mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing apparatus of a hot-rolled steel sheet comprising a row of not finish rolling mills and a cooling apparatus disposed on a downstream side from a row of the hot finish rolling mills, capable of supplying cooling water from above a pass line toward the pass line, the cooling apparatus comprising: a plurality of cooling nozzles arranged parallel to a direction of the pass line; and an upper surface guide disposed between the pass line and the cooling nozzles, wherein each cooling nozzle of the plurality of cooling nozzles can spray cooling water with a cooling water volume density of 0.16 (given in m 3 /(m 2 · sec)) or more, and when the cooling water volume density of water to be sprayed is defined as q m (given in m 3 / (m 2 ·sec)), a pitch of the cooling nozzle in a pass line direction is defined as L (given in m), a distance between a lower surface of the upper surface guide and the pass line is defined as h p (given in m), a uniform cooling width is defined as W u (given in m), a cross-sectional area of virtual flow path of discharging water flowing in a width direction of steel sheet per pitch of the cooling nozzle in the pass line direction is defined as S (given in m 2), a length in a sheet passing direction of a portion of the cross-section of a jet in a jet direction sprayed by the cooling nozzle, the portion passing the upper surface guide, is defined as L j1 (given in m), and a length in the sheet passing direction of a portion on the pass line of the cross-section of the jet in the jet direction sprayed by the cooling nozzle is defined as L j2 (given in m), following relation is satisfied: 0.08 ⋅ q m ⋅ W u ⋅ L S ⋅ h p ≦ 1 with S = h p ⋅ L − 1 2 L j 1 + L j 2 ⋅ h p. a plurality of cooling nozzles arranged parallel to a direction of the pass line; and an upper surface guide disposed between the pass line and the cooling nozzles, wherein each cooling nozzle of the plurality of cooling nozzles can spray cooling water with a cooling water volume density of 0.16 (given in m 3 /(m 2 · sec)) or more, and when the cooling water volume density of water to be sprayed is defined as q m (given in m 3 / (m 2 ·sec)), a pitch of the cooling nozzle in a pass line direction is defined as L (given in m), a distance between a lower surface of the upper surface guide and the pass line is defined as h p (given in m), a uniform cooling width is defined as W u (given in m), a cross-sectional area of virtual flow path of discharging water flowing in a width direction of steel sheet per pitch of the cooling nozzle in the pass line direction is defined as S (given in m 2), a length in a sheet passing direction of a portion of the cross-section of a jet in a jet direction sprayed by the cooling nozzle, the portion passing the upper surface guide, is defined as L j1 (given in m), and a length in the sheet passing direction of a portion on the pass line of the cross-section of the jet in the jet direction sprayed by the cooling nozzle is defined as L j2 (given in m), following relation is satisfied: 0.08 ⋅ q m ⋅ W u ⋅ L S ⋅ h p ≦ 1 with S = h p ⋅ L − 1 2 L j 1 + L j 2 ⋅ h p.
A method for delivering a network application, the method comprising: establishing, by a device intermediary between a client device and a server hosting a network application, a connection with the network application; receiving, by the device via the established connection, application data of the network application that comprises encoded graphics data; receiving, by the device, a specification of the client device; selecting, by the device, a configuration for the decoded graphics data based on the specification of the client device; decoding, by the device, the received application data of the network application, into decoded graphics data, for rendering at the client device without further processing of the decoded graphics data, the decoded graphics data being modifiable based on performance characteristics of the client device comprising at least one of a display resolution or scale, a coloring option, or a frame refresh rate of the client device; modifying, by the device, the decoded graphics data to achieve the performance characteristics for the client device based on the specification of the client device; and transmitting, by the device, the modified decoded graphics data to a client application of the client device for rendering without further processing of the modified decoded graphics data, to provide user access to the network application at the client device. establishing, by a device intermediary between a client device and a server hosting a network application, a connection with the network application; receiving, by the device via the established connection, application data of the network application that comprises encoded graphics data; receiving, by the device, a specification of the client device; selecting, by the device, a configuration for the decoded graphics data based on the specification of the client device; decoding, by the device, the received application data of the network application, into decoded graphics data, for rendering at the client device without further processing of the decoded graphics data, the decoded graphics data being modifiable based on performance characteristics of the client device comprising at least one of a display resolution or scale, a coloring option, or a frame refresh rate of the client device; modifying, by the device, the decoded graphics data to achieve the performance characteristics for the client device based on the specification of the client device; and transmitting, by the device, the modified decoded graphics data to a client application of the client device for rendering without further processing of the modified decoded graphics data, to provide user access to the network application at the client device.
A process for preparing an electrode for capacitative deionization of water comprising: (i) forming a composition of 60-88% by weight of activated carbon with a particle size range of 75-300 microns, 5-30% by weight of thermoplastic polymeric binder with a particle size range of 20-60 microns and 2-30% by weight of conductive carbon black having a mesopore area greater than 100 m 2 /g and including a fluid to said mixture wherein amount of said fluid is not more than 4 times the weight of said composition; (ii) casting the composition obtained in step (i) in a mould; (iii) optionally, compressing said mould; (iv) heating said mould to a temperature in the range 150°C to 350°C; and (v) demoulding the moulded electrode. (i) forming a composition of 60-88% by weight of activated carbon with a particle size range of 75-300 microns, 5-30% by weight of thermoplastic polymeric binder with a particle size range of 20-60 microns and 2-30% by weight of conductive carbon black having a mesopore area greater than 100 m 2 /g and including a fluid to said mixture wherein amount of said fluid is not more than 4 times the weight of said composition; (ii) casting the composition obtained in step (i) in a mould; (iii) optionally, compressing said mould; (iv) heating said mould to a temperature in the range 150°C to 350°C; and (v) demoulding the moulded electrode.
Support grid for filling material packing, comprising support strips and comprising top strips which are inclined relative to one another in opposite directions, wherein support strips and top strips intersect one another, the inclination of each top strip is defined by at least one top strip receiving groove, which is made in at least one support strip and in which the top strip is received, and the orientation of each support strip is stabilised by at least one support strip receiving groove, in which the support strip is received, wherein at least one of the support strip receiving grooves is made in at least one top strip. support strips and top strips intersect one another, the inclination of each top strip is defined by at least one top strip receiving groove, which is made in at least one support strip and in which the top strip is received, and the orientation of each support strip is stabilised by at least one support strip receiving groove, in which the support strip is received, wherein at least one of the support strip receiving grooves is made in at least one top strip.
A method of producing 1-butene, the method comprising: dehydrogenating n-butane to produce a first stream comprising 1-butene, isobutene, trans-2-butene, cis-2-butene, and n-butane; distilling, in a distillation column, the first stream to produce a second stream comprising primarily 1-butene and isobutene, collectively and a third stream comprising primarily trans-2-butene and cis-2-butene, collectively; and separating the second stream to produce a fourth stream comprising primarily 1-butene and a fifth stream comprising primarily isobutene. dehydrogenating n-butane to produce a first stream comprising 1-butene, isobutene, trans-2-butene, cis-2-butene, and n-butane; distilling, in a distillation column, the first stream to produce a second stream comprising primarily 1-butene and isobutene, collectively and a third stream comprising primarily trans-2-butene and cis-2-butene, collectively; and separating the second stream to produce a fourth stream comprising primarily 1-butene and a fifth stream comprising primarily isobutene.
A method for evaluating network performance, comprising: obtaining statistical data characterizing network performance, wherein the statistical data comprises one or more of the following data: the number of physical cell identifier, PCI, conflict cells, the number of unknown PCIs triggered by an event or periodically, the number of new unknown neighbor cells triggered by an event, the number of successful handover of a new unknown neighbor cell, the number of handover target cells as conflict cells, the number of overshoot coverage cells, the number of reading a global cell identity, GCI, the number of successfully reading a GCI, the number of UEs specified to perform automatic neighbor relationship measurement, delay or average delay of reading a GCI, the number of neighbor cells in a neighbor cell list, NCL, and the number of neighbor relationship tables, NRTs; and obtaining performance of neighbor relationship adjustment according to the statistical data, or obtaining a degree to which the neighbor relationship adjustment affects the network performance according to the statistical data. obtaining statistical data characterizing network performance, wherein the statistical data comprises one or more of the following data: the number of physical cell identifier, PCI, conflict cells, the number of unknown PCIs triggered by an event or periodically, the number of new unknown neighbor cells triggered by an event, the number of successful handover of a new unknown neighbor cell, the number of handover target cells as conflict cells, the number of overshoot coverage cells, the number of reading a global cell identity, GCI, the number of successfully reading a GCI, the number of UEs specified to perform automatic neighbor relationship measurement, delay or average delay of reading a GCI, the number of neighbor cells in a neighbor cell list, NCL, and the number of neighbor relationship tables, NRTs; and obtaining performance of neighbor relationship adjustment according to the statistical data, or obtaining a degree to which the neighbor relationship adjustment affects the network performance according to the statistical data.
Sports helmet comprising: - a protective shell, - a dome, attached to the inside of the shell, this dome having, on an inner side, oriented towards the head of a user, projections delimiting air circulation passages between the forward portion of the dome and the rear portion of the dome, the air circulation passages being supplied from the forward portion of the helmet, characterized in that the projections are arranged randomly so as to form at least one air circulation passage having a trajectory which, when projected onto a horizontal plane, is irregular in the longitudinal direction of the helmet so as to disturb the flow of an incoming air flow. - a protective shell, - a dome, attached to the inside of the shell, this dome having, on an inner side, oriented towards the head of a user, projections delimiting air circulation passages between the forward portion of the dome and the rear portion of the dome, the air circulation passages being supplied from the forward portion of the helmet,
A method for connecting a force sensor to a circuit board of an insulin pump, the method comprising: a) providing the circuit board, comprising at least one first conductive lead and at least one second conductive lead, wherein the first conductive lead and the second conductive lead are located on the same surface of the circuit board; b) providing the force sensor having at least one flexible first contact tab and at least one flexible second contact tab, wherein each contact tab (124, 126) comprises a contact pad, wherein the contact pad of the first contact tab and the contact pad of the second contact tab are arranged on opposite sides relative to each other; c) arranging the first contact tab such that the contact pad of the first contact tab faces the first conductive lead of the circuit board; d) arranging a first conductive rubber element such that an electrical connection between the contact pad of the first contact tab and the first conductive lead is established; e) arranging the second contact tab such that the contact pad of the second contact tab and the second conductive lead face in the same direction; and f) arranging a second conductive rubber element such that an electrical connection between the contact pad of the second contact tab and the second conductive lead is established. a) providing the circuit board, comprising at least one first conductive lead and at least one second conductive lead, wherein the first conductive lead and the second conductive lead are located on the same surface of the circuit board; b) providing the force sensor having at least one flexible first contact tab and at least one flexible second contact tab, wherein each contact tab (124, 126) comprises a contact pad, wherein the contact pad of the first contact tab and the contact pad of the second contact tab are arranged on opposite sides relative to each other; c) arranging the first contact tab such that the contact pad of the first contact tab faces the first conductive lead of the circuit board; d) arranging a first conductive rubber element such that an electrical connection between the contact pad of the first contact tab and the first conductive lead is established; e) arranging the second contact tab such that the contact pad of the second contact tab and the second conductive lead face in the same direction; and f) arranging a second conductive rubber element such that an electrical connection between the contact pad of the second contact tab and the second conductive lead is established.
An additive manufacturing system for printing 3D parts, the system comprising: a print foundation; a print head provided in a build zone and configured to print a 3D part onto the print foundation in a layer-by-layer manner; a drive mechanism configured to index the print foundation along a horizontal axis during printing of the 3D part; and a table comprising a plurality of table sections (734, 734A, 734B) extending along the horizontal axis, each table section (734, 734A, 734B) comprising an air platen configured to generate an air bearing beneath a portion of the 3D part being printed as it advances from the build zone, the air platen comprising a plurality of air jets terminating in upward-facing apertures; and a pressure chamber (714, 714a, 714b). a print foundation; a print head provided in a build zone and configured to print a 3D part onto the print foundation in a layer-by-layer manner; a drive mechanism configured to index the print foundation along a horizontal axis during printing of the 3D part; and a table comprising a plurality of table sections (734, 734A, 734B) extending along the horizontal axis, each table section (734, 734A, 734B) comprising an air platen configured to generate an air bearing beneath a portion of the 3D part being printed as it advances from the build zone, the air platen comprising a plurality of air jets terminating in upward-facing apertures; and a pressure chamber (714, 714a, 714b).
A coated glass article comprising a glass substrate and a coating formed over the glass substrate, wherein the coating comprises: - optionally, a base layer of an oxide of silicon deposited over a major surface of the glass substrate; - a first coating layer of an oxide of titanium, niobium or chromium deposited over the optional base layer; - a second coating layer of an oxide of silicon deposited over the first coating layer; and - a third coating layer of an oxide of tin deposited over the second coating layer; - wherein the coated glass article exhibits a Tvis of 40% - 55% and an Rf of 40% - 60%; and - wherein the second coating layer is deposited at a thickness of from 70nm to 100nm. - optionally, a base layer of an oxide of silicon deposited over a major surface of the glass substrate; - a first coating layer of an oxide of titanium, niobium or chromium deposited over the optional base layer; - a second coating layer of an oxide of silicon deposited over the first coating layer; and - a third coating layer of an oxide of tin deposited over the second coating layer; - wherein the coated glass article exhibits a Tvis of 40% - 55% and an Rf of 40% - 60%; and - wherein the second coating layer is deposited at a thickness of from 70nm to 100nm.
A mobile telephone, comprising: a cartilage conduction unit (24,26; 224, 226; 1024, 1026; 2524, 2526; 4263a, 4263b; 4863a, 4863b; 5124, 5126) adapted to make contact with ear cartilage and provided to each of two corner parts at an upper side of the mobile telephone (1, 101, 201, 301, 401, 901, 1001, 2401, 4201, 4301, 4401, 4501, 4801, 5101, 5201, 5401, 5601, 5701), wherein each of two end parts of a cartilage conduction vibration source for conducting vibration to the cartilage conduction unit is respectively supported inside a pair of elastic bodies (4263a, 4263b; 4363a, 4363b; 4863a, 4863b), and an exterior of each of the pair of elastic bodies is respectively arranged at the two corner parts at the upper side of the mobile telephone as the cartilage conduction units, and an elastic body (4263c, 4263d; 4363c. 4362d; 4863c, 4863d) is arranged at each of two corner parts at the lower side of the mobile telephone and is configured, together with the pair of elastic bodies arranged at the two corner parts at the upper side of the mobile telephone, so as to attenuate a collision from an external unit with the four corner parts of the mobile telephone. a cartilage conduction unit (24,26; 224, 226; 1024, 1026; 2524, 2526; 4263a, 4263b; 4863a, 4863b; 5124, 5126) adapted to make contact with ear cartilage and provided to each of two corner parts at an upper side of the mobile telephone (1, 101, 201, 301, 401, 901, 1001, 2401, 4201, 4301, 4401, 4501, 4801, 5101, 5201, 5401, 5601, 5701), wherein each of two end parts of a cartilage conduction vibration source for conducting vibration to the cartilage conduction unit is respectively supported inside a pair of elastic bodies (4263a, 4263b; 4363a, 4363b; 4863a, 4863b), and an exterior of each of the pair of elastic bodies is respectively arranged at the two corner parts at the upper side of the mobile telephone as the cartilage conduction units, and an elastic body (4263c, 4263d; 4363c. 4362d; 4863c, 4863d) is arranged at each of two corner parts at the lower side of the mobile telephone and is configured, together with the pair of elastic bodies arranged at the two corner parts at the upper side of the mobile telephone, so as to attenuate a collision from an external unit with the four corner parts of the mobile telephone.
A hydrogel composition for use in treating or preventing a microbial infection in the mammary tissue of an animal by administering by infusion to mammary tissue of the animal the hydrogel composition comprising a water soluble polyvinyl alcohol macromer, at least one polyol, a reducing agent, an oxidizing agent and optionally a stabilizer, wherein the polyvinyl alcohol macromer contains at least two pendant chains containing groups that can be crosslinked, and the hydrogel composition is configured for in situ polymerization.
Connection of a double-walled turbocharger housing (1, 25) with an inner sheet metal shell (3, 26), and an outer sheet metal shell (2, 27) spaced apart from the inner sheet metal shell by an air gap (5, 32) on a bearing flange (13, 30) with a collar (17, 29) via a common welding seam, wherein the bearing flange (13, 30) is provided with the collar (17, 29) on an outer side (16, 31) facing away from hot waste gas, the inner sheet metal shell (3, 26) has a collar at an outer end (9, 28), with which it grips around the outer sheet metal shell (2, 27) and wherein both sheet metal shells (3, 26 and 2, 27) are connected by a common welding seam to the collar (17, 29) of the bearing flange (13, 30), wherein up to the outer end (9, 28) of the inner sheet metal shell (3, 26) an air gap (5, 32) is provided between the inner sheet metal shell (3, 26) and the outer sheet metal shell (2, 27).
A bearing assembly for a gas turbine engine, the bearing assembly comprising: at least two bearings being axially spaced from one another relative to a central axis and configured to rotatably support a rotating component of a gas turbine engine; and a bearing housing configured to be secured to a casing of a gas turbine engine, characterised in that: the bearing housing defines a bearing cavity circumferentially extending around the central axis for receiving lubricant from a lubrication system for lubricating the bearings, and the bearing housing includes a case extending at least axially relative to the central axis and extending circumferentially around the central axis, and bearing supports secured to the case at axially spaced apart locations of the case, the bearing supports radially supporting the at least two bearings, wherein the case includes an axially deformable bellows between the bearing supports, the bellows configured to permit axial relative movement of the bearings. at least two bearings being axially spaced from one another relative to a central axis and configured to rotatably support a rotating component of a gas turbine engine; and a bearing housing configured to be secured to a casing of a gas turbine engine, the bearing housing defines a bearing cavity circumferentially extending around the central axis for receiving lubricant from a lubrication system for lubricating the bearings, and the bearing housing includes a case extending at least axially relative to the central axis and extending circumferentially around the central axis, and bearing supports secured to the case at axially spaced apart locations of the case, the bearing supports radially supporting the at least two bearings, wherein the case includes an axially deformable bellows between the bearing supports, the bellows configured to permit axial relative movement of the bearings.
A toy wheel assembly preferably for a toy vehicle, said toy wheel assembly includes a rim, a tyre and an axle where said tyre is configured to encircle an outer periphery of said rim when mounted on said rim, and where said axle is configured to be connected to said rim, coaxially with said rim, under a connection allowing said rim to rotate coaxially on said axle characterized in that said rim include one or more barbs (55a; 55b) configured to engage radially with an external encircling groove provided on said axle when said axle is inserted into an axle receiving hole in said rim and in that said one or more barbs (55a; 55b) are maintained in said external encircling groove by an interior face of said tyre when said tyre is mounted on said rim.