mhurhangee/patent-ind-claim-en huggingface dataset:
A wrought material made of a Cu-Al-Mn-based alloy, wherein the wrought material has an alloy composition consisting of: 5 to 10 mass% of Al; 5 to 20 mass% of Mn; optionally 2 mass% or less of Ni; and optionally 0.001 to 10 mass% in total of at least one element selected from the group consisting of Co, Fe, Ti, V, Cr, Si, Nb, Mo, W, Sn, Mg, P, Be, Sb, Cd, As, Zr, Zn, and Ag, in which the at least one element selected from the group consists of: Co 0.001 to 2 mass%, Fe 0.001 to 3 mass%, Sn 0.001 to 1 mass%, Ti 0.001 to 2 mass%, V, Nb, Mo and Zr respectively 0.001 to 1 mass%, Cr 0.001 to 2 mass%, Si 0.001 to 2 mass%, W 0.001 to 1 mass%, Mg 0.001 to 0.5 mass%, P 0.01 to 0.5 mass%, Be, Sb, Cd and As respectively 0.001 to 1 mass%, Zn 0.001 to 5 mass%, and Ag 0.001 to 2 mass%, with the balance being Cu and unavoidable impurities, which is excellent in stress corrosion resistance, and which is excellent in superelastic characteristics, the residual strain after 6% strain loading is 1.0% or less, in which an existence frequency of a coincidence grain boundary with a Σ value of 3 or less is 35% or more but 75% or less, and which has a recrystallized microstructure in which a proportion occupied by a β phase in the recrystallized microstructure is 98% or more; wherein the state of the coincidence grain boundary is determined, by measuring and analyzing the crystalline orientation distribution (grain boundary map) of a copper alloy using an EBSD (electron back-scattering diffraction pattern) analyzer.
An applicator for applying a product to head hair, said applicator comprising a neck portion and a flexible/elastic spatula , said neck portion comprising inner threads and an upper end and said spatula comprising a free end at a distal end from said neck portion , said free end comprising an edge extending in a substantially orthogonal direction to the extension of the spatula , said spatula mainly forming a flat shaped body portion , between said neck portion and said flat shaped body portion the applicator comprises a bridging portion , said bridging portion comprising a bottom extending in a substantially transversal direction to the neck portion , said substantially flat shaped body portion extending in a substantially orthogonal direction from said bottom , characterized in that said edge having at least three dispensing openings , said at least three dispensing openings communicating through at least three internal channels that extend through the substantially flat shaped body portion with at least three inlet openings arranged at the lower side of the bottom in the interior of the neck portion , and wherein the at least three internal channels are conical with the wide ends arranged at said inlet openings and the narrow ends of the internal channels arranged at said dispensing openings and there is one internal channel per each dispensing opening .
A suturing device, comprising: a handle ; an elongated body coupled to a distal end of the handle; at least one suture snag that is moveable between a deployed position in which two distal arm portions thereof radially extend away from the elongated body and a retracted position in which the two distal arm portions are disposed within the elongated body, wherein the at least one suture snag is moved between the deployed position and the retracted position via a first actuation mechanism of the handle; and at least one pair of needles moveable to a deployed position in which the at least one pair of needles distally extend from the distal end of the elongated body and a retracted position in which the at least one pair of needles is disposed within the elongated body, each needle including a distal end configured to penetrate through a vessel wall and defining a lumen sized to slidingly receive a suture therethrough, wherein the at least one pair of needles is movable to the deployed position and the retracted position via a second actuation mechanism of the handle, characterised in that the needles remain parallel to the longitudinal axis of the elongated body in the retracted and in the deployed position. a handle ; an elongated body coupled to a distal end of the handle; at least one suture snag that is moveable between a deployed position in which two distal arm portions thereof radially extend away from the elongated body and a retracted position in which the two distal arm portions are disposed within the elongated body, wherein the at least one suture snag is moved between the deployed position and the retracted position via a first actuation mechanism of the handle; and at least one pair of needles moveable to a deployed position in which the at least one pair of needles distally extend from the distal end of the elongated body and a retracted position in which the at least one pair of needles is disposed within the elongated body, each needle including a distal end configured to penetrate through a vessel wall and defining a lumen sized to slidingly receive a suture therethrough, wherein the at least one pair of needles is movable to the deployed position and the retracted position via a second actuation mechanism of the handle, characterised in that the needles remain parallel to the longitudinal axis of the elongated body in the retracted and in the deployed position.
A sealing structure comprising a shaft and a housing that rotate relatively; and a sealing device attached to an annular groove provided on an outer circumference of the shaft , the sealing device being configured to seal an annular gap between the shaft and the housing and to maintain a fluid pressure of a sealing target region configured such that the fluid pressure varies, wherein the sealing device includes a first sealing ring having an endless shape and a second sealing ring characterized in that the first sealing ring is made of a resin, the first sealing ring being closely attached to a sidewall surface on a high-pressure side (H) and a groove bottom surface of the annular groove, the first sealing ring being configured to slide with respect to an inner circumferential surface of a shaft hole of the housing through which the shaft is inserted, and that a second sealing ring is made of a rubbery elastic body, the second sealing ring being closely attached to a sidewall surface on a low-pressure side (L) and the groove bottom surface of the annular groove, as well as to the first sealing ring , the first sealing ring includes a first annular portion that extends to a radially inner side and to a high-pressure side (H) from a radially widthwise middle, and a second annular portion that extends to a radially outer side and to the high-pressure side (H) from the radially widthwise middle, and a first end portion of the first annular portion situated at the radially inner side and a low-pressure side (L) is closely attached to the groove bottom surface of the annular groove , a second end portion of the first annular portion situated at the radially inner side and the high-pressure side (H) is closely attached to the sidewall surface on the high-pressure side (H) of the annular groove , and a third end portion of the second annular portion situated at the radially outer side and the low-pressure side (L) is configured to slide with respect to the inner circumferential surface of the shaft hole, and the second sealing ring is arranged to press the first annular portion toward the high-pressure side (H) and toward the radially outer side.
A smearing device for smearing the heels of whole cheeses , with at least two rotary disks that are arranged at distances along an arrangement axis (A) and are rotatable about rotary disk axes and with at least two edge brushes , each of which is assigned to a rotary disk and its rotary disk axis and which are adjustably connected to a support apparatus and can be applied to the heels of the whole cheeses arranged on the rotary disks , characterized in that each of the edge brushes are movable together toward and away from the assigned rotary disk axis within movement ranges (B) along movement lines , wherein the movement lines extend from the relevant rotary axis at an angle of 67.5° to the arrangement axis (A).
A handoff mechanism for use with a media stacker of a media production apparatus, the handoff mechanism comprising: a plurality of kicker units , arranged across a width of the handoff mechanism and, in use of the mechanism, are arranged to push together a trailing edge of a media sheet that is being expelled onto a stacker tray ; a common drive mechanism to move the plurality of kicker units between a closed position and an open position; whereby each kicker unit , when in the closed position during use, applies a pressure to any media sheets that are already stacked in the stacker tray while a new media sheet is being fed to the stacker tray, characterized in that the pressure provided by each kicker unit is independent of the pressure provided by the other kicker units ; wherein each kicker unit is a finger comprising: a drive component coupled to the common drive mechanism , to move the kicker unit between the closed position and the open position; a contact component which, in use, applies pressure to any media sheets already stacked in a stacker tray, wherein the contact component is moveable relative to the drive component ; and a first biasing element coupled between the drive component and the contact component , to control movement of the contact component relative to the drive component . a plurality of kicker units , arranged across a width of the handoff mechanism and, in use of the mechanism, are arranged to push together a trailing edge of a media sheet that is being expelled onto a stacker tray ; a common drive mechanism to move the plurality of kicker units between a closed position and an open position; whereby each kicker unit , when in the closed position during use, applies a pressure to any media sheets that are already stacked in the stacker tray while a new media sheet is being fed to the stacker tray, characterized in that the pressure provided by each kicker unit is independent of the pressure provided by the other kicker units ; wherein each kicker unit is a finger comprising: a drive component coupled to the common drive mechanism , to move the kicker unit between the closed position and the open position; a contact component which, in use, applies pressure to any media sheets already stacked in a stacker tray, wherein the contact component is moveable relative to the drive component ; and a first biasing element coupled between the drive component and the contact component , to control movement of the contact component relative to the drive component . a drive component coupled to the common drive mechanism , to move the kicker unit between the closed position and the open position; a contact component which, in use, applies pressure to any media sheets already stacked in a stacker tray, wherein the contact component is moveable relative to the drive component ; and a first biasing element coupled between the drive component and the contact component , to control movement of the contact component relative to the drive component .
A non-perforated reinforced stretch film comprising: a base film which has a thickness in the range of 3μm to 18μm, and 5 to 100 reinforcing strips fixed on at least one surface of said base film, wherein the width of each reinforcing strip is, independently, in the range of 1mm to 17mm.
A computer system , comprising: a processor coupled to a memory hierarchy via a memory controller ; wherein the memory hierarchy includes a first memory region comprising random access memory and an auxiliary memory region comprising flash memory, wherein the first memory region and the auxiliary memory region are interconnected through a cache buffer; wherein the memory controller is coupled to the auxiliary memory region via a flash controller ; wherein the processor is configured to send a request to the memory controller to access a particular page in the first memory region; wherein in response to detecting a page fault corresponding to the request, the processor is configured to swap a page from the auxiliary memory region to the first memory region; wherein a command sequencer within the processor executes a sequence of micro commands stored in the first memory region to move data between the auxiliary memory region and the first memory region; wherein to move data from the first memory region to the auxiliary memory region, the processor is configured to: read the data from the first memory region to the cache buffer; and write the data from the cache buffer to the auxiliary memory region; and wherein to move data from the auxiliary memory region to the first memory region, the processor is configured to: read the data from the auxiliary memory region to the cache buffer; and write the data from the cache buffer to the first memory region. a processor coupled to a memory hierarchy via a memory controller ; wherein the memory hierarchy includes a first memory region comprising random access memory and an auxiliary memory region comprising flash memory, wherein the first memory region and the auxiliary memory region are interconnected through a cache buffer; wherein the memory controller is coupled to the auxiliary memory region via a flash controller ; wherein the processor is configured to send a request to the memory controller to access a particular page in the first memory region; wherein in response to detecting a page fault corresponding to the request, the processor is configured to swap a page from the auxiliary memory region to the first memory region; wherein a command sequencer within the processor executes a sequence of micro commands stored in the first memory region to move data between the auxiliary memory region and the first memory region; wherein to move data from the first memory region to the auxiliary memory region, the processor is configured to: read the data from the first memory region to the cache buffer; and write the data from the cache buffer to the auxiliary memory region; and read the data from the first memory region to the cache buffer; and write the data from the cache buffer to the auxiliary memory region; and wherein to move data from the auxiliary memory region to the first memory region, the processor is configured to: read the data from the auxiliary memory region to the cache buffer; and write the data from the cache buffer to the first memory region. read the data from the auxiliary memory region to the cache buffer; and write the data from the cache buffer to the first memory region.
A method of preparing (R,S)-nicotine, comprising: reacting a nicotinate ester with N-vinyl-2-pyrrolidinone in the presence of a base and a solvent to form a first mixture; combining the first mixture with an acid to form a second mixture comprising an aqueous layer; separating the aqueous layer from the second mixture; combining the separated aqueous layer with an acid to form a third mixture; combining the third mixture with a base to form a fourth mixture comprising myosmine; reducing the myosmine to nornicotine using a reducing agent; and methylating the nornicotine to yield R,S-nicotine. reacting a nicotinate ester with N-vinyl-2-pyrrolidinone in the presence of a base and a solvent to form a first mixture; combining the first mixture with an acid to form a second mixture comprising an aqueous layer; separating the aqueous layer from the second mixture; combining the separated aqueous layer with an acid to form a third mixture; combining the third mixture with a base to form a fourth mixture comprising myosmine; reducing the myosmine to nornicotine using a reducing agent; and methylating the nornicotine to yield R,S-nicotine.
A prepreg comprising: a reinforcing fiber substrate composed of a reinforcing fiber; and an epoxy resin composition with which the reinforcing fiber substrate is partially or wholly impregnated, wherein the epoxy resin composition includes an epoxy resin, an amine-based curing agent, a polyamide particle, and an epoxy resin-soluble thermoplastic resin, at least one of the epoxy resin, the amine-based curing agent, and the epoxy resin-soluble thermoplastic resin partially permeates into the polyamide particle; wherein a crystallinity of the polyamide particle measured by a wide-angle X-ray diffraction method is less than 43%; and wherein an integration value of E/A expressed by Formula is 0.3 or less in a central portion of the polyamide particles; E/A = [A1300cm -1 in a central portion] / [A3300cm -1 in a central portion] - [A1300cm -1 in single polyamide particle] / [A3300cm -1 in single polyamide particle] wherein A1300cm -1 is the maximum height of peaks observed in 1300 ± 50 cm -1 with wavenumber range from 2150 to 1950 cm -1 as baseline; wherein A3300cm -1 is the maximum height of peaks observed in 3300 ± 50 cm -1 with wavenumber range from 3480 to 3150 cm -1 as baseline; wherein the integration value of E/A is determined according to the method described in the description. a reinforcing fiber substrate composed of a reinforcing fiber; and an epoxy resin composition with which the reinforcing fiber substrate is partially or wholly impregnated, wherein the epoxy resin composition includes an epoxy resin, an amine-based curing agent, a polyamide particle, and an epoxy resin-soluble thermoplastic resin, at least one of the epoxy resin, the amine-based curing agent, and the epoxy resin-soluble thermoplastic resin partially permeates into the polyamide particle; wherein a crystallinity of the polyamide particle measured by a wide-angle X-ray diffraction method is less than 43%; and wherein an integration value of E/A expressed by Formula is 0.3 or less in a central portion of the polyamide particles; E/A = [A1300cm -1 in a central portion] / [A3300cm -1 in a central portion] - [A1300cm -1 in single polyamide particle] / [A3300cm -1 in single polyamide particle] wherein A1300cm -1 is the maximum height of peaks observed in 1300 ± 50 cm -1 with wavenumber range from 2150 to 1950 cm -1 as baseline; wherein A3300cm -1 is the maximum height of peaks observed in 3300 ± 50 cm -1 with wavenumber range from 3480 to 3150 cm -1 as baseline; wherein the integration value of E/A is determined according to the method described in the description.
A thermal interface material comprising: 1 wt.% to 16 wt.% of at least one polymer matrix material; 0.5 wt.% to 8 wt.% of at least one phase change material; 0.1 wt. % to 1 wt.% of at least one amine or amine-based crosslinker; and at least one thermally conductive filler including a first plurality of particles, wherein the first plurality of particles comprises particles of zinc oxide having a diameter of about 0.1 microns to about 1 micron; wherein the at least one thermally conductive filler comprises a second plurality of particles, wherein the second plurality of particles comprises particles of aluminum having a particle diameter of about 2 microns to about 15 microns; wherein the at least one thermally conductive filler comprises at 80 wt.% of the total weight of the thermal interface material. 1 wt.% to 16 wt.% of at least one polymer matrix material; 0.5 wt.% to 8 wt.% of at least one phase change material; 0.1 wt. % to 1 wt.% of at least one amine or amine-based crosslinker; and at least one thermally conductive filler including a first plurality of particles, wherein the first plurality of particles comprises particles of zinc oxide having a diameter of about 0.1 microns to about 1 micron; wherein the at least one thermally conductive filler comprises a second plurality of particles, wherein the second plurality of particles comprises particles of aluminum having a particle diameter of about 2 microns to about 15 microns; wherein the at least one thermally conductive filler comprises at 80 wt.% of the total weight of the thermal interface material.
Composite glass unit comprising at least a first glass sheet and a second glass sheet as well as a third glass sheet arranged between the first glass sheet and the second glass sheet , the third glass sheet having at least one cutout for receiving a connecting element , a first bonding layer arranged between the first glass sheet and the third glass sheet for connecting the first glass sheet to the third glass sheet , and a second bonding layer arranged between the second glass sheet and the third glass sheet for connecting the second glass sheet to the third glass sheet , as well as a connecting element , which is introduced into the at least one cutout in the third glass sheet , wherein a first surface of the connecting element facing the first glass sheet is connected to the first glass sheet via the first bonding layer and/or a second surface of the connecting element facing the second glass sheet is connected to the second glass sheet via the second bonding layer , characterized in that between the or each end surface of the connecting element facing in the direction of the third glass sheet and the third glass sheet a separating layer is inserted, which is different from the bonding layers and does not rigidly connecting the connecting element and the third glass sheet , the Shore-A-hardness of the separating layer being significantly below the Shore-A-hardness of the bonding layer and/or the adhesion between the separating layer and the connecting element and/or the adhesion between the separating layer and the glass sheets being significantly lower than the adhesion of the connecting layers and the connecting element or the adhesion of the bonding layers and the glass sheets .
A directional core drill assembly comprising; • a rotatable shaft running thought a non-rotating outer body , the shaft being connected to a drill string at the rear end, and a drill bit at the other end thereof, • the non-rotating outer body that houses a packer assembly and a shaft deflection mechanism comprising an eccentric bearing or stabiliser , a front bearing and a rear bearing , • the non-rotating outer body further comprise an axial trust bearing engaging at one side of the non-rotating body , and at the other side the drill string or a coupling thereof to enable drill string to push the non-rotating outer body downwards while drilling, • an arrangement to engage- and disengage the rotating shaft to/from the outer body to enable adjustment of the rotational position of the outer body and thus also the eccentric bearing , • a core assembly arranged inside the shaft, comprising a core tube and a releasable locking mechanism, said core tube assembly thus can be retrieved to surface by a wire line operated retrieving tool , • an electronic orientation unit attached to the core tube assembly to measure the rotational position of the eccentric bearing in order to monitor the toolface angle of the drill bit , wherein, the core tube assembly includes an adjustable control valve that pressurizes the drill fluid when said drill fluid is being pumped thru the valve, wherein the pressurized drill fluid communicates with the packer assembly. • a rotatable shaft running thought a non-rotating outer body , the shaft being connected to a drill string at the rear end, and a drill bit at the other end thereof, • the non-rotating outer body that houses a packer assembly and a shaft deflection mechanism comprising an eccentric bearing or stabiliser , a front bearing and a rear bearing , • the non-rotating outer body further comprise an axial trust bearing engaging at one side of the non-rotating body , and at the other side the drill string or a coupling thereof to enable drill string to push the non-rotating outer body downwards while drilling, • an arrangement to engage- and disengage the rotating shaft to/from the outer body to enable adjustment of the rotational position of the outer body and thus also the eccentric bearing , • a core assembly arranged inside the shaft, comprising a core tube and a releasable locking mechanism, said core tube assembly thus can be retrieved to surface by a wire line operated retrieving tool , • an electronic orientation unit attached to the core tube assembly to measure the rotational position of the eccentric bearing in order to monitor the toolface angle of the drill bit ,