mhurhangee/ep-ind-claims huggingface dataset:
A method for processing wood chips, in which method - the wood chips are treated with steam in a gas removal apparatus, wherein condensate is formed, which condensate is removed from the gas removal apparatus and - the wood chips are treated with a processing solution in order to remove metal ions in the wood chips, characterized in that the condensate formed in the gas removal apparatus is used as the processing solution, the wood chips are treated with the processing solution when they move - on a wood chips discharging conveyor means connected to the gas removal apparatus and discharging wood chips from the gas removal apparatus, wherein a liquid level of the processing solution is formed in the wood chips discharging conveyor means; and/or - on a wood chips feeding conveyor means connected to the gas removal apparatus and feeding wood chips to the gas removal apparatus, wherein a liquid level of the processing solution is formed in the wood chips feeding conveyor means, through the liquid levels (L1, L2) of processing solution formed in the conveyor means (3, 7), wherein the conveyor means (3, 7) is a screw conveyor arranged in an upward inclined position in such a manner that a discharge end (3a, 7a) of the screw conveyor is higher than a feed end (3b, 7b) of the screw conveyor, and the screw conveyor is a waterproof screw conveyor. - the wood chips are treated with steam in a gas removal apparatus, wherein condensate is formed, which condensate is removed from the gas removal apparatus and - the wood chips are treated with a processing solution in order to remove metal ions in the wood chips, - on a wood chips discharging conveyor means connected to the gas removal apparatus and discharging wood chips from the gas removal apparatus, wherein a liquid level of the processing solution is formed in the wood chips discharging conveyor means; and/or - on a wood chips feeding conveyor means connected to the gas removal apparatus and feeding wood chips to the gas removal apparatus, wherein a liquid level of the processing solution is formed in the wood chips feeding conveyor means,
A display device, comprising: a curved display module to receive a control signal (MCS, ES) to display an image; a stand including a stand housing having a coupling groove which accommodates a portion of the curved display module; a first coupling unit including a first coupling housing coupled to the stand housing; and a second coupling unit including a second coupling housing coupled to the stand housing characterized in that the stand in the stand housing further includes an electric module to provide the control signal (MCS, ES) including an image signal in addition to a power signal for driving the curved display module; the coupling groove is curved for holding the portion of the curved display module so that the display module stands while a display surface thereof faces a user; the first coupling unit further includes a first module to receive and be driven by the control signal, the second coupling unit further includes a second module to receive and be driven by the control signal, wherein the second module is different from the first module. a curved display module to receive a control signal (MCS, ES) to display an image; a stand including a stand housing having a coupling groove which accommodates a portion of the curved display module; a first coupling unit including a first coupling housing coupled to the stand housing; and a second coupling unit including a second coupling housing coupled to the stand housing characterized in that the stand in the stand housing further includes an electric module to provide the control signal (MCS, ES) including an image signal in addition to a power signal for driving the curved display module; the coupling groove is curved for holding the portion of the curved display module so that the display module stands while a display surface thereof faces a user; the first coupling unit further includes a first module to receive and be driven by the control signal, the second coupling unit further includes a second module to receive and be driven by the control signal, wherein the second module is different from the first module.
An apparatus comprising at least one pair of first and second photodetectors, each photodetector of the photodetector pair (FET1, FET2) comprising a channel member (402, 502), respective source (403, 503) and drain (404, 504) electrodes configured to enable a flow of electrical current through the channel member (402, 502) between the source (403, 503) and drain (404, 504) electrodes, and a plurality of quantum dots (406, 506) configured to generate electron-hole pairs (409, 410, 509, 510) on exposure to incident electromagnetic radiation to produce a detectable change in the electrical current flowing through the channel member (402, 502), characterized in that the apparatus is configured such that the first and second photodetectors (FET1, FET2) of the photodetector pair generate electron-hole pairs (409, 410, 509, 510) which produce an increase and decrease in electrical current through the channel members (402, 502) respectively, the combined change in electrical current of the pair of first and second photodetectors (FET1, FET2) being indicative of one or more of the presence and magnitude of the incident electromagnetic radiation, and that the first and second photodetectors (FET1, FET2) of the photodetector pair are arranged such that the combined change in electrical current is converted into a corresponding voltage signal.
A heat exchanger comprising: a plurality of first fluid channels defining a flow path for a first fluid; a first fractal channel for conveying the first fluid to the plurality of first fluid channels; and a second fractal channel for conveying the first fluid from the plurality of first fluid channels; wherein the first fractal channel and the second fractal channel each comprises a parent channel, a plurality of sub-channels and at least one divergence point along its length where the parent channel splits into the plurality of sub-channels which diverge away from each other, and characterised in that one or each of the first fractal channel and the second fractal channel defines one or more through-channels for a second fluid to pass through the respective fractal channel, each through-channel extending from a parent channel side of the at least one divergence point and emerging between the corresponding sub-channels on a sub-channel side of the at least one the divergence point. a plurality of first fluid channels defining a flow path for a first fluid; a first fractal channel for conveying the first fluid to the plurality of first fluid channels; and a second fractal channel for conveying the first fluid from the plurality of first fluid channels; wherein the first fractal channel and the second fractal channel each comprises a parent channel, a plurality of sub-channels and at least one divergence point along its length where the parent channel splits into the plurality of sub-channels which diverge away from each other, and characterised in that one or each of the first fractal channel and the second fractal channel defines one or more through-channels for a second fluid to pass through the respective fractal channel, each through-channel extending from a parent channel side of the at least one divergence point and emerging between the corresponding sub-channels on a sub-channel side of the at least one the divergence point.
Process for manufacturing polyurethane cast products having a constant section, comprising: - a step of placing and fastening one or more injection molds on a bench that avoid two parts (a, b) from opening during the polyurethane foaming by means of some element that keeps the mold closed, where the mold parts (a, b) are manufactured by extrusion without any further modification or adaptation, the molds thus having open ends, - a step of closing a lower end of the mold by a lower lid, - a step of polyurethane injection through an end of the mold or molds, said mold or molds being arranged in tilted or vertical position on the bench to accumulate the possible formation of holes and cavities provoked by CO 2 bubbles only at a top part of the mold during a polyurethane foaming process, - a step of closing a top end of the mold by a gate-shaped axial pressure element, - a step of waiting for the polyurethane to expand, and - a step of withdrawing the mold from the bench. - a step of placing and fastening one or more injection molds on a bench that avoid two parts (a, b) from opening during the polyurethane foaming by means of some element that keeps the mold closed, where the mold parts (a, b) are manufactured by extrusion without any further modification or adaptation, the molds thus having open ends, - a step of closing a lower end of the mold by a lower lid, - a step of polyurethane injection through an end of the mold or molds, said mold or molds being arranged in tilted or vertical position on the bench to accumulate the possible formation of holes and cavities provoked by CO 2 bubbles only at a top part of the mold during a polyurethane foaming process, - a step of closing a top end of the mold by a gate-shaped axial pressure element, - a step of waiting for the polyurethane to expand, and - a step of withdrawing the mold from the bench.
Device for obtaining a material from a mixed fraction, which comprises particles of the desired material and particles of at least one further material with different optical properties than the desired material, said device comprising a first sorting apparatus with at least two outlet openings (5, 6) for particles separated from one another, characterized in that at least two further sorting apparatuses (S2, S3) with at least two outlet openings (5, 6) for particles separated from one another are located downstream of the first sorting apparatus, wherein - an outlet opening of the first sorting apparatus, for receiving a major fraction, is connected to the inlet opening of a first further sorting apparatus, - an outlet opening of the first sorting apparatus, for receiving a minor fraction, is connected to the inlet opening of a second further sorting apparatus, - an outlet opening of a first further sorting apparatus, for receiving a minor fraction, is connected to the inlet opening of the first sorting apparatus and - an outlet opening of a second further sorting apparatus, for receiving a major fraction, is connected to the inlet opening of the first sorting apparatus. - an outlet opening of the first sorting apparatus, for receiving a major fraction, is connected to the inlet opening of a first further sorting apparatus, - an outlet opening of the first sorting apparatus, for receiving a minor fraction, is connected to the inlet opening of a second further sorting apparatus, - an outlet opening of a first further sorting apparatus, for receiving a minor fraction, is connected to the inlet opening of the first sorting apparatus and - an outlet opening of a second further sorting apparatus, for receiving a major fraction, is connected to the inlet opening of the first sorting apparatus.
A feedback device (70, 82) adapted to be paired with a sensor device that is attached to a control device used in controlling a process in a process control system, the feedback device for providing position feedback to a controller of the control device in the process control system, the feedback device comprising: a first communication interface configured to receive, from the sensor device, a wireless signal indicative of a position of an actuator coupled to the control device; a second communication interface; and a signal generator configured to generate a position feedback signal based on the received wireless signal, wherein the signal generator is further configured to transmit the position feedback signal via the first communication interface or the second communication interface to at least one of the controller or a control system host (116, 118) of the process control system. a first communication interface configured to receive, from the sensor device, a wireless signal indicative of a position of an actuator coupled to the control device; a second communication interface; and a signal generator configured to generate a position feedback signal based on the received wireless signal, wherein the signal generator is further configured to transmit the position feedback signal via the first communication interface or the second communication interface to at least one of the controller or a control system host (116, 118) of the process control system.
Battery pack, comprising: a first cooling plate internally provided with a cooling channel; a second cooling plate located above the first cooling plate and internally provided with a cooling channel; and characterized in that, the battery pack further comprises a first support supporting the second cooling plate, wherein the first support is internally provided with a connection channel, and the connection channel and the cooling channels in the first cooling plate and the second cooling plate are in sealed connection; wherein the battery pack further comprises a first battery unit and a second battery unit, wherein the first battery unit is placed on the first cooling plate, the second battery unit is placed on the second cooling plate, and the second cooling plate is arranged above the first cooling plate, and a height for accommodating the first battery unit is reserved between the second cooling plate and the first cooling plate; wherein the number of the first supports is two, and the two first supports are arranged at two ends of the second cooling plate. a first cooling plate internally provided with a cooling channel; a second cooling plate located above the first cooling plate and internally provided with a cooling channel; and characterized in that, the battery pack further comprises a first support supporting the second cooling plate, wherein the first support is internally provided with a connection channel, and the connection channel and the cooling channels in the first cooling plate and the second cooling plate are in sealed connection; wherein the battery pack further comprises a first battery unit and a second battery unit, wherein the first battery unit is placed on the first cooling plate, the second battery unit is placed on the second cooling plate, and the second cooling plate is arranged above the first cooling plate, and a height for accommodating the first battery unit is reserved between the second cooling plate and the first cooling plate; wherein the number of the first supports is two, and the two first supports are arranged at two ends of the second cooling plate.
A non-woven mat for mounting a pollution control element in a casing of a pollution control device or for being disposed between an inner metal wall and an outer metal wall of an exhaust pipe, an end cone of a pollution control device, or an exhaust manifold of an internal combustion engine, said mat comprising a blend of fibers comprised of at least 25 percent by weight basalt fibers and at least 10 percent by weight fibers selected from the group consisting of amorphous refractory ceramic fibers, bio-soluble ceramic fibers, heat-treated silica fibers, and mixtures thereof, based on the total weight of the mat, wherein the non-woven mat is collectively comprised of at least 80 percent by weight of said basalt fibers and said fibers selected from the group consisting of amorphous refractory ceramic fibers, bio-soluble ceramic fibers, heat-treated silica fibers, and mixtures thereof, based on the total weight of the mat, and wherein the basalt fibers and the fibers selected from the group consisting of amorphous refractory ceramic fibers, bio-soluble ceramic fibers, heat-treated silica fibers, and mixtures thereof present in the blend collectively provide said non-woven mat with a Resiliency Value after three thermal cycles from 25°C to 700°C/400°C of the Real Condition Fixture Test at least 1.1 times greater than the Resiliency Value of a comparable non-woven mat consisting of any individual basalt fibers, amorphous refractory ceramic fibers, bio-soluble ceramic fibers, and heat-treated silica fibers, present in the non-woven mat comprised of the blend of fibers.
A polymeric netting comprising polymeric ribbons and polymeric strands (104, 104'), each of the polymeric ribbons and polymeric strands (104, 104') having a length (102a, 104a), a width (102b, 104b), and a thickness (102c, 104c), wherein the length (102a, 104a) is the longest dimension and the width (102b, 104b) is the shortest dimension, wherein a plurality of the polymeric strands (104, 104') are bonded together to form a netting layer, wherein adjacent polymeric strands (104, 104') in the netting layer are bonded intermittently at multiple locations along their respective lengths, wherein the netting layer has first and second opposing major surfaces (120, 121), wherein the polymeric ribbons have a thickness -to-width aspect ratio of at least 2:1 and a minor surface defined by their width and length, and wherein the minor surface of a plurality of the polymeric ribbons is bonded to the first major surface of the netting layer.
A sulfur-carbon composite, comprising a carbon-carbon composite substrate (CNT@MPC) and sulfur loaded into said carbon-carbon composite substrate (CNT@MPC), wherein said carbon-carbon composite substrate (CNT@MPC) is formed by carbon nanotubes (CNTs) and a microporous carbon coating layer applied onto the surface of the carbon nanotubes (CNTs), wherein said carbon-carbon composite substrate (CNT@MPC) has a coaxial cable-like structure and sulfur is homogeneously dispersed in said microporous carbon coating layer.
A computer-implemented method executed by a computer which is electrically connected with a handwriting device, the method comprising: obtaining a form identifier converted from a graphically represented identifier of a document from the handwriting device, wherein the form identifier is associated with a location and a field type for an input area of the document, wherein the form identifier, the location, and the field type are stored in a metadata stream of the document; obtaining a positional signal of handwriting from the handwriting device; and associating the positional signal of the handwriting with the input area based on the form identifier, the location, and the field type, wherein the positional signal comprises a series of point locations and associating the positional signal of the handwriting with the input area comprises determining whether the point locations are within a bleed margin of the input area, the bleed margin considered to be part of the input area. obtaining a form identifier converted from a graphically represented identifier of a document from the handwriting device, wherein the form identifier is associated with a location and a field type for an input area of the document, wherein the form identifier, the location, and the field type are stored in a metadata stream of the document; obtaining a positional signal of handwriting from the handwriting device; and associating the positional signal of the handwriting with the input area based on the form identifier, the location, and the field type, wherein the positional signal comprises a series of point locations and associating the positional signal of the handwriting with the input area comprises determining whether the point locations are within a bleed margin of the input area, the bleed margin considered to be part of the input area.
An intramedullary rod for use with a fastener to repair a bone in a mammalian body comprising an elongate nail extending along a longitudinal axis and having a stem and a head, the head being provided with an aperture extending at an angle to the longitudinal axis and adapted to receive the fastener, characterized in that a mechanism is disposed within the head of the nail for pivoting the fastener from a first angled position relative to the head to a second angled position relative to the head, the head of the nail being provided with a proximal opening along the longitudinal axis for permitting adjustment of the mechanism in situ.
A hydraulic vitrectomy probe system comprising: a pneumatic pressure source adapted to repeatedly cycle application of a pressurized gas; a hydraulically actuated vitrectomy probe (300,400,500,600); and a pressure multiplier coupled at a first portion to the pneumatic pressure source and at a second portion to the hydraulically actuated vitrectomy probe and adapted to convert a pneumatic pressure received from the pneumatic pressure source into a hydraulic pressure output to the hydraulically actuated vitrectomy probe, the pressure multiplier comprising: a first chamber; a first diaphragm housed in the first chamber; a second chamber; a second diaphragm housed in the second chamber, the first diaphragm and the second diaphragm coupled to each other. a pneumatic pressure source adapted to repeatedly cycle application of a pressurized gas; a hydraulically actuated vitrectomy probe (300,400,500,600); and a pressure multiplier coupled at a first portion to the pneumatic pressure source and at a second portion to the hydraulically actuated vitrectomy probe and adapted to convert a pneumatic pressure received from the pneumatic pressure source into a hydraulic pressure output to the hydraulically actuated vitrectomy probe, the pressure multiplier comprising: a first chamber; a first diaphragm housed in the first chamber; a second chamber; a second diaphragm housed in the second chamber, the first diaphragm and the second diaphragm coupled to each other. a first chamber; a first diaphragm housed in the first chamber; a second chamber; a second diaphragm housed in the second chamber, the first diaphragm and the second diaphragm coupled to each other.