mhurhangee/ep-ind-claims huggingface dataset:
A connection mechanism for a wellbore transport assembly tool comprising first and second components which can be selectively coupled together, the first component comprising a locking member said locking member comprising first and second elongate rods which are axially aligned and connected together via a spring, said spring being moveable between a rest state wherein the first and second elongate rods are held apart and an energised state in which the spring is compressed and the first and second elongate rods are drawn together, the second component comprising a cam surface for initially moving the spring from the rest state to the energised state as the first and second components are initially brought together and a groove into which the locking member can move to return the spring to the rest state once the first and second components are fully engaged together thereby preventing disengagement of the first and second components.
A method for transmitting data by a first node, AT, in a wireless communication system, the method comprising: transmitting, by the first node, AT, to a base station, AN, first control information during a first physical frame on a reverse link superframe, wherein a reverse link portion after the first physical frame on the reverse link before a following physical frame is a silent period during which all transmission by the first node, AT, is ceased; receiving, by the first node, AT, a forward link signal, FL, from the base station, AN, during a forward link preamble on a forward link superframe; and transmitting, by the first node, AT, to the base station, AN, at least data or second control information during a second physical frame on the reverse link superframe, wherein the forward link preamble is longer than the reverse link portion, wherein the forward link signal, FL, carries forward link data and forward link control information for the first node, AT, wherein the forward link superframe comprises the forward preamble and a plurality of physical frames, wherein the forward link superframe and the reverse link superframe have same duration, and wherein the forward link preamble duration corresponds to a duration of sum of the first physical frame and the reverse link portion. transmitting, by the first node, AT, to a base station, AN, first control information during a first physical frame on a reverse link superframe, wherein a reverse link portion after the first physical frame on the reverse link before a following physical frame is a silent period during which all transmission by the first node, AT, is ceased; receiving, by the first node, AT, a forward link signal, FL, from the base station, AN, during a forward link preamble on a forward link superframe; and transmitting, by the first node, AT, to the base station, AN, at least data or second control information during a second physical frame on the reverse link superframe, wherein the forward link preamble is longer than the reverse link portion, wherein the forward link signal, FL, carries forward link data and forward link control information for the first node, AT, wherein the forward link superframe comprises the forward preamble and a plurality of physical frames, wherein the forward link superframe and the reverse link superframe have same duration, and wherein the forward link preamble duration corresponds to a duration of sum of the first physical frame and the reverse link portion.
A method of data networking, the method comprising: receiving, at an ingress switch and from a host machine executing a plurality of compute instances for a plurality of tenants, a first Layer-2 RDMA packet for a first tenant among the plurality of tenants; converting the first Layer-2 RDMA packet to a first Layer-3 encapsulated packet having at least one header; and forwarding the first Layer-3 encapsulated packet to a switch fabric, wherein the first Layer-2 RDMA packet includes a virtual local area network (VLAN) tag and a quality-of-service (QoS) data field, and wherein the converting includes adding the at least one header to the first Layer-2 RDMA packet, the at least one header including: a virtual network identifier that is based on information from the VLAN tag, and a QoS value that is based on information from the QoS data field. receiving, at an ingress switch and from a host machine executing a plurality of compute instances for a plurality of tenants, a first Layer-2 RDMA packet for a first tenant among the plurality of tenants; converting the first Layer-2 RDMA packet to a first Layer-3 encapsulated packet having at least one header; and forwarding the first Layer-3 encapsulated packet to a switch fabric, wherein the first Layer-2 RDMA packet includes a virtual local area network (VLAN) tag and a quality-of-service (QoS) data field, and wherein the converting includes adding the at least one header to the first Layer-2 RDMA packet, the at least one header including: a virtual network identifier that is based on information from the VLAN tag, and a QoS value that is based on information from the QoS data field. a virtual network identifier that is based on information from the VLAN tag, and a QoS value that is based on information from the QoS data field.
Transverse mode filter in an optical waveguide, wherein the filter comprises a Fabry-Perot cavity, which is integrated in the optical waveguide, having two spaced-apart reflective elements, wherein the reflection spectrum of the reflective elements has a first resonant wavelength at which the reflection becomes maximum for a first mode of the optical waveguide, and has a second resonant wavelength at which the reflection becomes maximum for a second mode of the optical waveguide, wherein the first wavelength differs from the resonant wavelengths (7, 9) of the Fabry-Perot cavity for the first mode, while the second wavelength substantially coincides with a resonant wavelength of the Fabry-Perot cavity for the second mode.
A method for removing a ceramic coating from a substrate, comprising: contacting the ceramic coating with a composition comprising a fluoride source and nitric acid, wherein the ceramic coating comprises aluminum silicide, sodium aluminum silicate, potassium aluminum silicate, sodium potassium aluminum silicate, or combinations thereof.
A camera assembly comprising: a support structure; an image sensor mounted on a carrier and having a light-sensitive region, at least one plain bearing comprising a bearing surface (101, 102) on each of the carrier and the support structure, which bearing surfaces bear on each other so as to suspend the carrier on the support structure and allow movement of the image sensor relative to the support structure in any direction laterally to the light-sensitive region of the image sensor, and in a manner allowing rotation of the image sensor about an axis orthogonal to the light-sensitive region; plural shape memory alloy actuator wires in an arrangement capable, on selective driving thereof, of moving the image sensor relative to the support structure in any direction laterally to the light-sensitive region of the image sensor and of rotating the image sensor about said axis; and a biasing arrangement that biases the bearing surfaces (101, 102) together, the biasing arrangement comprises at least one flexure, the flexure supporting electrical tracks connected to the image sensor. a support structure; an image sensor mounted on a carrier and having a light-sensitive region, at least one plain bearing comprising a bearing surface (101, 102) on each of the carrier and the support structure, which bearing surfaces bear on each other so as to suspend the carrier on the support structure and allow movement of the image sensor relative to the support structure in any direction laterally to the light-sensitive region of the image sensor, and in a manner allowing rotation of the image sensor about an axis orthogonal to the light-sensitive region; plural shape memory alloy actuator wires in an arrangement capable, on selective driving thereof, of moving the image sensor relative to the support structure in any direction laterally to the light-sensitive region of the image sensor and of rotating the image sensor about said axis; and
A crib wall structure comprising: a. a plurality of tiers of stretchers, and headers arranged for containing an in-fill material to form a crib wall; b. the stretchers, comprising elongate members aligned generally along the length of the wall and the headers comprising elongate members aligned generally perpendicular to the stretchers,, the stretchers, and headers being initially separate members connected together to form the crib wall structure; c. the headers being arranged in a plurality of columns spaced apart along the length of the wall, each adjacent pair of columns of headers defining a section of the wall, and each header having a front end at a front face of the wall and an opposite rear end; d. the stretchers, comprising front end stretchers, each front end stretcher spanning lengthways to interconnect front end regions of associated headers in adjacent columns in a tier; each front end stretcher having a generally upwardly directed portion and at least one rearward directed portion, the wall structure further comprising spacer blocks positioned between at least some of the headers, characterised in that an upper surface of each of the spacer blocks is arranged to engage with and support a lower surface of the at least one rearward directed portion of a respective front end stretcher, whereby each of the spacer blocks are arranged to support the respective front end stretcher and sit on a respective header in the tier below. a. a plurality of tiers of stretchers, and headers arranged for containing an in-fill material to form a crib wall; b. the stretchers, comprising elongate members aligned generally along the length of the wall and the headers comprising elongate members aligned generally perpendicular to the stretchers,, the stretchers, and headers being initially separate members connected together to form the crib wall structure; c. the headers being arranged in a plurality of columns spaced apart along the length of the wall, each adjacent pair of columns of headers defining a section of the wall, and each header having a front end at a front face of the wall and an opposite rear end; d. the stretchers, comprising front end stretchers, each front end stretcher spanning lengthways to interconnect front end regions of associated headers in adjacent columns in a tier;
An autoinjector (1, 101, 201, 301, 401, 501, 601), comprising an audible indicator (13, 113, 213, 313, 413, 513, 613), - wherein the audible indicator (13, 113, 213, 313, 413, 513, 613) comprises a resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) configured to reside in two or more states (S1, S2) having two or more different conformations, - wherein in a relaxed state, the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) is relaxed in a first conformation, - wherein in a biased state, the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) is biased to store energy in a second conformation different to the first conformation, and - wherein the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) releases stored energy to generate an audible signal when changing from the biased state into the relaxed state due to a transition from the second conformation to the first conformation, wherein the resilient force member (313.1, 413.1, 513.1) is supported by a retaining element (10, 15.2, 110, 210, 310, 410, 510, 610) in the biased state in order to prevent transition into the relaxed state. - wherein the audible indicator (13, 113, 213, 313, 413, 513, 613) comprises a resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) configured to reside in two or more states (S1, S2) having two or more different conformations, - wherein in a relaxed state, the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) is relaxed in a first conformation, - wherein in a biased state, the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) is biased to store energy in a second conformation different to the first conformation, and - wherein the resilient force member (13.1, 113.1, 213.1, 313.1, 413.1, 513.1, 613.1) releases stored energy to generate an audible signal when changing from the biased state into the relaxed state due to a transition from the second conformation to the first conformation, wherein the resilient force member (313.1, 413.1, 513.1) is supported by a retaining element (10, 15.2, 110, 210, 310, 410, 510, 610) in the biased state in order to prevent transition into the relaxed state.
A frozen confectionery product comprising a core of a frozen confection, which is at least partially coated with a gel coating, characterized in that the gel coating is at least partly coated with a barrier coating of frozen liquid facilitating the peeling of the gel coating, and wherein the liquid for the barrier coating is selected from the group consisting of water, water based coating, oil based coating, oil-in-water emulsion, water-in-oil emulsion, fruit juice, vegetable oil or a combination thereof, and wherein the frozen confectionery product comprises an additional gel coating on top of the gel coating, which additional gel coating at least partly overlaps the other gel coating and, wherein the liquid for the barrier coating has a thickness from 0.01 mm to 0.1 mm and is between the gel coatings, and wherein the gel coatings have a thickness of between 2 and 5 mm.
An additive manufacturing method, comprising: monitoring a heat source scanning across a powder bed using an optical temperature sensor (118, 120, 124); scanning across different portions of the powder bed with the heat source to produce a metal part; recording, with a computer, the intensity and duration of scans made by the heat source; generating, using the computer, a characteristic curve from the optical temperature sensor (118, 120, 124) for one or more regions of the metal part using the recorded scan duration and intensity data; comparing, using the computer, the characteristic curve of each region with a baseline characteristic curve associated with the respective region; and determining via the computer that one of the regions is defective when the comparing shows a difference between the characteristic curve of the region and the baseline characteristic curve that exceeds a predetermined threshold. monitoring a heat source scanning across a powder bed using an optical temperature sensor (118, 120, 124); scanning across different portions of the powder bed with the heat source to produce a metal part; recording, with a computer, the intensity and duration of scans made by the heat source; generating, using the computer, a characteristic curve from the optical temperature sensor (118, 120, 124) for one or more regions of the metal part using the recorded scan duration and intensity data; comparing, using the computer, the characteristic curve of each region with a baseline characteristic curve associated with the respective region; and determining via the computer that one of the regions is defective when the comparing shows a difference between the characteristic curve of the region and the baseline characteristic curve that exceeds a predetermined threshold.
A dental implant abutment assembly for forming an individually customized dental implant abutment according to individual morphology, the abutment assembly including: a. an abutment pivot that provides for coupling with a dental implant anchor along the implant's bore and for defining the core of said dental implant abutment assembly; and b. an interface member having a coupling interface that is complementary to the coupling interface provided on the dental implant anchor, the coupling interface provided for associating with said anchor along opening of said implant's bore; and defining the transgingival portion of said abutment assembly; said interface member having an apical end, an occlusal end and a lumen defined therebetween; i. wherein said apical end having an external surface forming portion that provides for interfacing with said opening; ii. wherein said lumen provides for receiving pivot and interfacing with pivot mounting member about stabilizing portion; and iii. wherein said occlusal end defines an elevated rim extending from said external surface portion characterized in that said interface member is adjustable about said elevated rim to define a flange that supports the margins of a restoration associated thereon. a. an abutment pivot that provides for coupling with a dental implant anchor along the implant's bore and for defining the core of said dental implant abutment assembly; and b. an interface member having a coupling interface that is complementary to the coupling interface provided on the dental implant anchor, the coupling interface provided for associating with said anchor along opening of said implant's bore; and defining the transgingival portion of said abutment assembly; said interface member having an apical end, an occlusal end and a lumen defined therebetween; i. wherein said apical end having an external surface forming portion that provides for interfacing with said opening; ii. wherein said lumen provides for receiving pivot and interfacing with pivot mounting member about stabilizing portion; and iii. wherein said occlusal end defines an elevated rim extending from said external surface portion characterized in that said interface member is adjustable about said elevated rim to define a flange that supports the margins of a restoration associated thereon. i. wherein said apical end having an external surface forming portion that provides for interfacing with said opening; ii. wherein said lumen provides for receiving pivot and interfacing with pivot mounting member about stabilizing portion; and iii. wherein said occlusal end defines an elevated rim extending from said external surface portion characterized in that said interface member is adjustable about said elevated rim to define a flange that supports the margins of a restoration associated thereon.
Liquid composition comprising from 1 to 15 parts by weight of PEBA per 100 parts by weight of solvent, characterized in that: said solvent comprises from 1% to 49% by volume of light C 1 to C 6 alcohol and from 51% to 99% by volume of a cosolvent which is miscible with the alcohol, with respect to the total volume of solvent, the cosolvent is chosen from fatty acids, fatty esters, fatty alcohols, fatty ethers and their mixtures, and the composition is provided in the form of a solution which is clear, exhibiting, at 560 nm, a transmission of greater than 50%, at a temperature of 15 to 25°C. said solvent comprises from 1% to 49% by volume of light C 1 to C 6 alcohol and from 51% to 99% by volume of a cosolvent which is miscible with the alcohol, with respect to the total volume of solvent, the cosolvent is chosen from fatty acids, fatty esters, fatty alcohols, fatty ethers and their mixtures, and the composition is provided in the form of a solution which is clear, exhibiting, at 560 nm, a transmission of greater than 50%, at a temperature of 15 to 25°C.
A fuel composition comprising as an additive one or more quaternary ammonium salts of formula: wherein each of R 1, R 2, R 3 and R 4 is independently selected from an optionally substituted alkyl, alkenyl or aryl group having less than 8 carbon atoms and R 5 is hydrogen or an optionally substituted hydrocarbyl group.
A display (700; 800) comprising a layer of electro-optic material, a first, light-transmissive electrode and a backplane disposed on the opposed side of the layer of electro-optic material from the first electrode, and voltage control means, the display (700; 800) being characterized in that the backplane comprises: a first plurality of conductive lines (710; 810); a layer of insulating material (720; 820) applied over the first plurality of conductive lines (710; 810); a second plurality of conductive lines (740; 840) applied to the opposed side of the layer of insulating material (720; 820) from the first plurality of conductive lines (710; 810), the second plurality of conductive lines (740; 840) being equal in number to the first plurality of conductive lines (710; 810), and each of the second plurality of conductive lines (740; 840) being associated with a different one of the first plurality of conductive lines (710; 810); and a layer of resistive material (760; 860) in electrical contact with the second plurality of conductive lines (740; 840), the layer of insulating material (720; 820) having a plurality of apertures (730; 830) extending therethrough such that each of the first plurality of conductive lines (710; 810) is electrically connected to its associated second conductive line (740; 840) via a different one of the apertures (730; 830), and the voltage control means being arranged to vary the potential differences among the first plurality of conductive lines (710; 810) and between the first electrode and the first plurality of conductive lines (710; 810). a first plurality of conductive lines (710; 810); a layer of insulating material (720; 820) applied over the first plurality of conductive lines (710; 810); a second plurality of conductive lines (740; 840) applied to the opposed side of the layer of insulating material (720; 820) from the first plurality of conductive lines (710; 810), the second plurality of conductive lines (740; 840) being equal in number to the first plurality of conductive lines (710; 810), and each of the second plurality of conductive lines (740; 840) being associated with a different one of the first plurality of conductive lines (710; 810); and a layer of resistive material (760; 860) in electrical contact with the second plurality of conductive lines (740; 840), the layer of insulating material (720; 820) having a plurality of apertures (730; 830) extending therethrough such that each of the first plurality of conductive lines (710; 810) is electrically connected to its associated second conductive line (740; 840) via a different one of the apertures (730; 830), and the voltage control means being arranged to vary the potential differences among the first plurality of conductive lines (710; 810) and between the first electrode and the first plurality of conductive lines (710; 810).
Conveyor train, in particular a tugger train (1a, 1b), comprising a first conveying means, and a second conveying means, which, by means of coupling kinematics, can be interconnected so as to be rotatable about a coupling point, the coupling kinematics having a first belt or cable and a second belt or cable, it being possible to fasten each of the belts (6, 8) or cables (6, 8) to the first and second conveying means (1a, 1b) so as to cross one another in opposite directions, characterized in that the coupling kinematics are designed as a crossed belt joint which has a first coupling segment which is arranged on the first conveying means, and a second coupling segment which is arranged on the second conveying means so as to face the first coupling segment, it being possible to fasten each of the belts (6, 8) or cables (6, 8) to the first and second conveying means (1a, 1b) and for said belts and cables to extend over the coupling elements (4, 5) so as to cross one another in opposite directions such that the coupling elements (4, 5) can roll on one another.