mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a disc stack centrifugal separator configured to separate a heavy phase and a light phase from a liquid feed mixture, the disc stack centrifugal separator comprising a rotor delimiting therein a separation space, an inlet for the liquid feed mixture leading into the separation space, a first outlet for the heavy phase, a second outlet for the light phase, and at least one channel (16, 16') extending from at least one radially outer portion (18, 18') of the separation space towards a central portion of the rotor, wherein the first outlet is arranged in fluid communication with the at least one channel (16, 16'), and wherein the method comprises steps of: - rotating the rotor, - commencing supply of the liquid feed mixture having a solid matter content into the separation space via the inlet, - separating the liquid feed mixture into at least the heavy phase and the light phase in the separation space, wherein the solid matter is separated from the liquid feed mixture as part of the heavy phase, and - determining at the first outlet that a pressure build-up period has passed, and thereafter - determining that an abrupt pressure change takes place at the first outlet, and - controlling the centrifugal separator in response to the abrupt pressure change. a rotor delimiting therein a separation space, an inlet for the liquid feed mixture leading into the separation space, a first outlet for the heavy phase, a second outlet for the light phase, and at least one channel (16, 16') extending from at least one radially outer portion (18, 18') of the separation space towards a central portion of the rotor, wherein the first outlet is arranged in fluid communication with the at least one channel (16, 16'), and wherein the method comprises steps of: - rotating the rotor, - commencing supply of the liquid feed mixture having a solid matter content into the separation space via the inlet, - separating the liquid feed mixture into at least the heavy phase and the light phase in the separation space, wherein the solid matter is separated from the liquid feed mixture as part of the heavy phase, and - determining at the first outlet that a pressure build-up period has passed, and thereafter - determining that an abrupt pressure change takes place at the first outlet, and - controlling the centrifugal separator in response to the abrupt pressure change. - rotating the rotor, - commencing supply of the liquid feed mixture having a solid matter content into the separation space via the inlet, - separating the liquid feed mixture into at least the heavy phase and the light phase in the separation space, wherein the solid matter is separated from the liquid feed mixture as part of the heavy phase, and - determining at the first outlet that a pressure build-up period has passed, and thereafter - determining that an abrupt pressure change takes place at the first outlet, and - controlling the centrifugal separator in response to the abrupt pressure change.
Carbidopa, levodopa and entacapone for use as a combination in the treatment of Parkinson's disease, wherein the carbidopa and the levodopa are formulated as a sole parenteral composition for continuous subcutaneous administration, and said entacapone is formulated as an oral composition and is administered at a dose of 400, 450, 500, 550 or 600 mg twice or three times a day.
An outdoor unit for an air-conditioning apparatus, the outdoor unit comprising: a casing having a rectangular plan-view shape formed of a front portion, a left portion provided on a side of the front portion, a right portion provided opposite the left portion, and a rear portion provided opposite the front portion; a heat exchanger provided in the casing and including a plurality of parts each having a rectangular plan-view shape with side faces being present on a front side, a left side, a right side, and a rear side, respectively, of the casing; and a plurality of air-sending fans (34a, 34b) provided above a plurality of air inlet spaces (35a, 35b), respectively, the air inlet spaces (35a, 35b) each being provided on an inner side of a corresponding one of the plurality of rectangular parts of the heat exchanger, wherein the heat exchanger comprises a plurality of heat-exchanger units (51, 52a, 52b), wherein the plurality of heat exchanger units (51, 52a, 52b) comprises two heat-exchanger units (52a, 52b) each having a U-shape having bends in plan view having a side face (52a1, 52b1) on the left side, a side face (52a3, 52b3) on the right side, and a side face (52a2, 52b2) on the rear side, characterized in that the plurality of heat exchanger units (51, 52a, 52b) comprises one heat-exchanger unit having a straight plan-view shape extending along the front portion of the casing over the air inlet spaces (35a, 35b). a casing having a rectangular plan-view shape formed of a front portion, a left portion provided on a side of the front portion, a right portion provided opposite the left portion, and a rear portion provided opposite the front portion; a heat exchanger provided in the casing and including a plurality of parts each having a rectangular plan-view shape with side faces being present on a front side, a left side, a right side, and a rear side, respectively, of the casing; and a plurality of air-sending fans (34a, 34b) provided above a plurality of air inlet spaces (35a, 35b), respectively, the air inlet spaces (35a, 35b) each being provided on an inner side of a corresponding one of the plurality of rectangular parts of the heat exchanger, wherein the heat exchanger comprises a plurality of heat-exchanger units (51, 52a, 52b), wherein the plurality of heat exchanger units (51, 52a, 52b) comprises two heat-exchanger units (52a, 52b) each having a U-shape having bends in plan view having a side face (52a1, 52b1) on the left side, a side face (52a3, 52b3) on the right side, and a side face (52a2, 52b2) on the rear side, characterized in that the plurality of heat exchanger units (51, 52a, 52b) comprises one heat-exchanger unit having a straight plan-view shape extending along the front portion of the casing over the air inlet spaces (35a, 35b).
A power tool which includes a housing and a base, said housing mounted to be moveable with respect to, and spaced from, the base, said housing including a motor to rotate a shaft which includes, at its free end, a tool holder for a cutting tool, said shaft extending from the housing such that the tool holder is located at or adjacent to the base and said housing is connected to the base by at least first and second extendable assemblies (10,12), at least one of the assemblies including biasing means located so as to bias the housing away from the base and the said at least one extendable assembly is provided with a control portion which is movable, from a first position in which the biasing means is engaged to provide the biasing force and a second position in which the biasing means is released from providing the biasing force, characterised by said control portion including a biasing means location portion which moves linearly out of the extendable assembly when the control portion is moved to the second position so that the control portion is retained with an elongate fixture member of the extendable assembly while in the second position.
A thin, narrow tube of a biodegradable medical device, wherein the thin, narrow tube is a round tube (143, 153) made of crystals (143c, 153c) containing magnesium having a hexagonal crystal structure, the round tube having an outer diameter that deviates from a target longitudinal position by less than 1.5 micrometers, and when the crystals forming the round tube are viewed in a round tube axis direction of the round tube, a hexagonal basal plane is uniformly oriented at a predetermined inclination angle with respect to a circumferential direction perpendicular to a radial direction of the round tube.
A transgenic swine comprising: (a) a mutation of an endogenous p53 gene, wherein the p53 mutation is a missense mutation and results in an amino acid substitution corresponding to an R167H amino acid substitution, or a substitution corresponding to amino acid position Y220, G245, R248, or R273 in human p53; wherein said amino acid substitution results in an altered expression of a p53 translation product and/or in expression of a non-functional p53 protein that corresponds to an alteration in a human p53 gene associated with a lymphoma, a renal tumor, a mesenteric tumor or an osteogenic tumor; and (b) a mutation of an endogenous KRAS gene, wherein the KRAS mutation is an activating mutation. (a) a mutation of an endogenous p53 gene, wherein the p53 mutation is a missense mutation and results in an amino acid substitution corresponding to an R167H amino acid substitution, or a substitution corresponding to amino acid position Y220, G245, R248, or R273 in human p53; wherein said amino acid substitution results in an altered expression of a p53 translation product and/or in expression of a non-functional p53 protein that corresponds to an alteration in a human p53 gene associated with a lymphoma, a renal tumor, a mesenteric tumor or an osteogenic tumor; and (b) a mutation of an endogenous KRAS gene, wherein the KRAS mutation is an activating mutation.
A manufacturing method of food packing material having hydrophobicity, comprising: (a) preparing a mold in which a number of grooves are formed, and (b) forming a number of columns corresponding to the groove in one side of the food packing material by pressurizing the mold to the food packing material, wherein (a) the preparing of the mold includes (a-1) preparing a first metal layer; characterized in that (a) the preparing of the mold further includes (a-2) laminating a photoresist film at a top of the first metal layer; (a-3) patterning the photoresist film and forming a number of the photoresist patterns to be spaced at a predetermined interval from each other, and (a-4) forming the mold by laminating a second metal layer at the first metal layer. (a) preparing a mold in which a number of grooves are formed, and (b) forming a number of columns corresponding to the groove in one side of the food packing material by pressurizing the mold to the food packing material, wherein (a) the preparing of the mold includes (a-1) preparing a first metal layer; characterized in that (a) the preparing of the mold further includes (a-2) laminating a photoresist film at a top of the first metal layer; (a-3) patterning the photoresist film and forming a number of the photoresist patterns to be spaced at a predetermined interval from each other, and (a-4) forming the mold by laminating a second metal layer at the first metal layer. (a-1) preparing a first metal layer; characterized in that (a) the preparing of the mold further includes (a-2) laminating a photoresist film at a top of the first metal layer; (a-3) patterning the photoresist film and forming a number of the photoresist patterns to be spaced at a predetermined interval from each other, and (a-4) forming the mold by laminating a second metal layer at the first metal layer.
A method for configuring access rights, comprising: receiving Control Point Identifier, CPID, information sent by a first Control Point, CP, without administrator rights, wherein the CPID information comprises an identifier, ID, of another CP obtained by the first CP; sending a CPID list that comprises the CPID information to a second CP with administrator rights; and receiving a CP right configuration command sent by the second CP, and configuring access rights for CPs corresponding to CPIDs in the CPID list. receiving Control Point Identifier, CPID, information sent by a first Control Point, CP, without administrator rights, wherein the CPID information comprises an identifier, ID, of another CP obtained by the first CP; sending a CPID list that comprises the CPID information to a second CP with administrator rights; and receiving a CP right configuration command sent by the second CP, and configuring access rights for CPs corresponding to CPIDs in the CPID list.
A pharmaceutical composition comprising: - 5-10 % of crystallized 6-(4-bromo-2-fluorophenylamino)-7-fluoro-3-methyl-3H-benzoimidazole-5-carboxylic acid (2-hydroxyethyoxy)-amide, - 50-60 %, preferably 55-56 %, of lactose monohydrate, and - 20-40 %, preferably 30-36 %, of microcrystalline cellulose, by weight of composition. - 5-10 % of crystallized 6-(4-bromo-2-fluorophenylamino)-7-fluoro-3-methyl-3H-benzoimidazole-5-carboxylic acid (2-hydroxyethyoxy)-amide, - 50-60 %, preferably 55-56 %, of lactose monohydrate, and - 20-40 %, preferably 30-36 %, of microcrystalline cellulose, by weight of composition.
A method for ultrasonically inspecting components with uneven surfaces, comprising: providing a fluid coupling of at least several ultrasonic wavelengths thick between a multi-element array ultrasonic transducer and a component by immersing the component in liquid that provides a space between the transducer and component that allows a relatively small radius of curvature of uneven surface on the component without resulting in contact between the transducer and component; scanning the component, firing each individual ultrasonic element one at a time; recording the received reflected ultrasonic waveform from each element in the array; processing the collected array of ultrasonic waveform data to measure the surface profile of the component; calculating signal processing parameters based on the measured surface profile, as a function of probe position, to eliminate beam distortion; and processing the collected array of data using the newly calculated signal processing parameters to correct for surface irregularities in the component and obtain an inspection of the interior reflectors of the component. providing a fluid coupling of at least several ultrasonic wavelengths thick between a multi-element array ultrasonic transducer and a component by immersing the component in liquid that provides a space between the transducer and component that allows a relatively small radius of curvature of uneven surface on the component without resulting in contact between the transducer and component; scanning the component, firing each individual ultrasonic element one at a time; recording the received reflected ultrasonic waveform from each element in the array; processing the collected array of ultrasonic waveform data to measure the surface profile of the component; calculating signal processing parameters based on the measured surface profile, as a function of probe position, to eliminate beam distortion; and processing the collected array of data using the newly calculated signal processing parameters to correct for surface irregularities in the component and obtain an inspection of the interior reflectors of the component.
System for operating the hollow blades of a helicopter with compressed air, the system comprising, in addition to the hollow blades having nozzles: - at least a first machine comprising an engine and configured for generating the mechanical power necessary to the helicopter lift; - at least a second machine comprising a compressor and configured for generating the compressed air for operating the hollow blades; - coupling means for coupling the first machine with the second machine; and - coupling means for coupling the second machine with the blades, comprising a hollow shaft of the rotor and an oscillating hollow head of the rotor supporting the blades, the hollow shaft of the rotor internally comprising a conduit connecting the hollow shaft of the rotor to the oscillating hollow head; characterised in that the oscillating hollow head is an elastic head and comprises an elastomeric flexible and deformable channel connecting the conduit with the blades and having the shape of a multiple "V" which presents, in the terminal parts of the "V", a number of branches equal to the number of the blades and able to guide the compressed air towards the nozzles of the blades. - at least a first machine comprising an engine and configured for generating the mechanical power necessary to the helicopter lift; - at least a second machine comprising a compressor and configured for generating the compressed air for operating the hollow blades; - coupling means for coupling the first machine with the second machine; and - coupling means for coupling the second machine with the blades, comprising a hollow shaft of the rotor and an oscillating hollow head of the rotor supporting the blades, the hollow shaft of the rotor internally comprising a conduit connecting the hollow shaft of the rotor to the oscillating hollow head; characterised in that the oscillating hollow head is an elastic head and comprises an elastomeric flexible and deformable channel connecting the conduit with the blades and having the shape of a multiple "V" which presents, in the terminal parts of the "V", a number of branches equal to the number of the blades and able to guide the compressed air towards the nozzles of the blades.
A vehicle air-conditioning system outlet unit comprising at least one duct (14, 16) surrounded by a wall (22, 24, 26, 28, 30), and an electrode connected to a voltage source, characterized in that the electrode comprises at least one angled portion (68, 70) protruding into the at least one duct (14, 16) for ionization of the air flowing through the at least one duct (14, 16), wherein the at least one angled portion (68, 70) includes a tip freely terminating in the at least one duct (14, 16) and an end portion terminating with the tip, wherein the portion, protruding into the at least one duct (14, 16), of the at least one angled portion (68, 70), as seen in a side view and transversely to the flow direction, extends without corners up to the tip, wherein the end portion is integrally adjoined by a connecting portion which extends up to a mounting portion of the electrode and which together with the end portion produces an L-shape.
A method of generating a configuration for a network on chip, NoC, in a programmable device, comprising: receiving traffic flow requirements for a plurality of traffic flows; assigning routes through a network of the NoC for each traffic flow based on the traffic flow requirements, the network of the NoC comprising interconnected programmable switches, each of the routes being between a master circuit and a slave circuit, an ingress circuit being coupled between a respective master circuit and the network of the NoC, an egress circuit being coupled between a respective slave circuit and the network of the NoC; determining arbitration settings for the traffic flows along the assigned routes; generating programming data for the NoC based on the routes and the arbitration settings; and loading the programming data to the programmable device to program at least some of the programmable switches of the network of the NoC, wherein when programmed, each programmed switch of the programmable switches is operable to route a communication between a pair of programmable switches of the programmable switches, or between a respective ingress circuit or a respective ingress circuit and another programmable switch of the programmable switches. receiving traffic flow requirements for a plurality of traffic flows; assigning routes through a network of the NoC for each traffic flow based on the traffic flow requirements, the network of the NoC comprising interconnected programmable switches, each of the routes being between a master circuit and a slave circuit, an ingress circuit being coupled between a respective master circuit and the network of the NoC, an egress circuit being coupled between a respective slave circuit and the network of the NoC; determining arbitration settings for the traffic flows along the assigned routes; generating programming data for the NoC based on the routes and the arbitration settings; and loading the programming data to the programmable device to program at least some of the programmable switches of the network of the NoC, wherein when programmed, each programmed switch of the programmable switches is operable to route a communication between a pair of programmable switches of the programmable switches, or between a respective ingress circuit or a respective ingress circuit and another programmable switch of the programmable switches.
An image decoding method for decoding an encoded bit stream of a video object, the method comprising: a VOP header analyzing step of decoding a VOP time increment; and a GOV header analyzing step of decoding a time code; a VOL header analyzing step of decoding a VOP rate flag, contained in encoded form in a header information part of a VOL layer composed of several VOPs, the VOP rate flag indicating that a display rate in the VOL of the VOP to be decoded is a fixed rate; and characterised in that in a case where the VOP rate flag indicates that it is the fixed rate, decoding a VOP rate information which is contained in encoded form in the header information part of the VOL layer composed of several VOPs and which indicates a temporal distance between any two successive VOPs in the VOL, wherein the temporal distance to be indicated by a combination of the VOP rate information and a count value of the VOPs is equal to a distance between display time of the VOPs, the display time being derived by the VOP time increment, and wherein the VOP header analyzing step specifies an absolute time of the VOP to be decoded by a VOP decoding step from the VOP rate information in combination with a count value of the VOP and the time code decoded by the GOV header analyzing step. a VOP header analyzing step of decoding a VOP time increment; and a GOV header analyzing step of decoding a time code; a VOL header analyzing step of decoding a VOP rate flag, contained in encoded form in a header information part of a VOL layer composed of several VOPs, the VOP rate flag indicating that a display rate in the VOL of the VOP to be decoded is a fixed rate; and characterised in that in a case where the VOP rate flag indicates that it is the fixed rate, decoding a VOP rate information which is contained in encoded form in the header information part of the VOL layer composed of several VOPs and which indicates a temporal distance between any two successive VOPs in the VOL, wherein the temporal distance to be indicated by a combination of the VOP rate information and a count value of the VOPs is equal to a distance between display time of the VOPs, the display time being derived by the VOP time increment, and wherein the VOP header analyzing step specifies an absolute time of the VOP to be decoded by a VOP decoding step from the VOP rate information in combination with a count value of the VOP and the time code decoded by the GOV header analyzing step.