mhurhangee/ep-ind-claims huggingface dataset:
A method for intercommunicating address book information between different network address book systems, comprising receiving an interworking request carrying address book information, wherein the interworking request comes from a network address book system other than a Converged Address Book system; converting the address book information according to an address book format supported by a server of the CAB system; and sending the converted address book information to the CAB system, wherein a format of the address book information carried in the interworking request is a vCard format or an hCard format, wherein the converting the address book information according to the address book format supported by the CAB system comprises: reading information of key fields in the vCard or the hCard; writing the information of the key fields into corresponding fields of a CAB in a predetermined format; and generating a beginning row and an end row according to requirements of Personal Communication Information format, so as to obtain complete address book information in the predetermined format, wherein the Personal Communication Information format is an address book format supported by the CAB system. converting the address book information according to an address book format supported by a server of the CAB system; and sending the converted address book information to the CAB system, reading information of key fields in the vCard or the hCard; writing the information of the key fields into corresponding fields of a CAB in a predetermined format; and generating a beginning row and an end row according to requirements of Personal Communication Information format, so as to obtain complete address book information in the predetermined format, wherein the Personal Communication Information format is an address book format supported by the CAB system.
A method (507, 609) for tuple recovery, comprising: sending a first tuple from an upstream node over a data channel (582, 688); sending a second tuple from the upstream node over the data channel without receiving an acknowledgment for the first tuple (584, 690) wherein tuples are sent over the data channel in sequential order; and characterized by receiving a request to resend a tuple for a downstream node using a messaging channel (586, 692) separate from the data channel; and out of order sending the requested tuple over the messaging channel; wherein the messaging channel is used to send a request to resend a tuple, to send an acknowledgment that a tuple was received, and to resend the requested tuple. sending a first tuple from an upstream node over a data channel (582, 688); sending a second tuple from the upstream node over the data channel without receiving an acknowledgment for the first tuple (584, 690) wherein tuples are sent over the data channel in sequential order; and characterized by receiving a request to resend a tuple for a downstream node using a messaging channel (586, 692) separate from the data channel; and out of order sending the requested tuple over the messaging channel; wherein the messaging channel is used to send a request to resend a tuple, to send an acknowledgment that a tuple was received, and to resend the requested tuple.
An ex vivo -method for the increased production of cardiomyocytes, wherein the method comprises the steps of: a) incubating human pluripotent stem cells from a selected cell clone derived from a single pluripotent stem cell in an adherent culture or a suspension culture, the stem cell clone being either a human embryonic stem cell clone or a human induced pluripotent stem cell clone (iPS), in a selected culture media batch, under conditions to promote aggregate formation, wherein the conditions to promote aggregate formation comprise externally added ROCK inhibitor, myosin II inhibitor, fibroblast growth factor or hepatic growth factor; b) determining the level of one or more differentiation factors appropriate for cardiac differentiation of the selected human pluripotent stem cell clone cultured in the selected culture media batch; c) obtaining a cardiac differentiation medium prepared by adjusting the level of the one or more differentiation factors in the cardiac differentiation medium according to the results obtained in step b); and d) differentiating the stem cells incubated in step a) into cardiomyocytes by culturing the human pluripotent stem cells in the cardiac differentiation medium obtained in step c). a) incubating human pluripotent stem cells from a selected cell clone derived from a single pluripotent stem cell in an adherent culture or a suspension culture, the stem cell clone being either a human embryonic stem cell clone or a human induced pluripotent stem cell clone (iPS), in a selected culture media batch, under conditions to promote aggregate formation, wherein the conditions to promote aggregate formation comprise externally added ROCK inhibitor, myosin II inhibitor, fibroblast growth factor or hepatic growth factor; b) determining the level of one or more differentiation factors appropriate for cardiac differentiation of the selected human pluripotent stem cell clone cultured in the selected culture media batch; c) obtaining a cardiac differentiation medium prepared by adjusting the level of the one or more differentiation factors in the cardiac differentiation medium according to the results obtained in step b); and d) differentiating the stem cells incubated in step a) into cardiomyocytes by culturing the human pluripotent stem cells in the cardiac differentiation medium obtained in step c).
An oven comprising an exterior body, a cooking cavity wherein the cooking process is performed, a door providing access into the cooking cavity, a front panel disposed at the upper side of the door, a control unit disposed behind the front panel, an air channel disposed at the upper side of the cooking cavity, having an outlet port opening to the outside environment from between the door and the front panel, a cooling fan disposed inside the air channel, operated in accordance with a predetermined algorithm, in successive stopping and operating periods and a humidity sensor detecting the rate of humidity emitted by the cooking foodstuffs and providing the cooking process to be regulated by the control unit depending on the rate of humidity, characterized by the humidity sensor disposed on the flow path of the humid air discharged to the outside environment by the cooling fan and the control unit that detects whether or not there is an error preventing operation of the cooling fan by monitoring the data received from the humidity sensor, further characterized in that the control unit determines there aren't any errors preventing the operation of the cooling fan upon detecting a sudden peak in the humidity values measured in the air channel after some time after the start of the cooking process by monitoring the change of data with respect to time (t) received from the humidity sensor.
A method for generating channel quality data for scheduling transmission over a channel from a transmitter to a receiver in a wireless communication system, comprising: determining a respective channel quality indicator for each of a plurality of frequency intervals of said channel; and feeding back from the receiver to the transmitter: the respective channel quality indicator for each of a number of frequency intervals selected from said plurality of frequency intervals, and the respective channel quality indicators for all others of said plurality of frequency intervals; characterised in that: said number is at least three, and each of the channel quality indicators for all said other frequency intervals are transmitted differentially with respect to the channel quality indicator of an adjacent frequency interval. determining a respective channel quality indicator for each of a plurality of frequency intervals of said channel; and feeding back from the receiver to the transmitter: the respective channel quality indicator for each of a number of frequency intervals selected from said plurality of frequency intervals, and the respective channel quality indicators for all others of said plurality of frequency intervals; the respective channel quality indicator for each of a number of frequency intervals selected from said plurality of frequency intervals, and the respective channel quality indicators for all others of said plurality of frequency intervals; characterised in that: said number is at least three, and each of the channel quality indicators for all said other frequency intervals are transmitted differentially with respect to the channel quality indicator of an adjacent frequency interval. said number is at least three, and each of the channel quality indicators for all said other frequency intervals are transmitted differentially with respect to the channel quality indicator of an adjacent frequency interval.
A method of operating a system controller, comprising: receiving location information of a first electronic device from the first electronic device; determining a second electronic device to be paired with a third electronic device, wherein the second electronic device is located within a predetermined threshold distance from the first electronic device, based on the location information of the first electronic device and location information of the second electronic device; and sending a signal requesting the determined second electronic device to operate in a pairing mode for initiating a pairing between the second electronic device and the third electronic device. receiving location information of a first electronic device from the first electronic device; determining a second electronic device to be paired with a third electronic device, wherein the second electronic device is located within a predetermined threshold distance from the first electronic device, based on the location information of the first electronic device and location information of the second electronic device; and sending a signal requesting the determined second electronic device to operate in a pairing mode for initiating a pairing between the second electronic device and the third electronic device.
A conveying method for a separator of an electrical device, the separator including a melt material representing a substrate and a heat-resistant material laminated on one surface of the melt material and having a melting point higher than the melt material, the separator conveying method comprising the step: conveying the separator using a drive member that is configured to contact the separator for conveying the separator and a pressure member that is configured to be driven by the drive member while urging the drive member via the separator, wherein the drive member is configured to contact a portion of the melt material of the separator. conveying the separator using a drive member that is configured to contact the separator for conveying the separator and a pressure member that is configured to be driven by the drive member while urging the drive member via the separator, wherein the drive member is configured to contact a portion of the melt material of the separator.
A computer-readable storage medium comprising computer-executable instructions that, when executed by a computer, cause the computer to: receive attitude measurements from secondary attitude sensors; and generate attitude error correction values for attitude measurements from primary attitude sensors based on the attitude measurements from the secondary attitude sensors using expanded equations derived for a subset of a plurality of block sub-matrices partitioned into 3x3, 3x2, 2x3, and 2x2 blocks from the 8x8 matrices of an 8-state Kalman filter, a remainder of the plurality of block sub-matrices being pre-calculated. receive attitude measurements from secondary attitude sensors; and generate attitude error correction values for attitude measurements from primary attitude sensors based on the attitude measurements from the secondary attitude sensors using expanded equations derived for a subset of a plurality of block sub-matrices partitioned into 3x3, 3x2, 2x3, and 2x2 blocks from the 8x8 matrices of an 8-state Kalman filter, a remainder of the plurality of block sub-matrices being pre-calculated.
A method for generating a tooth panoramic image, comprising: determining a frame frequency of a reference detector, and determining a frame frequency of a photographing detector according to the frame frequency of the reference detector; photographing teeth of a user according to the frame frequency of the photographing detector to generate a plurality of images; performing a shift and superposition on the plurality of images to generate a first panoramic image; characterised by: acquiring a fuzzy region in the first panoramic image; and performing a frame frequency adjustment on each row in the fuzzy region to generate a clear image, and fusing the clear image and the first panoramic image to generate a second panoramic image. determining a frame frequency of a reference detector, and determining a frame frequency of a photographing detector according to the frame frequency of the reference detector; photographing teeth of a user according to the frame frequency of the photographing detector to generate a plurality of images; performing a shift and superposition on the plurality of images to generate a first panoramic image; characterised by: acquiring a fuzzy region in the first panoramic image; and performing a frame frequency adjustment on each row in the fuzzy region to generate a clear image, and fusing the clear image and the first panoramic image to generate a second panoramic image. acquiring a fuzzy region in the first panoramic image; and performing a frame frequency adjustment on each row in the fuzzy region to generate a clear image, and fusing the clear image and the first panoramic image to generate a second panoramic image.
A dispenser for a flowable medium, such as soap, foam soap or the like, having an outlet opening on the underside, having a sensor in the region of the outlet opening, which sensor emits an electrical signal upon sensing a person, and having an electrical pump which is caused to dispense a portion of the medium through the outlet opening as a result of the electrical signal from the sensor, a switch being provided on the dispenser, characterized in that after operation of said switch an undisturbed motion of a person below the dispenser is allowed by causing the next signal from the sensor to emit an optical or acoustic signal instead of dispensing a portion of the medium.
A system for providing therapy to a patient having a medical condition, comprising: means for preferentially stimulating dorsal horn neuronal elements over dorsal column neuronal elements by delivering electrical stimulation energy, from an electrode array implanted near or upon dura, to a spinal cord of the patient in accordance with a stimulation program, wherein the means for preferentially stimulating dorsal horn neuronal elements over dorsal column neuronal elements includes means for generating from the electrode array a plurality of electrical fields having different orientations and means for cycling through the plurality of electrical fields having different orientations multiple times to target different orientations of the dorsal horn neuronal elements, wherein the electrical fields having different orientations are generated during electrical field cycles in a same order or in a different order.
A method for producing coated recyclable paper or paperboard, wherein the paper or paperboard is coated with at least a first and second coating layers consisting of an aqueous polymer dispersion, characterized in that: - the aqueous polymer dispersion in each layer consists of from about 70 to about 90 weight % of a polymer emulsion based on the dry weight of the coating and from about 10 to about 30 weight % of a pigment based on the dry weight of the coating with any remainder consisting of additives selected from the group consisting of thickening agents, de-foaming or antifoaming agents, dispersing aids, crosslinking agents, slip additives, release agents and antiblocking agents, with no waxes present; and in that the method of coating comprises the steps of: a) drying each coating layer to an elevated temperature by applying heated air having a temperature above about 100°C; and b) cooling the coated paper or paperboard to a temperature below about 40°C; wherein the drying and cooling steps (a) and (b) result in the coated paper or paperboard product having a water resistance of less than 10 g/m 2 and a moisture vapor transfer rate of less than 120 g/m 2, and wherein the coated paper or paperboard product is heat sealable. - the aqueous polymer dispersion in each layer consists of from about 70 to about 90 weight % of a polymer emulsion based on the dry weight of the coating and from about 10 to about 30 weight % of a pigment based on the dry weight of the coating with any remainder consisting of additives selected from the group consisting of thickening agents, de-foaming or antifoaming agents, dispersing aids, crosslinking agents, slip additives, release agents and antiblocking agents, with no waxes present; a) drying each coating layer to an elevated temperature by applying heated air having a temperature above about 100°C; and b) cooling the coated paper or paperboard to a temperature below about 40°C;
A primary alkaline electrochemical cell comprising an anode including an electrochemically active anode material selected from the group of zinc, zinc alloys, cadmium, iron, and metal hydride, a cathode including an electrochemically active cathode material selected from the group of manganese oxide, manganese dioxide, electrolytic manganese dioxide, chemical manganese dioxide, high power electrolytic manganese dioxide (HP EMD), lambda manganese dioxide, silver oxide, nickel oxide, nickel oxyhydroxide, copper oxide, bismuth oxide, high-valence nickel, and mixtures thereof, a separator between said anode and said cathode, and an electrolyte comprising an ionically-conductive component dissolved in water, and characterized in that the separator in combination with the electrolyte has an initial area-specific resistance between 100 mOhm-cm 2 and 220 mOhm-cm 2; a final area-specific resistance less than 500 mOhm-cm 2; and an ASR ratio of less than 1.9, wherein the ASR ratio is the ratio of the final area-specific resistance to the initial area-specific resistance; ASR is determined as described in the description; the initial area-specific resistance of the separator in combination with the electrolyte is an area-specific resistance prior to 1-electron discharge; and the final area-specific resistance is an area-specific resistance at the point of completion of 1-electron discharge.
Process for the biocatalytic preparation of sphingolipids of the general formula I by reacting a lysosphingolipid of the general formula II with at least one carboxylic ester selected from the group comprising compounds of the general formulae IIIa-e in the presence of a biocatalyst which includes at least one carboxylic ester hydrolase of enzyme class E.C. 3.1.1, where R 1 represents independently of one another and optionally different, linear or branched, alkyl chains which have 2 to 55 carbon atoms, optionally comprise one or more multiple bonds and/or aromatic or heteroaromatic rings, are optionally interrupted by oxygen atoms or ester or amide functionalities and are optionally substituted by at least one further group selected from alkyl, hydroxy, keto or amine groups, R 2 represents H, phosphocholine, ethanolamine, serine or a sugar, X represents CH=CH, CH 2 -CH 2 or CH 2 -HCOH. where R 1 represents independently of one another and optionally different, linear or branched, alkyl chains which have 2 to 55 carbon atoms, optionally comprise one or more multiple bonds and/or aromatic or heteroaromatic rings, are optionally interrupted by oxygen atoms or ester or amide functionalities and are optionally substituted by at least one further group selected from alkyl, hydroxy, keto or amine groups, R 2 represents H, phosphocholine, ethanolamine, serine or a sugar, X represents CH=CH, CH 2 -CH 2 or CH 2 -HCOH.
A cover plate for covering a hole of a road, the cover plate comprising several elongated metal profiles arranged side by side, each metal profile having opposite side walls (7, 8, 7', 8', 7", 8"), the adjacent side walls of adjacent metal profiles abutting on each other, wherein the metal profiles have been attached to each other along the long sides thereof, the metal profiles thereby forming a plate shaped entity having a bottom surface and a top surface (9, 10), characterized in that the cover plate further comprises elongated wedge shaped end pieces attached at opposite ends of the plate shaped entity, extending perpendicularly to the metal profiles, covering the ends of the metal profiles, and each having a sloping top surface, the cover plate thereby being arranged to be placed with the metal profiles extending along a driving direction of the road, wherein the shape of the metal profiles is selected from a group of shapes comprising metal profiles having a rectangular cross-section and U-profiles, wherein the metal profiles are attached to each other by spot welded portions (29, 31) lengthwise intermittently situated alternately at upper edges and lower edges of the metal profiles.
A method to expand and differentiate pluripotent cells, comprising the steps of: a) Culturing pluripotent cells, and b) Treating the pluripotent cells with an inhibitor of GSK-3B enzyme activity wherein the inhibitor of GSK-3B enzyme activity is 3-[1-(2-hydroxy-ethyl)-1H-indol-3-yl]-4-(1-pyridin-3-yl-1H-indol-3-yl)-pyrrole-2,5-dione. a) Culturing pluripotent cells, and b) Treating the pluripotent cells with an inhibitor of GSK-3B enzyme activity wherein the inhibitor of GSK-3B enzyme activity is 3-[1-(2-hydroxy-ethyl)-1H-indol-3-yl]-4-(1-pyridin-3-yl-1H-indol-3-yl)-pyrrole-2,5-dione.
A liquid formulation comprising an antibody and an excipient compound, wherein the excipient compound is caffeine and is added in a viscosity-reducing amount, wherein the viscosity-reducing amount of caffeine is between 10 mg/mL to 200 mg/mL, wherein the antibody is in an amount of at least 100 mg/ml; and wherein the viscosity of the formulation is at least 50% less than the viscosity of a control formulation, wherein the control formulation does not contain the caffeine but is otherwise identical on a dry weight basis to the liquid formulation. wherein the viscosity-reducing amount of caffeine is between 10 mg/mL to 200 mg/mL, wherein the antibody is in an amount of at least 100 mg/ml; and wherein the viscosity of the formulation is at least 50% less than the viscosity of a control formulation, wherein the control formulation does not contain the caffeine but is otherwise identical on a dry weight basis to the liquid formulation.
A method for transmitting a random access preamble, the method comprising: generating, by a user equipment, UE, the random access preamble; and characterized in that: when a number of physical random access channel, PRACH, repetitions per attempt is larger than a threshold, splitting, by the UE, the random access preamble into a plurality of parts (1205, 1210), and separately transmitting, by the UE, the plurality of parts in discontinuous time resources; wherein the random access preamble comprises the PRACH repetitions. when a number of physical random access channel, PRACH, repetitions per attempt is larger than a threshold, splitting, by the UE, the random access preamble into a plurality of parts (1205, 1210), and separately transmitting, by the UE, the plurality of parts in discontinuous time resources; splitting, by the UE, the random access preamble into a plurality of parts (1205, 1210), and separately transmitting, by the UE, the plurality of parts in discontinuous time resources; wherein the random access preamble comprises the PRACH repetitions.