mhurhangee/ep-ind-claims huggingface dataset:
A foreign matter removal device comprising: a cylinder in which air is introduced; a piston movably supported to the cylinder and configured to deliver the air introduced into the cylinder as high-pressure air; a nozzle configured to inject the high-pressure air delivered by the piston towards an object to be washed; an urging spring configured to urge the piston, and a moving mechanism (8A; 8B; 8C) configured to move the piston to a predetermined position by applying a moving force to the piston, wherein regarding a moving direction of the piston, a direction in which the high-pressure air is to be delivered is a delivery direction and an opposite direction to the delivery direction is a force accumulation direction, wherein the piston is configured to move in the force accumulation direction by the moving mechanism and to move in the delivery direction by an urging force of the urging spring in response to release of the moving force applied by the moving mechanism at the predetermined position, wherein the cylinder is provided with a piston support part configured to movably support the piston and a coupling protrusion having a delivery path which continues to the piston support part and is configured to deliver the high-pressure air towards the nozzle, wherein an inner surface of an end portion of the piston support part in the delivery direction is formed as a closed surface, and wherein the delivery path is located further towards the force accumulation direction than the closed surface. a cylinder in which air is introduced; a piston movably supported to the cylinder and configured to deliver the air introduced into the cylinder as high-pressure air; a nozzle configured to inject the high-pressure air delivered by the piston towards an object to be washed; an urging spring configured to urge the piston, and a moving mechanism (8A; 8B; 8C) configured to move the piston to a predetermined position by applying a moving force to the piston, wherein regarding a moving direction of the piston, a direction in which the high-pressure air is to be delivered is a delivery direction and an opposite direction to the delivery direction is a force accumulation direction, wherein the piston is configured to move in the force accumulation direction by the moving mechanism and to move in the delivery direction by an urging force of the urging spring in response to release of the moving force applied by the moving mechanism at the predetermined position, wherein the cylinder is provided with a piston support part configured to movably support the piston and a coupling protrusion having a delivery path which continues to the piston support part and is configured to deliver the high-pressure air towards the nozzle, wherein an inner surface of an end portion of the piston support part in the delivery direction is formed as a closed surface, and wherein the delivery path is located further towards the force accumulation direction than the closed surface.
A set temperature calculating apparatus comprising: a first obtaining unit configured to obtain a set temperature for performing temperature control in a container storage, the set temperature being manually input; and the apparatus further comprises: a second obtaining unit configured to obtain data correlating with a heat load in the container storage; a cargo core temperature obtaining unit configured to obtain data correlating with a cargo core temperature; characterized by a learning unit configured to perform machine learning on a cargo core temperature model based on a data set including a combination of the obtained data correlating with the heat load and the obtained set temperature, and the obtained cargo core temperature, the cargo core temperature model being used to infer a cargo core temperature, and a changed set temperature being calculated based on the inferred cargo core temperature. a second obtaining unit configured to obtain data correlating with a heat load in the container storage; a cargo core temperature obtaining unit configured to obtain data correlating with a cargo core temperature; characterized by a learning unit configured to perform machine learning on a cargo core temperature model based on a data set including a combination of the obtained data correlating with the heat load and the obtained set temperature, and the obtained cargo core temperature, the cargo core temperature model being used to infer a cargo core temperature, and a changed set temperature being calculated based on the inferred cargo core temperature.
A piston, comprising: a piston body having a central axis along which said piston body reciprocates within a cylinder bore, said piston body having an upper crown portion having an upper combustion wall against which combustion forces directly act in the cylinder bore and at least one annular upper rib (22, 24) depending from the upper combustion wall to a free end, said piston body further including a lower crown portion having at least one annular lower rib (32, 34) extending to a free end fixed to said at least one annular upper rib (22, 24), said lower crown portion having an inner gallery floor extending radially inwardly relative to said at least one annular lower rib (32, 34) and a pair of pin bosses (42, 44) depending generally from said inner gallery floor with a space provided between said pin bosses for receipt of a small end of a connecting rod; said upper crown portion having an upper post depending from said upper combustion wall along said central axis to a free end; said lower crown portion having a lower post extending upwardly from said inner gallery floor along said central axis to a free end; characterised in that said free end of said upper post and said free end of said lower post form a labyrinth passage. a piston body having a central axis along which said piston body reciprocates within a cylinder bore, said piston body having an upper crown portion having an upper combustion wall against which combustion forces directly act in the cylinder bore and at least one annular upper rib (22, 24) depending from the upper combustion wall to a free end, said piston body further including a lower crown portion having at least one annular lower rib (32, 34) extending to a free end fixed to said at least one annular upper rib (22, 24), said lower crown portion having an inner gallery floor extending radially inwardly relative to said at least one annular lower rib (32, 34) and a pair of pin bosses (42, 44) depending generally from said inner gallery floor with a space provided between said pin bosses for receipt of a small end of a connecting rod; said upper crown portion having an upper post depending from said upper combustion wall along said central axis to a free end; said lower crown portion having a lower post extending upwardly from said inner gallery floor along said central axis to a free end; characterised in that said free end of said upper post and said free end of said lower post form a labyrinth passage.
A method of tap coefficient correction, comprising: obtaining a synchronization symbol difference SYMBOL_DIFF between a first polarization and a second polarization orthogonal to the first polarization; obtaining a delay amount of each of the first polarization and the second polarization in an adaptive equalizer, wherein the delay amount is obtained from a gravity center G H of first tap coefficients set in the adaptive equalizer for the first polarization and a gravity center G v of second tap coefficients set in the adaptive equalizer for the second polarization; and performing a correction of shifting the entire first tap coefficients and the entire second tap coefficients in units of symbol to cause a first correction reference gravity center and a second correction reference gravity center to be closest to the tap center, characterized in that: the gravity center G H of the first tap coefficients set in the adaptive equalizer for the first polarization and the gravity center G v of the second tap coefficients set in the adaptive equalizer for the second polarization are obtained from the following expressions, G H = ∑ i = 1 N i ∗ | H H i | 2 + ∑ i = 1 N i ∗ | V H i | 2 / P H H + P V H G V = ∑ i = 1 N i ∗ | V V i | 2 + ∑ i = 1 N i ∗ | H V i | 2 / P V V + P H V, where N denotes a tap number and P HH, P VH, Pvv, and P HV are total sum of power in all the tap numbers and are represented by the following expressions, P H H = ∑ i = 1 N | H H i | 2, P V H = ∑ i = 1 N | V H i | 2, P H V = ∑ i = 1 N | H V i | 2, P V V = ∑ i = 1 N | V V i | 2, a fluctuation center pGH of the gravity center G H of the first tap coefficients is calculated as the first correction reference gravity center on the basis of the synchronization symbol difference SYMBOL_DIFF and the delay amount, and a fluctuation center pGV of the gravity center G v of the second tap coefficients is calculated as the second correction reference gravity center on the basis of the synchronization symbol difference SYMBOL_DIFF and the delay amount using the following expressions: pGH = G H + G V / 2 + SYMBOL_DIFF ⋅ m / 2 pGV = G H + G V / 2 − SYMBOL_DIFF. m / 2 where m denotes an oversampling rate. obtaining a synchronization symbol difference SYMBOL_DIFF between a first polarization and a second polarization orthogonal to the first polarization; obtaining a delay amount of each of the first polarization and the second polarization in an adaptive equalizer, wherein the delay amount is obtained from a gravity center G H of first tap coefficients set in the adaptive equalizer for the first polarization and a gravity center G v of second tap coefficients set in the adaptive equalizer for the second polarization; and performing a correction of shifting the entire first tap coefficients and the entire second tap coefficients in units of symbol to cause a first correction reference gravity center and a second correction reference gravity center to be closest to the tap center,
An exhaust gas NOx removal apparatus comprising: an NOx removal reactor having a catalyst layer for removing nitrogen oxides in a combustion exhaust gas; a duct located upstream of the NOx removal reactor, the duct having a stub-up point at which a flow of the exhaust gas changes from a horizontal direction to a vertical direction in the duct; a screen comprising a number of thin plates which are disposed in a plane parallel to each other to form vertical slits, a width of the slits being smaller than an opening width of the catalyst layer, the screen being located in a horizontal portion of the duct at an inlet side of the stub-up point, and the screen being tilted at a predetermined angle relative to the cross-section of an exhaust gas flow path; and a dust collecting/discharging portion attached to the lower end of the screen. an NOx removal reactor having a catalyst layer for removing nitrogen oxides in a combustion exhaust gas; a duct located upstream of the NOx removal reactor, the duct having a stub-up point at which a flow of the exhaust gas changes from a horizontal direction to a vertical direction in the duct; a screen comprising a number of thin plates which are disposed in a plane parallel to each other to form vertical slits, a width of the slits being smaller than an opening width of the catalyst layer, the screen being located in a horizontal portion of the duct at an inlet side of the stub-up point, and the screen being tilted at a predetermined angle relative to the cross-section of an exhaust gas flow path; and a dust collecting/discharging portion attached to the lower end of the screen.
Method for identification of specific target biomolecules in a sample following a detection procedure, wherein a gel or membrane is probed with at least two probes directed against the same and/or different sites of the same target biomolecule, and wherein specific binding to the target biomolecule in a sample is differentiated from unspecific binding to the target biomolecule by comparing the resulting sample patterns, such as bands or spot patterns on said gel or membrane, with each other, wherein the sample patterns are compared by overlapping, and wherein an algorithm is used to enhance overlapping band features by pixel-wise multiplication, and the resulting image data is scaled after the enhancement by using an A 1/n function where A is the resulting pixel value after enhancement and n is the number of primary antibodies.
A battery pack comprising: a plurality of cylindrical battery cells having battery terminals at opposite ends thereof, the battery cells being arranged side by side into a pack configuration such that a concave valley region is formed between pairs of adjacent battery cells; a circuit board disposed along a side surface of the pack configuration to control charging and discharging operations of the battery cells; a connection member arranged to connect selected ones of the battery terminals together; a connection tab having a first portion that extends from the connection member, a second portion in the concave valley region between one of the pairs of adjacent battery cells and a bent portion that joins the first and second portions, the connection tab further comprising a connection arrangement (154, 155) that extends from the second portion towards the circuit board to connect the connection member to the circuit board, and wherein the connection arrangement (154, 155) comprises: a connection portion; and a lead portion extending diagonally from the second portion to the connection portion. a plurality of cylindrical battery cells having battery terminals at opposite ends thereof, the battery cells being arranged side by side into a pack configuration such that a concave valley region is formed between pairs of adjacent battery cells; a circuit board disposed along a side surface of the pack configuration to control charging and discharging operations of the battery cells; a connection member arranged to connect selected ones of the battery terminals together; a connection tab having a first portion that extends from the connection member, a second portion in the concave valley region between one of the pairs of adjacent battery cells and a bent portion that joins the first and second portions, the connection tab further comprising a connection arrangement (154, 155) that extends from the second portion towards the circuit board to connect the connection member to the circuit board, and wherein the connection arrangement (154, 155) comprises: a connection portion; and a lead portion extending diagonally from the second portion to the connection portion. a connection portion; and a lead portion extending diagonally from the second portion to the connection portion.
Medical cassette made of a hard part having liquid-conducting passages which are covered by a flexible film, wherein the cassette can be coupled to a coupling surface of a treatment machine, characterized in that the medical cassette comprises at least one suction opening arranged in the hard part of the cassette, via which opening the space between the flexible film of the medical cassette and the coupling surface of the treatment machine can be fluidically contacted for suctioning-off in the coupled state of the cassette.
A reactor for converting a carbonaceous material, the reactor is configured to accommodate a solid powder material and having an upper portion and a lower portion; the reactor comprising: at least one solid material inlet for providing a solid carbonaceous material and a powder material to the reactor, at least one solid material outlet configured for allowing the removal of converted carbonaceous material and/or a powder material, said outlet comprising adjusting means configured to adjust the level or amount of solid material in the reactor, fluidizing means adapted to fluidize powder material, a gas outlet preferably located in the upper portion of the reactor, and gas-solid separation means configured to substantially separate a gas from a solid material, wherein the gas-solid separation means being a section of the upper portion of the reactor having a larger flow area than the lower portion of the reactor configured to separate gas and solids in a substantially vertical flow and to reduce the velocity of the gas to below an entrainment velocity of the solids, wherein the reactor being configured so that the conversion of the carbonaceous material takes place as the carbonaceous material contacts and is heated by the heated powder material. at least one solid material inlet for providing a solid carbonaceous material and a powder material to the reactor, at least one solid material outlet configured for allowing the removal of converted carbonaceous material and/or a powder material, said outlet comprising adjusting means configured to adjust the level or amount of solid material in the reactor, fluidizing means adapted to fluidize powder material, a gas outlet preferably located in the upper portion of the reactor, and gas-solid separation means configured to substantially separate a gas from a solid material, wherein the gas-solid separation means being a section of the upper portion of the reactor having a larger flow area than the lower portion of the reactor configured to separate gas and solids in a substantially vertical flow and to reduce the velocity of the gas to below an entrainment velocity of the solids, wherein the reactor being configured so that the conversion of the carbonaceous material takes place as the carbonaceous material contacts and is heated by the heated powder material.
A pyrolysis system comprising a double-tube reactor having: an inner tube; an outer tube disposed to concentrically surround the inner tube; and a heater member that is disposed at an outer side of the outer tube along a length of the outer tube and supplies heat through the outer tube, wherein the inner tube is configured to operate for a supply source of inert gas, while a space defined between the inner tube and the outer tube is configured to operate for a supply source of methane-containing gas, the heater member has an arrangement relationship represented by Formula with each of the outer tube and the inner tube, characterized in that the reactor is designed such that flowing of the inert gas through the inner tube has a relationship represented by Formula with flowing of the methane-containing gas through the space defined between the inner tube and the outer tube, d l / d 0 < 0.5 wherein d 0 represents a length of the outer tube tc which heat supplied from the heater member is directly radiated, and d l represents a distance from an end of the outer tube to which heat supplied from the heater member is directly radiated to an end of the inner tube. v l / v 0 ≥ 0.5 wherein v l represents a volumetric flow rate of the inert gas flowing in the inner tube, and v 0 represents a volumetric flow rate of the methane-containing gas flowing in the outer tube. an inner tube; an outer tube disposed to concentrically surround the inner tube; and a heater member that is disposed at an outer side of the outer tube along a length of the outer tube and supplies heat through the outer tube, wherein the inner tube is configured to operate for a supply source of inert gas, while a space defined between the inner tube and the outer tube is configured to operate for a supply source of methane-containing gas, the heater member has an arrangement relationship represented by Formula with each of the outer tube and the inner tube, characterized in that the reactor is designed such that flowing of the inert gas through the inner tube has a relationship represented by Formula with flowing of the methane-containing gas through the space defined between the inner tube and the outer tube, d l / d 0 < 0.5 wherein d 0 represents a length of the outer tube tc which heat supplied from the heater member is directly radiated, and d l represents a distance from an end of the outer tube to which heat supplied from the heater member is directly radiated to an end of the inner tube. v l / v 0 ≥ 0.5 wherein v l represents a volumetric flow rate of the inert gas flowing in the inner tube, and v 0 represents a volumetric flow rate of the methane-containing gas flowing in the outer tube.
Interlayer film useful for laminated glass comprising polyvinyl acetal, at least one plasticizer, fumed silica and at least one basic compound, wherein the interlayer film has at a thickness of 0,76 mm a haze value of 0,01 to 5,0 % according to ASTM 1003, the weight ratio of C/(A+B) is 2,7/100 to 60/100 and the basic compound is a metal salt of organic carbon acids comprising 1 to 15 carbon atoms.
A radiation detector for detecting both the intensity and the direction of one or more sources of radiation comprising: (a) a pan motor; (b) a tilt motor; (c) a u-shaped support with a base and two arms; (d) an inverse collimator comprising a first rod and a second rod; and (e) a radiation sensor; wherein the shaft of the pan motor is operably connected to the base of the u-shaped support such that rotation of the shaft causes rotation of the u-shaped support; wherein the tilt motor is operably connected to the arms of the u-shaped support such that rotation of the shaft causes rotation of the tilt motor within the arms; characterised in that the first and second rods are attached to the tilt motor in longitudinal alignment with each other but on opposite sides of the axis of rotation of the tilt motor; wherein the radiation sensor is mounted to the first rod at the end of the first rod that is farthest from the tilt motor; wherein rotation of the pan and tilt motors allows the inverse collimator to be pointed in different directions; and wherein the inverse collimator and tilt motor shield the sensor from at least a portion of the incident radiation originating from the direction in which the second rod is pointed. (a) a pan motor; (b) a tilt motor; (c) a u-shaped support with a base and two arms; (d) an inverse collimator comprising a first rod and a second rod; and (e) a radiation sensor;
Composition comprising a gastrointestinal tract preparation composition which has a salty taste, and which has a pH in the range from 3 to 5 or which has had its pH adjusted to range from 3 to 5, for use in a method of cleansing the gastrointestinal tract of a patient, wherein the composition is to be used after composition a taste-modifying substance, wherein the taste-modifying substance is miraculin, wherein the taste-modifying substance decreases the salty taste, wherein the gastrointestinal tract preparation composition comprises greater than 3 grams/liter of one or more alkali metal salts, and wherein the gastrointestinal tract preparation composition is administered orally.