mhurhangee/ep-ind-claims huggingface dataset:
A fuel injector assembly for an internal combustion engine, the assembly having an injector cup with an internal volume adapted to receive a fuel inlet end of a fuel injector, and a fuel inlet port hydraulically connectable to a fuel source and in fluid communication with the volume, a securing device by which the injector cup is fastened to the engine, the end of the injector cup remote from the fuel inlet port having an outwardly extending flange, characterised in that the fuel injector assembly further comprising a connector which is part of the fuel injector abutting the flange, through which the injector cup and the fuel injector are secured together, and a fastening bracket, supported on the flange, through which the injector cup is secured to the connector by at least one fastening device wherein the or each fastening device has a U-shaped clip having a first arm disposed between a clamping face of the fastening device and the fastening bracket and a second arm generally parallel to the first arm disposed on the opposite side of the fastening bracket.
A method for producing 5-hydroxymethylfurfural, wherein a) solutions (hereinbelow called starting solution) which comprise - a hexose and - an organic solvent with a boiling point greater than 200°C (at standard pressure) (for short called high-boiling component), and steam are fed to a reaction vessel, b) in the reaction vessel, a conversion of the hexose to HMF takes place in the presence of steam with the simultaneous distillative removal of the HMF and c) as distillate, an aqueous, HMF-comprising solution (hereinbelow called distillate) is obtained. a) solutions (hereinbelow called starting solution) which comprise - a hexose and - an organic solvent with a boiling point greater than 200°C (at standard pressure) (for short called high-boiling component), and steam are fed to a reaction vessel, - a hexose and - an organic solvent with a boiling point greater than 200°C (at standard pressure) (for short called high-boiling component), and steam are fed to a reaction vessel, b) in the reaction vessel, a conversion of the hexose to HMF takes place in the presence of steam with the simultaneous distillative removal of the HMF and c) as distillate, an aqueous, HMF-comprising solution (hereinbelow called distillate) is obtained.
A dosing machine for dispensing metered quantities of fluid products, in particular for preparing paints, varnishes, dyes and the like, comprising: - a stock having a plurality of compartments configured to receive respective sealed disposable cartridges (24a, 24b), - a dispensing head having a plurality of nozzles, and - a plurality of dosing circuits configured to supply metered quantities of fluid products to respective nozzles of the dispensing head, characterised in that each of said dosing circuits is hydraulically connected to two cartridge supports (30a, 30b) configured to be connected to respective cartridges (24a, 24b) containing the same fluid product, so that, during operation, one of the two cartridges (24a, 24b) connected to the same dosing circuit forms a buffer for the complementary cartridge, wherein said cartridge supports (30a, 30b) are fixed and are connected to respective tubes connected to two inlets of a three-way valve having an outlet connected to a metering pump, and wherein said three-way valve is controlled by a control unit according to signals coming from level sensors associated with said cartridge supports (30a, 30b). - a stock having a plurality of compartments configured to receive respective sealed disposable cartridges (24a, 24b), - a dispensing head having a plurality of nozzles, and - a plurality of dosing circuits configured to supply metered quantities of fluid products to respective nozzles of the dispensing head, characterised in that each of said dosing circuits is hydraulically connected to two cartridge supports (30a, 30b) configured to be connected to respective cartridges (24a, 24b) containing the same fluid product, so that, during operation, one of the two cartridges (24a, 24b) connected to the same dosing circuit forms a buffer for the complementary cartridge, wherein said cartridge supports (30a, 30b) are fixed and are connected to respective tubes connected to two inlets of a three-way valve having an outlet connected to a metering pump, and wherein said three-way valve is controlled by a control unit according to signals coming from level sensors associated with said cartridge supports (30a, 30b).
A composition comprising an aqueous solvent and a solid portion, wherein: a) from 15 to 30% in weight/total weight of the solid portion consists of a first powder of at least one partially fluorinated copolymer (copolymer) in the form of particles having average size from 3 to 6 micrometers; b) from 70 to 85% in weight/total weight of the solid portion consists of a second powder of at least one partially fluorinated copolymer (copolymer (F')), equal to or different from copolymer, in the form of particles having average size from 20 to 90 micrometers, wherein the average particle size is measured according to test method ASTM D1921. a) from 15 to 30% in weight/total weight of the solid portion consists of a first powder of at least one partially fluorinated copolymer (copolymer) in the form of particles having average size from 3 to 6 micrometers; b) from 70 to 85% in weight/total weight of the solid portion consists of a second powder of at least one partially fluorinated copolymer (copolymer (F')), equal to or different from copolymer, in the form of particles having average size from 20 to 90 micrometers,
A method of making a pharmaceutical composition comprising: providing a matrix solution/suspension comprising a matrix former, a structure former, an anti-aerating agent comprising a liquid flavor comprising limonene, and a solvent; and mixing a plurality of hydrophobic particles into the matrix solution/suspension to form a pharmaceutical suspension; and dosing the pharmaceutical suspension into preformed blister packs, wherein a dosed weight of the dosed pharmaceutical suspension is within 10% of a target dosed weight. providing a matrix solution/suspension comprising a matrix former, a structure former, an anti-aerating agent comprising a liquid flavor comprising limonene, and a solvent; and mixing a plurality of hydrophobic particles into the matrix solution/suspension to form a pharmaceutical suspension; and dosing the pharmaceutical suspension into preformed blister packs, wherein a dosed weight of the dosed pharmaceutical suspension is within 10% of a target dosed weight.
A sensor component for an optical flow rate sensor for fluid and/or gaseous media, comprising at least one component segment (11.1, 11.2) and at least one sensor segment, wherein - the sensor segment comprises at least two inspection windows (3.1, 3.2; 403.1, 403.2) in the region of multiple cutouts (50.1, 50.2; 450.1, 450.2) in the sensor segment, which are arranged in such a way that light is allowed to pass through a cross-section (Q 1) of the sensor segment, or - the sensor segment comprises precisely one inspection window (3.1) in the region of a cutout, and a reflective surface, especially a mirrored or polished surface, is provided on the side opposite the cutout, such that light is allowed to pass twice through a cross-section (Q 1) of the sensor segment, wherein - the sensor component comprises a receiving component that can be introduced into the one or multiple cutouts (50.1, 50.2; 450.1, 450.2), characterized in that - the inspection window or the inspection windows (3.1, 3.2, 403, 403.1, 403.2, 503) is or are materially connected to the receiving component in form of a compression glass-to-metal sealing. - the sensor segment comprises at least two inspection windows (3.1, 3.2; 403.1, 403.2) in the region of multiple cutouts (50.1, 50.2; 450.1, 450.2) in the sensor segment, which are arranged in such a way that light is allowed to pass through a cross-section (Q 1) of the sensor segment, or - the sensor segment comprises precisely one inspection window (3.1) in the region of a cutout, and a reflective surface, especially a mirrored or polished surface, is provided on the side opposite the cutout, such that light is allowed to pass twice through a cross-section (Q 1) of the sensor segment, wherein - the sensor component comprises a receiving component that can be introduced into the one or multiple cutouts (50.1, 50.2; 450.1, 450.2), characterized in that - the inspection window or the inspection windows (3.1, 3.2, 403, 403.1, 403.2, 503) is or are materially connected to the receiving component in form of a compression glass-to-metal sealing.
Method of manufacturing an atomising body for an atomising device, the method comprising the steps of: - providing a support element having a first layer on a first surface of the support element and a second layer on a second surface of the support element, the first layer comprising a first perforated membrane and the second layer comprising a process orifice and a second perforated membrane arranged adjacent the process orifice (375, 580, 600), - etching a cavity through the support element, the cavity forming a fluid connection from the process orifice to the first perforated membrane and from the first perforated membrane to the second perforated membrane, by providing an etching substance to the process orifice; and - sealing the process orifice by a cover. - providing a support element having a first layer on a first surface of the support element and a second layer on a second surface of the support element, the first layer comprising a first perforated membrane and the second layer comprising a process orifice and a second perforated membrane arranged adjacent the process orifice (375, 580, 600), - etching a cavity through the support element, the cavity forming a fluid connection from the process orifice to the first perforated membrane and from the first perforated membrane to the second perforated membrane, by providing an etching substance to the process orifice; and - sealing the process orifice by a cover.
A multilane printer for printing packaging material, comprising a first lane for packaging material, a second lane for packaging material, and a printer head arranged in connection with said lanes (3, 4), wherein said lanes (3, 4) are arranged laterally offset in an overlapping manner, such that said printer head is able to simultaneously print on at least a portion of the packaging material travelling in each lane (3, 4).
A complex comprising a peptide having the amino acid sequence according to any one of SEQ ID NOs: 34-37, 40-42 and a cargo molecule, wherein the cargo molecule is a nucleic acid.
A method of urging fluid into a droplet, comprising: providing a microfluidic system (200, 700) comprising a first microfluidic channel (230, 310, 910, 600, 800, 730, 750) and a second microfluidic channel (240, 330, 920, 610, 760, 740, 810 contacting the first microfluidic channel at an intersection (260, 750, 765); providing a first fluid in the first microfluidic channel and a second fluid in the second microfluidic channel, wherein the first fluid and the second fluid contact each other at least partially within the intersection to define a fluidic interface (350, 930, 620), wherein the first fluid is present within the first microfluidic channel as droplets in a carrying fluid; and applying an electric field to the interface to urge the second fluid to enter the droplets in the first microfluidic channel, wherein, in the absence of the electric field, the second fluid is not urged to enter the first microfluidic channel, wherein the amount of second fluid added to the droplet is controlled by controlling the strength of the electric field applied to the intersection. providing a microfluidic system (200, 700) comprising a first microfluidic channel (230, 310, 910, 600, 800, 730, 750) and a second microfluidic channel (240, 330, 920, 610, 760, 740, 810 contacting the first microfluidic channel at an intersection (260, 750, 765); providing a first fluid in the first microfluidic channel and a second fluid in the second microfluidic channel, wherein the first fluid and the second fluid contact each other at least partially within the intersection to define a fluidic interface (350, 930, 620), wherein the first fluid is present within the first microfluidic channel as droplets in a carrying fluid; and applying an electric field to the interface to urge the second fluid to enter the droplets in the first microfluidic channel, wherein, in the absence of the electric field, the second fluid is not urged to enter the first microfluidic channel, wherein the amount of second fluid added to the droplet is controlled by controlling the strength of the electric field applied to the intersection.
Fuel injector for a gas turbine engine combustion chamber, comprising a first fuel supply line for running at idle speed, and a second, main fuel supply line for running at speeds up to full throttle, first injection orifices and second injection orifices with which the two supply lines respectively communicate, characterised in that it comprises n1 orifices for idle and n2 main orifices in a ratio n1/n2<1, the injection orifices (112, 113) being arranged in a ring, the first orifices occupying one sector of said ring, the injector comprising a central primary-air supply duct, the injection orifices (112, 113) being distributed annularly about said central duct, the injector comprising an annular distributor-forming portion of axis XX, in which at least some of the fuel injection orifices (112, 113) are formed on a plate transverse to the axis XX, a screen-forming plate pierced with pre-mixing orifices (115B2, 115B3, 115B4, 115B5) being positioned transversely to the fuel injection orifices (112, 113), some of said premixing orifices (115B5, 115B4) being positioned in such a way as to be swept by the air of the primary-air flow so as to premix primary air with fuel from the injection orifices (112, 113), the injector comprising an annular secondary-air supply duct coaxial with the ring formed by the injection orifices (112, 113), the screen-forming plate also being pierced with orifices (115B3, 115B2) for premixing secondary air with fuel from the injection orifices (112, 113).
Submarine power cable comprising an electrical conductor surrounded by an insulation (2,3,4), said insulation being surrounded by a metallic moisture barrier, characterized in that said insulation comprises a first semi-conductive layer, an electrically insulated laver surrounding said first layer, and a second semi-conductive layer surrounding said electrically insulated layer, and the cable further comprises: - a semi-conductive adhesive layer surrounding said metallic moisture barrier, and - a semi-conductive polymeric jacket able to be in electrical contact with sea water, and surrounding said semi-conductive adhesive layer, wherein the metallic moisture barrier is a welded metallic tube, and is not corrugated, and wherein the overlaying of the metallic moisture barrier, the semi-conductive adhesive layer and the semi-conductive polymeric jacket forms a 3-layer sheath. - a semi-conductive adhesive layer surrounding said metallic moisture barrier, and - a semi-conductive polymeric jacket able to be in electrical contact with sea water, and surrounding said semi-conductive adhesive layer,
A brake system, comprising a rotor assembly, a stator assembly and a rotation axis, wherein the rotor assembly comprises an outer portion which is located radially outward of the stator assembly, the outer portion comprises a brake disc, and the stator assembly comprises at least one fractional member operatively configured for frictionally engaging at least a portion of the brake disc, characterised in that the brake disc comprises a number of radial segments (12a, 12b, 12c).
An orthopedic or prosthetic support comprising: a substantially porous inner layer comprising a flexible cushioning material including a plurality of perforations extending between opposite sides of the layer; a substantially porous intermediate layer comprising a flexible material including a plurality of perforations extending between opposite sides of the layer and a plurality of spacer members arranged in a repeating pattern, wherein the substantially porous intermediate layer is situated substantially parallel to the substantially porous inner layer yet spaced apart by the spacer members so as to provide air passages between the intermediate layer and the inner layer and air pathways through both the plurality of perforations in the intermediate layer and the plurality of perforations in the inner layer and wherein the flexible material of the intermediate layer has greater hardness than the flexible cushioning material of the inner layer; a substantially porous exterior layer enclosing the intermediate layer, wherein air external to the orthopedic or prosthetic support may pass through the substantially porous exterior layer to the air pathways; and a securing mechanism affixed to at least the exterior layer for securing the orthopedic or prosthetic support to a living being. a substantially porous inner layer comprising a flexible cushioning material including a plurality of perforations extending between opposite sides of the layer; a substantially porous intermediate layer comprising a flexible material including a plurality of perforations extending between opposite sides of the layer and a plurality of spacer members arranged in a repeating pattern, wherein the substantially porous intermediate layer is situated substantially parallel to the substantially porous inner layer yet spaced apart by the spacer members so as to provide air passages between the intermediate layer and the inner layer and air pathways through both the plurality of perforations in the intermediate layer and the plurality of perforations in the inner layer and wherein the flexible material of the intermediate layer has greater hardness than the flexible cushioning material of the inner layer; a substantially porous exterior layer enclosing the intermediate layer, wherein air external to the orthopedic or prosthetic support may pass through the substantially porous exterior layer to the air pathways; and a securing mechanism affixed to at least the exterior layer for securing the orthopedic or prosthetic support to a living being.
A method for determining misalignment between a device and a pedestrian, wherein the misalignment is a heading misalignment angle between a heading of the device and a heading of the pedestrian, wherein the heading of the pedestrian is a pedestrian direction of motion, and wherein the device comprises a tri-axial accelerometer, the method comprising the steps of: a) calculating a plurality of levelled accelerometer readings from readings of the tri-axial accelerometer by transforming the tri-axial accelerometer readings into a levelled vertical accelerometer reading component and first and second horizontal acceleration components; b) generating a vertical acceleration component from the levelled vertical accelerometer reading component, wherein the vertical acceleration component is obtained by removing gravity from the levelled vertical accelerometer reading component; c) calculating an along-track angle by applying a maximum possible variance technique on the first and second horizontal acceleration components, wherein the along-track angle is one of a forward or a backward direction of the heading misalignment angle; wherein the method further comprises the steps of: d) determining a use case of the device based at least in part on patterns of the levelled accelerometer readings; e) detecting if a 180 degrees error in the calculated along-track angle is present based on the determined use case, wherein one or more different techniques are used for detecting if the 180 degrees error is present based on the use case; and f) calculating a misalignment angle from the along-track angle and, if present, the 180 degrees error. a) calculating a plurality of levelled accelerometer readings from readings of the tri-axial accelerometer by transforming the tri-axial accelerometer readings into a levelled vertical accelerometer reading component and first and second horizontal acceleration components; b) generating a vertical acceleration component from the levelled vertical accelerometer reading component, wherein the vertical acceleration component is obtained by removing gravity from the levelled vertical accelerometer reading component; c) calculating an along-track angle by applying a maximum possible variance technique on the first and second horizontal acceleration components, wherein the along-track angle is one of a forward or a backward direction of the heading misalignment angle; wherein the method further comprises the steps of: d) determining a use case of the device based at least in part on patterns of the levelled accelerometer readings; e) detecting if a 180 degrees error in the calculated along-track angle is present based on the determined use case, wherein one or more different techniques are used for detecting if the 180 degrees error is present based on the use case; and f) calculating a misalignment angle from the along-track angle and, if present, the 180 degrees error.
A solid fuel burner which is provided on a furnace wall comprising: a fuel nozzle which ejects a mixture fluid of a solid fuel and a conveying gas; and air nozzles which are disposed on the outer side of the fuel nozzle and eject combustion air, wherein the air nozzles are forming an annular passage on the outer most periphery of the fuel nozzle, internal air passages of the air nozzles are divided into a plurality of regions in the circumferential direction of the air nozzles by obstacles (20, 21, 53, 54, 60, 61), the solid fuel burner has dampers (38a, 38b, 56a, 56b) for regulating an air flow rate flowing in at least one of the plurality of divided regions to generate deviations of flow rate in the flow ejected from the air nozzles in the circumferential direction, wherein the obstacles (20, 21, 53, 54, 60, 61) are for dividing the internal air passages of the air nozzles into a plurality of regions in the circumferential direction of the air nozzles and the obstacles (20, 21, 53, 54, 60, 61) are, (a) obstacles (20, 21, 53a, 54a) connected to only an inner peripheral side partition wall constituting the air nozzles and not connected to an outer peripheral side partition wall of the air nozzles, (b) obstacles (53b, 54b) connected to only an outer peripheral side partition wall of the air nozzles and not connected to an inner peripheral side partition wall of the air nozzles, or (c) double obstacles (53a, 54a, 60, 61) formed by combining obstacles (53a, 54a) connected to only the inner peripheral side partition wall and not connected to an outer peripheral side partition wall of the air nozzles, and obstacles (60, 61) connected to only the outer peripheral side partition walls and not connected to an inner peripheral side partition wall of the air nozzles. the air nozzles are forming an annular passage on the outer most periphery of the fuel nozzle, internal air passages of the air nozzles are divided into a plurality of regions in the circumferential direction of the air nozzles by obstacles (20, 21, 53, 54, 60, 61), the solid fuel burner has dampers (38a, 38b, 56a, 56b) for regulating an air flow rate flowing in at least one of the plurality of divided regions to generate deviations of flow rate in the flow ejected from the air nozzles in the circumferential direction, wherein