mhurhangee/ep-ind-claims huggingface dataset:
Hide surface measuring machine with an introduction bench for the hides to be measured, comprising: - a conveyor belt, in turn comprising at least one transparent belt configured to support and drag forward said hides, - at least one idle measuring roller, positioned above said conveyor belt, with an axis of rotation angled with respect to the direction of advancement of said conveyor belt, and configured to come into contact with said hide, in order to measure the feed rate, - at least one light source housed inside said at least one measuring roller, and configured to send a light radiation in the direction of an optical detector, - said at least one optical detector being positioned below said conveyor belt and configured to detect the light radiation emitted by said at least one light source, characterized in that, upstream of said at least one measuring roller, at least one idle roller is provided resting on said at least one transparent belt and cooperating with it for the advancement of said hides. - a conveyor belt, in turn comprising at least one transparent belt configured to support and drag forward said hides, - at least one idle measuring roller, positioned above said conveyor belt, with an axis of rotation angled with respect to the direction of advancement of said conveyor belt, and configured to come into contact with said hide, in order to measure the feed rate, - at least one light source housed inside said at least one measuring roller, and configured to send a light radiation in the direction of an optical detector, - said at least one optical detector being positioned below said conveyor belt
Apparatus for moistening and wringing at least one mop part of a damp mop, with a drive device (9, 10, 16) which can move the mop part and at least one moistening device for moistening the mop part with a liquid relative to one another, and can move sections of the mop part moved past the moistening device and a wringing device (9, 10) relative to one another, wherein the moistening device is at least one spray nozzle, which can be supplied with liquid by a pump, characterised in that the at least one spray nozzle is embodied such that the edge region of the mop part is cleaned at a higher fluid pressure than the central region of the mop part.
A process for obtaining catmint oil from Nepeta cataria comprising: (a) contacting Nepeta cataria plant material with steam to form a volatilized mixture comprising catmint oil and water; (b) condensing the volatilized mixture formed in step (a) to form a liquid mixture comprising catmint oil and water in which catmint oil is dissolved in water; (c) contacting the liquid mixture formed in step (b) with a salt selected from the group consisting of the sulfate, nitrate and phosphate salts of elements of Groups 1 and 2 of the Periodic Table of the Elements, to provide a mixture in which catmint oil and salt are both dissolved in water, and in which (i) the solubility of catmint oil in the solution of water and salt is at least about 50% less than the solubility of catmint oil in water, and/or (ii) the ratio [( ρ catmint oil - ρ aqueous solution) /μ aqueous solution], where ρ is density, μ is viscosity and the aqueous solution is the solution of water and salt, is less than or equal to about -0.05, to provide in the mixture a catmint oil phase that is separated from an aqueous salt solution phase; and (d) recovering the catmint oil phase. (a) contacting Nepeta cataria plant material with steam to form a volatilized mixture comprising catmint oil and water; (b) condensing the volatilized mixture formed in step (a) to form a liquid mixture comprising catmint oil and water in which catmint oil is dissolved in water; (c) contacting the liquid mixture formed in step (b) with a salt selected from the group consisting of the sulfate, nitrate and phosphate salts of elements of Groups 1 and 2 of the Periodic Table of the Elements, to provide a mixture in which catmint oil and salt are both dissolved in water, and in which (i) the solubility of catmint oil in the solution of water and salt is at least about 50% less than the solubility of catmint oil in water, and/or (ii) the ratio [( ρ catmint oil - ρ aqueous solution) /μ aqueous solution], where ρ is density, μ is viscosity and the aqueous solution is the solution of water and salt, is less than or equal to about -0.05, to provide in the mixture a catmint oil phase that is separated from an aqueous salt solution phase; and (i) the solubility of catmint oil in the solution of water and salt is at least about 50% less than the solubility of catmint oil in water, and/or (ii) the ratio [( ρ catmint oil - ρ aqueous solution) /μ aqueous solution], where ρ is density, μ is viscosity and the aqueous solution is the solution of water and salt, is less than or equal to about -0.05, (d) recovering the catmint oil phase.
A barrier for a bed, the barrier moveable between first and second positions, the first position for preventing an occupant of a bed from rolling out of a bed and the second position being a storage position, the barrier being securable in the first position by a securing means, wherein when the barrier is in the first position the barrier is in an extended configuration and when the barrier is in the second position the barrier is in a compact configuration, the barrier comprising a locking means for locking the barrier in an extended configuration said locking means being releasable by movement of the barrier from the first position to the second position, wherein the barrier is rotatable about one or more pivot elements, characterised in that one or more of the pivot elements are shaped for releasing the locking means as the barrier passes therethrough.
A lunar phase mechanism comprising - a sphere representing the moon, including two separate hemispheres and mounted pivoting in reference to a support along a first axis, - a first automatic kinematic driving chain, designed to rotate the sphere around that first axis, substantially at a rate of one rotation per lunation, characterized in that said sphere is mounted pivoting along a second axis perpendicular to the first axis and intersecting the first axis substantially at the center of said sphere, said mechanism comprising a second kinematic driving chain, designed to rotate the sphere around the second axis to correct the incline of the depiction of the moon. - a sphere representing the moon, including two separate hemispheres and mounted pivoting in reference to a support along a first axis, - a first automatic kinematic driving chain, designed to rotate the sphere around that first axis, substantially at a rate of one rotation per lunation, characterized in that said sphere is mounted pivoting along a second axis perpendicular to the first axis and intersecting the first axis substantially at the center of said sphere, said mechanism comprising a second kinematic driving chain, designed to rotate the sphere around the second axis to correct the incline of the depiction of the moon.
An anaerobic curable composition comprising; (a) a (meth)acrylate component; (b) an anaerobic cure system; and (c) a compound having structure II below: wherein: A and R 1 are each independently selected from C 1-12 alkyl or alkylene, C 2-12 alkenyl or alkenylene, C 5-14 cycloalkyl, C 5-14 cycloalkenyl, C 5-14 cycloalkylene, or C 5-14 cycloalkenylene, or C 6-14 aryl, each of which groups may be interrupted by one or more heteroatoms or substituted by one or more heteroatom containing groups; n is 0-5; and, q is 1-5. (a) a (meth)acrylate component; (b) an anaerobic cure system; and (c) a compound having structure II below: n is 0-5; and, q is 1-5.
A microwave oven comprising: a cavity; a first microwave supply system configured to supply microwaves to a bottom of the cavity for energizing a crisp function, wherein the first microwave supply system comprises a first microwave generator configured as a solid-state based microwave generator and connected to a transmission line for supplying microwaves to a rotatable antenna via a first feeding port; a second microwave supply system configured to supply microwaves to the cavity for exciting cavity modes; a heating system configured to provide a broiling function to the cavity; and a control unit configured to control the first microwave supply system, the second microwave supply system, and the heating system based on a mode of operation selected via a user interface, wherein the microwave oven is characterized in that the mode of operation includes a crisp mode, and wherein selection of the crisp mode prompts the control unit to activate the first microwave supply system, the second microwave supply system, and the heating system. a cavity; a first microwave supply system configured to supply microwaves to a bottom of the cavity for energizing a crisp function, wherein the first microwave supply system comprises a first microwave generator configured as a solid-state based microwave generator and connected to a transmission line for supplying microwaves to a rotatable antenna via a first feeding port; a second microwave supply system configured to supply microwaves to the cavity for exciting cavity modes; a heating system configured to provide a broiling function to the cavity; and a control unit configured to control the first microwave supply system, the second microwave supply system, and the heating system based on a mode of operation selected via a user interface, wherein the microwave oven is characterized in that the mode of operation includes a crisp mode, and wherein selection of the crisp mode prompts the control unit to activate the first microwave supply system, the second microwave supply system, and the heating system.
A RFID tag comprising: a mounting member, comprising: a shell member comprising an opening formed through a curved surface of the shell member; an extension positioned with the shell member and configured for attachment to a correspondingly configured surface; a elastomeric member, positioned in the shell member, wherein the elastomeric member when positioned in the shell member protrudes through the opening; and an RFID electronics assembly, positioned within the elastomeric member; characterised in that the curved surface of the shell member where the elastomeric member is positioned has a convex configuration protruding outwardly in a direction perpendicular to the curved surface. a mounting member, comprising: a shell member comprising an opening formed through a curved surface of the shell member; an extension positioned with the shell member and configured for attachment to a correspondingly configured surface; a elastomeric member, positioned in the shell member, wherein the elastomeric member when positioned in the shell member protrudes through the opening; and an RFID electronics assembly, positioned within the elastomeric member; characterised in that the curved surface of the shell member where the elastomeric member is positioned has a convex configuration protruding outwardly in a direction perpendicular to the curved surface. a shell member comprising an opening formed through a curved surface of the shell member; an extension positioned with the shell member and configured for attachment to a correspondingly configured surface; a elastomeric member, positioned in the shell member, wherein the elastomeric member when positioned in the shell member protrudes through the opening; and an RFID electronics assembly, positioned within the elastomeric member; characterised in that the curved surface of the shell member where the elastomeric member is positioned has a convex configuration protruding outwardly in a direction perpendicular to the curved surface.
A radiation treatment system comprising: a drive stand; a gantry with a treatment-delivering X-ray source and an imaging X-ray source mounted thereon, wherein the gantry is rotatably coupled to the drive stand and is configured to rotate in a first direction about a bore of the radiation treatment system at a first rotational velocity; an annular support structure that is rotatably coupled to the drive stand and is configured to rotate in the first direction about the bore of the radiation treatment system at a second rotational velocity when the gantry rotates about the bore at the first rotational velocity, wherein the second rotational velocity is one half the first rotational velocity; and a processor configured to: while rotating the gantry in a first direction about the bore from a first position to a treatment position, generate multiple images of a target volume disposed in the bore using the imaging X-ray source; and upon rotating the gantry to the treatment position: initiate delivery of a treatment beam to the target volume with the treatment delivering X-ray source; and continue to rotate the gantry a complete revolution in the first direction from the treatment position to the treatment position. a drive stand; a gantry with a treatment-delivering X-ray source and an imaging X-ray source mounted thereon, wherein the gantry is rotatably coupled to the drive stand and is configured to rotate in a first direction about a bore of the radiation treatment system at a first rotational velocity; an annular support structure that is rotatably coupled to the drive stand and is configured to rotate in the first direction about the bore of the radiation treatment system at a second rotational velocity when the gantry rotates about the bore at the first rotational velocity, wherein the second rotational velocity is one half the first rotational velocity; and a processor configured to: while rotating the gantry in a first direction about the bore from a first position to a treatment position, generate multiple images of a target volume disposed in the bore using the imaging X-ray source; and upon rotating the gantry to the treatment position: initiate delivery of a treatment beam to the target volume with the treatment delivering X-ray source; and continue to rotate the gantry a complete revolution in the first direction from the treatment position to the treatment position. while rotating the gantry in a first direction about the bore from a first position to a treatment position, generate multiple images of a target volume disposed in the bore using the imaging X-ray source; and upon rotating the gantry to the treatment position: initiate delivery of a treatment beam to the target volume with the treatment delivering X-ray source; and continue to rotate the gantry a complete revolution in the first direction from the treatment position to the treatment position. initiate delivery of a treatment beam to the target volume with the treatment delivering X-ray source; and continue to rotate the gantry a complete revolution in the first direction from the treatment position to the treatment position.
A method for producing a hydrogen enriched fuel comprising: providing a flow of methane gas at a selected flow rate; providing catalyst of 81 wt % NiO and 19 wt.% Al 2 O 3; irradiating the methane gas under a negative pressure of from 2666,45 Pascal (20 mmHg) to 26664,5 Pascal (200 mmHg) using microwave irradiation at a microwave power from 70 W to 140 W to form a methane plasma; directing the methane plasma over the catalyst; and controlling the flow of methane gas and the microwave power to produce a product gas having a selected composition. providing a flow of methane gas at a selected flow rate; providing catalyst of 81 wt % NiO and 19 wt.% Al 2 O 3; irradiating the methane gas under a negative pressure of from 2666,45 Pascal (20 mmHg) to 26664,5 Pascal (200 mmHg) using microwave irradiation at a microwave power from 70 W to 140 W to form a methane plasma; directing the methane plasma over the catalyst; and controlling the flow of methane gas and the microwave power to produce a product gas having a selected composition.
A method for forming a conductive oxide layer on a substrate, the method comprising: sputtering a transparent conductive oxide layer on a substrate from a target in a sputtering atmosphere comprising cadmium, wherein the target comprises cadmium stannate, and wherein the transparent conductive oxide layer is sputtered at a sputtering temperature of 100° C to 600° C. sputtering a transparent conductive oxide layer on a substrate from a target in a sputtering atmosphere comprising cadmium, wherein the target comprises cadmium stannate, and wherein the transparent conductive oxide layer is sputtered at a sputtering temperature of 100° C to 600° C.
Composition for producing an electrically conductive layer by a slot die process, comprising 2 - 30 % by weight of a protective colloid mixture which is soluble or dispersible in water, 1 - 15% by weight of a conductive carbon modification, 5 - 50 % by weight of metal-coated particles, 50 - 90 % by weight of a water-containing solvent, wherein the dynamic viscosity of the conductive composition is less than 400 mPa·s, characterized in that the composition comprises 0.1-10% by weight of an ethylene-vinyl acetate copolymer. 2 - 30 % by weight of a protective colloid mixture which is soluble or dispersible in water, 1 - 15% by weight of a conductive carbon modification, 5 - 50 % by weight of metal-coated particles, 50 - 90 % by weight of a water-containing solvent, wherein the dynamic viscosity of the conductive composition is less than 400 mPa·s, characterized in that the composition comprises 0.1-10% by weight of an ethylene-vinyl acetate copolymer.
A control method, comprising: entering, by a powered device, a first status, wherein the first status is a power level detection state; and wherein the powered device includes one or more first loads and a second load; characterized in that the powered device controls at least one of the one or more first loads in the powered device to be in a connected state and the second load in the powered device to be in a disconnected state, wherein the connected state indicates a status in which the load is connected to a circuit, and the disconnected state indicates a status in which the load is not connected to the circuit, and in the first status, the at least one of the one or more first loads is in the connected state for detecting a power level of the powered device and the second load is in the disconnected state, wherein the second load is a working load of the powered device in a second status and is in the connected state in the second status. entering, by a powered device, a first status, wherein the first status is a power level detection state; and wherein the powered device includes one or more first loads and a second load; characterized in that the powered device controls at least one of the one or more first loads in the powered device to be in a connected state and the second load in the powered device to be in a disconnected state, wherein the connected state indicates a status in which the load is connected to a circuit, and the disconnected state indicates a status in which the load is not connected to the circuit, and in the first status, the at least one of the one or more first loads is in the connected state for detecting a power level of the powered device and the second load is in the disconnected state, wherein the second load is a working load of the powered device in a second status and is in the connected state in the second status.
A system comprising: voltage sensing logic configured to determine a first source voltage V first source that corresponds to a first source; and a controller configured to receive an indication of V first source from the voltage sensing logic, and further configured to: responsive to V first source > a first output voltage, V 1, select a first source first voltage regulator to input V first source and to provide V 1; responsive to V first source > a second output voltage, V 2, select a first source second voltage regulator to input V first source and to provide V 2; and responsive to V 1 < V first source ≤ V 2, select a second source second voltage regulator to input a second source voltage V second source that corresponds to a second source, wherein V second source is substantially constant in time and V second source > V 2, and to provide V 2 independent of the first source first voltage regulator and of the first source second voltage regulator. voltage sensing logic configured to determine a first source voltage V first source that corresponds to a first source; and a controller configured to receive an indication of V first source from the voltage sensing logic, and further configured to: responsive to V first source > a first output voltage, V 1, select a first source first voltage regulator to input V first source and to provide V 1; responsive to V first source > a second output voltage, V 2, select a first source second voltage regulator to input V first source and to provide V 2; and responsive to V 1 < V first source ≤ V 2, select a second source second voltage regulator to input a second source voltage V second source that corresponds to a second source, wherein V second source is substantially constant in time and V second source > V 2, and to provide V 2 independent of the first source first voltage regulator and of the first source second voltage regulator. responsive to V first source > a first output voltage, V 1, select a first source first voltage regulator to input V first source and to provide V 1; responsive to V first source > a second output voltage, V 2, select a first source second voltage regulator to input V first source and to provide V 2; and responsive to V 1 < V first source ≤ V 2, select a second source second voltage regulator to input a second source voltage V second source that corresponds to a second source, wherein V second source is substantially constant in time and V second source > V 2, and to provide V 2 independent of the first source first voltage regulator and of the first source second voltage regulator.
A pentablock polymer according to the formula CBABC where A is polyethylene glycol or polylactic acid; B is poly(ε-caprolactone); and C is polyglycolic acid or polyethylene glycol; wherein the pentablock polymer is in the form of a nanoparticle when having a PGA-PCL-PEG-PCL-PGA configuration; and wherein the pentablock polymer is in the form of thermosensitive gel when having a PEG-PCL-PLA-PCL-PEG configuration.
A method of performing cell reselection based on priorities in a wireless communication system, the method comprising the steps of: measuring (S840, S910, S1010) signal characteristics of a plurality of candidate cells; determining (S842, S920, S1020) whether or not a measured signal characteristic of one of the plurality of candidate cells satisfies a predetermined criterion for a predetermined time duration established for the one of the plurality of candidate cells, wherein the predetermined time duration corresponds to a priority of the one of the plurality of candidate cells; and performing (S810, S930, S1030) cell reselection by selecting the one of the plurality of candidate cells when the measured signal characteristic satisfies the predetermined criterion for the predetermined time duration, wherein a predetermined time duration established for a high priority candidate cell is shorter than a predetermined time duration established for a low priority candidate cell. measuring (S840, S910, S1010) signal characteristics of a plurality of candidate cells; determining (S842, S920, S1020) whether or not a measured signal characteristic of one of the plurality of candidate cells satisfies a predetermined criterion for a predetermined time duration established for the one of the plurality of candidate cells, wherein the predetermined time duration corresponds to a priority of the one of the plurality of candidate cells; and performing (S810, S930, S1030) cell reselection by selecting the one of the plurality of candidate cells when the measured signal characteristic satisfies the predetermined criterion for the predetermined time duration, wherein a predetermined time duration established for a high priority candidate cell is shorter than a predetermined time duration established for a low priority candidate cell.