mhurhangee/ep-ind-claims huggingface dataset:
A method of providing end sealing for an elongate lighting module (M; M1, M2) having an exposed end surface (E; E1, E2) and a front light emitting surface, the method including: - a) providing an end cap (10; 100) wherein the end cap (10; 100) includes: - a body wall for abutment against said end surface (E; E1, E2), and - at least one peripheral wall (14; 141, 142) extending sidewise of said body wall and around said body wall, the at least one peripheral wall (14; 141, 142) having at least one discontinuity therein (14a; 141a, 142a) positionable at said front light emitting surface, wherein said body wall includes at least one sealing mass reception cavity facing towards said at least one peripheral wall (14; 141, 142), said at least one sealing mass reception cavity in said body wall located opposite said at least one discontinuity (14a; 141a, 142a) in the at least one peripheral wall (14; 141, 142), - b) coupling said end cap (10, 100) with said exposed end surface (E; E1, E2) by bringing said body wall in abutment against said exposed end surface (E; E1, E2) with said at least one peripheral wall (14; 141, 142) extending around said exposed end surface (E; E1, E2) and said at least one discontinuity (14a; 141a, 142a) positioned at said front light emitting surface, the method including dispensing sealing material between said body wall and the exposed end surface or surfaces (E; E1, E2) against which said body wall is abutted. - a) providing an end cap (10; 100) wherein the end cap (10; 100) includes: - a body wall for abutment against said end surface (E; E1, E2), and - at least one peripheral wall (14; 141, 142) extending sidewise of said body wall and around said body wall, the at least one peripheral wall (14; 141, 142) having at least one discontinuity therein (14a; 141a, 142a) positionable at said front light emitting surface, wherein said body wall includes at least one sealing mass reception cavity facing towards said at least one peripheral wall (14; 141, 142), said at least one sealing mass reception cavity in said body wall located opposite said at least one discontinuity (14a; 141a, 142a) in the at least one peripheral wall (14; 141, 142), - a body wall for abutment against said end surface (E; E1, E2), and - at least one peripheral wall (14; 141, 142) extending sidewise of said body wall and around said body wall, the at least one peripheral wall (14; 141, 142) having at least one discontinuity therein (14a; 141a, 142a) positionable at said front light emitting surface, - b) coupling said end cap (10, 100) with said exposed end surface (E; E1, E2) by bringing said body wall in abutment against said exposed end surface (E; E1, E2) with said at least one peripheral wall (14; 141, 142) extending around said exposed end surface (E; E1, E2) and said at least one discontinuity (14a; 141a, 142a) positioned at said front light emitting surface, the method including dispensing sealing material between said body wall and the exposed end surface or surfaces (E; E1, E2) against which said body wall is abutted.
Floor panel for forming a floor covering, wherein this floor panel substantially consists of synthetic material; wherein this floor panel has a decorative upper side; wherein the floor panel, on at least one pair of opposite edges, comprises coupling parts which allow coupling two of such floor panels to each other, wherein these coupling parts effect a locking in a first direction perpendicular to the plane of the floor panels as well as in a second direction perpendicular to the respective edge and in the plane of the floor panels; the floor panel having a thickness of 3 millimeters through 5 millimeters, the floor panel comprising one or more reinforcing layers, characterized in that at least one of said coupling parts comprises a separate locking element, which, in coupled condition, provides for at least a locking in said first direction and in that at least one of said reinforcing layers is located at the height of said separate locking element.
An implement, in particular an excavator or machine for material handling, with an element movable via at least one working drive, wherein at least one energy recovery cylinder is provided for energy recovery from the movement of the movable element, which includes a chamber filled with gas, characterized in that the actuation of the working drive is effected in dependence on the directly or indirectly determined temperature of the gas in the chamber filled with gas.
A prosthetic mitral valve system comprising: an anchoring structure configured to be received adjacent a native mitral valve, wherein the anchoring structure includes: an anchor frame including a supra-annular and a sub-annular structure, wherein the sub-annular structure includes a central hub; a first pair and a second pair of sub-annular projections (214, 216) configured to hook into engagement with a sub-annular gutter of the native mitral valve to position the anchoring structure relative to the native mitral valve, wherein the first pair of sub-annular projections create a widest sub-annular dimension of the anchoring structure; sub-annular support arms configured to extend radially from the central hub, one to each sub-annular projection; a retention structure configured to reside above an annulus of the native mitral valve and support the valve supra-annularly, the retention structure comprising at least one supra-annular arch segment (222, 274) extending atrially upward between each pair of sub-annular projections, and wherein a sub-annular portion of the anchoring structure includes an anti-systolic anterior motion component that is configured to hinder systolic anterior motion of a native mitral valve leaflet. an anchor frame including a supra-annular and a sub-annular structure, wherein the sub-annular structure includes a central hub; a first pair and a second pair of sub-annular projections (214, 216) configured to hook into engagement with a sub-annular gutter of the native mitral valve to position the anchoring structure relative to the native mitral valve, wherein the first pair of sub-annular projections create a widest sub-annular dimension of the anchoring structure; sub-annular support arms configured to extend radially from the central hub, one to each sub-annular projection; a retention structure configured to reside above an annulus of the native mitral valve and support the valve supra-annularly, the retention structure comprising at least one supra-annular arch segment (222, 274) extending atrially upward between each pair of sub-annular projections, and wherein a sub-annular portion of the anchoring structure includes an anti-systolic anterior motion component that is configured to hinder systolic anterior motion of a native mitral valve leaflet.
A light-emitting device comprising: a substrate; a first buffer layer (122,222,322,422) disposed on the substrate; a second buffer layer (124,224,324,424) disposed on the first buffer layer and includes Al; a first conductivity type semiconductor layer disposed on the second buffer layer; an active layer disposed on the first conductivity type semiconductor layer; and a second conductivity type semiconductor layer disposed on the active layer, wherein the second buffer layer comprises one or more first layers (124a,224a,324a,424a) and one or more second layers (124b,224b,324b,424b) which are forming a pattern in horizontal direction characterised in that an Al composition ratio of the first layer increases toward the first conductivity type semiconductor layer, and an Al composition ratio of the second layer decreases toward the first conductivity type semiconductor layer. a substrate; a first buffer layer (122,222,322,422) disposed on the substrate; a second buffer layer (124,224,324,424) disposed on the first buffer layer and includes Al; a first conductivity type semiconductor layer disposed on the second buffer layer; an active layer disposed on the first conductivity type semiconductor layer; and a second conductivity type semiconductor layer disposed on the active layer, wherein the second buffer layer comprises one or more first layers (124a,224a,324a,424a) and one or more second layers (124b,224b,324b,424b) which are forming a pattern in horizontal direction characterised in that an Al composition ratio of the first layer increases toward the first conductivity type semiconductor layer, and an Al composition ratio of the second layer decreases toward the first conductivity type semiconductor layer.
A compound of formula a physiologically tolerated salt thereof or any mixture thereof, having an optical purity of 97% or greater for use as an anti-angiogenic agent for treating or preventing diabetic macular edema, age-related macular degeneration or metastasis, wherein R 1 represents a C 1-10 alkyl group, R 7 represents H, a C 1-10 alkyl group, a C 3-10 cycloalkyl group or a C 1-10 acyl group derived from an aliphatic acid or aromatic acid, R 2 and R' 2 both represent H, R 3 represents OH, R 4 and R 5 each independently represents OY, NHY or SY, wherein Y represents H, wherein R 11 and R 12 each independently represents H, a C 1-10 alkyl group or a C 3-10 cycloalkyl group, R 6a, R 6b and R 6c each represent H, represents a chiral centre defining an -configuration of the compound, each C 1-10 alkyl group, C 3-10 cycloalkyl group, C 1-10 acyl group, C 3-8 nitrogen-containing heterocyclic group independently includes or does not include one or more heteroatoms N, O or S, and is independently unsubstituted or substituted with one or more C 6-10 aryl groups, C 6-18 alkaryl groups or C 6-18 aralkyl groups. R 1 represents a C 1-10 alkyl group, R 7 represents H, a C 1-10 alkyl group, a C 3-10 cycloalkyl group or a C 1-10 acyl group derived from an aliphatic acid or aromatic acid, R 2 and R' 2 both represent H, R 3 represents OH, R 4 and R 5 each independently represents OY, NHY or SY, wherein Y represents H, wherein R 11 and R 12 each independently represents H, a C 1-10 alkyl group or a C 3-10 cycloalkyl group, R 6a, R 6b and R 6c each represent H, represents a chiral centre defining an -configuration of the compound, each C 1-10 alkyl group, C 3-10 cycloalkyl group, C 1-10 acyl group, C 3-8 nitrogen-containing heterocyclic group independently includes or does not include one or more heteroatoms N, O or S, and is independently unsubstituted or substituted with one or more C 6-10 aryl groups, C 6-18 alkaryl groups or C 6-18 aralkyl groups.
A method for tanning an animal skin comprising the steps of: (a) putting said animal skin in contact with a first tanning bath comprising at least one dialdehyde of general formula O=CH-(CH 2) n -HC=O, wherein n is 0 or an integer number within the range 1-8, said tanning bath having a pH within the range of 1 - 5; (b) bringing the pH of the tanning bath to a pH higher than 5 and lower than 8; (c) repeating one or more times said steps (a) and (b) on said skin coming from said step (b) using a second or further tanning bath; said first, second and further tanning bath being substantially free from surfactants, which means that surfactants are present in a total quantity lower than 0.05% by weight relative to the pelt weight of the skin. (a) putting said animal skin in contact with a first tanning bath comprising at least one dialdehyde of general formula O=CH-(CH 2) n -HC=O, wherein n is 0 or an integer number within the range 1-8, said tanning bath having a pH within the range of 1 - 5; (b) bringing the pH of the tanning bath to a pH higher than 5 and lower than 8; (c) repeating one or more times said steps (a) and (b) on said skin coming from said step (b) using a second or further tanning bath;
A phase controller comprising: a plurality of pulse width modulation - hereafter abbreviated 'PWM' - circuits configured to output a plurality of pulse signals; a plurality of switching devices, each coupled to a corresponding one of the plurality of PWM circuits, configured to switch on and off to provide output signals based on the pulse signals; a computing unit configured to calculate a duty ratio of each pulse signal of the plurality of pulse signals to be output from the plurality of PWM circuits, based on the output signals of the plurality of switching devices; and a latency generator configured to calculate a latency for at least one pulse signal of the plurality of pulse signals and provide the latency in one or more delayable units to the at least one pulse signal of the plurality of pulse signals such that no edge positions of the plurality of pulse signals output from the plurality of PWM circuits collide with each other, wherein the plurality of pulse signals change values at the edge positions, wherein the latency generator is configured to generate a table for each of the plurality of pulse signals, and wherein each table is configured to indicate positions of changing state of a corresponding pulse signal. a plurality of pulse width modulation - hereafter abbreviated 'PWM' - circuits configured to output a plurality of pulse signals; a plurality of switching devices, each coupled to a corresponding one of the plurality of PWM circuits, configured to switch on and off to provide output signals based on the pulse signals; a computing unit configured to calculate a duty ratio of each pulse signal of the plurality of pulse signals to be output from the plurality of PWM circuits, based on the output signals of the plurality of switching devices; and a latency generator configured to calculate a latency for at least one pulse signal of the plurality of pulse signals and provide the latency in one or more delayable units to the at least one pulse signal of the plurality of pulse signals such that no edge positions of the plurality of pulse signals output from the plurality of PWM circuits collide with each other, wherein the plurality of pulse signals change values at the edge positions, wherein the latency generator is configured to generate a table for each of the plurality of pulse signals, and wherein each table is configured to indicate positions of changing state of a corresponding pulse signal.
A method for cryopreserving hepatocytes from multiple sources comprising the steps of: A) thawing hepatocytes from a plurality of sources preserved in a cryopreservation solution comprising DMSO; B) pooling 300 to 1000 vials of hepatocytes from the plurality of sources into a preservation solution thereby diluting the concentration of DMSO; C) centrifuging the pooled hepatocytes to cause pelleting of both viable and non-viable hepatocytes; D) removing the preservation solution; E) combining the viable and non-viable pelleted hepatocytes with a cryopreservative; F) distributing the pooled hepatocytes into vials G) cryopreserving the hepatocytes in the vials A) thawing hepatocytes from a plurality of sources preserved in a cryopreservation solution comprising DMSO; B) pooling 300 to 1000 vials of hepatocytes from the plurality of sources into a preservation solution thereby diluting the concentration of DMSO; C) centrifuging the pooled hepatocytes to cause pelleting of both viable and non-viable hepatocytes; D) removing the preservation solution; E) combining the viable and non-viable pelleted hepatocytes with a cryopreservative; F) distributing the pooled hepatocytes into vials G) cryopreserving the hepatocytes in the vials
A hygienic food product to food product heat exchanger, said heat exchanger comprising: an elongated and hollow housing; a metal tube plate arranged at each of the opposite ends of said elongated housing for defining a closed interior space in said elongated and hollow housing; and a plurality of tightly spaced metal tubes axially extending between said tube plates with the ends of said tubes being received in correspondingly tightly spaced holes in said tube plates or with the lumen of the tubes being aligned with said correspondingly tightly spaced holes in the tube plates; characterized in that said metal tubes are sealingly secured to said metal tube plates by a welding joint on the inwardly facing side of said tube plates, and said welding joint extending along the complete circumference of a tube and providing for a smooth transition between the outer surface of a tube and the inwardly facing side of said tube plate. an elongated and hollow housing; a metal tube plate arranged at each of the opposite ends of said elongated housing for defining a closed interior space in said elongated and hollow housing; and a plurality of tightly spaced metal tubes axially extending between said tube plates with the ends of said tubes being received in correspondingly tightly spaced holes in said tube plates or with the lumen of the tubes being aligned with said correspondingly tightly spaced holes in the tube plates; characterized in that said metal tubes are sealingly secured to said metal tube plates by a welding joint on the inwardly facing side of said tube plates, and said welding joint extending along the complete circumference of a tube and providing for a smooth transition between the outer surface of a tube and the inwardly facing side of said tube plate.
A finger that is elongate and has a longitudinal extent, for a reel of an agricultural harvesting head, the reel having a plurality of bats disposed about a longitudinal rotational axis, wherein each of the plurality of bats is configured to support a plurality of the fingers that are spaced apart and mounted side-by-side on each of the plurality of bats, the finger comprising: a front flange that extends in a longitudinal and a transverse direction; a rear flange that extends in the longitudinal and the transverse direction and is spaced apart from the front flange; and a web that extends between the front flange and the rear flange and is integrally formed with the front flange and the rear flange; characterized in that struts are formed integral with the web and with the rear flange and that extend in a transverse direction, and that the struts extend in a lateral direction a greater distance adjacent to the rear flange than adjacent to the front flange. a front flange that extends in a longitudinal and a transverse direction; a rear flange that extends in the longitudinal and the transverse direction and is spaced apart from the front flange; and a web that extends between the front flange and the rear flange and is integrally formed with the front flange and the rear flange; characterized in that struts are formed integral with the web and with the rear flange and that extend in a transverse direction, and that the struts extend in a lateral direction a greater distance adjacent to the rear flange than adjacent to the front flange.
Hydraulic control valve assembly for use in a pilot-operated hydraulic control system, the assembly comprising a control valve including a valve body defining a main flow passage from an inlet on a high pressure side of the control valve to an outlet on a low pressure side of the control valve, a valve member arranged in the main flow passage and separating the high pressure side from the low pressure side, a control chamber comprising means for hydraulic actuation of the valve member by applying a control pressure to the control chamber so as to position the valve member between an open position and a closed position thereby adjusting a flow through the main flow passage in response to the control pressure, a feed port for feeding fluid to the control chamber to increase the control pressure therein, a bleed port for bleeding fluid from the control chamber to decrease the control pressure therein, and a valve bonnet closing the control chamber, the assembly further comprising a feed check valve determining a feed flow direction, a bleed check valve determining a bleed flow direction, a distribution block including a common plenum, a control input in fluid communication with the common plenum, and a control output in fluid communication with the common plenum, characterised in that the distribution block further comprises a feed channel connecting the common plenum with the feed port via an adjustable feed constriction, and a bleed channel connecting the common plenum with the bleed port via an adjustable bleed constriction.
An exhaust gas aftertreatment device, which comprises a casing, which casing has an inlet opening for the inflow of the exhaust gas, an outlet opening for the outflow of the exhaust gas, a feed hole for dispensing reactive substance to the casing, a mixing tube extending from the outlet opening for mixing the exhaust gas and the reactive substance and a feeding channel for guiding the exhaust gas to the mixing tube, which feeding channel has a wall, which wall has holes for the inflow of the exhaust gas, and an open first end directed to the outlet opening, the cross-sectional area of which first end is smaller than the cross-sectional area of the outlet opening and which aftertreatment device has a swirl structure for guiding the exhaust gas led into the casing to rotate around the feeding channel in one direction of rotation, characterized in that said first end of the feeding channel extends through the outlet opening into the mixing tube.
A beverage comprising flavorful acidic citrus fruit juice and citrus fruit juice, wherein the beverage has a ratio of the amount of naringin to the total amount of naringin, hesperidin, eriocitrin, narirutin, neohesperidin, and rutin, which is in the range of 0.10 to 0.50, and has a fruit juice content of not less than 1% and not more than 30%, wherein the flavorful acidic citrus fruit is selected from yuzu ( Citrus junos), lemon (Citrus limon), lime ( Citrus aurantiifolia), Citrus depressa, kabosu ( Citrus sphaerocarpa), or sudachi ( Citrus sudachi).
Optical article comprising a transparent substrate with a front main face and with a rear main face, at least one of the main faces being coated with an interferential coating, characterized in that said interferential coating comprises a stack comprising - at least one layer having a low refractive index which is <1.6, called "LI layer", - at least two HI/VHI/HI triplets of three layers composed of one layer: • having a very high refractive index which is ≥ 2.1, called "VHI layer", • surrounded on both sides by two layers having a high refractive index which is ≥ 1.6 and < 2.1, called "HI layers", and such that the mean reflectance in ultra violet region R uv of said interferential coating is lower than or equal to 10 % at an angle of incidence comprised between 30° and 45°; wherein the mean reflectance in ultra violet region R uv is defined through the following relation: R UV = ∫ 280 380 W λ. R λ. dλ ∫ 280 380 W λ. dλ wherein R(λ) represents the lens spectral reflection factor at a given wavelength λ, and W(λ) represents a weighting function equal to the product of the solar spectrum irradiance Es(λ) and the efficiency relative spectral function S(λ), the at least one LI layer being directly deposited onto a HI/VHI/HI triplet, refractive indexes being expressed at 25°C at a wavelength of 550 nm. - at least one layer having a low refractive index which is <1.6, called "LI layer", - at least two HI/VHI/HI triplets of three layers composed of one layer: • having a very high refractive index which is ≥ 2.1, called "VHI layer", • surrounded on both sides by two layers having a high refractive index which is ≥ 1.6 and < 2.1, called "HI layers", • having a very high refractive index which is ≥ 2.1, called "VHI layer", • surrounded on both sides by two layers having a high refractive index which is ≥ 1.6 and < 2.1, called "HI layers", wherein R(λ) represents the lens spectral reflection factor at a given wavelength λ, and W(λ) represents a weighting function equal to the product of the solar spectrum irradiance Es(λ) and the efficiency relative spectral function S(λ), the at least one LI layer being directly deposited onto a HI/VHI/HI triplet, refractive indexes being expressed at 25°C at a wavelength of 550 nm.