mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a garment, including steps: (a) providing a first garment part layer and a second garment part layer, (b) manufacturing a garment part by fixedly engaging said first garment part layer with said second garment part layer and forming at least one opening at or along a peripheral portion (106, 108) thereof, (c) providing a garment component (136, 138a, 138b, 142, 146), and (d) positioning and fixedly engaging at least part of said garment component in said opening between said first garment part layer and said second garment part layer wherein, said at least part of said garment component is fixedly engaged with and between said first garment part layer and said second garment part layer along said peripheral portion by stitching, heat lamination, adhesion or a combination thereof, and characterized in that said garment part includes at least a first, second, third and fourth openings, and further including steps: (e) positioning and fixedly engaging at least part of a shoulder strap in said first opening, (f) positioning and fixedly engaging at least part of a gore member in said second opening, (g) positioning and fixedly engaging at least part of a wing member (138a, 138b) in said third opening, and (h) positioning and fixedly engaging at least part of a wire member in said fourth opening. (a) providing a first garment part layer and a second garment part layer, (b) manufacturing a garment part by fixedly engaging said first garment part layer with said second garment part layer and forming at least one opening at or along a peripheral portion (106, 108) thereof, (c) providing a garment component (136, 138a, 138b, 142, 146), and (d) positioning and fixedly engaging at least part of said garment component in said opening between said first garment part layer and said second garment part layer wherein, said at least part of said garment component is fixedly engaged with and between said first garment part layer and said second garment part layer along said peripheral portion by stitching, heat lamination, adhesion or a combination thereof, and characterized in that (e) positioning and fixedly engaging at least part of a shoulder strap in said first opening, (f) positioning and fixedly engaging at least part of a gore member in said second opening, (g) positioning and fixedly engaging at least part of a wing member (138a, 138b) in said third opening, and (h) positioning and fixedly engaging at least part of a wire member in said fourth opening.
A ladder system, comprising: - at least a first ladder segment; - a motorized displacement mechanism for displacing the ladder system in a longitudinal direction of a ridge of a roof, wherein the displacement mechanism comprises at least one motor (114a, 114b); and - a control system for controlling the at least one motor (114a, 114b) of the displacement mechanism, wherein the displacement mechanism comprises a plurality of displacement units (111, 112), including a first displacement unit attached at the top of the first ladder segment and a second displacement unit attached at the bottom of the first ladder segment, wherein each displacement unit (111, 112) comprises at least one motor (114a, 114b). - at least a first ladder segment; - a motorized displacement mechanism for displacing the ladder system in a longitudinal direction of a ridge of a roof, wherein the displacement mechanism comprises at least one motor (114a, 114b); and - a control system for controlling the at least one motor (114a, 114b) of the displacement mechanism,
A casing for supporting sampling cones for a pipetting system, the casing being intended to be stacked with other identical casings along a stacking direction, and comprising: - a support provided with ports for housing the sampling cones; and - first and second opposite flanks (14a, 14b) integral with the support and through which a median imaginary plane integrating the stacking direction passes, characterised in that each of the first and second opposite flanks (14a, 14b) is equipped with a mating female member as well as a mating male member arranged substantially symmetrically on either side of said median imaginary plane, both mating female members of the first and second opposite flanks (14a, 14b) being arranged on a same side of the median imaginary plane and both mating male members of the first and second opposite flanks being arranged on the other side of the median imaginary plane, and in that said mating male and female members (20, 18) are designed such that when two identical supporting casings are stacked along the stacking direction with an upper casing and a lower casing both having their male members on a same side of the median imaginary plane, the upper casing assumes a laid position in which it is not retained by the lower casing in the stacking direction, and also designed such that when the upper casing and the lower casing have their mating male members respectively on either side of the median imaginary plane, the upper casing assumes a retained position in which its two mating male members respectively cooperate with both mating female members of the lower casing. - a support provided with ports for housing the sampling cones; and - first and second opposite flanks (14a, 14b) integral with the support and through which a median imaginary plane integrating the stacking direction passes,
Motion control apparatus comprising, in combination: a mounting plate having an annular shape and having first and second, parallel, axially spaced planar faces; a bearing including rotational elements located between first and second races, with the first race connected to the first face of the mounting plate; a dial plate, with the second race connected to the dial plate; and an annular gear connected to the second race intermediate the mounting plate and the dial plate, with the first race being annular in shape having a first end and a second end spaced from the first end, with the second race being annular in shape having first and second, spaced, endings, characterized by the first end being planar and abutting with the first planar face of the mounting plate, with the second race having L-shaped, radial cross sections including a first, radially extending leg including the first ending and a second axially extending leg including the second ending and integrally extending as a single, non-separable piece from the first leg, with the first and second legs defining a mounting pilot for the annular gear.
Arrangement comprising an internal combustion engine and a thermal management system for the feeding of fuel into the internal combustion engine having a heat exchanger for the feeding of fuel in the internal combustion engine, the internal combustion engine being provided with a cooling water circuit having an inlet connected to an outlet of a water radiator, and an outlet; and with a lubricant oil circuit having an inlet and an outlet, wherein the heat exchanger comprises a first and a second stage (E1, E2), each having an inlet and an outlet of water (41a, 41b; 43a; 43b), the second stage having an inlet and an outlet of oil (44a, 44b), the first stage being provided with fuel inlet and outlet nozzles (42a, 42b) arranged in parallel and selectively connected to the fuel supply to the engine; the inlet and outlet of water (41a, 41b) of the first stage being respectively connected to the outlet of the water radiator, by means of the cooling water circuit, and to the water inlet of the second stage; the water outlet of the second stage being connected to the inlet of the water radiator, and the inlet and outlet of oil (44a, 44b) in the second stage being connected in series to the lubricant oil circuit, characterized in that: the water inlet of the first stage is connected to the outlet of the cooling water circuit by a return conduit, the water outlet of the first stage being connected to the water inlet of the second stage by an interconnection conduit, the water outlet of the second stage being connected to the inlet of the water radiator, by a hot water conduit; each of the interconnection conduit and the hot water conduit comprise a median segment (26, 27) provided inside the engine, each median segment (26, 27) being defined by at least part of the extension of the respective conduit and presenting an inlet (26a, 27a) and an outlet (26b, 27b) open to the outside of the engine; the inlet and outlet of oil of the second stage is connected to the lubricant oil circulation circuit by means of respective oil conduits (33, 34); the water outlet of the first stage is seated against the engine and maintained in fluid communication with the inlet and with the outlet of the median segment of the interconnection conduit, the water outlet of the second stages being seated against the engine and maintained in fluid communication with the inlet of the median segment of the hot water conduit, the inlet and outlet of oil (44a, 44b) of the second stage being seated against the engine and maintained in fluid communication with the lubricant oil circuit by means of the oil conduits (33, 34).
A portable fluorescent lighting system comprising: a) an elongated corrugated panel, said panel including a center subpanel, a pair of inner subpanels (11,13), each adjacent to opposite sides of said center subpanel and a pair of outer subpanels (10,14), each outer subpanel adjacent to a corresponding one of said inner subpanels; characterized in that it further comprises: b) a first U channel coupled to said center subpanel and said inner subpanels (11,13) at one end thereof; c) a second U channel coupled to said center subpanel and said inner subpanels (11,13) at a second end thereof, said first and second U channels configured to engage said ends of said center subpanel and said pair of inner subpanels (11,13); d) a first pair of U channels coupled to opposite ends of a first one of said outer subpanels (10,14); e) a second pair of U channels coupled to opposite ends of a second one of said outer subpanels (10,14); f) a first pair of retention hinges coupled to said first U channel and said first pair of U channels; g) a second pair of retention hinges coupled to said second U channel and said second pair of U channels. a) an elongated corrugated panel, said panel including a center subpanel, a pair of inner subpanels (11,13), each adjacent to opposite sides of said center subpanel and a pair of outer subpanels (10,14), each outer subpanel adjacent to a corresponding one of said inner subpanels; b) a first U channel coupled to said center subpanel and said inner subpanels (11,13) at one end thereof; c) a second U channel coupled to said center subpanel and said inner subpanels (11,13) at a second end thereof, said first and second U channels configured to engage said ends of said center subpanel and said pair of inner subpanels (11,13); d) a first pair of U channels coupled to opposite ends of a first one of said outer subpanels (10,14); e) a second pair of U channels coupled to opposite ends of a second one of said outer subpanels (10,14); f) a first pair of retention hinges coupled to said first U channel and said first pair of U channels; g) a second pair of retention hinges coupled to said second U channel and said second pair of U channels.
A radio communication system comprising: a first base station that manages a first cell; a second base station that manages a second cell; and a radio terminal that supports dual connectivity involving a bearer split in which a first network bearer between the radio terminal and a core network is split over the first base station and the second base station, wherein the first base station is configured to receive, from the second base station, bearer split status information about communication of the first network bearer in the second base station, and to perform control of an access stratum related to the first network bearer, and wherein the control of the access stratum includes control of a Logical Channel Prioritization, LCP, procedure for generating, in the radio terminal, at least one of a first Medium Access Control Protocol Data Unit, MAC PDU, for uplink transmission in a first cell managed by the first base station and a second MAC PDU for uplink transmission in a second cell managed by the second base station, characterized in that the control of the LCP procedure includes adjusting a Prioritized Bit Rate, PBR, applied to an uplink logical channel of a second network bearer transmitted via the first cell without being subjected to the bearer split. a first base station that manages a first cell; a second base station that manages a second cell; and a radio terminal that supports dual connectivity involving a bearer split in which a first network bearer between the radio terminal and a core network is split over the first base station and the second base station, wherein the first base station is configured to receive, from the second base station, bearer split status information about communication of the first network bearer in the second base station, and to perform control of an access stratum related to the first network bearer, and wherein the control of the access stratum includes control of a Logical Channel Prioritization, LCP, procedure for generating, in the radio terminal, at least one of a first Medium Access Control Protocol Data Unit, MAC PDU, for uplink transmission in a first cell managed by the first base station and a second MAC PDU for uplink transmission in a second cell managed by the second base station, characterized in that the control of the LCP procedure includes adjusting a Prioritized Bit Rate, PBR, applied to an uplink logical channel of a second network bearer transmitted via the first cell without being subjected to the bearer split.
An automobile urea tank forming method, comprising the following steps: 1) producing an upper half casing and a lower half casing through an injection molding method; 2) after the upper half casing and the lower half casing are formed, assembling built-in parts of the upper half casing and the lower half casing; 3) welding the assembled upper half casing and the assembled lower half casing to form a whole; and 4) assembling components on surfaces of the upper half casing and the lower half casing, wherein in step 1, in the injection molding process, a baffle and a tank body surface component assembling structure are injection molded with the upper half casing; a fender assembling screw and a sensor port welding structure are injection molded with the lower half casing; alternatively, a tank body surface component assembling structure is injection molded with the upper half casing; and a baffle, a fender assembling screw, and a sensor port welding structure are injection molded with the lower half casing; and in step 2, a built-in pump assembly of the sensor port welding structure is welded onto the lower half casing, wherein during the process of welding the built-in pump assembly of the sensor port welding structure onto the lower half casing, barriers for enhancing stability of the lower half casing are provided on an inner wall of the lower half casing, and the barriers are removed after the welding. 1) producing an upper half casing and a lower half casing through an injection molding method; 2) after the upper half casing and the lower half casing are formed, assembling built-in parts of the upper half casing and the lower half casing; 3) welding the assembled upper half casing and the assembled lower half casing to form a whole; and 4) assembling components on surfaces of the upper half casing and the lower half casing, wherein in step 1, in the injection molding process, a baffle and a tank body surface component assembling structure are injection molded with the upper half casing; a fender assembling screw and a sensor port welding structure are injection molded with the lower half casing; alternatively, a tank body surface component assembling structure is injection molded with the upper half casing; and a baffle, a fender assembling screw, and a sensor port welding structure are injection molded with the lower half casing; and
An image heating apparatus comprising: a rotatable image heating member, including an electroconductive layer, for heating a recording material by heat; a coil, disposed outside said image heating member, for generating magnetic flux for generating heat in the electroconductive layer, said coil having an end, with respect to a rotational axis direction of said image heating member, located outside an end of said image heating member with respect to the rotational axis direction; a pressing member, contacting an outer surface of said image heating member, for forming a nip in which the recording material is to be nipped and conveyed; a metal member, pressing an inner surface of said image heating member, for pressing said pressing member through said image heating member, said metal member having an end located outside the end of said image heating member with respect to the rotational axis direction; and magnetic flux confining means, disposed inside said image heating member and between said coil and said metal member, for confining the magnetic flux from said coil so as not to extend toward said metal member, wherein said magnetic flux confining means has an end located outside the end of said image heating member with respect to the rotational axis direction, characterized in that the end of said metal member is located outside the end of said coil with respect to the rotational axis direction. a rotatable image heating member, including an electroconductive layer, for heating a recording material by heat; a coil, disposed outside said image heating member, for generating magnetic flux for generating heat in the electroconductive layer, said coil having an end, with respect to a rotational axis direction of said image heating member, located outside an end of said image heating member with respect to the rotational axis direction; a pressing member, contacting an outer surface of said image heating member, for forming a nip in which the recording material is to be nipped and conveyed; a metal member, pressing an inner surface of said image heating member, for pressing said pressing member through said image heating member, said metal member having an end located outside the end of said image heating member with respect to the rotational axis direction; and magnetic flux confining means, disposed inside said image heating member and between said coil and said metal member, for confining the magnetic flux from said coil so as not to extend toward said metal member, wherein
Holster for a handgun having a trigger guard and a barrel, which comprises: - a housing for the handgun comprising a top opening for the passage of at least part of the handgun; - a wedge for holding the handgun in the housing; - a first push-button for positioning the wedge: - in a position referred to as the "retention" position, in which the wedge is positioned in the trigger guard so as to prevent the handgun from being extracted from the housing when the first button is released; or - in a position referred to as the "released" position, in which the wedge is positioned out of the trigger guard when the first button is engaged; characterized in that it comprises: - a flap, mounted to rotate about a hinge positioned along a long side of a transverse opening of the housing, said transverse opening being positioned facing the top portion of the barrel, and forming: - in what is referred to as a "closed" position, a face that covers the transverse opening; and - in what is referred to as an "open" position, a guide for the sliding of the handgun toward the transverse opening; and - a second push-button for opening the flap, which opens the flap when the second button is engaged. - a housing for the handgun comprising a top opening for the passage of at least part of the handgun; - a wedge for holding the handgun in the housing; - a first push-button for positioning the wedge: - in a position referred to as the "retention" position, in which the wedge is positioned in the trigger guard so as to prevent the handgun from being extracted from the housing when the first button is released; or - in a position referred to as the "released" position, in which the wedge is positioned out of the trigger guard when the first button is engaged; - in a position referred to as the "retention" position, in which the wedge is positioned in the trigger guard so as to prevent the handgun from being extracted from the housing when the first button is released; or - in a position referred to as the "released" position, in which the wedge is positioned out of the trigger guard when the first button is engaged; - a flap, mounted to rotate about a hinge positioned along a long side of a transverse opening of the housing, said transverse opening being positioned facing the top portion of the barrel, and forming: - in what is referred to as a "closed" position, a face that covers the transverse opening; and - in what is referred to as an "open" position, a guide for the sliding of the handgun toward the transverse opening; and - in what is referred to as a "closed" position, a face that covers the transverse opening; and - in what is referred to as an "open" position, a guide for the sliding of the handgun toward the transverse opening; and - a second push-button for opening the flap, which opens the flap when the second button is engaged.
Trivalent construct that essentially consists of three immunoglobulin single variable domains that can specifically bind to F protein of RSV, wherein the immunoglobulin single variable domains specifically bind the same antigenic determinant, epitope, part or domain of F protein of RSV and essentially consist of 4 framework regions (FR1 to FR4, respectively) and 3 complementarity determining regions (CDR1 to CDR3, respectively), in which: - CDR1 is the amino acid sequence NYVLG (SEQ ID NO: 2595); and - CDR2 is the amino acid sequence AINWRGDITIGPPNVEG (SEQ ID NO: 2611); and - CDR3 is the amino acid sequence GTPLNPGAYIYDWSYDY (SEQ ID NO: 2627); or - CDR1 is the amino acid sequence NYVLG (SEQ ID NO: 935); and - CDR2 is the amino acid sequence AISFRGDSAIGAPSVEG (SEQ ID NO: 1499); and - CDR3 is the amino acid sequence GTPLNPGAYIYDWSYDY (SEQ ID NO: 2063); or - CDR1 is the amino acid sequence SYAMG (SEQ ID NO: 918); and - CDR2 is the amino acid sequence AISWSDGSTYYADSVKG (SEQ ID NO: 1482); and - CDR3 is the amino acid sequence DLTSTNPGSYIYIWAYDY (SEQ ID NO: 2046). - CDR1 is the amino acid sequence NYVLG (SEQ ID NO: 2595); and - CDR2 is the amino acid sequence AINWRGDITIGPPNVEG (SEQ ID NO: 2611); and - CDR3 is the amino acid sequence GTPLNPGAYIYDWSYDY (SEQ ID NO: 2627); or - CDR1 is the amino acid sequence NYVLG (SEQ ID NO: 2595); and - CDR2 is the amino acid sequence AINWRGDITIGPPNVEG (SEQ ID NO: 2611); and - CDR3 is the amino acid sequence GTPLNPGAYIYDWSYDY (SEQ ID NO: 2627); or - CDR1 is the amino acid sequence NYVLG (SEQ ID NO: 935); and - CDR2 is the amino acid sequence AISFRGDSAIGAPSVEG (SEQ ID NO: 1499); and - CDR3 is the amino acid sequence GTPLNPGAYIYDWSYDY (SEQ ID NO: 2063); or - CDR1 is the amino acid sequence NYVLG (SEQ ID NO: 935); and - CDR2 is the amino acid sequence AISFRGDSAIGAPSVEG (SEQ ID NO: 1499); and - CDR3 is the amino acid sequence GTPLNPGAYIYDWSYDY (SEQ ID NO: 2063); or - CDR1 is the amino acid sequence SYAMG (SEQ ID NO: 918); and - CDR2 is the amino acid sequence AISWSDGSTYYADSVKG (SEQ ID NO: 1482); and - CDR3 is the amino acid sequence DLTSTNPGSYIYIWAYDY (SEQ ID NO: 2046). - CDR1 is the amino acid sequence SYAMG (SEQ ID NO: 918); and - CDR2 is the amino acid sequence AISWSDGSTYYADSVKG (SEQ ID NO: 1482); and - CDR3 is the amino acid sequence DLTSTNPGSYIYIWAYDY (SEQ ID NO: 2046).