mhurhangee/ep-ind-claims huggingface dataset:
A syringe nest assembly (10, 100, 200) comprising: a base (16, 106, 206) having a first surface (16a, 106a, 206a) and an opposing second surface (16b, 106b, 206b), the base (16, 106, 206) comprising a plurality of nesting units (18, 108, 208) extending upwardly away from the first surface (16a, 106a, 206a) of the base (16, 106, 206), each nesting unit (18, 108, 208) comprising a hollow body (19, 109, 209) having a first open end (19a, 109a, 209a) distal from the first surface (16a, 106a, 206a) of the base (16, 106, 206) and an opposing second open end (19b, 109b, 209b); a first plate (14, 104, 204) movably coupled to the base (16, 106, 206), the first plate (14, 104, 204) having a generally planar form, a first surface (14a, 104a, 204a) and an opposing second surface (14b, 104b, 204b), the first plate (14, 104, 204) being slidable relative to the base (16, 106, 206) along a longitudinal axis parallel to edges (40, 42, 140, 142, 240, 242) of the base (16, 106, 206), the first plate (14, 104, 204) comprising a plurality of apertures (60, 160, 260) extending from the first surface (14a, 104a, 204a) to the second surface (14b, 104b, 204b) of the first plate (14, 104, 204), each aperture (60, 160, 260) of the first plate (14, 104, 204) being generally aligned with a respective nesting unit (18, 108, 208) of the base (16, 106, 206); and a syringe (34, 134) positioned within at least two adjacent apertures (60, 160) of the plurality of apertures (60, 160), wherein sliding of the first plate (14, 104) relative to the base (16, 106) results in centering of the syringes (34, 134). a base (16, 106, 206) having a first surface (16a, 106a, 206a) and an opposing second surface (16b, 106b, 206b), the base (16, 106, 206) comprising a plurality of nesting units (18, 108, 208) extending upwardly away from the first surface (16a, 106a, 206a) of the base (16, 106, 206), each nesting unit (18, 108, 208) comprising a hollow body (19, 109, 209) having a first open end (19a, 109a, 209a) distal from the first surface (16a, 106a, 206a) of the base (16, 106, 206) and an opposing second open end (19b, 109b, 209b); a first plate (14, 104, 204) movably coupled to the base (16, 106, 206), the first plate (14, 104, 204) having a generally planar form, a first surface (14a, 104a, 204a) and an opposing second surface (14b, 104b, 204b), the first plate (14, 104, 204) being slidable relative to the base (16, 106, 206) along a longitudinal axis parallel to edges (40, 42, 140, 142, 240, 242) of the base (16, 106, 206), the first plate (14, 104, 204) comprising a plurality of apertures (60, 160, 260) extending from the first surface (14a, 104a, 204a) to the second surface (14b, 104b, 204b) of the first plate (14, 104, 204), each aperture (60, 160, 260) of the first plate (14, 104, 204) being generally aligned with a respective nesting unit (18, 108, 208) of the base (16, 106, 206); and a syringe (34, 134) positioned within at least two adjacent apertures (60, 160) of the plurality of apertures (60, 160), wherein sliding of the first plate (14, 104) relative to the base (16, 106) results in centering of the syringes (34, 134).
An arrangement of means for attaching an element such as a roof bar on a double-walled structure such as the roof of a motor vehicle, the attachment means including, for each attachment point of the element on the structure, an attachment shaft which passes through a first of the two walls (21, 22) of the structure by a first orifice to come to rest on the second of the two walls (21, 22), and a screw/nut assembly, the screw of which is housed in the interior of the attachment shaft and goes beyond the two opposite ends of the attachment shaft so as to pass through the second wall of the structure by a second orifice, the attachment shaft having a play between the screw of the screw/nut assembly and an interior face of the attachment shaft, with an exterior diameter of the attachment shaft which is substantially equal to the diameter of the first orifice, such that the attachment shaft passes through the first orifice substantially without play, characterized in that the attachment shaft is integral with the element.
A vacuum pump including: a base; a rotor that has a rotor cylindrical portion stored in the base and is supported rotatably on the base; a stator that has a substantially cylindrical shape and is disposed between the base and the rotor cylindrical portion; a thread groove portion that is engraved on either an outer circumferential surface of the rotor cylindrical portion or an inner circumferential surface of the stator; a heat insulating means for insulating the stator from stator components other than the stator; and a heating means for heating the stator, wherein a distance between the rotor cylindrical portion and the stator at an inlet port side is set to be equal to or greater than a distance between the rotor cylindrical portion and the stator at an outlet port side, and characterized in that the heat insulating means includes a flange portion that comes into contact with the stator in a rotor axial direction, and a spacer cylindrical portion that comes into contact with the base in a rotor axial direction and is provided on an inner circumferential rim of the flange portion, the heat insulating means is a spacer for storing the heating means in the flange portion, and the spacer is a member having a linear expansion coefficient lower than a linear expansion coefficient of the stator. a base; a rotor that has a rotor cylindrical portion stored in the base and is supported rotatably on the base; a stator that has a substantially cylindrical shape and is disposed between the base and the rotor cylindrical portion; a thread groove portion that is engraved on either an outer circumferential surface of the rotor cylindrical portion or an inner circumferential surface of the stator; a heat insulating means for insulating the stator from stator components other than the stator; and a heating means for heating the stator, wherein a distance between the rotor cylindrical portion and the stator at an inlet port side is set to be equal to or greater than a distance between the rotor cylindrical portion and the stator at an outlet port side, and characterized in that the heat insulating means includes a flange portion that comes into contact with the stator in a rotor axial direction, and a spacer cylindrical portion that comes into contact with the base in a rotor axial direction and is provided on an inner circumferential rim of the flange portion, the heat insulating means is a spacer for storing the heating means in the flange portion, and the spacer is a member having a linear expansion coefficient lower than a linear expansion coefficient of the stator.
A lateral flow assay device (400; 500; 800; 900; 1000) comprising: a non-porous substrate (40; 1002) having a top surface (44; 1005); a sample addition area including a cover (240; 1040) having an aperture and a filter peripherally supported within the aperture configured for adding a sample fluid, the cover (240; 1040) being disposed above the substrate (40; 1002) and defining a spacing therebetween, the supported filter including a portion in direct contact with the top surface (44; 1005) of the substrate (40; 1002) and creating a peripheral reservoir (425; 1004) of sample fluid that passes through the filter, said peripheral reservoir (425; 1004) being retained by capillary forces between the filter and the substrate (40; 1002) that retains a volume of fluid sample; and a sample receiving zone (448; 548; 1008) extending along a portion of the substrate (40; 1002) and into contact with only a portion of the peripheral reservoir (425; 1004), the sample receiving zone (448; 548; 1008) being configured to create capillary pressure for drawing fluid from said peripheral reservoir (425; 1004) without disturbing the integrity of the reservoir (425; 1004), in which the filter includes a surface section extending between the portion directly contacting the substrate (40; 1002) and a supporting edge of the cover aperture, said surface section forming an angle α with the top surface of the substrate (40; 1002). a non-porous substrate (40; 1002) having a top surface (44; 1005); a sample addition area including a cover (240; 1040) having an aperture and a filter peripherally supported within the aperture configured for adding a sample fluid, the cover (240; 1040) being disposed above the substrate (40; 1002) and defining a spacing therebetween, the supported filter including a portion in direct contact with the top surface (44; 1005) of the substrate (40; 1002) and creating a peripheral reservoir (425; 1004) of sample fluid that passes through the filter, said peripheral reservoir (425; 1004) being retained by capillary forces between the filter and the substrate (40; 1002) that retains a volume of fluid sample; and a sample receiving zone (448; 548; 1008) extending along a portion of the substrate (40; 1002) and into contact with only a portion of the peripheral reservoir (425; 1004), the sample receiving zone (448; 548; 1008) being configured to create capillary pressure for drawing fluid from said peripheral reservoir (425; 1004) without disturbing the integrity of the reservoir (425; 1004), in which the filter includes a surface section extending between the portion directly contacting the substrate (40; 1002) and a supporting edge of the cover aperture, said surface section forming an angle α with the top surface of the substrate (40; 1002).
Accumulator for a power tool, having a rechargeable battery with a charge state circuit comprising an evaluation unit for evaluating the charge state of the battery and a charge state display, wherein an activation switch operable by an operator and intended for activating the charge state circuit is provided, and the charge state circuit comprises a sensor which is embodied in the form of an NTC and can be used to determine whether the battery is being charged or discharged, wherein the sensor is coupled to the evaluation unit, and wherein an interlock switch for preventing the display of the charge state is furthermore provided, wherein the interlock switch is coupled to the evaluation unit, and wherein the evaluation unit deactivates the interlock switch if it is not identified that the battery is being charged or discharged, and therefore the charge state circuit displays the current charge state of the battery depending on the switching state of the activation switch.
Adaptive bumper arrangement having a bumper crossmember which is divided into bumper sections by way of at least one joint and comprises, in each case on the end side in a main extent direction, an extension element which can be telescoped by way of an associated actuating device, the actuating device comprising an actuating means which is mounted with a variable location by means of the bumper crossmember and, in the case of a movement, interacts with an actuator of the actuating device in order to extend the extension element on the end side.
A medical device for use with a filler material for occupying a space within a patient's body, the medical device comprising: a device assembly comprising an enclosed reservoir that is fluid impermeable, a fluid transfer member, and a release section comprising an elongated structure extending into the reservoir, wherein the elongated structure provides a fluid path out of the enclosed reservoir; where the fluid transfer member is configured to permit delivery of the filler material into the reservoir to expand the device assembly towards an active profile; a release material located within the reservoir to temporarily seal off the release section causing the release section to form a physical barrier to prevent fluid flow through the fluid path of the release section and protect the release material from a local environment within the patient's body; and the release material and the filler material being such that exposure of the release material to the filler material causes degradation of the release material over time such that reduction of the structural integrity of the release material opens the elongated structure to open the fluid path to allow migration of the filler material from the reservoir. a device assembly comprising an enclosed reservoir that is fluid impermeable, a fluid transfer member, and a release section comprising an elongated structure extending into the reservoir, wherein the elongated structure provides a fluid path out of the enclosed reservoir; where the fluid transfer member is configured to permit delivery of the filler material into the reservoir to expand the device assembly towards an active profile; a release material located within the reservoir to temporarily seal off the release section causing the release section to form a physical barrier to prevent fluid flow through the fluid path of the release section and protect the release material from a local environment within the patient's body; and the release material and the filler material being such that exposure of the release material to the filler material causes degradation of the release material over time such that reduction of the structural integrity of the release material opens the elongated structure to open the fluid path to allow migration of the filler material from the reservoir.
A monitoring device with a sensor system which is designed to detect objects in a monitoring area, and with an evaluation unit which is designed to evaluate sensor signals from the sensor system, wherein the monitoring device forms a safety system for safeguarding a danger area of an installation, and a safety function is only triggered in the evaluation unit if a safety-critical object is detected in the monitoring area, wherein the installation goes into standby mode as a safety function, if a safety-critical object is detected in the monitoring area, characterised in that the sensor system consists exclusively of radar sensors, whereby non-safety-critical objects and safety-critical objects are distinguished by a time-resolved evaluation of the sensor signals of the radar sensor or sensors.
A method of producing a negative electrode for a lithium secondary battery, comprising: applying a negative electrode active material layer on a negative electrode current collector; forming a lithium metal pattern on a polymer release film; disposing the lithium metal pattern on the negative electrode active material layer so that the lithium metal pattern formed on the polymer release film is in contact with the negative electrode active material layer; pressing a resultant; removing the polymer release film from the resultant to produce a negative electrode loaded with a lithium metal pattern; and pre-lithiating the negative electrode by impregnating the negative electrode loaded with the lithium metal pattern with a pre-lithiation solution, wherein lithium in the lithium metal pattern is ionized through pre-lithiation and diffused into the negative electrode active material layer, wherein, in the negative electrode, lithium metal is ionized and diffused into the negative electrode active material layer, thereby forming a line-shaped concave portion in a place where the lithium metal pattern was. applying a negative electrode active material layer on a negative electrode current collector; forming a lithium metal pattern on a polymer release film; disposing the lithium metal pattern on the negative electrode active material layer so that the lithium metal pattern formed on the polymer release film is in contact with the negative electrode active material layer; pressing a resultant; removing the polymer release film from the resultant to produce a negative electrode loaded with a lithium metal pattern; and pre-lithiating the negative electrode by impregnating the negative electrode loaded with the lithium metal pattern with a pre-lithiation solution, wherein lithium in the lithium metal pattern is ionized through pre-lithiation and diffused into the negative electrode active material layer, wherein, in the negative electrode, lithium metal is ionized and diffused into the negative electrode active material layer, thereby forming a line-shaped concave portion in a place where the lithium metal pattern was.
A therapeutic peptide, which is (a) selected from the group consisting of: SEQ ID NO:1, SEQ ID NO:5, SEQ ID NO:12, SEQ ID NO:15 (LD10 R9A), SEQ ID NO:17 (LD10 P15A), SEQ ID NO:21, SEQ ID NO:22 (LD17m), SEQ ID NO:24 (LD10da), SEQ ID NO:29 (LD01 TQ19 aa), SEQ ID NO:30 (LD01 TQ19 da), SEQ ID NO:36 (peptide LD01(u)), SEQ ID NO:37 (peptide LD17m(u)), and SEQ ID NO:38 (peptide LD01 TQ19(u); or (b) selected from the group consisting of SEQ ID NO:1, SEQ ID NO:5, SEQ ID NO:12, SEQ ID NO: 15 (LD10 R9A), SEQ ID NO:17 (LD10 P15A), SEQ ID NO:21, SEQ ID NO:22 (LD17m), SEQ ID NO:24 (LD10da), SEQ ID NO:29 (LD01 TQ19 aa), and SEQ ID NO:30 (LD01 TQ19 da), SEQ ID NO:7, SEQ ID NO:8, and SEQ ID NO:11 (LD01r), SEQ ID NO:36 peptide a), SEQ ID NO:37 (peptide LD17m(u)), and SEQ ID NO:38 (peptide LD01 TQ19(u)), wherein the therapeutic peptide comprises one or more modifications selected from the group consisting of C-terminal amidation, N-terminal acetylation, and replacement of at least one L-amino acid with the corresponding D-amino acid; or (c) selected from the group consisting of SEQ ID NO:1, SEQ ID NO:5, SEQ ID NO:12, SEQ ID NO: 15 (LD10 R9A), SEQ ID NO:17 (LD10 P15A), SEQ ID NO:21, SEQ ID NO:22 (LD17m), SEQ ID NO:29 (LD01 TQ19 aa), SEQ ID NO:7, SEQ ID NO:8, and SEQ ID NO:11 (LD01r), SEQ ID NO:36 (peptide LD01(u)), SEQ ID NO:37 (peptide LD17m(u)), and SEQ ID NO:38 (peptide LD01 TQ19(u)), wherein the N-terminal amino acid is a D amino acid. (a) selected from the group consisting of: SEQ ID NO:1, SEQ ID NO:5, SEQ ID NO:12, SEQ ID NO:15 (LD10 R9A), SEQ ID NO:17 (LD10 P15A), SEQ ID NO:21, SEQ ID NO:22 (LD17m), SEQ ID NO:24 (LD10da), SEQ ID NO:29 (LD01 TQ19 aa), SEQ ID NO:30 (LD01 TQ19 da), SEQ ID NO:36 (peptide LD01(u)), SEQ ID NO:37 (peptide LD17m(u)), and SEQ ID NO:38 (peptide LD01 TQ19(u); or (b) selected from the group consisting of SEQ ID NO:1, SEQ ID NO:5, SEQ ID NO:12, SEQ ID NO: 15 (LD10 R9A), SEQ ID NO:17 (LD10 P15A), SEQ ID NO:21, SEQ ID NO:22 (LD17m), SEQ ID NO:24 (LD10da), SEQ ID NO:29 (LD01 TQ19 aa), and SEQ ID NO:30 (LD01 TQ19 da), SEQ ID NO:7, SEQ ID NO:8, and SEQ ID NO:11 (LD01r), SEQ ID NO:36 peptide a), SEQ ID NO:37 (peptide LD17m(u)), and SEQ ID NO:38 (peptide LD01 TQ19(u)), wherein the therapeutic peptide comprises one or more modifications selected from the group consisting of C-terminal amidation, N-terminal acetylation, and replacement of at least one L-amino acid with the corresponding D-amino acid; or (c) selected from the group consisting of SEQ ID NO:1, SEQ ID NO:5, SEQ ID NO:12, SEQ ID NO: 15 (LD10 R9A), SEQ ID NO:17 (LD10 P15A), SEQ ID NO:21, SEQ ID NO:22 (LD17m), SEQ ID NO:29 (LD01 TQ19 aa), SEQ ID NO:7, SEQ ID NO:8, and SEQ ID NO:11 (LD01r), SEQ ID NO:36 (peptide LD01(u)), SEQ ID NO:37 (peptide LD17m(u)), and SEQ ID NO:38 (peptide LD01 TQ19(u)), wherein the N-terminal amino acid is a D amino acid.
A smoking article (100, 200, 700, 800, 900) comprising: a heat source (104, 204, 504, 704, 804, 904) configured to generate heat upon ignition thereof; a substrate material (106, 108, 206, 208, 706, 806, 906, 908) having opposed first and second ends, the heat source being disposed proximate the first end of the substrate material, and the substrate material having an aerosol precursor composition associated therewith; a mouthpiece (114, 214, 714, 814, 914), the mouthpiece being disposed proximate the second end of the substrate material; and a heat transfer component (105, 205, 705, 805, 905) comprising a hollow structure and including opposing first and seconds flanges (124, 126) located on respective ends thereof, wherein the hollow structure of the heat transfer component extends through the heat source such that the heat source is located between the first and second opposing flanges of the heat transfer component, and wherein the hollow structure is configured to permit the passage of air therethrough. a heat source (104, 204, 504, 704, 804, 904) configured to generate heat upon ignition thereof; a substrate material (106, 108, 206, 208, 706, 806, 906, 908) having opposed first and second ends, the heat source being disposed proximate the first end of the substrate material, and the substrate material having an aerosol precursor composition associated therewith; a mouthpiece (114, 214, 714, 814, 914), the mouthpiece being disposed proximate the second end of the substrate material; and a heat transfer component (105, 205, 705, 805, 905) comprising a hollow structure and including opposing first and seconds flanges (124, 126) located on respective ends thereof, wherein the hollow structure of the heat transfer component extends through the heat source such that the heat source is located between the first and second opposing flanges of the heat transfer component, and wherein the hollow structure is configured to permit the passage of air therethrough.
Windscreen wiper device for a motor vehicle, in particular for a front window wiper, with a wiper motor which is inserted into a housing basic body, wherein the housing basic body has a housing section for the electrical contact connection of the wiper motor, on which housing section a connecting plug or a connecting socket is provided, characterized in that the connecting plug or the connecting socket is arranged releaseably on the housing section and is fastenable thereon in at least two plug-in positions, wherein a plurality of cooling and stiffening ribs (8, 9) are provided on the housing section.
Process for producing furan-2,5-dicarboxylic acid, including the oxidation of 5-hydroxymethylfurfural in a liquid reaction mixture in a one-pot process or in a continuous flow process; wherein a metal hypohalite salt is used as oxidizing agent and the 5-hydroxymethylfurfural starting material is a raw material obtained from biomass in the hydrothermal carbonization of hexoses or hexose-containing materials in the form of an aqueous solution or dispersion.
A display device comprising: a display panel; a frame at a rear of the display panel, the frame including a bottom and a sidewall extending from the bottom; a substrate on the frame; a light source mounted on the substrate; a lens (300, 124b) mounted on the light source, wherein the lens (300, 124b) includes an upper surface, a lower surface, and a side surface connected with the upper surface and the lower surface, wherein the lower surface of the lens (300, 124b) includes a groove in which the light source is inserted and at least one leg; a ring-shaped reflecting layer (126d, 126bb) between the substrate and the lens (300, 124b), wherein the ring-shaped reflecting layer (126d, 126bb) forms an outer peripheral area surrounding the light source; characterized in that the light source is configured to emit light having a directivity in predetermined lateral directions, and that a plurality of dots are formed on portions of the outer peripheral area of the ring-shaped reflecting layer, the portions of the outer peripheral area forming dot areas only in the predetermined lateral directions. a display panel; a frame at a rear of the display panel, the frame including a bottom and a sidewall extending from the bottom; a substrate on the frame; a light source mounted on the substrate; a lens (300, 124b) mounted on the light source, wherein the lens (300, 124b) includes an upper surface, a lower surface, and a side surface connected with the upper surface and the lower surface, wherein the lower surface of the lens (300, 124b) includes a groove in which the light source is inserted and at least one leg; a ring-shaped reflecting layer (126d, 126bb) between the substrate and the lens (300, 124b), wherein the ring-shaped reflecting layer (126d, 126bb) forms an outer peripheral area surrounding the light source; characterized in that the light source is configured to emit light having a directivity in predetermined lateral directions, and that a plurality of dots are formed on portions of the outer peripheral area of the ring-shaped reflecting layer, the portions of the outer peripheral area forming dot areas only in the predetermined lateral directions.