mhurhangee/ep-ind-claims huggingface dataset:
A sealing assembly for a gas turbine engine, the sealing assembly comprising: a case; a support arm connected to and extending radially inward from the case; a carrier connected to an end of the support arm; a vane having a portion disposed downstream of the carrier; a W-seal having a portion disposed within the carrier; and a J-shield gasket disposed adjacent to and abutting the W-seal, the J-shield gasket positioned partially between the W-seal and the carrier and partially between the W-seal and the vane; wherein the J-shield gasket comprises first and second portions (72, 74), a first curved corner disposed between the first and second portions (72, 74) of the J-shield gasket, and a second curved corner disposed on an end of the second portion of the J-shield gasket opposite the first portion, wherein the vane comprises an airfoil and a platform disposed on a radially outward end of the airfoil, the platform including a rail, wherein a portion of the rail is disposed adjacent to and abutting the J-shield gasket; characterised in that the J-shield gasket is slidably engaged with the rail of the platform; and the W-seal is able to rotate within the carrier. a case; a support arm connected to and extending radially inward from the case; a carrier connected to an end of the support arm; a vane having a portion disposed downstream of the carrier; a W-seal having a portion disposed within the carrier; and a J-shield gasket disposed adjacent to and abutting the W-seal, the J-shield gasket positioned partially between the W-seal and the carrier and partially between the W-seal and the vane; wherein the J-shield gasket comprises first and second portions (72, 74), a first curved corner disposed between the first and second portions (72, 74) of the J-shield gasket, and a second curved corner disposed on an end of the second portion of the J-shield gasket opposite the first portion, wherein the vane comprises an airfoil and a platform disposed on a radially outward end of the airfoil, the platform including a rail, wherein a portion of the rail is disposed adjacent to and abutting the J-shield gasket; characterised in that the J-shield gasket is slidably engaged with the rail of the platform; and the W-seal is able to rotate within the carrier.
A method for cutting thermally-strengthened glass comprising: providing a thermally-strengthened glass substrate wherein the thermally- strengthened glass substrate has a first surface and an opposing second surface; applying laser energy to the thermally-strengthened glass substrate under conditions effective to cut the thermally-strengthened glass substrate, wherein applying laser energy is characterised in that it comprises: focusing the laser energy at a first position on or in proximity of the first surface; and pulsing the laser energy for a pulse duration ranging from about 10 femtoseconds to about 100 picoseconds at a pulse frequency ranging from about 100 kHz to about 100 MHz, the pulsed laser energy having a pulse energy of about 1 μJ to about 400 μJ, and having a wavelength of about 250 nm to about 1100 nm; and wherein the laser energy forms a filamentation pattern defined by a series of regularly recurring substantially parallel filamentation traces (510, 900) in the thermally-strengthened glass substrate. providing a thermally-strengthened glass substrate wherein the thermally- strengthened glass substrate has a first surface and an opposing second surface; applying laser energy to the thermally-strengthened glass substrate under conditions effective to cut the thermally-strengthened glass substrate, wherein applying laser energy is characterised in that it comprises: focusing the laser energy at a first position on or in proximity of the first surface; and pulsing the laser energy for a pulse duration ranging from about 10 femtoseconds to about 100 picoseconds at a pulse frequency ranging from about 100 kHz to about 100 MHz, the pulsed laser energy having a pulse energy of about 1 μJ to about 400 μJ, and having a wavelength of about 250 nm to about 1100 nm; and wherein the laser energy forms a filamentation pattern defined by a series of regularly recurring substantially parallel filamentation traces (510, 900) in the thermally-strengthened glass substrate. focusing the laser energy at a first position on or in proximity of the first surface; and pulsing the laser energy for a pulse duration ranging from about 10 femtoseconds to about 100 picoseconds at a pulse frequency ranging from about 100 kHz to about 100 MHz, the pulsed laser energy having a pulse energy of about 1 μJ to about 400 μJ, and having a wavelength of about 250 nm to about 1100 nm; and wherein the laser energy forms a filamentation pattern defined by a series of regularly recurring substantially parallel filamentation traces (510, 900) in the thermally-strengthened glass substrate.
A receiver assembly, comprising: a first receiver housing (2, 102) comprising a first sound outlet port; a second receiver housing (4, 104) comprising a second sound outlet port; a spout (6, 106); wherein the second receiver housing (4,104) is positioned over the first sound outlet port; further comprising an acoustic duct (7, 107) located between the first (2,102) and second receiver housing (4,104) acoustically connecting the first sound outlet port to the spout; and an acoustic mass (8, 108) positioned in an end portion of the acoustic duct (7, 107) close to the spout (6,106); characterised in that the acoustic duct (7, 107) is provided as a plate with a cut-out portion, said cut-out portion constituting the acoustic duct. a first receiver housing (2, 102) comprising a first sound outlet port; a second receiver housing (4, 104) comprising a second sound outlet port; a spout (6, 106); wherein the second receiver housing (4,104) is positioned over the first sound outlet port; further comprising an acoustic duct (7, 107) located between the first (2,102) and second receiver housing (4,104) acoustically connecting the first sound outlet port to the spout; and an acoustic mass (8, 108) positioned in an end portion of the acoustic duct (7, 107) close to the spout (6,106); characterised in that the acoustic duct (7, 107) is provided as a plate with a cut-out portion, said cut-out portion constituting the acoustic duct.
A compound represented by Formula, or a diastereomer, enantiomer or pharmaceutically acceptable salt of the compound: wherein R 1 and R 2 each independently represent H, C 1 -C 6 alkyl, - CO 2 R 6, -CONR 6 R 7, -P 2 -, -(CH 2) 2 OP 2 - or a hydroxy protecting group, or wherein OR 1 or OR 2 forms an ester of an amino acid, or wherein R 1 and R 2 are connected to carbonyl to make a cyclic carbonate group, or wherein OR 1 or OR 2 together form a phosphate group; R 3 represents NR 7 R 8 or NHSO 2 R 10; R 4 represents H or C 1-3 alkyl; R 5, R 6 and R 7 each independently represent H or C 1-6 alkyl, or wherein R 6 and R 7 together with the nitrogen to which they are attached form a piperidine or a bipiperidine ring; R 8 represents H, optionally substituted C 1 -C 6 alkyl, or or wherein R 7 and R 8 are such that NR 7 R 8 is an amide of an amino acid; R 9 represents H or C 1 -C 6 alkyl, which may be optionally substituted with a terminal hydroxyl or carboxy group; and R 10 represents H, optionally substituted C 1 -C 6 alkyl, optionally substituted C 6 -C 10 aryl, optionally substituted C 3 -C 8 heteroaryl or optionally substituted heterocyclyl; with a proviso that all of R 1, R 2 and R 8 are not H. R 1 and R 2 each independently represent H, C 1 -C 6 alkyl, - CO 2 R 6, -CONR 6 R 7, -P 2 -, -(CH 2) 2 OP 2 - or a hydroxy protecting group, or wherein OR 1 or OR 2 forms an ester of an amino acid, or wherein R 1 and R 2 are connected to carbonyl to make a cyclic carbonate group, or wherein OR 1 or OR 2 together form a phosphate group; R 3 represents NR 7 R 8 or NHSO 2 R 10; R 4 represents H or C 1-3 alkyl; R 5, R 6 and R 7 each independently represent H or C 1-6 alkyl, or wherein R 6 and R 7 together with the nitrogen to which they are attached form a piperidine or a bipiperidine ring; R 8 represents H, optionally substituted C 1 -C 6 alkyl, or or wherein R 7 and R 8 are such that NR 7 R 8 is an amide of an amino acid; R 9 represents H or C 1 -C 6 alkyl, which may be optionally substituted with a terminal hydroxyl or carboxy group; and R 10 represents H, optionally substituted C 1 -C 6 alkyl, optionally substituted C 6 -C 10 aryl, optionally substituted C 3 -C 8 heteroaryl or optionally substituted heterocyclyl; with a proviso that all of R 1, R 2 and R 8 are not H.
Circulation area construction comprising at least one base layer, at least one asphalt upper layer and at least one intermediate layer, which is applied to the at least one base layer, wherein the at least one intermediate layer comprises a material comprising at least one silane terminated polymer, wherein the at least one silane terminated polymer is selected from a group consisting of polyethylene oxide and/or polypropylene oxide, both also including urethane segments, and/or polyurethane.
Apparatus for a vehicle with a hydraulic actuating unit for the regulation of the operation of an accessory unit on the vehicle comprising at least one position detection unit with at least two distance determination sensors (8, 9) which are positioned behind one another in the driving direction of the vehicle and are directed towards the ground, and with an evaluation unit with a control unit which is assigned to the hydraulic actuating unit, the hydraulic actuating unit comprising a lifting unit and a top link cylinder for the accessory unit, which lifting unit and top link cylinder can be activated by the evaluation unit, the evaluation unit being set up to carry out the following method steps: a) discharging of a filling material from a container of the accessory unit during driving of the vehicle; b) ascertaining of a vertical height and a tilt of the vehicle or accessory unit with respect to the ground during the driving of the vehicle; c) comparing of the determined vertical height and the determined tilt with at least one predefinable setpoint value; d) activating of at least one lifting unit or one top link cylinder if at least the vertical height or the tilt angle differs from the setpoint value. a) discharging of a filling material from a container of the accessory unit during driving of the vehicle; b) ascertaining of a vertical height and a tilt of the vehicle or accessory unit with respect to the ground during the driving of the vehicle; c) comparing of the determined vertical height and the determined tilt with at least one predefinable setpoint value; d) activating of at least one lifting unit or one top link cylinder if at least the vertical height or the tilt angle differs from the setpoint value.
A bumper assembly for a motor vehicle, having an upper main cross member which can be coupled to the motor vehicle via crash boxes, and a lower auxiliary cross member, wherein the main cross member and the auxiliary cross member are coupled to one another via vertical struts (4, 6), wherein the main cross member and the auxiliary cross member are configured in one piece and from the same material as the vertical struts, characterised in that the auxiliary cross member is set back towards the motor vehicle in relation to the main cross member in the longitudinal direction of the motor vehicle..
An apparatus for implementing policy control for a home gateway, characterized by comprising an auto-configuration server, ACS, configured to control and manage the home gateway remotely, which comprises a Local Policy Decision Function Entity further referred to as Local PD-FE, where Rd interface is applied between the Local PD-FE and a PD-FE at network side and Rh interface is applied between the Local PD-FE and a Home Policy Execute Function Entity, HPE-FE, of the home gateway; said Local PD-FE being configured to receive a Quality of Service policy further referred to as QoS, policy, sent by the PD-FE at network side, select a suitable home gateway according to the QoS policy and send the QoS policy received from the PD-FE to the HPE-FE of said home gateway, where the suitable home gateway is one used by a user initiating a QoS guaranteed service.
A method of measuring a lipoprotein's capability to accept cholesterol comprising the steps of: bringing a lipoprotein in a sample into contact with labeled cholesterol to incorporate the labeled cholesterol into the lipoprotein, whereby the labeled cholesterol is esterified by the contact with the sample and the esterified labeled cholesterol is incorporated into the lipoprotein; bringing the lipoprotein into contact with an anti-ApoAI antibody which is immobilized on a solid phase to form a complex of the lipoprotein and the antibody; removing free labeled cholesterol which is not incorporated into the lipoprotein; and measuring the amount of the esterified labeled cholesterol incorporated into the lipoprotein of the complex. bringing a lipoprotein in a sample into contact with labeled cholesterol to incorporate the labeled cholesterol into the lipoprotein, whereby the labeled cholesterol is esterified by the contact with the sample and the esterified labeled cholesterol is incorporated into the lipoprotein; bringing the lipoprotein into contact with an anti-ApoAI antibody which is immobilized on a solid phase to form a complex of the lipoprotein and the antibody; removing free labeled cholesterol which is not incorporated into the lipoprotein; and measuring the amount of the esterified labeled cholesterol incorporated into the lipoprotein of the complex.
Ophthalmic composition comprising (in concentrations per ml of the solution): recombinant interferon 500 - 10 000 000 antihistamine agents (g) 0.0001 -0.1 stabilizer of biological and physicochemical properties (g) 0.0001 - 0.1 stabilizer of resistance to microbial contamination (g) 0.0001 - 0.1 anti-oxidizing agent (g) 0.0001 - 0.1 sodium chloride (g) and/or 0.0001- 0.1 sodium acetate (g) 0.0001 - 0.1 buffer solution (ml) the rest; wherein (i) the antihistamine agents are selected from anthazoline, azelastin, tetryzoline; (ii) the stabilizers of biological and physicochemical properties, are selected from Macrogol 400-12000; (iii) the stabilizer of resistance to microbial contamination are selected from sorbic acid, boric acid. (i) the antihistamine agents are selected from anthazoline, azelastin, tetryzoline; (ii) the stabilizers of biological and physicochemical properties, are selected from Macrogol 400-12000; (iii) the stabilizer of resistance to microbial contamination are selected from sorbic acid, boric acid.
A control unit adapted to regulate a speed of a two-stroke combustion engine, where the control unit is adapted to control an ignition timing relative to a top dead center position of the two-stroke combustion engine step-wise in response to an engine speed, characterized in that the ignition timing is step-wise retarded in two or more steps, when the engine speed is higher than a corresponding threshold engine speed, such that the control unit is adapted to control the ignition timing in two or more alternating spans, where, in an alternating span, the ignition timing is step-wise adjusted between a first ignition timing and a second ignition timing.
Rechargeable battery having at least one battery element, one heat-transporting device designed for heating and/or cooling the battery and at least one heat-conducting device, wherein the at least one battery element and the at least one heat-conducting device are connected to one another in a heat-conducting manner, and wherein the at least one heat-conducting device and the heat-transporting device are connected to one another in a heat-conducting manner, wherein a clamping arrangement which is formed by the battery element and the heat-conducting device braces the at least one battery element and the at least one heat-conducting device against one another, wherein - at least in one region - an electrically insulating heat-conducting element is arranged between at least one battery element and at least one heat-conducting device, which is braced to this battery element, and/or between two heat-conducting devices, wherein the battery element is designed as a circular-cylindrical battery element, characterized in that the heat-conducting device is designed as a heat-conducting sleeve which - at least in sections - completely surrounds a lateral surface of the battery element and has a longitudinal slot.
Device for studying a study area using an acoustic wave, including: - a substrate equipped with a first face and with a second face that are separate, - a study area, - an emission source arranged so as to emit an acoustic beam coming from the first face in the direction of the second face, - first means for reflecting said acoustic beam, - a receiver, characterized in that - the study area is contained within the substrate, - the first means for reflecting said acoustic beam are arranged so as to reflect said beam coming from the first face such that the beam has, after reflection, a direction of propagation that is substantially parallel to the second face and passes through the study area, and in that the device furthermore includes - second reflection means arranged so as to reflect the acoustic beam in the direction of the first face after the beam has passed through the study area, and in that - the receiver is arranged so as to receive said acoustic beam reflected by the second reflection means. - a substrate equipped with a first face and with a second face that are separate, - a study area, - an emission source arranged so as to emit an acoustic beam coming from the first face in the direction of the second face, - first means for reflecting said acoustic beam, - a receiver, - the study area is contained within the substrate, - the first means for reflecting said acoustic beam are arranged so as to reflect said beam coming from the first face such that the beam has, after reflection, a direction of propagation that is substantially parallel to the second face and passes through the study area, and in that the device furthermore includes - second reflection means arranged so as to reflect the acoustic beam in the direction of the first face after the beam has passed through the study area, and in that - the receiver is arranged so as to receive said acoustic beam reflected by the second reflection means.
A fuel tank comprising a tank body (Ta) and a built-in component, which includes a head portion, a neck portion, and a shoulder portion, the built-in component being anchored to the tank body with a parison wrapped around the neck portion during molding of the tank body, wherein the head portion and the neck portion are formed with at least one hollowed portion, which is open to an end surface of the head portion, characterized in that a cap member is provided to seal an opening of the at least one hollowed portion. the head portion and the neck portion are formed with at least one hollowed portion, which is open to an end surface of the head portion, characterized in that a cap member is provided to seal an opening of the at least one hollowed portion.
A wind turbine offshore installation method of installing a wind turbine using a semi-submersible type floating substructure comprising: a step of towing the semi-submersible type floating substructure on which the wind turbine is supported in an erected state to an installation target site on a sea; a step of towing a spar type floating substructure for supporting the wind turbine on the sea to the installation target site; a step of arranging the spar type floating substructure towed to the installation target site in an upright state and submerging the spar type floating substructure in the water; a step of moving the spar type floating substructure in the upright state to a position directly below the wind turbine; and a step of coupling the wind turbine and the spar type floating substructure at the installation target site to install the wind turbine on the sea, wherein the step of coupling the wind turbine and the spar type floating substructure includes a step of floating the spar type floating substructure in the upright state from below the semi-submersible type floating substructure in such a manner as to pass through a penetration part penetrating the semi-submersible type floating substructure vertically. a step of towing the semi-submersible type floating substructure on which the wind turbine is supported in an erected state to an installation target site on a sea; a step of towing a spar type floating substructure for supporting the wind turbine on the sea to the installation target site; a step of arranging the spar type floating substructure towed to the installation target site in an upright state and submerging the spar type floating substructure in the water; a step of moving the spar type floating substructure in the upright state to a position directly below the wind turbine; and a step of coupling the wind turbine and the spar type floating substructure at the installation target site to install the wind turbine on the sea, wherein the step of coupling the wind turbine and the spar type floating substructure includes a step of floating the spar type floating substructure in the upright state from below the semi-submersible type floating substructure in such a manner as to pass through a penetration part penetrating the semi-submersible type floating substructure vertically.
A method of detecting a target analyte in a sample based on localized surface plasmon resonance, the method comprising: (a) mixing the sample with a first detection conjugate and a second detection conjugate in the presence of polyethylene glycol, wherein the polyethylene glycol is present at a concentration of between 0.1 mg/mL to 200 mg/mL, wherein the first and second detection conjugates comprise composite metallic nanostructures coupled to binding partners that are capable of specifically binding to the target analyte if present in the sample to form a complex between the first detection conjugate, the analyte, and the second detection conjugate in solution; (b) exposing the complex to a light source at a wavelength range within the ultraviolet-visible-infrared spectrum; and (c) measuring an optical signal from the complex, wherein a change in the optical signal indicates the presence of the target analyte in the sample. (a) mixing the sample with a first detection conjugate and a second detection conjugate in the presence of polyethylene glycol, wherein the polyethylene glycol is present at a concentration of between 0.1 mg/mL to 200 mg/mL, wherein the first and second detection conjugates comprise composite metallic nanostructures coupled to binding partners that are capable of specifically binding to the target analyte if present in the sample to form a complex between the first detection conjugate, the analyte, and the second detection conjugate in solution; (b) exposing the complex to a light source at a wavelength range within the ultraviolet-visible-infrared spectrum; and (c) measuring an optical signal from the complex, wherein a change in the optical signal indicates the presence of the target analyte in the sample.