mhurhangee/ep-ind-claims huggingface dataset:
A perfuming composition comprising a) at least one hydrophobic polymeric material having a grafted structure which is water insoluble and which is formed of i) at least one hydrophobic ethanol-compatible block linked to a core, selected from the group consisting of poly (propylene glycol), poly (1,2-butylene glycol) and poly (1,4-butylene glycol); ii) as the core, at least one ethanol-incompatible block consisting of a poly(dimethylsiloxane); wherein the said polymeric material does not comprise a poly(ethylene glycol) block; b) from 25 to 90% by weight, relative to the total weight of the composition, of ethanol; c) water; and d) from between 5 and 30% by weight, relative to the total weight of the composition, of at least one perfuming component. a) at least one hydrophobic polymeric material having a grafted structure which is water insoluble and which is formed of i) at least one hydrophobic ethanol-compatible block linked to a core, selected from the group consisting of poly (propylene glycol), poly (1,2-butylene glycol) and poly (1,4-butylene glycol); ii) as the core, at least one ethanol-incompatible block consisting of a poly(dimethylsiloxane); wherein the said polymeric material does not comprise a poly(ethylene glycol) block; i) at least one hydrophobic ethanol-compatible block linked to a core, selected from the group consisting of poly (propylene glycol), poly (1,2-butylene glycol) and poly (1,4-butylene glycol); ii) as the core, at least one ethanol-incompatible block consisting of a poly(dimethylsiloxane); b) from 25 to 90% by weight, relative to the total weight of the composition, of ethanol; c) water; and d) from between 5 and 30% by weight, relative to the total weight of the composition, of at least one perfuming component.
Device for making a preparatory incision longitudinally of an animal extremity part having a first bone and a second bone articulated by a joint, and surrounded by meat, the device including: at least one elongate linear guide member (15, 115); at least one cutting unit (21, 121) associated with the at least one elongate linear guide member(15, 115) for translating movement lengthwise thereof; a cutting knife (51, 151A, 151B) on the at least one cutting unit mounted for movement between a first position and a second position in a first plane; a conveyor (5, 201) for transporting animal extremity parts through a path coincident with the at least one cutting unit; a primary drive mechanism (19, 39, 119, 139) for moving the at least one cutting unit lengthwise of the at least one elongate linear guide member; a secondary drive mechanism (23, 27, 123, 127) for moving the cutting knife between the first position for receiving an animal extremity part transported by the conveyor in the at least one cutting unit, and the second position for performing the preparatory incision longitudinally of an animal extremity part received in the at least one cutting unit, characterized in that the at least one elongate linear guide member, and the associated at least one cutting unit are part of a plurality of elongate linear guide members, and a plurality of associated cutting units forming a periphery of a rotatable carousel (9, 109). at least one elongate linear guide member (15, 115); at least one cutting unit (21, 121) associated with the at least one elongate linear guide member(15, 115) for translating movement lengthwise thereof; a cutting knife (51, 151A, 151B) on the at least one cutting unit mounted for movement between a first position and a second position in a first plane; a conveyor (5, 201) for transporting animal extremity parts through a path coincident with the at least one cutting unit; a primary drive mechanism (19, 39, 119, 139) for moving the at least one cutting unit lengthwise of the at least one elongate linear guide member; a secondary drive mechanism (23, 27, 123, 127) for moving the cutting knife between the first position for receiving an animal extremity part transported by the conveyor in the at least one cutting unit, and the second position for performing the preparatory incision longitudinally of an animal extremity part received in the at least one cutting unit, characterized in that the at least one elongate linear guide member, and the associated at least one cutting unit are part of a plurality of elongate linear guide members, and a plurality of associated cutting units forming a periphery of a rotatable carousel (9, 109).
A method of molding a gas turbine engine component comprising the steps of: inserting a core assembly into a mold for a gas turbine engine component, the core assembly having a ceramic component with a tapered shape in a radial direction extending away from a platform to a tip of the gas turbine engine component; a refractory metal component extending radially from said ceramic core component; and injecting metal into a cavity in said mold, and about the core assembly, allowing the metal to solidify, and leaching away the core assembly, leaving internal cavity in a component formed in said mold, said airfoil extending from a leading edge to a trailing edge, and in said radial direction away from the platform. inserting a core assembly into a mold for a gas turbine engine component, the core assembly having a ceramic component with a tapered shape in a radial direction extending away from a platform to a tip of the gas turbine engine component; a refractory metal component extending radially from said ceramic core component; and injecting metal into a cavity in said mold, and about the core assembly, allowing the metal to solidify, and leaching away the core assembly, leaving internal cavity in a component formed in said mold, said airfoil extending from a leading edge to a trailing edge, and in said radial direction away from the platform.
A holding means for an optical component, having a base element and at least a first adjustment element, wherein a gap is formed between the base element and the first adjustment element, which gap is bounded by facing surfaces of the two elements (1, 2), characterised in that the base element and the at least one adjustment element are connected to one another via at least one first flexure joint, and in that the gap is penetrated by the first flexure joint, wherein a centre of rotation of the flexure joint intersects an axis of symmetry about which at least regions of the base element and/or the first adjustment element have rotational symmetry about at least one angle.
Sports shoe comprising a shell formed by at least a first shell portion and at least a second shell portion, distinct from each other and adapted for being assembled together, said at least a first shell portion comprising a first peripheral rim edge, and said at least a second shell portion comprising a second peripheral rim edge (E'), and said first peripheral rim edge and second peripheral rim edge (E') comprising, respectively, a first joining rim portion (E j) and a second joining rim portion (E' j) adapted to be coupled to each other for fixing said at least a first shell portion with said at least a second shell portion, said first joining rim portion (E j) comprising at least a joining channel adapted to cooperate with a corresponding at least a joining projection comprised in said second joining rim portion (E' j), and characterized in that said at least a joining channel and the corresponding said at least a joining projection being fixable to each other by means of heat welding, said at least a joining channel comprises a bottom and side surfaces, said at least a joining projection comprises a concentration head and a body, said bottom being adapted to cooperate with said concentration head and said side surfaces being adapted to cooperate with said body. said at least a first shell portion comprising a first peripheral rim edge, and said at least a second shell portion comprising a second peripheral rim edge (E'), and said first peripheral rim edge and second peripheral rim edge (E') comprising, respectively, a first joining rim portion (E j) and a second joining rim portion (E' j) adapted to be coupled to each other for fixing said at least a first shell portion with said at least a second shell portion, said first joining rim portion (E j) comprising at least a joining channel adapted to cooperate with a corresponding at least a joining projection comprised in said second joining rim portion (E' j), and characterized in that said at least a joining channel and the corresponding said at least a joining projection being fixable to each other by means of heat welding, said at least a joining channel comprises a bottom and side surfaces, said at least a joining projection comprises a concentration head and a body, said bottom being adapted to cooperate with said concentration head and said side surfaces being adapted to cooperate with said body.
A device comprising a wire wound resistor with a built-in thermal fuse, wherein the wire wound resistor comprises a hollow ceramic tube providing housing for the thermal fuse; a first metal cap and a second metal cap to lock the two ends of the hollow ceramic tube; a resistor alloy wire wounded on the outer surface of the hollow ceramic tube; a first lead wire of the thermal fuse and a second lead wire of the thermal fuse, wherein the first lead wire of the thermal fuse and the second lead wire of the thermal fuse respectively pass through the first metal cap and the second metal cap; a low melting point alloy wire welded between the first lead wire of the thermal fuse and the second lead wire of the thermal fuse; characterized in that a fluxing promoting agent is disposed around the low melting point alloy wire to improve the alloy wire to contract oppositely and cut off when melting; and wherein the device is encapsulated in an epoxy resin. a hollow ceramic tube providing housing for the thermal fuse; a first metal cap and a second metal cap to lock the two ends of the hollow ceramic tube; a resistor alloy wire wounded on the outer surface of the hollow ceramic tube; a first lead wire of the thermal fuse and a second lead wire of the thermal fuse, wherein the first lead wire of the thermal fuse and the second lead wire of the thermal fuse respectively pass through the first metal cap and the second metal cap; a low melting point alloy wire welded between the first lead wire of the thermal fuse and the second lead wire of the thermal fuse; characterized in that a fluxing promoting agent is disposed around the low melting point alloy wire to improve the alloy wire to contract oppositely and cut off when melting; and wherein the device is encapsulated in an epoxy resin.
A tire rubber composition, comprising: a rubber component comprising a diene polymer; silica; and a diene polymer, the diene polymers and each being a modified diene polymer obtained by reacting a component and a component, the diene polymer having a number average molecular weight of 110000 to 1500000, the diene polymer having a number average molecular weight of 1000 to 100000, an amount of the diene polymer being 2 to 25 parts by mass per 100 parts by mass of the rubber component, wherein the component is an active alkali metal-terminated conjugated diene polymer obtained by polymerizing a conjugated diene monomer alone or with an aromatic vinyl monomer, in the presence of a component, the component is a modifying agent containing a functional group, and the component is a chemical species obtained by reacting an organic alkali metal compound with a compound represented by the following formula: wherein R 1 and R 2 are the same as or different from each other and each represent a hydrogen atom, a branched or unbranched alkyl group, a branched or unbranched aryl group, a branched or unbranched alkoxy group, a branched or unbranched silyloxy group, a branched or unbranched acetal group, a carboxyl group, a mercapto group, or a derivative thereof; and A represents a branched or unbranched alkylene group, a branched or unbranched arylene group, or a derivative thereof. a rubber component comprising a diene polymer; silica; and a diene polymer, the diene polymers and each being a modified diene polymer obtained by reacting a component and a component, the diene polymer having a number average molecular weight of 110000 to 1500000, the diene polymer having a number average molecular weight of 1000 to 100000, an amount of the diene polymer being 2 to 25 parts by mass per 100 parts by mass of the rubber component, wherein the component is an active alkali metal-terminated conjugated diene polymer obtained by polymerizing a conjugated diene monomer alone or with an aromatic vinyl monomer, in the presence of a component, the component is a modifying agent containing a functional group, and the component is a chemical species obtained by reacting an organic alkali metal compound with a compound represented by the following formula: wherein R 1 and R 2 are the same as or different from each other and each represent a hydrogen atom, a branched or unbranched alkyl group, a branched or unbranched aryl group, a branched or unbranched alkoxy group, a branched or unbranched silyloxy group, a branched or unbranched acetal group, a carboxyl group, a mercapto group, or a derivative thereof; and A represents a branched or unbranched alkylene group, a branched or unbranched arylene group, or a derivative thereof.
A sensor pad (22; 122) adapted for releasable application to the skin of a patient having a subcutaneous cerebrospinal fluid shunt having CSF that flows from an upstream location in the patient towards a downstream location and also wherein said sensor pad is also adapted for use with a cerebrospinal fluid analyzer, said sensor pad (22; 122) comprising: a body comprising a plurality of temperature sensors (28A, 28B, 28C) that are positioned transversely across said body at predetermined positions, said plurality of temperature sensors (28A, 28B, 28C) being aligned such that when said sensor pad (22; 122) is applied to the skin over the CSF shunt, one of said plurality of temperature sensors (28A, 28B, 28C) is positioned over the CSF shunt while the remaining plurality of temperature sensors are equally positioned on opposite sides of the CSF shunt; said sensor pad being disposable (22; 122); wherein: said body further comprising an alignment member (29; 129) that protrudes from an edge of said pad, said alignment member is configured to act as a guide for a user in positioning a cold source against the skin of the patient to maintain the cold source at a predetermined upstream position away from said plurality of temperature sensors (28A, 28B, 28C) over the CSF shunt, wherein said alignment member (29; 129) is a T-shaped member having an upper edge (27; 127) at the top of the sensor pad; characterized in that, said body being formed of an insulated foam. a body comprising a plurality of temperature sensors (28A, 28B, 28C) that are positioned transversely across said body at predetermined positions, said plurality of temperature sensors (28A, 28B, 28C) being aligned such that when said sensor pad (22; 122) is applied to the skin over the CSF shunt, one of said plurality of temperature sensors (28A, 28B, 28C) is positioned over the CSF shunt while the remaining plurality of temperature sensors are equally positioned on opposite sides of the CSF shunt; said sensor pad being disposable (22; 122); wherein: said body further comprising an alignment member (29; 129) that protrudes from an edge of said pad, said alignment member is configured to act as a guide for a user in positioning a cold source against the skin of the patient to maintain the cold source at a predetermined upstream position away from said plurality of temperature sensors (28A, 28B, 28C) over the CSF shunt, wherein said alignment member (29; 129) is a T-shaped member having an upper edge (27; 127) at the top of the sensor pad; characterized in that, said body being formed of an insulated foam. said body further comprising an alignment member (29; 129) that protrudes from an edge of said pad, said alignment member is configured to act as a guide for a user in positioning a cold source against the skin of the patient to maintain the cold source at a predetermined upstream position away from said plurality of temperature sensors (28A, 28B, 28C) over the CSF shunt, wherein said alignment member (29; 129) is a T-shaped member having an upper edge (27; 127) at the top of the sensor pad; characterized in that, said body being formed of an insulated foam.
A dosing pump for dosing antiscalant into a membrane-based water treatment system, wherein the dosing pump comprises - a displacement body for pumping antiscalant into a membrane-based water treatment system in a dosed manner, - a motor for driving the displacement body, and - a control module for controlling the motor, wherein the control module is configured to vary the dosage of antiscalant pumped into the water treatment system based on a temperature corrected system variable (SVTc) including a temperature correction, the temperature corrected system variable (SVTc) being dependent on scaling of the membrane and being based on a plurality of operating variables of the water treatment system, wherein the control module is configured to adapt the dosage of antiscalant pumped into the water treatment system upon a change of the first time derivative of the temperature corrected system variable (ΔSVTc/Δt), wherein the temperature corrected system variable (SVTc) is a temperature corrected net driving pressure (NDPTc) including a temperature correction and/or a temperature corrected permeate flow (PFTc) including a temperature correction and/or a combination thereof. - a displacement body for pumping antiscalant into a membrane-based water treatment system in a dosed manner, - a motor for driving the displacement body, and - a control module for controlling the motor,
A light control device comprising: a light control element including first and second base members (20, 21), first and second electrodes (22, 23) respectively provided on the first and second base members, a liquid crystal layer filled between the first and second electrodes, and first and second terminals (T1, T2) electrically connected to the first and second electrodes; and a drive circuit adapted to apply a first drive voltage to the first terminal and a second drive voltage having a polarity different from that of the first drive voltage to the second terminal, wherein the drive circuit is adapted to set the first drive voltage to a first voltage (Vov+) in a first period, to a second voltage (Vc+) lower than the first voltage in a second period following the first period, to a third voltage (Vov-) lower than the second voltage in a third period following the second period, and to a fourth voltage (Vc-) lower than the second voltage and higher than the third voltage in a fourth period following the third period, and the drive circuit is adapted to set the second drive voltage to the third voltage (Vov-) in the first period, to the fourth voltage (Vc-) in the second period, to the first voltage (Vov+) in the third period, and to the second voltage (Vc+) in the fourth period. a light control element including first and second base members (20, 21), first and second electrodes (22, 23) respectively provided on the first and second base members, a liquid crystal layer filled between the first and second electrodes, and first and second terminals (T1, T2) electrically connected to the first and second electrodes; and a drive circuit adapted to apply a first drive voltage to the first terminal and a second drive voltage having a polarity different from that of the first drive voltage to the second terminal, wherein the drive circuit is adapted to set the first drive voltage to a first voltage (Vov+) in a first period, to a second voltage (Vc+) lower than the first voltage in a second period following the first period, to a third voltage (Vov-) lower than the second voltage in a third period following the second period, and to a fourth voltage (Vc-) lower than the second voltage and higher than the third voltage in a fourth period following the third period, and the drive circuit is adapted to set the second drive voltage to the third voltage (Vov-) in the first period, to the fourth voltage (Vc-) in the second period, to the first voltage (Vov+) in the third period, and to the second voltage (Vc+) in the fourth period.
Speaker system comprising: a first speaker unit including a first speaker outputting a sound to be heard in a first listening position and a second speaker outputting a sound to be heard in a second listening position; a second speaker unit including a third speaker outputting a sound to be heard in the first listening position and a fourth speaker outputting a sound to be heard in the second listening position; and a motor driving section configured to drive at least one driving motor (111, 112, 113) to move at least the first speaker such that the current first listening position is substantially included in a vertical bisector plane of a line connecting a first point sound source of the first speaker along a directivity axis (a) of the first speaker and a second point sound source of the second speaker along a directivity axis (b) of the second speaker, and to drive at least one driving motor (121, 122, 123) to move at least the fourth speaker such that the current second listening position is substantially included in a vertical bisector plane of a line connecting a third point sound source of the third speaker along a directivity axis of the third speaker and a fourth point sound source of the fourth speaker along a directivity axis of the fourth speaker. a first speaker unit including a first speaker outputting a sound to be heard in a first listening position and a second speaker outputting a sound to be heard in a second listening position; a second speaker unit including a third speaker outputting a sound to be heard in the first listening position and a fourth speaker outputting a sound to be heard in the second listening position; and a motor driving section configured to drive at least one driving motor (111, 112, 113) to move at least the first speaker such that the current first listening position is substantially included in a vertical bisector plane of a line connecting a first point sound source of the first speaker along a directivity axis (a) of the first speaker and a second point sound source of the second speaker along a directivity axis (b) of the second speaker, and to drive at least one driving motor (121, 122, 123) to move at least the fourth speaker such that the current second listening position is substantially included in a vertical bisector plane of a line connecting a third point sound source of the third speaker along a directivity axis of the third speaker and a fourth point sound source of the fourth speaker along a directivity axis of the fourth speaker.
An air blow-out system for receiving at least one air blast device in order to remove caking and material build-up in a procedural large container, such as silos, reactors, bunkers, furnaces and the like, with at least one blow-out nozzle for the sudden emission of an air stream or any other gas stream, the nozzle being contained in a wall penetration, characterized by a guiding housing which is arranged in the wall penetration, the guiding housing containing the blow-out nozzle so that it can be shifted in a longitudinal direction, with the nozzle being coupled with a push drive, through which the nozzle can be moved into an operating position in which the at least one blow-out opening of the nozzle protrudes into the inside of the container, and can be moved back into a rest position, in which the nozzle is withdrawn towards the inner opening of the wall penetration and wherein the blow-out system further comprises a setting device which is coupled with the push drive the setting device being set up for a rotational setting of the nozzle and through which the blow-out opening of the nozzle can be adjusted into a predefined blow-out direction in a torque-proof manner.