mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling system (100; 500) for a gas turbine engine , comprising: an outer engine case structure (106; 506); an inner engine case structure (108; 508) disposed radially inward of the outer engine case structure, the inner engine case structure and the outer engine case structure defining a bypass duct (102; 502); a heat exchanger disposed between the outer engine case structure and the inner engine case structure; a supply conduit (114; 514) disposed radially outward of the outer engine case structure, the supply conduit extending circumferentially about the outer engine case structure, the supply conduit fluidly coupled to the heat exchanger; a return conduit (116; 516) disposed radially outward of the outer engine case structure and axially adjacent to the supply conduit, the return conduit extending circumferentially about the outer engine case structure, the return conduit fluidly coupled to the heat exchanger; and a first plurality of heat fins (214; 614) and a second plurality of heat fins (216; 616), characterised in that the first plurality of heat fins extend from a first radially inner surface of the supply conduit, and wherein the second plurality of heat fins extend from a second radially inner surface of the return conduit. an outer engine case structure (106; 506); an inner engine case structure (108; 508) disposed radially inward of the outer engine case structure, the inner engine case structure and the outer engine case structure defining a bypass duct (102; 502); a heat exchanger disposed between the outer engine case structure and the inner engine case structure; a supply conduit (114; 514) disposed radially outward of the outer engine case structure, the supply conduit extending circumferentially about the outer engine case structure, the supply conduit fluidly coupled to the heat exchanger; a return conduit (116; 516) disposed radially outward of the outer engine case structure and axially adjacent to the supply conduit, the return conduit extending circumferentially about the outer engine case structure, the return conduit fluidly coupled to the heat exchanger; and a first plurality of heat fins (214; 614) and a second plurality of heat fins (216; 616), characterised in that the first plurality of heat fins extend from a first radially inner surface of the supply conduit, and wherein the second plurality of heat fins extend from a second radially inner surface of the return conduit.
A method of sensing a pressure applied to a surface , comprising: monitoring an electrical signal generated by redistribution of mobile ions in a piezoionic layer under the surface, wherein the redistribution of mobile ions in the piezoionic layer is induced by an externally applied local pressure at a portion of the layer without application of an external electrical signal to the piezoionic layer; and determining that the surface is pressured based on detection of the electrical signal, characterized in that the electrical signal is monitored through at least two electrodes in contact with one side of the piezoionic layer at different locations, and wherein the at least two electrodes are formed of the same material. monitoring an electrical signal generated by redistribution of mobile ions in a piezoionic layer under the surface, wherein the redistribution of mobile ions in the piezoionic layer is induced by an externally applied local pressure at a portion of the layer without application of an external electrical signal to the piezoionic layer; and determining that the surface is pressured based on detection of the electrical signal, characterized in that the electrical signal is monitored through at least two electrodes in contact with one side of the piezoionic layer at different locations, and wherein the at least two electrodes are formed of the same material.
A process for preparing a deodorized oil containing in-situ prepared mono-acylglycerides wherein the process is comprising the following steps: a) Hydrolysing a triglyceride oil with water in presence of an enzyme and obtaining an hydrophobic phase wherein up to 50% w/w of free fatty acids are formed, b) Removing from 20% to 100% w/w of the formed free fatty acids for maintaining a glyceride containing fraction wherein the ratio of free and esterified hydroxyl groups (OH) to free and esterified fatty acids (FA) is greater than 1.07, c) Condensing and/or interesterifying in presence of an enzyme the glyceride containing fraction, and d) Collecting a deodorized oil containing less than 1% w/w, preferably less than 0.5% free fatty acids and containing from 1.5 to 25% mono-acyl glycerides, and wherein in step a) there is no addition of glycerol.. a) Hydrolysing a triglyceride oil with water in presence of an enzyme and obtaining an hydrophobic phase wherein up to 50% w/w of free fatty acids are formed, b) Removing from 20% to 100% w/w of the formed free fatty acids for maintaining a glyceride containing fraction wherein the ratio of free and esterified hydroxyl groups (OH) to free and esterified fatty acids (FA) is greater than 1.07, c) Condensing and/or interesterifying in presence of an enzyme the glyceride containing fraction, and d) Collecting a deodorized oil containing less than 1% w/w, preferably less than 0.5% free fatty acids and containing from 1.5 to 25% mono-acyl glycerides, and
A communication control device comprising: an acquisition unit configured to acquire a reception timing at which a second radio communication device receives a downlink signal from a base station performing radio communication with a first radio communication device or at which the second radio communication device receives a downlink signal from a base station performing radio communication with the second radio communication device; and a decision unit configured to decide a transmission timing at which the second radio communication device transmits a signal to the first radio communication device through inter-device communication based on the reception timing, characterized in that the decided transmission timing is a timing later than a timing at which the second radio communication device transmits an uplink signal to the base station, wherein the acquisition unit further acquires first timing advance information to decide the timing at which the second radio communication device transmits the uplink signal to the base station, wherein the acquisition unit further acquires second timing advance information to decide a timing at which the first radio communication device transmits an uplink signal to the base station, and wherein the decision unit decides the transmission timing based on the reception timing, the first timing advance information, and the second timing advance information. an acquisition unit configured to acquire a reception timing at which a second radio communication device receives a downlink signal from a base station performing radio communication with a first radio communication device or at which the second radio communication device receives a downlink signal from a base station performing radio communication with the second radio communication device; and a decision unit configured to decide a transmission timing at which the second radio communication device transmits a signal to the first radio communication device through inter-device communication based on the reception timing, characterized in that the decided transmission timing is a timing later than a timing at which the second radio communication device transmits an uplink signal to the base station, wherein the acquisition unit further acquires first timing advance information to decide the timing at which the second radio communication device transmits the uplink signal to the base station, wherein the acquisition unit further acquires second timing advance information to decide a timing at which the first radio communication device transmits an uplink signal to the base station, and wherein the decision unit decides the transmission timing based on the reception timing, the first timing advance information, and the second timing advance information.
A method for controlling a linear motor of an electronic atomizer, the method comprising: sending (S202), by a controller of an electronic atomizer, a play instruction to a driving module of the electronic atomizer, the play instruction comprising a current vibration waveform data packet, the play instruction being used for instructing the driving module to play the vibration waveform data packet to drive the linear motor of the electronic atomizer to vibrate, the vibration waveform data packet comprising a vibration waveform of vibration waveform data matching a current vibration mode, the controller comprising a direct memory access, DMA, unit configured to control the driving module through a real-time transport protocol, RTP, mode; and The method characterized in that , it further comprises: sending (S204), by the controller, if an interrupt signal fed back by the driving module is received, a play instruction comprising a next vibration waveform data packet to the driving module. sending (S202), by a controller of an electronic atomizer, a play instruction to a driving module of the electronic atomizer, the play instruction comprising a current vibration waveform data packet, the play instruction being used for instructing the driving module to play the vibration waveform data packet to drive the linear motor of the electronic atomizer to vibrate, the vibration waveform data packet comprising a vibration waveform of vibration waveform data matching a current vibration mode, the controller comprising a direct memory access, DMA, unit configured to control the driving module through a real-time transport protocol, RTP, mode; and The method characterized in that , it further comprises: sending (S204), by the controller, if an interrupt signal fed back by the driving module is received, a play instruction comprising a next vibration waveform data packet to the driving module.
Guide means for a force transmission rod in an automatic seal (D), - having a first guide element which has a first guide hole with a first central axis through which the force transmission rod can be inserted and guided, wherein - the guide means has a second guide element which has a second guide hole with a second central axis, characterised in that - the first guide element and the second guide element are connected to one another by an elastic connecting structure , wherein - when the connecting structure is in a relaxed state, the first and second central axes intersect or are skewed with respect to one another, and - when the connecting structure is in a tensioned state, the first and second central axes coincide. - having a first guide element which has a first guide hole with a first central axis through which the force transmission rod can be inserted and guided, wherein - the guide means has a second guide element which has a second guide hole with a second central axis, - the first guide element and the second guide element are connected to one another by an elastic connecting structure , wherein - when the connecting structure is in a relaxed state, the first and second central axes intersect or are skewed with respect to one another, and - when the connecting structure is in a tensioned state, the first and second central axes coincide.
A dishwasher comprising a body ; a washing area that is arranged in the body and wherein the dishes are placed and washed; a heater that is disposed at the base of the washing area and that enables the wash water to be heated; a pump that realizes the cycle of the wash water in the washing area ; and a control unit that is adapted to execute the steps of: - measuring the current value (I) drawn by the pump when the pump performs the water cycle, - comparing the current value (I) drawn by the pump with the limit current value (I lim ) during a first limit time period (t1), - continuing the normal washing process if the pump draws more current than the amount of the limit current (I lim ) during the first limit time period (t1), - controlling whether the washing program selected by the user allows extra water intake into the washing area by deciding that the pump is out of water if the pump draws less current than the amount of the limit current (I lim ) during the first limit time period (t1), - controlling whether the heater is operating if the selected washing program does not allow extra water intake, - turning off the heater if the heater operates, - not turning on the heater if the heater does not operate, - warning the user and/or ending the program, - taking water into the washing area if the washing program allows extra water intake, - going back to the first step. - measuring the current value (I) drawn by the pump when the pump performs the water cycle, - comparing the current value (I) drawn by the pump with the limit current value (I lim ) during a first limit time period (t1), - continuing the normal washing process if the pump draws more current than the amount of the limit current (I lim ) during the first limit time period (t1), - controlling whether the washing program selected by the user allows extra water intake into the washing area by deciding that the pump is out of water if the pump draws less current than the amount of the limit current (I lim ) during the first limit time period (t1), - controlling whether the heater is operating if the selected washing program does not allow extra water intake, - turning off the heater if the heater operates, - not turning on the heater if the heater does not operate, - warning the user and/or ending the program, - taking water into the washing area if the washing program allows extra water intake, - going back to the first step.
A mobile terminal , comprising: a wireless communication processor configured to provide wireless communication; a microphone ; a front camera ; a low-power image sensor located between the microphone and the front camera and configured to detect a subject based on a black and white image sensed by the low-power image sensor , wherein a field of view range of the low-power image sensor is wider than that of the front camera ; and a controller configured to: control the microphone to be in an inactivate state, and in response to detecting a face image included in the black and white image sensed by the low-power image sensor , switch the microphone from the inactive state to an active state and execute a voice recognition function to receive voice information from the subject. a wireless communication processor configured to provide wireless communication; a microphone ; a front camera ; a low-power image sensor located between the microphone and the front camera and configured to detect a subject based on a black and white image sensed by the low-power image sensor , wherein a field of view range of the low-power image sensor is wider than that of the front camera ; and a controller configured to: control the microphone to be in an inactivate state, and in response to detecting a face image included in the black and white image sensed by the low-power image sensor , switch the microphone from the inactive state to an active state and execute a voice recognition function to receive voice information from the subject. control the microphone to be in an inactivate state, and in response to detecting a face image included in the black and white image sensed by the low-power image sensor , switch the microphone from the inactive state to an active state and execute a voice recognition function to receive voice information from the subject.
A computer-implemented method performed by a service system for providing blockchain-based message services, the method comprising: receiving shipping data and shipping insurance order data associated with a purchase order; determining , by executing a first smart contract based on first one or more predetermined rules and the shipping data, whether a shipping insurance order corresponding to the shipping insurance order data is valid; in response to determining that the shipping insurance order is valid, initiating a consensus algorithm to record the shipping data and the shipping insurance order data on a blockchain ; generating , by executing the first smart contract, a first event message including a notification that a shipping insurance of the purchase order is effective, wherein the first smart contract invokes an event management function to periodically generate the first event message until an acknowledgement receipt feedback is received; receiving shipping insurance premium distribution data indicating a distribution of shipping insurance premium associated with the shipping insurance order to one or more service providers; determining , by executing a second smart contract based on second one or more predetermined rules, that the distribution of the shipping insurance premium is legal; initiating the consensus algorithm of a blockchain network to record the shipping insurance premium distribution data on the blockchain; and generating , by executing the second smart contract, a second event message notifying that the shipping insurance premium is distributed according to the shipping insurance premium distribution data. receiving shipping data and shipping insurance order data associated with a purchase order; determining , by executing a first smart contract based on first one or more predetermined rules and the shipping data, whether a shipping insurance order corresponding to the shipping insurance order data is valid; in response to determining that the shipping insurance order is valid, initiating a consensus algorithm to record the shipping data and the shipping insurance order data on a blockchain ; generating , by executing the first smart contract, a first event message including a notification that a shipping insurance of the purchase order is effective, wherein the first smart contract invokes an event management function to periodically generate the first event message until an acknowledgement receipt feedback is received; receiving shipping insurance premium distribution data indicating a distribution of shipping insurance premium associated with the shipping insurance order to one or more service providers; determining , by executing a second smart contract based on second one or more predetermined rules, that the distribution of the shipping insurance premium is legal; initiating the consensus algorithm of a blockchain network to record the shipping insurance premium distribution data on the blockchain; and generating , by executing the second smart contract, a second event message notifying that the shipping insurance premium is distributed according to the shipping insurance premium distribution data.
A computer-implemented method for determining a multivariate process chart, the multivariate process chart to be used to control a process to produce a chemical, pharmaceutical, biopharmaceutical and/or biological product, the multivariate process chart including a first trajectory, an upper limit for the first trajectory and a lower limit for the first trajectory, the method comprising: providing a plurality of first-scale vessels, each of the first-scale vessels containing fluid for producing the product; receiving (S101), by a first process control device , process parameters, the process parameters including process parameters to be controlled and process parameters to be measured; controlling (S103), by the first process control device and at least partly in parallel, the process in each of the first-scale vessels; and periodically determining (S105), at least in part by the first process control device , process parameter values for the process parameters from the fluid in each of the first-scale vessels; defining groups (S115) of the process parameter values according to a common characteristic, wherein each of the groups includes process parameter values determined from multiple ones of the first-scale vessels; determining at least one statistically representative value for each of the groups of process parameter values; establishing the first trajectory from the statistically representative values; determining (S119) the upper limit and the lower limit based on a measure of variation within each group. providing a plurality of first-scale vessels, each of the first-scale vessels containing fluid for producing the product; receiving (S101), by a first process control device , process parameters, the process parameters including process parameters to be controlled and process parameters to be measured; controlling (S103), by the first process control device and at least partly in parallel, the process in each of the first-scale vessels; and periodically determining (S105), at least in part by the first process control device , process parameter values for the process parameters from the fluid in each of the first-scale vessels; defining groups (S115) of the process parameter values according to a common characteristic, wherein each of the groups includes process parameter values determined from multiple ones of the first-scale vessels; determining at least one statistically representative value for each of the groups of process parameter values; establishing the first trajectory from the statistically representative values; determining (S119) the upper limit and the lower limit based on a measure of variation within each group.