mhurhangee/ep-ind-claims huggingface dataset:
An injection molding machine, comprising: a screw having a check valve and arranged rotatable and axially movable in a cylinder; a detecting means for detecting an axial position of said screw in an advancing motion of said screw in the cylinder; characterised by check-valve closing position determining means that determines an axial position of said screw when said check valve closes in the advancing motion of said screw, as a check-valve closing position; and by calculating means that calculates a distance of the axial motion of said screw from a position where said screw starts the advancing motion to the check-valve closing position as a check valve closing stroke. a screw having a check valve and arranged rotatable and axially movable in a cylinder; a detecting means for detecting an axial position of said screw in an advancing motion of said screw in the cylinder; characterised by check-valve closing position determining means that determines an axial position of said screw when said check valve closes in the advancing motion of said screw, as a check-valve closing position; and by calculating means that calculates a distance of the axial motion of said screw from a position where said screw starts the advancing motion to the check-valve closing position as a check valve closing stroke.
An optical transmission apparatus, comprising: an assignment means configured to assign an information signal to a subcarrier with a frequency different from a frequency of a received radio signal based on the signal system of the received radio signal, wherein the signal system corresponds to a carrier frequency and a working bandwidth; a creation means configured to create a multi-carrier signal, in which information signals are multiplexed, each of the information signals being assigned to one subcarrier by the assignment means; and a multiplexing means configured to frequency-multiplex the received radio signal to the multi-carrier signal created by the creation means; and an electric-optical converting means configured to optically convert the frequency-multiplexed multi-carrier signal and outputs a resulting optical frequency-multiplexed multi-carrier signal. an assignment means configured to assign an information signal to a subcarrier with a frequency different from a frequency of a received radio signal based on the signal system of the received radio signal, wherein the signal system corresponds to a carrier frequency and a working bandwidth; a creation means configured to create a multi-carrier signal, in which information signals are multiplexed, each of the information signals being assigned to one subcarrier by the assignment means; and a multiplexing means configured to frequency-multiplex the received radio signal to the multi-carrier signal created by the creation means; and an electric-optical converting means configured to optically convert the frequency-multiplexed multi-carrier signal and outputs a resulting optical frequency-multiplexed multi-carrier signal.
A method comprising: - determining, by a network element and for each vectoring group from a plurality of vectoring groups, a transmission load of the vectoring group based on transmission loads of links within the vectoring group; - allocating, by the network element, a different transmission interval to each vectoring group from the plurality of vectoring groups based on the transmission load of the vectoring group and transmission loads of other vectoring groups in the plurality of vectoring groups; and - transmitting, during each different transmission interval, at least a portion of the transmission load of the vectoring group that was allocated the different transmission interval; - wherein transmitting, during each different transmission interval, at least a portion of the transmission load of the vectoring group that was allocated the different transmission interval comprises simultaneously transmitting data for a particular vectoring group over one or more links of the vectoring group; - wherein transmitting, during each different transmission interval, at least a portion of the transmission load of the vectoring group that was allocated the different transmission interval comprises transmitting data over the links according to priorities of the data; characterized by - wherein a shared time duration is allocated among all vectoring groups that have data to transmit, and any time not used by a group is distributed among remaining vectoring groups that have data to transmit. - determining, by a network element and for each vectoring group from a plurality of vectoring groups, a transmission load of the vectoring group based on transmission loads of links within the vectoring group; - allocating, by the network element, a different transmission interval to each vectoring group from the plurality of vectoring groups based on the transmission load of the vectoring group and transmission loads of other vectoring groups in the plurality of vectoring groups; and - transmitting, during each different transmission interval, at least a portion of the transmission load of the vectoring group that was allocated the different transmission interval; - wherein transmitting, during each different transmission interval, at least a portion of the transmission load of the vectoring group that was allocated the different transmission interval comprises simultaneously transmitting data for a particular vectoring group over one or more links of the vectoring group; - wherein transmitting, during each different transmission interval, at least a portion of the transmission load of the vectoring group that was allocated the different transmission interval comprises transmitting data over the links according to priorities of the data; characterized by - wherein a shared time duration is allocated among all vectoring groups that have data to transmit, and any time not used by a group is distributed among remaining vectoring groups that have data to transmit.
Pump for an SCR system in vehicles, having a housing, in which at least one pump element (10, 11) is arranged, which can be actuated by an eccentric drive (3, 4), has at least one pump piston (12, 13), which is provided with at least one metallic spring bellows (18, 19), which radially delimits a receiving room (43, 44, 61, 62; 87) for the fluid to be pumped and can be elastically deformed during the pumping process, and has at least one pressure valve (47, 51; 50, 54) and at least one suction valve (48, 51; 49, 53), which are respectively provided with a valve body (51 to 54), characterized in that holes (47, 48; 49, 50) open out into the bottom (45, 46) of the receiving room (43, 44, 61, 62; 87), which are closed by the valve bodies (51 to 54) of the suction and pressure valve, and in that a hole (71, 72) opens out into the bottom (45, 46) of the receiving room (43, 44, 61, 62; 87), in which a compensating piston (73, 74) is mounted, which partially delimits the receiving room (43, 44) for the fluid, is spring-loaded in the direction of the receiving room and is part of a compensating device (73 to 76), which absorbs increases in volume occurring when freezing the liquid by displacement against spring force.
Method for optimising the thickness of cross-wound bobbins produced on workstations of a cross-wound bobbin machine, wherein the workstations are provided respectively with a device connected to a workstation computer for detecting a thread length wound onto the cross-wound bobbin and a device for determining the diameter of the cross-wound bobbin and have a thread tension-control device with a thread tensile strength sensor and a thread tensioner, characterised in that with a cross-wound bobbin wound on a workstation of the cross-wound bobbin machine on reaching a predefinable thread length a comparison is made of the present diameter of the cross-wound bobbin or on reaching a prespecified diameter of the cross-wound bobbin a comparison is made of the wound thread length with corresponding values of cross-wound bobbins wound on other workstations of the cross-wound bobbin machine, and in that on exceeding a limit value of a deviation of the value of said cross-wound bobbin from the corresponding values of the cross-wound bobbins wound on the other workstations of the cross-wound bobbin machine, on the basis of a correction factor, resulting from the degree of deviation, a regulatory intervention is performed in the thread tension control device of the workstation.
A method for mapping control channel resources, comprising: dynamically determining (S101, S301, S401) the number of enhanced control channel elements E-CCEs multiplexed in one resource block pair, wherein the E-CCEs are borne over resource elements REs for transmission in the resource block pair and the E-CCEs constitute an enhanced physical downlink control channel E-PDCCH; and sending (S102, S302, S402) the E-PDCCH to a user equipment according to the determined number of E-CCEs multiplexed in one resource block pair; characterized in that the dynamically determining the number of E-CCEs multiplexed in one resource block pair comprises: determining, according to system configuration and an actual transmission condition, the number of E-CCEs multiplexed in one resource block pair. dynamically determining (S101, S301, S401) the number of enhanced control channel elements E-CCEs multiplexed in one resource block pair, wherein the E-CCEs are borne over resource elements REs for transmission in the resource block pair and the E-CCEs constitute an enhanced physical downlink control channel E-PDCCH; and sending (S102, S302, S402) the E-PDCCH to a user equipment according to the determined number of E-CCEs multiplexed in one resource block pair; characterized in that the dynamically determining the number of E-CCEs multiplexed in one resource block pair comprises: determining, according to system configuration and an actual transmission condition, the number of E-CCEs multiplexed in one resource block pair. determining, according to system configuration and an actual transmission condition, the number of E-CCEs multiplexed in one resource block pair.
A method of spectrum coordination in a dynamic spectrum management network, comprising: receiving a channel request from a requesting wireless network, wherein the requesting wireless network is from among a plurality of secondary user wireless networks (1920, 1925, 1930); obtaining, from a database, information about channels that are available for the requesting wireless network; determining channel usage information of associated secondary user wireless networks; and providing, to the requesting wireless network, a ranked list of the channels that are available for the requesting wireless network based at least on the obtained information about the channels that are available for the requesting wireless network and the channel usage information. receiving a channel request from a requesting wireless network, wherein the requesting wireless network is from among a plurality of secondary user wireless networks (1920, 1925, 1930); obtaining, from a database, information about channels that are available for the requesting wireless network; determining channel usage information of associated secondary user wireless networks; and providing, to the requesting wireless network, a ranked list of the channels that are available for the requesting wireless network based at least on the obtained information about the channels that are available for the requesting wireless network and the channel usage information.
A composition for use in the treatment of Age-Associated Memory Impairment (AAMI) in a mammal, the composition comprising: acetoacetate; D-β-hydroxybutyrate; an ester of acetoacetate, 1,3-butane diol or D-β-hydroxybutyrate moiety with trihydric, polyhydric, monohydric or dihydric alcohol; a 3-hydroxyacid selected from hydroxybutyric acid, 3-hydroxyvaleric acid, 3-hydroxyhexanoic acid or 3-hydroxyheptanoic acid, or an ester thereof; or a glycerol ester; wherein the composition is capable of directly elevating ketone body concentrations in the body of the patient. acetoacetate; D-β-hydroxybutyrate; an ester of acetoacetate, 1,3-butane diol or D-β-hydroxybutyrate moiety with trihydric, polyhydric, monohydric or dihydric alcohol; a 3-hydroxyacid selected from hydroxybutyric acid, 3-hydroxyvaleric acid, 3-hydroxyhexanoic acid or 3-hydroxyheptanoic acid, or an ester thereof; or a glycerol ester;
A topical composition for application to hair or scalp comprising a creatine compound selected from the group consisting of creatine, creatine phosphate and cyclocreatine in combination with 5'-AMP, NADH and carnitine, wherein the overall amount of the combination, including the creatine compound, is from 0.0001 to 10% by weight of the total composition.
An oral dosage form comprising a composition and one or more excipients, wherein the composition comprises 15 wt.% to 35 wt.% linear sugar alcohol, 10 wt.% to 25 wt.% water and the remainder crosslinked cation exchange polymer, with the weight percents based on the total weight of linear sugar alcohol, water and polymer, wherein the crosslinked cation exchange polymer comprises structural units corresponding to Formulae 1, 2, and 3, wherein (i) the structural units corresponding to Formula 1 constitute at least 85 wt.% based on the total weight of structural units of Formulae 1, 2, and 3 in the polymer, calculated from the amounts of monomers used in the polymerization reaction, and the weight ratio of the structural unit corresponding to Formula 2 to the structural unit corresponding to Formula 3 is from 4:1 to 1:4, or (ii) the mole fraction of the structural unit of Formula 1 in the polymer is at least 0.87 based on the total number of moles of the structural units of Formulae 1, 2, and 3, calculated from the amounts of monomers used in the polymerization reaction, and the mole ratio of the structural unit of Formula 2 to the structural unit of Formula 3 is from 0.2:1 to 7:1, and Formula 1, Formula 2, and Formula 3 correspond to the following structures: wherein R 1 and R 2 are independently hydrogen, alkyl, cycloalkyl, or aryl; A 1 is carboxylic, phosphonic, or phosphoric, in its salt or acid form; X 1 is arylene; X 2 is alkylene, an ether moiety or an amide moiety. (i) the structural units corresponding to Formula 1 constitute at least 85 wt.% based on the total weight of structural units of Formulae 1, 2, and 3 in the polymer, calculated from the amounts of monomers used in the polymerization reaction, and the weight ratio of the structural unit corresponding to Formula 2 to the structural unit corresponding to Formula 3 is from 4:1 to 1:4, or (ii) the mole fraction of the structural unit of Formula 1 in the polymer is at least 0.87 based on the total number of moles of the structural units of Formulae 1, 2, and 3, calculated from the amounts of monomers used in the polymerization reaction, and the mole ratio of the structural unit of Formula 2 to the structural unit of Formula 3 is from 0.2:1 to 7:1, and Formula 1, Formula 2, and Formula 3 correspond to the following structures: wherein R 1 and R 2 are independently hydrogen, alkyl, cycloalkyl, or aryl; A 1 is carboxylic, phosphonic, or phosphoric, in its salt or acid form; X 1 is arylene; X 2 is alkylene, an ether moiety or an amide moiety. R 1 and R 2 are independently hydrogen, alkyl, cycloalkyl, or aryl; A 1 is carboxylic, phosphonic, or phosphoric, in its salt or acid form; X 1 is arylene; X 2 is alkylene, an ether moiety or an amide moiety.
A control system of a vehicle comprising: a driver monitor camera capturing an face of a driver of a vehicle to generate a facial image of the driver, a driver condition detection part configured to detect a condition of the driver based on the facial image, a steering system operating wheels and a steering wheel of the vehicle, characterized by a steering control part configured to set a target turning angle of the wheels and a target steering angle of the steering wheel to control the steering system, wherein the steering wheel is positioned between the driver monitor camera and the driver such that it can, at times, hide an eye or the eyes of the driver, from the driver monitor camera, and the steering control part is configured to make an upper limit value of the target steering angle a value up to a maximum angle when one eye of the driver is not hidden by the steering wheel in the facial image generated when the driver is facing the front. a driver monitor camera capturing an face of a driver of a vehicle to generate a facial image of the driver, a driver condition detection part configured to detect a condition of the driver based on the facial image, a steering system operating wheels and a steering wheel of the vehicle, characterized by a steering control part configured to set a target turning angle of the wheels and a target steering angle of the steering wheel to control the steering system, wherein the steering wheel is positioned between the driver monitor camera and the driver such that it can, at times, hide an eye or the eyes of the driver, from the driver monitor camera, and the steering control part is configured to make an upper limit value of the target steering angle a value up to a maximum angle when one eye of the driver is not hidden by the steering wheel in the facial image generated when the driver is facing the front.
A management node, comprising: processing circuitry configured to: receive an origin certificate for a first service type, the received origin certificate including a public key and a private key; receive a certificate request for a first instance of the first service type; generate a first proxy certificate based at least on the received origin certificate; and transmit the first proxy certificate and the public key of the received origin certificate to a first virtual network function component, the public key of the received origin certificate being for inclusion to a listing of trusted certificates at the first virtual network function component. receive an origin certificate for a first service type, the received origin certificate including a public key and a private key; receive a certificate request for a first instance of the first service type; generate a first proxy certificate based at least on the received origin certificate; and transmit the first proxy certificate and the public key of the received origin certificate to a first virtual network function component, the public key of the received origin certificate being for inclusion to a listing of trusted certificates at the first virtual network function component.
A method for combusting waste material comprising: providing a fuel comprising a waste material, said fuel having an ash content of at least 1.5%; introducing the fuel into the combustion zone of a furnace and combusting the fuel to produce ash; and injecting 0.1% - 12% by weight of the fuel of an aluminosilicate-containing mineral additive directly into the flue gas above the combustion zone of the furnace to minimize contact of the mineral additive with the fuel or ash and to direct the mineral additive particles parallel to the direction of flue gas flow, whereby the solid-gas reactions between the mineral additive and the volatile compounds in the flue gas are favored, wherein the mineral additive captures alkali, toxic metal compounds and/or fluorine from the flue gas, thereby reducing the presence of soluble toxic metal compounds, chlorides and/or sulphates in the ash and hydrofluoric acid, alkali and/or toxic metal volatile compounds in the flue gas. providing a fuel comprising a waste material, said fuel having an ash content of at least 1.5%; introducing the fuel into the combustion zone of a furnace and combusting the fuel to produce ash; and injecting 0.1% - 12% by weight of the fuel of an aluminosilicate-containing mineral additive directly into the flue gas above the combustion zone of the furnace to minimize contact of the mineral additive with the fuel or ash and to direct the mineral additive particles parallel to the direction of flue gas flow, whereby the solid-gas reactions between the mineral additive and the volatile compounds in the flue gas are favored, wherein the mineral additive captures alkali, toxic metal compounds and/or fluorine from the flue gas, thereby reducing the presence of soluble toxic metal compounds, chlorides and/or sulphates in the ash and hydrofluoric acid, alkali and/or toxic metal volatile compounds in the flue gas.
A method for laminating with protective films deposited using application units, on a first ( 3 1) and a second ( 3 2) face of a flat part moved along a horizontal path and each having a surface to be covered possessing a predetermined height to be covered determined between a lower edge and an upper edge of the part and a predetermined length to be covered determined between a front edge and a rear edge of the part and respectively delimited by a front border ( 3'a) and a rear border ( 3'b), the method consisting: • in disposing in series on the horizontal path of a first face of the part, several first application units ( Ua1, Ua2,...) and in series on the horizontal path of the second face of the part, several second application units ( Ub1, Ub2,...) each positioned facing a first application unit located on the first face; • in placing the first application units ( Ua1, Ua2,...) and the second application units ( Ub1, Ub2,...) in different vertical positions such that the combined application with overlapping of the protective films on each of the faces of the part corresponds to the height to be covered; • in gradually applying as the part travels along the horizontal path, using the first application units and the second application units, the protective films respectively to the first face and to the second face of the part, starting from the front border ( 3'a) of the surface to be covered and over the length of the surface to be covered to provide the simultaneous lamination of the two faces of the part; • and in successively cutting out as a function of the horizontal path of the part, using the first and second application units, the protective films at the level of the rear border of the length to be covered. • in disposing in series on the horizontal path of a first face of the part, several first application units ( Ua1, Ua2,...) and in series on the horizontal path of the second face of the part, several second application units ( Ub1, Ub2,...) each positioned facing a first application unit located on the first face; • in placing the first application units ( Ua1, Ua2,...) and the second application units ( Ub1, Ub2,...) in different vertical positions such that the combined application with overlapping of the protective films on each of the faces of the part corresponds to the height to be covered; • in gradually applying as the part travels along the horizontal path, using the first application units and the second application units, the protective films respectively to the first face and to the second face of the part, starting from the front border ( 3'a) of the surface to be covered and over the length of the surface to be covered to provide the simultaneous lamination of the two faces of the part; • and in successively cutting out as a function of the horizontal path of the part, using the first and second application units, the protective films at the level of the rear border of the length to be covered.