mhurhangee/ep-ind-claims huggingface dataset:
A method for side-band suppression in a Magnetic Resonance imaging, MRI, system, the method comprising: a) providing a first multiband RF pulse for simultaneously exciting at least two slices in a subject at a first and a second frequency band (301,303) and using the MRI system to acquire MR signals (307, 308) from the excited two slices and at least one additional MR signal at a third frequency band in the first multiband RF pulse's frequency spectrum, the additional MR signal resulting from a sideband excitation due to the first multiband RF pulse of a slice different from the two slices; b) deriving a pre-compensating term from the first multiband RF pulse and the additional MR signal for suppression of at least part of the additional MR signal, adding the pre-compensating term to the first multiband RF pulse to obtain a second multiband RF pulse, thereby replacing the first multiband RF pulse by the second multiband RF pulse for suppressing at least part of the additional MR signal upon exciting at least two slices in a subject by the second multiband RF pulse. a) providing a first multiband RF pulse for simultaneously exciting at least two slices in a subject at a first and a second frequency band (301,303) and using the MRI system to acquire MR signals (307, 308) from the excited two slices and at least one additional MR signal at a third frequency band in the first multiband RF pulse's frequency spectrum, the additional MR signal resulting from a sideband excitation due to the first multiband RF pulse of a slice different from the two slices; b) deriving a pre-compensating term from the first multiband RF pulse and the additional MR signal for suppression of at least part of the additional MR signal, adding the pre-compensating term to the first multiband RF pulse to obtain a second multiband RF pulse, thereby replacing the first multiband RF pulse by the second multiband RF pulse for suppressing at least part of the additional MR signal upon exciting at least two slices in a subject by the second multiband RF pulse.
1. A lens barrel comprising: a first barrel member including a first cam groove and a first cam follower (11b, 11bm, 11bs); and a second barrel member including a second cam follower configured to always engage with the first cam groove in an entire zooming range (C1, W1, T1), and a second cam groove (12a, 12as, 12c, 12cs) configured to always engage with the first cam follower in the entire zooming range, the second barrel member being configured to perform relative rotation and relative movement in an axis direction of the rotation with respect to the first barrel member. a first barrel member including a first cam groove and a first cam follower (11b, 11bm, 11bs); and a second barrel member including a second cam follower configured to always engage with the first cam groove in an entire zooming range (C1, W1, T1), and a second cam groove (12a, 12as, 12c, 12cs) configured to always engage with the first cam follower in the entire zooming range, the second barrel member being configured to perform relative rotation and relative movement in an axis direction of the rotation with respect to the first barrel member.
An electrical bus bar comprising: a first mounting portion adapted to be connected to a first counter connector, a second mounting portion adapted to be connected to a second counter connector and a flexible section between the first and second mounting portions (110, 120), wherein the bus bar comprises at least a flat first part and at least a flat second part, wherein each flat part (140, 150) extends from the first mounting portion to the second mounting portion and is arranged in a stacked configuration, wherein the flat first part and the flat second part is made of a metal sheet, wherein a first stripe of the metal sheet extends from a body edge of the flat first part to a body edge of the flat second part forming a first link, wherein the first link is dimensioned to keep a first contact surface of the flat first part and a second contact surface of the flat second part in intimate contact, characterized in that the flat first part comprises an arm, protruding from the first contact surface, located in the flexible section and wherein the flat second part comprises an opening located in the flexible section, wherein the arm is formed to protrude into the opening, thereby limiting movement of the flat first part in relation to the flat second part.
A cover plate, comprising: a substrate; at least one slot, defined in the substrate and penetrating through the substrate in a thickness direction of the substrate; and a filling layer, received in the at least one slot, comprising an insulating layer and a gel layer located on the insulating layer, characterized in that a width of the gel layer is larger than a width of the insulating layer. a substrate; at least one slot, defined in the substrate and penetrating through the substrate in a thickness direction of the substrate; and a filling layer, received in the at least one slot, comprising an insulating layer and a gel layer located on the insulating layer, characterized in that a width of the gel layer is larger than a width of the insulating layer.
An assembly comprising a plurality of screws, a propeller provided with a cylindrical propeller casing, at least one blade rotatably mounted about a pivot axis with respect to said cylindrical propeller casing, a hub adapted to be coupled to an engine and mounted coaxially inside said propeller casing, a kinematic mechanism coupled to said hub, and/or to said propeller casing, and to said at least one blade for adjusting the fluid dynamic pitch of the propeller by means of rotation of said at least one blade about its pivot axis with respect to said propeller casing, said hub being rotatable with respect to said cylindrical propeller casing, or vice versa, for at least one non-zero angular interval (α) of operation of said kinematic mechanism for adjusting the fluid dynamic pitch, said hub being integral with at least one contact surface (20, 21) that is movable between at least one position of disengagement from and at least one position of engagement, direct or indirect, with at least one relative abutment (40, 41) integral with said cylindrical propeller casing, said at least one relative abutment defining at least one limit stop of said at least one angular interval (α), characterized in that said plurality of screws comprises at least two different screws, having different lengths, and in that said propeller comprises at least one seat for complete installation of at least one screw selected from said plurality of screws having different lengths and adapted to be installed alternatively in said seat, wherein at least one region of said at least one screw selected from said plurality of screws when installed, by complete screwing in said seat, acts as one limit stop abutment for the contact surface (20, 21).
Use of a release agent for the manufacture of polyurethane molded bodies, wherein the release agent comprises: i) at least one carrier medium selected from water and/or organic solvent, ii) at least one polysiloxane, which has at least one quaternary nitrogen residue, iii) preferably at least one polysiloxane, preferably selected from the group of silicone resins and/or silicone waxes, solid at ambient temperature, and iv) at least one release-active substance selected from the group of waxes, polysiloxanes without quaternary nitrogen residue, soaps and oils, preferably selected from the group of reactive polysiloxanes without quaternary nitrogen residue, reactive soaps or reactive oils. i) at least one carrier medium selected from water and/or organic solvent, ii) at least one polysiloxane, which has at least one quaternary nitrogen residue, iii) preferably at least one polysiloxane, preferably selected from the group of silicone resins and/or silicone waxes, solid at ambient temperature, and iv) at least one release-active substance selected from the group of waxes, polysiloxanes without quaternary nitrogen residue, soaps and oils, preferably selected from the group of reactive polysiloxanes without quaternary nitrogen residue, reactive soaps or reactive oils.
A method for producing (2,4,4-trimethyl-1-cyclohexene)carbaldehyde, comprising the steps of: reacting a carbonyl group of 2,4,4-trimethyl-2-cyclohexenone represented by Formula: to obtain a 2,4,4-trimethyl-2-cyclohexenylidenemethyl ether compound represented by General Formula: wherein R 1 represents a monovalent hydrocarbon group having 1 to 8 carbon atoms; and hydrolyzing the 2,4,4-trimethyl-2-cyclohexenylidenemethyl ether to obtain the (2,4,4-trimethyl-1-cyclohexene)carbaldehyde represented by Formula: reacting a carbonyl group of 2,4,4-trimethyl-2-cyclohexenone represented by Formula: to obtain a 2,4,4-trimethyl-2-cyclohexenylidenemethyl ether compound represented by General Formula: wherein R 1 represents a monovalent hydrocarbon group having 1 to 8 carbon atoms; and hydrolyzing the 2,4,4-trimethyl-2-cyclohexenylidenemethyl ether to obtain the (2,4,4-trimethyl-1-cyclohexene)carbaldehyde represented by Formula:
A fire-rated light panel for use in an enclosed environment, the panel comprising; a light source; a wave guide in visible communication with the light source to propagate light across the light panel, the wave guide being made from an acrylic material; and a capsule encasing the light source and the wave guide, the capsule being configured to prevent fire propagation, wherein the capsule has a metallic base, a screen arranged to be backlit by the wave guide in-use, and an intumescent sealant to connect the screen and the wave guide to the metallic base, the screen comprising toughened glass, and wherein the capsule is hermetically sealed around the wave guide to prevent the release of toxic gases derived from the acrylic material from the light panel. a light source; a wave guide in visible communication with the light source to propagate light across the light panel, the wave guide being made from an acrylic material; and a capsule encasing the light source and the wave guide, the capsule being configured to prevent fire propagation,
An interlocking blending system comprising: a base (110, 201, 400, 550) including a motor, power circuit comprising a switch device and a first set of inductive coils (206, 410, 412, 552, 554); and a container (300, 510) including a second set of inductive coils (306, 308, 512, 514) that selectively inductively couples with the first set of inductive coils; characterized in that the base selectively permits operation of the motor based on the inductive coupling of the first set of coils and the second set of coils and wherein the switch device selectively allows operation of the motor in response to induced current in at least one receiving coil (212, 214, 412, 554) of the first set of inductive coils; the switch device includes a relay switch that is configured to operatively alter states between an open and a closed state wherein in the closed state the relay switch of the switch device completes the power circuit to allow operating the motor; and wherein the first set of inductive coils includes at least one transmitter (206, 210, 410, 552) coil and the at least one receiving coil (212, 214, 412, 554). a base (110, 201, 400, 550) including a motor, power circuit comprising a switch device and a first set of inductive coils (206, 410, 412, 552, 554); and a container (300, 510) including a second set of inductive coils (306, 308, 512, 514) that selectively inductively couples with the first set of inductive coils; characterized in that the base selectively permits operation of the motor based on the inductive coupling of the first set of coils and the second set of coils and wherein the switch device selectively allows operation of the motor in response to induced current in at least one receiving coil (212, 214, 412, 554) of the first set of inductive coils; the switch device includes a relay switch that is configured to operatively alter states between an open and a closed state wherein in the closed state the relay switch of the switch device completes the power circuit to allow operating the motor; and wherein the first set of inductive coils includes at least one transmitter (206, 210, 410, 552) coil and the at least one receiving coil (212, 214, 412, 554).
Total knee prosthesis to be implanted in a human patient, said prosthesis comprising a femoral element having a longitudinal axis (L'), a tibial plateau having a longitudinal axis and a mobile plate, said mobile plate being interposed between the femoral element and the tibial plateau to form two joints with them wherein: a. the surfaces of mutual friction of the femoral element with the mobile plate and the surfaces of mutual friction of the tibial plateau with the mobile plate are constituted by one and the same massive ceramic material; and b. the mobile plate comprises two condylar bowls, and the femoral element comprises two condyles, said condyles and said condylar bowls each comprising surfaces of mutual friction spaced apart from each other by a distance smaller than 100 μm when the longitudinal axes (L, L') of said femoral element and said tibial plateau form an angle of 0° to 75°, characterized in that the femoral element, the mobile plate and the tibial plateau are entirely constituted out of a same ceramic material, the femoral element, the mobile plate and the tibial plateau being all three made of massive ceramic and do not include any alloy with plastic material or metal material. a. the surfaces of mutual friction of the femoral element with the mobile plate and the surfaces of mutual friction of the tibial plateau with the mobile plate are constituted by one and the same massive ceramic material; and b. the mobile plate comprises two condylar bowls, and the femoral element comprises two condyles, said condyles and said condylar bowls each comprising surfaces of mutual friction spaced apart from each other by a distance smaller than 100 μm when the longitudinal axes (L, L') of said femoral element and said tibial plateau form an angle of 0° to 75°,
A method comprising: storing, in a terminal device, a plurality of different uplink transmission resource configurations and a plurality of different uplink request resources comprising at least a first resource and a second resource; causing transmission of a request message in the first resource to request a base station to carry out default procedures for processing a request associated with the request message; causing transmission of the request message in the second resource to request the base station to change a currently allocated uplink transmission resource configuration and/or to verify the change of the currently allocated uplink transmission resource configuration. causing transmission of a request message in the first resource to request a base station to carry out default procedures for processing a request associated with the request message; causing transmission of the request message in the second resource to request the base station to change a currently allocated uplink transmission resource configuration and/or to verify the change of the currently allocated uplink transmission resource configuration.
A method for starting a steam turbine in a combined cycle power plant comprising the steps of: • generating an outlet gas, with a gas turbine outlet temperature, from a gas turbine, • generating a steam from the gas exiting the gas turbine, • pre-warming the steam turbine with the steam, while maintaining a plant output, wherein the method further includes the step of isolating an exhaust of the steam turbine during pre-warming at the exhaust of the steam turbine, • running-up the steam turbine to a minimum load, • loading the steam turbine to a first steam turbine load while maintaining the power plant output essentially constant, and • loading the power plant output to increase the power plant output by loading of either or both the gas turbine and the steam turbine, wherein at least 65% of energy used to pre-warm the steam turbine is derived from a latent heat energy of the steam, and wherein said at least 65% percentage of the energy used is calculated by dividing sensible heat of a superheated portion of the steam by latent heat at a given steam pressure. • generating an outlet gas, with a gas turbine outlet temperature, from a gas turbine, • generating a steam from the gas exiting the gas turbine, • pre-warming the steam turbine with the steam, while maintaining a plant output, wherein the method further includes the step of isolating an exhaust of the steam turbine during pre-warming at the exhaust of the steam turbine, • running-up the steam turbine to a minimum load, • loading the steam turbine to a first steam turbine load while maintaining the power plant output essentially constant, and • loading the power plant output to increase the power plant output by loading of either or both the gas turbine and the steam turbine, wherein at least 65% of energy used to pre-warm the steam turbine is derived from a latent heat energy of the steam, and wherein said at least 65% percentage of the energy used is calculated by dividing sensible heat of a superheated portion of the steam by latent heat at a given steam pressure.
A process for direct conversion of a hydrocarbon-containing gas to a higher hydrocarbons product in the anode compartment of a fuel cell reactor, in which produced hydrogen, limiting the conversion to the equilibrium, is reacted in situ with oxygen ions transferred from the cathode compartment to produce steam, thereby removing the equilibrium-limiting hydrogen from the reaction.
A seed coating composition comprising: at least one seed selected from rice, corn, wheat, barley, oats, soybean, cotton, sunflower, alfalfa, sorghum, rapeseed, sugarbeet, tomato, bean, carrot, tobacco or flower seeds; and at least one layer coating all or part of the seed, the layer selected from the group consisting of guar, derivatized guar or a combination of the foregoing, wherein the at least one layer increases the raw weight of the at least one seed 1% to 5%, and wherein the derivatized guar is carboxymethyl guar, hydroxyethyl guar, hydroxypropyl guar, carboxymethylhydroxypropyl guar, cationic guar, cationic hydroxypropyl guar, hydrophobically modified guar, hydrophobically modified carboxymethyl guar, hydrophobically modified hydroxyethyl guar, hydrophobically modified hydroxypropyl guar, cationic hydrophobically modified hydroxypropyl guar, hydrophobically modified carboxymethylhydroxypropyl guar, hydrophobically modified cationic guar, or any combination thereof. at least one seed selected from rice, corn, wheat, barley, oats, soybean, cotton, sunflower, alfalfa, sorghum, rapeseed, sugarbeet, tomato, bean, carrot, tobacco or flower seeds; and at least one layer coating all or part of the seed, the layer selected from the group consisting of guar, derivatized guar or a combination of the foregoing, wherein the at least one layer increases the raw weight of the at least one seed 1% to 5%, and wherein the derivatized guar is carboxymethyl guar, hydroxyethyl guar, hydroxypropyl guar, carboxymethylhydroxypropyl guar, cationic guar, cationic hydroxypropyl guar, hydrophobically modified guar, hydrophobically modified carboxymethyl guar, hydrophobically modified hydroxyethyl guar, hydrophobically modified hydroxypropyl guar, cationic hydrophobically modified hydroxypropyl guar, hydrophobically modified carboxymethylhydroxypropyl guar, hydrophobically modified cationic guar, or any combination thereof.
A method for integrating information concerning point of sale transactions and electronic article surveillance deactivations, the method comprising the steps of: generating POS data by a POS station; transmitting deactivation signals from the POS station to an EAS deactivation device; generating EAS deactivation data by the EAS deactivation device; transmitting the EAS deactivation data and the POS data to an alarm management unit; and correlating the EAS deactivation data with the POS data to determine the effectiveness of a system comprising the POS station and the ESA deactivation device. generating POS data by a POS station; transmitting deactivation signals from the POS station to an EAS deactivation device; generating EAS deactivation data by the EAS deactivation device; transmitting the EAS deactivation data and the POS data to an alarm management unit; and correlating the EAS deactivation data with the POS data to determine the effectiveness of a system comprising the POS station and the ESA deactivation device.
An apparatus comprising: a substrate; and a spiral inductor disposed on the substrate, the spiral inductor being a gradient layer stack inductor, characterized in that a first portion of an innermost turn of the spiral inductor has a first thickness in a direction perpendicular to the substrate and comprises a first end portion of the spiral inductor, a second portion of the innermost turn has a second thickness in the direction perpendicular to the substrate, wherein the second thickness is greater than the first thickness, a third portion of the innermost turn of the spiral inductor has a third thickness in the direction perpendicular to the substrate, wherein the third thickness is greater than the first and second thicknesses, and a thickness of the spiral inductor in the direction perpendicular to the substrate increases according to a gradient from the first thickness to the third thickness in the innermost turn. a substrate; and a spiral inductor disposed on the substrate, the spiral inductor being a gradient layer stack inductor, characterized in that a first portion of an innermost turn of the spiral inductor has a first thickness in a direction perpendicular to the substrate and comprises a first end portion of the spiral inductor, a second portion of the innermost turn has a second thickness in the direction perpendicular to the substrate, wherein the second thickness is greater than the first thickness, a third portion of the innermost turn of the spiral inductor has a third thickness in the direction perpendicular to the substrate, wherein the third thickness is greater than the first and second thicknesses, and a thickness of the spiral inductor in the direction perpendicular to the substrate increases according to a gradient from the first thickness to the third thickness in the innermost turn.