mhurhangee/ep-ind-claims huggingface dataset:
A method for culturing a stem cell having pluripotency, the method comprising: performing cell culture on a cell having pluripotency in the presence of a substance that can inhibit cell-cell adhesion, wherein said substance is hemagglutinin of a neurotoxin complex of Clostridium botulinum having an E-cadherin function inhibitory activity.
Cosmetic or dermatological preparations with a content of active substance combinations comprising a) one or more aromatic alcohols of the general structural formula wherein R 1 can represent: H, CH 3, OCH 3, NH 2, and wherein up to five identical or different radicals R 1 and any combinations of identical and different such radicals may occur within the same molecule, corresponding to n = 1-5. Index m can take values of 1-10, index y can take the values 0 or 1, index q can take values of 0-10, A and B independently represent H, OH, and branched and also unbranched alkyl radicals having 1-10 carbon atoms, and b) octanohydroxamic acid. a) one or more aromatic alcohols of the general structural formula wherein R 1 can represent: H, CH 3, OCH 3, NH 2, and wherein up to five identical or different radicals R 1 and any combinations of identical and different such radicals may occur within the same molecule, corresponding to n = 1-5. Index m can take values of 1-10, index y can take the values 0 or 1, index q can take values of 0-10, A and B independently represent H, OH, and branched and also unbranched alkyl radicals having 1-10 carbon atoms, and b) octanohydroxamic acid.
A method for privacy preserving machine learning in a federated learning system, the method comprising: determining, by a first computing entity in the federated learning system, a first labeling matrix based on applying a first set of labeling functions to first data points, the first labeling matrix comprising a plurality of first labels; obtaining, by the first computing entity from a third computing entity of the federated learning system, a similarity matrix computed by the third computing entity, the similarity matrix indicating similarity scores between the first data points and second data points associated with a second computing entity, the third computing entity being separate from the first computing entity and the second computing entity; augmenting, by the first computing entity, the first labeling matrix by transferring labels from a second labeling matrix into the first labeling matrix using the similarity scores between the first data points and the second data points, the second labeling matrix is received from the second computing entity and is based on applying a second set of labeling functions to the second data points; and training, by the first computing entity, a discriminative machine learning model associated with the first computing entity based on the first augmented labeling matrix. determining, by a first computing entity in the federated learning system, a first labeling matrix based on applying a first set of labeling functions to first data points, the first labeling matrix comprising a plurality of first labels; obtaining, by the first computing entity from a third computing entity of the federated learning system, a similarity matrix computed by the third computing entity, the similarity matrix indicating similarity scores between the first data points and second data points associated with a second computing entity, the third computing entity being separate from the first computing entity and the second computing entity; augmenting, by the first computing entity, the first labeling matrix by transferring labels from a second labeling matrix into the first labeling matrix using the similarity scores between the first data points and the second data points, the second labeling matrix is received from the second computing entity and is based on applying a second set of labeling functions to the second data points; and training, by the first computing entity, a discriminative machine learning model associated with the first computing entity based on the first augmented labeling matrix.
A system for satin finishing a part including at least two materials of different hardnesses, the system including: - at least one receiving device (23, 23') containing abrasive means including a hardness greater than at least one material to be satin finished but less than at least one other material to be left intact among said at least two materials of different hardnesses, - a support device including means for fixing the part, - means for approximating the part to the abrasive means and - means for relatively displacing the part with respect to the receiving device, said relative displacement forming the directions of the satin finishing lines, and - each receiving device (23, 23') includes a tank (24, 24') containing said abrasive means in powder form, characterised in that the tank (24, 24') is elastic in order to press said abrasive means in powder form between the tank (24, 24') and the part even when the abrasive means are under the constraint of approximation means ensuring optimum satin finish of said at least one material to be satin finished without modifying the aspect of said at least one other material to be left intact, and - the relative displacement means are configured to form directions of satin finishing lines which are linear or concentric. - at least one receiving device (23, 23') containing abrasive means including a hardness greater than at least one material to be satin finished but less than at least one other material to be left intact among said at least two materials of different hardnesses, - a support device including means for fixing the part, - means for approximating the part to the abrasive means and - means for relatively displacing the part with respect to the receiving device, said relative displacement forming the directions of the satin finishing lines, and - each receiving device (23, 23') includes a tank (24, 24') containing said abrasive means in powder form, characterised in that the tank (24, 24') is elastic in order to press said abrasive means in powder form between the tank (24, 24') and the part even when the abrasive means are under the constraint of approximation means ensuring optimum satin finish of said at least one material to be satin finished without modifying the aspect of said at least one other material to be left intact, and - the relative displacement means are configured to form directions of satin finishing lines which are linear or concentric.
A method comprising: displaying, via a display of an electronic device, by at least one processor of the electronic device, a menu including one or more options to set a dual subscriber identity module, hereinafter referred as to SIM, function to forward a first incoming call from a first phone number to a second phone number, or to forward a second incoming call from the second phone number to the first phone number, wherein the electronic device comprises a first SIM slot configured to accommodate a first SIM card corresponding to the first phone number and a second SIM slot configured to accommodate a second SIM card corresponding to the second phone number; receiving, via an input device of the electronic device, by the at least one processor, a selection of an option from the one or more options included in the menu; setting, by the at least one processor, based at least in part on the selection of the option, the dual SIM function to forward the first incoming call from the first phone number to the second phone number, or to forward the second incoming call from the second phone number to the first phone number, wherein information on the set dual SIM function is stored in a memory of the electronic device, wherein the first incoming call or the second incoming call is, via a communication module of the electronic device, received from an external electronic device; and after the selection is received, displaying, via the display, by the at least one processor, the first phone number as a forwarding phone number for the second SIM, or the second phone number as the forwarding phone number for the first SIM based at least in part on the setting. receiving, via an input device of the electronic device, by the at least one processor, a selection of an option from the one or more options included in the menu; setting, by the at least one processor, based at least in part on the selection of the option, the dual SIM function to forward the first incoming call from the first phone number to the second phone number, or to forward the second incoming call from the second phone number to the first phone number, wherein information on the set dual SIM function is stored in a memory of the electronic device, wherein the first incoming call or the second incoming call is, via a communication module of the electronic device, received from an external electronic device; and after the selection is received, displaying, via the display, by the at least one processor, the first phone number as a forwarding phone number for the second SIM, or the second phone number as the forwarding phone number for the first SIM based at least in part on the setting.
Procedure for the manufacture of a sensor of a thermal flowmeter designed to measure the mass flow of a medium in a measuring tube, wherein said procedure comprises the following steps: Fabrication of a metal shielding using a metal injection molding procedure, wherein the shielding has at least a first blind hole, wherein a first end of the shielding is open, and wherein a second end of the shielding is closed; Introduction of a sensor core (50, 51) into the first blind hole of the metal shielding through the first end, wherein the shielding fully surrounds the sensor core (50, 51); Sintering of the metal shielding, wherein the sensor core (50, 51) comprises: at least a ceramic core, which has at least a lateral surface; and at least a metal wire which is wrapped around the lateral surface of the ceramic core; and at least an electrically isolating layer which is provided to electrically isolate the metal wire in relation to the shielding, wherein, after sintering, the sensor core is held in place by the shielding. Fabrication of a metal shielding using a metal injection molding procedure, wherein the shielding has at least a first blind hole, wherein a first end of the shielding is open, and wherein a second end of the shielding is closed; Introduction of a sensor core (50, 51) into the first blind hole of the metal shielding through the first end, wherein the shielding fully surrounds the sensor core (50, 51); Sintering of the metal shielding, wherein the sensor core (50, 51) comprises: at least a ceramic core, which has at least a lateral surface; and at least a metal wire which is wrapped around the lateral surface of the ceramic core; and at least an electrically isolating layer which is provided to electrically isolate the metal wire in relation to the shielding, wherein, after sintering, the sensor core is held in place by the shielding. at least a ceramic core, which has at least a lateral surface; and at least a metal wire which is wrapped around the lateral surface of the ceramic core; and at least an electrically isolating layer which is provided to electrically isolate the metal wire in relation to the shielding, wherein, after sintering, the sensor core is held in place by the shielding.
A communication apparatus comprising: first transmitting means for transmitting a packet to a communication apparatus at the other end through a first communication line; second transmitting means for transmitting a packet to the communication apparatus at the other end through a second communication line; packet generation means for generating, by duplicating a packet, a plurality of duplicate packets, including said packet to be duplicated, in total; monitoring means for monitoring communication states of the first and second communication lines (31, 32); and control means for determining to transmit two or more of the generated plurality of duplicate packets to the communication apparatus at the other end by using at least one of the first and second communication lines (31, 32) according to the communication states, wherein when it is determined that communication quality in the second communication line is lower than predetermined communication quality in the monitoring means, the control means determines that two or more of the generated plurality of duplicate packets should be transmitted from the second transmitting means, and when it is determined that the communication quality in the second communication line is higher than the predetermined communication quality in the monitoring means, the control means determines that one of the generated plurality of duplicate packets should be transmitted from the second transmitting means. first transmitting means for transmitting a packet to a communication apparatus at the other end through a first communication line; second transmitting means for transmitting a packet to the communication apparatus at the other end through a second communication line; packet generation means for generating, by duplicating a packet, a plurality of duplicate packets, including said packet to be duplicated, in total; monitoring means for monitoring communication states of the first and second communication lines (31, 32); and control means for determining to transmit two or more of the generated plurality of duplicate packets to the communication apparatus at the other end by using at least one of the first and second communication lines (31, 32) according to the communication states, wherein when it is determined that communication quality in the second communication line is lower than predetermined communication quality in the monitoring means, the control means determines that two or more of the generated plurality of duplicate packets should be transmitted from the second transmitting means, and when it is determined that the communication quality in the second communication line is higher than the predetermined communication quality in the monitoring means, the control means determines that one of the generated plurality of duplicate packets should be transmitted from the second transmitting means.
A compound of Formula wherein: X is a direct bond, -NH-, -O-, -NHCO- or -CONH-; R 1 is optionally substituted alkyl, optionally substituted cycloalkyl or optionally substituted aryl; R 2 is optionally substituted alkyl, optionally substituted cycloalkyl, optionally substituted thioalkyl, optionally substituted cycloalkylalkyl, optionally substituted heterocyclyl, optionally substituted arylalkyl or optionally substituted aryl; R 3 and R 4 are independently optionally substituted alkyl, optionally substituted cycloalkyl, optionally substituted aryl, optionally substituted heteroaryl, optionally substituted heterocyclyl, optionally substituted arylalkyl, optionally substituted heteroarylalkyl or optionally substituted heterocycloalkyl; R 5 and R 6 are independently hydrogen, optionally substituted alkyl or optionally substituted cycloalkyl; R 7 and R 8 are independently hydrogen or optionally substituted alkyl; or a pharmaceutically acceptable salt, tautomer or stereoisomer thereof. X is a direct bond, -NH-, -O-, -NHCO- or -CONH-; R 1 is optionally substituted alkyl, optionally substituted cycloalkyl or optionally substituted aryl; R 2 is optionally substituted alkyl, optionally substituted cycloalkyl, optionally substituted thioalkyl, optionally substituted cycloalkylalkyl, optionally substituted heterocyclyl, optionally substituted arylalkyl or optionally substituted aryl; R 3 and R 4 are independently optionally substituted alkyl, optionally substituted cycloalkyl, optionally substituted aryl, optionally substituted heteroaryl, optionally substituted heterocyclyl, optionally substituted arylalkyl, optionally substituted heteroarylalkyl or optionally substituted heterocycloalkyl; R 5 and R 6 are independently hydrogen, optionally substituted alkyl or optionally substituted cycloalkyl; R 7 and R 8 are independently hydrogen or optionally substituted alkyl; or a pharmaceutically acceptable salt, tautomer or stereoisomer thereof.
A method for manufacturing a sapphire substrate and growing a nitride semiconductor light emitting device, the method comprising: providing a sapphire substrate having a C-plane as principle surface, a first etching step of forming a first mask on the C-plane of the sapphire substrate, and etching the sapphire substrate using the first mask as an etching mask to form a lower projection having a truncated pyramidal shape, and a first mask removing step of removing the first mask thereby exposing a top surface of the lower projection, and a second etching step of further etching the lower projection whose top surface has been exposed to form an upper projection having a pyramidal shape with a substantially sharpened tip on the lower projection, characterized in that the top surface of the substantially sharpened tip is so small that the nitride semiconductor does not grow from the top surface of the projection. providing a sapphire substrate having a C-plane as principle surface, a first etching step of forming a first mask on the C-plane of the sapphire substrate, and etching the sapphire substrate using the first mask as an etching mask to form a lower projection having a truncated pyramidal shape, and a first mask removing step of removing the first mask thereby exposing a top surface of the lower projection, and a second etching step of further etching the lower projection whose top surface has been exposed to form an upper projection having a pyramidal shape with a substantially sharpened tip on the lower projection, characterized in that the top surface of the substantially sharpened tip is so small that the nitride semiconductor does not grow from the top surface of the projection.
Improved two pieces window comprised by a frame manufactured with micro-laminated woods, joined by strong adhesives and a closing sheet constituted, from the outside to the inside by a block of two laminated glass sheets and a sheet of thick tempered glass, of a larger size, and separated by a vacuum chamber characterized in that the laminated glass sheets present a triangular elastic element that encircles them along the perimeter, located at their edge, and the sheet of tempered glass presents in its entire perimeter a cushion type elastic element and the closing space between the frame and the closing sheet is occupied by a decompression chamber attached to the frame, whose decompression chamber shows an elastic sheet adhered to by its free side that serves as a stop for the closing fitting, which closing fitting entails a drive handle, and is placed on the tempered glass by means of an adhesive.
An execution unit in a processor, the execution unit being configured to execute a computer program instruction fetched from instruction memory of the processor to generate random numbers based on a predetermined probability distribution, the execution unit comprising: a hardware pseudorandom number generator configured to generate at least randomised bit string on execution of the instruction by the execution unit; and adding circuitry (40a, 40b) configured to receive a plurality of bit sequences of a predetermined bit length selected from the randomised bit string and to sum them to produce a result, wherein the plurality of bit sequences are uniformly distributed random variables. a hardware pseudorandom number generator configured to generate at least randomised bit string on execution of the instruction by the execution unit; and adding circuitry (40a, 40b) configured to receive a plurality of bit sequences of a predetermined bit length selected from the randomised bit string and to sum them to produce a result, wherein the plurality of bit sequences are uniformly distributed random variables.
A power control method, comprising: determining an effective transmit power control, TPC, command window according to a preset physical downlink control channel, PDCCH, in a plurality of repeatedly transmitted PDCCHs, wherein the preset PDCCH is a last PDCCH in the plurality of PDCCHs; determining a closed-loop power adjustment state according to a TPC command in the effective TPC command window; and determining a transmit power of an uplink signal of a terminal device according to the closed-loop power adjustment state; wherein the closed-loop power adjustment state is an accumulation mode, and the plurality of repeatedly transmitted PDCCHs comprise a repeatedly transmitted second PDCCH; the power control method characterized in that the determining the effective TPC command window according to the preset PDCCH in the plurality of repeatedly transmitted PDCCHs comprises: determining a window between a first OFDM symbol after a last PDCCH in the repeatedly transmitted second PDCCH and a last OFDM symbol of a first PDCCH as the effective TPC command window. determining an effective transmit power control, TPC, command window according to a preset physical downlink control channel, PDCCH, in a plurality of repeatedly transmitted PDCCHs, wherein the preset PDCCH is a last PDCCH in the plurality of PDCCHs; determining a closed-loop power adjustment state according to a TPC command in the effective TPC command window; and determining a transmit power of an uplink signal of a terminal device according to the closed-loop power adjustment state; wherein the closed-loop power adjustment state is an accumulation mode, and the plurality of repeatedly transmitted PDCCHs comprise a repeatedly transmitted second PDCCH; the power control method characterized in that the determining the effective TPC command window according to the preset PDCCH in the plurality of repeatedly transmitted PDCCHs comprises: determining a window between a first OFDM symbol after a last PDCCH in the repeatedly transmitted second PDCCH and a last OFDM symbol of a first PDCCH as the effective TPC command window.
Method for validating a predetermined digital certificate using a validation device, wherein the validation device stores permission information that specifies which digital certificates from a multiplicity of digital certificates are permissible digital certificates, and wherein the validation device furthermore stores trust information that specifies a trust level of the permitted digital certificates, comprising: determining, taking into account the permission information, whether the predetermined digital certificate is permissible; and if it is determined that the predetermined digital certificate is permissible, determining the trust level of the predetermined digital certificate taking into account the trust information; wherein the validation device stores different trust information for different uses of a digital certificate. determining, taking into account the permission information, whether the predetermined digital certificate is permissible; and if it is determined that the predetermined digital certificate is permissible, determining the trust level of the predetermined digital certificate taking into account the trust information; wherein the validation device stores different trust information for different uses of a digital certificate.
An electric conductor in copper alloy constituted by, in percentage by weight based on the total weight of the alloy: chromium: 0.15 - 1.3% zirconium: 0.01 - 0.15% silver: 0.01 - 0.15% rare earths, in particular cerium, yttrium and mixtures thereof: 0.001 - 0.1% copper: the balance and inevitable impurities and having a conductivity greater than or equal to 85% IACS, advantageously greater than 89% IACS. chromium: 0.15 - 1.3% zirconium: 0.01 - 0.15% silver: 0.01 - 0.15% rare earths, in particular cerium, yttrium and mixtures thereof: 0.001 - 0.1% copper: the balance