mhurhangee/ep-ind-claims huggingface dataset:
A method for producing water-absorbing resin powder, comprising sequentially: a polymerization step for polymerizing an aqueous solution of acrylic acid (salt) to obtain a hydrogel-like cross-linked polymer; a drying step for drying the obtained hydrogel-like cross-linked polymer to obtain a dried polymer; a pulverization step for pulverizing the obtained dried polymer with a pulverizing means to obtain a pulverized polymer; a classification step for classifying the obtained pulverized polymer to obtain a classified polymer; and a surface cross-linking step for surface cross-linking the obtained classified polymer; characterized in that, at least a part of the classified polymer is supplied again to the same or different pulverization step, before the surface cross-linking step, wherein circulation pulverization ratio in the pulverization step, represented by the following equation is larger than 1.50: Circulation pulverization ratio = total supply amount of the water − absorbing resin to the pulverization step / total discharge amount of the water − absorbing resin at the drying step wherein (total supply amount of the water-absorbing resin to the pulverization step)=(total discharge amount of the water-absorbing resin at the drying step)+(amount of the classified polymer supplied again to the same or different pulverization step). a polymerization step for polymerizing an aqueous solution of acrylic acid (salt) to obtain a hydrogel-like cross-linked polymer; a drying step for drying the obtained hydrogel-like cross-linked polymer to obtain a dried polymer; a pulverization step for pulverizing the obtained dried polymer with a pulverizing means to obtain a pulverized polymer; a classification step for classifying the obtained pulverized polymer to obtain a classified polymer; and a surface cross-linking step for surface cross-linking the obtained classified polymer; at least a part of the classified polymer is supplied again to the same or different pulverization step, before the surface cross-linking step, wherein circulation pulverization ratio in the pulverization step, represented by the following equation is larger than 1.50: Circulation pulverization ratio = total supply amount of the water − absorbing resin to the pulverization step / total discharge amount of the water − absorbing resin at the drying step wherein (total supply amount of the water-absorbing resin to the pulverization step)=(total discharge amount of the water-absorbing resin at the drying step)+(amount of the classified polymer supplied again to the same or different pulverization step).
A method comprising steps of: - arranging a radiation receiving device (8; 22) directly on a surface of a subject above a specific region of the subject, wherein the specific region is located below the surface of the subject or at the surface of the subject, wherein the specific region contains a radioactive substance, wherein the radiation receiving device (8; 22) has a mass density larger than the mass density of air and is adapted to generate a signal from radiation emitted by the radioactive substance and entering the radiation receiving device (8; 22), wherein the radiation receiving device (8; 22) is formed as a patch having a layer and/or a container of a radiation receiving material, wherein the radiation receiving material is a plastic material, a rubber material, a silicon rubber material, a foam material or a combination thereof or a gel material, wherein the method further comprises fixing the radiation receiving device (8; 22) to the surface of the subject by an adhesive, and - detecting the signal by a detection device (3a, 3b; 21), wherein - the radioactive substance emits positrons and the radiation receiving device is adapted to prevent an escape of the positrons and to generate annihilation radiation within the radiation receiving device, said annihilation radiation corresponding to the signal generated by the radiation receiving device (8, 22) and detected by the detection device (3a, 3b). - arranging a radiation receiving device (8; 22) directly on a surface of a subject above a specific region of the subject, wherein the specific region is located below the surface of the subject or at the surface of the subject, wherein the specific region contains a radioactive substance, wherein the radiation receiving device (8; 22) has a mass density larger than the mass density of air and is adapted to generate a signal from radiation emitted by the radioactive substance and entering the radiation receiving device (8; 22), wherein the radiation receiving device (8; 22) is formed as a patch having a layer and/or a container of a radiation receiving material, wherein the radiation receiving material is a plastic material, a rubber material, a silicon rubber material, a foam material or a combination thereof or a gel material, wherein the method further comprises fixing the radiation receiving device (8; 22) to the surface of the subject by an adhesive, and - detecting the signal by a detection device (3a, 3b; 21), - the radioactive substance emits positrons and the radiation receiving device is adapted to prevent an escape of the positrons and to generate annihilation radiation within the radiation receiving device, said annihilation radiation corresponding to the signal generated by the radiation receiving device (8, 22) and detected by the detection device (3a, 3b).
An Access Node, ANd for allocating a beacon resource pattern to a User Node, UNd, wherein the ANd is configured to: detect the UNd by receiving an uplink beacon signal from the UNd; allocate a beacon resource pattern from a predetermined set of beacon resource patterns, to the detected UNd; and signal information about the allocated beacon resource pattern to the UNd; characterised in that the ANd is further configured to adjust the allocated beacon resource pattern by: determine that beacon utilisation of the UNd is lower than a threshold limit, wherein the beacon utilisation is a ratio between a number of used beacon resources and a number of available resource of the allocated beacon resource pattern; and adjust the allocated beacon resource pattern by allocating a beacon resource pattern with lower beaconing rate, than the currently allocated beacon resource pattern, to the UNd. detect the UNd by receiving an uplink beacon signal from the UNd; allocate a beacon resource pattern from a predetermined set of beacon resource patterns, to the detected UNd; and signal information about the allocated beacon resource pattern to the UNd; characterised in that the ANd is further configured to adjust the allocated beacon resource pattern by: determine that beacon utilisation of the UNd is lower than a threshold limit, wherein the beacon utilisation is a ratio between a number of used beacon resources and a number of available resource of the allocated beacon resource pattern; and adjust the allocated beacon resource pattern by allocating a beacon resource pattern with lower beaconing rate, than the currently allocated beacon resource pattern, to the UNd. determine that beacon utilisation of the UNd is lower than a threshold limit, wherein the beacon utilisation is a ratio between a number of used beacon resources and a number of available resource of the allocated beacon resource pattern; and adjust the allocated beacon resource pattern by allocating a beacon resource pattern with lower beaconing rate, than the currently allocated beacon resource pattern, to the UNd.
A wind turbine array, comprising: a plurality of wind turbines which, for a given wind direction entering the wind turbine array, form a first column of wind turbines and a second column of wind turbines, wherein the first and second columns are arranged parallel to each other and to the given wind direction; a controller configured to change at least one operational parameter of at least one blade on a first wind turbine in the first column and at least one operational parameter of at least one blade on a second wind turbine in the first column, wherein the operational parameters are set based on predetermined settings and change an induction factor of the at least one blade on the first and second wind turbines, and wherein the predetermined settings are assigned to the first and second wind turbines based on a location of the first wind turbine relative to a location of the second wind turbine in the first column, wherein the operational parameter is a pitch angle of a blade on the first wind turbine or a tip speed of the blade on the first wind turbine, and wherein the predetermined settings are different for the first wind turbine and the second wind turbine. a plurality of wind turbines which, for a given wind direction entering the wind turbine array, form a first column of wind turbines and a second column of wind turbines, wherein the first and second columns are arranged parallel to each other and to the given wind direction; a controller configured to change at least one operational parameter of at least one blade on a first wind turbine in the first column and at least one operational parameter of at least one blade on a second wind turbine in the first column, wherein the operational parameters are set based on predetermined settings and change an induction factor of the at least one blade on the first and second wind turbines, and wherein the predetermined settings are assigned to the first and second wind turbines based on a location of the first wind turbine relative to a location of the second wind turbine in the first column, wherein the operational parameter is a pitch angle of a blade on the first wind turbine or a tip speed of the blade on the first wind turbine, and wherein the predetermined settings are different for the first wind turbine and the second wind turbine.
A combination of vectors comprising (a) a first viral vector encoding one or more angiogenic proteins which induce vascularization in the heart of the mammal, and (b) a second viral vector encoding one or more cardio-differentiating transcription factors which induce the production of induced cardiomyocytes (iCM) in the heart of the mammal for use in a method of treating coronary artery disease in a mammal, wherein the first and second vector are administered to the heart of the mammal. (a) a first viral vector encoding one or more angiogenic proteins which induce vascularization in the heart of the mammal, and (b) a second viral vector encoding one or more cardio-differentiating transcription factors which induce the production of induced cardiomyocytes (iCM) in the heart of the mammal
A method of detecting a thickness (d) of a film or sheet made of foam, wherein said film or sheet is cut, as an article of manufacture, from a foam block provided as a starting material, wherein the starting material has a starting material length (81, 85) extending in the length direction (x; x'), a starting material width (82, 86) extending in the width direction (y), and a starting material height (83, 87) extending in the height direction (z), wherein: - for cutting the starting material, said starting material is conveyed to a cutting unit along the length direction (x; x') and the cutting unit cuts the film or sheet from the starting material along said length direction (x; x'), and wherein - for detecting the thickness (d) of the film or sheet, said thickness (d) is detected along the height direction (z), characterised in that the thickness (d) of the film or sheet is detected in that: - a value of measurement representing a preceding starting material height (83; 87) obtained prior to the cutting of the starting material and a value of measurement representing a succeeding starting material height obtained subsequent to the cutting of the starting material are determined, and - an evaluation unit is used to determine the thickness (d) of the film or sheet as the difference that results from the value of measurement representing said preceding starting material height (83; 87) minus the value of measurement representing said succeeding starting material height. - for cutting the starting material, said starting material is conveyed to a cutting unit along the length direction (x; x') and the cutting unit cuts the film or sheet from the starting material along said length direction (x; x'), and wherein - for detecting the thickness (d) of the film or sheet, said - a value of measurement representing a preceding starting material height (83; 87) obtained prior to the cutting of the starting material and a value of measurement representing a succeeding starting material height obtained subsequent to the cutting of the starting material are determined, and - an evaluation unit is used to determine the thickness (d) of the film or sheet as the difference that results from the value of measurement representing said preceding starting material height (83; 87) minus the value of measurement representing said succeeding starting material height.
An assembly structure for an embedded light device, wherein the assembly structure comprises a detachable installation module and an outer ring of the embedded light device; the detachable installation module has sliding grooves extending along with an installation direction and a lock piece; one end of the lock piece abuts against a position recovery element, when the position recovery element is in an initial position, a lock portion at the other end of the lock piece is exposed in the sliding grooves along with a direction perpendicular to a direction of the sliding grooves; when the position recovery element is compressed by applying a force thereon, the lock piece is compressed along the direction perpendicular to the sliding grooves; the outer ring comprises a sliding track configured for slidably engaging with the sliding grooves; the sliding track comprises an engaging piece along the installation direction, the engaging piece comprises a pressing surface and a locking surface; when the pressing surface abuts against the lock portion at the other end of the lock piece, the lock portion of the other end of the lock piece is compressed in response to a force and moves along with a detaching direction of the pressing surface, so that the sliding track and the sliding grooves are movable along the installation direction; when the pressing surface moves and departures from the lock portion at the other end of the lock piece, the lock portion at the other end of the lock piece is affected by the position recovery element such that the lock portion locks with the locking surface, and the sliding track and the sliding grooves are position limited along the installation direction; characterized in that: the detachable installation module comprises a fixing base and a stage, the stage extending outwardly along a direction perpendicular to the sliding grooves and from a middle of a lateral surface of the fixing base, which is parallel to the sliding track; an end of the stage extends along a left side and a right side horizontally along a direction parallel to the lateral surface, thus forming the sliding grooves at the left side and the right side of the stage; and the fixing base has an opening connected with the sliding groove at the lateral surface parallel to the sliding track, and the opening extends and forms a container cavity along the direction perpendicular to the sliding grooves. the detachable installation module comprises a fixing base and a stage, the stage extending outwardly along a direction perpendicular to the sliding grooves and from a middle of a lateral surface of the fixing base, which is parallel to the sliding track; an end of the stage extends along a left side and a right side horizontally along a direction parallel to the lateral surface, thus forming the sliding grooves at the left side and the right side of the stage; and the fixing base has an opening connected with the sliding groove at the lateral surface parallel to the sliding track, and the opening extends and forms a container cavity along the direction perpendicular to the sliding grooves.
A method for manufacturing a dual cosmetic container, comprising: molding an inner preform (40 or 40a) formed with a patterned portion having one or more shapes selected from characters, pictures, figures, and helical grooves on the outer surface thereof using an upper mold for the inner preform having a molding space and formed with a pattern molding portion on the inner circumferential surface thereof and an lower mold for the inner preform having a molding space for a discharge portion; inserting the inner preform (40 or 40a) into a molding space of an upper mold for an outer preform, fixing a discharge portion of the inner preform (40 or 40a) to a lower mold for the outer preform, feeding a liquid raw material into the molding space of the upper mold for the outer preform, and molding the outer preform in close contact with the outer surface of the inner preform (40 or 40a) formed with the patterned portion; and simultaneously heating the inner preform (40 or 40a) and the outer preform molded in close contact with each other, inserting the two heated preforms into a molding space of a blow mold, inserting a blow tube into the discharge portion of the inner preform (40 or 40a), and simultaneously expanding the inner preform (40 or 40a) and the outer preform by blow molding to manufacture the desired dual cosmetic container in which an inner container (100 or 100a) and an outer container are in close contact with each other, characterized in that inwardly protruding expandable pattern molding portions are formed in the upper and lower portions of the inner surface of the upper mold for the inner preform and expansion compensation portions are formed above and below the patterned portion of the inner container to prevent the patterned portion from being distorted upon expansion.
An automatic machine for providing corrugated sheet-like elements, comprising means for the continuous corrugation of a ribbon in motion in a longitudinal direction, said corrugation means comprising an upper conveyor and a lower conveyor, said upper conveyor comprising a plurality of upper abutment elements that are extended substantially transversely to said longitudinal direction of motion of said ribbon, said lower conveyor comprising a plurality of lower abutment elements that are extended substantially transversely to said longitudinal direction of motion of said ribbon, said upper abutment elements being intercalated between said lower abutment elements in a work area, said upper abutment elements each comprising a flap, which has, in the end adapted to make contact with said ribbon, at least one portion comprising grip means (75, 77, 770), said grip means (75, 77) being formed by one or two mutually opposite undercut portions (76, 78, 79), characterized in that said upper conveyor and said lower conveyor each comprises respectively an upper chain and a lower chain, which unwind continuously, said upper abutment elements and said lower abutment elements being associated respectively with the links of said upper chain and of said lower chain, in said work area, said lower chain defining a lower movement direction of said lower abutment elements that is inclined with respect to the upper movement direction of said upper abutment elements defined by said upper chain, said upper conveyor comprises at least two upper sprockets (710, 711), with which said upper chain is associated, said lower conveyor comprising at least two lower sprockets (910, 911) with which said lower chain is associated, at least one upper sprocket of said upper sprockets (710, 711) being connected kinematically to at least one lower sprocket of said lower sprockets (910, 911), so that the rotation of said at least one upper sprocket causes the rotation of said at least one lower sprocket or vice versa, and said at least one upper sprocket and said at least one lower sprocket are connected kinematically by a transmission chain, wherein the automatic machine comprises means for offsetting the rotation of said upper sprocket about its own rotation axis with respect to the rotation of said lower sprocket relative to its own rotation axis in order to ensure that said upper abutment elements are intercalated between said lower abutment elements, and in that said offsetting means comprise a guiding fork that comprises two arms (82, 83) with which two guiding sprockets (84, 85) are associated respectively to guide said transmission chain, said guiding fork being rotatable with respect to a rotation axis, the rotation of said guiding fork varying the length of the segment of said transmission chain comprised between said upper sprocket and said lower sprocket in order to offset the rotation of said upper sprocket with respect to the rotation of said lower sprocket.
A device for pressing coating material onto a flat surface to be coated, which is moved in a throughput direction, particularly a panel, such as a furniture panel, having a plurality of rollers and a support frame, characterized in that the device contains a plurality of spring mountings that is arranged between support frame and a machine frame, whereat • the rollers are arranged in the support frame with mutually parallel axes and rigid mounting, but in a rotatable manner, • the support frame has at least three or four spring mountings, • the spring mountings are suitable for exerting a pressure force for pressing the coating material via the support frame and the rollers. • the rollers are arranged in the support frame with mutually parallel axes and rigid mounting, but in a rotatable manner, • the support frame has at least three or four spring mountings, • the spring mountings are suitable for exerting a pressure force for pressing the coating material via the support frame and the rollers.
A magnetic resonance imaging system component, wherein the magnetic resonance imaging system component comprises an acoustic shield for a magnetic resonance imaging cylindrical magnet assembly, wherein the acoustic shield comprises a cylindrical portion configured for being inserted into a bore of the magnetic resonance imaging cylindrical magnet assembly and for completely covering the bore of the magnetic resonance imaging system, wherein the cylindrical portion comprises a smooth exposed surface configured for facing away from the magnetic resonance imaging cylindrical magnet assembly, wherein the cylindrical portion further comprises an attachment surface, wherein the acoustic shield further comprises an acoustic metamaterial layer attached to the attachment surface, wherein the magnetic resonance imaging system component further comprises the magnetic resonance imaging cylindrical magnet assembly, wherein the magnetic resonance imaging system component comprises an air gap between the acoustic metamaterial layer and the magnetic resonance imaging cylindrical magnet assembly, characterized in that the magnetic resonance imaging system component further comprises an air pressure control system configured for controlling an air pressure of the air gap to adjust a frequency dependency of acoustic absorption by the acoustic shield.
A method of controlling a door opening and closing device of a refrigerator, comprising the ordered steps of: detecting that operation of a motor is halted; disconnecting the motor from a power circuit and connecting the motor to a back electromotive force circuit when operation of the motor is halted; disconnecting the motor from the back electromotive force circuit and connecting the motor to the power circuit when a predetermined back electromotive force value is detected; and activating the motor to rotate a door (4, 6) in a closing direction. detecting that operation of a motor is halted; disconnecting the motor from a power circuit and connecting the motor to a back electromotive force circuit when operation of the motor is halted; disconnecting the motor from the back electromotive force circuit and connecting the motor to the power circuit when a predetermined back electromotive force value is detected; and activating the motor to rotate a door (4, 6) in a closing direction.