mhurhangee/ep-ind-claims huggingface dataset:
A downhole wet-connector and debris exclusion system for a signal capable connection comprising: a relatively stationary component; a relatively mobile component operably engageable with the relatively stationary component; at least one signal capable connector disposed behind a moveable debris exclusion member in a protected condition within the relatively mobile component; at least one complementary signal capable connector (90 in a protected condition within the relatively stationary component, and a debris exclusion member (80, 82) that is movable helically relative to the relatively stationary component, the moveable debris exclusion member (80, 82) being openable to expose the at least one connector to enable signal capable connection between the at least one signal capable connector and the at least one complementary signal capable connector, the helical movement occurring upon axial motion of the relatively stationary component and the relatively mobile component into contact with one another. a relatively stationary component; a relatively mobile component operably engageable with the relatively stationary component; at least one signal capable connector disposed behind a moveable debris exclusion member in a protected condition within the relatively mobile component; at least one complementary signal capable connector (90 in a protected condition within the relatively stationary component, and a debris exclusion member (80, 82) that is movable helically relative to the relatively stationary component, the moveable debris exclusion member (80, 82) being openable to expose the at least one connector to enable signal capable connection between the at least one signal capable connector and the at least one complementary signal capable connector, the helical movement occurring upon axial motion of the relatively stationary component and the relatively mobile component into contact with one another.
A computer-implemented method for reconstructing a dataset after detection of a network security threat in a financial network, wherein the network security threat is the unauthorised modification of routing information within the financial network, the method comprising: determining a maximum flow for returning data associated with the network security threat to a source dataset via each of a plurality of paths through which the data has passed from the source dataset to a destination dataset; starting from the destination dataset, determining the data to be transferred to each dataset in the plurality of paths between the destination dataset and the source dataset such that the data can be returned to the source dataset, the data transferred in each path not exceeding the determined maximum flow for the path; adding the details of the determined amount of data to be transferred to a forensic report; and outputting the forensic report. determining a maximum flow for returning data associated with the network security threat to a source dataset via each of a plurality of paths through which the data has passed from the source dataset to a destination dataset; starting from the destination dataset, determining the data to be transferred to each dataset in the plurality of paths between the destination dataset and the source dataset such that the data can be returned to the source dataset, the data transferred in each path not exceeding the determined maximum flow for the path; adding the details of the determined amount of data to be transferred to a forensic report; and outputting the forensic report.
A system comprising: a sheath of a medical device, the sheath including a working lumen, a delivery lumen, and a removal lumen; a filtration device; a delivery module coupled to a fluid reservoir and the delivery lumen; and a removal module coupled to the removal lumen and the filtration device, wherein the fluid reservoir is coupled to the filtration device so as to define at least one circulation loop when the sheath is placed in a body cavity, further comprising a valve coupled to the fluid reservoir, the delivery module, and the filtration device, wherein the valve is operable to form a second circulation loop to direct at least a portion of fluid from the fluid reservoir and back into the filtration device for one or more passes therethrough. a sheath of a medical device, the sheath including a working lumen, a delivery lumen, and a removal lumen; a filtration device; a delivery module coupled to a fluid reservoir and the delivery lumen; and a removal module coupled to the removal lumen and the filtration device, wherein the fluid reservoir is coupled to the filtration device so as to define at least one circulation loop when the sheath is placed in a body cavity, further comprising a valve coupled to the fluid reservoir, the delivery module, and the filtration device, wherein the valve is operable to form a second circulation loop to direct at least a portion of fluid from the fluid reservoir and back into the filtration device for one or more passes therethrough.
A blood coagulation promoter comprising: at least one substance selected from the group consisting of adsorptive inorganic substances and hydrolases capable of hydrolyzing a bond between Arg and an arbitrary amino acid residue and/or a bond between Lys and an arbitrary amino acid residue in a peptide chain; and polyvinylpyrrolidone, characterized in that the blood coagulation promoter further comprises a hardly water soluble butanol derivative of polyoxyalkylene or glycerin derivative of polyoxyalkylene. at least one substance selected from the group consisting of adsorptive inorganic substances and hydrolases capable of hydrolyzing a bond between Arg and an arbitrary amino acid residue and/or a bond between Lys and an arbitrary amino acid residue in a peptide chain; and polyvinylpyrrolidone, characterized in that the blood coagulation promoter further comprises a hardly water soluble butanol derivative of polyoxyalkylene or glycerin derivative of polyoxyalkylene.
A method of detecting a transmit characteristic in a wireless power transmission device comprising a series element electrically coupled to a transmit coil, comprising: respectively receiving first and second signals from first and second terminals of the series element; determining real and imaginary components of a first voltage at the first terminal of the series element based at least in part on multiplying by a first mixer the first signal by a first inphase and quadrature clock signal; determining real and imaginary components of a second voltage at the second terminal of the series element based at least in part on multiplying by a second mixer the second signal by a second inphase and quadrature clock signal; determining real and imaginary components of a current through the series element, based on the first and second voltages; determining a transmit characteristic based on the real and imaginary components of the first and second voltages and the real and imaginary components of the current; and adjusting a characteristic of a wireless power transmission based on the calculated transmit characteristic. respectively receiving first and second signals from first and second terminals of the series element; determining real and imaginary components of a first voltage at the first terminal of the series element based at least in part on multiplying by a first mixer the first signal by a first inphase and quadrature clock signal; determining real and imaginary components of a second voltage at the second terminal of the series element based at least in part on multiplying by a second mixer the second signal by a second inphase and quadrature clock signal; determining real and imaginary components of a current through the series element, based on the first and second voltages; determining a transmit characteristic based on the real and imaginary components of the first and second voltages and the real and imaginary components of the current; and adjusting a characteristic of a wireless power transmission based on the calculated transmit characteristic.
A connector device for attachment to and for providing a fluid connection with an associated percutaneous fluid access device having a plurality of ports, the connector device comprising a needle holder holding a plurality of hollow needles, characterised in that the needle holder is retained within an axial alignment channel defined by the connector device and can be translated back and forth along the axial alignment channel, the connector device being configured such that, after attachment to the associated percutaneous fluid access device, translation of the needle holder along the axial alignment channel towards the associated percutaneous fluid access device drives the plurality of hollow needles into the plurality of ports thereby establishing the fluidic connection with the associated percutaneous fluid access device.
An angle-adjustable hinge having a construction in which: a first member and a second member having a gear portion are pivoted as to oscillate; a floating wedge member, of which one face is a toothed face engaged to the gear portion and another face is a contact face which contacts a wedge face formed on the first member side, is provided; relative oscillation of the first member and the second member in an inclining direction is restricted under an engaged state in which the toothed face and the gear portion are engaged; a retreat state is made by moving the floating wedge member to part from the gear portion for releasing the engagement of the toothed face and the gear portion by relative oscillation of the first member and the second member in a standing direction to a final standing position (P 0); and the relative oscillation of the first member and the second member in the inclining direction is made possible under the retreat state: characterized by that a recovery means, for recovering the floating wedge member from the retreat state to the engaged state with the gear portion by a return action (M 2) of a predetermined small angle (θ) in the standing direction during an inclining action (M 1) to relatively oscillate the first member and the second member from the final standing position (P 0) in the inclining direction, is provided. a first member and a second member having a gear portion are pivoted as to oscillate; a floating wedge member, of which one face is a toothed face engaged to the gear portion and another face is a contact face which contacts a wedge face formed on the first member side, is provided; relative oscillation of the first member and the second member in an inclining direction is restricted under an engaged state in which the toothed face and the gear portion are engaged; a retreat state is made by moving the floating wedge member to part from the gear portion for releasing the engagement of the toothed face and the gear portion by relative oscillation of the first member and the second member in a standing direction to a final standing position (P 0); and the relative oscillation of the first member and the second member in the inclining direction is made possible under the retreat state: characterized by that a recovery means, for recovering the floating wedge member from the retreat state to the engaged state with the gear portion by a return action (M 2) of a predetermined small angle (θ) in the standing direction during an inclining action (M 1) to relatively oscillate the first member and the second member from the final standing position (P 0) in the inclining direction, is provided. characterized by that a recovery means, for recovering the floating wedge member from the retreat state to the engaged state with the gear portion by a return action (M 2) of a predetermined small angle (θ) in the standing direction during an inclining action (M 1) to relatively oscillate the first member and the second member from the final standing position (P 0) in the inclining direction, is provided.
A resist material comprising a compound represented by the following formula: wherein each R is independently a hydrogen atom or an acid dissociation reactive group, wherein at least one of R is an acid dissociation reactive group; and each n is independently an integer of 0 to 4, wherein at least one of n is an integer of 1 to 4, the acid dissociation reactive group is a group selected from the group consisting of groups represented by the following formula: wherein R 5 is a hydrogen atom, or a linear or branched alkyl group having 1 to 4 carbon atoms; R 6 is a hydrogen atom, a linear or branched alkyl group having 1 to 4 carbon atoms, a cyano group, a nitro group, a heterocyclic group, a halogen atom, or a carboxyl group; n 1 is an integer of 0 to 4; n 2 is an integer of 1 to 5; and n 0 is an integer of 0 to 4.
A composition for use in organ, tissue or cell transplantation, comprising: a peptide comprising the amino acid sequence of SEQ ID NO: 1, a fragment of the peptide of SEQ ID NO: 1 or a peptide having at least 80% sequence homology with SEQ ID NO: 1 as an active ingredient which promotes the survivability and/or functions of the organ, tissue, and individual cell grafts, wherein the composition is administered to a donor in any one or more stages before or during transplantation and wherein the organ, tissue or cell is lung or tissue or cells thereof.
A method for extracting pea proteins, comprising the steps of: (a) providing an aqueous composition comprising pea proteins; (b) isolating said pea proteins from said aqueous composition comprising pea proteins; (c) obtaining said isolated pea proteins as an aqueous slurry having a pH ranging from 4.0 to 5.8; and (d) subjecting said aqueous slurry having a pH ranging from 4.0 to 5.8 to a temperature ranging from 75°C to 210°C; wherein step (b) comprises adjusting the pH of said aqueous composition comprising pea proteins to a value ranging from 4.0 to 5.8, preferably ranging from 4.5 to 5.5; wherein step (d) comprises subjecting said precipitated pea proteins to a heat treatment at a temperature ranging from 115°C to 210°C for a time ranging from 15 s to 0.01 s; at a temperature ranging from 95°C to 115°C for a time ranging from 5 min to 15 s; at a temperature ranging from 75°C to 95°C for a time ranging from 15 min to 5 min; at a temperature ranging from 75°C to 110°C for a time ranging from 10 min to 2 min; at a temperature ranging from 80°C to 100°C for a time ranging from 8 min to 5 min; or at a temperature ranging from 130°C to 150°C for a time ranging from 8 s to 1 s. (a) providing an aqueous composition comprising pea proteins; (b) isolating said pea proteins from said aqueous composition comprising pea proteins; (c) obtaining said isolated pea proteins as an aqueous slurry having a pH ranging from 4.0 to 5.8; and (d) subjecting said aqueous slurry having a pH ranging from 4.0 to 5.8 to a temperature ranging from 75°C to 210°C; wherein step (b) comprises adjusting the pH of said aqueous composition comprising pea proteins to a value ranging from 4.0 to 5.8, preferably ranging from 4.5 to 5.5; wherein step (d) comprises subjecting said precipitated pea proteins to a heat treatment at a temperature ranging from 115°C to 210°C for a time ranging from 15 s to 0.01 s; at a temperature ranging from 95°C to 115°C for a time ranging from 5 min to 15 s; at a temperature ranging from 75°C to 95°C for a time ranging from 15 min to 5 min; at a temperature ranging from 75°C to 110°C for a time ranging from 10 min to 2 min; at a temperature ranging from 80°C to 100°C for a time ranging from 8 min to 5 min; or at a temperature ranging from 130°C to 150°C for a time ranging from 8 s to 1 s.
An assembly for manipulating a bone, comprising: a first manipulating element configured to be attached to a first portion of bone and including a location emitting signal; a second manipulating element configured to be attached to a second portion of bone and including a sensor detecting the location emitting signal to provide a position and orientation signal of the first and second manipulating elements (136, 138) relative to one another; and a tracking unit including a processor tracking movement of the first and second manipulating elements (136, 138) relative to one another in a plurality of dimensions using the position and orientation signal; characterized in that the first and second manipulating elements (136, 138) include a handle (106, 108) sized and shaped to be gripped by a user to move the first and second portions of bone, respectively. a first manipulating element configured to be attached to a first portion of bone and including a location emitting signal; a second manipulating element configured to be attached to a second portion of bone and including a sensor detecting the location emitting signal to provide a position and orientation signal of the first and second manipulating elements (136, 138) relative to one another; and a tracking unit including a processor tracking movement of the first and second manipulating elements (136, 138) relative to one another in a plurality of dimensions using the position and orientation signal;
A printer comprising: a print head; a platen roller; a frame, formed by bending a single plate, to which the print head or the platen roller is attached, and that includes: a frame body, a sidewall (131, 132) that is bent from the frame body in a direction relatively perpendicular to the frame body with respect to a longitudinal direction of the platen roller, and a back surface member that is bent from the frame body in a direction relatively in parallel to the longitudinal direction of the platen roller, the back surface member including an end portion and a support portion provided to support the sidewall from an inner side and an outer side of the sidewall, respectively, wherein the sidewall is supported by the end portion and the support portion while being interposed between the end portion and the support portion. a print head; a platen roller; a frame, formed by bending a single plate, to which the print head or the platen roller is attached, and that includes: a frame body, a sidewall (131, 132) that is bent from the frame body in a direction relatively perpendicular to the frame body with respect to a longitudinal direction of the platen roller, and a back surface member that is bent from the frame body in a direction relatively in parallel to the longitudinal direction of the platen roller, the back surface member including an end portion and a support portion provided to support the sidewall from an inner side and an outer side of the sidewall, respectively, wherein a frame body, a sidewall (131, 132) that is bent from the frame body in a direction relatively perpendicular to the frame body with respect to a longitudinal direction of the platen roller, and a back surface member that is bent from the frame body in a direction relatively in parallel to the longitudinal direction of the platen roller, the back surface member including an end portion and a support portion provided to support the sidewall from an inner side and an outer side of the sidewall, respectively, wherein the sidewall is supported by the end portion and the support portion while being interposed between the end portion and the support portion.
A method for image processing, the method being characterized by: generating a plurality of base images based on multi-view color images and depth images corresponding to the multi-view color images, each base image including occlusion regions; restoring one or more of the occlusion regions in each base image; and generating an output image based on the plurality of base images with the restored occlusion region. generating a plurality of base images based on multi-view color images and depth images corresponding to the multi-view color images, each base image including occlusion regions; restoring one or more of the occlusion regions in each base image; and generating an output image based on the plurality of base images with the restored occlusion region.
An RFID tag comprising: an RFIC element; a first inductor element that includes a first insulating substrate having a mounting surface on which the RFIC element is mounted, and a first coil-shaped antenna being internally embedded in the first insulating substrate and having a winding axis in a direction perpendicular to the mounting surface; and a second inductor element that includes a second insulating substrate mounted on the mounting surface, and a second coil-shaped antenna being internally embedded in the second insulating substrate, being electrically connected to the first coil-shaped antenna, and having a winding axis parallel to the mounting surface, characterized in that the first insulating substrate includes a laminate in which a plurality of dielectric layers or a plurality of magnetic layers are laminated, the first coil-shaped antenna includes a laminate coil-shaped antenna in which conductor patterns (52a, 52b, 52c), each being formed on a corresponding one of the layers of the laminate, are connected to each other through an interlayer connection conductor (52d, 52e, 52f), and the RFIC element and the second inductor element are at least partially located within an opening area of the first coil-shaped antenna when viewed in a direction of the winding axis of the first coil-shaped antenna. an RFIC element; a first inductor element that includes a first insulating substrate having a mounting surface on which the RFIC element is mounted, and a first coil-shaped antenna being internally embedded in the first insulating substrate and having a winding axis in a direction perpendicular to the mounting surface; and a second inductor element that includes a second insulating substrate mounted on the mounting surface, and a second coil-shaped antenna being internally embedded in the second insulating substrate, being electrically connected to the first coil-shaped antenna, and having a winding axis parallel to the mounting surface, characterized in that the first insulating substrate includes a laminate in which a plurality of dielectric layers or a plurality of magnetic layers are laminated, the first coil-shaped antenna includes a laminate coil-shaped antenna in which conductor patterns (52a, 52b, 52c), each being formed on a corresponding one of the layers of the laminate, are connected to each other through an interlayer connection conductor (52d, 52e, 52f), and the RFIC element and the second inductor element are at least partially located within an opening area of the first coil-shaped antenna when viewed in a direction of the winding axis of the first coil-shaped antenna.