mhurhangee/ep-ind-claims huggingface dataset:
A carbon dioxide CO2 snow charger system adapted to produce CO2 snow block, comprising: a meshed conduit (3; 303; 403), said meshed conduit comprising porous openings (16; 307) sufficient for CO2 off-gas to pass through the openings into an internal passageway of the meshed conduit, but substantially block entry of particles from the CO2 snow block into the internal passageway, said meshed conduit having sufficient rigidity to pack the CO2 snow block generated external to the meshed conduit; and a CO2 snow charger (4; 304; 404) operably or integrally connected to the meshed conduit (3; 30; 403), said CO2 snow charger comprising a conduit network (8; 306; 406) with a plurality of nozzles (12; 301), the snow charger further comprising one or more exhaust openings in fluid communication with the internal passageway of the meshed conduit, said one or more exhaust opening configured to allow gas to vent therethrough; characterized in that the plurality of nozzles are configured to selectively direct CO2 fluid external to the meshed conduit while substantially avoiding introduction of CO2 liquid into the internal passageway of the meshed conduit. a meshed conduit (3; 303; 403), said meshed conduit comprising porous openings (16; 307) sufficient for CO2 off-gas to pass through the openings into an internal passageway of the meshed conduit, but substantially block entry of particles from the CO2 snow block into the internal passageway, said meshed conduit having sufficient rigidity to pack the CO2 snow block generated external to the meshed conduit; and a CO2 snow charger (4; 304; 404) operably or integrally connected to the meshed conduit (3; 30; 403), said CO2 snow charger comprising a conduit network (8; 306; 406) with a plurality of nozzles (12; 301), the snow charger further comprising one or more exhaust openings in fluid communication with the internal passageway of the meshed conduit, said one or more exhaust opening configured to allow gas to vent therethrough; characterized in that the plurality of nozzles are configured to selectively direct CO2 fluid external to the meshed conduit while substantially avoiding introduction of CO2 liquid into the internal passageway of the meshed conduit.
A refrigerator, comprising: a liner forming a refrigeration compartment of the refrigerator; a wine rack having a bottle placing portion and an end being connected to a side wall of the refrigeration compartment and pivoting about an axis in an up-down direction, wherein the wine rack is capable of shifting between a first positon where the wine rack abuts against the side wall and a second position where the wine rack is perpendicular to the side wall; characterized by an auxiliary bracket being connected to a rear wall of the refrigeration compartment and opposite to the bottle placing portion. a liner forming a refrigeration compartment of the refrigerator; a wine rack having a bottle placing portion and an end being connected to a side wall of the refrigeration compartment and pivoting about an axis in an up-down direction, wherein the wine rack is capable of shifting between a first positon where the wine rack abuts against the side wall and a second position where the wine rack is perpendicular to the side wall; characterized by an auxiliary bracket being connected to a rear wall of the refrigeration compartment and opposite to the bottle placing portion.
A method for three-dimensional modeling of the surface features of an intraoral scene for a dental application, the method comprising: • generating a two-dimensional array of a plurality of two-dimensional patterns being random in one direction, or generating a two-dimensional array of a plurality of two-dimensional patterns being random in two directions, wherein each of said plurality of two-dimensional patterns includes pixel aggregates and each of said pixel aggregates forms a distinct pattern, which is different from the other patterns of said plurality of two-dimensional patterns, and also is distinctly different from a background; • saving said array in a projectable medium; • projecting said array from said projectable medium onto a reference surface from a first angle; • acquiring a first image of said array projected on said reference surface, wherein said acquiring said first image is performed from a second angle; • projecting said array from said projectable medium onto the intra-oral scene from said first angle; • acquiring a second image of said array projected on the intra-oral scene from said second angle; • obtaining x-y information in the intra-oral scene from the second image; • obtaining z information in the intra-oral scene by performing a triangulation of each of the patterns in the array on the second image with reference to the first image; and • constructing a three-dimensional model of the intra-oral scene based on said x-y and z information. • generating a two-dimensional array of a plurality of two-dimensional patterns being random in one direction, or generating a two-dimensional array of a plurality of two-dimensional patterns being random in two directions, wherein each of said plurality of two-dimensional patterns includes pixel aggregates and each of said pixel aggregates forms a distinct pattern, which is different from the other patterns of said plurality of two-dimensional patterns, and also is distinctly different from a background; • saving said array in a projectable medium; • projecting said array from said projectable medium onto a reference surface from a first angle; • acquiring a first image of said array projected on said reference surface, wherein said acquiring said first image is performed from a second angle; • projecting said array from said projectable medium onto the intra-oral scene from said first angle; • acquiring a second image of said array projected on the intra-oral scene from said second angle; • obtaining x-y information in the intra-oral scene from the second image; • obtaining z information in the intra-oral scene by performing a triangulation of each of the patterns in the array on the second image with reference to the first image; and • constructing a three-dimensional model of the intra-oral scene based on said x-y and z information.
Integrated aircraft structure of composite material comprising a skin, a plurality of stringers and a plurality of frames; the stringers and the frames being arranged such that there are crossing zones between them; the frames comprising mouseholes for the passage of stringers at their crossing zones; at least an inner reinforcing element, made of a composite material, for at least one stringer in a stretch located between two adjacent frames; said inner reinforcing element comprising a lower part configured with a suitable shape to be superimposed to the stringer in said stretch characterized in that the reinforcing element further comprises an upper part configured with a web and a cap; the lower part and the web including respectively at their ends joining flaps (48, 49) to the web of the adjacent frames; the lower part including resting feet on the skin.
An oligomer combination for amplifying and detecting human parvovirus genotypes 1, 2 and 3 comprising: (i) at least one amplification oligomer comprising a nucleotide sequence selected from the group consisting of SEQ ID NOs: 47, 48 & 50; (ii) a first promoter-based amplification oligomer that is SEQ ID NO:76; (iii) a second promoter-based amplification oligomer that is SEQ ID NO:81; and (iv) a detection probe oligomer that is SEQ ID NO: 42. (i) at least one amplification oligomer comprising a nucleotide sequence selected from the group consisting of SEQ ID NOs: 47, 48 & 50; (ii) a first promoter-based amplification oligomer that is SEQ ID NO:76; (iii) a second promoter-based amplification oligomer that is SEQ ID NO:81; and (iv) a detection probe oligomer that is SEQ ID NO: 42.
A vapor delivery device comprising: a reservoir, configured to contain an amount of fluid; an ejector, configured to be coupled to the reservoir to receive the fluid; characterized by a drop counting module, configured to predict change in drop volume, so to detect the amount of the fluid in the reservoir; and a controller, configured to fire the ejector to express a given dosage of the fluid through a number of nozzles in the ejector into an airstream at a firing frequency and for a firing duration, wherein the controller is configured to control the ejector to maintain the given dosage of the fluid. as the amount of the fluid within the reservoir decreases, the controller is configured to adjust at least one of the firing frequency of the ejector, the number of nozzles, and the firing duration. a reservoir, configured to contain an amount of fluid; an ejector, configured to be coupled to the reservoir to receive the fluid; characterized by a drop counting module, configured to predict change in drop volume, so to detect the amount of the fluid in the reservoir; and a controller, configured to fire the ejector to express a given dosage of the fluid through a number of nozzles in the ejector into an airstream at a firing frequency and for a firing duration, wherein the controller is configured to control the ejector to maintain the given dosage of the fluid. as the amount of the fluid within the reservoir decreases, the controller is configured to adjust at least one of the firing frequency of the ejector, the number of nozzles, and the firing duration.
An intake system having an air/fuel mixer for a multicylinder internal combustion engine with natural gas or LPG, or for an engine of the "dual-fuel" type, including an intake manifold, at least one electronic fuel injector and at least one intake channel for the air/fuel mixture into the combustion chamber of each cylinder of the engine, also including a mixer tube extending the injector, positioned transversely relative to the intake channel and having a plurality of orifices for the discharge of the fuel and the mixing thereof with the flow of combustion air in said intake channel, characterized in that the intake system includes a plate belonging to the intake manifold, serving as the seal between the latter and the cylinder head of the engine, said plate comprising two intake channels for each cylinder of the engine and being machined so as to allow the insertion therein and the fastening of the injector and of two mixer tubes in communication with the injector, at an angle such that a mixer tube is positioned in each of the two intake channels essentially diametrically.
A preparation method for a super absorbent polymer sheet, comprising the steps of: preparing a monomer composition comprising a water-soluble ethylene-based unsaturated monomer having at least partially neutralized acidic groups, a polymerization initiator, an internal cross-linking agent, a foam stabilizer, an ionic polymeric binder, and an inorganic filler; preparing a hydrogel polymer by thermal polymerization or photopolymerization of the monomer composition; drying the hydrogel polymer to form a super absorbent polymer; and forming the super absorbent polymer into a sheet form, wherein the ionic polymeric binder comprises at least one selected from the group consisting of carboxymethyl cellulose, and poly(sodium-4-styrene sulfonate. preparing a monomer composition comprising a water-soluble ethylene-based unsaturated monomer having at least partially neutralized acidic groups, a polymerization initiator, an internal cross-linking agent, a foam stabilizer, an ionic polymeric binder, and an inorganic filler; preparing a hydrogel polymer by thermal polymerization or photopolymerization of the monomer composition; drying the hydrogel polymer to form a super absorbent polymer; and forming the super absorbent polymer into a sheet form, wherein the ionic polymeric binder comprises at least one selected from the group consisting of carboxymethyl cellulose, and poly(sodium-4-styrene sulfonate.
An accumulator cell, which is formed as a tubular cell for connecting to a channel structure for thermal conditioning of a module made up of a plurality of accumulator cells and of a battery made up of a plurality of modules, which has a tubular container having an outer shell, an inner shell and a center axis (x), which tubular container accommodates a multilayer inner structure made up of cathode-side electrodes (+) with cathode foils and a cathode coating and of anode-side electrodes (-) with anode foils and an anode coating and of a separator exclusively permeable to metal ions between the electrodes (+,-) as well as of an insulation between the electrodes (+,-) among themselves and between the electrodes (+,-) and the tubular container, which has a tubular piece arranged coaxially to the central axis (x) through which a heat transfer fluid can flow, which accumulator cell is intended to transfer heat both on its inner side on the tubular piece and on its outer side on the tubular container to a heat transfer fluid or vice versa, which multilayer inner structure has a surface enlargement formed by a microstructure, which surface enlargement is formed by line-shaped structural elements or by point-shaped structural elements on the cathode foils or on the anode foils (120, 121) and is designed to expand the electrochemically active contact area to the cathode coating on the cathode-side electrode (+) or to the anode coating on the anode-side electrode (-), such that the electrochemical capacity of the accumulator cell is increased, which multilayer inner structure has a stack with a central aperture consisting of a plurality of planar layers of cathode foils with a cathode coating and of anode foils with an anode coating and of a separator between the electrodes (+,-), said plurality of planar layers being aligned perpendicularly to the central axis (x), wherein the accumulator cell is designed to enable a single or multiple stacks to be connected to a heat exchanger in such a way that the inner shell of the tubular container is formed by the outer shell of the heat transfer tube or by the outer shell of the heat tube and a single accumulator cell can be produced from a single stack and a multiple accumulator cell can be produced from a plurality of stacks, wherein the multiple accumulator cell forms a tubular module for the assembly of a battery.
Illumination device for vehicles with a light source carrier for holding a plurality of light sources (5, 6) and with a reflector that is arranged behind, in the main beam direction of the illumination device, the light source holder for the purpose of reflecting a light bundle emitted by the plurality of light sources (5, 6) forwards, in the main beam direction, where the light sources (5, 6) are arranged on a rear, in the direction of the main beam direction, side of the light source carrier, whereby in front of, in the direction of the main beam direction, the light source carrier a covering element is arranged, characterized in that - the covering element has been provided with lettering - at least one light source on a first side of a central plane of the light source carrier and at least one second light source is arranged on a second side of the central plane of the light source carrier - the reflector features on the first side of the central plane of the light source carrier a first reflector section and on the second side of the central plane of the light source carrier a second reflector section - a cover is allocated to the at least one first light source and the at least one second light source with a cover area comprising a first cover edge allocated to one of the first light sources and a second cover edge allocated to one of the second light sources such that a light beam emitted by the first light source hits exclusively the first reflector section and a light beam emitted by the at least one second light source exclusively hits the second reflector section and - the light source carrier takes the form of a printed circuit board. - the covering element has been provided with lettering - at least one light source on a first side of a central plane of the light source carrier and at least one second light source is arranged on a second side of the central plane of the light source carrier - the reflector features on the first side of the central plane of the light source carrier a first reflector section and on the second side of the central plane of the light source carrier a second reflector section - a cover is allocated to the at least one first light source and the at least one second light source with a cover area comprising a first cover edge allocated to one of the first light sources and a second cover edge allocated to one of the second light sources such that a light beam emitted by the first light source hits exclusively the first reflector section and a light beam emitted by the at least one second light source exclusively hits the second reflector section and - the light source carrier takes the form of a printed circuit board.
A centrifugal separator configured to separate liquid and solid particles from a flow of gas generated by a machine, wherein the centrifugal separator comprises: - a centrifugal rotor, - a hydraulic drive arrangement (7, 9) configured to rotate the centrifugal rotor, - a hydraulic connection for connecting the hydraulic drive arrangement (7, 9) to a hydraulic circuit of the machine, and - a connecting portion for connecting the centrifugal separator to the machine, characterised in that the hydraulic connection is arranged on the connecting portion, and wherein the connecting portion is configured to be inserted into a connecting aperture of the machine. - a centrifugal rotor, - a hydraulic drive arrangement (7, 9) configured to rotate the centrifugal rotor, - a hydraulic connection for connecting the hydraulic drive arrangement (7, 9) to a hydraulic circuit of the machine, and - a connecting portion for connecting the centrifugal separator to the machine, characterised in that
Seat attachment device, in particular airplane seat attachment device, for fixating a seat element (10a; 10c), in particular a seat bottom, to a support element (12a; 12c), with a connection module (14a, 34a; 14b; 14d) configured, for the purpose of connecting to the support element (12a; 12c), to at least partly enclose the support element (12a; 12c) in a circumferential direction in a mounted state, with a fixation module (16a; 16b; 16c; 16d), which is in a mounted state connected to the connection module (14a, 34a; 14b; 14c; 14d) via at least one releasable coupling point (18a, 20a; 18b, 20b; 18c, 20c; 18d, 20d) and partially encloses the support element (12a; 12c), wherein the connection module (14a, 34a; 14b) comprises a base body (64a; 64b), characterised in that the connection module (14a, 34a; 14b) comprises at least one connection element (66a; 66b) which is in at least one mounted operative state slideably connected to the base body (64a; 64b) and is configured for connecting the seat element (10a; 10c) to the connection module (14a, 34a; 14b; 14c; 14d).
Method for controlling the speed of a harvesting machine which is movable in a forwards direction over a field at a propulsion speed and, in the process, picks up crop, with the following steps: predictively determining the density of a crop stand on the field or of a value dependent on the density of the crop stand on the field, advanced planning of a speed specification signal for the harvesting machine with the effect of continuously maintaining a desired throughput of the harvesting machine, and controlling the speed of the harvesting machine on the basis of the speed specification signal, characterized in that, during the advanced planning of the speed specification signal, the absolute values of the harvesting-machine accelerations resulting from the speed specification signal are limited to a defined maximum value, and in that the advance planning of the speed specification signal comprises a first step, in which the speed signal is planned only on the basis of the density of the crop stand or on the value dependent thereon, and a second step, in which new planning takes place if the value of the harvesting-machine acceleration planned in the first step exceeds the defined maximum value. predictively determining the density of a crop stand on the field or of a value dependent on the density of the crop stand on the field, advanced planning of a speed specification signal for the harvesting machine with the effect of continuously maintaining a desired throughput of the harvesting machine, and controlling the speed of the harvesting machine on the basis of the speed specification signal, characterized in that, during the advanced planning of the speed specification signal, the absolute values of the harvesting-machine accelerations resulting from the speed specification signal are limited to a defined maximum value, and in that the advance planning of the speed specification signal comprises a first step, in which the speed signal is planned only on the basis of the density of the crop stand or on the value dependent thereon, and a second step, in which new planning takes place if the value of the harvesting-machine acceleration planned in the first step exceeds the defined maximum value.
An aromatic polycarbonate oligomer solid comprising a repeating unit represented by the following formula and having a weight average molecular weight of 500 to 10000, a low molecular weight component of 5.0 area% or less as measured by high performance liquid chromatography, and a loose bulk density of 0.22 g/cm 3 or more, wherein the weight average molecular weight is determined by gel permeation chromatography measurement as described in the present specification, and wherein the low molecular weight component is a component containing a compound having an absolute molecular weight of not more than an absolute molecular weight of a transesterification condensate obtained by condensation of two molecules of an aromatic dihydroxy compound and three molecules of a carbonate precursor. wherein the weight average molecular weight is determined by gel permeation chromatography measurement as described in the present specification, and wherein the low molecular weight component is a component containing a compound having an absolute molecular weight of not more than an absolute molecular weight of a transesterification condensate obtained by condensation of two molecules of an aromatic dihydroxy compound and three molecules of a carbonate precursor.