mhurhangee/ep-ind-claims huggingface dataset:
A cross-car beam (20, 120) comprising: a plastic beam body (22, 122) that defines a first end (24, 124), a second end (26, 126) spaced from the first end in a first direction D1, such that the plastic beam body is elongate along the first direction, wherein the plastic beam body defines a cross-sectional shape (28, 128) along a plane P1 normal to the first direction, wherein the cross-sectional shape defines: 1) a first section (30, 130) that is elongate in a second direction D2 that is perpendicular to the first direction, and 2) a second section (32, 132) that is elongate along a third direction D3 that is perpendicular to both the first direction and the second direction, and wherein the plastic beam body includes a reinforced plastic material, characterized in that: the first section is a first of a plurality of first sections, the second section (32, 132) is a first of a plurality of section sections (32, 132), the cross-sectional shape comprising a second of the plurality of first sections, and a third of the plurality of first sections that: 1) is spaced from the second of the plurality of first sections along the second direction, and/or 2) is coplanar with the second of the plurality of first section. a plastic beam body (22, 122) that defines a first end (24, 124), a second end (26, 126) spaced from the first end in a first direction D1, such that the plastic beam body is elongate along the first direction, wherein the plastic beam body defines a cross-sectional shape (28, 128) along a plane P1 normal to the first direction, wherein the cross-sectional shape defines: 1) a first section (30, 130) that is elongate in a second direction D2 that is perpendicular to the first direction, and 2) a second section (32, 132) that is elongate along a third direction D3 that is perpendicular to both the first direction and the second direction, and wherein the plastic beam body includes a reinforced plastic material, characterized in that: the first section is a first of a plurality of first sections, the second section (32, 132) is a first of a plurality of section sections (32, 132), the cross-sectional shape comprising a second of the plurality of first sections, and a third of the plurality of first sections that: 1) is spaced from the second of the plurality of first sections along the second direction, and/or 2) is coplanar with the second of the plurality of first section.
An in vitro method of determining a difference in alpha-4 integrin activity in an individual with a disease or disorder selected from the group consisting of multiple sclerosis and inflammatory bowel disease, comprising: a) measuring a soluble molecule in a first biological sample of bodily fluid selected from the group consisting of blood, serum, and plasma and obtained from the individual immediately before administration of an alpha-4 integrin inhibitor; b) measuring the soluble molecule in a second biological sample, wherein the second biological sample is selected from the group consisting of blood, serum, and plasma and has been obtained from the individual within thirty-one days after administration of the alpha-4 integrin inhibitor; c) determining whether there is a decrease in the levels of the soluble molecule between the first and second biological samples, wherein the decrease correlates with a decrease in alpha-4 integrin activity in the individual, and thereby determining whether there is a difference in alpha-4 integrin activity in the individual after administration of the alpha-4 integrin inhibitor compared with before administration of the alpha-4 integrin inhibitor; and d) determining whether an adjustment in treatment of the individual is required, wherein no decrease or a statistically insignificant decrease (p > 0.05) in the levels of the soluble molecule between the first and second biological samples indicates ineffective response to the alpha-4 integrin inhibitor requiring a treatment adjustment of the individual, wherein the soluble molecule is sVCAM and/or sMAdCAM, and wherein the alpha-4 integrin inhibitor is an anti-alpha-4 integrin antibody. a) measuring a soluble molecule in a first biological sample of bodily fluid selected from the group consisting of blood, serum, and plasma and obtained from the individual immediately before administration of an alpha-4 integrin inhibitor; b) measuring the soluble molecule in a second biological sample, wherein the second biological sample is selected from the group consisting of blood, serum, and plasma and has been obtained from the individual within thirty-one days after administration of the alpha-4 integrin inhibitor; c) determining whether there is a decrease in the levels of the soluble molecule between the first and second biological samples, wherein the decrease correlates with a decrease in alpha-4 integrin activity in the individual, and thereby determining whether there is a difference in alpha-4 integrin activity in the individual after administration of the alpha-4 integrin inhibitor compared with before administration of the alpha-4 integrin inhibitor; and d) determining whether an adjustment in treatment of the individual is required,
Acoustically active device: - comprising a substrate which is transparent at least in a viewing area, - comprising at least one first electrode arranged on the substrate, - comprising a piezoelectric layer arranged on the at least one first electrode, and - comprising at least one second electrode arranged on the piezoelectric layer, - wherein the at least one first electrode and the at least one second electrode are layers of transparent conductive oxide materials, - wherein the piezoelectric layer is made of a transparent piezoelectric material which completely covers the viewing area, and - wherein the piezoelectric material is zinc oxide, characterised in - that the transparent conductive oxide materials are doped with boron or fluorine for increasing their conductivity and - that the transparent conductive oxide material of the second electrode is conductively doped zinc oxide. - comprising a substrate which is transparent at least in a viewing area, - comprising at least one first electrode arranged on the substrate, - comprising a piezoelectric layer arranged on the at least one first electrode, and - comprising at least one second electrode arranged on the piezoelectric layer, - wherein the at least one first electrode and the at least one second electrode are layers of transparent conductive oxide materials, - wherein the piezoelectric layer is made of a transparent piezoelectric material which completely covers the viewing area, and - wherein the piezoelectric material is zinc oxide, - that the transparent conductive oxide materials are doped with boron or fluorine for increasing their conductivity and - that the transparent conductive oxide material of the second electrode is conductively doped zinc oxide.
A method comprising: printing (112, 502), by a print engine a first scale on a first side of a print medium; and printing (114, 504), by the print engine a second scale on the first side of the print medium, the second scale being aligned with the first scale along a common axis, characterised in that the second scale has a different spacing than the first scale; and the first scale is to overlap the second scale when the print medium is folded along a first edge of the print medium to a position in which a first portion of the first edge is collinear with a second portion of the first edge, and wherein multiple degrees of overlap between the first scale and the second scale correlate to respective skew correction values for the first edge of the print medium. printing (112, 502), by a print engine a first scale on a first side of a print medium; and printing (114, 504), by the print engine a second scale on the first side of the print medium, the second scale being aligned with the first scale along a common axis, characterised in that the second scale has a different spacing than the first scale; and the first scale is to overlap the second scale when the print medium is folded along a first edge of the print medium to a position in which a first portion of the first edge is collinear with a second portion of the first edge, and wherein multiple degrees of overlap between the first scale and the second scale correlate to respective skew correction values for the first edge of the print medium.
A filament winding apparatus adapted to wind a fiber bundle onto a surface of a liner with a hoop winding device, wherein the hoop winding device comprises: a wrapping table to be rotated around an axis of the liner; a bobbin support unit provided in the wrapping table and adapted to support a bobbin (70A,70B,70C,70D) of the fiber bundle; characterized by a braking unit braking rotation of the bobbin (70A,70B,70C,70D) supported by the bobbin support unit; a slack removal unit adapted to absorb slack caused by difference between winding speed of the fiber bundle pulled out from the bobbin (70A,70B,70C,70D) and wound onto the surface of the liner and unraveling speed of the fiber bundle unraveled from the bobbin (70A,70B,70C,70D) by rotation of the bobbin (70A,70B,70C,70D); a detector adapted to detect that the slack absorbed by the slack removal unit is more than a predetermined value and that the slack absorbed by the slack removal unit is less than the predetermined value; and a controller adapted to increase braking power of the braking unit based on a detection signal from the detector detecting that the slack absorbed by the slack removal units is not less than the predetermined value and reducing braking power of the braking unit based on a detection signal from the detector detecting that the slack absorbed by the slack removal unit is less than the predetermined value, wherein the braking unit includes a hysteresis brake, and the controller is adapted to control excitation current supplied to the hysteresis brake so as to increase and reduce braking power of the hysteresis brake. a wrapping table to be rotated around an axis of the liner; a bobbin support unit provided in the wrapping table and adapted to support a bobbin (70A,70B,70C,70D) of the fiber bundle; characterized by a braking unit braking rotation of the bobbin (70A,70B,70C,70D) supported by the bobbin support unit; a slack removal unit adapted to absorb slack caused by difference between winding speed of the fiber bundle pulled out from the bobbin (70A,70B,70C,70D) and wound onto the surface of the liner and unraveling speed of the fiber bundle unraveled from the bobbin (70A,70B,70C,70D) by rotation of the bobbin (70A,70B,70C,70D); a detector adapted to detect that the slack absorbed by the slack removal unit is more than a predetermined value and that the slack absorbed by the slack removal unit is less than the predetermined value; and a controller adapted to increase braking power of the braking unit based on a detection signal from the detector detecting that the slack absorbed by the slack removal units is not less than the predetermined value and reducing braking power of the braking unit based on a detection signal from the detector detecting that the slack absorbed by the slack removal unit is less than the predetermined value, wherein the braking unit includes a hysteresis brake, and the controller is adapted to control excitation current supplied to the hysteresis brake so as to increase and reduce braking power of the hysteresis brake.
An aluminum alloy for die casting, comprising, by wt%, 3 ≤ Si ≤ 10; 3 ≤ Mg ≤ 10; 0.01 ≤ Fe ≤ 1.3; 0.01 ≤ Zn ≤ 2; 0.01 ≤ Cu ≤ 1.5; 0.01 ≤ Mn ≤ 0.5; 0.05 ≤ Ti ≤ 0.15; 0.01 ≤ La ≤ 2; 0.01 ≤ Sr ≤ 2; and a balance of Al.
Medical vehicle comprising a compartment with a medical imaging system, wherein the medical imaging system comprises at least one system support sensor, wherein the system support sensors augment the vehicle's own sensors and/or replace equivalent sensors in the vehicle, and the medical vehicle is configured to obtain sensor readings from the at least one system support sensor during operation of the medical vehicle; analyze the sensor readings; and provide feedback based on the analyzed sensor readings. obtain sensor readings from the at least one system support sensor during operation of the medical vehicle; analyze the sensor readings; and provide feedback based on the analyzed sensor readings.
A method performed by a packet data network gateway-user plane + user plane function, PGW-U+UPF, in a communication system, the method comprising: receiving, from a packet data network gateway-control plane + session management function, PGW-C+SMF, a request message including first information for allocating a tunnel for data forwarding to the PGW-U+UPF, in case that a terminal is handed over from a 5 th generation system, 5GS, to an evolved packet system, EPS; as a response to the request message, transmitting, to the PGW-C+SMF, a response message including second information on the tunnel for the data forwarding to the PGW-U+UPF; receiving, from a first base station associated with the SGS, at least one data packet through the tunnel for the data forwarding to the PGW-U+UPF according to the second information; and transmitting, to a second base station associated with the EPS, the at least one data packet, wherein the second information includes a tunnel endpoint identifier, TEID, associated with a protocol data unit, PDU, session for the data forwarding to the PGW-U+UPF and is transferred from the PGW-C+SMF to the first base station. receiving, from a packet data network gateway-control plane + session management function, PGW-C+SMF, a request message including first information for allocating a tunnel for data forwarding to the PGW-U+UPF, in case that a terminal is handed over from a 5 th generation system, 5GS, to an evolved packet system, EPS; as a response to the request message, transmitting, to the PGW-C+SMF, a response message including second information on the tunnel for the data forwarding to the PGW-U+UPF; receiving, from a first base station associated with the SGS, at least one data packet through the tunnel for the data forwarding to the PGW-U+UPF according to the second information; and transmitting, to a second base station associated with the EPS, the at least one data packet, wherein the second information includes a tunnel endpoint identifier, TEID, associated with a protocol data unit, PDU, session for the data forwarding to the PGW-U+UPF and is transferred from the PGW-C+SMF to the first base station.
An illumination device, comprising: a light-guide member having an annular shape including an incidence portion of a light in one portion, and illuminating an entirety by propagating an incident light; characterized in that a diffusion cover is disposed on a side different from a light source side relative to the incidence portion, and diffuses the light generated from the light-guide member, wherein the diffusion cover includes a plate-shaped base portion covering an incidence portion side in the light-guide member, and a circular portion covering a remaining portion of the light-guide member by integrating an outer peripheral portion into the plate-shaped base portion, and in that the light-guide member has an arc-shaped portion along an arc of an imaginary circle; a straight portion; and two arm portions connecting the arc-shaped portion and the straight portion. a light-guide member having an annular shape including an incidence portion of a light in one portion, and illuminating an entirety by propagating an incident light; characterized in that a diffusion cover is disposed on a side different from a light source side relative to the incidence portion, and diffuses the light generated from the light-guide member, wherein the diffusion cover includes a plate-shaped base portion covering an incidence portion side in the light-guide member, and a circular portion covering a remaining portion of the light-guide member by integrating an outer peripheral portion into the plate-shaped base portion, and in that the light-guide member has an arc-shaped portion along an arc of an imaginary circle; a straight portion; and two arm portions connecting the arc-shaped portion and the straight portion.
A method for producing a compound represented by the following formula: wherein the method comprises a step of adding -2-amino-1-propanol to a solution comprising the compound represented by the above formula to crystallize a salt, represented by the following formula, of the compound:, and then, a step of adding an acid to remove the salt from the compound, wherein, in the compounds represented by formulas and, R 1 and R 2 each independently represent a hydrogen atom or a protective group for the amino group.
A zipperless sleeping bag (1; 101) comprising: an elongate shell (3; 103; 203; 403) defining an inner volume sized and shaped to receive a user therein, the shell having an overlying portion (11; 111; 211; 311; 411) adapted to overlie the user during use, an underlying portion (13; 113) adapted to underlie the user during use, and an opening (23; 123; 223; 423) for providing the user ingress to and egress from the sleeping bag (1; 101) disposed on the overlying portion (11; 111; 211; 311; 411) of the shell (3; 103; 203; 403); and a comforter (35; 335; 435) attached to the overlying portion (11; 111; 211; 311; 411) of the shell (3; 103; 203; 403) for selectively closing the opening (23; 123; 223; 423), characterized in that the comforter (35; 335; 435) is selectively moveable from an interior position wherein the comforter (35; 335; 435) is disposed in the inner volume of the shell (3; 103; 203; 403) to an exterior position wherein the comforter (35; 335; 435) is at least partly disposed outside the inner volume of the shell (3; 103; 203; 403) and overlies at least part of the overlying portion of the shell (3; 103; 203; 403). an elongate shell (3; 103; 203; 403) defining an inner volume sized and shaped to receive a user therein, the shell having an overlying portion (11; 111; 211; 311; 411) adapted to overlie the user during use, an underlying portion (13; 113) adapted to underlie the user during use, and an opening (23; 123; 223; 423) for providing the user ingress to and egress from the sleeping bag (1; 101) disposed on the overlying portion (11; 111; 211; 311; 411) of the shell (3; 103; 203; 403); and a comforter (35; 335; 435) attached to the overlying portion (11; 111; 211; 311; 411) of the shell (3; 103; 203; 403) for selectively closing the opening (23; 123; 223; 423), characterized in that the comforter (35; 335; 435) is selectively moveable from an interior position wherein the comforter (35; 335; 435) is disposed in the inner volume of the shell (3; 103; 203; 403) to an exterior position wherein the comforter (35; 335; 435) is at least partly disposed outside the inner volume of the shell (3; 103; 203; 403) and overlies at least part of the overlying portion of the shell (3; 103; 203; 403).
A process for conversion of a liquid hydrocarbon feedstock into lower molecular weight hydrocarbon compounds in a fluidized catalytic cracking reaction and separation zone of an FCC unit, characterized in that excess hydrogen gas is added to said hydrocarbon feedstock prior to introducing it into the FCC reactor, said process comprising: a. mixing the liquid hydrocarbon feedstock and an excess of hydrogen gas in a mixing zone to dissolve a portion of the hydrogen gas in the liquid hydrocarbon feedstock to produce a hydrogen-enriched liquid hydrocarbon feedstock; b. introducing the hydrogen-enriched liquid hydrocarbon feedstock and remaining hydrogen into a flashing zone in which at least a portion of undissolved hydrogen gas is flashed; c. passing the hydrogen-enriched liquid hydrocarbon feedstock from the flashing zone to the fluidized catalytic cracking reaction and separation zone containing heated fresh or regenerated solid fluidized catalytic cracking catalyst particles from the FCC unit's regeneration vessel for reaction including conversion of the liquid hydrocarbon feedstock into lower boiling point hydrocarbons, where the residence time of the feedstock in the catalytic cracking reaction and separation zone is in the range from 0.1 to 30 seconds; and d. recovering converted hydrocarbon products from the fluidized catalytic cracking reaction and separation zone. a. mixing the liquid hydrocarbon feedstock and an excess of hydrogen gas in a mixing zone to dissolve a portion of the hydrogen gas in the liquid hydrocarbon feedstock to produce a hydrogen-enriched liquid hydrocarbon feedstock; b. introducing the hydrogen-enriched liquid hydrocarbon feedstock and remaining hydrogen into a flashing zone in which at least a portion of undissolved hydrogen gas is flashed; c. passing the hydrogen-enriched liquid hydrocarbon feedstock from the flashing zone to the fluidized catalytic cracking reaction and separation zone containing heated fresh or regenerated solid fluidized catalytic cracking catalyst particles from the FCC unit's regeneration vessel for reaction including conversion of the liquid hydrocarbon feedstock into lower boiling point hydrocarbons, where the residence time of the feedstock in the catalytic cracking reaction and separation zone is in the range from 0.1 to 30 seconds; and d. recovering converted hydrocarbon products from the fluidized catalytic cracking reaction and separation zone.
Intake cone for an aircraft gas turbine with an essentially conical body designed as one piece over its axial length, with a retaining ring that can be borne on a fan rotor disk, characterized in that the retaining ring has a rigidly designed conical supporting area with bearing surfaces and that the body abuts the bearing surfaces exclusively on a conical bearing area and is connected there to the conical supporting area.
Extruded profile comprising an Al-Mg-Si aluminium alloy with improved strength, corrosion resistance, crush properties and temperature stability, in particular useful in the front structure of vehicles, wherein the composition of the alloy is defined within the following coordinate points of an Mg-Si diagram: a1 - a2 - a3 - a4, wherein in wt% a1=0.60Mg, 0.65Si, a2=0.90Mg, 1.0Si, a3=1.05Mg,0.75Si and a4=0.70Mg, 0.50Si, wherein the alloy has a non-recrystallised grain structure in the extruded profile, the alloy containing in addition the following alloy components in wt%: Fe up to 0.30 Cu 0.1 - 0.4 Mn 0.5-0.7 Cr 0.1-0.2 Zr up to 0.25 and Ti 0.005 - 0.15, incidental impurities up to 0.1 each and including Zn up to 0.5, with balance Al. a1 - a2 - a3 - a4,
A vehicle-mounted type back scattering inspection system, comprising a carriage and a back scattering imaging device; wherein the back scattering imaging device comprises a back scattering imaging module, and the back scattering imaging module is rotatably arranged around a vertical shaft to change the scanning range of the back scattering imaging device; wherein the vehicle-mounted type back scattering inspection system further comprising a tray arranged in the carriage and rotatably arranged relative to the carriage, wherein in a vehicle-mounted working state in which the back scattering imaging device performs inspection work in the carriage, the back scattering imaging device is fixedly arranged on the tray to rotate under drive of the tray; and wherein the back scattering imaging device further comprises a carrier module for carrying the back scattering imaging module, and the back scattering imaging module is rotatably arranged relative to the carrier module.