mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting blockage of holes in a component, the method comprising: capturing thermographic data of the component and the holes as a fluid is pulsed toward the holes ; temporally processing the thermographic data to calculate temporal scores for the corresponding holes ; spatially processing the thermographic data to calculate spatial scores for the corresponding holes ; characterised in that it comprises: calculating composite scores associated with the holes based on the temporal scores and based on the spatial scores, wherein the composite scores represent a likelihood that the corresponding holes are open, blocked, or partially blocked, wherein temporal scores are calculated based on at least one of detrended values of the thermographic data, squared values of the detrended thermographic data, and a signal to noise ratio of the thermographic data, wherein the spatial scores are calculated based on a fraction of pixels in the thermographic data associated with each of the holes having at least a designated temperature response within a designated area around the hole. capturing thermographic data of the component and the holes as a fluid is pulsed toward the holes ; temporally processing the thermographic data to calculate temporal scores for the corresponding holes ; spatially processing the thermographic data to calculate spatial scores for the corresponding holes ; characterised in that it comprises: calculating composite scores associated with the holes based on the temporal scores and based on the spatial scores, wherein the composite scores represent a likelihood that the corresponding holes are open, blocked, or partially blocked, wherein temporal scores are calculated based on at least one of detrended values of the thermographic data, squared values of the detrended thermographic data, and a signal to noise ratio of the thermographic data, wherein the spatial scores are calculated based on a fraction of pixels in the thermographic data associated with each of the holes having at least a designated temperature response within a designated area around the hole.
A method comprising selectively energizing LEDs in an LED array for a required illuminance pattern, wherein a LED of the LED array is connected to a row and to a column, wherein selectively energizing LEDs in the LED array comprises selectively switching on the row and the column to which the selected LED is connected, wherein a single driver circuit selectively switches on one or more columns or one or more rows, wherein each of the LEDs in the LED array is selectively energized for a plurality of time periods, the plurality of time periods being grouped in a time sequence, such that the sum of the light emitted by each of the LEDs of the LED array over all periods in the time sequence divided by the total time of the time sequence corresponds to the amount of light to be emitted by each LED in the LED array for obtaining the required illuminance pattern, and wherein during each time period, at least two LEDs in the LED array are energized.
A method for controlling self-loopback of network data, characterized by comprising: determining (S11) whether a master forwarding link (b1) and a standby forwarding link (b2) of a master node (B) in a network structure both fail or not; and when the master forwarding link (b1) and the standby forwarding link (b2) of the master node (B) both fail, modifying (S12) a forwarding attribute of a standby egress port in a data packet forwarding table of the master node (B) from forwarding through a preset protection link into forwarding through the master forwarding link (b1) of the master node (B); and when the master forwarding link (b1) of the master node (B) fails and the standby forwarding link (b2) of the master node (B) does not fail, controlling (S17) the master node (B) to send a received data packet to a standby node (C) corresponding to the master node (B) through the preset protection link (b3) to enable the standby node (C) to forward the received data packet through the standby forwarding link (b2) of the master node (B). determining (S11) whether a master forwarding link (b1) and a standby forwarding link (b2) of a master node (B) in a network structure both fail or not; and when the master forwarding link (b1) and the standby forwarding link (b2) of the master node (B) both fail, modifying (S12) a forwarding attribute of a standby egress port in a data packet forwarding table of the master node (B) from forwarding through a preset protection link into forwarding through the master forwarding link (b1) of the master node (B); and when the master forwarding link (b1) of the master node (B) fails and the standby forwarding link (b2) of the master node (B) does not fail, controlling (S17) the master node (B) to send a received data packet to a standby node (C) corresponding to the master node (B) through the preset protection link (b3) to enable the standby node (C) to forward the received data packet through the standby forwarding link (b2) of the master node (B).
A method for wireless communication, comprising: transmitting an uplink slot comprising a first control region and a second control region , the first control region including first time resources and first frequency resources and the second control region including second time resources and second frequency resources, wherein the first control region comprises time-critical control information, wherein the second control region comprises non-time-critical control information and wherein transmitting the uplink slot comprises transmitting the first control region in an earlier portion of the uplink slot and transmitting the second control region in a later portion of the uplink slot .
A method, comprising: receiving, from a first electronic device, first audio data representing a first utterance; determining that a user account is associated with the first electronic device; generating first text data representing the first audio data; determining, using the first text data, a first intent of the first utterance; determining that a second electronic device is also associated with the user account; determining that a first response to the first utterance is to be sent to the second electronic device; generating second text data representing a second response to the first utterance; generating third text data representing a third response to the first utterance; generating second audio data representing the second text data, wherein the second text data comprises an indication that the first response is to be played on the second electronic device; sending the second audio data to the first electronic device for outputting by the first electronic device; generating third audio data representing the third text data; sending the third audio data to the second electronic device, for outputting by the second electronic device; generating or receiving image data representing the first response; and sending the image data to the second electronic device for outputting by the second electronic device. receiving, from a first electronic device, first audio data representing a first utterance; determining that a user account is associated with the first electronic device; generating first text data representing the first audio data; determining, using the first text data, a first intent of the first utterance; determining that a second electronic device is also associated with the user account; determining that a first response to the first utterance is to be sent to the second electronic device; generating second text data representing a second response to the first utterance; generating third text data representing a third response to the first utterance; generating second audio data representing the second text data, wherein the second text data comprises an indication that the first response is to be played on the second electronic device; sending the second audio data to the first electronic device for outputting by the first electronic device; generating third audio data representing the third text data; sending the third audio data to the second electronic device, for outputting by the second electronic device; generating or receiving image data representing the first response; and sending the image data to the second electronic device for outputting by the second electronic device.
A method comprising: receiving, by a controller and from a control system , first digital information indicating a current pulse to be applied to a laser diode , the current pulse having an amplitude and a duration, wherein the amplitude is indicative of a current value and the duration is indicative of a time period for which the current value is to be applied to the laser diode ; providing, by the controller, the first digital information as an optical signal to a laser diode driver coupled to the controller, the first digital information being used to generate a corresponding first analog drive signal for the laser diode ; receiving, by the controller, a signal from a current sensing device , the signal indicative of actual current flowing through the laser diode upon application of the analog drive signal; generating, by the controller, second digital information indicating a new current pulse to be applied to the laser diode , the second digital information being based on the first digital information and actual current flowing through the laser diode ; and providing, by the controller, the second digital information as an optical signal to the laser diode driver . receiving, by a controller and from a control system , first digital information indicating a current pulse to be applied to a laser diode , the current pulse having an amplitude and a duration, wherein the amplitude is indicative of a current value and the duration is indicative of a time period for which the current value is to be applied to the laser diode ; providing, by the controller, the first digital information as an optical signal to a laser diode driver coupled to the controller, the first digital information being used to generate a corresponding first analog drive signal for the laser diode ; receiving, by the controller, a signal from a current sensing device , the signal indicative of actual current flowing through the laser diode upon application of the analog drive signal; generating, by the controller, second digital information indicating a new current pulse to be applied to the laser diode , the second digital information being based on the first digital information and actual current flowing through the laser diode ; and providing, by the controller, the second digital information as an optical signal to the laser diode driver .
An aqueous mixture comprising (a) disodium phenyl benzimidazole tetrasulfonic acid and/or its salts, and (b) 1-(4-Methoxyphenyl)-3-(4-tert-butylphenyl)propane-1,3-dione (Avobenzone), and (c) 2,6- diethylhexyl naphthalate, and (d) at least one additional UV absorbing substance selected from the group consisting of: - 2-ethylhexyl 2-cyano-3,3-diphenylacrylate - 2-ethylhexyl p-methoxycinnamate - isoamyl p-methoxycinnamate - 2,4,6-trianilino(p-carbo-2'-ethylhexyl-1'-oxy)-1,3,5-triazine - 3-(4'-methylbenzylidene)-d,l-camphor - Benzophenone-4 - menthyl anthranilate - micro fine zinc oxide, and (e) water for use as a medicament for protecting human skin from the harmful effects of ultraviolet radiation of from 280 to 400 nm (a) disodium phenyl benzimidazole tetrasulfonic acid and/or its salts, and (b) 1-(4-Methoxyphenyl)-3-(4-tert-butylphenyl)propane-1,3-dione (Avobenzone), and (c) 2,6- diethylhexyl naphthalate, and (d) at least one additional UV absorbing substance selected from the group consisting of: - 2-ethylhexyl 2-cyano-3,3-diphenylacrylate - 2-ethylhexyl p-methoxycinnamate - isoamyl p-methoxycinnamate - 2,4,6-trianilino(p-carbo-2'-ethylhexyl-1'-oxy)-1,3,5-triazine - 3-(4'-methylbenzylidene)-d,l-camphor - Benzophenone-4 - menthyl anthranilate - micro fine zinc oxide, and - 2-ethylhexyl 2-cyano-3,3-diphenylacrylate - 2-ethylhexyl p-methoxycinnamate - isoamyl p-methoxycinnamate - 2,4,6-trianilino(p-carbo-2'-ethylhexyl-1'-oxy)-1,3,5-triazine - 3-(4'-methylbenzylidene)-d,l-camphor - Benzophenone-4 - menthyl anthranilate - micro fine zinc oxide, and (e) water for use as a medicament for protecting human skin from the harmful effects of ultraviolet radiation of from 280 to 400 nm
Method for performing an automatic data request for data contained in a data field of a relevant program instance on a data processor, in which an Internet address within the data field of a program instance executed on the data processor is determined and is transmitted to a search routine, whereupon the search routine performs one or more automatic data requests, which correspond to the data of the data field, based on the Internet address, and displays the results of this one or more data requests in a screen region designated for this purpose, characterized in that the Internet address in the data field is read out with the help of a process application , which, for this purpose, performs native accessibility functions of an operating system running on the data processor and transfers the functional responses thereof to the search routine.
Shifting device for selectively choosing rotationally fixed couplings of a plurality of coaxial shafts of a motor vehicle transmission, comprising - a housing , - a sliding sleeve that is axially displaceable relative to the housing and has an internal toothing with two toothed axial regions spaced apart from one another by an axial gap, - and a plurality of toothed bodies that are arranged coaxially surrounding the sliding sleeve and adjacent to one another, which are each rotationally firmly connected to one of the shafts and each carry an outer toothing corresponding to the inner toothing of the sliding sleeve , wherein the sliding sleeve has a first sleeve part and a second sleeve part , which are connected to one another in an axially fixed and rotationally decoupled manner, wherein the first sleeve part is a carrier of the first toothed axial region and the second sleeve part is a carrier of the second toothed axial region , characterized in that the sliding sleeve is mounted by means of an axially extending threaded structure in an actuating sleeve that coaxially surrounds it. - a housing , - a sliding sleeve that is axially displaceable relative to the housing and has an internal toothing with two toothed axial regions spaced apart from one another by an axial gap, - and a plurality of toothed bodies that are arranged coaxially surrounding the sliding sleeve and adjacent to one another, which are each rotationally firmly connected to one of the shafts and each carry an outer toothing corresponding to the inner toothing of the sliding sleeve , wherein the sliding sleeve has a first sleeve part and a second sleeve part , which are connected to one another in an axially fixed and rotationally decoupled manner, wherein the first sleeve part is a carrier of the first toothed axial region and the second sleeve part is a carrier of the second toothed axial region , characterized in that
A substance that inhibits or reduces ubiquitination, wherein the inhibition or reduction of the ubiquitination is (i) an inhibition or reduction of the expression of a gene encoding the ubiquitinating enzyme Klhl18 in a retina, or (ii) an inhibition or reduction of an interaction between the klHl18 protein and the Unc119 protein in a retina, for use in amelioration or prevention of retinal degeneration or of a symptom associated with light reception, wherein the symptom associated with light reception is at least one selected from the group consisting of age-related macular degeneration, retinitis pigmentosa, Leber congenital amaurosis, Stargardt disease, cone-rod dystrophy, and light-induced damage of a retina.
Heat pipe heat sink , wherein the heat pipe heat sink is configured for operation as a pulsating heat pipe, wherein the heat pipe heat sink comprises a body , wherein internally the body comprises at least one closed channel , more particularly a channel embodied as alternatingly curved or serpentine, wherein a fluid is arranged in the channel , wherein parts of the fluid are present in the channel in gaseous form, wherein the periphery of the channel is designed to be smooth, wherein the body has a first body portion which is embodied as curved, alternatingly curved, serpentine or U-shaped, wherein a coolant , more particularly a gaseous coolant , can flow through the first body portion along the surface of the first body portion , wherein portions of the channel and/or, if there is more than one channel , different channels are arranged parallel to one another, characterised in that the body is composed of two block parts , wherein parts of the channel are arranged on a boundary area of the block parts in each case.
A sliding member comprising: a bearing alloy layer , and a coating layer provided on a sliding surface side of the bearing alloy layer , wherein the coating layer has: a resin binder , sulfide particles dispersed in the resin binder , and made of metal sulfide, and a covering portion provided over specific particles located on the sliding surface side of the coating layer among the sulfide particles dispersed in the resin binder , the covering portion being made of metal oxide comprising the same metal element as a metal element constituting the sulfide particles , characterized in that when a surface of the coating layer on the sliding surface side is measured by an X-ray photoelectron spectroscopy and an X-ray diffraction method, a ratio of a peak height of the metal oxide to a peak height of the metal sulfide by the X-ray photoelectron spectroscopy is from 0.10 to 0.50, and a ratio of the peak height of the metal oxide to the peak height of the metal sulfide by the X-ray diffraction method is 0.10 or less. a bearing alloy layer , and a coating layer provided on a sliding surface side of the bearing alloy layer , wherein the coating layer has: a resin binder , sulfide particles dispersed in the resin binder , and made of metal sulfide, and a covering portion provided over specific particles located on the sliding surface side of the coating layer among the sulfide particles dispersed in the resin binder , the covering portion being made of metal oxide comprising the same metal element as a metal element constituting the sulfide particles , characterized in that when a surface of the coating layer on the sliding surface side is measured by an X-ray photoelectron spectroscopy and an X-ray diffraction method, a ratio of a peak height of the metal oxide to a peak height of the metal sulfide by the X-ray photoelectron spectroscopy is from 0.10 to 0.50, and a ratio of the peak height of the metal oxide to the peak height of the metal sulfide by the X-ray diffraction method is 0.10 or less.
A method of producing a composition comprising a crosslinkable silane-terminated polymer having at least one crosslinkable silyl group in each molecule, the method comprising: providing a polymer having at least one unsaturated group and at least one alcohol hydroxyl group in each molecule and having a number average molecular weight between 100 and 5,000; adding to the polymer a compound having a hydrogen-silicon bond and a crosslinkable silyl group in each molecule and a hydrosilylation catalyst to therby carry out a hydrosilylation reaction to form a composition comprising hydrosilylated polymers, wherein the hydrosilylation reaction has a hydrosilylation efficiency greater than 50% as determined by 1 H-NMR; capping the hydrosilylated polymers by adding the hydrosilylated polymer to at least one isocyanate at an index of between 100 and 250, the capping comprising: forming a reaction mixture by adding the hydrosilylated polymers to the at least one isocyanate at a first temperature of from 20°C to 70°C; and subsequently heating the reaction mixture to a second temperature of from 75°C to 100°C; and reacting the isocyanate capped hydrosilylated polymer with a polyol having a nominal functionality of at least 2 to form the composition comprising a crosslinkable silane-terminated polymer. providing a polymer having at least one unsaturated group and at least one alcohol hydroxyl group in each molecule and having a number average molecular weight between 100 and 5,000; adding to the polymer a compound having a hydrogen-silicon bond and a crosslinkable silyl group in each molecule and a hydrosilylation catalyst to therby carry out a hydrosilylation reaction to form a composition comprising hydrosilylated polymers, wherein the hydrosilylation reaction has a hydrosilylation efficiency greater than 50% as determined by 1 H-NMR; capping the hydrosilylated polymers by adding the hydrosilylated polymer to at least one isocyanate at an index of between 100 and 250, the capping comprising: forming a reaction mixture by adding the hydrosilylated polymers to the at least one isocyanate at a first temperature of from 20°C to 70°C; and subsequently heating the reaction mixture to a second temperature of from 75°C to 100°C; and reacting the isocyanate capped hydrosilylated polymer with a polyol having a nominal functionality of at least 2 to form the composition comprising a crosslinkable silane-terminated polymer. forming a reaction mixture by adding the hydrosilylated polymers to the at least one isocyanate at a first temperature of from 20°C to 70°C; and subsequently heating the reaction mixture to a second temperature of from 75°C to 100°C; and reacting the isocyanate capped hydrosilylated polymer with a polyol having a nominal functionality of at least 2 to form the composition comprising a crosslinkable silane-terminated polymer.
A method of identifying an agent which regulates the activity or amount of a ubiquitinating enzyme comprising: (a) contacting a bacterial cell with the agent, wherein the bacterial cell outputs a detectable or selectable signal which correlates with the ubiquitination level of a substrate, wherein said bacterial cell is genetically modified to express: (i) said ubiquitinating enzyme; (ii) ubiquitin attached to a first polypeptide fragment; and (iii) said substrate attached to a second polypeptide fragment, wherein said first polypeptide fragment associates with said second polypeptide fragment to generate a reporter polypeptide on ubiquitination of said substrate; and (b) measuring the level or the rate of accumulation of said detectable or selectable signal, wherein a change in the level as compared to the level in the absence of said agent, is indicative of an agent which regulates the activity or amount of the ubiquitinating enzyme. (a) contacting a bacterial cell with the agent, wherein the bacterial cell outputs a detectable or selectable signal which correlates with the ubiquitination level of a substrate, wherein said bacterial cell is genetically modified to express: (i) said ubiquitinating enzyme; (ii) ubiquitin attached to a first polypeptide fragment; and (iii) said substrate attached to a second polypeptide fragment, wherein said first polypeptide fragment associates with said second polypeptide fragment to generate a reporter polypeptide on ubiquitination of said substrate; and (i) said ubiquitinating enzyme; (ii) ubiquitin attached to a first polypeptide fragment; and (iii) said substrate attached to a second polypeptide fragment, wherein said first polypeptide fragment associates with said second polypeptide fragment to generate a reporter polypeptide on ubiquitination of said substrate; and (b) measuring the level or the rate of accumulation of said detectable or selectable signal, wherein a change in the level as compared to the level in the absence of said agent, is indicative of an agent which regulates the activity or amount of the ubiquitinating enzyme.