mhurhangee/ep-ind-claims huggingface dataset:
A catheter, comprising: an elongated catheter body comprising a first tubular structure having first central lumen, a distal end and a proximal end; the first tubular structure has a layer of thermoplastic material (20,22), a deflectable section having a second tubular structure having a second central lumen, and a proximal end that is distal of the proximal end of the catheter body; the second tubular structure has a layer of thermoplastic material (24,26); a joint between the distal end of the first tubular structure and the proximal end of the second tubular structure, the joint including a first bracket with two first edges and a second bracket with two second edges; a beam having a generally rectangular cross-section with first and second opposing surfaces, at least a portion of the beam extending through the joint; wherein the two first edges are affixed to the first surface of the flat beam and the two second edges are affixed to the second surface of the beam such that the first and second brackets (66A,66B) form a hollow body surrounding the portion of the flat beam, a distal portion of the hollow body being covered by the layer of thermoplastic material of the second tubular structure (24,26), a proximal portion of the body being covered by the layer of thermoplastic material of the first tubular structure (20,22), characterised in that each bracket has at least one receiving formation; wherein the layers of thermoplastic materials of the first and second tubular structures each has at least one node extending into the receiving formation. an elongated catheter body comprising a first tubular structure having first central lumen, a distal end and a proximal end; the first tubular structure has a layer of thermoplastic material (20,22), a deflectable section having a second tubular structure having a second central lumen, and a proximal end that is distal of the proximal end of the catheter body; the second tubular structure has a layer of thermoplastic material (24,26); a joint between the distal end of the first tubular structure and the proximal end of the second tubular structure, the joint including a first bracket with two first edges and a second bracket with two second edges; a beam having a generally rectangular cross-section with first and second opposing surfaces, at least a portion of the beam extending through the joint; wherein the two first edges are affixed to the first surface of the flat beam and the two second edges are affixed to the second surface of the beam such that the first and second brackets (66A,66B) form a hollow body surrounding the portion of the flat beam, a distal portion of the hollow body being covered by the layer of thermoplastic material of the second tubular structure (24,26), a proximal portion of the body being covered by the layer of thermoplastic material of the first tubular structure (20,22), characterised in that each bracket has at least one receiving formation; wherein the layers of thermoplastic materials of the first and second tubular structures each has at least one node extending into the receiving formation.
A system (200; 300; 400; 500) for a rechargeable battery pack, comprising: one or more lower voltage cells (221, 222, 223; 330, 331, 332) connectable to a charging circuit via a lower voltage terminal (218, 220; 322, 324); one or more higher voltage cells (235; 340) electrically coupled in series to the one or more lower voltage cells; a bi-directional charge regulator (215; 315; 415; 520), wherein the bi-directional charge regulator includes an inductor, a first transistor and a second transistor and wherein one side of the inductor is coupled to the first transistor and the second transistor, the first transistor is coupled to a negative terminal of the one or more lower voltage cells and the second transistor is coupled to the one or more high voltage cells and the second side of the inductor is coupled to the lower voltage terminal; a higher voltage terminal (232, 234; 337, 339) electrically coupled to the one or more higher voltage cells; and a common ground terminal (240; 345) coupled to the one or more lower voltage cells; wherein the one or more higher voltage cells have a higher voltage than the one or more lower voltage cells; the bi-directional charge regulator is configured to discharge the one or more lower voltage cells to the one or more higher voltage cells, or discharge the one of more higher voltage cells to the one or more lower voltage cells. one or more lower voltage cells (221, 222, 223; 330, 331, 332) connectable to a charging circuit via a lower voltage terminal (218, 220; 322, 324); one or more higher voltage cells (235; 340) electrically coupled in series to the one or more lower voltage cells; a bi-directional charge regulator (215; 315; 415; 520), wherein the bi-directional charge regulator includes an inductor, a first transistor and a second transistor and wherein one side of the inductor is coupled to the first transistor and the second transistor, the first transistor is coupled to a negative terminal of the one or more lower voltage cells and the second transistor is coupled to the one or more high voltage cells and the second side of the inductor is coupled to the lower voltage terminal; a higher voltage terminal (232, 234; 337, 339) electrically coupled to the one or more higher voltage cells; and a common ground terminal (240; 345) coupled to the one or more lower voltage cells; wherein the one or more higher voltage cells have a higher voltage than the one or more lower voltage cells; the bi-directional charge regulator is configured to discharge the one or more lower voltage cells to the one or more higher voltage cells, or discharge the one of more higher voltage cells to the one or more lower voltage cells.
A method of producing a chromium-rich coating comprising steps of: a) applying a MCrAlY coating on a substrate using cathodic arc deposition, wherein M is a metal alloy comprising nickel, cobalt, iron, or a combination thereof and the coating comprises between 25 to 50% chromium by weight based on the weight of the MCrAlY; and b) applying a diffused chromide coating atop the MCrAlY coating by pack chromizing, slurry chromizing, vapor diffusion coating, or gas diffusion coating; wherein the diffused chromide coating atop the MCrAlY coating has greater than 50% chromium by weight. a) applying a MCrAlY coating on a substrate using cathodic arc deposition, wherein M is a metal alloy comprising nickel, cobalt, iron, or a combination thereof and the coating comprises between 25 to 50% chromium by weight based on the weight of the MCrAlY; and b) applying a diffused chromide coating atop the MCrAlY coating by pack chromizing, slurry chromizing, vapor diffusion coating, or gas diffusion coating; wherein the diffused chromide coating atop the MCrAlY coating has greater than 50% chromium by weight.
A communication device arranged for transmitting information from a medicament delivery device including at least one physical part such as springs, drivers, rotators, sleeves, rods and indicators providing a translational movement when a change of state occurs in the medicament delivery device, the communication device comprises - at least one change of state detection unit, configured to detect at least one change of state; - at least one activation unit, configured to activate said at least one change of state detection unit and - at least one transmission unit configured to provide a wireless transmission of information related to said at least one change of state to an external receiving device, characterized in that the communication device is integrated in the medicament delivery device and comprises - at least one translation detection arrangement configured to detect a translation movement of at least one physical part of the medicament delivery device by utilization of a resilience and an electrical conductivity for at least one spring (45, 145) of said medicament delivery device, wherein the at least one change of state detection unit is configured to detect at least one change of state for said medicament delivery device based on said detected translation movement of the parts; and wherein the at least one transmission unit configured to provide a wireless transmission of information related to said at least one change of state for the medicament delivery device to an external receiving device. - at least one change of state detection unit, configured to detect at least one change of state; - at least one activation unit, configured to activate said at least one change of state detection unit and - at least one transmission unit configured to provide a wireless transmission of information related to said at least one change of state to an external receiving device, characterized in that the communication device is integrated in the medicament delivery device and comprises - at least one translation detection arrangement configured to detect a translation movement of at least one physical part of the medicament delivery device by utilization of a resilience and an electrical conductivity for at least one spring (45, 145) of said medicament delivery device, wherein the at least one change of state detection unit is configured to detect at least one change of state for said medicament delivery device based on said detected translation movement of the parts; and wherein the at least one transmission unit configured to provide a wireless transmission of information related to said at least one change of state for the medicament delivery device to an external receiving device.
An assembly for rotational equipment, comprising: a plurality of seal shoes arranged circumferentially around an axial centerline in an annular array, the plurality of seal shoes comprising a first seal shoe; a stationary support structure extending circumferentially around the plurality of seal shoes; a plurality of spring elements comprising a first spring element, the first spring element connecting and extending between the first seal shoe and the stationary support structure; and a seal plate configured to seal a gap between the stationary support structure and the plurality of seal shoes, characterised in that the seal plate is configured with an annular seal plate rib (78', 142') configured to axially contact and slide radially along one of the first seal shoe and the stationary support structure. a plurality of seal shoes arranged circumferentially around an axial centerline in an annular array, the plurality of seal shoes comprising a first seal shoe; a stationary support structure extending circumferentially around the plurality of seal shoes; a plurality of spring elements comprising a first spring element, the first spring element connecting and extending between the first seal shoe and the stationary support structure; and a seal plate configured to seal a gap between the stationary support structure and the plurality of seal shoes, characterised in that the seal plate is configured with an annular seal plate rib (78', 142') configured to axially contact and slide radially along one of the first seal shoe and the stationary support structure.
A rotation terminal device for performing charging of portable terminals and data communication, the device comprising: a terminal holder that includes at least one terminal; and a device main body having a front surface side that includes an opening for mounting the terminal holder, wherein the terminal holder is configured to have a decorative surface provided on one side thereof, and a second surface provided opposite to the decorative surface, wherein the terminal is provided on the second surface, the terminal holder is rotatably attached to the device main body by a rotation mechanism, and is configured to be rotatable by substantially 180 degrees between a use state in which the second surface of the terminal holder appears on the front surface side of the device main body and in which the terminal protrudes on the front surface side of the device main body, and a non-use state in which the decorative surface appears on the front surface side to constitute a portion of the device main body characterized in that the device main body includes a supporting body configured to support the portable terminal at a back thereof when the portable terminal is connected to the terminal, and a stopper is provided vertically slidable at the supporting body and is configured to hold the portable terminal at an upper portion thereof. a terminal holder that includes at least one terminal; and a device main body having a front surface side that includes an opening for mounting the terminal holder, wherein the terminal holder is configured to have a decorative surface provided on one side thereof, and a second surface provided opposite to the decorative surface, wherein the terminal is provided on the second surface, the terminal holder is rotatably attached to the device main body by a rotation mechanism, and is configured to be rotatable by substantially 180 degrees between a use state in which the second surface of the terminal holder appears on the front surface side of the device main body and in which the terminal protrudes on the front surface side of the device main body, and a non-use state in which the decorative surface appears on the front surface side to constitute a portion of the device main body characterized in that the device main body includes a supporting body configured to support the portable terminal at a back thereof when the portable terminal is connected to the terminal, and a stopper is provided vertically slidable at the supporting body and is configured to hold the portable terminal at an upper portion thereof.
A virtualized environment allocation system, comprising: a computer system having a plurality of virtualized stacks (S1, S2, S3, S4), the computer system configured to have a plurality of input/output (I/O) devices coupled thereto; and an allocation controller configured to allocate at least one of the plurality of I/O devices to a first of the plurality of virtualized stacks (S1, S2, S3, S4) and at least another of the plurality of I/O devices to a second of the plurality of virtualized stacks (S1, S2, S3, S4), wherein the allocation controller is configured to reallocate the at least one I/O device to another virtualized stack (S1, S2, S3, S4) in response to an event, wherein the event comprises start of running of an applications on the other virtualized stack or connection or disconnection of another I/O device from the computer system. a computer system having a plurality of virtualized stacks (S1, S2, S3, S4), the computer system configured to have a plurality of input/output (I/O) devices coupled thereto; and an allocation controller configured to allocate at least one of the plurality of I/O devices to a first of the plurality of virtualized stacks (S1, S2, S3, S4) and at least another of the plurality of I/O devices to a second of the plurality of virtualized stacks (S1, S2, S3, S4), wherein the allocation controller is configured to reallocate the at least one I/O device to another virtualized stack (S1, S2, S3, S4) in response to an event, wherein the event comprises start of running of an applications on the other virtualized stack or connection or disconnection of another I/O device from the computer system.
A pipeline steel with both HIC resistance and resistance to a large deformation, which is characterized in that the alloy constituents are C: 0.015-0.039%, Si: 0.15-0.35%, Mn: 1.6-1.9%, S: ≤ 0.002%, P: ≤ 0.012%, Al: 0.02-0.045%, Cr: 0.15-0.35%, 0.05 ≤ Nb + V + Ti ≤ 0.1%, Nb, V and Ti are not 0, Ni: 0.15-0.50%, Cu: 0.01-0.25%, Ca: ≤ 0.002%, N: ≤ 0.0046%, Mo: 0.01-0.20%, and the balance is Fe and unavoidable impurity elements; wherein the pipeline steel has a bainite single-phase structure, and the grain size of bainite is grade 11.5 to grade 12; wherein transverse yield strength of the pipeline steel is Rt0.5: 490-550MPa, transverse tensile strength Rm: ≥ 710MPa, transverse yield ratio Rt0.5 / Rm ≤ 0.78, - 20 °C Charpy impact energy ≥ 350J, - 20 °C drop weight shear area SA% ≥ 90%; longitudinal yield strength 460-530MPa; longitudinal tensile strength ≥ 690MPa, longitudinal uniform elongation Uel ≥ 11%, longitudinal yield ratio ≤ 0.77; longitudinal stress ratio Rt1.5/Rt0.5≥1.18, Rt2.0/Rt1.0≥1.1; and the HIC resistance of the pipeline steel: after soaking in a solution according to NACE TM0284-2004 A for 96 hours, the crack length rate % is 0, the crack width rate % is 0, and the crack sensitivity rate % is 0. wherein the pipeline steel has a bainite single-phase structure, and the grain size of bainite is grade 11.5 to grade 12; wherein transverse yield strength of the pipeline steel is Rt0.5: 490-550MPa, transverse tensile strength Rm: ≥ 710MPa, transverse yield ratio Rt0.5 / Rm ≤ 0.78, - 20 °C Charpy impact energy ≥ 350J, - 20 °C drop weight shear area SA% ≥ 90%; longitudinal yield strength 460-530MPa; longitudinal tensile strength ≥ 690MPa, longitudinal uniform elongation Uel ≥ 11%, longitudinal yield ratio ≤ 0.77; longitudinal stress ratio Rt1.5/Rt0.5≥1.18, Rt2.0/Rt1.0≥1.1; and the HIC resistance of the pipeline steel: after soaking in a solution according to NACE TM0284-2004 A for 96 hours, the crack length rate % is 0, the crack width rate % is 0, and the crack sensitivity rate % is 0.
A composition, comprising a multifunctional silica based nanoparticle including a first component and a second component, wherein the multifunctional silica based nanoparticle includes a core and shell, wherein the core includes silica loaded with a first type of said first component, wherein the shell includes a first type of said first component and a second type of said first component, wherein the first component functions as an antibacterial, an antifungal, or a combination thereof, and wherein the second component functions as a repellant for insects.
A yarn texturizing apparatus for texturizing a plurality of yarns, wherein the yarn texturizing apparatus has a yarn path extending between a yarn inlet port and a yarn outlet port, comprising: a tack assembly configured to receive at least one bundle of yarns, wherein each bundle of yarns comprises at least two yarns of the plurality of yarns, wherein the tack assembly is configured to impart at least a first and a second twist (162,164) onto each bundle of yarns, and wherein the tack assembly is further configured to place a first tack point onto each bundle of yarns at a point corresponding to a twist reversal between the first and second twists (162,164); a nip roller located downstream of the tack assembly along the yarn path, wherein the nip roller is configured to pull the at least one bundle of yarns through the tack assembly at a selectively adjustable speed; a jet box assembly positioned downstream of the nip roller relative to the yarn path, wherein the jet box assembly is configured to place a plurality of additional tack points onto each bundle of yarns as the at least one bundle of yarns passes through the jet box assembly, wherein the plurality of additional tack points are placed intermittently along the twists (162,164) of each bundle of yarns; and a pull roller assembly positioned downstream of the jet box assembly along the yarn path, wherein the pull roller assembly is configured to pull the at least one bundle of yarns through the jet box assembly at a selectively adjustable speed. a tack assembly configured to receive at least one bundle of yarns, wherein each bundle of yarns comprises at least two yarns of the plurality of yarns, wherein the tack assembly is configured to impart at least a first and a second twist (162,164) onto each bundle of yarns, and wherein the tack assembly is further configured to place a first tack point onto each bundle of yarns at a point corresponding to a twist reversal between the first and second twists (162,164); a nip roller located downstream of the tack assembly along the yarn path, wherein the nip roller is configured to pull the at least one bundle of yarns through the tack assembly at a selectively adjustable speed; a jet box assembly positioned downstream of the nip roller relative to the yarn path, wherein the jet box assembly is configured to place a plurality of additional tack points onto each bundle of yarns as the at least one bundle of yarns passes through the jet box assembly, wherein the plurality of additional tack points are placed intermittently along the twists (162,164) of each bundle of yarns; and a pull roller assembly positioned downstream of the jet box assembly along the yarn path, wherein the pull roller assembly is configured to pull the at least one bundle of yarns through the jet box assembly at a selectively adjustable speed.
A vaccine composition comprising: (i) an isolated live and attenuated infectious bronchitis virus derived from an IB-QX-like virus, said isolated attenuated virus selected from the strains designated IB QX L1148 MSV65 that was deposited with the European Collection of Cell Cultures (ECACC) under provisional accession No. 09061002, IB QX L1148A MSV80 that was deposited with the ECACC under provisional accession No. 09061004, IB QX L1148A MSV65 x+5 that was deposited with the ECACC under provisional accession No. 09061003, or IB QX L1148A MSV80 x+5 that was deposited with the ECACC under provisional accession No. 09061001; and (ii) a pharmaceutically acceptable carrier.
A non-transitory computer-readable medium for storing computer-executable instructions that are executed by a processor to perform operations comprising: utilizing a reference matrix comprising an initial reference vector to unmix a first region of an image comprising a mixture of signals, and generating an unmixed first region of the image; estimating updated reference spectra for the unmixed first region and generating an updated reference vector for the unmixed first region; and updating the reference matrix with the updated reference vector, wherein the updated reference vector is used in a subsequent unmixing operation. utilizing a reference matrix comprising an initial reference vector to unmix a first region of an image comprising a mixture of signals, and generating an unmixed first region of the image; estimating updated reference spectra for the unmixed first region and generating an updated reference vector for the unmixed first region; and updating the reference matrix with the updated reference vector, wherein the updated reference vector is used in a subsequent unmixing operation.
A connection system for prefabricated elements, for joining two structural elements (10,20) in concrete or equivalent material, comprising an anchoring device in turn comprising at least a first bar with continuous threading configured for being inserted within a first of said two structural elements (10,20), a first embossed nut being associated with a first end of said first bar and a joint nut being associated with a second end of said first bar, the connection system further comprising a second bar with continuous threading, a second embossed nut being associated with a first end of said second bar, said second bar being configured for being inserted within the second of said two structural elements (10,20), characterized in that the connection system further comprises a blind knurled pipe being further configured for being inserted in said second structural element to receive said second bar.
A master model for the production of a mold (65, 71), wherein the mold (65, 71) is for the production of an article of footwear, wherein the master model comprises: (a) a first part, wherein the first part of the master model substantially defines a rim of an entire sole element of the article of footwear; and (b) a second part comprising a textured surface; wherein the first part and the second part are separably connected, and wherein the first part and the second part are produced by additive manufacturing. (a) a first part, wherein the first part of the master model substantially defines a rim of an entire sole element of the article of footwear; and (b) a second part comprising a textured surface; wherein the first part and the second part are separably connected, and wherein the first part and the second part are produced by additive manufacturing.