mhurhangee/ep-ind-claims huggingface dataset:
A storage controller, comprising: host data segmentation logic to divide, in response to a write command from a host domain to write a data payload to a storage device, the data payload into a plurality of data segments; cyclic redundancy check encode logic to generate a CRC code for each data segment; CRC reordering encode logic to assign and append each CRC code to another data segment among the plurality of data segments; segment sectorization logic to divide each data segment with the appended assigned CRC code into a plurality of sector-length portions, each sector-length portion having a bit length based on a sector size of the storage device; and storage controller circuitry to attempt to write all of the plurality of sector-length portions to the storage device. host data segmentation logic to divide, in response to a write command from a host domain to write a data payload to a storage device, the data payload into a plurality of data segments; cyclic redundancy check encode logic to generate a CRC code for each data segment; CRC reordering encode logic to assign and append each CRC code to another data segment among the plurality of data segments; segment sectorization logic to divide each data segment with the appended assigned CRC code into a plurality of sector-length portions, each sector-length portion having a bit length based on a sector size of the storage device; and storage controller circuitry to attempt to write all of the plurality of sector-length portions to the storage device.
(+)-2-[1-(3-Ethoxy-4-methoxyphenyl)-2-methylsulfonylethyl]-4-acetylaminoisoindoline-1,3-dione, or a pharmaceutically acceptable polymorph, salt, solvate, or hydrate thereof, for use in a method of treating or preventing an inflammatory disease.
A flip-flow type screening or conveying apparatus (10; 900; 950) comprising: a plurality of first mat supports (305, 307, 925, 927); a plurality of second mat supports (304, 306, 924, 926) a sieve mat (200; 915; 965) comprising a plurality of sieve mat sections (204, 206, 208 - 238, 240), wherein each sieve mat section is supported between an adjacent pair of mat supports comprising a first mat support and a second mat support; and a drive apparatus (110/116) imparting a vibration to the apparatus whereby the second mat supports are translated relative to the first mat supports; characterized in that a downwardly-sloped first plane formed by at least a portion of the first mat supports is arranged and maintained while the second mat supports are translated relative to the first mat supports at a lowered offset relative to a downwardly-sloped second plane formed by a corresponding portion of the second mat supports, and wherein a downslope of the sieve mat sections approaching the first mat supports is increased relative to a downslope of the sieve mat sections approaching the second mat supports. a plurality of first mat supports (305, 307, 925, 927); a plurality of second mat supports (304, 306, 924, 926) a sieve mat (200; 915; 965) comprising a plurality of sieve mat sections (204, 206, 208 - 238, 240), wherein each sieve mat section is supported between an adjacent pair of mat supports comprising a first mat support and a second mat support; and a drive apparatus (110/116) imparting a vibration to the apparatus whereby the second mat supports are translated relative to the first mat supports; characterized in that a downwardly-sloped first plane formed by at least a portion of the first mat supports is arranged and maintained while the second mat supports are translated relative to the first mat supports at a lowered offset relative to a downwardly-sloped second plane formed by a corresponding portion of the second mat supports, and wherein a downslope of the sieve mat sections approaching the first mat supports is increased relative to a downslope of the sieve mat sections approaching the second mat supports.
Method for preventing deposits in open cooling water circuits, in which cooling water is fed from a process heat exchanger to a cooling tower, cooled there in contact with ambient air and drained into a collecting tank and then fed back to the process heat exchanger, wherein the pH of the cooling water is recorded continuously or at regular time intervals at a first measuring site and, depending on the difference between the pH recorded at the first measuring site and a predetermined first target value, carbon dioxide is fed to the cooling water, wherein the carbon dioxide is fed upstream of the process heat exchanger, but downstream of the cooling tower, and the pH is recorded at the first measuring site downstream of the process heat exchanger, but upstream of the cooling tower, characterized in that in the cooling water circuit, upstream of the feed of the carbon dioxide and downstream of the cooling tower, the pH of the cooling water is recorded at a second measuring site and, depending on the difference between the pH recorded at the second measuring site and a predetermined second target value, a mineral acid is fed to the cooling water, wherein the controls of the addition of carbon dioxide and of the mineral acid proceed independently of one another.
A filler composition for rubber, comprising: 100 parts by weight of a silica-based filler; 2 to 25 parts by weight of a silane coupling agent; and 0.1 to 10 parts by weight of lactic acid. 100 parts by weight of a silica-based filler; 2 to 25 parts by weight of a silane coupling agent; and 0.1 to 10 parts by weight of lactic acid.
Wall installation connection box unit, comprising - a box housing body having a rear-side base portion and a sleeve portion projecting forward from the base portion, which sleeve portion peripherally surrounds an installation component mounting space, which space is accessible via an open front end face of the sleeve portion, - an extension sleeve which is configured for coaxial arrangement on the sleeve portion and axial pushing back relative to the sleeve portion, and - a retaining structure which allows axial pushing back of the extension sleeve on the sleeve portion from a mounting position (M S) to an end use position (E S) on a variable axial level (H E) and retains the extension sleeve in the end use position on the sleeve portion, - wherein the retaining structure includes a retaining ridge structure radially projecting from the sleeve portion, and a counter-retaining structure provided on the extension sleeve and cooperating with the retaining ridge structure in a frictionally engaged and/or form-locking manner, characterized in that - the retaining ridge structure is formed integrally with at least an adjacent axial partial region of the sleeve portion from a sealing resilient material, and the counter-retaining structure is made of a material which has greater stiffness as compared to the sealing resilient material. - a box housing body having a rear-side base portion and a sleeve portion projecting forward from the base portion, which sleeve portion peripherally surrounds an installation component mounting space, which space is accessible via an open front end face of the sleeve portion, - an extension sleeve which is configured for coaxial arrangement on the sleeve portion and axial pushing back relative to the sleeve portion, and - a retaining structure which allows axial pushing back of the extension sleeve on the sleeve portion from a mounting position (M S) to an end use position (E S) on a variable axial level (H E) and retains the extension sleeve in the end use position on the sleeve portion, - wherein the retaining structure includes a retaining ridge structure radially projecting from the sleeve portion, and a counter-retaining structure provided on the extension sleeve and cooperating with the retaining ridge structure in a frictionally engaged and/or form-locking manner, characterized in that - the retaining ridge structure is formed integrally with at least an adjacent axial partial region of the sleeve portion from a sealing resilient material, and the counter-retaining structure is made of a material which has greater stiffness as compared to the sealing resilient material.
A light polarisation converter (100, 400, 1100) for a photonic integrated circuit, comprising: A substrate (102, 102-4, 102-11) comprising a first surface (104, 104-4, 104-11) and a second surface (106, 106-4, 106-11), the substrate comprising a first substrate layer (134, 134-4, 134-11) and a second substrate layer (136, 136-4, 136-11), the first substrate layer comprising the first surface and the second substrate layer comprising the second surface; and a waveguide (108, 108-4, 108-11) comprising a first waveguide portion (110, 110-4, 110-11) in contact with the first surface, and a second waveguide portion (112, 112-4, 112-11) in contact with the second surface, wherein the second surface is offset from the first surface along a first axis (114, 114-4, 114-11) and a second axis (116, 116-4, 116-11) each perpendicular to a light propagation direction (118, 118-4, 118-11) for converting polarisation of the light, such that the second waveguide portion is offset from the first waveguide portion. A substrate (102, 102-4, 102-11) comprising a first surface (104, 104-4, 104-11) and a second surface (106, 106-4, 106-11), the substrate comprising a first substrate layer (134, 134-4, 134-11) and a second substrate layer (136, 136-4, 136-11), the first substrate layer comprising the first surface and the second substrate layer comprising the second surface; and a waveguide (108, 108-4, 108-11) comprising a first waveguide portion (110, 110-4, 110-11) in contact with the first surface, and a second waveguide portion (112, 112-4, 112-11) in contact with the second surface, wherein the second surface is offset from the first surface along a first axis (114, 114-4, 114-11) and a second axis (116, 116-4, 116-11) each perpendicular to a light propagation direction (118, 118-4, 118-11) for converting polarisation of the light, such that the second waveguide portion is offset from the first waveguide portion.
An ink composition for screen printing comprising: (a) a rubber-forming component; (b) a crosslinking agent; (c) a main solvent that dissolves the rubber-forming component; and (d) a poor solvent that dissolves in the main solvent but does not dissolve in the rubber-forming component, wherein a viscosity (0.1/s) obtained with an E-type viscometer at a temperature of 25°C is 300 to 50000 Pa·s, a viscosity (10/s) obtained with the E-type viscometer at a temperature of 25°C is 50 to 1500 Pa·s, and a loss tangent (0.1 rad/s) obtained with the E-type viscometer at a temperature of 25°C is 10.0 to 20.0. (a) a rubber-forming component; (b) a crosslinking agent; (c) a main solvent that dissolves the rubber-forming component; and (d) a poor solvent that dissolves in the main solvent but does not dissolve in the rubber-forming component, wherein a viscosity (0.1/s) obtained with an E-type viscometer at a temperature of 25°C is 300 to 50000 Pa·s, a viscosity (10/s) obtained with the E-type viscometer at a temperature of 25°C is 50 to 1500 Pa·s, and a loss tangent (0.1 rad/s) obtained with the E-type viscometer at a temperature of 25°C is 10.0 to 20.0.
A sensor unit comprising: a ceramic member including a first face and a second face opposite to each other with a predetermined interval; a sensor part mounted on the first face via a support; a plurality of metal pins fixed to the second face; a plurality of internal wirings, each of the plurality of internal wirings connecting the sensor part with one of the plurality of metal pins; and a metal member formed on a circumferential end of the second face, the metal member being ring-shaped, the metal member being a frame ground, and the metal member being provided to be joined with a housing by welding when the sensor unit is put to use, wherein the plurality of metal pins extend through the metal member and extend outside the metal member, the plurality of metal pins and the metal member are apart from each other by at least a predetermined interval, and the plurality of internal wirings pass through the ceramic member and the support, characterized in that the metal member includes a tapered cutout part formed on an inner circumferential wall facing the metal pins, and the sensor unit further comprises a metal a shield member (600;700) that is formed so as to surround the plurality of internal wirings passing through the ceramic member. a ceramic member including a first face and a second face opposite to each other with a predetermined interval; a sensor part mounted on the first face via a support; a plurality of metal pins fixed to the second face; a plurality of internal wirings, each of the plurality of internal wirings connecting the sensor part with one of the plurality of metal pins; and a metal member formed on a circumferential end of the second face, the metal member being ring-shaped, the metal member being a frame ground, and the metal member being provided to be joined with a housing by welding when the sensor unit is put to use, wherein the plurality of metal pins extend through the metal member and extend outside the metal member, the plurality of metal pins and the metal member are apart from each other by at least a predetermined interval, and the plurality of internal wirings pass through the ceramic member and the support, characterized in that the metal member includes a tapered cutout part formed on an inner circumferential wall facing the metal pins, and the sensor unit further comprises a metal a shield member (600;700) that is formed so as to surround the plurality of internal wirings passing through the ceramic member.
An aqueous composition comprising: a) from 0.2 to 150 parts fluoropolymers particles having a weight average particle size of less than 500 nm, preferably less than 400 nm, wherein said fluoropolymer is a polyvinylidene fluoride (PVDF) homopolymer or copolymer comprising at least 70 mole percent of vinylidene fluoride units; b) from 10 to 500 parts of one or more powdery electrode-forming materials; c) optionally from 0 to 10 parts of one or more thickeners; d) optionally, one or more pH adjusting agents; e) optionally from 0 to 10 parts of one or more additives selected from the group consisting of anti-settling agents and surfactants; f) optionally from 0 to 5 parts of one or more wetting agents; g) from 1 to 100 parts of one or more fugitive adhesion promoters; h) 100 parts water; all parts being parts by weight based on 100 parts by weight of water, wherein the composition contains no fluorosurfactant, and wherein said fugitive adhesion promoter is selected from the group consisting of N-methyl-2-pyrrolidone, dimethylformamide, N,N-dimethylacetamide, dimethylsulfoxide, hexamethylphosphoramide, dioxane, tetrahydrofuran, tetramethylurea, triethyl phosphate, trimethyl phosphate, dimethyl succinate, diethyl succinate and tetraethyl urea. a) from 0.2 to 150 parts fluoropolymers particles having a weight average particle size of less than 500 nm, preferably less than 400 nm, wherein said fluoropolymer is a polyvinylidene fluoride (PVDF) homopolymer or copolymer comprising at least 70 mole percent of vinylidene fluoride units; b) from 10 to 500 parts of one or more powdery electrode-forming materials; c) optionally from 0 to 10 parts of one or more thickeners; d) optionally, one or more pH adjusting agents; e) optionally from 0 to 10 parts of one or more additives selected from the group consisting of anti-settling agents and surfactants; f) optionally from 0 to 5 parts of one or more wetting agents; g) from 1 to 100 parts of one or more fugitive adhesion promoters; h) 100 parts water;
Stapler for stapling sheet material by means of staples, each staple having two staple legs and a staple crown interconnecting the staple legs and extending transversely to them, with an anvil arm having a support plate for placing the sheet material thereon, the anvil arm carrying a cutting pad with two cutting edges for cutting off excess end parts of the staple legs, with a stapling unit that is pivotally mounted relative to the anvil arm, which stapling unit comprises a staple magazine receiving the staples in a row with the staple crowns mutually abutting and being aligned parallel to each other and a driver for pushing individual staples with the free ends of their staple legs first through the sheet material, with a base part, on which the anvil arm is mounted movably towards it against a restoring force, and with two two-armed bending levers pivotably mounted on the anvil arm about a respective pivot axis, each bending lever having a first lever arm with a bending surface for bending the staple legs and a second lever arm, wherein upon approach of the anvil arm to the base part, the second lever arms are pivoted by action of the base part about the pivot axes and the bending surfaces bend the staple legs towards each other and cut off any excess end portions by pressing against the cutting edges, characterized in that the pivot axes extend substantially perpendicular to the staple crowns of the staples received in the staple magazine and that the second lever arms have end portions beginning at their free ends which are arranged offset to one another in the axial direction of the pivot axes so that they move past one another as the anvil arm approaches the base part.
A system (110; 210; 310) comprising: a centrally located setback and racking system; a set of wellbay accesses positioned substantially equidistantly apart from each other along a wellbay access perimeter, each of the plurality of wellbay accesses associated with a wellbay substantially therebelow; at least one peripheral skidding system located on a main deck of a drilling platform, wherein the at least one peripheral skidding system is operable to position a plurality of drilling modules with a plurality of the wellbay accesses, wherein the centrally located setback and racking system is positioned at least partially below the elevation of the peripheral skidding system, and wherein the centrally located setback and racking system is configured for rotational movement about its center of axis to feed tubulars in substantially the direction of each of the plurality of wellbay accesses. a centrally located setback and racking system; a set of wellbay accesses positioned substantially equidistantly apart from each other along a wellbay access perimeter, each of the plurality of wellbay accesses associated with a wellbay substantially therebelow; at least one peripheral skidding system located on a main deck of a drilling platform, wherein the at least one peripheral skidding system is operable to position a plurality of drilling modules with a plurality of the wellbay accesses, wherein the centrally located setback and racking system is positioned at least partially below the elevation of the peripheral skidding system, and wherein the centrally located setback and racking system is configured for rotational movement about its center of axis to feed tubulars in substantially the direction of each of the plurality of wellbay accesses.
An air mover device for drying at least one surface comprising at least one air mover (6; 53; 71; 87) by which an airflow controllable by an adjusting unit (26, 28; 57, 60) is generateable, wherein the airflow is controllable automatically by the adjusting unit (26, 28; 57, 60) essentially to any direction in space, characterized in that the adjusting unit (26, 28; 57, 60) is controlled by an Electronic Control Unit (40; 76), wherein at least one sensor for detecting humidity and/or temperature of the at least one surface is provided and wherein the air mover device is adapted to control the airflow in response to a measuring signal of the at least one sensor transmitted to the ECU (40; 76).
An alkali aluminosilicate glass article comprising a compressive stress layer extending from a surface of the alkali aluminosilicate glass to a depth of layer, the compressive stress layer having a maximum compressive stress of at least 400 MPa at the surface, wherein the alkali aluminosilicate glass article comprises: at least 58 mol% SiO 2; from 0.5 mol% to 3 mol% P 2 O 5; at least 11 mol% Al 2 O 3; Na 2 O; and from 4 mol% up to 13 mol% Li 2 O; wherein the ratio of the amount of Li 2 O(mol%) to Na 2 O(mol%) (Li 2 O/Na 2 O) is less than 1.0, and wherein the alkali aluminosilicate glass article is free of B 2 O 3. at least 58 mol% SiO 2; from 0.5 mol% to 3 mol% P 2 O 5; at least 11 mol% Al 2 O 3; Na 2 O; and from 4 mol% up to 13 mol% Li 2 O; wherein the ratio of the amount of Li 2 O(mol%) to Na 2 O(mol%) (Li 2 O/Na 2 O) is less than 1.0, and wherein the alkali aluminosilicate glass article is free of B 2 O 3.
A single or multi-compartment water-soluble cleaning pouch comprising a cleaning composition and an enveloping material, the pouch comprising at least one compartment comprising a liquid composition said liquid composition comprising a mixture of a first complexing agent and a second complexing agent wherein the weight ratio of first to the second complexing agent is in the range of from 5:1 to 1:10 and wherein the first complexing agent is selected from the group consisting of methyl glycine diacetic acid, its salts and mixtures thereof and wherein the mixture of the complexing agents comprises at least 10% by weight thereof of the first complexing agent and the liquid composition has an eRH of about 65% or less at 20 °C.
A resource allocation method performed by a macro base station in a heterogeneous network system, the method comprising: determining a ratio of one or more almost blank subframes, ABSs, to one or more non-ABSs; generating an ABS pattern based on the determined ratio, a type of first data to be transmitted by the macro base station, and a type of second data to be transmitted by a pico base station; and performing data communication using radio resources based on the ABS pattern, wherein a subframe, in which a system information block 1, SIB-1, is to be transmitted by the macro base station, is determined as an ABS in the generation of the ABS pattern, wherein a subframe, in which a physical hybrid automatic repeat request, HARQ, indicator channel, PHICH corresponding to a physical downlink control channel, PDCCH, is to be transmitted by the pico base station to a terminal served by the pico base station, is determined as an ABS in the generation of the ABS pattern, wherein a subframe, in which a random access response, RAR, message for accepting access of a terminal is to be transmitted by the pico base station, is determined as an ABS in the generation of the ABS pattern, and wherein a subframe, in which a paging message is to be transmitted by the macro base station, is determined as a non-ABS in the generation of the ABS pattern. determining a ratio of one or more almost blank subframes, ABSs, to one or more non-ABSs; generating an ABS pattern based on the determined ratio, a type of first data to be transmitted by the macro base station, and a type of second data to be transmitted by a pico base station; and performing data communication using radio resources based on the ABS pattern, wherein a subframe, in which a system information block 1, SIB-1, is to be transmitted by the macro base station, is determined as an ABS in the generation of the ABS pattern, wherein a subframe, in which a physical hybrid automatic repeat request, HARQ, indicator channel, PHICH corresponding to a physical downlink control channel, PDCCH, is to be transmitted by the pico base station to a terminal served by the pico base station, is determined as an ABS in the generation of the ABS pattern, wherein a subframe, in which a random access response, RAR, message for accepting access of a terminal is to be transmitted by the pico base station, is determined as an ABS in the generation of the ABS pattern, and wherein a subframe, in which a paging message is to be transmitted by the macro base station, is determined as a non-ABS in the generation of the ABS pattern.