mhurhangee/patent-ind-claim-en huggingface dataset:
An unlocking method comprising: collecting (S101) a signal of a terminal; judging (S102) whether the terminal is held by a user according to the collected signal; and if the terminal is judged to be held by the user according to said judging step (S102) and if the terminal is in a sleeping mode, unlocking (S103) the terminal, the method being characterized in that the signal is collected from a touch screen of the terminal in response to a touch event on the touch screen; and in that the step (S102) of judging whether the terminal is held by the user according to the collected signal comprises: judging whether a first signal and a second signal are collected at one side edge of the touch screen of the terminal and at least a third signal is collected at the other side edge of the touch screen of the terminal, wherein the first signal is greater than the second signal, and the first signal is greater than the third signal; and if the first, second and third signals are collected, determining that the terminal is held by the user. collecting (S101) a signal of a terminal; judging (S102) whether the terminal is held by a user according to the collected signal; and if the terminal is judged to be held by the user according to said judging step (S102) and if the terminal is in a sleeping mode, unlocking (S103) the terminal, the method being characterized in that the signal is collected from a touch screen of the terminal in response to a touch event on the touch screen; and in that the step (S102) of judging whether the terminal is held by the user according to the collected signal comprises: judging whether a first signal and a second signal are collected at one side edge of the touch screen of the terminal and at least a third signal is collected at the other side edge of the touch screen of the terminal, wherein the first signal is greater than the second signal, and the first signal is greater than the third signal; and if the first, second and third signals are collected, determining that the terminal is held by the user. judging whether a first signal and a second signal are collected at one side edge of the touch screen of the terminal and at least a third signal is collected at the other side edge of the touch screen of the terminal, wherein the first signal is greater than the second signal, and the first signal is greater than the third signal; and if the first, second and third signals are collected, determining that the terminal is held by the user.
A cell delivery device loaded with PDX1-positive pancreatic endoderm cells, wherein said cell delivery device comprises a cell-excluding membrane, a woven mesh , and a fabric layer external to the cell-excluding membrane , wherein said fabric layer provides protection to the cell-excluding membrane from direct contact with the woven mesh, characterised in that the fabric layer is a non-woven fabric, NWF, and wherein the NWF and the cell-excluding membrane comprise perforations having a diameter of 50 microns to 300 microns.
An integrated sample acquisition and sample stabilization device comprising: (i) a sample acquisition component comprising one or more piercing elements; (ii) a sample stabilization unit comprising more than one membranes, wherein the more than one membranes are stacked, and wherein the more than one membranes do not contact each other; wherein at least one of the more than one membranes comprise a sample separation phase and a sample collection phase; and (iii) a channel configured to allow a biological sample to move from an opening in the sample acquisition component through the channel onto the more than one membranes, wherein the more than one membranes are configured to separate and stabilize one or more biological components. (i) a sample acquisition component comprising one or more piercing elements; (ii) a sample stabilization unit comprising more than one membranes, wherein the more than one membranes are stacked, and wherein the more than one membranes do not contact each other; wherein at least one of the more than one membranes comprise a sample separation phase and a sample collection phase; and (iii) a channel configured to allow a biological sample to move from an opening in the sample acquisition component through the channel onto the more than one membranes, wherein the more than one membranes are configured to separate and stabilize one or more biological components.
A system for wrapping a material, comprising: a feed roll configured to feed the material through a feed path ; a drive pulley configured to intermittently drive the feed roll ; a belt configured to couple the drive pulley with the feed roll ; a tensioning lever rotatable about a pivot and configured to vary tension on the belt to intermittently drive or not drive the feed roll ; a knife mechanism ; an actuator including an actuator arm having an actuating end with a pin , and the actuator including a drive unit configured to bidirectionally drive the actuator arm to move the actuating end; characterized in that the tensioning lever defines a catch opening; the knife mechanism includes a fixed knife, and a counter-knife that the system further comprises a link configured to move the counter-knife relative to the fixed knife, the link defining a counter-knife slot ; and that the pin is engageable with the tensioning lever at the catch opening and extends through the counter-knife slot of the link . a feed roll configured to feed the material through a feed path ; a drive pulley configured to intermittently drive the feed roll ; a belt configured to couple the drive pulley with the feed roll ; a tensioning lever rotatable about a pivot and configured to vary tension on the belt to intermittently drive or not drive the feed roll ; a knife mechanism ; an actuator including an actuator arm having an actuating end with a pin , and the actuator including a drive unit configured to bidirectionally drive the actuator arm to move the actuating end; characterized in that the tensioning lever defines a catch opening; the knife mechanism includes a fixed knife, and a counter-knife that the system further comprises a link configured to move the counter-knife relative to the fixed knife, the link defining a counter-knife slot ; and that the pin is engageable with the tensioning lever at the catch opening and extends through the counter-knife slot of the link .
An LED-based lighting unit for installation into a luminaire , the LED-based lighting unit comprising: one or more LEDs ; characterized in the LED-based lighting unit further comprising: an accelerometer ; a luminaire installation interface configured to attach and electrically couple the LED-based lighting unit to the luminaire; and a controller coupled with the one or more LEDs and the accelerometer, the controller configured to: receive, from the accelerometer, a signal representative of a measured mechanical force applied to or movement of the luminaire, when the LED-based lighting unit is installed in said luminaire; determine, based on the signal from the accelerometer, that the measured mechanical force or movement corresponds to one or more predetermined forces or movements; and energize the one or more LEDs to emit light having one or more properties selected based on the determination. an accelerometer ; a luminaire installation interface configured to attach and electrically couple the LED-based lighting unit to the luminaire; and a controller coupled with the one or more LEDs and the accelerometer, the controller configured to: receive, from the accelerometer, a signal representative of a measured mechanical force applied to or movement of the luminaire, when the LED-based lighting unit is installed in said luminaire; determine, based on the signal from the accelerometer, that the measured mechanical force or movement corresponds to one or more predetermined forces or movements; and energize the one or more LEDs to emit light having one or more properties selected based on the determination. receive, from the accelerometer, a signal representative of a measured mechanical force applied to or movement of the luminaire, when the LED-based lighting unit is installed in said luminaire; determine, based on the signal from the accelerometer, that the measured mechanical force or movement corresponds to one or more predetermined forces or movements; and energize the one or more LEDs to emit light having one or more properties selected based on the determination.
Method for the preparation of aerated fat-based edible products having a porosity of at least 10%, the method comprising the steps of: a) incorporating gas under pressure from 4 to 80 bar into a liquid fat-based mass; b) (I) injecting under pressure fat-based seed crystals into the fat-based mass obtained from step a); (II) optionally cooling the fat-based mass to achieve a solid fat content of at least 10% by weight of the total fat mass; and c) releasing pressure from the fat-based mass obtained from step b), in which the fat-based mass is an un-tempered liquid chocolate, and wherein the gas incorporated under pressure into a liquid fat-based mass is N 2 , CO 2 and/or mixtures thereof. a) incorporating gas under pressure from 4 to 80 bar into a liquid fat-based mass; b) (I) injecting under pressure fat-based seed crystals into the fat-based mass obtained from step a); (II) optionally cooling the fat-based mass to achieve a solid fat content of at least 10% by weight of the total fat mass; and (I) injecting under pressure fat-based seed crystals into the fat-based mass obtained from step a); (II) optionally cooling the fat-based mass to achieve a solid fat content of at least 10% by weight of the total fat mass; and c) releasing pressure from the fat-based mass obtained from step b), in which the fat-based mass is an un-tempered liquid chocolate, and wherein the gas incorporated under pressure into a liquid fat-based mass is N 2 , CO 2 and/or mixtures thereof.
A handlebar grip set, comprising: two turn signals , each one of the two turn signals being detachable and having a base ; an illumination module assembled to the base ; and a housing assembled to the base and covering the illumination module ; two operating kits , each one of the two operation kits having a button module electrically connected to the illumination module of a corresponding one of the two turn signals ; and two grips , each one of the two grips surrounding the base of a corresponding one of the two turn signals ; wherein the base of each one of the two turn signals is configured to be assembled to one of two ends of handlebars , wherein each one of the two turn signals has a sleeve sleeving the base of the turn signal ; each one of the two turn signals has a battery ; each one of the two turn signals has a charging board electrically connected to the battery of the turn signal ; the battery of each one of the two turn signals is a rechargeable battery; the handlebar grip set is characterized by further comprising: a headlight ; wherein the battery of one of the two turn signals is electrically connected to the illumination module of each one of the two turn signals , the battery of the other one of the two turn signals is electrically connected to the headlight . two turn signals , each one of the two turn signals being detachable and having a base ; an illumination module assembled to the base ; and a housing assembled to the base and covering the illumination module ; a base ; an illumination module assembled to the base ; and a housing assembled to the base and covering the illumination module ; two operating kits , each one of the two operation kits having a button module electrically connected to the illumination module of a corresponding one of the two turn signals ; and two grips , each one of the two grips surrounding the base of a corresponding one of the two turn signals ; wherein the base of each one of the two turn signals is configured to be assembled to one of two ends of handlebars , wherein each one of the two turn signals has a sleeve sleeving the base of the turn signal ; each one of the two turn signals has a battery ; each one of the two turn signals has a charging board electrically connected to the battery of the turn signal ; the battery of each one of the two turn signals is a rechargeable battery; the handlebar grip set is characterized by further comprising: a headlight ; wherein the battery of one of the two turn signals is electrically connected to the illumination module of each one of the two turn signals , the battery of the other one of the two turn signals is electrically connected to the headlight . a headlight ; wherein the battery of one of the two turn signals is electrically connected to the illumination module of each one of the two turn signals , the battery of the other one of the two turn signals is electrically connected to the headlight .
A computer system implementing an n-tier 3D engine architecture comprising: a first tier comprising a client software engine configured to receive input data , send the input data to a second tier , and perform end-user processing of the input data ; the second tier connected to the first tier and to a third tier through a network , the second tier comprising a client-dedicated module that is dynamically instantiated per client device by the third tier and which is configured to, depending on the type of input data , either prepare the input data for subsequent processing from the client software engine of the first tier , or send the input data to the third tier ; and the third tier comprising a virtual world processing module configured to receive and process the input data from the second tier in order to generate world state updates , and to dynamically instantiate the client-dedicated module to spawn client-dedicated module instances, wherein the world state updates are sent to corresponding client-dedicated module instances for further processing. a first tier comprising a client software engine configured to receive input data , send the input data to a second tier , and perform end-user processing of the input data ; the second tier connected to the first tier and to a third tier through a network , the second tier comprising a client-dedicated module that is dynamically instantiated per client device by the third tier and which is configured to, depending on the type of input data , either prepare the input data for subsequent processing from the client software engine of the first tier , or send the input data to the third tier ; and the third tier comprising a virtual world processing module configured to receive and process the input data from the second tier in order to generate world state updates , and to dynamically instantiate the client-dedicated module to spawn client-dedicated module instances, wherein the world state updates are sent to corresponding client-dedicated module instances for further processing.
An image transmission apparatus which transmits image data, comprising: input means (13. 14) for inputting an address of a receiving end, characterized by further comprising: authentication means (11. 151P) for carrying out an authentication process verifying whether a user is an authorized user before the address is inputted through the input means, when the user requests to newly input the address, newly register the address or to edit a registered address through the input means; and transmission means (11, 161-163) for transmitting image data to the address of the receiving end inputted through said input means if the user is an authorized user. authentication means (11. 151P) for carrying out an authentication process verifying whether a user is an authorized user before the address is inputted through the input means, when the user requests to newly input the address, newly register the address or to edit a registered address through the input means; and transmission means (11, 161-163) for transmitting image data to the address of the receiving end inputted through said input means if the user is an authorized user.
A paper sheet diverter , comprising: a diversion member which is rotatably provided at a junction portion of transport paths in at least three directions for transporting paper sheets; a driving unit for rotationally moving the diversion member ; and a control unit for controlling the driving unit to make the diversion member rotationally move to at least three stopping positions including a first stopping position connecting a first transport path and a second transport path to form a first transport passage, a second stopping position connecting the first transport path and a third transport path to form a second transport passage and a third stopping position connecting the second transport path and the third transport path to form a third transport passage, characterised in that the diversion member has an external shape, one end of which tapers off and the other end of which is wide, and includes transport faces at both side faces from the one end to the other end of the diversion member. a diversion member which is rotatably provided at a junction portion of transport paths in at least three directions for transporting paper sheets; a driving unit for rotationally moving the diversion member ; and a control unit for controlling the driving unit to make the diversion member rotationally move to at least three stopping positions including a first stopping position connecting a first transport path and a second transport path to form a first transport passage, a second stopping position connecting the first transport path and a third transport path to form a second transport passage and a third stopping position connecting the second transport path and the third transport path to form a third transport passage, characterised in that the diversion member has an external shape, one end of which tapers off and the other end of which is wide, and includes transport faces at both side faces from the one end to the other end of the diversion member.
A nonaqueous electrolyte secondary battery comprising a positive electrode with a positive electrode active material capable of absorbing and releasing a metal ion; a negative electrode with a negative electrode active material capable of absorbing and releasing a metal ion; and a nonaqueous electrolyte solution; wherein the positive electrode active material comprises a lithium transition metal compound, and the positive electrode active material comprises at least Ni, Mn and Co, wherein the molar ratio of Mn/(Ni+Mn+Co) is larger than 0 and not larger than 0.32, the molar ratio of Ni/(Ni+Mn+Co) is 0.55 or more, the plate density of the positive electrode is 3.0 g/cm 3 or more; and the nonaqueous electrolyte solution comprises a monofluorophosphate and/or a difluorophosphate, wherein the total content of monofluorophosphate and difluorophosphate is 0.01% to 8% by mass.
An inkjet recording device comprising: at least one inkjet head having a pressure chamber that communicates with a nozzle (N) and being configured to eject ink from the nozzle, the ink communicating with the pressure chamber; a first pressure source configured to adjust energy per unit volume of the ink so that the ink generates "energy per unit volume" P1(Pa), relative to static ink at an atmospheric pressure at a position having a height of an opening of the nozzle; a second pressure source configured to adjust energy per unit volume of the ink so that the ink generates "energy per unit volume" P2(Pa), relative to static ink at an atmospheric pressure at the position having the height of the opening of the nozzle; and a controller , characterized in that the first pressure source, the pressure chamber, and the second pressure source are connected in this order by a flow path, assuming that a pressure loss occurring from the first pressure source to the nozzle due to a circulation flow rate is ΔPa, a constant of proportionality of a differential pressure (P1 - P2) and ΔPa is "a", and an appropriate pressure that is generated in a vicinity of the opening of the nozzle is Pn, the controller is configured to control pressure so that a relation P2 = {Pn - (1 - a)P1}/a is established. at least one inkjet head having a pressure chamber that communicates with a nozzle (N) and being configured to eject ink from the nozzle, the ink communicating with the pressure chamber; a first pressure source configured to adjust energy per unit volume of the ink so that the ink generates "energy per unit volume" P1(Pa), relative to static ink at an atmospheric pressure at a position having a height of an opening of the nozzle; a second pressure source configured to adjust energy per unit volume of the ink so that the ink generates "energy per unit volume" P2(Pa), relative to static ink at an atmospheric pressure at the position having the height of the opening of the nozzle; and a controller , characterized in that the first pressure source, the pressure chamber, and the second pressure source are connected in this order by a flow path, assuming that a pressure loss occurring from the first pressure source to the nozzle due to a circulation flow rate is ΔPa, a constant of proportionality of a differential pressure (P1 - P2) and ΔPa is "a", and an appropriate pressure that is generated in a vicinity of the opening of the nozzle is Pn, the controller is configured to control pressure so that a relation P2 = {Pn - (1 - a)P1}/a is established.
A flavor nanoemulsion comprising a plurality of oil droplets, an aqueous phase, and a surfactant system, said nanoemulsion having a water activity of 0.7 or less, and a water content of 25% or less by weight, wherein, each of the oil droplets, having a droplet size of 0.1 to 500 nm, contains a flavor and disperses in the aqueous phase, the aqueous phase contains water and a co-solvent, the surfactant system includes a polyethoxylated sorbitan fatty acid ester and a lecithin, the polyethoxylated sorbitan fatty acid ester has an HLB of 9 to 20, the lecithin has an HLB of 4 to 16, and the weight ratio of the polyethoxylated sorbitan fatty acid ester and the flavor is in the range of 1 : 15 to 3 : 1.
A driving method applied to a dimmable light-emitting diode, LED, driving circuit comprising an electrolytic capacitor (C', C1, C3, C5), characterized in comprising: charging the electrolytic capacitor (C', C1, C3, C5) by controlling a current loop of the electrolytic capacitor (C', C1, C3, C5) by an auxiliary circuit using a voltage source (Vclp, Vclp1, Vclp2), when a voltage across the electrolytic capacitor (C', C1, C3, C5) is less than a preset value, to reduce time required for the voltage across the electrolytic capacitor (C', C1, C3, C5) rising to a start-up voltage of an LED load; and continuously charging, when the voltage across the electrolytic capacitor (C', C1, C3, C5) rises to the preset value, the electrolytic capacitor (C', C1, C3, C5) by controlling the current loop of the electrolytic capacitor (C', C1, C3, C5) by a current control loop circuit using an error amplifier (GM, GM1, GM2) in accordance with a reference value (Vrefl, Vref2, Vref3), until the voltage across the electrolytic capacitor (C', C1, C3, C5) rises to the start-up voltage. charging the electrolytic capacitor (C', C1, C3, C5) by controlling a current loop of the electrolytic capacitor (C', C1, C3, C5) by an auxiliary circuit using a voltage source (Vclp, Vclp1, Vclp2), when a voltage across the electrolytic capacitor (C', C1, C3, C5) is less than a preset value, to reduce time required for the voltage across the electrolytic capacitor (C', C1, C3, C5) rising to a start-up voltage of an LED load; and continuously charging, when the voltage across the electrolytic capacitor (C', C1, C3, C5) rises to the preset value, the electrolytic capacitor (C', C1, C3, C5) by controlling the current loop of the electrolytic capacitor (C', C1, C3, C5) by a current control loop circuit using an error amplifier (GM, GM1, GM2) in accordance with a reference value (Vrefl, Vref2, Vref3), until the voltage across the electrolytic capacitor (C', C1, C3, C5) rises to the start-up voltage.