mhurhangee/ep-ind-claims huggingface dataset:
A method implemented in a master node of controlling a transmission timing for a first slave node and a plurality of second slave nodes in a communication network, the method comprising: obtaining a first delay ( T first) from the first slave node, said first delay ( T first) representing a transmission time between the master node and the first slave node; for each of the plurality of second slave nodes, obtaining a second delay ( T second,i) from the corresponding second slave node, each of said second delays ( T second,i) representing a transmission time between the master node and the corresponding second slave node; subtracting the obtained first delay ( T first) from each of the obtained second delays ( T second,i) to determine a skew timing ( T skew,i) for each of the second slave nodes; the method being characterized in that it further comprises: determining a first reference value T first ref using a setpoint timing error ( T set); for each of the second slave nodes determining a second reference value T second, i ref using a difference between the corresponding skew timing ( T skew,i) and a reference skew timing T skew ref; controlling the first delay ( T first) using the first reference value T first ref; and controlling each of the second delays ( T second,i) using the corresponding second reference value T second, i ref. obtaining a first delay ( T first) from the first slave node, said first delay ( T first) representing a transmission time between the master node and the first slave node; for each of the plurality of second slave nodes, obtaining a second delay ( T second,i) from the corresponding second slave node, each of said second delays ( T second,i) representing a transmission time between the master node and the corresponding second slave node; subtracting the obtained first delay ( T first) from each of the obtained second delays ( T second,i) to determine a skew timing ( T skew,i) for each of the second slave nodes; the method being characterized in that it further comprises: determining a first reference value T first ref using a setpoint timing error ( T set); for each of the second slave nodes determining a second reference value T second, i ref using a difference between the corresponding skew timing ( T skew,i) and a reference skew timing T skew ref; controlling the first delay ( T first) using the first reference value T first ref; and controlling each of the second delays ( T second,i) using the corresponding second reference value T second, i ref. determining a first reference value T first ref using a setpoint timing error ( T set); for each of the second slave nodes determining a second reference value T second, i ref using a difference between the corresponding skew timing ( T skew,i) and a reference skew timing T skew ref; controlling the first delay ( T first) using the first reference value T first ref; and controlling each of the second delays ( T second,i) using the corresponding second reference value T second, i ref.
A fuel nozzle (24; 124; 224) for use in a combustor of a gas turbine engine, the fuel nozzle defining at least one fuel flow passage therethrough and comprising; a spray tip (28; 128; 228) having a central fuel ejection nozzle in flow communication with the at least one fuel flow passage and defining a fuel spray axis, the central fuel ejection nozzle ejecting fuel out of the spray tip (28; 128; 228) in an initially conical fuel spray (fuel leaving the tip 26 will form a cone) about the fuel spray axis; at least a first series of airflow passages disposed in said spray tip (28; 128; 228) radially outwardly from the central fuel ejection nozzle, and a second series of airflow passages disposed in said spray tip (28; 128; 228) circumferentially about the central fuel ejection nozzle and located radially inwards of the first series of airflow passages, said second series of airflow passages including passage exit openings in said spray tip (28; 128; 228) that are evenly circumferentially spaced apart about the central fuel ejection nozzle, the second series of airflow passages directing a substantially symmetric annular airflow to the initially conical fuel spray, characterised in that; said first series of airflow passages are being circumferentially discontinuous and including opposed groups of airflow passages, said opposed groups of airflow passages being circumferentially spaced apart by regions substantially free of airflow passages and located on opposite sides of a transverse axis extending through said central fuel ejection nozzle (34; 134 234) perpendicularly to said fuel spray axis; said opposed groups of said first series of airflow passages are oriented towards said transverse axis and are arranged such as to produce opposed fuel spray shaping air jets which intersect the initially conical fuel spray to generate a narrower final fuel spray.
A method of making an integrated handle on at least one side gusset, of a flexible package, the method comprising: sealing a handle patch to a side gusset laminate at middle of one half width of the side gusset laminate; providing parallel openings (L1, L2) on the handle patch such that a centre line of the two parallel openings (L1, L2) coincide with centre lines of each half of the side gusset laminate; sealing a cover patch over the handle patch overlapping the edges of the handle patch and simultaneously sealing with the side gusset laminate all around, such that a predefined area is left unsealed between the two parallel openings (L1, L2); and folding longitudinal edges of the side gusset laminate such that the handle patch comes on the outer surface of a continuous open tube being formed for manufacturing the flexible package with handle on the at least one side gusset. sealing a handle patch to a side gusset laminate at middle of one half width of the side gusset laminate; providing parallel openings (L1, L2) on the handle patch such that a centre line of the two parallel openings (L1, L2) coincide with centre lines of each half of the side gusset laminate; sealing a cover patch over the handle patch overlapping the edges of the handle patch and simultaneously sealing with the side gusset laminate all around, such that a predefined area is left unsealed between the two parallel openings (L1, L2); and folding longitudinal edges of the side gusset laminate such that the handle patch comes on the outer surface of a continuous open tube being formed for manufacturing the flexible package with handle on the at least one side gusset.
A biological fluid processing device comprising: (a) a housing comprising an inlet portion including one or more ports, an outlet portion including an outlet port and an elution fluid inlet port, and defining a fluid flow path between an inlet portion port and the outlet portion outlet port and a fluid flow path between the outlet portion elution fluid inlet port and an inlet portion port; (b) a porous fibrous leukocyte depletion filter having a first surface and a second surface, disposed in the housing across the fluid flow paths; and (c) a first perforated diffusing plate having a first surface and a second surface, the first surface having a generally planar appearance, and the second surface having a generally convex appearance such that there is a gradual decrease in thickness from the center to a periphery of the first perforated diffusing plate, disposed in the housing across the fluid flow paths, wherein the first perforated diffusing plate is disposed in the housing between the second surface of the leukocyte depletion filter and the outlet portion ports (201a, 300) and the second surface faces the outlet portion outlet port. (a) a housing comprising an inlet portion including one or more ports, an outlet portion including an outlet port and an elution fluid inlet port, and defining a fluid flow path between an inlet portion port and the outlet portion outlet port and a fluid flow path between the outlet portion elution fluid inlet port and an inlet portion port; (b) a porous fibrous leukocyte depletion filter having a first surface and a second surface, disposed in the housing across the fluid flow paths; and (c) a first perforated diffusing plate having a first surface and a second surface, the first surface having a generally planar appearance, and the second surface having a generally convex appearance such that there is a gradual decrease in thickness from the center to a periphery of the first perforated diffusing plate, disposed in the housing across the fluid flow paths, wherein the first perforated diffusing plate is disposed in the housing between the second surface of the leukocyte depletion filter and the outlet portion ports (201a, 300) and the second surface faces the outlet portion outlet port.
A tire comprising: a tread; characterized in that in the tread, an average modulus value in a center region (Tcent) including an equatorial plane of the tire is higher than an average modulus value in shoulder regions (Tsho) adjacent to edges of the tread; whererin the average modulus values and refer to an average of the modulus values in the tire radial direction wherein in the shoulder regions (Tsho), a modulus value is higher in a surface layer of the tread than in a portion other than the surface layer, and wherein the modulus is the tensile stress at 100% elongation measured by preparing a JIS dumbbell-shaped #3 sample and performing a tensile test in accordance with JIS K6251 under the conditions of a temperature of 30°C and a speed of 500±25 mm/min. a tread; characterized in that in the tread, an average modulus value in a center region (Tcent) including an equatorial plane of the tire is higher than an average modulus value in shoulder regions (Tsho) adjacent to edges of the tread; whererin the average modulus values and refer to an average of the modulus values in the tire radial direction wherein in the shoulder regions (Tsho), a modulus value is higher in a surface layer of the tread than in a portion other than the surface layer, and wherein the modulus is the tensile stress at 100% elongation measured by preparing a JIS dumbbell-shaped #3 sample and performing a tensile test in accordance with JIS K6251 under the conditions of a temperature of 30°C and a speed of 500±25 mm/min.
A module for realizing a modular floating ferry and/or bridge comprising a floatation tank realized in the form of two floatation half-tanks (2a, 2b) hinged together about a hinge line between an open position in which the two half-tanks are substantially aligned and form the floatation tank, and a closed position in which a half-tank is folded down on the other half-tank in the same manner as a lid thereby forming a container box, characterized in that the module encloses all or part of the elements of realizing the floating ferry or bridge whose at least one span element (10a, 10b) movably mounted between a stowed position in a bottom portion of the half-tank and along a substantially longitudinal direction of said half-tank, and a deployed position in which the span element is substantially above the half-tank and is oriented substantially along a direction transverse to the half-tank proximate to a centerline of the floatation tank.
Method for inspecting a photovoltaic element, preferably for determining the performance of and/or for determining defects in the photovoltaic element, comprising the following steps: a) providing a photovoltaic element, b) providing a dark characteristic curve of the photovoltaic element at a specific voltage applied to the photovoltaic element, c) dividing the photovoltaic element into individual segments, d) measuring characteristic curves of the individual segments of the photovoltaic element in a time sequence, wherein the individual segments are illuminated by way of an illumination device at the specific voltage applied to the photovoltaic element, wherein the photovoltaic element is moved along a running direction relative to the illumination device and/or the illumination device is moved along a running direction relative to the photovoltaic element, and e) ascertaining an overall characteristic curve of the photovoltaic element as a function of the dark characteristic curve and the measured characteristic curves of the individual segments, such that the photovoltaic element is able to be inspected. a) providing a photovoltaic element, b) providing a dark characteristic curve of the photovoltaic element at a specific voltage applied to the photovoltaic element, c) dividing the photovoltaic element into individual segments, d) measuring characteristic curves of the individual segments of the photovoltaic element in a time sequence, wherein the individual segments are illuminated by way of an illumination device at the specific voltage applied to the photovoltaic element, wherein the photovoltaic element is moved along a running direction relative to the illumination device and/or the illumination device is moved along a running direction relative to the photovoltaic element, and e) ascertaining an overall characteristic curve of the photovoltaic element as a function of the dark characteristic curve and the measured characteristic curves of the individual segments, such that the photovoltaic element is able to be inspected.
A microelectronic device comprising: a semiconductor die having a surface arranged in a first plane; a first dielectric layer formed over the surface of the semiconductor die; a second dielectric layer formed over the first dielectric layer; and an inductor electrically coupled to and formed on the semiconductor die, wherein the inductor includes a magnetic core and at least one conductive coil formed around the magnetic core, the conductive coil comprises a plurality of traces (132, 134, 136) electrically coupled to each other by vias, wherein the plurality of traces of the conductive coil comprises a first trace and a third trace formed over the first dielectric layer and a second trace formed over the magnetic core and the second dielectric layer, and wherein a first said via electrically couples the first trace to the second trace and a second said via electrically couples the second trace to the third trace, and wherein the first and second vias extend through the magnetic core and the second dielectric layer; and wherein the conductive coil is formed to lie in a second plane to extend the conductive coil away from the surface of the semiconductor die, the second plane being substantially orthogonal to the first plane. a semiconductor die having a surface arranged in a first plane; a first dielectric layer formed over the surface of the semiconductor die; a second dielectric layer formed over the first dielectric layer; and an inductor electrically coupled to and formed on the semiconductor die, wherein the inductor includes a magnetic core and at least one conductive coil formed around the magnetic core, the conductive coil comprises a plurality of traces (132, 134, 136) electrically coupled to each other by vias, wherein the plurality of traces of the conductive coil comprises a first trace and a third trace formed over the first dielectric layer and a second trace formed over the magnetic core and the second dielectric layer, and wherein a first said via electrically couples the first trace to the second trace and a second said via electrically couples the second trace to the third trace, and wherein the first and second vias extend through the magnetic core and the second dielectric layer; and wherein the conductive coil is formed to lie in a second plane to extend the conductive coil away from the surface of the semiconductor die, the second plane being substantially orthogonal to the first plane.
A therapeutic compound comprising the formula A-B-D wherein: A is at least one compound of formula, at least one compound of formula, at least one compound of formula or a combination thereof, wherein W is selected from the group consisting of an aryl, a C 1 -C 6 alkyl, an alkenyl, an optionally substituted C 3 -C 6 cycloalkyl and an optionally substituted C 3 -C 6 heterocycloalkyl, wherein R is H or an alkyl and wherein m is an integer from 12 to 24; B is a linker compound; and D is an anti-cancer drug, selected from the group consisting of paclitaxel, irinotecan, topotecan, gemcitabine, cisplatin, geldanamycin and mertansine, wherein the ratio of A to D is from 1:2 to 2: 1. A is at least one compound of formula, at least one compound of formula, at least one compound of formula or a combination thereof, wherein W is selected from the group consisting of an aryl, a C 1 -C 6 alkyl, an alkenyl, an optionally substituted C 3 -C 6 cycloalkyl and an optionally substituted C 3 -C 6 heterocycloalkyl, wherein R is H or an alkyl and wherein m is an integer from 12 to 24; B is a linker compound; and D is an anti-cancer drug, selected from the group consisting of paclitaxel, irinotecan, topotecan, gemcitabine, cisplatin, geldanamycin and mertansine,
A pesticidal mixture comprising as active ingredient a mixture of component and component, wherein component is a compound of formula in which Q is (i) wherein m is 1, n is 1, X is methyl, Y is in the ortho position and is methyl, Z is in the para position and is chloro, G is -(C=O)OCH 2 CH 3, A is hydrogen and R is methyl (compound T1iii.055); or m is 1, n is 1, X is methyl, Y is in the ortho position and is methyl, Z is in the para position and is chloro, G is -(C=O)OCH 2 CH 3, A is methyl and R is methyl (compound T1.055); or m is 1, n is 1, X is methyl, Y is in the ortho position and is methyl, Z is in the para position and is methyl, G is -(C=O)OCH 2 CH 3, A is methyl and R is methyl (compound T1.058); or an agrochemically acceptable salt or an N-oxide thereof; and component is abamectin, wherein the weight ratio of component to component ranges from 1000:1 to 1:100, preferably 500:1 to 1:100. in which Q is (i) wherein m is 1, n is 1, X is methyl, Y is in the ortho position and is methyl, Z is in the para position and is chloro, G is -(C=O)OCH 2 CH 3, A is hydrogen and R is methyl (compound T1iii.055); or m is 1, n is 1, X is methyl, Y is in the ortho position and is methyl, Z is in the para position and is chloro, G is -(C=O)OCH 2 CH 3, A is methyl and R is methyl (compound T1.055); or m is 1, n is 1, X is methyl, Y is in the ortho position and is methyl, Z is in the para position and is methyl, G is -(C=O)OCH 2 CH 3, A is methyl and R is methyl (compound T1.058); or an agrochemically acceptable salt or an N-oxide thereof; and component is abamectin, wherein the weight ratio of component to component ranges from 1000:1 to 1:100, preferably 500:1 to 1:100.
Electric machine comprising: - a stator with a stator surface which has a laminated core; - a cover which surrounds the stator; - an inlet channel with a coolant inlet, wherein the inlet channel is formed between the cover and a wall arranged between the cover and the stator surface, said wall extending axially from a first axial edge up to a second axial edge of the cover, wherein the wall has a nozzle array; - a cooling channel with a coolant outlet, wherein the cooling channel is formed between the wall and the stator surface, characterised in that - the stator has, on its periphery, at least one contour in the form of a longitudinal rib, wherein the nozzle array has at least one slot nozzle and/or at least one slot, wherein the longitudinal rib is arranged flush with the at least one slot nozzle or the at least one slot; or - the stator has, on its periphery, at least one contour in the form of a needle rib, wherein the nozzle array has at least one circular nozzle and/or at least one hole, wherein the needle rib is arranged flush with the at least one circular nozzle or the at least one hole. - a stator with a stator surface which has a laminated core; - a cover which surrounds the stator; - an inlet channel with a coolant inlet, wherein the inlet channel is formed between the cover and a wall arranged between the cover and the stator surface, said wall extending axially from a first axial edge up to a second axial edge of the cover, wherein the wall has a nozzle array; - a cooling channel with a coolant outlet, wherein the cooling channel is formed between the wall and the stator surface, - the stator has, on its periphery, at least one contour in the form of a longitudinal rib, wherein the nozzle array has at least one slot nozzle and/or at least one slot, wherein the longitudinal rib is arranged flush with the at least one slot nozzle or the at least one slot; or - the stator has, on its periphery, at least one contour in the form of a needle rib, wherein the nozzle array has at least one circular nozzle and/or at least one hole, wherein the needle rib is arranged flush with the at least one circular nozzle or the at least one hole.
A cryogenic freezer for a product, in particular for a food product, comprising: - a housing having an internal chamber and a cryogen delivery member disposed therein; - a conveyor for conveying the product through the internal chamber; - a laser scanner disposed at an inlet of the housing for scanning a cross-sectional area of the product entering the cryogenic freezer; - a pair of infrared temperature sensors (42, 44), wherein a first IR sensor is disposed downstream of the laser scanner and upstream of an inlet to said internal chamber, and a second IR sensor is disposed downstream of an outlet of said internal chamber; and - a controller interconnecting the conveyor, the laser scanner, and the pair of IR temperature sensors (42, 44) for automatically self-adjusting heat transfer of the product in the internal chamber. - a housing having an internal chamber and a cryogen delivery member disposed therein; - a conveyor for conveying the product through the internal chamber; - a laser scanner disposed at an inlet of the housing for scanning a cross-sectional area of the product entering the cryogenic freezer; - a pair of infrared temperature sensors (42, 44), wherein a first IR sensor is disposed downstream of the laser scanner and upstream of an inlet to said internal chamber, and a second IR sensor is disposed downstream of an outlet of said internal chamber; and - a controller interconnecting the conveyor, the laser scanner, and the pair of IR temperature sensors (42, 44) for automatically self-adjusting heat transfer of the product in the internal chamber.