mhurhangee/ep-ind-claims huggingface dataset:
A system for determining field of ablation, the system comprising: a power source configured to generate electromagnetic energy; an energy applicator coupled to the power source, the energy applicator configured to be inserted into tissue and to provide electromagnetic energy to a target volume; and an imaging apparatus, wherein the imaging apparatus is an MRI system, the imaging apparatus configured to generate a uniform magnetic field and at least one variable magnetic field around the tissue, characterized in that the imaging apparatus is further configured to obtain an image of a simulated field of ablation within the target volume in response to a trace RF pulse having a lower power than a conventional RF and/or microwave ablation signal, said trace RF pulse not having a physical ablation effect on the target volume and having a frequency substantially matching the Larmor frequency of the tissue of the target volume, the power source being configured to supply the trace RF pulse through the energy applicator to the target volume simultaneously with an excitation RF pulse generated by the imaging apparatus and the at least one variable magnetic field. a power source configured to generate electromagnetic energy; an energy applicator coupled to the power source, the energy applicator configured to be inserted into tissue and to provide electromagnetic energy to a target volume; and an imaging apparatus, wherein the imaging apparatus is an MRI system, the imaging apparatus configured to generate a uniform magnetic field and at least one variable magnetic field around the tissue, characterized in that the imaging apparatus is further configured to obtain an image of a simulated field of ablation within the target volume in response to a trace RF pulse having a lower power than a conventional RF and/or microwave ablation signal, said trace RF pulse not having a physical ablation effect on the target volume and having a frequency substantially matching the Larmor frequency of the tissue of the target volume, the power source being configured to supply the trace RF pulse through the energy applicator to the target volume simultaneously with an excitation RF pulse generated by the imaging apparatus and the at least one variable magnetic field.
A system for positioning a sub-assembly for installation, the system comprising: a tool comprising a base and a sub-assembly support, the sub-assembly support positioned above the base and pivotably mounted to the base at a pivot axis, the tool positioned adjacent to an interior surface of an assembling body and configured to support a sub-assembly; at least one actuator comprising a first end, attached to the sub-assembly support, and a second end, attached to the base, the at least one actuator selectively operable to tilt a first surface of the sub-assembly support toward an opening in the assembling body and adjust an angle of the sub-assembly support relative to the base, wherein the sub-assembly support is selectively adjustable between a loading position, distant from the opening in the assembling body, and an install position, adjacent to the opening in the assembling body; an interior conforming device attached to the tool, wherein the interior conforming device is configured to interface with the interior surface of the assembling body when the sub-assembly support is in the install position; and an exterior conforming device discrete from the tool and positioned adjacent to an exterior surface of the assembling body, wherein the exterior conforming device is configured to interface with the exterior surface of the assembling body. a tool comprising a base and a sub-assembly support, the sub-assembly support positioned above the base and pivotably mounted to the base at a pivot axis, the tool positioned adjacent to an interior surface of an assembling body and configured to support a sub-assembly; at least one actuator comprising a first end, attached to the sub-assembly support, and a second end, attached to the base, the at least one actuator selectively operable to tilt a first surface of the sub-assembly support toward an opening in the assembling body and adjust an angle of the sub-assembly support relative to the base, wherein the sub-assembly support is selectively adjustable between a loading position, distant from the opening in the assembling body, and an install position, adjacent to the opening in the assembling body; an interior conforming device attached to the tool, wherein the interior conforming device is configured to interface with the interior surface of the assembling body when the sub-assembly support is in the install position; and an exterior conforming device discrete from the tool and positioned adjacent to an exterior surface of the assembling body, wherein the exterior conforming device is configured to interface with the exterior surface of the assembling body.
Method for fabrication of a balance spring of predetermined thickness comprising the following steps: a) forming a balance spring in dimensions ( Da, H 1, E 1) greater than the dimensions ( Db, H 3, E 3) necessary to obtain said balance spring of a predetermined stiffness; b) determining the stiffness of the balance spring formed in step a) by measuring the frequency ( f) of said balance spring coupled with a balance having a predetermined inertia; c) calculating the thickness of the material to be removed, based on the determination of the stiffness of the balance spring determined in step b), to obtain the dimensions ( Db, H 3, E 3) necessary to obtain said balance spring of a predetermined stiffness; d) removing from the balance spring formed in step a), said thickness of material to obtain the balance spring having the dimensions ( Db, H 3, E 3) necessary for said predetermined stiffness. a) forming a balance spring in dimensions ( Da, H 1, E 1) greater than the dimensions ( Db, H 3, E 3) necessary to obtain said balance spring of a predetermined stiffness; b) determining the stiffness of the balance spring formed in step a) by measuring the frequency ( f) of said balance spring coupled with a balance having a predetermined inertia; c) calculating the thickness of the material to be removed, based on the determination of the stiffness of the balance spring determined in step b), to obtain the dimensions ( Db, H 3, E 3) necessary to obtain said balance spring of a predetermined stiffness; d) removing from the balance spring formed in step a), said thickness of material to obtain the balance spring having the dimensions ( Db, H 3, E 3) necessary for said predetermined stiffness.
A liquid crystal display comprising: an upper polarizer; a lower polarizer; and a liquid crystal panel provided between the upper polarizer and the lower polarizer, wherein the upper polarizer and the lower polarizer are provided such that absorption axes thereof are parallel to each other, and wherein the liquid crystal panel is a vertical alignment liquid crystal mode; characterized by a first half wave plate, a positive C plate, and a second half wave plate sequentially comprised between the upper polarizer and the liquid crystal panel.
An adjuvanted immunogenic composition comprising between 0.1 μg and ≤7.5 μg hemagglutinin antigen from a second clade of H5 influenza A virus, for use in a method for immunizing a patient against influenza virus who has previously received an immunogenic composition comprising hemagglutinin antigen from a first clade of H5 influenza A virus, wherein the first and second clades are different from each other, and wherein the adjuvant comprises a submicron oil-in-water emulsion comprising squalene.
Panel printing device comprising a supply means for a carrier to be printed and a printing unit for an inkjet process, wherein the panel printing device comprises at least one means for discharging electrostatic charges from the carrier, characterized in that the panel printing device further comprises at least one means for supplying electrostatic charges onto the carrier disposed downstream of the means for discharging electrostatic charges from the carrier.
A knitting machine for producing a knit fabric comprising both weft stitches and warp stitches in a knitting process, the knitting machine comprising: two or more needle beds comprising knitting needles and configured to generate the weft stitches and the warp stitches by interplaying between the knitting needles; and a warp feeding assembly for creation of a warp insert, the warp feeding assembly comprising: a weft knit warp feeder; a warp knitting guide needle block operable to hold a plurality of warp strands; a cam box comprising a cam track that comprises a warp guard cam; wherein creation of the warp insert comprises: raising selected needles on the knitting machine to a warp height, the warp height being above the two or more needle beds; carrying the plurality of warp strands in the weft knit warp feeder to the selected needles; lowering the weft knit warp feeder to the warp height and laying one or more of the plurality of warp strands into hooks of the selected needles; and knitting the warp insert using the selected needles, characterised by a strand guide bar configured to guide the plurality of warp strands to the weft knit warp feeder and by using the warp guard cam for raising selected needles on the knitting machine to a warp height. two or more needle beds comprising knitting needles and configured to generate the weft stitches and the warp stitches by interplaying between the knitting needles; and a warp feeding assembly for creation of a warp insert, the warp feeding assembly comprising: a weft knit warp feeder; a warp knitting guide needle block operable to hold a plurality of warp strands; a weft knit warp feeder; a warp knitting guide needle block operable to hold a plurality of warp strands; a cam box comprising a cam track that comprises a warp guard cam; wherein creation of the warp insert comprises: raising selected needles on the knitting machine to a warp height, the warp height being above the two or more needle beds; carrying the plurality of warp strands in the weft knit warp feeder to the selected needles; lowering the weft knit warp feeder to the warp height and laying one or more of the plurality of warp strands into hooks of the selected needles; and knitting the warp insert using the selected needles, characterised by a strand guide bar configured to guide the plurality of warp strands to the weft knit warp feeder and by using the warp guard cam for raising selected needles on the knitting machine to a warp height. raising selected needles on the knitting machine to a warp height, the warp height being above the two or more needle beds; carrying the plurality of warp strands in the weft knit warp feeder to the selected needles; lowering the weft knit warp feeder to the warp height and laying one or more of the plurality of warp strands into hooks of the selected needles; and knitting the warp insert using the selected needles, characterised by a strand guide bar configured to guide the plurality of warp strands to the weft knit warp feeder and by using the warp guard cam for raising selected needles on the knitting machine to a warp height.
A parameter determination device comprising: a spectral envelope estimating portion for performing estimation of a spectral envelope using a parameter η 0 specified in a predetermined method, regarding the η 0 -th power of absolute values of a frequency domain sample sequence corresponding to a time-series signal which is a sound signal as a power spectrum on the assumption that the parameter η 0 and a parameter η are positive numbers; a whitened spectral sequence generating portion for obtaining a whitened spectral sequence which is a sequence obtained by dividing the frequency domain sample sequence by the spectral envelope; and a parameter acquiring portion for determining such a parameter η that generalized Gaussian distribution with the parameter η as a shape parameter approximates a histogram of the whitened spectral sequence, wherein the parameter determination device is adapted to determine the parameter η for each frame by a loop process; and the loop process is a process where processes of the spectral envelope estimating portion, the whitened spectral sequence generating portion and the parameter acquiring portion, in which the parameter η determined by the process of the parameter acquiring portion performed for a frame for which the parameter η is to be determined currently is caused to be the parameter η 0 specified in the predetermined method, are performed for the frame for which the parameter η is to be determined currently. a spectral envelope estimating portion for performing estimation of a spectral envelope using a parameter η 0 specified in a predetermined method, regarding the η 0 -th power of absolute values of a frequency domain sample sequence corresponding to a time-series signal which is a sound signal as a power spectrum on the assumption that the parameter η 0 and a parameter η are positive numbers; a whitened spectral sequence generating portion for obtaining a whitened spectral sequence which is a sequence obtained by dividing the frequency domain sample sequence by the spectral envelope; and a parameter acquiring portion for determining such a parameter η that generalized Gaussian distribution with the parameter η as a shape parameter approximates a histogram of the whitened spectral sequence, wherein the parameter determination device is adapted to determine the parameter η for each frame by a loop process; and the loop process is a process where processes of the spectral envelope estimating portion, the whitened spectral sequence generating portion and the parameter acquiring portion, in which the parameter η determined by the process of the parameter acquiring portion performed for a frame for which the parameter η is to be determined currently is caused to be the parameter η 0 specified in the predetermined method, are performed for the frame for which the parameter η is to be determined currently.
A method for non-destructively determining a lifespan of a solid rocket motor propellant grain, wherein the solid rocket motor propellant grain is a solid mass with an exposed inner surface area defining a perforation in the interior of the solid rocket motor propellant grain, comprising: moving a gas into the perforation, thereby applying a force to a surface of the solid rocket motor propellant grain with a pressure of the gas, wherein a deformation is formed on the surface of the solid rocket motor propellant grain in response to the application of the force; wherein the gas is pressurized in response to moving a pre-determined number of moles of gas into the perforation, wherein the deformation is formed in response to the gas being pressurized; and measuring a pressure of the gas.
A surface treatment method in which a processing gas is brought in contact with a surface of a heated processing object made of steel, an element included in the processing gas is solid-solutionized, and thus a surface treatment is performed on the surface of the processing object, the method comprising, in order: by heating an inert gas atmosphere in which the processing object is disposed, heating the processing object to a heating temperature, said heating temperature having a range of a temperature 100°C lower than a processing temperature at which the surface treatment is to be performed to a temperature 120°C higher than the processing temperature; and performing the surface treatment by bringing the processing gas in contact with the surface of the processing object whilst directly heating with a heating unit the heated processing object to the processing temperature; wherein, when the processing object is directly heated, the processing object is directly heated by emission of light to the processing object using, as the heating unit, an infrared lamp or a laser emitting device. by heating an inert gas atmosphere in which the processing object is disposed, heating the processing object to a heating temperature, said heating temperature having a range of a temperature 100°C lower than a processing temperature at which the surface treatment is to be performed to a temperature 120°C higher than the processing temperature; and performing the surface treatment by bringing the processing gas in contact with the surface of the processing object whilst directly heating with a heating unit the heated processing object to the processing temperature; wherein, when the processing object is directly heated, the processing object is directly heated by emission of light to the processing object using, as the heating unit, an infrared lamp or a laser emitting device.
An apparatus comprising: a filter housing; a mesh holder disposed within the filter housing such that a flow passage is defined between the mesh holder and the filter housing; a mesh filter member supported by the mesh holder; and a replaceable filter cartridge having an open interior and being removably connected to the mesh holder, the replaceable filter cartridge inserted around the mesh filter member, the replaceable filter cartridge having a filter media that extends in an axial direction and is disposed between an annular-shaped airflow spinner and an end cap, and wherein the annular-shaped airflow spinner is affixed to an outer surface of the filter media such that the replaceable filter cartridge is modular and can be handled as a unitary whole as it is inserted into the filter housing, the annular-shaped airflow spinner including an inner ring, an outer ring, and a plurality of airflow members extending between the inner ring and the outer ring, the plurality of airflow members defining a plurality of passages, the plurality of airflow members being structured to impart a circumferential component of swirl to a passing flow of fluid in the flow passage when the replaceable filter cartridge is installed in the filter housing, the flow of fluid subsequently traversing through the filter media and mesh filter member into the open interior of the filter cartridge. a filter housing; a mesh holder disposed within the filter housing such that a flow passage is defined between the mesh holder and the filter housing; a mesh filter member supported by the mesh holder; and a replaceable filter cartridge having an open interior and being removably connected to the mesh holder, the replaceable filter cartridge inserted around the mesh filter member, the replaceable filter cartridge having a filter media that extends in an axial direction and is disposed between an annular-shaped airflow spinner and an end cap, and wherein the annular-shaped airflow spinner is affixed to an outer surface of the filter media such that the replaceable filter cartridge is modular and can be handled as a unitary whole as it is inserted into the filter housing, the annular-shaped airflow spinner including an inner ring, an outer ring, and a plurality of airflow members extending between the inner ring and the outer ring, the plurality of airflow members defining a plurality of passages, the plurality of airflow members being structured to impart a circumferential component of swirl to a passing flow of fluid in the flow passage when the replaceable filter cartridge is installed in the filter housing, the flow of fluid subsequently traversing through the filter media and mesh filter member into the open interior of the filter cartridge.
Motor vehicle control and display module including: - a display screen for displaying data, - at least one touch-sensitive pad (3, 16a, 16b) having a control surface for the entry of commands by a user, said touch-sensitive pad being superposed at least on said display screen, - a box in which said display screen and said touch-sensitive pad are accommodated, said box having a border delimiting an opening leaving visible said control surface and said display screen, characterized in that it further includes a leveling trim (8, 17a, 17b), peripheral to said touch-sensitive pad, for leveling the control surface of said touch-sensitive pad with said border of said box and in that said touch-sensitive pad has a connecting ribbon cable partly buried in said peripheral leveling trim. - a display screen for displaying data, - at least one touch-sensitive pad (3, 16a, 16b) having a control surface for the entry of commands by a user, said touch-sensitive pad being superposed at least on said display screen, - a box in which said display screen and said touch-sensitive pad are accommodated, said box having a border delimiting an opening leaving visible said control surface and said display screen,
Easy grip handle for portable container, comprising a handle connected with a hinge and rotating on the side of the container itself to define lying positions and at least one raised position with respect to the same container; the handle is maintained, at least in a raised position or in an almost vertical position, and characterized by at least one permanent magnet (7, 12, 21) acting on the rotation of the handle, close to the rotation hinge, in combination with at least one ferromagnetic element (8, 11, 22) positioned in the handle or in the container to define, by magnetic attraction when facing the permanent magnet, at least one said raised or almost vertical position of the handle on the portable container itself.
A work centre to process section bars, in particular made of aluminium, light alloys, PVC or the like, comprising an elongated base extending in a first direction; a plurality of cross members, each of which is mounted on the base parallel to a second direction, which is transverse to the first direction, supports a clamping vice provided with two jaws (23, 24), which are movable relative to one another in the second direction between a clamping position and a release position to clamp and release at least one section bar, and further supports first support means defining a first support surface for the section bar; and a gantry, which extends above the base in the second direction and is provided with an operating head to process the section bar; and characterized in that each cross member further supports second support means (34, 37), which define a second support surface for the section bar connected to a pneumatic suction device and are movable in a third direction, which is orthogonal to said first and second directions (4, 8), between a lowered position, in which the second support surface extends under the first support surface, and a first lifted position.
Elevator door leaf comprising a door panel and a support structure having at least one profile (14, 16, 18, 20), whereby the door leaf comprises at least one expansion member consisting of a material having a larger thermal expansion coefficient than the material of the door panel and/or of said profile, characterized that the expansion member extends vertically and is fixed to the door leaf only at its upper end, so that at critical temperatures of e.g. 300 to 500°C the expansion member protrudes via a distance d from the bottom edge of the door leaf as to be configured to counteract with a floor or door sill to horizontally fix the corresponding side edge of the door leaf to the door sill.