mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a blank of titanium-doped glass having a high silicic-acid content with an internal transmission of at least 70% in the wavelength range of 400 nm to 1000 nm at a sample thickness of 10 mm for use in EUV lithography, comprising the following method steps: (a) producing a TiO 2 -SiO 2 soot body by means of flame hydrolysis of silicon- and titanium-containing precursor substances, (b) drying the soot body such that a mean hydroxyl group content of less than 120 wt. ppm is obtained, (c) vitrifying the soot body to form a blank of titanium-doped glass having a high silicic-acid content. characterized in that prior to vitrifying according to method step (c) the TiO 2 -SiO 2 soot body is subjected to a conditioning treatment which comprises a treatment with a nitrogen oxide, and that for expulsion of reaction gases out of the soot body after the conditioning treatment with the nitrogen oxide and prior to vitrifying according to method step (c) a thermal treatment is carried out in a temperature range of 600°C to 1000°C. (a) producing a TiO 2 -SiO 2 soot body by means of flame hydrolysis of silicon- and titanium-containing precursor substances, (b) drying the soot body such that a mean hydroxyl group content of less than 120 wt. ppm is obtained, (c) vitrifying the soot body to form a blank of titanium-doped glass having a high silicic-acid content.
A non-woven fabric comprising a non-woven web suitable for use in a hygiene absorbent article, which web comprises a side which is provided with an overall pattern which consists of a first pattern and a second pattern, in which the first pattern is a pattern of individualised bonded areas which have a non-linear shape, which first pattern defines the second pattern of non-bonded areas which non-bonded areas have a hexagonal type of shape, wherein the non-woven web has a basis weight in the range of from 8-30 g/m 2, and wherein the surface of the bonded areas is in the range of 10-30 % of the total surface of the side and the surface of the non-bonded area is in the range of from 70-90 % of the total surface of the side.
An apparatus (110, 200, 310, 410), comprising: an ion trap having: a plurality of electrodes configured to trap an ion above a surface of the device; a medial coil (102, 202, 302-1, 302-2) below the surface of the device; and a plurality of peripheral coils (104-1, 104-2, 104-3, 104-4, 204-1, 204-2, 204-3, 204-4, 304-1, 304-2, 304-3, 304-4) below the surface of the device, each peripheral coil being positioned at a respective radial angle associated with the medial coil (102, 202, 302-1, 302-2); wherein the medial coil (102, 202, 302-1, 302-2) is configured to generate a first magnetic field having a first orientation, and wherein the peripheral coils (104-1, 104-2, 104-3, 104-4, 204-1, 204-2, 204-3, 204-4, 304-1, 304-2, 304-3, 304-4) are configured to generate a second magnetic field having a second orientation that opposes the first orientation. an ion trap having: a plurality of electrodes configured to trap an ion above a surface of the device; a medial coil (102, 202, 302-1, 302-2) below the surface of the device; and a plurality of peripheral coils (104-1, 104-2, 104-3, 104-4, 204-1, 204-2, 204-3, 204-4, 304-1, 304-2, 304-3, 304-4) below the surface of the device, each peripheral coil being positioned at a respective radial angle associated with the medial coil (102, 202, 302-1, 302-2); wherein the medial coil (102, 202, 302-1, 302-2) is configured to generate a first magnetic field having a first orientation, and wherein the peripheral coils (104-1, 104-2, 104-3, 104-4, 204-1, 204-2, 204-3, 204-4, 304-1, 304-2, 304-3, 304-4) are configured to generate a second magnetic field having a second orientation that opposes the first orientation. a plurality of electrodes configured to trap an ion above a surface of the device; a medial coil (102, 202, 302-1, 302-2) below the surface of the device; and a plurality of peripheral coils (104-1, 104-2, 104-3, 104-4, 204-1, 204-2, 204-3, 204-4, 304-1, 304-2, 304-3, 304-4) below the surface of the device, each peripheral coil being positioned at a respective radial angle associated with the medial coil (102, 202, 302-1, 302-2); wherein the medial coil (102, 202, 302-1, 302-2) is configured to generate a first magnetic field having a first orientation, and wherein the peripheral coils (104-1, 104-2, 104-3, 104-4, 204-1, 204-2, 204-3, 204-4, 304-1, 304-2, 304-3, 304-4) are configured to generate a second magnetic field having a second orientation that opposes the first orientation.
Evaporation apparatus comprising: (i) At least one inlet for a liquid to be evaporated, the inlet(s) being located at the top of the evaporation apparatus (2.1) and/or on a side of the evaporation apparatus (2.2); (ii) Optionally, a seal pot into which any inlet located at the top of the evaporation apparatus (2.1) immerses; (iii) A liquid distributor, which is located • underneath any inlet located at the top of the evaporation apparatus (2.1) or, if present, underneath the seal pot, and / or • above any inlet located on a side of the evaporation apparatus (2.2), the liquid distributor being connected to the inlet located on a side of the evaporation apparatus (2.2); (iv) An upper heating unit (5.1) arranged horizontally in the evaporation apparatus underneath the liquid distributor; (v) A lower heating unit (5.2) arranged horizontally or with a downward slope in the evaporation apparatus underneath the upper heating unit (5.1); (vi) A heatable flat plate arranged horizontally in the bottom of the evaporation apparatus underneath the lower heating unit (5.2); (vii) An outlet for the evaporated liquid (i.e. the desired gas stream). (i) At least one inlet for a liquid to be evaporated, the inlet(s) being located at the top of the evaporation apparatus (2.1) and/or on a side of the evaporation apparatus (2.2); (ii) Optionally, a seal pot into which any inlet located at the top of the evaporation apparatus (2.1) immerses; (iii) A liquid distributor, which is located • underneath any inlet located at the top of the evaporation apparatus (2.1) or, if present, underneath the seal pot, and / or • above any inlet located on a side of the evaporation apparatus (2.2), the liquid distributor being connected to the inlet located on a side of the evaporation apparatus (2.2); • underneath any inlet located at the top of the evaporation apparatus (2.1) or, if present, underneath the seal pot, and / or • above any inlet located on a side of the evaporation apparatus (2.2), the liquid distributor being connected to the inlet located on a side of the evaporation apparatus (2.2); (iv) An upper heating unit (5.1) arranged horizontally in the evaporation apparatus underneath the liquid distributor; (v) A lower heating unit (5.2) arranged horizontally or with a downward slope in the evaporation apparatus underneath the upper heating unit (5.1); (vi) A heatable flat plate arranged horizontally in the bottom of the evaporation apparatus underneath the lower heating unit (5.2); (vii) An outlet for the evaporated liquid (i.e. the desired gas stream).
A method for manufacturing a wall element from concrete, such as a wall element of concrete that is upright and can be applied on an exterior wall or interior wall, comprising a plurality of recesses and/or breakthroughs which are formed to be cavity-like and are regularly or irregularly distributed across at least one smooth wall surface (flat side 11), the method comprising the following method steps: - placing clay or similar clumps on the bottom of a mold which is laterally delimited by boarding panels which are upright and can be removed as needed; - filling the mold with concrete up to a predetermined height while forming a concrete level in such a manner that at least one clay or similar clump protrudes upward beyond said concrete level; - compacting the aforementioned concrete filling by vibrating the same; - stripping the concrete level using a stripper plate or similar; - hardening the concrete including the clay or similar clumps; - demolding the hardened wall element; and washing out the included clay or similar clumps by means of water and/or steam or blowing out the aforementioned clumps with compressed air, in each case forming respective cavity-like recesses and/or breakthroughs. - placing clay or similar clumps on the bottom of a mold which is laterally delimited by boarding panels which are upright and can be removed as needed; - filling the mold with concrete up to a predetermined height while forming a concrete level in such a manner that at least one clay or similar clump protrudes upward beyond said concrete level; - compacting the aforementioned concrete filling by vibrating the same; - stripping the concrete level using a stripper plate or similar; - hardening the concrete including the clay or similar clumps; - demolding the hardened wall element; and washing out the included clay or similar clumps by means of water and/or steam or blowing out the aforementioned clumps with compressed air, in each case forming respective cavity-like recesses and/or breakthroughs.
A catalyst component for olefin polymerization, comprising magnesium, titanium, halogen and an internal electron donor, wherein the internal electron donor comprises an imine compound with a ketone group as shown in Formula I, wherein in Formula I, R is selected from a group consisting of hydroxyl, C 1 -C 20 alkyl with or without a halogen atom substitute, C 2 -C 20 alkenyl with or without a halogen atom substitute group, and C 6 -C 30 aryl with or without a halogen atom substitute group; R 1 and R 2 may be identical to or different from each other, each independently selected from a group consisting of hydrogen, C 1 -C 20 alkyl, C 2 -C 20 alkenyl, C 1 -C 20 alkoxy, C 6 -C 30 arylalkyl, C 6 -C 30 alkylaryl, C 9 -C 40 fused aryl, halogen atoms, and hydroxyl; A is (CR 3 R 4) n or a heteroatom, wherein R 3 and R 4 may be identical to or different from each other, each independently selected from a group consisting of hydrogen, C 1 -C 20 alkyl, C 2 -C 20 alkenyl, C 6 -C 30 arylalkyl, C 6 -C 30 alkylaryl, and C 9 -C 40 fused aryl, and n is 0, 1, 2, 3, 4, 5, or 6.
A punching scrap removal device for a rotary die cutter which comprises a knife cylinder, an anvil cylinder arranged in contraposition to the knife cylinder, and a blade mount installed on an outer periphery of the knife cylinder with a punching blade, the blade mount having an arc-shaped cross-section, the punching blade being configured to punch a sheet (s) to be processed that is passed between the knife cylinder ('leo) and the anvil cylinder, the device comprising: a plurality of first push members which are movably installed in a plurality of first through-holes respectively, the first through-holes being formed in an outer wall of the knife cylinder; a plurality of second push members which are movably installed in a plurality of second through-holes respectively, the second through-holes being formed in the blade mount at face-to-face positions with the first through-holes of the knife cylinder, the second push members being permitted to be abutted on the first push members respectively; and a pushing unit which is provided inside of the knife cylinder and pushes the first push members outwardly, and wherein the second push members are moved outwardly by the pushing unit to push out a punching scrap (a) which remains in the punching blade after punching the sheet, and wherein the stroke of the first push members is controlled so as to keep outer ends of the first push members within the outer periphery of the knife cylinder, characterized in that: the device further comprises a coil spring (38, 56) configured to keep the second push members from protruding from a bottom surface of the blade mount by an elastic force thereof when the blade mount is installed or dismounted. a plurality of first push members which are movably installed in a plurality of first through-holes respectively, the first through-holes being formed in an outer wall of the knife cylinder; a plurality of second push members which are movably installed in a plurality of second through-holes respectively, the second through-holes being formed in the blade mount at face-to-face positions with the first through-holes of the knife cylinder, the second push members being permitted to be abutted on the first push members respectively; and a pushing unit which is provided inside of the knife cylinder and pushes the first push members outwardly, and
A closure, reclosure or zipper, comprising: a first profile including a first upper interlocking element and a first lower interlocking element; a second profile including a second upper interlocking element and a second lower interlocking element configured and arranged to interlock with the respective first upper and lower interlocking elements; the first upper interlocking element and the first lower interlocking element being located on a first base element; the second upper interlocking element being located on a second base element, characterised in that the second lower interlocking element is located on a third base element, the third base element including an upper flange element and a lower flange element, the upper flange extending to the second base element and being free of sealing to the second base element. a first profile including a first upper interlocking element and a first lower interlocking element; a second profile including a second upper interlocking element and a second lower interlocking element configured and arranged to interlock with the respective first upper and lower interlocking elements; the first upper interlocking element and the first lower interlocking element being located on a first base element; the second upper interlocking element being located on a second base element, characterised in that the second lower interlocking element is located on a third base element, the third base element including an upper flange element and a lower flange element, the upper flange extending to the second base element and being free of sealing to the second base element.
A polarization switch (200, 210) that transforms linearly polarized light of an initial polarization orientation, comprising: a first liquid crystal π-cell (202, 212) having a first axis of orientation at 45 degrees or -45 degrees relative to the initial polarization orientation; a second liquid crystal π-cell (206, 216) having a second axis of orientation at 45 degrees or -45 degrees relative to the initial polarization orientation, wherein the first axis of orientation and the second axis of orientation are crossed relative to each other; and at least a first compensation layer (204, 214) located between the first liquid crystal π-cell and a first side of the second liquid crystal π-cell, wherein the first compensation layer (204, 214) is a negative C-plate compensator, or any compensator of the same optical retardation functionality. a first liquid crystal π-cell (202, 212) having a first axis of orientation at 45 degrees or -45 degrees relative to the initial polarization orientation; a second liquid crystal π-cell (206, 216) having a second axis of orientation at 45 degrees or -45 degrees relative to the initial polarization orientation, wherein the first axis of orientation and the second axis of orientation are crossed relative to each other; and at least a first compensation layer (204, 214) located between the first liquid crystal π-cell and a first side of the second liquid crystal π-cell, wherein the first compensation layer (204, 214) is a negative C-plate compensator, or any compensator of the same optical retardation functionality.
A biometric radar comprising: phase adjusters to phase adjust a sequence of radar return signals received through two or more receive antennas to force coherency against stationary objects, the phase-adjusting removing at least some phase noise due to the stationary objects; a signal processor configured to segment the phase adjusted radar return signals into a plurality of multi-resolutional Doppler components, each multi-resolutional Doppler component being associated with one of a plurality of biometric features; and a non-linear convolutional neural network configured to combine and weight the segmented radar return signals for each biometric feature to generate weighted classifications for a feature extraction process. phase adjusters to phase adjust a sequence of radar return signals received through two or more receive antennas to force coherency against stationary objects, the phase-adjusting removing at least some phase noise due to the stationary objects; a signal processor configured to segment the phase adjusted radar return signals into a plurality of multi-resolutional Doppler components, each multi-resolutional Doppler component being associated with one of a plurality of biometric features; and a non-linear convolutional neural network configured to combine and weight the segmented radar return signals for each biometric feature to generate weighted classifications for a feature extraction process.
A bollard base comprising a top plate; a plurality of adjustable leg assemblies (160;162;164) partially connected to and extending downwardly from the top plate, wherein at least one of the adjustable leg assemblies (160; 162;164) includes: (a) a tubular leg (180;182;184) connected to and extending downwardly from the top plate, the tubular leg (180;182;184) defining a foot receiving chamber (180e;182e;184e); and (b) a foot (200;240;280) partially insertable into the foot receiving chamber (180e;182e;184e) defined by the tubular leg (180;182;184), characterised in that the foot (200;240;280) includes: (a) a multi-level toe receiver (202;242;282) having a head insertable into the foot receiving chamber (180e;182e;184e) of the tubular leg (180;182;184) and a body extending from the head; and (b) a toe (220;260;300) adjustably receivable in the toe receiver (202;242;282).
A loudspeaker assembly, comprising: a loudspeaker front case, a loudspeaker vibrator, a loudspeaker rear case, a deformable flexible seal bag, and an inlet configured to fill medium into the flexible seal bag; wherein the loudspeaker assembly further comprises an inlet pipe which communicates with the inlet; the inlet pipe is gradually expanded from its distant end towards its proximal end to the inlet; the inlet is provided in the loudspeaker rear case, and the inlet pipe and the loudspeaker rear case are in an integrated structure; a front cavity is formed by the loudspeaker vibrator and the loudspeaker front case, and a rear cavity is formed by the flexible seal bag, the loudspeaker rear case and the loudspeaker vibrator.
A treatment tool adapted to be used in an endoscopic surgical device including an endoscope, the treatment tool and an overtube, wherein the endoscope includes an endoscope insertion part having an observation part provided at a distal end thereof and a flexible cable connected to a base end of the endoscope insertion part, wherein the treatment tool includes a treatment tool insertion part having a treatment part provided at a distal end thereof and an operating part for operating the treatment part provided at a base end of the treatment tool insertion part, wherein the overtube is for guiding the endoscope insertion part and the treatment tool insertion part into a body cavity and wherein the overtube includes an overtube body that passes through a body wall and is inserted into the body cavity, an endoscope insertion passage that is provided inside the overtube body and allows the endoscope insertion part to be inserted therethrough so as to be movable forward and backward, and a treatment tool insertion passage that is provided inside the overtube body and allows the treatment tool insertion part to be inserted therethrough so as to be movable forward and backward, characterized in that the operating part is provided with a guide member wherein the guide member has an insertion hole with a diameter larger than a diameter of the flexible cable and wherein the guide member guides said flexible cable so as to be movable forward and backward in an axial direction with respect to the operating part so that the flexible cable is kept from being separated from a surface of the operating part beyond a fixed distance.
A drag reduction device for a truck, the drag reduction device comprising: a vortex generator, the vortex generator having a vortex generating vane; characterised in that the vortex generating vane comprises a leading portion and a trailing portion which define a vortex generating edge,, the leading portion being profiled to direct flow over the trailing portion and the trailing portion being substantially planar and straight; and wherein the drag reduction device is arranged to cooperate with a front portion of the truck such that at least a portion of the vortex generating edge extends rearwardly with respect to the truck and the trailing portion extends in a substantially longitudinal direction of the truck, with the vortex generating edge being disposed below the front portion of the truck so that, in use, the vortex generating edge generates a vortex below a body of the truck which rotates about an axis extending in the longitudinal direction of the truck, thereby suppressing a wake formed along a side of the truck. a vortex generator, the vortex generator having a vortex generating vane; characterised in that the vortex generating vane comprises a leading portion and a trailing portion which define a vortex generating edge,, the leading portion being profiled to direct flow over the trailing portion and the trailing portion being substantially planar and straight; and wherein the drag reduction device is arranged to cooperate with a front portion of the truck such that at least a portion of the vortex generating edge extends rearwardly with respect to the truck and the trailing portion extends in a substantially longitudinal direction of the truck, with the vortex generating edge being disposed below the front portion of the truck so that, in use, the vortex generating edge generates a vortex below a body of the truck which rotates about an axis extending in the longitudinal direction of the truck, thereby suppressing a wake formed along a side of the truck.
Circuit breaker having a latch comprising a switching mechanism for opening and closing a switching contact operatively connected to a tensioning element, and an unlatching mechanism by which, on the basis of a tripping signal, the tensioning element can be changed from a tensioned to an at least largely untensioned state, thereby opening the switching contact, wherein the tensioning element is linked to a tensioning lever having a locating surface on which a locking pawl of the unlatching mechanism bears in the tensioned state of the tensioning element, wherein the locating surface is curved in the direction of the locking pawl and is movably disposed relative to the tensioning lever, characterised in that the tensioning lever has two metal plates disposed in a plane-parallel manner acting as two lateral sections (14, 15), between which a roller on which the locating surface is disposed is rotatably mounted about a bearing stud or by means of two bearing studs.