mhurhangee/ep-ind-claims huggingface dataset:
A handling system for handling a longitudinal construction element, such as a beam (P2, P3) or a post, comprising a base intended to be mounted on a vehicle (7, 8), handling means for handling a longitudinal construction element, and movement means (3, 4, 5) for moving the handling means in space, the movement means (3, 4, 5) on the one hand being coupled to the base and on the other hand being coupled to the handling means, the handling system being characterised in that the movement means (3, 4, 5) comprise: - a telescoping arm assembly; - mounting means coupling, to the base, a first end of the telescoping arm assembly in a manner making it possible to pivot the telescoping arm assembly upward or downward while pivoting the telescoping arm assembly about a vertical axis, such that the telescoping arm assembly is able to be oriented, the mounting means being mounted on the base so as to be able to slide along the base along a so-called transverse direction, wherein the transverse direction is, once the base is mounted on the vehicle (7, 8), perpendicular to the movement direction of the vehicle (7, 8); and - remote control means for the orientation and the elongation/retraction of the telescoping arm assembly, and in that the handling means comprise a spreader beam provided with gripping means able to grasp a longitudinal construction element and to release it, the spreader beam being coupled to the second end of the telescoping arm assembly by means of a connecting device allowing pivoting of the spreader beam about a vertical axis and about a horizontal axis orthogonal to the longitudinal direction of the spreader. - a telescoping arm assembly; - mounting means coupling, to the base, a first end of the telescoping arm assembly in a manner making it possible to pivot the telescoping arm assembly upward or downward while pivoting the telescoping arm assembly about a vertical axis, such that the telescoping arm assembly is able to be oriented, the mounting means being mounted on the base so as to be able to slide along the base along a so-called transverse direction, wherein the transverse direction is, once the base is mounted on the vehicle (7, 8), perpendicular to the movement direction of the vehicle (7, 8); and - remote control means for the orientation and the elongation/retraction of the telescoping arm assembly,
A flexographic printing plate comprising: a relief layer including a non-image area and an image area having an uneven structure formed on a surface thereof, characterized in that an average length RSm of roughness curve elements of the surface of the image area having the uneven structure is 15 to 120 μm, an oil-retntion volume A2 of the image area is 2 to 180, and a load length ratio Rmr 30% at a cutting level of 30% of the image area is 20% to 90%, whith RSm and Rmr as defined in "Geometrical Product Specifications -Surface texture: Profile method-Terms, definitions and surface texture parameters" of JIS B 0601:2001 and with A2 as defined in "Geometrical Product Specifications -Surface texture: Profile method; Surfaces having stratified functional properties-" of JIS B 0671-2:2002. a relief layer including a non-image area and an image area having an uneven structure formed on a surface thereof, characterized in that an average length RSm of roughness curve elements of the surface of the image area having the uneven structure is 15 to 120 μm, an oil-retntion volume A2 of the image area is 2 to 180, and a load length ratio Rmr 30% at a cutting level of 30% of the image area is 20% to 90%, whith RSm and Rmr as defined in "Geometrical Product Specifications -Surface texture: Profile method-Terms, definitions and surface texture parameters" of JIS B 0601:2001 and with A2 as defined in "Geometrical Product Specifications -Surface texture: Profile method; Surfaces having stratified functional properties-" of JIS B 0671-2:2002.
A composition for use in killing HIV infected cells within a human infected with HIV, wherein said composition comprises: (a) a Bcl-2 inhibitor, and (b) a latency reversing agent. (a) a Bcl-2 inhibitor, and (b) a latency reversing agent.
Cutting device, in particular garden cutting device, having at least one first and one second cutting element (12, 14) that are movable relative to one another, having a first and a second handle element (16, 18) that are movable relative to one another, and having at least one drive unit that is intended, in at least one operating state, to at least assist a movement of the second cutting element relative to the first cutting element, characterized in that a protective device between the handle elements (16, 18) is arranged between a pivot joint, connecting the handle elements (16, 18), and an opening spring, in order to receive a cable of the cutting device, and/or a protective device extends between the handle elements (16, 18) in order to delimit an intermediate space between the handle elements (16, 18).
A system for treating a target site of body tissue the system comprising: a source electrode configured to be placed proximate to a target site of body tissue in vivo; a counter electrode in electrical communication with the source electrode; a power source configured to generate a potential difference between the source electrode and the counter electrode; J the counter electrode being configured to cooperate with the source electrode to form a localized electric field proximate to the target site; wherein the localized electric field is configured to deliver at least a portion of a cargo to the target site when said potential difference is applied across the source and counter electrodes to form the localized electric field; a reservoir configured to place the cargo in the localized electric field, wherein the reservoir is disposed at least partially about the source electrode and has an opening; a cellulose membrane disposed across the opening and configured to partially seal the reservoir such that upon activation of the electric field the cargo diffuses through the membrane out of the reservoir and toward the counter electrode; and a radiation source configured to apply a radiation to the target site from a position external to the body. a source electrode configured to be placed proximate to a target site of body tissue in vivo; a counter electrode in electrical communication with the source electrode; a power source configured to generate a potential difference between the source electrode and the counter electrode; J the counter electrode being configured to cooperate with the source electrode to form a localized electric field proximate to the target site; wherein the localized electric field is configured to deliver at least a portion of a cargo to the target site when said potential difference is applied across the source and counter electrodes to form the localized electric field; a reservoir configured to place the cargo in the localized electric field, wherein the reservoir is disposed at least partially about the source electrode and has an opening; a cellulose membrane disposed across the opening and configured to partially seal the reservoir such that upon activation of the electric field the cargo diffuses through the membrane out of the reservoir and toward the counter electrode; and a radiation source configured to apply a radiation to the target site from a position external to the body.
Ceramic metal halide lamp having a ceramic discharge vessel, the discharge vessel encloses a discharge space which comprises an electrode, which electrode is electrically connected to a conductor outside the discharge vessel by means of a feedthrough comprising an Ir wire, the feedthrough being gas-tight mounted in an extended plug of the discharge vessel, the feedthrough comprises an electrode-feedthrough combination made up of at least three parts comprising the electrode, the Ir-wire and the conductor, with the conductor being a current conducting wire made of a material chosen from the group consisting of W, W-Re, Mo, or Mo alloy and extending out of the extended plug, which current conducting wire is welded to the Ir wire by means of a weld,, 10 characterized in that said weld is at a location inside the extended plug and at least 1.0 mm from an outer end of the extended plug, preferably in between 1.5 to 2.0 mm from the outer end of the extended plug.
Sealing device for building comprising a duct and a linking member (14; 14, 80) comprising a linking plate, the linking member being mounted around and rigidly connected to the duct, wherein the duct comprises: - an axial main portion around which the linking member (14; 14, 80) is mounted, - a radial bead formed on the main portion and extending radially outwards, and - a distal end portion extending the main portion radially outwards and which is axially facing the bead to form therebetween an outwardly radially open annular mounting slot, the distal end portion extending radially beyond the bead, - the main portion, the distal end portion and the bead of the duct being made in one piece, - the linking member (14; 14, 80) being mounted in the mounting slot and gripped axially between the bead and the distal end portion of the duct, - the distal end portion of the duct comprising at least one local deformation extending on the side of the linking member (14; 14, 80) and engaged in said linking member. - an axial main portion around which the linking member (14; 14, 80) is mounted, - a radial bead formed on the main portion and extending radially outwards, and - a distal end portion extending the main portion radially outwards and which is axially facing the bead to form therebetween an outwardly radially open annular mounting slot, the distal end portion extending radially beyond the bead, - the main portion, the distal end portion and the bead of the duct being made in one piece, - the linking member (14; 14, 80) being mounted in the mounting slot and gripped axially between the bead and the distal end portion of the duct, - the distal end portion of the duct comprising at least one local deformation extending on the side of the linking member (14; 14, 80) and engaged in said linking member.
Composition for dyeing human keratin fibres, comprising: (a) at least one colouring agent chosen from oxidation dye precursors, direct dyes and mixtures thereof; (b) at least one amphoteric or zwitterionic surfactant; (c) at least one non-ionic surfactant; (d) at least one anionic surfactant (e) one or more fatty substances at a total content of at least 10% by weight relative to the weight of the composition; (f) at least one cationic polymer; (g) at least one oxidizing agent other than atmospheric oxygen. (a) at least one colouring agent chosen from oxidation dye precursors, direct dyes and mixtures thereof; (b) at least one amphoteric or zwitterionic surfactant; (c) at least one non-ionic surfactant; (d) at least one anionic surfactant (e) one or more fatty substances at a total content of at least 10% by weight relative to the weight of the composition; (f) at least one cationic polymer; (g) at least one oxidizing agent other than atmospheric oxygen.
Sputter unit, comprising - a housing, - a gas inlet, - a sputter unit - vacuum chamber interface for removable connecting the sputter unit to a vacuum chamber, - a gas outlet arranged for supplying a process gas received via the gas inlet to the vacuum chamber, - a sputter unit - base unit interface for removable connecting the sputter unit to a base unit comprising a vacuum pump for generating a vacuum in the vacuum chamber, and a transformer arranged in the housing for increasing a supply voltage (U supp) into an ionisation voltage (U ion) for ionising the process gas supplied via the gas outlet to the vacuum chamber, wherein the sputter unit - base unit interface comprises a connector plug, and wherein a plug module of the connector plug at the sputter unit comprises at least one pin or receptacle for the supply voltage (U supp). - a housing, - a gas inlet, - a sputter unit - vacuum chamber interface for removable connecting the sputter unit to a vacuum chamber, - a gas outlet arranged for supplying a process gas received via the gas inlet to the vacuum chamber, - a sputter unit - base unit interface for removable connecting the sputter unit to a base unit comprising a vacuum pump for generating a vacuum in the vacuum chamber, and
A composition comprising: (a) a targeting peptide having an amino acid sequence consisting of SEQ ID NO:1 or SEQ ID NO:2; (b) at least one bioactive agent which conveys a measurable therapeutic benefit to pulmonary hypertension; (c) wherein the targeting peptide and the at least one bioactive agent are unbound; and (d) wherein the bioactive agent is selected from the group consisting of systemic vasodilators and imatinib. (a) a targeting peptide having an amino acid sequence consisting of SEQ ID NO:1 or SEQ ID NO:2; (b) at least one bioactive agent which conveys a measurable therapeutic benefit to pulmonary hypertension; (c) wherein the targeting peptide and the at least one bioactive agent are unbound; and (d) wherein the bioactive agent is selected from the group consisting of systemic vasodilators and imatinib.
An electronic cigarette, comprising: an E-liquid storage tank, wherein the volume of the E-liquid storage tank is adjustable; and a vaporizer assembly having a heating element assembly, characterized in that the heating element assembly comprises: an E-liquid storage tank internal wall defining a plurality of E-liquid openings (10411, 10412, 10413) to allow an external E-liquid storage medium positioned inside of the E-liquid storage tank internal wall, and an internal E-liquid storage medium positioned inside of the external E-liquid storage medium to receive E-liquid from the E-liquid storage tank; a plurality of heating elements in direct contact with surface of the internal E-liquid storage medium to heat the E-liquid received from the E-liquid storage tank, wherein a user may switch on one or more of the plurality of the heating elements to adjust the vaporization of the E-liquid. an E-liquid storage tank, wherein the volume of the E-liquid storage tank is adjustable; and a vaporizer assembly having a heating element assembly, characterized in that the heating element assembly comprises: an E-liquid storage tank internal wall defining a plurality of E-liquid openings (10411, 10412, 10413) to allow an external E-liquid storage medium positioned inside of the E-liquid storage tank internal wall, and an internal E-liquid storage medium positioned inside of the external E-liquid storage medium to receive E-liquid from the E-liquid storage tank; a plurality of heating elements in direct contact with surface of the internal E-liquid storage medium to heat the E-liquid received from the E-liquid storage tank, wherein a user may switch on one or more of the plurality of the heating elements to adjust the vaporization of the E-liquid. an E-liquid storage tank internal wall defining a plurality of E-liquid openings (10411, 10412, 10413) to allow an external E-liquid storage medium positioned inside of the E-liquid storage tank internal wall, and an internal E-liquid storage medium positioned inside of the external E-liquid storage medium to receive E-liquid from the E-liquid storage tank; a plurality of heating elements in direct contact with surface of the internal E-liquid storage medium to heat the E-liquid received from the E-liquid storage tank, wherein a user may switch on one or more of the plurality of the heating elements to adjust the vaporization of the E-liquid.
Cooking appliance with a base unit, which has a support plate and with a decorative strip (15, 16) separate therefrom, which is fastened to the base unit in a releasable manner with a holding apparatus such that the decorative strip (15, 16) is arranged as a visible component on the base unit, wherein the holding apparatus has a magnet apparatus (17, 18), with which the decorative strip (15, 16) is held to the base unit by way of a magnetic holding force, wherein the base unit has a coupling strip (19, 20) which is arranged on the base unit, in particular directly, wherein the coupling strip (19, 20) is coupled directly to the decorative strip (15, 16), in particular at least magnetically, wherein the coupling strip (19, 20) has a coupling pedestal (22, 23, 24) protruding laterally over a lateral edge (13, 14) of the support plate, on which pedestal the decorative strip (15, 16) sits in the attached end position, characterised in that when viewed in the direction of its longitudinal axis, the coupling strip (19, 20) has a pivot element of a pivot unit on a first end, about which pivot unit the decorative strip (15, 16) can pivot in an intermediate assembly position, in which the decorative strip (15, 16) is coupled with a first end to a counter pivot element of the pivot unit, such that a second end of the decorative strip (15, 16) can be coupled to a second end of the coupling strip (19, 20), in particular with a pivot movement.
A method for shooting a line image of a print unit with a line sensor, wherein the print unit is moved past the line sensor with a movement speed, - wherein during the shooting internal (ΔT) the following shooting steps are performed: - the pixel sensors of the line sensor are acted upon during the resetting time interval (To) with a predetermined voltage (V 0) and reset, - during an exposure time interval (T 1), in particular, subsequent to the resetting time interval (To), the pixel sensors are exposed and - during a following measurement time interval (T 2), in particular, immediately subsequent to the exposure time interval (T 1) the values of the pixel sensors are readout, - wherein the shooting interval (ΔT) is adjusted to the movement speed of the print unit, so that during the shooting interval (ΔT) in each case a line of the print unit is shot, characterized in that the lighting of the print unit is reduced, if the movement speed of the print unit falls below a predetermined nominal speed (v 1), wherein for the reduction of the lighting the print unit is lit only during certain time periods within a shooting interval (ΔT), and that a line image is created during this reduced lighting. - wherein during the shooting internal (ΔT) the following shooting steps are performed: - the pixel sensors of the line sensor are acted upon during the resetting time interval (To) with a predetermined voltage (V 0) and reset, - during an exposure time interval (T 1), in particular, subsequent to the resetting time interval (To), the pixel sensors are exposed and - during a following measurement time interval (T 2), in particular, immediately subsequent to the exposure time interval (T 1) the values of the pixel sensors are readout, - wherein the shooting interval (ΔT) is adjusted to the movement speed of the print unit, so that during the shooting interval (ΔT) in each case a line of the print unit is shot, characterized in that the lighting of the print unit is reduced, if the movement speed of the print unit falls below a predetermined nominal speed (v 1), wherein for the reduction of the lighting the print unit is lit only during certain time periods within a shooting interval (ΔT), and that a line image is created during this reduced lighting.
An analyzer comprising: a guide-in section configured to receive an analysis kit containing a sample; a placement section configured to support the analysis kit in the guide-in section; a light source comprising an illumination portion for illuminating light onto the sample; a presser that is configured as a separate body from the light source and is configured to press the analysis kit such that the analysis kit supported on the placement section is sandwiched between the presser and the placement section and is retained at a predetermined position; and a measurer configured to measure a component present in the sample using light illuminated from the light source onto the sample in the analysis kit placed on the placement section, wherein the light source includes: a projection configured to approach and retract from the presser; a limiting member configured to limit a projection amount of the projection toward the analysis kit to within a specific range; and a biasing member configured to bias the projection in a projection direction of the projection from the presser. a guide-in section configured to receive an analysis kit containing a sample; a placement section configured to support the analysis kit in the guide-in section; a light source comprising an illumination portion for illuminating light onto the sample; a presser that is configured as a separate body from the light source and is configured to press the analysis kit such that the analysis kit supported on the placement section is sandwiched between the presser and the placement section and is retained at a predetermined position; and a measurer configured to measure a component present in the sample using light illuminated from the light source onto the sample in the analysis kit placed on the placement section, wherein the light source includes: a projection configured to approach and retract from the presser; a limiting member configured to limit a projection amount of the projection toward the analysis kit to within a specific range; and a biasing member configured to bias the projection in a projection direction of the projection from the presser. a projection configured to approach and retract from the presser; a limiting member configured to limit a projection amount of the projection toward the analysis kit to within a specific range; and a biasing member configured to bias the projection in a projection direction of the projection from the presser.
A liftgate structure, comprising: a structural inner panel with an outside surface and an inner surface having a lower perimeter surface area extending across substantially the entire width of the liftgate structure, the structural inner panel including a wiper motor housing recess formed on the inner surface; a plurality of brackets (234, 236, 238) including a center bracket and two side brackets (236, 238), the brackets being connected to the outside surface of the structural inner panel; and three separate tethers (228, 230, 232) including first and second tethers (228, 230) extending between the center bracket and a respective one of the side brackets (236, 238) and further including a third tether extending between the side brackets (236, 238), characterized in that the first and second tethers (228, 230) have a different width than the third tether, and in that each end of each tether (228, 230, 232) is adhesively bonded and pinched behind the respective brackets (234, 236, 238). a structural inner panel with an outside surface and an inner surface having a lower perimeter surface area extending across substantially the entire width of the liftgate structure, the structural inner panel including a wiper motor housing recess formed on the inner surface; a plurality of brackets (234, 236, 238) including a center bracket and two side brackets (236, 238), the brackets being connected to the outside surface of the structural inner panel; and three separate tethers (228, 230, 232) including first and second tethers (228, 230) extending between the center bracket and a respective one of the side brackets (236, 238) and further including a third tether extending between the side brackets (236, 238), characterized in that the first and second tethers (228, 230) have a different width than the third tether, and in that each end of each tether (228, 230, 232) is adhesively bonded and pinched behind the respective brackets (234, 236, 238).