mhurhangee/ep-ind-claims huggingface dataset:
A spinal intervertebral body fusion device (1a, 1b, 1c, 1d, 1f), comprising: an adjustable spacer (10a, 10f), comprising a first supporting plate portion (111a, 111b, 111c, 111f) and a second supporting plate portion (121a, 121b, 121c, 121f), wherein the first supporting plate portion is movably installed on the second supporting plate portion, the first supporting plate portion and the second supporting plate portion together form a first opening and a second opening which are respectively located at two opposite sides of the adjustable spacer; a first pushing piece (20a, 20e, 20f), located at the first opening and partially located between and clamped by the first supporting plate portion and the second supporting plate portion; a second pushing piece (30a, 30e, 30f), located at the second opening and partially located between and clamped by the first supporting plate portion and the second supporting plate portion; and an operative piece (40a, 40e, 40f), located between the first supporting plate portion and the second supporting plate portion, and the operative piece movably disposed through the second pushing piece and screwed to the first pushing piece, wherein when the operative piece is activated, the operative piece forces the second pushing piece and the first pushing piece to move towards or away from each other to change a relative position of the first supporting plate portion and the second supporting plate portion; characterized in that the operative piece has an annular slot, and the second pushing piece is partially located in the annular slot. an adjustable spacer (10a, 10f), comprising a first supporting plate portion (111a, 111b, 111c, 111f) and a second supporting plate portion (121a, 121b, 121c, 121f), wherein the first supporting plate portion is movably installed on the second supporting plate portion, the first supporting plate portion and the second supporting plate portion together form a first opening and a second opening which are respectively located at two opposite sides of the adjustable spacer; a first pushing piece (20a, 20e, 20f), located at the first opening and partially located between and clamped by the first supporting plate portion and the second supporting plate portion; a second pushing piece (30a, 30e, 30f), located at the second opening and partially located between and clamped by the first supporting plate portion and the second supporting plate portion; and an operative piece (40a, 40e, 40f), located between the first supporting plate portion and the second supporting plate portion, and the operative piece movably disposed through the second pushing piece and screwed to the first pushing piece, wherein when the operative piece is activated, the operative piece forces the second pushing piece and the first pushing piece to move towards or away from each other to change a relative position of the first supporting plate portion and the second supporting plate portion; characterized in that the operative piece has an annular slot, and the second pushing piece is partially located in the annular slot.
A robot cleaner comprising: a main body; a light transmitting unit that emits light; an image sensor that senses light reflected or scattered by an obstacle from the light emitted from the light transmitting unit; a base supporting the light transmitting unit and the image sensor, the base rotatably disposed in the main body; a rotation drive unit that rotates the base; and a tilting unit that tilts the light transmitting unit and the image sensor. a main body; a light transmitting unit that emits light; an image sensor that senses light reflected or scattered by an obstacle from the light emitted from the light transmitting unit; a base supporting the light transmitting unit and the image sensor, the base rotatably disposed in the main body; a rotation drive unit that rotates the base; and a tilting unit that tilts the light transmitting unit and the image sensor.
A cleaning device for a window glass or the like, wherein, in three clinging units which are arranged in a row, each of the clinging units includes clinging unit putting forward/backward means configured to put the clinging unit in and out in a direction intersecting with a surface, the clinging units adjacent to each other are coupled by transverse expansion and contraction means via the clinging unit putting forward/backward means, each of the clinging units is configured to be selectively set in either one of the following three states: a clinging and movable state in which the clinging unit clings to the surface and moves along the surface; a clinging and locked state in which the clinging unit clings to the surface and is locked to the surface; and a non-clinging and movable state in which the clinging unit is separated from the surface and can move along the surface, each of the clinging units is constituted at least by a clinging unit frame member, a vacuum sealing member attached to the clinging unit, moving means, and locking means, and at least the surface, the clinging unit frame member, and the vacuum sealing member are configured to define a reduced pressure space in cooperation, the reduced pressure space being coupled to vacuum generating means and vacuum breaking means, characterized in that when the three clinging units coupled by the transverse expansion and contraction means via the clinging unit putting forward/backward means are referred to a row clinging unit group, three row clinging unit groups are arranged in the longitudinal direction, and the row clinging unit groups adjacent to each other are coupled by lengthwise expansion and contraction means via the clinging unit putting forward/backward means. a clinging and movable state in which the clinging unit clings to the surface and moves along the surface; a clinging and locked state in which the clinging unit clings to the surface and is locked to the surface; and a non-clinging and movable state in which the clinging unit is separated from the surface and can move along the surface,
A drive assembly for a walk-behind, powered device, the drive assembly operably coupling an engine of the powered device to a mobility assembly to provide mobility of the powered device responsive at least in part to operation of the engine, the drive assembly comprising: a transmission shaft selectively receiving first drive power in a first direction or second drive power in a direction opposite the first direction, the first or second drive power being coupled from the engine to drive a first drivable component and a second drivable component of the mobility assembly, the first and second drivable components (122, 124) being disposed substantially at opposing sides of the powered device; characterized in a mechanical power reversing assembly, the mechanical power reversing assembly being selectively engagable to convert the first drive power generated for the first drivable component into the second drive power provided to the second drivable component. a transmission shaft selectively receiving first drive power in a first direction or second drive power in a direction opposite the first direction, the first or second drive power being coupled from the engine to drive a first drivable component and a second drivable component of the mobility assembly, the first and second drivable components (122, 124) being disposed substantially at opposing sides of the powered device; characterized in a mechanical power reversing assembly, the mechanical power reversing assembly being selectively engagable to convert the first drive power generated for the first drivable component into the second drive power provided to the second drivable component.
Remote-control door opener for installation in or on a door having a fixed door frame and a door leaf mounted moveably on the door frame, wherein the remote-control door opener has a door opener housing in which a moveable door opener latch and an electrically switchable blocking device are mounted, wherein the electrically switchable blocking device interacts directly or indirectly with the door opener latch in such a way that the door opener latch can assume a blocking position and, after electrical unlocking of the blocking device, a release position, wherein the door opener latch is loaded directly or indirectly by a return spring in its blocking position, wherein it is provided that, - a ball catch device interacting directly or indirectly with the door opener latch is provided; - the door opener latch is able to be fixed in its blocking position by the ball catch device; - the ball catch device has a spring which is designed separately from the return spring; - the fixing effected by the ball catch device is able to be reversed when opening the door by applying overpressure to the spring of the ball catch device, characterised in that, - the pre-tensioning of the spring of the ball catch device is able to be adjusted, by: the spring of the ball catch device being able to be supported on a bearing that is able to be positionally adjusted by an adjustment device. - a ball catch device interacting directly or indirectly with the door opener latch is provided; - the door opener latch is able to be fixed in its blocking position by the ball catch device; - the ball catch device has a spring which is designed separately from the return spring; - the fixing effected by the ball catch device is able to be reversed when opening the door by applying overpressure to the spring of the ball catch device, - the pre-tensioning of the spring of the ball catch device is able to be adjusted, by:
A method for producing a mixed-colored light-emitting diode light source in which at least part of a primary radiation emitted by a chip is converted by means of luminescence conversion, comprising the steps of: - providing a chip which has a front-side electrical contact in the form of an electrical contact area, - thickening of the front-side electrical contact by applying an electrically conductive material to the electrical contact surface, - coating the chip with a luminescence conversion material, wherein - the chip emitting the primary radiation is located in a wafer assembly having a plurality of further similar chips, - the respective method steps for the chips of the entire wafer assembly each take place simultaneously, and - the chips are subsequently singulated, characterized in that the following method steps are carried out before the chips are separated: - determining and detecting the color locus and the position of the light-emitting diode light sources, - subdividing the wafer into regions with light-emitting diode light sources of similar color location, and - setting a respective specific color location for the regions with light-emitting diode light sources of similar color location for the entire wafer assembly by a region-selective thinning of the luminescence conversion material of the individual regions, wherein during the thinning a check of the color location of one of the light sources of the respective region is repeatedly performed. - providing a chip which has a front-side electrical contact in the form of an electrical contact area, - thickening of the front-side electrical contact by applying an electrically conductive material to the electrical contact surface, - coating the chip with a luminescence conversion material, - the chip emitting the primary radiation is located in a wafer assembly having a plurality of further similar chips, - the respective method steps for the chips of the entire wafer assembly each take place simultaneously, and - the chips are subsequently singulated, - determining and detecting the color locus and the position of the light-emitting diode light sources, - subdividing the wafer into regions with light-emitting diode light sources of similar color location, and - setting a respective specific color location for the regions with light-emitting diode light sources of similar color location for the entire wafer assembly by a region-selective thinning of the luminescence conversion material of the individual regions, wherein during the thinning a check of the color location of one of the light sources of the respective region is repeatedly performed.
System comprising a nebulizer, preferably forming an inhaler, for a fluid, and a packaging for receiving and holding the nebulizer in a delivery state, wherein the nebulizer comprises a container containing the fluid, the container being pre-installed in the nebulizer in the delivery state, wherein the packaging prevents fluidic connection of the container to a pressure generator of the nebulizer in the delivery state and prevents completely closing of a housing of the nebulizer in the delivery state.
An imaging optical system comprising, from an object side, a first lens group having a positive optical power, a second lens group having a negative optical power, and a third lens group having a positive optical power, the imaging optical system achieving focusing on a close object by moving the entire second lens group toward an image side along an optical axis, wherein the first lens group comprises, from the object side, a front group (Gr1a), an aperture stop, and a rear group (Gr1b) having a positive optical power, a lens surface at a most image-side position in the front group (Gr1a) is concave toward the aperture stop, a lens surface at a most object-side position in the rear group (Gr1b) is concave toward the aperture stop, and characterized in that conditional formulae to below are fulfilled: − 0.3 < FL / 1 ⁢ aGr _ Fl < 0.03 0.85 < 1 ⁢ bGr _ Fl / FL < 1.1 1.5 < 2 Gr _ Fl / FL < 2.5 0.55 < 3 Gr _ Fl / 2 Gr _ Fl < 0.70 where FL represents a focal length of the entire system; 1aGr_Fl represents a focal length of the front group (Gr1a); 1bGr_Fl represents a focal length of the rear group (Gr1b); 2Gr_Fl represents a focal length of the second lens group; and 3Gr_Fl represents a focal length of the third lens group; and in that conditional formula below is fulfilled: 1.1 < 1 ⁢ aGr _ obj / 1 ⁢ aGr _ img < 1.5 where 1aGr_obj represents an axial beam effective radius at a most object-side surface in the front group (Gr1a); and 1aGr_img represents an axial beam effective radius at a most image-side surface in the front group (Gr1a). FL represents a focal length of the entire system; 1aGr_Fl represents a focal length of the front group (Gr1a); 1bGr_Fl represents a focal length of the rear group (Gr1b); 2Gr_Fl represents a focal length of the second lens group; and 3Gr_Fl represents a focal length of the third lens group; and in that conditional formula below is fulfilled: 1aGr_obj represents an axial beam effective radius at a most object-side surface in the front group (Gr1a); and 1aGr_img represents an axial beam effective radius at a most image-side surface in the front group (Gr1a).
A curing station (100, 200, 300, 400, 500) for curing printing ink of a direct print (102a, 202a) on containers (102, 202, 302, 402, 502), comprising - a conveyor (101, 201, 301, 401, 501) for conveying the containers (102, 202) preferably in container holders (103, 203, 303), and - further comprising at least one UV light unit (110, 210, 310, 410, 510) for curing the printing ink, characterized in that the at least one UV light unit (110, 210, 310, 410, 510) comprises a 2D arrangement of UV LEDs (112, 212, 312, 412, 512) for generating a UV light field (113, 213) for curing the printing ink, in that the UV LEDs (112, 212, 312, 412, 512) of the at least one UV light unit (110, 210, 310, 410, 510) are configured to be controllable individually or in groups, so as to control the UV light field (113, 213) depending on conveyance positions of the containers (102, 202, 302, 402, 502) relative to a curing and/or pinning section of the curing station (100, 200, 300, 400, 500), in that a control unit (106, 206, 306) is configured to change the UV light field (113, 213) by controlling the output of at least one of the UV LEDs (112, 212, 312, 412, 512), and in that the control unit (106, 206, 306) is configured to change the outputs of the UV LEDs (112, 212, 312, 412, 512) on the basis of conveyance positions of the containers (102, 202, 302, 402, 502) relative to a curing and/or pinning section of the curing station (100, 200, 300, 400, 500), so as to cause the UV light field (113, 213) to follow the conveyance of the containers (102, 202, 302, 402, 502). - a conveyor (101, 201, 301, 401, 501) for conveying the containers (102, 202) preferably in container holders (103, 203, 303), and - further comprising at least one UV light unit (110, 210, 310, 410, 510) for curing the printing ink,
A process for corrosion protection of an iron-containing substrate comprising, in this order, the steps of (i) providing a substrate made of an iron-containing material, (ii) electroplating onto said substrate a first zinc-nickel alloy layer having a nickel concentration in the range of 6 to 15 wt.-%, (iii) thereon, electroplating a second zinc-nickel alloy layer having a nickel concentration in the range of 12 to 30 wt.-% onto the first zinc-nickel alloy layer with the proviso that the concentration of nickel in the second zinc-nickel alloy layer is higher than the nickel concentration in the first zinc-nickel alloy layer, and (iv) depositing a black passivation layer onto the second zinc-nickel alloy layer. (i) providing a substrate made of an iron-containing material, (ii) electroplating onto said substrate a first zinc-nickel alloy layer having a nickel concentration in the range of 6 to 15 wt.-%, (iii) thereon, electroplating a second zinc-nickel alloy layer having a nickel concentration in the range of 12 to 30 wt.-% onto the first zinc-nickel alloy layer with the proviso that the concentration of nickel in the second zinc-nickel alloy layer is higher than the nickel concentration in the first zinc-nickel alloy layer, and (iv) depositing a black passivation layer onto the second zinc-nickel alloy layer.
Device for entry and exit of motorcycles with two or more wheels consisting of: a metal guiding rail, which guides a sliding clamp carriage that includes two bars that block the front wheel of the motorcycle to be loaded, and an engine which operates a pinion, characterized in that said pinion is equipped with a chain or belt which in turn is linked to a steel cable that runs outside the guiding rail, which is a bar acting as a supporting structure fitted with said clamp carriage that slides along it, and which also houses said chain or belt and said steel cable joined together; said chain or belt, attached to the back part to the clamp carriage by a linkage; said guiding rail, with said engine fitted onto an end, and with a pulley fitted onto the opposite end; and where said engine, by means of said pinion, moves said chain or belt connected with said steel cable that runs inside said guiding rail, passes over said pulley and returns outside said guiding rail to be fixed onto the front part of said clamp carriage with a cable - clamp; said two bars of the clamp carriage, being a fixed bar and a movable clamping bar constrained to said fixed bar, compressed by means of two knobs which screw onto a threaded bar.
Light module for a motor vehicle comprising at least one organic light-emitting diode and a support wherein said at least one organic light-emitting diode is accommodated, and at least one conductive wire connecting a first conductive pad of said at least one organic light-emitting diode to a second conductive pad of the support; characterized in that the organic light-emitting diode comprises a connecting part configured for being housed in the support and an emitting part extending outside the support, said first conductive pads being borne by said connecting part.
An automated cell-free protein production system comprising: a protein expression reaction unit comprising a reaction vessel that includes one or more dialysis tubes, each including a dialysis membrane and being open at its top; a reaction temperature control unit configured to heat or cool the reaction vessel; a pipette array comprising one or more pipettes and configured to suck or discharge solutions using the pipettes; a pipette array moving unit configured to move the pipette array in an upward and downward direction, a forward and backward direction or a left and right direction so as to move solutions; a protein purification unit including a magnetic field application device; and a multi-well plate mounting unit having mounted therein a multi-well plate kit configured to supply solutions that are used for protein production; and wherein the protein expression reaction unit comprises one or more dialysis tube holes formed in the top thereof and configured to receive the dialysis tubes; and one or more small-molecule expression solution holes formed adjacent to the dialysis tube holes so as to fluidically communicate with the dialysis tube holes. a protein expression reaction unit comprising a reaction vessel that includes one or more dialysis tubes, each including a dialysis membrane and being open at its top; a reaction temperature control unit configured to heat or cool the reaction vessel; a pipette array comprising one or more pipettes and configured to suck or discharge solutions using the pipettes; a pipette array moving unit configured to move the pipette array in an upward and downward direction, a forward and backward direction or a left and right direction so as to move solutions; a protein purification unit including a magnetic field application device; and a multi-well plate mounting unit having mounted therein a multi-well plate kit configured to supply solutions that are used for protein production; and wherein the protein expression reaction unit comprises one or more dialysis tube holes formed in the top thereof and configured to receive the dialysis tubes; and one or more small-molecule expression solution holes formed adjacent to the dialysis tube holes so as to fluidically communicate with the dialysis tube holes.
An air trap chamber comprising: a cap having an inlet at one end, and a first connection flange at another end, the first connection flange having a first mating surface having a circular cross section, the inlet having an opening axis that is off a central axis of the first mating surface; and a housing having a second connection flange at one end, and an outlet at another end, the second connection flange having a second mating surface having a circular cross section and being mateable with the first mating surface, the outlet having an opening axis that is off a central axis of the second mating surface, characterized in that the cap and the housing are provided with an alignment structure (28A, 28B, 128A, 128B, 228A, 228B), characterized in that as the alignment structure (28A, 28B, 128A, 128B, 228A, 228B) a first parting line is formed on the cap, and a second parting line is formed on the housing. a cap having an inlet at one end, and a first connection flange at another end, the first connection flange having a first mating surface having a circular cross section, the inlet having an opening axis that is off a central axis of the first mating surface; and a housing having a second connection flange at one end, and an outlet at another end, the second connection flange having a second mating surface having a circular cross section and being mateable with the first mating surface, the outlet having an opening axis that is off a central axis of the second mating surface, characterized in that the cap and the housing are provided with an alignment structure (28A, 28B, 128A, 128B, 228A, 228B), characterized in that as the alignment structure (28A, 28B, 128A, 128B, 228A, 228B) a first parting line is formed on the cap, and a second parting line is formed on the housing.