 5 weight percent of units derived from a cross-linking monomer, a graft-linking monomer, or a combination of two or more thereof, optionally from 0 to 2.0 weight percent units derived from one or more chain transfer agents; wherein there is a compositional gradient between the intermediate layers such that the Tg transitions over the width of the intermediate region between a lower Tg and an upper Tg, wherein said lower Tg is at least -30°C and said upper Tg is 70°C or less, and an outermost layer which comprises from 98.5 to 100 weight percent units derived from one or more monomers selected from the group consisting of alkyl (meth)acrylate, styrenic monomers, and combinations of two or more thereof, from 0 to 1.5 weight percent units derived from one or more chain transfer agents, and has a Tg of from 40 °C to 110 °C; wherein Tg is calculated in accordance with the Fox equation. a crosslinked core which comprises greater than 95 weight percent of units derived from one or more monomers selected from the group consisting of alkyl (meth)acrylate monomers, from 0.1 to 5 weight percent of units derived from a cross-linking monomer, graft-linking monomer, or combination thereof, and wherein the crosslinked core has a Tg of from -85 to -10 °C; an intermediate region which comprises one or more intermediate layers, wherein each of the intermediate layers comprises from 88.5 to 100 weight percent of units derived from a one or more monomers selected from the group consisting of alkyl (meth)acrylate monomers, from 0 to 5 weight percent of units derived from a cross-linking monomer, a graft-linking monomer, or a combination of two or more thereof, optionally from 0 to 2.0 weight percent units derived from one or more chain transfer agents; wherein there is a compositional gradient between the intermediate layers such that the Tg transitions over the width of the intermediate region between a lower Tg and an upper Tg, wherein said lower Tg is at least -30°C and said upper Tg is 70°C or less, and an outermost layer which comprises from 98.5 to 100 weight percent units derived from one or more monomers selected from the group consisting of alkyl (meth)acrylate, styrenic monomers, and combinations of two or more thereof, from 0 to 1.5 weight percent units derived from one or more chain transfer agents, and has a Tg of from 40 °C to 110 °C; wherein Tg is calculated in accordance with the Fox equation.
Chassis for a rail vehicle, in particular with inboard wheel sets, with at least one transmission, at least one transversely mounted drive motor, and with at least one chassis frame, which comprises at least one crossmember, at least one first longitudinal carrier and a second longitudinal carrier, wherein at least one first elastic bearing, a second elastic bearing and a third elastic bearing are arranged between the drive motor and the chassis frame, characterised in that one of the elastic bearings (13, 14, 15) is in each case arranged on at least one of the longitudinal carriers (5, 6), wherein at least one first attachment module, which is connected in a releasable manner to the drive motor and the chassis frame, is arranged between the drive motor and the chassis frame, wherein all connections between the at least first attachment module, the drive motor and the at least first elastic bearing and the second elastic bearing or the third elastic bearing are force-fitted and releasable, or the drive motor is connected directly to the chassis frame via the first elastic bearing, the second elastic bearing and the third elastic bearing.
A tubularly knitted stent or stent graft for placement in a lumen or body passage, the sten or stent graft being compressible and having a compressed and a non-compressed outer diameter, the stent or stent graft being built from a repeating knitting pattern along a longitudinal axis of the tubularly knitted stent, the knitting pattern comprising a sequence of bridges and loops that extend around the stent's or stent graft's circumference, each knitted loop being formed of a loop head and a pair of loop legs, the loop head connecting the loop legs, and each bridge connecting the loop legs of two adjoining knitted loops in a row of knitted loops, wherein a loop width of each knitted loop is defined as the longest distance between the pair of loop legs where connected to the loop head, wherein at least one knitted loop is characterized by a loop width to non-compressed outer diameter ratio larger than 0.2.
A sterilizer having a sterilization chamber and having a testing device for testing the effectiveness of a sterilization process, the testing device comprising a test object and a probe, wherein the probe (3, 3') is connected to the test object during operation, wherein the test object is arranged outside the sterilization chamber and the probe (3, 3') is at least partially arranged inside the sterilization chamber, and wherein the testing device is fixedly connectable to the sterilization chamber, characterized in that there is provided a cooling device for cooling the test object.
A compound selected from compounds of the following formula, and pharmaceutically acceptable salts, N-oxides, hydrates, and solvates thereof: wherein: =X- is independently =CH- or =N-; -Y is independently -Y 1, -Y 2, -Y 3, -Y 4, -Y 5, or -Y 6; -Y 1 is independently -F, -Cl, -Br, or -I; -Y 2 is linear or branched saturated C 1-4 alkyl; -Y 3 is linear or branched saturated C 1-4 haloalkyl; -Y 4 is -OH; -Y 5 is linear or branched saturated C 1-4 alkoxy; and -Y 6 is linear or branched saturated C 1-4 haloalkoxy. =X- is independently =CH- or =N-; -Y is independently -Y 1, -Y 2, -Y 3, -Y 4, -Y 5, or -Y 6; -Y 1 is independently -F, -Cl, -Br, or -I; -Y 2 is linear or branched saturated C 1-4 alkyl; -Y 3 is linear or branched saturated C 1-4 haloalkyl; -Y 4 is -OH; -Y 5 is linear or branched saturated C 1-4 alkoxy; and -Y 6 is linear or branched saturated C 1-4 haloalkoxy.