mhurhangee/ep-ind-claims huggingface dataset:
An exercise device (100, 300) comprising: a frame; handlebars (110, 210, 310, 410, 510) supported by the frame, characterised in that the handlebars (110, 210, 310, 410, 510) including: a yoke that is rotatably movable relative to the frame about a first axis, a second axis, and a third axis; a post connecting the yoke to the frame, the first axis, the second axis, and the third axis being orthogonal at the post; a biasing element positioned between the yoke and the frame, and a sensor configured to measure a movement of the yoke; and a computing device (114, 314, 414, 514) in data communication with the sensor. a frame; handlebars (110, 210, 310, 410, 510) supported by the frame, characterised in that the handlebars (110, 210, 310, 410, 510) including: a yoke that is rotatably movable relative to the frame about a first axis, a second axis, and a third axis; a post connecting the yoke to the frame, the first axis, the second axis, and the third axis being orthogonal at the post; a biasing element positioned between the yoke and the frame, and a sensor configured to measure a movement of the yoke; and a yoke that is rotatably movable relative to the frame about a first axis, a second axis, and a third axis; a post connecting the yoke to the frame, the first axis, the second axis, and the third axis being orthogonal at the post; a biasing element positioned between the yoke and the frame, and a sensor configured to measure a movement of the yoke; and a computing device (114, 314, 414, 514) in data communication with the sensor.
A light source apparatus using a plurality of semiconductor laser devices, comprising a holding member on which the plurality of semiconductor laser devices is arranged, wherein depressions are respectively provided on a front face and a rear face of the holding member wherein a plurality of through holes is provided in the holding member, the through holes being provided in rows, and the depressions are formed at ends of the through holes, and each of the plurality of semiconductor laser devices is arranged in the depression, such that at least one semiconductor laser device among the plurality of semiconductor laser devices is arranged on the holding member such that a relative position of the semiconductor laser device in an optical axis direction with respect to adjacent semiconductor laser devices in a front view of the holding member is greater than a relative position of the semiconductor laser device in directions perpendicular to the optical axis direction with respect to the adjacent semiconductor laser devices, wherein the relative position of adjacent semiconductor laser devices within a row is constant and the relative position of adjacent semiconductor laser devices in adjacent rows is different in the optical axis direction, wherein every semiconductor laser device has a stem, the stem having a rear face with a side surface of the rear face, the rear face of the stem of the semiconductor laser devices within one row abuts the depression on the front face of the holding member, and the side surface of the rear face of the semiconductor laser devices within another row abuts the depression on the rear face of the holding member.
A magnetic field location system: for use in tracking a distal end of a catheter or the like, that includes a magnetic sensor, in a surgical or exploratory procedure within a living body disposed on a support structure, comprising: a first field generation pad configured for selective placement along a first side of the living body disposed on the support structure that includes a plurality of magnetic coils operable to generate magnetic fields; a second field generation pad configured for selective placement along an opposite side of the living body disposed on the support structure that includes a plurality magnetic coils operable to generate magnetic fields; a securing structure configured to releasably secure the first and second field generation pads to the support structure when selectively placed on the support structure;and a processor coupled to the magnetic coils of the first and second field generation pads configured to execute a process for correlation of magnetic fields generated by the field generation pads such that a reference magnetic field is defined that extends within a desired portion of the living body to enable precise location and tracking of a distal end of a catheter via the magnetic sensor within the reference magnetic field. a first field generation pad configured for selective placement along a first side of the living body disposed on the support structure that includes a plurality of magnetic coils operable to generate magnetic fields; a second field generation pad configured for selective placement along an opposite side of the living body disposed on the support structure that includes a plurality magnetic coils operable to generate magnetic fields; a securing structure configured to releasably secure the first and second field generation pads to the support structure when selectively placed on the support structure;and a processor coupled to the magnetic coils of the first and second field generation pads configured to execute a process for correlation of magnetic fields generated by the field generation pads such that a reference magnetic field is defined that extends within a desired portion of the living body to enable precise location and tracking of a distal end of a catheter via the magnetic sensor within the reference magnetic field.
A method for producing a γ,δ-unsaturated alcohol represented by the following general formula: wherein R 1, R 2, and R 3 each independently represent a hydrogen atom, an optionally hydroxyl group-substituted alkyl group having 1 to 10 carbon atoms, an optionally hydroxyl group-substituted alkenyl group having 2 to 10 carbon atoms, or an optionally hydroxyl group-substituted aryl group having 6 to 12 carbon atoms, provided that R 1 and R 3 may be bonded to each other to form a ring, the method comprising: a step of causing a reaction in the presence of tert-butanol between an α-olefin represented by the following general formula: wherein R 1, R 2, and R 3 are the same as defined above, and an aqueous formaldehyde solution, and an alkali cleaning step of bringing a reaction liquid obtained through the reaction into contact with an alkaline aqueous solution so as to provide an aqueous solution having a pH of 11 to 13, wherein the contact between the reaction liquid and the alkaline aqueous solution is performed in a counter-current mode. a step of causing a reaction in the presence of tert-butanol between an α-olefin represented by the following general formula: wherein R 1, R 2, and R 3 are the same as defined above, and an aqueous formaldehyde solution, and wherein R 1, R 2, and R 3 are the same as defined above, and an aqueous formaldehyde solution, and an alkali cleaning step of bringing a reaction liquid obtained through the reaction into contact with an alkaline aqueous solution so as to provide an aqueous solution having a pH of 11 to 13, wherein the contact between the reaction liquid and the alkaline aqueous solution is performed in a counter-current mode.
A sound absorbing material comprising: a nonwoven fibrous acoustic insulation material; and a flow resistive nonwoven facing, wherein the flow resistive nonwoven facing is bonded to the nonwoven fibrous acoustic insulation material; a tape material adhered to the nonwoven fibrous acoustic insulation material on an opposite side to the flow resistive nonwoven facing, the sound absorbing material being characterized in that the flow resistive nonwoven facing has surface mass of from about 20 to about 150 g/m2, and in that the tape material further comprises: a thin flexible substrate; a pressure sensitive adhesive substance carried on a single side of the substrate, the PSA substance being provided in an intermittent pattern along a length of the substrate; and a mesh carried on the single side, wherein the mesh is open to expose the PSA substance for adhesion; wherein the PSA substance adheres the tape material to the nonwoven fibrous acoustic insulation material. a nonwoven fibrous acoustic insulation material; and a flow resistive nonwoven facing, wherein the flow resistive nonwoven facing is bonded to the nonwoven fibrous acoustic insulation material; a tape material adhered to the nonwoven fibrous acoustic insulation material on an opposite side to the flow resistive nonwoven facing, the sound absorbing material being characterized in that the flow resistive nonwoven facing has surface mass of from about 20 to about 150 g/m2, and in that the tape material further comprises: a thin flexible substrate; a pressure sensitive adhesive substance carried on a single side of the substrate, the PSA substance being provided in an intermittent pattern along a length of the substrate; and a mesh carried on the single side, wherein the mesh is open to expose the PSA substance for adhesion; wherein the PSA substance adheres the tape material to the nonwoven fibrous acoustic insulation material. a thin flexible substrate; a pressure sensitive adhesive substance carried on a single side of the substrate, the PSA substance being provided in an intermittent pattern along a length of the substrate; and a mesh carried on the single side, wherein the mesh is open to expose the PSA substance for adhesion; wherein the PSA substance adheres the tape material to the nonwoven fibrous acoustic insulation material.
Method for producing liquefied natural gas and liquid carbon dioxide (CO 2) comprising at least the following steps: - Step a): separating a natural gas supply gas, containing hydrocarbons and carbon dioxide in a treatment unit, into a CO 2 -enriched gaseous current and a CO 2 -depleted natural gas current; - Step b): liquefying the CO 2 -depleted natural gas current from step a) in a natural gas liquefaction unit comprising at least one main heat exchanger and one frigorie-producing system, said natural gas liquefaction unit comprising at least one refrigeration cycle supplied by a refrigerating current; - Step c): simultaneously liquefying the CO 2 -enriched gaseous current from step a) in a CO 2 liquefaction unit; characterised in that the cold necessary for the liquefaction of the CO 2 -enriched gaseous current and for the liquefaction of the natural gas is provided by said frigorie-producing system of the natural gas liquefaction unit and in that the cold necessary for the liquefaction of the CO 2 -enriched gaseous current comes from some of said refrigerating current supplying the refrigeration cycle of said natural gas liquefaction unit; characterised in that the supply gas comprises 0.1% molar to 5% molar of CO 2; and characterised in that said frigorie-producing system comprises at least one compressor and one turbine-compressor system. - Step a): separating a natural gas supply gas, containing hydrocarbons and carbon dioxide in a treatment unit, into a CO 2 -enriched gaseous current and a CO 2 -depleted natural gas current; - Step b): liquefying the CO 2 -depleted natural gas current from step a) in a natural gas liquefaction unit comprising at least one main heat exchanger and one frigorie-producing system, said natural gas liquefaction unit comprising at least one refrigeration cycle supplied by a refrigerating current; - Step c): simultaneously liquefying the CO 2 -enriched gaseous current from step a) in a CO 2 liquefaction unit; characterised in that the cold necessary for the liquefaction of the CO 2 -enriched gaseous current and for the liquefaction of the natural gas is provided by said frigorie-producing system of the natural gas liquefaction unit and in that the cold necessary for the liquefaction of the CO 2 -enriched gaseous current comes from some of said refrigerating current supplying the refrigeration cycle of said natural gas liquefaction unit; characterised in that the supply gas comprises 0.1% molar to 5% molar of CO 2; and characterised in that said frigorie-producing system comprises at least one compressor and one turbine-compressor system.
Mechanism for animating an object, said mechanism being adapted to be integrated into a wearable piece of jewelry and comprising: - a manual source of motive power that can be driven directly or indirectly by an action on the part of a user and arranged to drive a transmission following an action on the part of a user; - a support system bearing an object that is intended to be animated in rotation about a first axis of rotation under the effect of said manual source of motive power by means of said transmission, characterized in that said support system comprises a first frame that is mounted so as to be able to pivot on a chassis element about said first axis of rotation, and an inner frame that is mounted so as to be able to pivot in said first frame about a second pivot axis which is substantially orthogonal with respect to said first pivot axis; and in that said object is arranged to be driven by an eccentric drive element that rotates conjointly with a drive wheel arranged to be driven by said transmission. - a manual source of motive power that can be driven directly or indirectly by an action on the part of a user and arranged to drive a transmission following an action on the part of a user; - a support system bearing an object that is intended to be animated in rotation about a first axis of rotation under the effect of said manual source of motive power by means of said transmission,
A composition for use in the treatment of a malignant neoplasm of the central nervous system, said composition comprising an antibody specifically binding to an integrin alpha 10 subunit.
A pigment water dispersion comprising pigment-containing water-insoluble crosslinked polymer A particles, a water-soluble basic compound and water, in which a water-insoluble crosslinked polymer A constituting the particles comprises a carboxy group and a crosslinked structure comprising an ester group derived from a water-insoluble crosslinking agent; a saponification value of the water-insoluble crosslinked polymer A is not less than 170 mgKOH/g and not more than 300 mgKOH/g; and the water-soluble basic compound comprises a water-soluble amine compound, wherein the boiling point of the water-soluble amine compound is not lower than 100°C and not higher than 350°C. in which a water-insoluble crosslinked polymer A constituting the particles comprises a carboxy group and a crosslinked structure comprising an ester group derived from a water-insoluble crosslinking agent; a saponification value of the water-insoluble crosslinked polymer A is not less than 170 mgKOH/g and not more than 300 mgKOH/g; and the water-soluble basic compound comprises a water-soluble amine compound, wherein the boiling point of the water-soluble amine compound is not lower than 100°C and not higher than 350°C.
A timing recovery apparatus for receivers, the apparatus comprising: an analog-to digital converter, ADC, a voltage controlled oscillator, VCO,, connected to an input of the ADC, a feedback loop (108; 114) comprising two parallel branches, each branch connected to an output of the ADC and each branch comprising at least one interpolation filter and one phase detector (112; 118); a combiner in said feedback loop to combine a signal from each of said branches, the output of the combiner connected to the VCO; and a feed-forward section comprising at least one interpolation filter and one phase detector, wherein an input of said at least one interpolation filter is connected to an output of said at least one interpolation filter in at least one of said parallel branches of the feedback loop. an analog-to digital converter, ADC, a voltage controlled oscillator, VCO,, connected to an input of the ADC, a feedback loop (108; 114) comprising two parallel branches, each branch connected to an output of the ADC and each branch comprising at least one interpolation filter and one phase detector (112; 118); a combiner in said feedback loop to combine a signal from each of said branches, the output of the combiner connected to the VCO; and a feed-forward section comprising at least one interpolation filter and one phase detector, wherein an input of said at least one interpolation filter is connected to an output of said at least one interpolation filter in at least one of said parallel branches of the feedback loop.
A complex comprising: (i) a Cas9 single-guide RNA (sgRNA) comprising an aptamer, wherein the Cas9 sgRNA does not hybridize to a target DNA in the absence of a specific ligand bound to the aptamer; and (ii) a Cas9 protein.
A vibration isolation system, comprising: a base mass (M B); vibration isolators for supporting the base mass (M B) on a floor using spring systems of low stiffness; a machine having a total mass (M M) with a stationary mass (m 1) of stationary machine parts and with a moving mass (m 2) of moving machine parts and being supported on the base mass (M B), said movable machine parts representing a source of inertial forces in the machine; a control system (8, 79, 81) comprising sensor means for detecting vibrations of the base mass (M B), actuator means for influencing the vibrations of the base mass (M B), and a controller; and a feedforward system controlling the actuator means and comprising at least one control unit (82, 83) including a memory; characterized in that for reducing the total mass of the system and for the purposes of reducing the size of the vibration isolators, the base mass (M B) is reduced to a mass ratio of 7:1 or less with respect to the moving mass (m 2) of the machine; and that the feedforward system is adapted for compensating the impact of expected inertial forces in the machine at the time of their generation, wherein the memory contains transfer functions of the moving machine parts and thereby a model of the occurring forces, and compensation signals or counterforce signals for the abruptly occurring forces. a base mass (M B); vibration isolators for supporting the base mass (M B) on a floor using spring systems of low stiffness; a machine having a total mass (M M) with a stationary mass (m 1) of stationary machine parts and with a moving mass (m 2) of moving machine parts and being supported on the base mass (M B), said movable machine parts representing a source of inertial forces in the machine; a control system (8, 79, 81) comprising sensor means for detecting vibrations of the base mass (M B), actuator means for influencing the vibrations of the base mass (M B), and a controller; and a feedforward system controlling the actuator means and comprising at least one control unit (82, 83) including a memory; for reducing the total mass of the system and for the purposes of reducing the size of the vibration isolators, the base mass (M B) is reduced to a mass ratio of 7:1 or less with respect to the moving mass (m 2) of the machine; and that the feedforward system is adapted for compensating the impact of expected inertial forces in the machine at the time of their generation,
A method of building a workpiece using an additive manufacturing process, wherein the workpiece is built up by consolidating material in a layer-by-layer manner, the method comprising receiving an initial geometric model defining surface geometry of the workpiece, determining initial workpiece slices (101a to 101h) to be consolidated as layers of the workpiece during the additive manufacturing process from the initial geometric model, building a test workpiece in accordance with the initial workpiece slices (101a to 101h) using the additive manufacturing process, determining a degree of warping by measuring the test workpiece, determining workpiece slices (401a to 400h) having adjusted positions adjusted from initial positions of the initial workpiece slices (101a to 101h), and building the workpiece using the additive manufacturing process, wherein the workpiece slices (401a to 400h) are formed in the adjusted positions, characterised in that the degree of warping of the test workpiece is determined by measuring the test workpiece a predetermined time after an end of the build of the test workpiece and the adjusted positions are determined such that warping of the workpiece expected to occur during or after the additive manufacturing process returns the workpiece to or towards the surface geometry as defined in the initial geometric model.
A protective ionizing laminate static eliminating device that comprises: a) at least two laminate layers (2, 4), comprising a first or second laminate layer (2, 4) having a thickness ranging between about 5 μm to about 300 μm; b) a plurality of electrically conductive or static dissipative material or microfibers, wherein the plurality of electrically conductive or static dissipative material or microfibers forms a pattern; c) a ground in communication with the electrically conductive or static dissipative material or microfibers; wherein the at least two laminate layers (2, 4) are laminated together with the electrically conductive or static dissipative material or microfibers and at least a portion of the ground positioned there between, to thereby form a laminated enclosure; and d) an edge cut into the laminated enclosure, exposing the plurality of electrically conductive or static dissipative material or microfibers at said edge to create a series of ionizing points, to thereby obtain a PIL static eliminating device, wherein the plurality of electrically conductive or static dissipative material or microfibers is encased by the two laminate layers (2, 4) except for the edge of ionizing points, wherein the diameter of the ionizing points ranges from between about 100 nm to 50 μm; wherein air between the ionizing points and charged material passing by or near the PIL static eliminating device is sufficiently ionized to remove or reduce static charge from the passing material. a) at least two laminate layers (2, 4), comprising a first or second laminate layer (2, 4) having a thickness ranging between about 5 μm to about 300 μm; b) a plurality of electrically conductive or static dissipative material or microfibers, wherein the plurality of electrically conductive or static dissipative material or microfibers forms a pattern; c) a ground in communication with the electrically conductive or static dissipative material or microfibers; wherein the at least two laminate layers (2, 4) are laminated together with the electrically conductive or static dissipative material or microfibers and at least a portion of the ground positioned there between, to thereby form a laminated enclosure; and d) an edge cut into the laminated enclosure, exposing the plurality of electrically conductive or static dissipative material or microfibers at said edge to create a series of ionizing points, to thereby obtain a PIL static eliminating device, wherein the plurality of electrically conductive or static dissipative material or microfibers is encased by the two laminate layers (2, 4) except for the edge of ionizing points, wherein the diameter of the ionizing points ranges from between about 100 nm to 50 μm;