mhurhangee/ep-ind-claims huggingface dataset:
A data management apparatus comprising: a transformed data set generation unit that generates a transformed data set by randomly mixing a sequence of rows or columns of an original data set formed in rows and columns; and a data management unit that provides the transformed data set to the user terminal (100a, 100b, 100n), characterized in that the data management unit matches and stores information on the sequence of rows or columns of the transformed data set that is randomly mixed from the original data set, and information on a user who is provided with the transformed data set, wherein the transformed data set generation unit uses the sequence of the rows or the columns of the original data set that is differently mixed each time the transformed data set is generated from the original data set, and wherein, when a predetermined transformed data set is provided, the data management unit identifies a user who is provided with the predetermined transformed data set, using information on a sequence of rows or columns of the predetermined transformed data set. a transformed data set generation unit that generates a transformed data set by randomly mixing a sequence of rows or columns of an original data set formed in rows and columns; and a data management unit that provides the transformed data set to the user terminal (100a, 100b, 100n), characterized in that the data management unit matches and stores information on the sequence of rows or columns of the transformed data set that is randomly mixed from the original data set, and information on a user who is provided with the transformed data set, wherein the transformed data set generation unit uses the sequence of the rows or the columns of the original data set that is differently mixed each time the transformed data set is generated from the original data set, and wherein, when a predetermined transformed data set is provided, the data management unit identifies a user who is provided with the predetermined transformed data set, using information on a sequence of rows or columns of the predetermined transformed data set.
A composition comprising a graft copolymer that comprises: (i) a backbone comprising an alpha-1,3-glucan ether compound that has a degree of substitution of about 0.001 to about 3.0, and (ii) one or more alpha-1,3-glucan side chains comprising at least about 50% alpha-1,3 glycosidic linkages; wherein the alpha-1,3-glucan ether compound comprises an ether-linked carboxyalkyl group. (i) a backbone comprising an alpha-1,3-glucan ether compound that has a degree of substitution of about 0.001 to about 3.0, and (ii) one or more alpha-1,3-glucan side chains comprising at least about 50% alpha-1,3 glycosidic linkages;
A method for allocating resource to a mobile user in a mobile communication, comprising steps of: generating a resource allocation mapping sequence by a base station based on a hopping scheme, which is generated randomly; and allocating communication resource by the base station to each UE within a cell, where the base station is present, based on the generated resource allocation mapping sequence, characterized in that the hopping scheme has a variable hopping distance, which is generated randomly, and that the resource allocation mapping sequence comprises indices of a first sub-frame and indices of a second sub-frame, which are obtained based on the indices of the first sub-frame and the hopping distance, with the first sub-frame and the second sub-frame belonging to the same transmission time interval TTI, and each UE is allocated a pair of a first sub-frame index and a second sub-frame index. generating a resource allocation mapping sequence by a base station based on a hopping scheme, which is generated randomly; and allocating communication resource by the base station to each UE within a cell, where the base station is present, based on the generated resource allocation mapping sequence, characterized in that the hopping scheme has a variable hopping distance, which is generated randomly, and that the resource allocation mapping sequence comprises indices of a first sub-frame and indices of a second sub-frame, which are obtained based on the indices of the first sub-frame and the hopping distance, with the first sub-frame and the second sub-frame belonging to the same transmission time interval TTI, and each UE is allocated a pair of a first sub-frame index and a second sub-frame index.
A nozzle piece of a dental powder jet device for cleaning teeth in gum pockets configured for being replaceably arranged on a handpiece, and having a discharge nozzle for insertion into the gum pocket of air in admixture with a dental powder suitable for tooth cleaning, and which has a second discharge nozzle (18, 18') for supplying a fluid, wherein a front partial length at the outlet cross-section of the discharge nozzle projects outwardly over a grip part of the nozzle piece being attached to the handpiece and is of tubular design, and wherein the outlet cross-section of the discharge nozzle is formed with a few nozzle openings (9, 11, 12', 17) in the shell surface of the front end of the tubular partial length of the nozzle piece, which tubular partial length is in the form of tubes (7, 8), characterized in that the tube (7, 8) has an oval cross-section, and the axial front end of the tube (7, 8) is closed.
A method performed by an almost blank subframe, ABS, ratio determination device in a wireless communication system, the method comprising: obtaining (805, 807) first load information from a macro base station and second load information from at least one small base station; determining a first radio resource amount for first non-guaranteed bit rate, GBR, user equipments, UEs, of the macro base station based on the first load information, and determining a second radio resource amount for second non-GBR UEs of the at least one small base station and a third radio resource amount for third non-GBR, cell range expansion, CRE, UEs among the second non-GBR UEs based on the second load information; determining an ABS ratio as a ratio of the third radio resource amount to the first radio resource amount and the second radio resource amount; and transmitting the determined ABS ratio to the macro base station, wherein the first non-GBR UEs are located in a cell of the macro base station and receive non-GBR traffic, wherein the second non-GBR UEs are located in a cell of the at least one small base station and receive non-GBR traffic, and wherein the third non-GBR CRE UEs among the second non-GBR UEs are located in a CRE zone of the at least one small base station and receive non-GBR traffic. obtaining (805, 807) first load information from a macro base station and second load information from at least one small base station; determining a first radio resource amount for first non-guaranteed bit rate, GBR, user equipments, UEs, of the macro base station based on the first load information, and determining a second radio resource amount for second non-GBR UEs of the at least one small base station and a third radio resource amount for third non-GBR, cell range expansion, CRE, UEs among the second non-GBR UEs based on the second load information; determining an ABS ratio as a ratio of the third radio resource amount to the first radio resource amount and the second radio resource amount; and transmitting the determined ABS ratio to the macro base station, wherein the first non-GBR UEs are located in a cell of the macro base station and receive non-GBR traffic, wherein the second non-GBR UEs are located in a cell of the at least one small base station and receive non-GBR traffic, and wherein the third non-GBR CRE UEs among the second non-GBR UEs are located in a CRE zone of the at least one small base station and receive non-GBR traffic.
A method comprising: a mobile node receiving an incoming wireless call; the mobile node determining whether enhanced services are available for the incoming wireless call based on outputting a dual tone multiple frequency (DTMF) tone on a voice channel associated with the incoming wireless call and determining whether a notify message, indicating a server providing the enhanced services has received the DTMF tone, is received on a data channel during the incoming wireless call; and the mobile node selectively initiating the enhanced services for the incoming wireless call with the server in response to determining the enhanced services are available for the incoming wireless call. a mobile node receiving an incoming wireless call; the mobile node determining whether enhanced services are available for the incoming wireless call based on outputting a dual tone multiple frequency (DTMF) tone on a voice channel associated with the incoming wireless call and determining whether a notify message, indicating a server providing the enhanced services has received the DTMF tone, is received on a data channel during the incoming wireless call; and the mobile node selectively initiating the enhanced services for the incoming wireless call with the server in response to determining the enhanced services are available for the incoming wireless call.
Process for manufacturing carbon fiber fabrics, wherein a carbon fiber fabric is impregnated with a silicone, polyurethane or acrylic emulsion which is then dried together with the fabric, characterized in that at least one protective layer comprising a film, a woven fabric or a nonwoven fabric is applied onto one side of the fabric.
A method for coating a surface of an article, the method comprising the steps of: ionizing a gas mixture in a nozzle chamber of a plasma spray apparatus; discharging the ionized gas mixture as a plume along a longitudinal axis of the apparatus directed toward the surface to be coated, the plume having a plasma decay region in which the plasma begins to recombine into a gas, followed by a heated gas region downstream thereof; injecting a first coating powder, which is an oxide ceramic coating powder, normal to the longitudinal axis of the apparatus into the heated gas region of the ionized gas plume between the plasma spray apparatus and the surface to be coated so as to only partially melt the first coating powder; and solidifying the partially melted powder on the surface to form a first oxide ceramic coating. ionizing a gas mixture in a nozzle chamber of a plasma spray apparatus; discharging the ionized gas mixture as a plume along a longitudinal axis of the apparatus directed toward the surface to be coated, the plume having a plasma decay region in which the plasma begins to recombine into a gas, followed by a heated gas region downstream thereof; injecting a first coating powder, which is an oxide ceramic coating powder, normal to the longitudinal axis of the apparatus into the heated gas region of the ionized gas plume between the plasma spray apparatus and the surface to be coated so as to only partially melt the first coating powder; and solidifying the partially melted powder on the surface to form a first oxide ceramic coating.
Turbine engine, comprising two rotating shafts (3, 4) and a lubrication unit having at least one pump having a housing inside which is mounted a rotor, which is driven by one of said shafts, the pump housing being rotationally driven by the other of said shafts such that the actuation of the pump depends on the difference between the rotational speeds of the shafts, the shafts being a drive shaft and a fan shaft respectively, the fan shaft being driven by the drive shaft by means of a reducer which is lubricated by the lubrication unit, the reducer being annular, the pump axially passing through the reducer and the fan shaft, the housing of the pump being coupled by splines to one of said shafts, and the rotor of the pump being coupled by splines or linkages to the other of said shafts.
An optical pickup actuator comprising: a base having a holder positioned at one side of the base; a blade having an objective lens mounted at one side of the blade, and a guide groove; a magnetic driving portion which includes at least one fine pattern coil (140,145) installed across the guide groove, and magnets (130,135) arranged to be embedded in the guide groove opposite to each other at both sides of the fine pattern coil; and elastic supporting members having one end coupled to the holder such that the blade is movably supported, wherein said at least one fine pattern coil comprises first and second fine pattern coils (140,145), which are overlapped, and characterised in that the elastic supporting members are alternately soldered at a side of the first fine pattern coil and at a side of the second fine pattern coil opposite to said side of the first fine pattern coil and in that holes are formed in the first and second fine pattern coils (140, 145), said holes serving as paths through which current is supplied through the elastic supporting members to the first and second fine pattern coils (140, 145). a base having a holder positioned at one side of the base; a blade having an objective lens mounted at one side of the blade, and a guide groove; a magnetic driving portion which includes at least one fine pattern coil (140,145) installed across the guide groove, and magnets (130,135) arranged to be embedded in the guide groove opposite to each other at both sides of the fine pattern coil; and elastic supporting members having one end coupled to the holder such that the blade is movably supported, wherein said at least one fine pattern coil comprises first and second fine pattern coils (140,145), which are overlapped, and characterised in that the elastic supporting members are alternately soldered at a side of the first fine pattern coil and at a side of the second fine pattern coil opposite to said side of the first fine pattern coil and in that holes are formed in the first and second fine pattern coils (140, 145), said holes serving as paths through which current is supplied through the elastic supporting members to the first and second fine pattern coils (140, 145).
A three-dimensionally shaped object forming sheet (10, 10A), characterized by comprising: a thermally expansive layer distending at a predetermined temperature or higher; and a base (2, 2A) laminated on one side thereof with the thermally expansive layer, wherein on at least one side of the three-dimensionally shaped object forming sheet (10, 10A) a photothermal conversion layer (5, 5A) for converting absorbed light to heat is formed, the base (2, 2A) comprises a first base (21, 21A) and a second base (22, 22A) that are laminated, and the first base (21, 21A) has an elasticity that is greater than an elasticity of the second base (22, 22A). a thermally expansive layer distending at a predetermined temperature or higher; and a base (2, 2A) laminated on one side thereof with the thermally expansive layer, wherein on at least one side of the three-dimensionally shaped object forming sheet (10, 10A) a photothermal conversion layer (5, 5A) for converting absorbed light to heat is formed, the base (2, 2A) comprises a first base (21, 21A) and a second base (22, 22A) that are laminated, and the first base (21, 21A) has an elasticity that is greater than an elasticity of the second base (22, 22A).
A method comprising: receiving, at a processing device, charge data from a charging unit via a network, the charging unit including a charger and the charge data including a charge capacity indicating an amount of charge delivered to a battery during a most recent charging session and a device usage time indicating an amount of time that the battery was off the charger during a period preceding the most recent charging session; determining, by the processing device, an average discharge rate of the battery based on previously received charge data corresponding to the battery; determining, by the processing device, an estimated state of charge of the battery based on the average discharge rate and a current device usage time, the current device usage time corresponding to a period after the most recent charging session; and providing, by the processing device, the estimated state of charge to a user device for display. receiving, at a processing device, charge data from a charging unit via a network, the charging unit including a charger and the charge data including a charge capacity indicating an amount of charge delivered to a battery during a most recent charging session and a device usage time indicating an amount of time that the battery was off the charger during a period preceding the most recent charging session; determining, by the processing device, an average discharge rate of the battery based on previously received charge data corresponding to the battery; determining, by the processing device, an estimated state of charge of the battery based on the average discharge rate and a current device usage time, the current device usage time corresponding to a period after the most recent charging session; and providing, by the processing device, the estimated state of charge to a user device for display.
A sighting system for use with firearms, comprising: an LED light; a power source for powering the LED light; a circuit that receives current from the power source and provides current to the LED light; a housing (205, 255) for encasing the LED light, power source and circuit to act as an independent unit; wherein the housing (205, 255) is designed to be retrofit entirely on top of the firearm, so that in dim light a user is guided by light from the LED light to align the firearm toward a target; and characterized by the circuit being designed so that the current provided to the LED light is lower than 1% of a minimum forward current listed for the LED light by the LED light manufacturer and responsive to the current the LED light provides light that is visible in a dark surrounding. an LED light; a power source for powering the LED light; a circuit that receives current from the power source and provides current to the LED light; a housing (205, 255) for encasing the LED light, power source and circuit to act as an independent unit; wherein the housing (205, 255) is designed to be retrofit entirely on top of the firearm, so that in dim light a user is guided by light from the LED light to align the firearm toward a target; and characterized by the circuit being designed so that the current provided to the LED light is lower than 1% of a minimum forward current listed for the LED light by the LED light manufacturer and responsive to the current the LED light provides light that is visible in a dark surrounding.
Boost or buck power converter for converting an input primary power having an input primary voltage and an input primary current into a output secondary power having an output secondary voltage and output secondary current or an input secondary power having said input secondary voltage and an input secondary current into an output primary power having an output primary voltage and second primary current respectively; said power converter including at least one: - primary switching arrangement comprising at least one primary switching unit (131, 135) having a primary dynamical switching loss; - secondary switching arrangement comprising at least one secondary switching unit (171, 175) having a secondary dynamical switching loss; and, - resonant unit connecting said at least one primary switching unit (131, 135) and said at least one secondary switching unit (171, 175); characterised by said primary dynamical switching loss being higher than said secondary dynamical switching loss. - primary switching arrangement comprising at least one primary switching unit (131, 135) having a primary dynamical switching loss; - secondary switching arrangement comprising at least one secondary switching unit (171, 175) having a secondary dynamical switching loss; and, - resonant unit connecting said at least one primary switching unit (131, 135) and said at least one secondary switching unit (171, 175);
A wet cleaning apparatus comprising: a cleaner head having at least one dirt inlet (142A, 142B), and a porous material covering the at least one dirt inlet; and an underpressure generator configured to provide a pressure difference between an inside of the wet cleaning apparatus and atmospheric pressure for drawing fluid through the porous material and into the at least one dirt inlet, characterized in that the pressure difference is in a range of 2000 Pa to 13500 Pa, and the underpressure generator is configured to provide a flow rate through the porous material which is less than or equal to 2000 cm 3 /minute. a cleaner head having at least one dirt inlet (142A, 142B), and a porous material covering the at least one dirt inlet; and an underpressure generator configured to provide a pressure difference between an inside of the wet cleaning apparatus and atmospheric pressure for drawing fluid through the porous material and into the at least one dirt inlet, characterized in that the pressure difference is in a range of 2000 Pa to 13500 Pa, and the underpressure generator is configured to provide a flow rate through the porous material which is less than or equal to 2000 cm 3 /minute.
A method of sorting nucleic acid molecules having a predetermined target sequence, the method comprising: (a) providing a mixture of nucleic acid molecules comprising at least two populations of nucleic acid molecules, each population having (i) a unique target nucleic acid sequence that is the same for each population, the target nucleic acid sequence having two ends, and (ii) a pair of non-target oligonucleotide tag sequences at the two ends of each target nucleic acid sequence, such that in the mixture of nucleic acid molecules, each oligonucleotide tag sequence comprises a unique portion for each target nucleic acid sequence; wherein the mixture was prepared by tagging target nucleic acid molecules with a library of non-target oligonucleotide tag sequences that are present in a greater number than the target nucleic acid molecules; (b) sequencing the nucleic acid molecules from both ends to obtain a paired end read; and (c) sorting nucleic acid molecules having the predetermined target sequence according to the identity of their corresponding paired end read. (a) providing a mixture of nucleic acid molecules comprising at least two populations of nucleic acid molecules, each population having (i) a unique target nucleic acid sequence that is the same for each population, the target nucleic acid sequence having two ends, and (ii) a pair of non-target oligonucleotide tag sequences at the two ends of each target nucleic acid sequence, such that in the mixture of nucleic acid molecules, each oligonucleotide tag sequence comprises a unique portion for each target nucleic acid sequence; wherein the mixture was prepared by tagging target nucleic acid molecules with a library of non-target oligonucleotide tag sequences that are present in a greater number than the target nucleic acid molecules; (i) a unique target nucleic acid sequence that is the same for each population, the target nucleic acid sequence having two ends, and (ii) a pair of non-target oligonucleotide tag sequences at the two ends of each target nucleic acid sequence, such that in the mixture of nucleic acid molecules, each oligonucleotide tag sequence comprises a unique portion for each target nucleic acid sequence; wherein the mixture was prepared by tagging target nucleic acid molecules with a library of non-target oligonucleotide tag sequences that are present in a greater number than the target nucleic acid molecules; (b) sequencing the nucleic acid molecules from both ends to obtain a paired end read; and (c) sorting nucleic acid molecules having the predetermined target sequence according to the identity of their corresponding paired end read.