mhurhangee/patent-ind-claim-en huggingface dataset:
A method for predicting physical properties of a polyethylene resin comprising: polymerizing ethylene in a first reactor to form a low-density polyethylene resin, and crosslinking the low-density polyethylene resin in a second reactor in the presence of a peroxide-based crosslinking agent, wherein the method comprises: measuring a ratio Y2 (wt%) at which the low-density polyethylene resin absorbs the crosslinking agent based on a peak temperature T of the first reactor as described in the specification and a charging ratio Y1 (wt%) of the peroxide-based crosslinking agent in the second reactor; determining constants of A and B by performing a linear regression according to the following Equation 1 on the basis of the measured and the collected data; and predicting a ratio Y2 (wt%) at which the low-density polyethylene resin absorbs the crosslinking agent in the production process of the low-density crosslinked polyethylene resin in accordance with the linear regression equation of Equation 1 in which the constants of A and B have been determined. Y 1 − Y 2 = A + BT in Equation 1, Y1 (wt%) is the charging ratio (wt%) of (peroxide-based crosslinking agent charged to the second reactor / low-density polyethylene resin charged to the second reactor), Y2 (wt%) is the crosslinking agent absorption ratio (wt%) of (peroxide-based crosslinking agent absorbed into the low-density polyethylene resin in the second reactor / low-density polyethylene resin charged to the second reactor), T is the polymerization peak temperature (°C) of the first reactor, and A and B are constants determined by linear regression analysis. measuring a ratio Y2 (wt%) at which the low-density polyethylene resin absorbs the crosslinking agent based on a peak temperature T of the first reactor as described in the specification and a charging ratio Y1 (wt%) of the peroxide-based crosslinking agent in the second reactor; determining constants of A and B by performing a linear regression according to the following Equation 1 on the basis of the measured and the collected data; and predicting a ratio Y2 (wt%) at which the low-density polyethylene resin absorbs the crosslinking agent in the production process of the low-density crosslinked polyethylene resin in accordance with the linear regression equation of Equation 1 in which the constants of A and B have been determined. Y 1 − Y 2 = A + BT in Equation 1, Y1 (wt%) is the charging ratio (wt%) of (peroxide-based crosslinking agent charged to the second reactor / low-density polyethylene resin charged to the second reactor), Y2 (wt%) is the crosslinking agent absorption ratio (wt%) of (peroxide-based crosslinking agent absorbed into the low-density polyethylene resin in the second reactor / low-density polyethylene resin charged to the second reactor), T is the polymerization peak temperature (°C) of the first reactor, and A and B are constants determined by linear regression analysis.
An embossed decorative sheet , characterized in that : a patterned layer , an adhesive layer , a transparent thermoplastic resin layer , and a surface protective layer are laminated in this order on a thermoplastic resin substrate sheet ; an embossed pattern is formed on at least an outermost layer; and the transparent thermoplastic resin layer comprises a plurality of layers characterized in that the transparent thermoplastic resin layer is formed in such a manner that a first resin layer containing a first resin, and a second resin layer containing a second resin that is different from the first resin are laminated in this order from the thermoplastic resin substrate sheet side, wherein the first resin is a transparent maleic acid-modified polypropylene resin; and the second resin is a transparent polypropylene resin to which at least one of an ultraviolet absorber and a light stabilizer is added, and in that the second resin layer contains the light stabilizer, and the light stabilizer is an aminoether-based light stabilizer. a patterned layer , an adhesive layer , a transparent thermoplastic resin layer , and a surface protective layer are laminated in this order on a thermoplastic resin substrate sheet ; an embossed pattern is formed on at least an outermost layer; and the transparent thermoplastic resin layer comprises a plurality of layers characterized in that the transparent thermoplastic resin layer is formed in such a manner that a first resin layer containing a first resin, and a second resin layer containing a second resin that is different from the first resin are laminated in this order from the thermoplastic resin substrate sheet side, wherein the first resin is a transparent maleic acid-modified polypropylene resin; and the second resin is a transparent polypropylene resin to which at least one of an ultraviolet absorber and a light stabilizer is added, and in that the second resin layer contains the light stabilizer, and the light stabilizer is an aminoether-based light stabilizer.
A method for treating the surface of a highly absorbent composite sheet in which solid SAP is distributed in layers on one surface of a non-woven substrate comprising a combination of: a first stage hot-melt treatment in which hot-melt is applied by means of a hot-melt feeding apparatus (A) for forming a first fibrous network of fine mesh of fine fibers comprising a hot-melt adhesive on the surface where said solid SAP is distributed and a second stage hot-melt treatment in which hot-melt is applied by means of a hot-melt feeding apparatus (B) for forming a second fibrous network comprising a hot-melt adhesive, wherein said second fibrous network is of relatively coarser mesh and of relatively coarser fibers compared to said first fibrous network, wherein the fineness and coarseness of the fibers of the first and second fibrous networks refer to the average diameter of the fibers in the networks in relative terms, the fibers of the first fibrous network having an average diameter of 3 μm to 10 μm and the fibers of the second fibrous network having an average diameter of 10 μm to 50 μm, and wherein the first and second fibrous networks define a dual fibrous network hot-melt layer that covers the surface of the non-woven substrate on which the solid SAP is distributed. a first stage hot-melt treatment in which hot-melt is applied by means of a hot-melt feeding apparatus (A) for forming a first fibrous network of fine mesh of fine fibers comprising a hot-melt adhesive on the surface where said solid SAP is distributed and a second stage hot-melt treatment in which hot-melt is applied by means of a hot-melt feeding apparatus (B) for forming a second fibrous network comprising a hot-melt adhesive, wherein said second fibrous network is of relatively coarser mesh and of relatively coarser fibers compared to said first fibrous network, wherein the fineness and coarseness of the fibers of the first and second fibrous networks refer to the average diameter of the fibers in the networks in relative terms, the fibers of the first fibrous network having an average diameter of 3 μm to 10 μm and the fibers of the second fibrous network having an average diameter of 10 μm to 50 μm, and wherein the first and second fibrous networks define a dual fibrous network hot-melt layer that covers the surface of the non-woven substrate on which the solid SAP is distributed.
Radioprotective building block for building a wall that is able to form a screen against ionizing radiation, said radioprotective building block comprises: - a core , made of at least one radioprotective material, delimited by an external surface , and - a shell , enclosing said core , comprising at least one shell part that is fitted around said core so as to cover the whole external surface of said core , characterized in that said shell is consisted of at least two shell parts , each of said two shell parts comprises a free edge and fastening means comprising interlocking means provided at the free edge between said shell parts , said at least two shell parts are held around said core using the fastening means . said radioprotective building block comprises: - a core , made of at least one radioprotective material, delimited by an external surface , and - a shell , enclosing said core , comprising at least one shell part that is fitted around said core so as to cover the whole external surface of said core , - a core , made of at least one radioprotective material, delimited by an external surface , and - a shell , enclosing said core , comprising at least one shell part that is fitted around said core so as to cover the whole external surface of said core , characterized in that said shell is consisted of at least two shell parts , each of said two shell parts comprises a free edge and fastening means comprising interlocking means provided at the free edge between said shell parts , said at least two shell parts are held around said core using the fastening means .
A method comprising: obtaining , at a computing device (104 or 610), sensor data captured by a sensor of an aircraft during a power up event in which an engine or auxiliary power unit of the aircraft is operating and providing power to aircraft equipment , wherein the sensor data includes multiple parameter values , and wherein each parameter value corresponds to a respective sample period during the power up event; determining , by the computing device, a set of delta values , wherein each delta value from the set of delta values indicates a difference between a first parameter value and a second parameter value from a pair of parameter values corresponding to consecutive sample periods of the sensor data; determining , by the computing device, a set of quantized delta values by assigning delta values from the set of delta values to quantization bins based on magnitudes of the delta values; determining , by the computing device, a normalized count of delta values for each of the quantization bins; performing , by the computing device, a comparison of each normalized count of the delta values of each of the respective quantization bins to a respective anomaly detection threshold of the respective quantization bin; and generating , by the computing device and based on the comparison, an output indicating whether the sensor data is indicative of an operational anomaly for aircraft equipment associated with the sensor. obtaining , at a computing device (104 or 610), sensor data captured by a sensor of an aircraft during a power up event in which an engine or auxiliary power unit of the aircraft is operating and providing power to aircraft equipment , wherein the sensor data includes multiple parameter values , and wherein each parameter value corresponds to a respective sample period during the power up event; determining , by the computing device, a set of delta values , wherein each delta value from the set of delta values indicates a difference between a first parameter value and a second parameter value from a pair of parameter values corresponding to consecutive sample periods of the sensor data; determining , by the computing device, a set of quantized delta values by assigning delta values from the set of delta values to quantization bins based on magnitudes of the delta values; determining , by the computing device, a normalized count of delta values for each of the quantization bins; performing , by the computing device, a comparison of each normalized count of the delta values of each of the respective quantization bins to a respective anomaly detection threshold of the respective quantization bin; and generating , by the computing device and based on the comparison, an output indicating whether the sensor data is indicative of an operational anomaly for aircraft equipment associated with the sensor.
A vehicle-mounted system for providing multiple input/output (MIMO) signals channels (s1-s8) between a vehicle and stationary antenna stations (11-1, 11-2) located approximately along a track of the vehicle , the system comprising: a first antenna set (A1) and a second antenna set (A2), mounted onto a vehicle , each comprising a plurality of antennas (A11, A12, A21, A22), wherein said first antenna set (A11, A12) is polarized approximately orthogonally to said second antenna set (A21, A22); and wherein at least one antenna (A11) of the first antenna set (A1) and at least one antenna (A21) of the second antenna set (A2) have antenna patterns in essentially opposite direction to at least a second antenna (A12) of the first antenna set (A1) and at least a second antenna (A22) of the second antenna set (A2); and wherein the antenna pattern of the at least one antenna (A11) of the first antenna set (A1) and the antenna pattern of the at least one antenna (A21) of the second antenna set (A2) are directed essentially parallel to the track , and wherein under operation conditions the first antenna set (A1) and the second antenna set (A2) are mounted below roof level onto a convex-shaped vehicle roof of the vehicle , such that an axis of the first antenna set (A1, A11, A12) is approximately perpendicular to an axis of the second antenna set (A2, A21, A22).
A blood gas management device comprising a plurality of gas passages each comprising a gas inlet and a gas outlet, and a blood passage arranged with a gas-blood interface with the gas passages, wherein the blood gas management device is arranged to allow a flow of supply gas from the gas inlets through the gas passages to the gas outlets, and to allow a flow of blood in a blood flow path through the blood passage to thereby permit an exchange of blood gas with the supply gas via the gas-blood interface, wherein the blood gas management device comprises a supply gas distribution arrangement allowing the supply gas to be provided to the gas-blood interface from different directions relative to the blood flow path, and wherein two or more multidirectional gas passages are arranged in series relative to the blood flow path, so that the blood is exposed to a first gas passage before being exposed to a second gas passage. wherein the blood gas management device is arranged to allow a flow of supply gas from the gas inlets through the gas passages to the gas outlets, and to allow a flow of blood in a blood flow path through the blood passage to thereby permit an exchange of blood gas with the supply gas via the gas-blood interface, wherein the blood gas management device comprises a supply gas distribution arrangement allowing the supply gas to be provided to the gas-blood interface from different directions relative to the blood flow path, and wherein two or more multidirectional gas passages are arranged in series relative to the blood flow path, so that the blood is exposed to a first gas passage before being exposed to a second gas passage.
A method for identifying the presence or quantity of Legionella pneumophila serogroup 1 in a sample, the method comprising the steps of: (a) detecting the presence or quantity of at least part of the nucleic acid sequence of SEQ ID NO. 1 or an expression product thereof, and (b) correlating the presence or quantity of the at least part of the nucleic acid sequence of SEQ ID NO. 1 or expression product thereof, to the presence or quantity of Legionella pneumophila serogroup 1 in the sample. (a) detecting the presence or quantity of at least part of the nucleic acid sequence of SEQ ID NO. 1 or an expression product thereof, and (b) correlating the presence or quantity of the at least part of the nucleic acid sequence of SEQ ID NO. 1 or expression product thereof, to the presence or quantity of Legionella pneumophila serogroup 1 in the sample.
A damping device , comprising: a housing having a chamber and an opening communicated with the chamber , the chamber being filled with a damping medium ; a piston arranged in the chamber of the housing , wherein an inner wall of the chamber has a groove , the groove is configured to allow the damping medium to flow within the chamber when the housing is moved relative to the piston , the groove is parallel to a longitudinal direction of the housing and has a first end and a second end opposite to the first end, the groove has a constant cross section area from the first end of the groove to the second end of the groove , the first end of the groove is connected to an end of the housing opposite to the opening of the housing ; a base arranged in the chamber of the housing , wherein the base is mounted to the piston ; and a ring member arranged between the piston and the base ; wherein a passage is formed between the ring member and the base for allowing the damping medium to flow through. a housing having a chamber and an opening communicated with the chamber , the chamber being filled with a damping medium ; a piston arranged in the chamber of the housing , wherein an inner wall of the chamber has a groove , the groove is configured to allow the damping medium to flow within the chamber when the housing is moved relative to the piston , the groove is parallel to a longitudinal direction of the housing and has a first end and a second end opposite to the first end, the groove has a constant cross section area from the first end of the groove to the second end of the groove , the first end of the groove is connected to an end of the housing opposite to the opening of the housing ; a base arranged in the chamber of the housing , wherein the base is mounted to the piston ; and a ring member arranged between the piston and the base ; wherein a passage is formed between the ring member and the base for allowing the damping medium to flow through.
Amorphous Rebaudioside X having a water solubility greater than 0.3% (w/v).
An information processing apparatus comprising: a two-dimensional image acquisition unit configured to acquire a two-dimensional image of an object in a first coordinate system; a region of interest acquisition unit configured to acquire information on a region of interest in a second coordinate system different from the first coordinate system in a further image; an error acquisition unit configured to acquire, in accordance with the information on the region of interest in the second coordinate system, information on an error range taking into consideration an error caused by coordinate projection from the second coordinate system to the first coordinate system with respect to a corresponding region in the first coordinate system in correspondence to the region of interest in the second coordinate system; and a display control unit configured to cause a display unit to display the information on the error range by overlaying the error range on the two-dimensional image. a two-dimensional image acquisition unit configured to acquire a two-dimensional image of an object in a first coordinate system; a region of interest acquisition unit configured to acquire information on a region of interest in a second coordinate system different from the first coordinate system in a further image; an error acquisition unit configured to acquire, in accordance with the information on the region of interest in the second coordinate system, information on an error range taking into consideration an error caused by coordinate projection from the second coordinate system to the first coordinate system with respect to a corresponding region in the first coordinate system in correspondence to the region of interest in the second coordinate system; and a display control unit configured to cause a display unit to display the information on the error range by overlaying the error range on the two-dimensional image.
A fluid filter , comprising: an upper housing shell comprising a fluid outlet ; a lower housing shell comprising a fluid inlet ; a pleat pack element between the upper housing shell and the lower housing shell , the pleat pack element comprising: a peripheral frame wherein the peripheral frame comprises an outwardly projecting flange , the pleat pack element further comprising filtration media , whereby the filtration media comprises a first pleated filtration media having a first filtration density, and a second pleated filtration media having a second filtration density that differs from the first filtration density; the pleat pack element further comprising a plurality of internal ribs , the plurality of ribs dividing the first pleated filtration media into a number of first media rows, and the second pleated filtration media into a number of second media rows, wherein the number of the first media rows differs from the number of second media rows, wherein the overall assembly including the peripheral frame and the plurality of ribs is overmolded on the edges of the filtration media . . an upper housing shell comprising a fluid outlet ; a lower housing shell comprising a fluid inlet ; a pleat pack element between the upper housing shell and the lower housing shell , the pleat pack element comprising: a peripheral frame wherein the peripheral frame comprises an outwardly projecting flange , the pleat pack element further comprising filtration media , whereby the filtration media comprises a first pleated filtration media having a first filtration density, and a second pleated filtration media having a second filtration density that differs from the first filtration density; the pleat pack element further comprising a plurality of internal ribs , the plurality of ribs dividing the first pleated filtration media into a number of first media rows, and the second pleated filtration media into a number of second media rows, wherein the number of the first media rows differs from the number of second media rows, wherein the overall assembly including the peripheral frame and the plurality of ribs is overmolded on the edges of the filtration media . . a peripheral frame wherein the peripheral frame comprises an outwardly projecting flange , the pleat pack element further comprising filtration media , whereby the filtration media comprises a first pleated filtration media having a first filtration density, and a second pleated filtration media having a second filtration density that differs from the first filtration density; the pleat pack element further comprising a plurality of internal ribs , the plurality of ribs dividing the first pleated filtration media into a number of first media rows, and the second pleated filtration media into a number of second media rows, wherein the number of the first media rows differs from the number of second media rows, wherein the overall assembly including the peripheral frame and the plurality of ribs is overmolded on the edges of the filtration media . .
A to-be-detected unit for rehabilitation training, comprising: a body having a cylindrical shape with at least one open side configured for enabling to stack the unit on another unit; a first electrode formed in a region of the circumference of the body; a second electrode spaced apart from the first electrode and formed in another region of the circumference of the body; and a guide formed blocking electrical connection of the first electrode and the second electrode by being formed between the first electrode and the second electrode, and recessed or protruded a predetermined depth on the circumference of the body. a body having a cylindrical shape with at least one open side configured for enabling to stack the unit on another unit; a first electrode formed in a region of the circumference of the body; a second electrode spaced apart from the first electrode and formed in another region of the circumference of the body; and a guide formed blocking electrical connection of the first electrode and the second electrode by being formed between the first electrode and the second electrode, and recessed or protruded a predetermined depth on the circumference of the body.