mhurhangee/ep-ind-claims huggingface dataset:
A method of measuring the thickness of an ophthalmic lens comprising: providing an ophthalmic lens having a light absorptive component; passing light having a wavelength through said ophthalmic lens whereupon said light absorptive component absorbs some of said light as said light passes through said ophthalmic lens; after said light has passed through said ophthalmic lens, directing said light to generate a digital image for said ophthalmic lens, said digital image having pixel intensity data that corresponds to the shape of said ophthalmic lens; using information about said light prior to passing through said ophthalmic lens, said light absorptive component of said ophthalmic lens, and said pixel intensity data to calculate a thickness profile for said ophthalmic lens. providing an ophthalmic lens having a light absorptive component; passing light having a wavelength through said ophthalmic lens whereupon said light absorptive component absorbs some of said light as said light passes through said ophthalmic lens; after said light has passed through said ophthalmic lens, directing said light to generate a digital image for said ophthalmic lens, said digital image having pixel intensity data that corresponds to the shape of said ophthalmic lens; using information about said light prior to passing through said ophthalmic lens, said light absorptive component of said ophthalmic lens, and said pixel intensity data to calculate a thickness profile for said ophthalmic lens.
An enclosure for a radiographic device, comprising: a bottom panel; a plurality of sidewalls integrally formed with the bottom panel, whereby the plurality of sidewalls and the bottom panel define a unitary body; and a top panel joined to the plurality of sidewalls opposite the bottom panel and defining an internal space therebetween for housing a radiographic device; wherein the plurality of sidewalls each include a first upturned portion that extends upwardly from the bottom panel, a return portion extending from the first upturned portion back towards the bottom panel and defining a rounded nose, and an inward projection extending from the return portion generally parallel to the bottom panel and defining a flange for supporting the top panel; and wherein the flange is spaced a vertical distance below a top of the rounded nose such that the top panel is inset with respect to the rounded nose. a bottom panel; a plurality of sidewalls integrally formed with the bottom panel, whereby the plurality of sidewalls and the bottom panel define a unitary body; and a top panel joined to the plurality of sidewalls opposite the bottom panel and defining an internal space therebetween for housing a radiographic device; wherein the plurality of sidewalls each include a first upturned portion that extends upwardly from the bottom panel, a return portion extending from the first upturned portion back towards the bottom panel and defining a rounded nose, and an inward projection extending from the return portion generally parallel to the bottom panel and defining a flange for supporting the top panel; and wherein the flange is spaced a vertical distance below a top of the rounded nose such that the top panel is inset with respect to the rounded nose.
Reservoir assembly having a body defining an inner cavity, the reservoir being adapted to be arranged in a fuel injection equipment of an internal combustion engine, the pressurized fuel being received and stored in said inner cavity prior to be delivered toward fuel injectors, the reservoir assembly is arranged so that when pressure in the inner cavity increases and reaches a predetermined first threshold, the available volume of the reservoir for storing said pressurized fuel increases above the volume initially occupied by the inner cavity and wherein, the reservoir assembly further comprises a second inner cavity defined in the body and a valve opening a fluid communication between the first inner cavity and the second inner cavity when the pressure in the first inner cavity increases and reaches the predetermined first threshold and characterized in that, the first inner cavity and the second inner cavity are coaxially arranged, the second inner cavity comprising a tube (34a, 34b) coaxially arranged inside the first cavity.
A power inductor comprising: a body (100, 100a, 100b) comprising a metal powder and an insulatio material, the body having a polyhedral shape: a base provided in the body, the base having a plate shape comprising a first surface and a second surface and having a predetermined thickness; a coil pattern disposed on one of the first or second surface of the base; a surface modification member formed on two surfaces of the body which are facing each other; a plated external electrode (400, 410, 420) disposed on the two surfaces on which the surface modification member is formed; and a surface insulation layer disposed on at least one of the surfaces of the body on which the external electrode (400, 410, 420) is not formed; wherein the surface insulation layer is made of a material that is used for the insulation material of the body, wherein the surface insulation layer has a thickness of 3 μm to 30 μm; and wherein the surface modification member is formed by distributing an oxide including at least one of Bi 2 O 3, BO 2, B 2 O 3, ZnO, Co 3 O 4, SiO 2, Al 2 O 3, MnO, H 2 BO 3, Ca(NO 3) 2, or CaCO 3. a body (100, 100a, 100b) comprising a metal powder and an insulatio material, the body having a polyhedral shape: a base provided in the body, the base having a plate shape comprising a first surface and a second surface and having a predetermined thickness; a coil pattern disposed on one of the first or second surface of the base; a surface modification member formed on two surfaces of the body which are facing each other; a plated external electrode (400, 410, 420) disposed on the two surfaces on which the surface modification member is formed; and a surface insulation layer disposed on at least one of the surfaces of the body on which the external electrode (400, 410, 420) is not formed; wherein the surface insulation layer is made of a material that is used for the insulation material of the body, wherein the surface insulation layer has a thickness of 3 μm to 30 μm; and wherein the surface modification member is formed by distributing an oxide including at least one of Bi 2 O 3, BO 2, B 2 O 3, ZnO, Co 3 O 4, SiO 2, Al 2 O 3, MnO, H 2 BO 3, Ca(NO 3) 2, or CaCO 3.
A bed, in particular a hospital and/or home care bed, comprising a bed frame which serves for receiving a bed surface element, especially a slatted frame, an end piece (4, 5) arranged on the end of the bed frame and a side grid (6, 9) which comprises two longitudinal bars (7,8; 10, 11) adjustable in height, which are respectively held on one end in a height-adjustable manner by means of a guidance provided by the end piece (4, 5), characterized in that the end piece (4, 5) is divided into two parts and comprises a lower end piece section in the direction of height of the bed as well as an upper end piece section in the direction of height of the bed, wherein both the upper and the lower end piece section (15, 16) respectively comprise an end portion (18, 21), on the one hand, and two posts (19, 20; 22, 23) arranged thereon, on the other hand, wherein the posts (19, 20; 22, 23) receive the respective end portion (18, 21) between them, wherein the upper end piece section is arranged on the lower end piece section in a removable manner.
Process for the production of a liquid siloxane hydrogen carrier compound, said process comprising the following consecutive steps: - providing silica compound and/or silicate compound, o either subjecting the silica compound and/or silicate compound to a hydrogenation step 2(a) to produce H 2 Si 2 and subjecting H 2 Si 2 to polycondensation step 4 to produce the said liquid siloxane hydrogen carrier compound, or o subjecting the silica compound and/or silicate compound to a hydrogenation and dehydration step 2(b) to produce H 2 SiO, and ▪ either subjecting H 2 SiO to a hydrolysis step 3(a) to produce H 2 Si 2 and subjecting H 2 Si 2 to polycondensation step 4 to produce the said liquid siloxane hydrogen carrier compound, or ▪ subjecting H 2 SiO to polymerization step 3(b) to produce the said liquid siloxane hydrogen carrier compound. - providing silica compound and/or silicate compound, o either subjecting the silica compound and/or silicate compound to a hydrogenation step 2(a) to produce H 2 Si 2 and subjecting H 2 Si 2 to polycondensation step 4 to produce the said liquid siloxane hydrogen carrier compound, or o subjecting the silica compound and/or silicate compound to a hydrogenation and dehydration step 2(b) to produce H 2 SiO, and ▪ either subjecting H 2 SiO to a hydrolysis step 3(a) to produce H 2 Si 2 and subjecting H 2 Si 2 to polycondensation step 4 to produce the said liquid siloxane hydrogen carrier compound, or ▪ subjecting H 2 SiO to polymerization step 3(b) to produce the said liquid siloxane hydrogen carrier compound. o either subjecting the silica compound and/or silicate compound to a hydrogenation step 2(a) to produce H 2 Si 2 and subjecting H 2 Si 2 to polycondensation step 4 to produce the said liquid siloxane hydrogen carrier compound, or o subjecting the silica compound and/or silicate compound to a hydrogenation and dehydration step 2(b) to produce H 2 SiO, and ▪ either subjecting H 2 SiO to a hydrolysis step 3(a) to produce H 2 Si 2 and subjecting H 2 Si 2 to polycondensation step 4 to produce the said liquid siloxane hydrogen carrier compound, or ▪ subjecting H 2 SiO to polymerization step 3(b) to produce the said liquid siloxane hydrogen carrier compound. ▪ either subjecting H 2 SiO to a hydrolysis step 3(a) to produce H 2 Si 2 and subjecting H 2 Si 2 to polycondensation step 4 to produce the said liquid siloxane hydrogen carrier compound, or ▪ subjecting H 2 SiO to polymerization step 3(b) to produce the said liquid siloxane hydrogen carrier compound.
Knife for cutting and laying a flexible floor covering, comprising a handle consisting of first and second half-shells (7, 8) pivotally connected to each other and held together by locking means for clamping and holding a fixed blade in overhang at one end of the handle, characterized in that the locking means are arranged between the two half-shells (7, 8) and are accessible and operable by a bottom face of the handle located on the edge side of the blade, and in that the handle comprises a gripping part extending longitudinally along a first axis, and extended by a support part of the blade extending along a second axis inclined with respect to the first axis, the handle also includes a rear part extending the gripping part opposite the support part, and extending longitudinally along a third axis inclined at an angle of between 5 and 30° with respect to the first axis.
A sealing strip for sealing adjacent filter plate assemblies of a horizontal filter press, such as a tower press, the sealing strip comprising an elongate body extending along a length direction, and having first longitudinal end, a second longitudinal lend and a cross-sectional profile having - a base portion to be attached in a corresponding groove of an associated filter frame or filter plate assembly; - a distal portion for sealing against an adjacent filter plate assembly, a ridge being provided on the distal portion for increasing a sealing pressure thereat, when the sealing strip is compressed against an adjacent filter plate assembly, and - an intermediate portion between the base portion and the distal portion, wherein the intermediate portion has a width, defined along a lateral direction transverse and coplanar to the length direction, less than that of the base portion, wherein the sealing strip further comprises an elongate stiffener running along at least a part of the length of the sealing strip, characterized in that the stiffener is positioned at the base portion such that it intersects with a line running through the ridge and extending along a vertical direction, perpendicular to both the length direction and the width direction, as seen along the cross-sectional profile, and wherein the stiffener is encapsulated by the body of the sealing strip. - a base portion to be attached in a corresponding groove of an associated filter frame or filter plate assembly; - a distal portion for sealing against an adjacent filter plate assembly, a ridge being provided on the distal portion for increasing a sealing pressure thereat, when the sealing strip is compressed against an adjacent filter plate assembly, and - an intermediate portion between the base portion and the distal portion, wherein the intermediate portion has a width, defined along a lateral direction transverse and coplanar to the length direction, less than that of the base portion, wherein the sealing strip further comprises an elongate stiffener running along at least a part of the length of the sealing strip, characterized in that the stiffener is positioned at the base portion such that it intersects with a line running through the ridge and extending along a vertical direction, perpendicular to both the length direction and the width direction, as seen along the cross-sectional profile, and wherein the stiffener is encapsulated by the body of the sealing strip.
Electrical sheet for an electric machine, with - two plates (1, 2) made of a ferromagnetic material, which are arranged parallel to one another and at a distance from one another, wherein the plates (1, 2) are connected to one another at respective edges circumferentially in a fluid-tight manner; and - a fluid in an interior between the two plates (1, 2) formed by the distance characterised in that the electrical sheet has one or more support structures in the interior, which support the plates (1, 2), in order to guarantee the distance. - two plates (1, 2) made of a ferromagnetic material, which are arranged parallel to one another and at a distance from one another, wherein the plates (1, 2) are connected to one another at respective edges circumferentially in a fluid-tight manner; and - a fluid in an interior between the two plates (1, 2) formed by the distance
A method for forming a naphtha composition and a distillate composition, comprising: exposing a feed comprising oxygenates to a conversion catalyst at an average reaction temperature of 400°C to 530°C, a total pressure of at least 150 psig (~1000 kPag), and a WHSV of 0.1 hr -1 to 10 hr -1 to form a converted effluent comprising a naphtha boiling range fraction, the naphtha boiling range fraction having a boiling range within the range of from 50°F (~10°C) to 350°F (177°C) as measured according to ASTM D2887 and an octane rating of at least 95, wherein the octane rating is defined as (RON + MON)/2 wherein RON is Research Octane Number determined according to ASTM D2699 and MON is Motor Octane Number determined according to ASTM D2700; and cascading at least a portion of the converted effluent to an oligomerization catalyst at a temperature of 125°C to 250°C to form an oligomerized effluent, the at least a portion of the converted effluent comprising ethylene, propylene, or a combination thereof, wherein the at least a portion of the converted effluent is exposed to the oligomerization catalyst at a pressure of 150 psig (~1000 kPag) to 300 psig (~2100 kPag); the oligomerized effluent comprising, relative to a weight of hydrocarbons in the oligomerized effluent, at least 60 wt% of a distillate boiling range fraction, at least 10 wt% of a 371°C+ fraction, and less than 20 wt% of a 177°C- fraction, the distillate boiling range fraction having a boiling range within the range of from 350°F (177°C) to 700°F (371°C) as measured according to ASTM D2887 and an aromatics content of about 1.0 wt% or less. exposing a feed comprising oxygenates to a conversion catalyst at an average reaction temperature of 400°C to 530°C, a total pressure of at least 150 psig (~1000 kPag), and a WHSV of 0.1 hr -1 to 10 hr -1 to form a converted effluent comprising a naphtha boiling range fraction, the naphtha boiling range fraction having a boiling range within the range of from 50°F (~10°C) to 350°F (177°C) as measured according to ASTM D2887 and an octane rating of at least 95, wherein the octane rating is defined as (RON + MON)/2 wherein RON is Research Octane Number determined according to ASTM D2699 and MON is Motor Octane Number determined according to ASTM D2700; and cascading at least a portion of the converted effluent to an oligomerization catalyst at a temperature of 125°C to 250°C to form an oligomerized effluent, the at least a portion of the converted effluent comprising ethylene, propylene, or a combination thereof, wherein the at least a portion of the converted effluent is exposed to the oligomerization catalyst at a pressure of 150 psig (~1000 kPag) to 300 psig (~2100 kPag); the oligomerized effluent comprising, relative to a weight of hydrocarbons in the oligomerized effluent, at least 60 wt% of a distillate boiling range fraction, at least 10 wt% of a 371°C+ fraction, and less than 20 wt% of a 177°C- fraction, the distillate boiling range fraction having a boiling range within the range of from 350°F (177°C) to 700°F (371°C) as measured according to ASTM D2887 and an aromatics content of about 1.0 wt% or less.
A construction machine comprising: a floor plate; a seat provided on the floor plate; a control box arranged on the floor plate so as to be aligned with the seat in a left-right direction; a support plate that supports the seat and the control box on the floor plate and that includes an end portion in the left-right direction configuring a supporting end portion on which the control box is mounted; a slide rail that extends in a front-rear direction on a side closer to the center in the left-right direction of the support plate than an end surface of the supporting end portion and is attached to the support plate in order to allow at least one of the seat and the control box to slide in the front-rear direction relative to the floor plate; and a reinforcing member (7; 22; 23; 24; 25; 28; 30) that extends in a direction crossing the slide rail in a plan view and that includes a portion extending toward the end surface of the supporting end portion from a position in an area of the slide rail in a plan view, and the portion being attached to the supporting end portion of the support plate, characterized in that the slide rail is attached to the lower surface side of the support plate with the reinforcing member (7; 22; 23; 24; 25; 28; 30) interposed. a floor plate; a seat provided on the floor plate; a control box arranged on the floor plate so as to be aligned with the seat in a left-right direction; a support plate that supports the seat and the control box on the floor plate and that includes an end portion in the left-right direction configuring a supporting end portion on which the control box is mounted; a slide rail that extends in a front-rear direction on a side closer to the center in the left-right direction of the support plate than an end surface of the supporting end portion and is attached to the support plate in order to allow at least one of the seat and the control box to slide in the front-rear direction relative to the floor plate; and a reinforcing member (7; 22; 23; 24; 25; 28; 30) that extends in a direction crossing the slide rail in a plan view and that includes a portion extending toward the end surface of the supporting end portion from a position in an area of the slide rail in a plan view, and the portion being attached to the supporting end portion of the support plate, characterized in that the slide rail is attached to the lower surface side of the support plate with the reinforcing member (7; 22; 23; 24; 25; 28; 30) interposed.
A wind turbine system, comprising: a tower; a plurality of blades; a rotor supported by the tower and rotatably coupled to the plurality of blades; a pitch control device for regulating pitch angles of the plurality of blades; a torque control device for regulating torque of the rotor; a processing subsystem programmed to slow down the wind turbine system by: using the torque control device alone to slow down the rotor, the system being characterised by the processing subsystem using the torque control device alone to slow down the rotor when the torque control device is fully capable of slowing down the rotor; and using both the torque control device and the pitch control device to slow down the rotor when the torque control device alone is not fully capable of slowing down the rotor. a tower; a plurality of blades; a rotor supported by the tower and rotatably coupled to the plurality of blades; a pitch control device for regulating pitch angles of the plurality of blades; a torque control device for regulating torque of the rotor; a processing subsystem programmed to slow down the wind turbine system by: using the torque control device alone to slow down the rotor, the system being characterised by the processing subsystem using the torque control device alone to slow down the rotor when the torque control device is fully capable of slowing down the rotor; and using both the torque control device and the pitch control device to slow down the rotor when the torque control device alone is not fully capable of slowing down the rotor. using the torque control device alone to slow down the rotor, the system being characterised by the processing subsystem using the torque control device alone to slow down the rotor when the torque control device is fully capable of slowing down the rotor; and using both the torque control device and the pitch control device to slow down the rotor when the torque control device alone is not fully capable of slowing down the rotor.
A cryogenic pump comprising: - a pump body inside which is a piston mounted so as to be movable translationally along an axis, referred to as longitudinal axis, and delimiting a pumping chamber, - means for discharging pressurized liquid out of the pumping chamber comprising an outlet provided in a discharge valve body mounted on the longitudinal axis, said outlet being closed by a discharge valve mounted in said discharge valve body, - means for supplying liquid in the pumping chamber comprising a supply valve positioned around the outlet of the pumping chamber, and - a supply chamber positioned around the discharge valve body in communication with the pumping chamber via at least one passage, the opening and closing of which are controlled by the supply valve, characterized in that the supply chamber is closed on the side opposite to the piston by a cover comprising a first passage to allow a supply of cryogenic liquid from the supply chamber and a second passage to allow discharge of pumped liquid. - a pump body inside which is a piston mounted so as to be movable translationally along an axis, referred to as longitudinal axis, and delimiting a pumping chamber, - means for discharging pressurized liquid out of the pumping chamber comprising an outlet provided in a discharge valve body mounted on the longitudinal axis, said outlet being closed by a discharge valve mounted in said discharge valve body, - means for supplying liquid in the pumping chamber comprising a supply valve positioned around the outlet of the pumping chamber, and - a supply chamber positioned around the discharge valve body in communication with the pumping chamber via at least one passage, the opening and closing of which are controlled by the supply valve,