mhurhangee/ep-ind-claims huggingface dataset:
A vehicle door having a door blade, the vehicle door characterized by: the door blade being injection molded from plastic; a mechanism for adjusting a profile of the door blade, the mechanism including: a tension member extending generally parallel to and spaced from a surface of the door blade having the profile for adjustment; a first mounting arrangement for coupling a first end of the tension member to the door blade; a second mounting arrangement for coupling a second end of the tension member to the door blade; and at least one tension adjustment member for adjusting a tension of the tension member to correspondingly adjust the profile of the door blade; whereby adjustment of the profile of the door blade may be made upon initial mounting of the door to the vehicle or at a later time when adjustments are required. the door blade being injection molded from plastic; a mechanism for adjusting a profile of the door blade, the mechanism including: a tension member extending generally parallel to and spaced from a surface of the door blade having the profile for adjustment; a first mounting arrangement for coupling a first end of the tension member to the door blade; a second mounting arrangement for coupling a second end of the tension member to the door blade; and at least one tension adjustment member for adjusting a tension of the tension member to correspondingly adjust the profile of the door blade; whereby adjustment of the profile of the door blade may be made upon initial mounting of the door to the vehicle or at a later time when adjustments are required.
A transmission apparatus, comprising: a time information generating unit configured to - generate second absolute time information synchronized with first absolute time information acquired from an external source by shifting occurrence time of a leap second to a shifted time, wherein the occurrence time is a time at which the leap second occurs in the first absolute time information and the shifted time is a time at which the leap second occurs in the second absolute time information after the shifting of the occurrence time of the leap second, and - add, when the occurrence time of the leap second has been shifted to the shifted time, mode information to the second absolute time information, the mode information indicating that the occurrence time of the leap second has been shifted to the shifted time; and a transmission unit configured to transmit a signal including transmission media, the generated second absolute time information and the added mode information. a time information generating unit configured to - generate second absolute time information synchronized with first absolute time information acquired from an external source by shifting occurrence time of a leap second to a shifted time, wherein the occurrence time is a time at which the leap second occurs in the first absolute time information and the shifted time is a time at which the leap second occurs in the second absolute time information after the shifting of the occurrence time of the leap second, and - add, when the occurrence time of the leap second has been shifted to the shifted time, mode information to the second absolute time information, the mode information indicating that the occurrence time of the leap second has been shifted to the shifted time; and - generate second absolute time information synchronized with first absolute time information acquired from an external source by shifting occurrence time of a leap second to a shifted time, wherein the occurrence time is a time at which the leap second occurs in the first absolute time information and the shifted time is a time at which the leap second occurs in the second absolute time information after the shifting of the occurrence time of the leap second, and - add, when the occurrence time of the leap second has been shifted to the shifted time, mode information to the second absolute time information, the mode information indicating that the occurrence time of the leap second has been shifted to the shifted time; and a transmission unit configured to transmit a signal including transmission media, the generated second absolute time information and the added mode information.
A vacuum interrupter comprising: a dielectric casing; a plurality of flanges and configured to seal both ends of the dielectric casing; a stationary electrode fixed within the dielectric casing; a movable electrode disposed to face the stationary electrode, the movable electrode being slidable with respect to the dielectric casing; a main shield fixed to the dielectric casing to house the stationary electrode and the movable electrode therein; a stationary-side sub shield disposed at one side of the main shield in an axial direction, the stationary-side sub shield fixed to the dielectric casing; and a movable-side sub shield fixed to the dielectric casing, the movable-side sub shield facing the stationary-side sub shield, wherein an end of each of the stationary-side sub shield and the movable-side sub shield is inserted into the main shield to overlap the main shield by a predetermined length, wherein a curved portion (151, 162, 166) is formed at least at an end of the main shield, the stationary-side sub shield and the movable-side sub shield, and characterised in that the curved portion of the main shield is curved toward an inner circumferential surface of the dielectric casing, and the curved portion (162, 166) of each sub shield (161, 165) is curved toward a central line of the dielectric casing. a dielectric casing; a plurality of flanges and configured to seal both ends of the dielectric casing; a stationary electrode fixed within the dielectric casing; a movable electrode disposed to face the stationary electrode, the movable electrode being slidable with respect to the dielectric casing; a main shield fixed to the dielectric casing to house the stationary electrode and the movable electrode therein; a stationary-side sub shield disposed at one side of the main shield in an axial direction, the stationary-side sub shield fixed to the dielectric casing; and a movable-side sub shield fixed to the dielectric casing, the movable-side sub shield facing the stationary-side sub shield, wherein an end of each of the stationary-side sub shield and the movable-side sub shield is inserted into the main shield to overlap the main shield by a predetermined length, wherein a curved portion (151, 162, 166) is formed at least at an end of the main shield, the stationary-side sub shield and the movable-side sub shield, and characterised in that the curved portion of the main shield is curved toward an inner circumferential surface of the dielectric casing, and the curved portion (162, 166) of each sub shield (161, 165) is curved toward a central line of the dielectric casing.
A connector, comprising: a metal shell, wherein the metal shell has top and bottom plates that are connected by left and right side portions, wherein the left side portion has a left latch hole, and wherein the right side portion has a right latch hole; characterized in that left and right sealing structures are attached respectively to the left and right side portions, wherein the left and right sealing structures each have a protruding portion that forms a cup and wherein the left and right sealing structures respectively moisture-seal the left and right latch holes. a metal shell, wherein the metal shell has top and bottom plates that are connected by left and right side portions, wherein the left side portion has a left latch hole, and wherein the right side portion has a right latch hole; characterized in that
A tip for a twist drill, comprising a super-hard structure joined to a substrate at an interface boundary coterminous with an end of the substrate, substantially the entire end of the substrate being joined to the super-hard structure, substantially no area of the end of the substrate being exposed; the super-hard structure comprising sintered polycrystalline material comprising super-hard grains, and defining a super-hard end surface opposite the interface boundary and a plurality of cutting edges configured for boring into a body in use, characterised in that the super-hard end surface is substantially conformal with the interface boundary and the super-hard structure has a mean thickness of between 0.3 and 3 millimetres; the super-hard end surface comprising a centre point or chisel edge at an apex; a first surface region depending from the apex and a second surface region depending from the first surface region, the first and second surface regions (15A, 15B) configured such that respective planes tangential to each of the surface regions (15A, 15B) are disposed at substantially different angles from an axis of rotation of the tip in use and at least 5 degrees with respect to each other.
A method for preparing a silica-modified catalyst support is described comprising: (i) applying an alkyl silicate solution to a porous support material in an amount to produce a silica content of the silica-modified catalyst support, expressed as Si, in the range 0.25 to 15% by weight, (ii) drying the resulting silicate-modified support and recovering a first alcoholic solution, (iii) optionally treating the dried silicate-modified support with water, drying the resulting water-treated support and recovering a second alcoholic solution, and (iv) calcining the dried material to form the silica-modified catalyst support, wherein the first alcoholic solution contains 0.05-10 vol% water and at least a portion of the first alcoholic solution is mixed with alkyl silicate to form the alkyl silicate solution, wherein the water content of the first alcoholic solution is controlled by pre-drying the porous support material to a water content ≤ 6.0 wt%, and/or by subjecting the first alcoholic solution to a dehydration step before mixing it with the alkyl silicate. (i) applying an alkyl silicate solution to a porous support material in an amount to produce a silica content of the silica-modified catalyst support, expressed as Si, in the range 0.25 to 15% by weight, (ii) drying the resulting silicate-modified support and recovering a first alcoholic solution, (iii) optionally treating the dried silicate-modified support with water, drying the resulting water-treated support and recovering a second alcoholic solution, and (iv) calcining the dried material to form the silica-modified catalyst support,
An adeno-associated virus vector comprising: (a) a first nucleic acid sequence encoding an engineered nuclease, said first nucleic acid sequence comprising, from 5' to 3', a first exon, a mammalian intron, and a second exon, wherein said mammalian intron is located within the coding sequence of said engineered nuclease; (b) a promoter operably linked to said first nucleic acid sequence, wherein said promoter is positioned 5' upstream of said first nucleic acid sequence and drives expression of said engineered nuclease in a target cell; and (c) a vector recognition sequence which is recognized and cleaved by said engineered nuclease. (a) a first nucleic acid sequence encoding an engineered nuclease, said first nucleic acid sequence comprising, from 5' to 3', a first exon, a mammalian intron, and a second exon, wherein said mammalian intron is located within the coding sequence of said engineered nuclease; (b) a promoter operably linked to said first nucleic acid sequence, wherein said promoter is positioned 5' upstream of said first nucleic acid sequence and drives expression of said engineered nuclease in a target cell; and (c) a vector recognition sequence which is recognized and cleaved by said engineered nuclease.
A film-forming composition comprising a triazine ring-containing hyperbranched polymer which includes a recurring unit structure of formula below wherein R and R' are each independently a hydrogen atom, an alkyl group, an alkoxy group, an aryl group or an aralkyl group, with the proviso that at least one of R and R' is a hydrogen atom; and Ar is a divalent organic group which includes one or both of an aromatic ring and a heterocycle, an organic solvent, and at least a dissolution promoter which breaks hydrogen bonds that have formed, within and/or between molecules of the hyperbranched polymer, between nitrogen atoms on the triazine ring and NH groups from a diarylamine, wherein the dissolution promoter is at least one selected from ion-exchanged water, ultrapure water, an acid and a base, and contains from 0.01 to 100 parts by weight (pbw) per 100 pbw of the triazine ring-containing hyperbranched polymer. wherein R and R' are each independently a hydrogen atom, an alkyl group, an alkoxy group, an aryl group or an aralkyl group, with the proviso that at least one of R and R' is a hydrogen atom; and Ar is a divalent organic group which includes one or both of an aromatic ring and a heterocycle, an organic solvent, and at least a dissolution promoter which breaks hydrogen bonds that have formed, within and/or between molecules of the hyperbranched polymer, between nitrogen atoms on the triazine ring and NH groups from a diarylamine, wherein the dissolution promoter is at least one selected from ion-exchanged water, ultrapure water, an acid and a base, and contains from 0.01 to 100 parts by weight (pbw) per 100 pbw of the triazine ring-containing hyperbranched polymer.
A method of making a coated article including a coating supported by a glass substrate, the method comprising: disposing a first dielectric layer on the substrate; disposing a first sub-barrier layer comprising one or more of Nb, Ti, Cr, and Zr over the dielectric layer; disposing a first barrier layer comprising a Ni-inclusive alloy over the first sub-barrier layer; disposing an IR reflecting layer comprising silver over and contacting the first barrier layer comprising an Ni-inclusive alloy; disposing a second barrier layer comprising a Ni-inclusive alloy over and contacting the IR reflecting layer; and disposing a second sub-barrier layer comprising one or more of Nb, Ti, Cr, and Zr over the Ni-inclusive barrier layer, wherein at least one of the first and second barrier layers comprises 54-58 wt. % Ni, 20-22.5 wt. % Cr, and 12.5-14.5 wt. % Mo. disposing a first dielectric layer on the substrate; disposing a first sub-barrier layer comprising one or more of Nb, Ti, Cr, and Zr over the dielectric layer; disposing a first barrier layer comprising a Ni-inclusive alloy over the first sub-barrier layer; disposing an IR reflecting layer comprising silver over and contacting the first barrier layer comprising an Ni-inclusive alloy; disposing a second barrier layer comprising a Ni-inclusive alloy over and contacting the IR reflecting layer; and
A method of handover in a wireless communications network, comprising: receiving, at a first base station (121, 131, 141, 200), a handover request message from a second base station (121, 131, 141, 200), wherein the handover request message includes an offloading indicator, the offloading indicator indicating an offloading request and whether the offloading request is for data traffic offloading or control traffic offloading; determining, in response to the handover request message, whether to accept the offloading request; and transmitting (716, 718), from the first base station to the second base station, a response message that indicates whether the offloading request is accepted. receiving, at a first base station (121, 131, 141, 200), a handover request message from a second base station (121, 131, 141, 200), wherein the handover request message includes an offloading indicator, the offloading indicator indicating an offloading request and whether the offloading request is for data traffic offloading or control traffic offloading; determining, in response to the handover request message, whether to accept the offloading request; and transmitting (716, 718), from the first base station to the second base station, a response message that indicates whether the offloading request is accepted.
A robot docking station (100, 1100, 1200, 1300, 1400) comprising: a station housing; a docking platform carried by the station housing and configured to support a robot when docked; a collection bin; a vacuum filter; and a cyclonic or other circulatory bagless vacuuming system configured to draw air and debris from the robot cleaning bin to deposit the debris into the debris bin using centripetal acceleration of debris to divert debris from an air flow or the vacuum filter, wherein the vacuum filter is removable from the robot docking station with the debris collection bin. a station housing; a docking platform carried by the station housing and configured to support a robot when docked; a collection bin; a vacuum filter; and a cyclonic or other circulatory bagless vacuuming system configured to draw air and debris from the robot cleaning bin to deposit the debris into the debris bin using centripetal acceleration of debris to divert debris from an air flow or the vacuum filter, wherein the vacuum filter is removable from the robot docking station with the debris collection bin.
A passenger seat, comprising: a seat frame; a seat bottom; a first hinge connected with the seat bottom at an aft portion of the seat bottom, wherein the seat bottom is operable to rotate, about the first hinge, between an initial position and a tilted position; a seat back; and a second hinge, wherein the seat back is operable to tilt aft, about the second hinge, from an upright position to a reclined position; characterized in that the first hinge is attached to the seat frame, the seat back being connected with the seat frame by way of the second hinge, and the first hinge and the second hinge are coaxial, and the passenger seat further comprises a release mechanism operably connected with the seat bottom or first hinge and operable, when actuated by a user, to release the seat bottom from a locked configuration to an unlocked configuration, wherein the seat bottom is free to rotate downward, independent of the seat back, about the first hinge from the initial position to the tilted position when released to the unlocked configuration. a seat frame; a seat bottom; a first hinge connected with the seat bottom at an aft portion of the seat bottom, wherein the seat bottom is operable to rotate, about the first hinge, between an initial position and a tilted position; a seat back; and a second hinge, wherein the seat back is operable to tilt aft, about the second hinge, from an upright position to a reclined position; characterized in that the first hinge is attached to the seat frame, the seat back being connected with the seat frame by way of the second hinge, and the first hinge and the second hinge are coaxial, and the passenger seat further comprises a release mechanism operably connected with the seat bottom or first hinge and operable, when actuated by a user, to release the seat bottom from a locked configuration to an unlocked configuration, wherein the seat bottom is free to rotate downward, independent of the seat back, about the first hinge from the initial position to the tilted position when released to the unlocked configuration.
A radiation detection element comprising an insulating member having a first surface and a second surface on the opposite side to the first surface; and a plurality of pixel electrodes, each pixel electrode comprising: a first electrode placed on the first surface of the insulating member and having an opening portion; and a second electrode placed at the opening portion of the first electrode; wherein the plurality of pixel electrodes is arrayed in a row direction and a column direction, and wherein an area ratio between the first electrode and the second electrode falls within a range of 14.5:1 to 154.6:1, characterized in that a pitch of the pixel electrodes in the row direction and the column direction is 380 μm or less. a first electrode placed on the first surface of the insulating member and having an opening portion; and a second electrode placed at the opening portion of the first electrode; wherein the plurality of pixel electrodes is arrayed in a row direction and a column direction, and wherein an area ratio between the first electrode and the second electrode falls within a range of 14.5:1 to 154.6:1, characterized in that a pitch of the pixel electrodes in the row direction and the column direction is 380 μm or less.
A method for producing human chimeric antigen receptor T (CAR-T) cells enriched with stem cell-like memory T-cells (Tscm), characterized in that, the method comprises: step providing human peripheral blood mononuclear cells (PBMCs); step positively selecting human T cells from the human PBMCs by forming human T cell-magnetic bead complexes, through mixing anti-CD3 and anti-CD28 antibodies coated magnetic beads with the human PBMCs; step culturing the human T cell-magnetic bead complexes for 16 hours to 20 hours for T cell activation to obtain activated human T cell-magnetic bead complexes; step adding CAR-expressing lentivirus to the activated human T cell-magnetic bead complexes for 40 hours to 48 hours, for transduction of human T cells into CAR-T cells on the human T cell-magnetic bead complexes to obtain human CAR-T cell-magnetic bead complexes; step obtaining human CAR-T cells by dissociating the human CAR-T cells from the human CAR-T cell-magnetic bead complexes; and step further culturing the human CAR-T cells for 92 hours to 96 hours to obtain the human CAR-T cells enriched with Tscm. step providing human peripheral blood mononuclear cells (PBMCs); step positively selecting human T cells from the human PBMCs by forming human T cell-magnetic bead complexes, through mixing anti-CD3 and anti-CD28 antibodies coated magnetic beads with the human PBMCs; step culturing the human T cell-magnetic bead complexes for 16 hours to 20 hours for T cell activation to obtain activated human T cell-magnetic bead complexes; step adding CAR-expressing lentivirus to the activated human T cell-magnetic bead complexes for 40 hours to 48 hours, for transduction of human T cells into CAR-T cells on the human T cell-magnetic bead complexes to obtain human CAR-T cell-magnetic bead complexes; step obtaining human CAR-T cells by dissociating the human CAR-T cells from the human CAR-T cell-magnetic bead complexes; and step further culturing the human CAR-T cells for 92 hours to 96 hours to obtain the human CAR-T cells enriched with Tscm.