mhurhangee/ep-ind-claims huggingface dataset:
A resin composition for a hard coating, comprising: a siloxane resin configured such that compounds including an alkoxysilane of Chemical Formula 1 below and an alkoxy metal compound of Chemical Formula 2 below are chemically bound, wherein the siloxane resin does not include a chemically bound compound of Chemical Formula 3 and has a weight average molecular weight of 5,000 to 22,000 and a polydispersity index of 1.5 to 3.1, wherein the molecular weight and the PDI (Mw/Mn) are obtained by applying a weight average molecular weight (Mw) and a number average molecular weight (Mn), as converted in terms of polystyrene standard by gel permeation chromatography, and wherein the alkoxy metal compound is contained in an amount of 0.2 mol% to 5.0 mol% based on a total molar amount of the alkoxysilane and the alkoxy metal compound: <Chemical Formula 1> R 1 n Si(OR 2) 4-n <Chemical Formula 2> M(OR 3) m <Chemical Formula 3> Si(OR 3) 4 in Chemical Formulas 1 and 2, R 1 is a linear C 1 to C 3 alkyl group having an alicyclic epoxy group, R 2 is a linear or branched C 1 to C 4 alkyl group, R 3 is a linear or branched C 1 to C 4 alkyl group, M is at least one metal element selected from the group consisting of aluminum, titanium, and zinc, n is an integer of 1 to 3, and m is an integer of 2 to 4, in Chemical Formula 3, R 3 is a C 1 to C 4 linear or branched alkyl group. a siloxane resin configured such that compounds including an alkoxysilane of Chemical Formula 1 below and an alkoxy metal compound of Chemical Formula 2 below are chemically bound, wherein the siloxane resin does not include a chemically bound compound of Chemical Formula 3 and has a weight average molecular weight of 5,000 to 22,000 and a polydispersity index of 1.5 to 3.1, wherein the molecular weight and the PDI (Mw/Mn) are obtained by applying a weight average molecular weight (Mw) and a number average molecular weight (Mn), as converted in terms of polystyrene standard by gel permeation chromatography, and wherein the alkoxy metal compound is contained in an amount of 0.2 mol% to 5.0 mol% based on a total molar amount of the alkoxysilane and the alkoxy metal compound: <Chemical Formula 1> R 1 n Si(OR 2) 4-n <Chemical Formula 2> M(OR 3) m <Chemical Formula 3> Si(OR 3) 4 in Chemical Formulas 1 and 2, R 1 is a linear C 1 to C 3 alkyl group having an alicyclic epoxy group, R 2 is a linear or branched C 1 to C 4 alkyl group, R 3 is a linear or branched C 1 to C 4 alkyl group, M is at least one metal element selected from the group consisting of aluminum, titanium, and zinc, n is an integer of 1 to 3, and m is an integer of 2 to 4, in Chemical Formula 3, R 3 is a C 1 to C 4 linear or branched alkyl group.
A bone graft substitute formulation comprising: i) a particulate composition component comprising calcium sulfate hemihydrate powder, monocalcium phosphate monohydrate powder, and β-tricalcium phosphate powder, wherein the calcium sulfate hemihydrate powder is present in an amount of about 65 weight percent to about 85 weight percent based on the total weight of the particulate composition component; and ii) an aqueous solution component, wherein the bone graft substitute formulation has a liquid weight to powder weight ratio (L/P) of about 0.35 to about 0.40. i) a particulate composition component comprising calcium sulfate hemihydrate powder, monocalcium phosphate monohydrate powder, and β-tricalcium phosphate powder, wherein the calcium sulfate hemihydrate powder is present in an amount of about 65 weight percent to about 85 weight percent based on the total weight of the particulate composition component; and ii) an aqueous solution component,
An electrical distribution module, comprising a plate to which pedestals carrying power components (26, 27) and power bars (33a-35a, 33b-35b, 33c-35c) connected to these power components (26, 27) are attached, characterised in that each pedestal comprises a base for attaching to the plate provided with posts spaced apart from each other and bridges each connecting two consecutive posts, each bridge being at a distance from the base to delimit, with this base and with the posts which it joins, an opening for a power bar (34a, 34b, 34c) to pass between the plate and the power component (26, 27) carried by this pedestal.
A power conversion apparatus comprising: a charging apparatus that charges a battery using an external power supply; an inverter that converts a current of the battery from a direct current to an alternating-current and that supplies the alternating-current to a motor; and a junction box that relays electrical connection, wherein the inverter, the charging apparatus, and the junction box are housed in a single casing (11, 12), characterized in that the charging apparatus and the junction box are electrically connected to each other while the junction box and the inverter are electrically connected to each other, and the junction box and the inverter are connected to each other via a bus bar. a charging apparatus that charges a battery using an external power supply; an inverter that converts a current of the battery from a direct current to an alternating-current and that supplies the alternating-current to a motor; and a junction box that relays electrical connection, wherein the inverter, the charging apparatus, and the junction box are housed in a single casing (11, 12), characterized in that the charging apparatus and the junction box are electrically connected to each other while the junction box and the inverter are electrically connected to each other, and the junction box and the inverter are connected to each other via a bus bar.
A knee prosthesis for implantation into a knee joint compartment between a femoral condyle and its corresponding tibial plateau, the prosthesis comprising: a body having a generally elliptical shape in plan and having a material thickness at a part center thereof, the body including a pair of opposed surfaces (104, 106) wherein one of the surfaces is at least partially concave, wherein the body is unicompartmental, the prosthesis free of any means of fixation within the knee joint compartment and configured to be movable within the knee joint during knee articulation, the body having an exterior portion and an interior portion, wherein the exterior portion encapsulates the interior portion and the exterior portion is constructed from a higher modulus material than the interior portion.
An illuminant comprising: a transparent substrate layer with a first index of refraction; a connecting layer with a second index of refraction that differs from the first index of refraction; and a metallic, translucent layer; wherein the connecting layer is arranged between the substrate layer and the metallic layer, characterized in that the substrate layer comprises a plurality of decoupling structures on the side facing the connecting layer, said decoupling structures being suitable for decoupling light (7, 8) that propagates within the substrate layer from the substrate layer in the direction towards the metallic layer, wherein the decoupling structures are formed as cavities within the substrate layer and wherein the cavities are at least partially filled with the material of the connecting layer. a transparent substrate layer with a first index of refraction; a connecting layer with a second index of refraction that differs from the first index of refraction; and a metallic, translucent layer; wherein the connecting layer is arranged between the substrate layer and the metallic layer, characterized in that the substrate layer comprises a plurality of decoupling structures on the side facing the connecting layer, said decoupling structures being suitable for decoupling light (7, 8) that propagates within the substrate layer from the substrate layer in the direction towards the metallic layer, wherein the decoupling structures are formed as cavities within the substrate layer and wherein the cavities are at least partially filled with the material of the connecting layer.
A method for decreasing noise from an input signal to generate a de-noised signal, the input signal comprising an intensity which is a function of at least one coordinate, the method comprising the steps of: a) applying a first noise reduction process to the input signal in a first direction along a first coordinate to generate a first component of the de-noised signal; b) applying a second noise reduction process to the input signal in a second direction along the same coordinate to generate a second component of the de-noised signal, the first and second directions being opposite to one another; c) detecting the presence of an edge in signal intensity in the input signal within the neighbourhood of a given point; and d) weighted averaging of at least the first and second components to generate a de-noised signal; characterised in that each of the first and second noise reduction processes in steps a) and b) is performed by an auto-regressive filtering technique with constant auto-regressive filtering coefficients; and in that step d) further comprises: applying a weighting to at least one of the first and second components if an edge is detected at the given point, the weighting being adjusted in accordance with to which side of the given point the detected edge lies; and applying the same weighting to each of the first and second components if no edge is detected at the given point. a) applying a first noise reduction process to the input signal in a first direction along a first coordinate to generate a first component of the de-noised signal; b) applying a second noise reduction process to the input signal in a second direction along the same coordinate to generate a second component of the de-noised signal, the first and second directions being opposite to one another; c) detecting the presence of an edge in signal intensity in the input signal within the neighbourhood of a given point; and d) weighted averaging of at least the first and second components to generate a de-noised signal; applying a weighting to at least one of the first and second components if an edge is detected at the given point, the weighting being adjusted in accordance with to which side of the given point the detected edge lies; and applying the same weighting to each of the first and second components if no edge is detected at the given point.
A fabric permeation system for permeating a wetting agent into the fabric, comprising: a fabric supply part comprising a supply roll around which the fabric is wound; a permeation part comprising a wetting agent supply device configured to accommodate and supply a wetting agent to the fabric supplied from the supply roll, at a supply hopper, a drying part drying the fabric into which the wetting agent is permeated; a fabric collecting part winding the fabric, which passes through the drying part, around a collecting roll; characterised by a permeation device with multiple permeation paddles installed in a permeation roller at predetermined intervals for permeating the wetting agent supplied from the supply hopper into the fabric, and a height adjustment device adjusting a permeation pressure by adjusting a distance between the permeation paddle and the fabric. a fabric supply part comprising a supply roll around which the fabric is wound; a permeation part comprising a wetting agent supply device configured to accommodate and supply a wetting agent to the fabric supplied from the supply roll, at a supply hopper,
A method of recovering unreacted ethylene in an ethylene oligomerization process, the method comprising: in the ethylene oligomerization process, mixing a first recovery stream including the unreacted ethylene and a low boiling point reaction product separated in a second separation device in a latter stage of a reactor with a solvent introduced to a reaction raw material, and then transferring the mixture to a first separation device. in the ethylene oligomerization process, mixing a first recovery stream including the unreacted ethylene and a low boiling point reaction product separated in a second separation device in a latter stage of a reactor with a solvent introduced to a reaction raw material, and then transferring the mixture to a first separation device.
A deterioration-state calculation method for calculating a deterioration state of a battery by using a processor for managing a state of the battery, comprising: detecting current of the battery and voltage of the battery by using a sensor (12, 13); calculating a state of charge of the battery corresponding to an open-circuit voltage detected by the sensor (12, 13); calculating a first deterioration state of the battery for each predetermined period based on an elapsed time from the start time of using the battery and an amount of charge-discharge of the battery; characterized by further comprising: calculating a second deterioration state of the battery based on a change amount in the state of charge of the battery and a change amount of current of the battery; executing calculation step for calculating the second deterioration state for a plurality of times within the predetermined period; calculating reliability of calculation of the second deterioration state for each of a plurality of the second deterioration states based on the detected value; calculating a correction value of the deterioration state based on the second deterioration state with the reliability of the predetermined reliability or higher; and calculating the deterioration state by correcting the first deterioration state by the correction value, wherein the deterioration state of the battery is the state of health of the battery. detecting current of the battery and voltage of the battery by using a sensor (12, 13); calculating a state of charge of the battery corresponding to an open-circuit voltage detected by the sensor (12, 13); calculating a first deterioration state of the battery for each predetermined period based on an elapsed time from the start time of using the battery and an amount of charge-discharge of the battery; characterized by further comprising: calculating a second deterioration state of the battery based on a change amount in the state of charge of the battery and a change amount of current of the battery; executing calculation step for calculating the second deterioration state for a plurality of times within the predetermined period; calculating reliability of calculation of the second deterioration state for each of a plurality of the second deterioration states based on the detected value; calculating a correction value of the deterioration state based on the second deterioration state with the reliability of the predetermined reliability or higher; and calculating the deterioration state by correcting the first deterioration state by the correction value, wherein the deterioration state of the battery is the state of health of the battery.
An apparatus for manufacturing polysilicon, comprising: a reaction chamber including a substrate and a reactor cover; at least a pair of electrodes installed through the substrate by an insulating member and connected with a power supply; at least a pair of filaments which are coupled with the pair of electrodes by an electrode chuck and of which upper ends are connected to each other; and an electrode cover surrounding an upper surface and a side of the electrode on the substrate, wherein the electrode chuck includes a lower end covering the upper surface of the electrode cover, wherein the electrode cover includes any one selected from a group consisting of fused silica (SiO 2), silicon nitride (Si 3 N 4), alumina (Al 2 O 3), zirconia (ZrO 2), magnesia (MgO), and mullite (3Al 2 O 3 · 2SiO 2), and wherein the electrode chuck is made of carbon-based materials including graphite. a reaction chamber including a substrate and a reactor cover; at least a pair of electrodes installed through the substrate by an insulating member and connected with a power supply; at least a pair of filaments which are coupled with the pair of electrodes by an electrode chuck and of which upper ends are connected to each other; and an electrode cover surrounding an upper surface and a side of the electrode on the substrate, wherein the electrode chuck includes a lower end covering the upper surface of the electrode cover, wherein the electrode cover includes any one selected from a group consisting of fused silica (SiO 2), silicon nitride (Si 3 N 4), alumina (Al 2 O 3), zirconia (ZrO 2), magnesia (MgO), and mullite (3Al 2 O 3 · 2SiO 2), and wherein the electrode chuck is made of carbon-based materials including graphite.
Self-propelled wrapping machine that is movable around a product for wrapping said product with a film of plastics, said machine comprising: - a self-propelled carriage provided with at least one directional wheel and with manoeuvring means for manoeuvring said at least one directional wheel, and - elastic means acting on said manoeuvring means such as to exert a torque on said manoeuvring means such as to induce said manoeuvring means to orient said at least one directional wheel according to a set work direction, characterised in that actuating means is provided that acts on said manoeuvring means such as to exert a further torque, opposite said torque, on said manoeuvring means, such as to facilitate an orienting manoeuvre of said at least one directional wheel according to a further direction (D1, D2). - a self-propelled carriage provided with at least one directional wheel and with manoeuvring means for manoeuvring said at least one directional wheel, and - elastic means acting on said manoeuvring means such as to exert a torque on said manoeuvring means such as to induce said manoeuvring means to orient said at least one directional wheel according to a set work direction,
A method performed by a wireless communication device (212, 700) for a cellular communications system, the method comprising: • receiving, from a network node, a demodulation reference signal, DMRS, configuration that comprises an indication of a type of DMRS used and a maximum number of front-loaded DMRS symbols, and an antenna port field configuration for indicating a size of an antenna port field having a configurable size in a downlink control information, DCI, format; • receiving a DCI of the DCI format from the network node for a corresponding physical channel, the received DCI comprising an antenna port field; • determining the size of the antenna port field of the received DCI and a DMRS port table for interpreting a value comprised in the antenna port field of the received DCI based on at least the DMRS configuration and the antenna port field configuration; and • determining one or more DMRS ports in the DMRS table used for the corresponding physical channel based on one or more of the determined size of the antenna port field, the DMRS port table, and the value of the antenna port field comprised in the DCI, wherein the size of the antenna port field is 0 and the one or more DMRS ports are determined by the first entry of the determined DMRS table. • receiving, from a network node, a demodulation reference signal, DMRS, configuration that comprises an indication of a type of DMRS used and a maximum number of front-loaded DMRS symbols, and an antenna port field configuration for indicating a size of an antenna port field having a configurable size in a downlink control information, DCI, format; • receiving a DCI of the DCI format from the network node for a corresponding physical channel, the received DCI comprising an antenna port field; • determining the size of the antenna port field of the received DCI and a DMRS port table for interpreting a value comprised in the antenna port field of the received DCI based on at least the DMRS configuration and the antenna port field configuration; and • determining one or more DMRS ports in the DMRS table used for the corresponding physical channel based on one or more of the determined size of the antenna port field, the DMRS port table, and the value of the antenna port field comprised in the DCI,
A centrifugal compressor comprising: an impeller comprising a plurality of blades radially disposed about a rotational axis (X-X'); a housing comprising an inlet into which a fluid to be compressed by the impeller is introduced, an outlet through which the compressed fluid is discharged, and an inner surface adjacent to the plurality of blades; a first sealing unit disposed adjacent to the inlet and sealing a gap between outer ends of the plurality of blades and the inner surface, wherein the first sealing unit is configured to allow a flow of the fluid that has passed through the inlet of the housing to be introduced toward the blades of the impeller and prevent the fluid introduced into the blades from flowing back to the inlet through the gap formed between the blades and the inner surface, the first sealing unit comprising a first partial shroud disposed adjacent to the inlet to partially surround outer peripheral portions of the outer ends of the plurality of blades, characterized by a second sealing unit disposed adjacent to the outlet and sealing a gap between the outer ends of the plurality of blades and the inner surface, the second sealing unit comprising a second partial shroud disposed adjacent to the outlet to partially surround the outer peripheral portions of the outer ends of the plurality of blades. an impeller comprising a plurality of blades radially disposed about a rotational axis (X-X'); a housing comprising an inlet into which a fluid to be compressed by the impeller is introduced, an outlet through which the compressed fluid is discharged, and an inner surface adjacent to the plurality of blades; a first sealing unit disposed adjacent to the inlet and sealing a gap between outer ends of the plurality of blades and the inner surface, wherein the first sealing unit is configured to allow a flow of the fluid that has passed through the inlet of the housing to be introduced toward the blades of the impeller and prevent the fluid introduced into the blades from flowing back to the inlet through the gap formed between the blades and the inner surface, the first sealing unit comprising a first partial shroud disposed adjacent to the inlet to partially surround outer peripheral portions of the outer ends of the plurality of blades, characterized by a second sealing unit disposed adjacent to the outlet and sealing a gap between the outer ends of the plurality of blades and the inner surface, the second sealing unit comprising a second partial shroud disposed adjacent to the outlet to partially surround the outer peripheral portions of the outer ends of the plurality of blades.
A cup dispenser for a beverage vending machine, the cup dispenser comprises a magazine rotatably mounted about a rotation axis and provided with a plurality of columns arranged around said rotation axis, each of the columns is adapted to store a respective stack of cups and is provided with a respective release device operable to dispense individual cups; the cup dispenser further comprises a first actuator to rotate the magazine about the rotation axis and selectively bring the columns in a fixed cup dispensing station; and a second actuator to operate the release device of the column in the dispensing station; the cup dispenser is characterized by further comprising a power takeoff (42, 30) powered by the second actuator; and a third actuator operable to selectively move the power takeoff (42, 30) to and from an engagement position, in which the power takeoff (42, 30) is kinematically coupled with a power input (18, 45, 46) of the release device in the dispensing station.