mhurhangee/ep-ind-claims huggingface dataset:
A stapler comprising: a staple cartridge in which a staple is stored; a storage unit to which the staple cartridge is attached to be detachable; a staple ejecting unit which ejects out the staple to penetrate a paper sheet; a cutting unit which cuts a staple leg of the staple penetrating the paper sheet; a binding unit which binds the paper sheet by bending the staple leg of the staple penetrating the paper sheet; a cut staple storage unit which stores a cut staple that is cut by the cutting unit; and a discharge unit through which the cutting unit and the cut staple storage unit communicate with each other to guide the cut staple to the cut staple storage unit, characterized in that the cut staple storage unit comprises a shaft protrusion (70Ma, 70Mc, 70Mf, 70Mg) for insertion to a receiving unit of the stapler wherein the cut staple storage unit is attachable to and detachable from the stapler by a rotation operation with the shaft protrusion (70Ma, 70Mc, 70Mf, 70Mg) as a fulcrum. a staple cartridge in which a staple is stored; a storage unit to which the staple cartridge is attached to be detachable; a staple ejecting unit which ejects out the staple to penetrate a paper sheet; a cutting unit which cuts a staple leg of the staple penetrating the paper sheet; a binding unit which binds the paper sheet by bending the staple leg of the staple penetrating the paper sheet; a cut staple storage unit which stores a cut staple that is cut by the cutting unit; and a discharge unit through which the cutting unit and the cut staple storage unit communicate with each other to guide the cut staple to the cut staple storage unit, characterized in that the cut staple storage unit comprises a shaft protrusion (70Ma, 70Mc, 70Mf, 70Mg) for insertion to a receiving unit of the stapler wherein the cut staple storage unit is attachable to and detachable from the stapler by a rotation operation with the shaft protrusion (70Ma, 70Mc, 70Mf, 70Mg) as a fulcrum.
A pneumatic tire, having short fibers fixedly attached to at least a portion of an inner surface thereof, CHARACTERISED BY: provided that the average cross sectional area of a cross section, not in contact with the inner surface of the tire, of one short fiber is "A" (mm 2 /the number of short fibers) and the number of the short fibers fixedly attached in a unit area (1 mm 2), of a region where the short fibers have been fixedly attached, in the inner surface of the tire is "N" (the number of short fibers/mm 2), wherein "A" is a fixed value, with the average diameter of the short fibers being a value in the range of 1 μm to 35 μm; "N", which is homogeneously the same value across the region where the short fibers have been fixedly attached, is a fixed value selected such that the product A x N of the fixed value "A" with the fixed value "N", is a value in the range of 0.02 to 0.06. provided that the average cross sectional area of a cross section, not in contact with the inner surface of the tire, of one short fiber is "A" (mm 2 /the number of short fibers) and the number of the short fibers fixedly attached in a unit area (1 mm 2), of a region where the short fibers have been fixedly attached, in the inner surface of the tire is "N" (the number of short fibers/mm 2), wherein "A" is a fixed value, with the average diameter of the short fibers being a value in the range of 1 μm to 35 μm; "N", which is homogeneously the same value across the region where the short fibers have been fixedly attached, is a fixed value selected such that the product A x N of the fixed value "A" with the fixed value "N", is a value in the range of 0.02 to 0.06.
A reduced pressure treatment system for applying reduced pressure treatment to a tissue site, the system comprising: a reduced pressure source; and a liquid-collection canister comprising: a canister housing defining a first space configured to collect liquid from the tissue site; a canister outlet configured to allow fluid communication between the reduced pressure source and the first space; a liquid-air separator disposed adjacent the canister outlet to prevent the liquid from exiting the first space through the canister outlet; an elongated member connected to the liquid-air separator and extending away from the liquid-air separator into the first space, the elongated member having a wall (402, 406) defining a second space, at least a portion of the wall allowing gaseous communication between the first space and the second space; and a biasing member disposed in the second space to reduce collapse of the wall (402, 406) into the second space when the second space is exposed to reduced pressure; characterised by that the elongated member is flexible such that it is capable of being shaped. a reduced pressure source; and a liquid-collection canister comprising: a canister housing defining a first space configured to collect liquid from the tissue site; a canister outlet configured to allow fluid communication between the reduced pressure source and the first space; a liquid-air separator disposed adjacent the canister outlet to prevent the liquid from exiting the first space through the canister outlet; an elongated member connected to the liquid-air separator and extending away from the liquid-air separator into the first space, the elongated member having a wall (402, 406) defining a second space, at least a portion of the wall allowing gaseous communication between the first space and the second space; and a biasing member disposed in the second space to reduce collapse of the wall (402, 406) into the second space when the second space is exposed to reduced pressure; characterised by that the elongated member is flexible such that it is capable of being shaped. a canister housing defining a first space configured to collect liquid from the tissue site; a canister outlet configured to allow fluid communication between the reduced pressure source and the first space; a liquid-air separator disposed adjacent the canister outlet to prevent the liquid from exiting the first space through the canister outlet; an elongated member connected to the liquid-air separator and extending away from the liquid-air separator into the first space, the elongated member having a wall (402, 406) defining a second space, at least a portion of the wall allowing gaseous communication between the first space and the second space; and a biasing member disposed in the second space to reduce collapse of the wall (402, 406) into the second space when the second space is exposed to reduced pressure; characterised by that the elongated member is flexible such that it is capable of being shaped.
A spin column system comprising: at least one spin column having a packed bed; a rack having at least one aperture passing therethrough, wherein the aperture is dimensioned and configured to releasably engage the spin column; and a receiver plate including: a top panel; at least one well defined within the top panel corresponding to the at least one aperture in the rack, the well having a bottom surface; and a well opening in a plane defined by the top panel, wherein the rack and receiver plate are dimensioned and configured to engage one another such that the aperture and the well are in registration when the rack and the receiver plate are engaged, and further wherein the packed bed is disposed entirely between the bottom surface and the well opening when the rack and receiver plate are engaged and the spin column is disposed in the aperture. at least one spin column having a packed bed; a rack having at least one aperture passing therethrough, wherein the aperture is dimensioned and configured to releasably engage the spin column; and a receiver plate including: a top panel; at least one well defined within the top panel corresponding to the at least one aperture in the rack, the well having a bottom surface; and a well opening in a plane defined by the top panel, a top panel; at least one well defined within the top panel corresponding to the at least one aperture in the rack, the well having a bottom surface; and a well opening in a plane defined by the top panel, wherein the rack and receiver plate are dimensioned and configured to engage one another such that the aperture and the well are in registration when the rack and the receiver plate are engaged, and further wherein the packed bed is disposed entirely between the bottom surface and the well opening when the rack and receiver plate are engaged and the spin column is disposed in the aperture.
A method for representing a virtual object in a real environment, having the following steps: - generating at least one two-dimensional image of a real environment by means of a recording device, - ascertaining a position of the recording device relative to at least one component of the real environment, - segmenting at least one area of the real environment unmarked in reality in the two-dimensional image for identifying at least one segment of the real environment in distinction to a remaining part of the real environment while supplying corresponding segmentation data, - merging the virtual object with the two-dimensional image of the real environment or, by means of an optical, semitransparent element, directly with reality with consideration of the segmentation data such that at least one part of the segment of the real environment is removed from the image of the real environment by concealment, wherein - said concealment of the part of the real environment to be removed is effected on the basis of texture information in the surroundings of the part to be removed that is not concealed by this part in the two-dimensional image, wherein spatial descriptions with regard to an existing floor or an existing wall for selection of suitable information sources are considered for the choice of the texture information employed, wherein the wall is not filled with information from floor textures and the floor is not filled with information from textures whose origin is at the position of other, known objects. - generating at least one two-dimensional image of a real environment by means of a recording device, - ascertaining a position of the recording device relative to at least one component of the real environment, - segmenting at least one area of the real environment unmarked in reality in the two-dimensional image for identifying at least one segment of the real environment in distinction to a remaining part of the real environment while supplying corresponding segmentation data, - merging the virtual object with the two-dimensional image of the real environment or, by means of an optical, semitransparent element, directly with reality with consideration of the segmentation data such that at least one part of the segment of the real environment is removed from the image of the real environment by concealment, wherein - said concealment of the part of the real environment to be removed is effected on the basis of texture information in the surroundings of the part to be removed that is not concealed by this part in the two-dimensional image, wherein spatial descriptions with regard to an existing floor or an existing wall for selection of suitable information sources are considered for the choice of the texture information employed, wherein the wall is not filled with information from floor textures and the floor is not filled with information from textures whose origin is at the position of other, known objects.
Locking actuator for a brake transmission of an electric parking and/or service brake, comprising - a drive mechanism, - a housing, - a transmission with an axis of rotation and with an output unit which is formed by a support and a shaft, and - a latch carriage, which is moveable in an axis along a locking path between a first position and a second position, characterized in that the output unit is coupled to the latch carriage via an eccentric and in that, when the output unit is rotated, the latch carriage can move in the axis. - a drive mechanism, - a housing, - a transmission with an axis of rotation and with an output unit which is formed by a support and a shaft, and - a latch carriage, which is moveable in an axis along a locking path between a first position and a second position,
An arrangement for the complete or partial coating of carrier bodies with a liquid coating medium, each carrier body comprising a cylinder axis, two end faces, a lateral surface and an axial length L and being traversed by a plurality of ducts from the first end face to the second end face, and wherein said carrier body is coated with a desired quantity of said coating medium by vertically aligning the cylinder axis thereof and introducing said coating medium into said ducts through at least one of said end faces of said carrier body, characterized in that said carrier body is arranged on a coating apparatus whose liquid-conducting part is connected to an ascending pipe via a valve, said valve ensuring the same pressure conditions and therefore essentially the same rise of liquid in said ascending pipe as in said carrier body, so that the ascending pipe permits control of the fill level of said coating medium in said carrier body.
A surgical suture management device, comprising: a suture loop management card configured to hold open a collapsible loop of suture, the suture management card having: a proximal end and a distal end defining a length of the card; first and second sidewalls (16, 18) extending between the proximal and distal ends (12, 14) and defining a width of the card; first and second surfaces (20, 22) defining a thickness of the card, and a plurality of adjacent slots formed in the card and disposed between the proximal and distal ends (12, 14), each slot extending from the first sidewall toward the second sidewall and being configured to receive a portion of one or more limbs of the suture (54, 55); characterized in that the proximal end further comprises an opposed pair of seating grooves formed in the first surface of the card, each seating groove extending diagonally from the proximal end and toward the distal end, the seating grooves meeting at a vertex substantially centered between the first and second sidewalls (16, 18) and in communication with a longitudinal seating groove formed in the first surface of the card, the seating grooves being configured to receive a length of the collapsible loop therein and the longitudinal seating groove being configured to receive a sliding knot of the collapsible loop. a suture loop management card configured to hold open a collapsible loop of suture, the suture management card having: a proximal end and a distal end defining a length of the card; first and second sidewalls (16, 18) extending between the proximal and distal ends (12, 14) and defining a width of the card; first and second surfaces (20, 22) defining a thickness of the card, and a plurality of adjacent slots formed in the card and disposed between the proximal and distal ends (12, 14), each slot extending from the first sidewall toward the second sidewall and being configured to receive a portion of one or more limbs of the suture (54, 55); a proximal end and a distal end defining a length of the card; first and second sidewalls (16, 18) extending between the proximal and distal ends (12, 14) and defining a width of the card; first and second surfaces (20, 22) defining a thickness of the card, and a plurality of adjacent slots formed in the card and disposed between the proximal and distal ends (12, 14), each slot extending from the first sidewall toward the second sidewall and being configured to receive a portion of one or more limbs of the suture (54, 55); characterized in that the proximal end further comprises an opposed pair of seating grooves formed in the first surface of the card, each seating groove extending diagonally from the proximal end and toward the distal end, the seating grooves meeting at a vertex substantially centered between the first and second sidewalls (16, 18) and in communication with a longitudinal seating groove formed in the first surface of the card, the seating grooves being configured to receive a length of the collapsible loop therein and the longitudinal seating groove being configured to receive a sliding knot of the collapsible loop.
An electric aircraft propulsion assembly comprising: an electric storage unit; a first electric motor connected to power a first propulsor; a first converter configured as a DC:AC converter having input connections connectable to the electric storage unit and output connections connected across the first electric motor, the first converter configured to convert a DC supply across the input connections to an AC supply across the output connections; a second electric motor connected to power a second propulsor; a second converter connected between the first converter input connections and the second electric motor; and a controller configured to control operation of the first and second converters (307, 308), characterised in that the second converter is switchable between: a first configuration in which the second converter is configured as a DC:AC converter to convert the DC supply from the electric storage unit to an AC supply across the second electric motor; and a second configuration in which the second converter is configured as a DC:DC converter to convert the DC supply from the electric storage unit at a first DC level to a DC supply at the input connections of the first converter at a second DC level. an electric storage unit; a first electric motor connected to power a first propulsor; a first converter configured as a DC:AC converter having input connections connectable to the electric storage unit and output connections connected across the first electric motor, the first converter configured to convert a DC supply across the input connections to an AC supply across the output connections; a second electric motor connected to power a second propulsor; a second converter connected between the first converter input connections and the second electric motor; and a controller configured to control operation of the first and second converters (307, 308), characterised in that the second converter is switchable between: a first configuration in which the second converter is configured as a DC:AC converter to convert the DC supply from the electric storage unit to an AC supply across the second electric motor; and a second configuration in which the second converter is configured as a DC:DC converter to convert the DC supply from the electric storage unit at a first DC level to a DC supply at the input connections of the first converter at a second DC level. a first configuration in which the second converter is configured as a DC:AC converter to convert the DC supply from the electric storage unit to an AC supply across the second electric motor; and a second configuration in which the second converter is configured as a DC:DC converter to convert the DC supply from the electric storage unit at a first DC level to a DC supply at the input connections of the first converter at a second DC level.
Color-stable, antimicrobial glass powder, obtained by partial ion exchange at a temperature of 300 to 350°C and an exchange time of 1 to 120 minutes comprising a mixture of: - porous glass particles with micropores and macropores from borosilicate glass continuously foamed by extrusion with an Fe2O3 content < 0.2% by weight, whereby the glass foam obtained is then ground by dry milling to medium particle sizes of 1.0 to 8.0 μm, - ammonium nitrate, which forms 0.1% to 0.2% ammonium ions in the porous glass particles using the specified process parameters, - antimicrobial metal ions from dissolved metal salts, whereby the metal ions may be silver and/or zinc and/or copper ions. - porous glass particles with micropores and macropores from borosilicate glass continuously foamed by extrusion with an Fe2O3 content < 0.2% by weight, whereby the glass foam obtained is then ground by dry milling to medium particle sizes of 1.0 to 8.0 μm, - ammonium nitrate, which forms 0.1% to 0.2% ammonium ions in the porous glass particles using the specified process parameters, - antimicrobial metal ions from dissolved metal salts, whereby the metal ions may be silver and/or zinc and/or copper ions.
A method for controlling operation of an aircraft aileron comprising an inboard portion and an outboard portion, the method comprising: determining a velocity of the aircraft; when the velocity is below a first threshold, causing the inboard aileron portion and the outboard aileron portion to move substantially in unison; when the velocity is above the first threshold and below a second threshold greater than the first threshold, causing the outboard portion of the aileron to lock and causing the inboard portion of the aileron to move independently from the outboard portion; and when the velocity is above the second threshold, causing the outboard portion of the aileron to move substantially opposite from the inboard portion. determining a velocity of the aircraft; when the velocity is below a first threshold, causing the inboard aileron portion and the outboard aileron portion to move substantially in unison; when the velocity is above the first threshold and below a second threshold greater than the first threshold, causing the outboard portion of the aileron to lock and causing the inboard portion of the aileron to move independently from the outboard portion; and when the velocity is above the second threshold, causing the outboard portion of the aileron to move substantially opposite from the inboard portion.
A microwave modulation device, comprising: a first radiator comprising: a substrate; a metal layer disposed on the substrate; a protective layer disposed on at least a portion of the metal layer, and having a first through hole, wherein the first through hole overlaps with a portion of the metal layer; an etch-stop layer disposed between the metal layer and the protective layer; an insulation layer disposed between the metal layer and the etch-stop layer, wherein the insulation layer has a third through hole; and at least a portion of a conductive layer disposed on the metal layer and the protective layer; a second radiator disposed corresponding to the first radiator; and a modulation structure disposed between the first radiator and the second radiator; characterized in that the etch-stop layer has a second through hole, wherein the second through hole overlaps with the first through hole, and the conductive layer is in contact with the metal layer through the first through hole, the second through hole and the third through hole. a first radiator comprising: a substrate; a metal layer disposed on the substrate; a protective layer disposed on at least a portion of the metal layer, and having a first through hole, wherein the first through hole overlaps with a portion of the metal layer; an etch-stop layer disposed between the metal layer and the protective layer; an insulation layer disposed between the metal layer and the etch-stop layer, wherein the insulation layer has a third through hole; and at least a portion of a conductive layer disposed on the metal layer and the protective layer; a substrate; a metal layer disposed on the substrate; a protective layer disposed on at least a portion of the metal layer, and having a first through hole, wherein the first through hole overlaps with a portion of the metal layer; an etch-stop layer disposed between the metal layer and the protective layer; an insulation layer disposed between the metal layer and the etch-stop layer, wherein the insulation layer has a third through hole; and at least a portion of a conductive layer disposed on the metal layer and the protective layer; a second radiator disposed corresponding to the first radiator; and a modulation structure disposed between the first radiator and the second radiator; characterized in that the etch-stop layer has a second through hole, wherein the second through hole overlaps with the first through hole, and the conductive layer is in contact with the metal layer through the first through hole, the second through hole and the third through hole.