mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising a refrigerant comprising CO 2, hexafluoropropene (FO-1216), and at least one compound A selected from trifluoroethylene (HFO-1123), trans-1,2-difluoroethylene [ -HFO-1132], cis-1,2-difluoroethylene [ -HFO-1132], fluoroethylene (HFO-1141), and 3,3,3-trifluoropropyne.
Method for reloading a single-flute drill, comprising a shaft consisting of a carbide and a drill head connected to this and consisting of a carbide, having the following steps: - detaching a worn drill head from the shaft and - integrally fixing a new drill head to the shaft by soldering or adhesion, characterised in that a soldering/adhesion hinge is inserted in the shaft after detaching the worn drill head from the shaft. - detaching a worn drill head from the shaft and - integrally fixing a new drill head to the shaft by soldering or adhesion,
A surgical instrument, comprising: (a) a body; (b) a shaft in communication with the body; (c) an end effector in communication with the shaft, wherein the end effector is configured to drive serially positioned staples through tissue, wherein the end effector comprises: (i) an anvil comprising an engagement groove, and (ii) a cartridge, wherein the anvil is operable to move relative to the cartridge, wherein the cartridge is positioned to drive staples upwardly toward the anvil, wherein the cartridge comprises a pair of laterally spaced apart bumps positioned at the distal end of the cartridge configured to prevent lateral rocking of the anvil and the cartridge further comprising a protrusion configured to engage the engagement groove, wherein the pair of laterally spaced apart bumps are pointed toward the anvil, and the engagement groove and the pair of laterally spaced apart bumps form a generally triangular shape when the anvil is closed against the cartridge. (a) a body; (b) a shaft in communication with the body; (c) an end effector in communication with the shaft, wherein the end effector is configured to drive serially positioned staples through tissue, wherein the end effector comprises: (i) an anvil comprising an engagement groove, and (ii) a cartridge, wherein the anvil is operable to move relative to the cartridge, wherein the cartridge is positioned to drive staples upwardly toward the anvil, wherein the cartridge comprises a pair of laterally spaced apart bumps positioned at the distal end of the cartridge configured to prevent lateral rocking of the anvil and the cartridge further comprising a protrusion configured to engage the engagement groove, wherein the pair of laterally spaced apart bumps are pointed toward the anvil, and the engagement groove and the pair of laterally spaced apart bumps form a generally triangular shape when the anvil is closed against the cartridge. (i) an anvil comprising an engagement groove, and (ii) a cartridge, wherein the anvil is operable to move relative to the cartridge, wherein the cartridge is positioned to drive staples upwardly toward the anvil, wherein the cartridge comprises a pair of laterally spaced apart bumps positioned at the distal end of the cartridge configured to prevent lateral rocking of the anvil and the cartridge further comprising a protrusion configured to engage the engagement groove, wherein the pair of laterally spaced apart bumps are pointed toward the anvil, and the engagement groove and the pair of laterally spaced apart bumps form a generally triangular shape when the anvil is closed against the cartridge.
Heat exchange module formed by a main heat exchanger and by at least one secondary heat exchanger; the main heat exchanger and the secondary heat exchanger comprising a body (3, 7) provided with fluid-circulation tubes (22, 23) and at least one header box (5, 8) provided with a manifold perforated with holes for receiving the tubes of the body, the module comprising cooling fins, the header box or boxes of the main exchanger comprising at least one projection extending in the direction of the said secondary exchanger or exchangers to cooperate with the header box or boxes (5, 8) of the said secondary exchanger or exchangers so as to structure the said module, characterized in that the said projection extends in the direction of the said secondary exchanger or exchangers likewise to cooperate with the said fins, a seal for the tubes (22, 23) being arranged outside the manifold of the header box.
Rotor for a rotating electric machine, having: - a body, and - at least one slot formed in said body, said slot passing through one face to the other of said body of said rotor, and at least two permanent magnets inserted inside said slot, said permanent magnets being parallelepipedal permanent magnets having two bevelled angles at their inner periphery so as to have a reduced cross section at one of the ends of said permanent magnets that is located on the side of an axis of said rotor, the permanent magnets having a trapezoidal shape, the two permanent magnets having faces that face one another, said faces facing one another are in contact against one another, that is to say that there is no part interposed between these two faces, said faces facing one another are in contact along a plane perpendicular with respect to an axis of said rotor, the body comprises a plurality of slots, the slots each being defined by two adjacent arms emanating from a central core of the rotor, the arms each having a free end, the arms each having, at their free end, two holding lips extending circumferentially on either side of the arms, said holding lips being designed to allow said permanent magnets to be held radially in the slots. - a body, and - at least one slot formed in said body, said slot passing through one face to the other of said body of said rotor, and at least two permanent magnets inserted inside said slot, said permanent magnets being parallelepipedal permanent magnets having two bevelled angles at their inner periphery so as to have a reduced cross section at one of the ends of said permanent magnets that is located on the side of an axis of said rotor, the permanent magnets having a trapezoidal shape, the two permanent magnets having faces that face one another, said faces facing one another are in contact against one another, that is to say that there is no part interposed between these two faces, said faces facing one another are in contact along a plane perpendicular with respect to an axis of said rotor, the body comprises a plurality of slots, the slots each being defined by two adjacent arms emanating from a central core of the rotor, the arms each having a free end, the arms each having, at their free end, two holding lips extending circumferentially on either side of the arms, said holding lips being designed to allow said permanent magnets to be held radially in the slots.
A steering column for a motor vehicle, having an inner casing tube which rotatably mounts a steering shaft, and an outer casing unit which is capable of being connected to the vehicle chassis and in which the inner casing tube is received so as to be displaceable and fixable in the axial direction; having an energy absorption device (16, 17, 21, 22) which is operatively disposed between the casing tube and the casing unit and in which part of the energy arising in the event of a crash is capable of being absorbed when the casing tube is telescopically displaced in relation to the casing unit, characterized in that the energy absorption device (16, 17, 21, 22) comprises at least two deformation strips (16, 17) which are fastened to the casing tube and on which in each case one deformation slide (21, 22) which is connected to the casing unit and which encompasses and jams the external narrow sides of the respective deformation strip (16, 17) is disposed, in that said deformation slide (21, 22) deforms the respective deformation strip (16, 17) when the deformation strips (16, 17) in the crash event is displaced relative to the deformation slides (21, 22) in the axial direction.
A cultivation device, in particular a tomato cultivation device, comprising: - a central plant stake, and - a cover, in particular a transparent cover, having a first low position according to which it surrounds said central plant stake and a second high position according to which said central plant stake is accessible, said cultivation device being characterized in that it comprises a device for supporting said cover, arranged such that said cover remains supported when it is in its second position, and in that said cover comprises multiple concentrically telescoping sections (6, 7, 17) and an upper section having a concave upper surface comprising a drain forming a central attachment point for said stake. - a central plant stake, and - a cover, in particular a transparent cover, having a first low position according to which it surrounds said central plant stake and a second high position according to which said central plant stake is accessible, said cultivation device being characterized in that it comprises a device for supporting said cover, arranged such that said cover remains supported when it is in its second position, and in that said cover comprises multiple concentrically telescoping sections (6, 7, 17) and an upper section having a concave upper surface comprising a drain forming a central attachment point for said stake.
A combination sight comprising a magnifying optical sight and a non-magnifying optical sight arranged in parallel, whereby the non-magnifying optical sight is a red dot sight with unlimited eye relief, said combination sight being characterized in a switchable component (104; 204;506,508)) capable of assuming two states so as to deflect a beam path through the combination sight allowing a user to observe a target either through the non-magnifying optical sight or the magnifying optical sight, wherein the first state allows for a user to observe a target through the non-magnifying sight and the second state allows for a user to observe a target through the magnifying sight, while keeping an aiming eye static.
Front suspension of the telescopic type with anti-dive effect, comprising: - at least one sheath and at least one stem, housed and guided telescopically inside said sheath in a direction of a fork axis (Z-Z), - a foot associated to the sheath or to the stem that rotatably supports a wheel spindle of an associable front wheel defining a rotation axis (X-X), - a braking device for the associable front wheel, having a support rotatably mounted with respect to the wheel spindle so as to be able to oscillate about the rotation axis (X-X), - wherein between the support of the braking device and foot of the suspension are interposed transfer means of the braking force, exerted by the braking device, on an element (32,36) between the sheath and the stem that does not support the foot, - characterized in that said transfer means comprise a cam hinged to the foot in a first hinge point, said cam being connected to said braking device so that the position of said cam, rotating around said first hinge point, varies with respect to said braking device, said cam being mechanically connected to a portion of the suspension integral with the element (32,36) between the sheath and the stem that does not support the foot so as to transfer to said element (32,36), in the direction of the fork axis (Z-Z), a part of the braking force. - at least one sheath and at least one stem, housed and guided telescopically inside said sheath in a direction of a fork axis (Z-Z), - a foot associated to the sheath or to the stem that rotatably supports a wheel spindle of an associable front wheel defining a rotation axis (X-X), - a braking device for the associable front wheel, having a support rotatably mounted with respect to the wheel spindle so as to be able to oscillate about the rotation axis (X-X), - wherein between the support of the braking device and foot of the suspension are interposed transfer means of the braking force, exerted by the braking device, on an element (32,36) between the sheath and the stem that does not support the foot, - characterized in that said transfer means comprise a cam hinged to the foot in a first hinge point, said cam being connected to said braking device so that the position of said cam, rotating around said first hinge point, varies with respect to said braking device, said cam being mechanically connected to a portion of the suspension integral with the element (32,36) between the sheath and the stem that does not support the foot so as to transfer to said element (32,36), in the direction of the fork axis (Z-Z), a part of the braking force.
An impeller for a turbo-machine, the impeller comprising: a metallic base having a central hole, a back surface and a front surface opposite to the back surface; plural blades (1504, 1506) extending on the front surface of the metallic base; a composite shroud attached to the plural blades (1504, 1506) such that plural closed paths are formed by the front surface of the metallic base, the plural blades (1504, 1506) and the composite shroud; and connecting means (1510,1606,1706, 1806, 1906, 2302, 2410, 2608, 2612, 3002, 3010, 3402, 3510) configured to attach the composite shroud to the metallic base or the plural blades (1504, 1506). a metallic base having a central hole, a back surface and a front surface opposite to the back surface; plural blades (1504, 1506) extending on the front surface of the metallic base; a composite shroud attached to the plural blades (1504, 1506) such that plural closed paths are formed by the front surface of the metallic base, the plural blades (1504, 1506) and the composite shroud; and connecting means (1510,1606,1706, 1806, 1906, 2302, 2410, 2608, 2612, 3002, 3010, 3402, 3510) configured to attach the composite shroud to the metallic base or the plural blades (1504, 1506).
An isolation valve comprising: an inlet module comprising: a stem extending from a shuttle and including an internal flowpath extending from a first end of the stem connected to the shuttle to a fluid port through the stem; and a sleeve disposed around the stem and movable relative to the stem; wherein the fluid port is disposed within the sleeve with the inlet module in an isolated state and the fluid port is disposed outside of the sleeve with the inlet module in a connected state; and an outlet module having a piston at least partially disposed within a piston bore through the outlet module; and an actuating module configured to actuate the isolation valve between the isolated state, where the inlet module is spaced from the outlet module such that a gap is disposed between the inlet module and the outlet module, and the connected state, where the inlet module is mechanically and fluidly connected to the outlet module. an inlet module comprising: a stem extending from a shuttle and including an internal flowpath extending from a first end of the stem connected to the shuttle to a fluid port through the stem; and a sleeve disposed around the stem and movable relative to the stem; wherein the fluid port is disposed within the sleeve with the inlet module in an isolated state and the fluid port is disposed outside of the sleeve with the inlet module in a connected state; and a stem extending from a shuttle and including an internal flowpath extending from a first end of the stem connected to the shuttle to a fluid port through the stem; and a sleeve disposed around the stem and movable relative to the stem; wherein the fluid port is disposed within the sleeve with the inlet module in an isolated state and the fluid port is disposed outside of the sleeve with the inlet module in a connected state; and an outlet module having a piston at least partially disposed within a piston bore through the outlet module; and an actuating module configured to actuate the isolation valve between the isolated state, where the inlet module is spaced from the outlet module such that a gap is disposed between the inlet module and the outlet module, and the connected state, where the inlet module is mechanically and fluidly connected to the outlet module.
A toothbrush comprising a handle, a head secured to one end of said handle, said head having a front face, at least one carrier member having outwardly extending cleaning elements, and a drive structure mounting said carrier member to said front face for moving said carrier member and said cleaning elements, said drive structure being engaged with a first shaft to rotate said first shaft, characterized in that said at least one said carrier member is mounted to a support member, said support member being eccentrically mounted to the first shaft, a second shaft mounted to said support member offset from said first shaft, and said carrier member being mounted to said second shaft to freely rotate about said second shaft, said carrier member rotationally moving in an orbital path about said first shaft when said first shaft is rotated whereby the toothbrush is an orbital toothbrush.
A fuel management system comprising: a fuel source; a pump in communication with the fuel source; a metering valve in communication with the pump; a shut-off valve in communication with the metering valve through a second opening of the shut off valve; a fuel nozzle in communication with and downstream from the shut-off valve; a bypass valve in communication with the pump and a first opening of the shut-off valve, the bypass valve comprising: a first chamber; a second chamber; a piston disposed between the first chamber and the second chamber and having a first end and a second end and movable between a first position, a second position, and a third position; a first opening in communication with the metering valve and the first chamber; a second opening in communication with the shut-off valve and the first chamber; a third opening in communication with the pump and the first chamber; and a fourth opening in communication with the second chamber; and a solenoid valve in communication with the fourth opening and the metering valve; wherein the solenoid valve is configured to selectively deliver a flow of fuel at a first or third pressure to the fourth opening of the bypass valve; and wherein the metering valve is configured to deliver a flow of fuel at a second pressure to the first opening of the bypass valve. a fuel source; a pump in communication with the fuel source; a metering valve in communication with the pump; a shut-off valve in communication with the metering valve through a second opening of the shut off valve; a fuel nozzle in communication with and downstream from the shut-off valve; a bypass valve in communication with the pump and a first opening of the shut-off valve, the bypass valve comprising: a first chamber; a second chamber; a piston disposed between the first chamber and the second chamber and having a first end and a second end and movable between a first position, a second position, and a third position; a first opening in communication with the metering valve and the first chamber; a second opening in communication with the shut-off valve and the first chamber; a third opening in communication with the pump and the first chamber; and a fourth opening in communication with the second chamber; and a first chamber; a second chamber; a piston disposed between the first chamber and the second chamber and having a first end and a second end and movable between a first position, a second position, and a third position; a first opening in communication with the metering valve and the first chamber; a second opening in communication with the shut-off valve and the first chamber; a third opening in communication with the pump and the first chamber; and a fourth opening in communication with the second chamber; and a solenoid valve in communication with the fourth opening and the metering valve; wherein the solenoid valve is configured to selectively deliver a flow of fuel at a first or third pressure to the fourth opening of the bypass valve; and wherein the metering valve is configured to deliver a flow of fuel at a second pressure to the first opening of the bypass valve.
A method of generating a general mixture model of a dataset stored in a non-transitory medium comprising the steps of: providing subset criteria for defining subsets of the dataset, the subset criteria comprising one or more elements of one or more dimensions of the dataset; filtering through the dataset on a processor, by use of the subset criteria; partitioning in the processor the dataset into subsets (180, 190) based on the subset criteria, wherein the number of subsets (180, 190) is equivalent to the number of elements in the subset criteria; assigning an identifier to each subset (180, 190); generating a subset mixture model for each subset (180, 190), each subset mixture model comprising one or more components (G 1, G 2, G 3; G 4, G 5), each component of a subset mixture model of a subset (180, 190) being representative of a cluster of data elements within that subset (180, 190); and if there are at least two subsets, filtering the components (G 1, G 2, G 3; G 4, G 5) to remove one or more of the components (G 1, G 2, G 3; G 4, G 5) and subsequently combining the subset mixture models for each of the at least two subsets (180, 190) into the general mixture model, wherein the combining step comprises concatenating the subset mixture models; and if there is not at least two subsets (180, 190), designating the subset mixture model as the general mixture model. providing subset criteria for defining subsets of the dataset, the subset criteria comprising one or more elements of one or more dimensions of the dataset; filtering through the dataset on a processor, by use of the subset criteria; partitioning in the processor the dataset into subsets (180, 190) based on the subset criteria, wherein the number of subsets (180, 190) is equivalent to the number of elements in the subset criteria; assigning an identifier to each subset (180, 190); generating a subset mixture model for each subset (180, 190), each subset mixture model comprising one or more components (G 1, G 2, G 3; G 4, G 5), each component of a subset mixture model of a subset (180, 190) being representative of a cluster of data elements within that subset (180, 190); and if there are at least two subsets, filtering the components (G 1, G 2, G 3; G 4, G 5) to remove one or more of the components (G 1, G 2, G 3; G 4, G 5) and subsequently combining the subset mixture models for each of the at least two subsets (180, 190) into the general mixture model, wherein the combining step comprises concatenating the subset mixture models; and if there is not at least two subsets (180, 190), designating the subset mixture model as the general mixture model.
A method for manufacturing a three-dimensional object with an additive manufacturing system, comprising extruding a part material to print layers of the 3D object, wherein the part material comprises: - from 50 to 99 wt. % of a polymeric material comprising at least one poly(aryl ether ketone) polymer (PAEK), and optionally at least one poly(biphenyl ether sulfone) polymer (PPSU) and/or at least one poly(ether imide) polymer, - at least one nitride, preferably a boron nitride; wherein the part material comprises at least 1 wt.% and less than 10 wt.% of at least one nitride, these proportions in wt.% being based on the total weight of the part material. wherein the part material comprises: - from 50 to 99 wt. % of a polymeric material comprising at least one poly(aryl ether ketone) polymer (PAEK), and optionally at least one poly(biphenyl ether sulfone) polymer (PPSU) and/or at least one poly(ether imide) polymer, - at least one nitride, preferably a boron nitride; - from 50 to 99 wt. % of a polymeric material comprising at least one poly(aryl ether ketone) polymer (PAEK), and optionally at least one poly(biphenyl ether sulfone) polymer (PPSU) and/or at least one poly(ether imide) polymer, - at least one nitride, preferably a boron nitride; wherein the part material comprises at least 1 wt.% and less than 10 wt.% of at least one nitride, these proportions in wt.% being based on the total weight of the part material.