mhurhangee/ep-ind-claims huggingface dataset:
Collecting device for sampling at least one specimen from bodily cavities of humans and animals, the collecting device having a proximal end, which is the end of the device to first contact said bodily cavity during use and a distal end opposed to said proximal end, the collecting device comprising: - an elongated flattened pouch having: an open end, a short side opposed to the open end, situated at the proximal end of the collecting device, and two long sides (202,204); wherein the collecting device further comprises - two creasing means (32,34), each having a fixed end, which is fixed inside the pouch at or in the vicinity of said short side and a free end, which protrudes freely through said open end, wherein the collecting device is configured such that upon pulling the free ends of the two creasing means (32,34) in opposite directions each substantially perpendicular to one of the two long sides (202,204), the short side of the pouch is brought closer to the open end while the pouch adopts a creased shape. the collecting device having a proximal end, which is the end of the device to first contact said bodily cavity during use and a distal end opposed to said proximal end, the collecting device comprising: - an elongated flattened pouch having: - an elongated flattened pouch having: an open end, a short side opposed to the open end, situated at the proximal end of the collecting device, and two long sides (202,204); wherein the collecting device further comprises - two creasing means (32,34), each having a fixed end, which is fixed inside the pouch at or in the vicinity of said short side and a free end, which protrudes freely through said open end, - two creasing means (32,34), each having a fixed end, which is fixed inside the pouch at or in the vicinity of said short side and a free end, which protrudes freely through said open end, wherein the collecting device is configured such that upon pulling the free ends of the two creasing means (32,34) in opposite directions each substantially perpendicular to one of the two long sides (202,204), the short side of the pouch is brought closer to the open end while the pouch adopts a creased shape.
An antenna apparatus having directivity, comprising: an antenna portion having a power feeding portion, a plate-like first antenna element having a principal surface, and a second antenna element connected to a side of the first antenna element through the power feeding portion, the second antenna element having a width smaller than the width of the first antenna element; and a plate-like parasitic element disposed opposite to the antenna portion, wherein the parasitic element has a length that is approximately one-half or more of a wavelength of an operating frequency, the antenna portion and the parasitic element have a distance capable of being connected electromagnetically to each other, the first antenna element has a predetermined length and/or width so as to control a resonance frequency of the antenna apparatus, the second antenna element has a predetermined length so as to control an input impedance, and the antenna portion and the parasitic element resonate at the operating frequency, characterized in that the second antenna element has a length that is shorter than one-fourth of the wavelength of the operating frequency. an antenna portion having a power feeding portion, a plate-like first antenna element having a principal surface, and a second antenna element connected to a side of the first antenna element through the power feeding portion, the second antenna element having a width smaller than the width of the first antenna element; and a plate-like parasitic element disposed opposite to the antenna portion, wherein the parasitic element has a length that is approximately one-half or more of a wavelength of an operating frequency, the antenna portion and the parasitic element have a distance capable of being connected electromagnetically to each other, the first antenna element has a predetermined length and/or width so as to control a resonance frequency of the antenna apparatus, the second antenna element has a predetermined length so as to control an input impedance, and the antenna portion and the parasitic element resonate at the operating frequency, characterized in that the second antenna element has a length that is shorter than one-fourth of the wavelength of the operating frequency.
A heat spreader for dissipating heat generated by at least one heat-generating power semiconductor device, the heat spreader comprising a base plate which is connectable in a heat-conducting manner to the at least one power semiconductor device, wherein the base plate has at least one recess in which at least one heat pipe is arranged, the heat pipe having a heating zone for receiving heat and a condensation zone for dissipating the generated heat, and wherein the at least one heat pipe is movably supported in the recess, at least one heat coupling element which is connected in a heat-conducting manner to the at least one power semiconductor device on the one hand and to the heat pipe on the other hand, wherein the recess is formed in the region of the heating zone by an opening extending through the base plate, so that a mechanical contact may be established between the heating zone and the power semiconductor device through the heat coupling element, characterized in that the at least one heat coupling element is connected to the heat pipe on a surface opposing to the power semiconductor device, and is attached to a surface of the base plate adjacent to the power semiconductor device via a resilient bearing, and wherein the recess is formed at least in part by a groove in the base plate, so that the heat pipe is in heat-conducting communication with a wall of the base plate.
A treatment method for a UF 6 heel, the treatment method comprising: vaporizing the UF 6 heel; manufacturing solid phase UO 2 F 2 using UF 6 gas vaporized at step; separating the solid phase UO 2 F 2 and by-product gas from each other; and separating hydrogen fluoride from the by-product gas at step. vaporizing the UF 6 heel; manufacturing solid phase UO 2 F 2 using UF 6 gas vaporized at step; separating the solid phase UO 2 F 2 and by-product gas from each other; and separating hydrogen fluoride from the by-product gas at step.
A humanized antibody or antigen binding fragment thereof capable of specific binding to clusterin, wherein the humanized antibody or antigen binding fragment thereof comprises a light chain variable region as set forth in SEQ ID NO.:8 and a heavy chain variable region as set forth in SEQ ID NO.:7.
A burner comprising: a high shape factor nozzle including a nozzle body and nozzle opening having a shape factor from 10 to 75, the shape factor being defined as the square of the nozzle perimeter divided by twice the nozzle cross-sectional area; characterized by an annular nozzle surrounding the high shape factor nozzle; wherein an annular nozzle opening is formed between the annular nozzle and the high shape factor nozzle; wherein the high shape factor nozzle is configured to be supplied with one of a fuel gas and an oxidizer gas, and the annular nozzle is configured to be supplied with the other of a fuel gas and an oxidizer gas, and wherein the high shape factor nozzle opening and the annular nozzle opening are sized so as to provide a velocity ratio of a gas stream flowing through the annular nozzle to a gas stream flowing through the high shape factor nozzle opening, V ANNULAR / V HSF, is 0.1 to 1. a high shape factor nozzle including a nozzle body and nozzle opening having a shape factor from 10 to 75, the shape factor being defined as the square of the nozzle perimeter divided by twice the nozzle cross-sectional area; characterized by an annular nozzle surrounding the high shape factor nozzle; wherein an annular nozzle opening is formed between the annular nozzle and the high shape factor nozzle; wherein the high shape factor nozzle is configured to be supplied with one of a fuel gas and an oxidizer gas, and the annular nozzle is configured to be supplied with the other of a fuel gas and an oxidizer gas, and wherein the high shape factor nozzle opening and the annular nozzle opening are sized so as to provide a velocity ratio of a gas stream flowing through the annular nozzle to a gas stream flowing through the high shape factor nozzle opening, V ANNULAR / V HSF, is 0.1 to 1.
A scheduling method, comprising: acquiring, after receiving scheduling policy indication information, a scheduling policy from the scheduling policy indication information; rearranging rows and columns in a Far-End CrossTalk, FEXT, precoding matrix according to the acquired scheduling policy; performing matrix decomposition on the rearranged matrix by adopting a preset matrix decomposition algorithm; and assigning a rate to each line pair in a Data Subscriber Line, DSL, based on a matrix decomposition result; wherein acquiring, after receiving scheduling policy indication information, a scheduling policy from the scheduling policy indication information comprises: receiving a message field carrying the scheduling policy indication information sent by a Management Element, ME; and acquiring the scheduling policy based on the scheduling policy indication information in the message field. acquiring, after receiving scheduling policy indication information, a scheduling policy from the scheduling policy indication information; rearranging rows and columns in a Far-End CrossTalk, FEXT, precoding matrix according to the acquired scheduling policy; performing matrix decomposition on the rearranged matrix by adopting a preset matrix decomposition algorithm; and assigning a rate to each line pair in a Data Subscriber Line, DSL, based on a matrix decomposition result; wherein acquiring, after receiving scheduling policy indication information, a scheduling policy from the scheduling policy indication information comprises: receiving a message field carrying the scheduling policy indication information sent by a Management Element, ME; and acquiring the scheduling policy based on the scheduling policy indication information in the message field.
An integrated optical structure comprising: a semiconductor-on-insulator substrate comprising a semiconductor device layer; and a wire waveguide (100, 302) formed in the semiconductor device layer and tapered in width, the wire waveguide having a top surface, a bottom surface being formed at the interface with an insulator layer, and sidewalls (110, 112), wherein the sidewalls, along at least a portion of a length of the wire waveguide, do not extend laterally beyond the top surface of the wire waveguide (100, 302) and substantially consist of sidewall portions coinciding with crystallographic planes of the wire waveguide; wherein the sidewall portions comprise, along at least the portion of the length of the wire waveguide (100, 302), one or more substantially planar upper portions extending from a top edge of the wire waveguide at an acute angle with respect to the top surface of the wire waveguide and one or more substantially planar lower portions extending from a bottom edge of the wire waveguide at an acute angle with respect to a bottom surface of the wire waveguide, the upper and lower portions meeting at a medial horizontal plane of the wire waveguide (100, 302); and disposed above or below the tapered wire waveguide, at least at a narrow end thereof, a second waveguide made from a different material than the wire waveguide, the wire waveguide and the second waveguide together forming a waveguide mode converter. a semiconductor-on-insulator substrate comprising a semiconductor device layer; and a wire waveguide (100, 302) formed in the semiconductor device layer and tapered in width, the wire waveguide having a top surface, a bottom surface being formed at the interface with an insulator layer, and sidewalls (110, 112), wherein the sidewalls, along at least a portion of a length of the wire waveguide, do not extend laterally beyond the top surface of the wire waveguide (100, 302) and substantially consist of sidewall portions coinciding with crystallographic planes of the wire waveguide; wherein the sidewall portions comprise, along at least the portion of the length of the wire waveguide (100, 302), one or more substantially planar upper portions extending from a top edge of the wire waveguide at an acute angle with respect to the top surface of the wire waveguide and one or more substantially planar lower portions extending from a bottom edge of the wire waveguide at an acute angle with respect to a bottom surface of the wire waveguide, the upper and lower portions meeting at a medial horizontal plane of the wire waveguide (100, 302); and disposed above or below the tapered wire waveguide, at least at a narrow end thereof, a second waveguide made from a different material than the wire waveguide, the wire waveguide and the second waveguide together forming a waveguide mode converter.
An optical display device comprising: a substrate having a surface; and a first pixel of a color image comprising first and second sub-pixels according to an additive RGB color scheme; wherein said first sub-pixel comprises a first optical sub-wavelength nanostructure array (2, 3, 4, 22) formed on or in the surface of said substrate; wherein said second sub-pixel comprises a second optical sub-wavelength nanostructure array (2, 3, 4, 22) formed on or in the surface of said substrate; wherein said first and second nanostructure arrays each comprise a plurality of nanostructures and said nanostructures comprise one or more of nanoholes and nano-columns formed on or in said surface of said substrate, characterised in that said first optical sub-wavelength nanostructure array comprises nanostructures with a periodic spacing of about 580 nm to 680 nm wherein said first sub-pixel comprises a red RGB sub-pixel, or nanostructures with a periodic spacing of about 480 nm to 580 nm wherein said first sub-pixel comprises a green RGB sub-pixel, or nanostructures with a periodic spacing of 380 nm to 480 nm wherein said first sub-pixel comprises a blue RGB sub-pixel. a substrate having a surface; and a first pixel of a color image comprising first and second sub-pixels according to an additive RGB color scheme; wherein said first sub-pixel comprises a first optical sub-wavelength nanostructure array (2, 3, 4, 22) formed on or in the surface of said substrate; wherein said second sub-pixel comprises a second optical sub-wavelength nanostructure array (2, 3, 4, 22) formed on or in the surface of said substrate; wherein said first and second nanostructure arrays each comprise a plurality of nanostructures and said nanostructures comprise one or more of nanoholes and nano-columns formed on or in said surface of said substrate, characterised in that said first optical sub-wavelength nanostructure array comprises nanostructures with a periodic spacing of about 580 nm to 680 nm wherein said first sub-pixel comprises a red RGB sub-pixel, or nanostructures with a periodic spacing of about 480 nm to 580 nm wherein said first sub-pixel comprises a green RGB sub-pixel, or nanostructures with a periodic spacing of 380 nm to 480 nm wherein said first sub-pixel comprises a blue RGB sub-pixel.
An appliance for thoracic drainage in patients with an air fistula, said appliance comprising: a suction device for generating a vacuum; and a control device for controlling the suction device; a pressure gauge for measuring the generated vacuum; and a flow meter for measuring a volumetric flow, wherein the control device is configured to determine a size parameter for the air fistula by carrying out the following steps: using the pressure gauge to determine a measured value for the vacuum generated in the pleural space; using the flow meter to determine a measured value for the volumetric flow through the air fistula; and characterized by the step of calculating the size parameter such that the control device mathematically links the measured values of the volumetric flow and of the vacuum to each other, in order thereby to allow a conclusion regarding the size parameter. a suction device for generating a vacuum; and a control device for controlling the suction device; a pressure gauge for measuring the generated vacuum; and a flow meter for measuring a volumetric flow, using the pressure gauge to determine a measured value for the vacuum generated in the pleural space; using the flow meter to determine a measured value for the volumetric flow through the air fistula; and characterized by the step of calculating the size parameter such that the control device mathematically links the measured values of the volumetric flow and of the vacuum to each other, in order thereby to allow a conclusion regarding the size parameter.
Apparatus for modifying test measurement signals for protective devices for electric power networks, the apparatus having: an input interface to receive a first test measurement signal from a test generator, wherein the first test measurement signal is matched to a first electrical input characteristic of a first protective device for a power network; an electrical modification system coupled to the input interface to convert the first test measurement signal into a second test measurement signal, wherein the second test measurement signal is matched to a second electrical input characteristic of a second protective device for the power network; and an output interface to output the second test measurement signal to the second protective device, characterized in that the input interface has an input current connection and/or the output interface has an output current connection wherein the electrical modification system has a circuit which is configured to emulate a current-measuring coil, in particular a Rogowski coil, and/or the electrical modification system has a circuit which is configured to emulate a current transducer, in particular a low power current transducer. an input interface to receive a first test measurement signal from a test generator, wherein the first test measurement signal is matched to a first electrical input characteristic of a first protective device for a power network; an electrical modification system coupled to the input interface to convert the first test measurement signal into a second test measurement signal, wherein the second test measurement signal is matched to a second electrical input characteristic of a second protective device for the power network; and an output interface to output the second test measurement signal to the second protective device, characterized in that the input interface has an input current connection and/or the output interface has an output current connection wherein the electrical modification system has a circuit which is configured to emulate a current-measuring coil, in particular a Rogowski coil, and/or the electrical modification system has a circuit which is configured to emulate a current transducer, in particular a low power current transducer.
A filter comprising at least one pair of flat filtering elements, each comprising an internal face, an external face, a screen, two concentric circular margins, respectively an inner margin and an outer margin between which said screen extends, and radial ribs that are regularly distributed circumferentially and that extend facing one another on opposite sides of said screen and between said concentric margins in order to form sectors on said internal face and on said external face, said two filtering elements being assembled against each other in such a manner that said facing internal faces define a space that is compartmented radially by the radial ribs contacting said internal faces, said inner and outer margins comprising passages communicating respectively with the sectors and also comprising parallel distribution columns extending along an axial direction, and a rotary declogging distributor comprising an opening, said distributor being mounted to rotate so that said opening is periodically and selectively put into communication with each distribution column, characterised in that it comprises a fixed distributor (47, 47A) disposed coaxially to a stack of filtering elements of said filter and comprising distinct ducts which form said distribution columns (50, 50A) and which respectively establish communication between said rotary distributor, on the one hand, and the aforementioned passages of said stack that are in alignment along generatrices thereof, on the other hand.
Toroidal current transducer comprising a housing, a ring-shaped magnetic field sensing unit mounted in the housing, and a central passage, the transducer comprising an essentially U- or V-shaped primary conductor unit provided as a separate component, said primary conductor unit comprising a dielectric body and a plurality of primary conductors for carrying a current to be measured held together within the dielectric body and being configured to be inserted through the central passage of the housing, characterized by the dielectric body being lockable to the housing by complementary locking members provided on the dielectric body and the housing, and wherein the dielectric body is a plastic body moulded over the primary conductors to form said essentially U- or V-shaped separate component.
A bracket for being connected to batteries and a power consumption device body, a battery of the batteries comprising a box body and a battery cell accommodated in the box body, wherein the bracket comprises: a pair of first beams, the pair of first beams being oppositely arranged; at least one support beam, wherein each support beam is connected to the pair of first beams, a space between the pair of first beams is separated by the at least one support beam into a plurality of subspaces, the plurality of subspaces are arranged along the length direction of the first beams, each subspace is configured to accommodate at least one of the batteries, two adjacent subspaces is separated by each support beam, and each support beam is configured to install the box bodies of the batteries accommodated in the two adjacent subspaces; a first locking mechanism, and the first locking mechanism is installed on a support beam of the at least one support beam and is configured to lock the box bodies of the batteries on the support beam. a pair of first beams, the pair of first beams being oppositely arranged; at least one support beam, wherein each support beam is connected to the pair of first beams, a space between the pair of first beams is separated by the at least one support beam into a plurality of subspaces, the plurality of subspaces are arranged along the length direction of the first beams, each subspace is configured to accommodate at least one of the batteries, two adjacent subspaces is separated by each support beam, and each support beam is configured to install the box bodies of the batteries accommodated in the two adjacent subspaces; a first locking mechanism, and the first locking mechanism is installed on a support beam of the at least one support beam and is configured to lock the box bodies of the batteries on the support beam.
A method for making an inorganic thermoset resin, the method comprising: (a) mixing SiO 2, H 2 O and a metallic hydroxide for generating an alkaline aqueous solution with pH from 10 to 14 comprising a metallic silicate, wherein said metallic hydroxide generates a first metallic oxide in the aqueous solution, (b) adding aluminum oxide (Al 2 O 3) and silica oxide (SiO 2) to the alkaline aqueous solution comprising a metallic silicate generated in step (a), and (c) adding halloysite nanotubes (Al 2 Si 2 O 5 4) to the solution generated in step (b). (a) mixing SiO 2, H 2 O and a metallic hydroxide for generating an alkaline aqueous solution with pH from 10 to 14 comprising a metallic silicate, wherein said metallic hydroxide generates a first metallic oxide in the aqueous solution, (b) adding aluminum oxide (Al 2 O 3) and silica oxide (SiO 2) to the alkaline aqueous solution comprising a metallic silicate generated in step (a), and (c) adding halloysite nanotubes (Al 2 Si 2 O 5 4) to the solution generated in step (b).