mhurhangee/patent-ind-claim-en huggingface dataset:
A communication apparatus comprising: an antenna (110 310) configured to receive a wireless signal; an oscillator , configured to be driven by a driving current, and configured to generate an oscillating signal based on the wireless signal; a measurer configured to measure an oscillation degree of the oscillating signal; and an accumulator configured to accumulate a difference between a target value and a measurement value of the oscillation degree, wherein the apparatus being configured to determine a value of the wireless signal based on a cumulative signal corresponding to the accumulated difference. an antenna (110 310) configured to receive a wireless signal; an oscillator , configured to be driven by a driving current, and configured to generate an oscillating signal based on the wireless signal; a measurer configured to measure an oscillation degree of the oscillating signal; and an accumulator configured to accumulate a difference between a target value and a measurement value of the oscillation degree, wherein the apparatus being configured to determine a value of the wireless signal based on a cumulative signal corresponding to the accumulated difference.
A method for fabricating a fingerprint identification apparatus, the fingerprint identification apparatus including an image identification chip and a cover, wherein the cover is arranged above the image identification chip , and the cover comprises a body and a plurality of optical channels that are through-holes; wherein the plurality of optical channels are configured to linearly transmit light reflected by an object to be identified to a photosensitive region in the image identification chip to form a biological feature image of the object, the method is characterized in comprising: treating (S101) one surface of the body such that a plurality of blind holes are formed in the body ; and treating (S102) the other surface of the body such that the plurality of blind holes formed in the body are transformed into the optical channels ; wherein the treating one surface of the body such that a plurality of blind holes are formed in the body comprises: treating one surface of the body by using an etching, laser or mechanical drilling processes such that the plurality of blind holes are formed in the body , and wherein the treating (S102) the other surface of the body such that the plurality of blind holes formed in the body are transformed into the optical channels comprises: treating the other surface of the body by using a grinding and thickness-reducing process such that the plurality of blind holes formed in the body are transformed into the optical channels that are through-holes. treating (S101) one surface of the body such that a plurality of blind holes are formed in the body ; and treating (S102) the other surface of the body such that the plurality of blind holes formed in the body are transformed into the optical channels ; wherein the treating one surface of the body such that a plurality of blind holes are formed in the body comprises: treating one surface of the body by using an etching, laser or mechanical drilling processes such that the plurality of blind holes are formed in the body , and wherein the treating (S102) the other surface of the body such that the plurality of blind holes formed in the body are transformed into the optical channels comprises: treating the other surface of the body by using a grinding and thickness-reducing process such that the plurality of blind holes formed in the body are transformed into the optical channels that are through-holes.
A method for the portioned dispensing of a food preparation, wherein a first liquid or paste-like food undergoes a foaming process and is poured into a container and the container is sealed so that it is airtight with the food preparation stored therein, characterised in that each portion of the first food is subjected to the foaming process individually, wherein the first food is mixed with an aeration gas and the first food mixed with an aeration gas is squeezed by a piston/cylinder unit into a static shearing device in order for the foaming process to be performed and then dispensed from a dispensing opening in the shearing device into the container.
An electrode plate for connecting a semiconductor chip comprising: the electrode plate , on a surface of which, a first groove and a group of second grooves are provided, the first groove having a first linear part, a second linear part, a third linear part, and a fourth linear part extending along respective sides of a rectangular shape, and extending in a ring shape, the group of second grooves being arranged within a range surrounded by the first groove and having end portions on an outer periphery side that are connected with the first groove , the group of second grooves including a plurality of second grooves , the group of second grooves including a first set having the plurality of second grooves connected with the first linear part, a second set having the plurality of second grooves connected with the second linear part, a third set having the plurality of second grooves connected with the third linear part, and a fourth set having the plurality of second grooves connected with the fourth linear part, and the range being for joining a solder .
A nerve cuff electrode comprising: a plurality of electrode contacts (C1; C2; C3); a nerve cuff comprising: an inner surface comprising at least one of the plurality of electrode contacts configured to be in electrical contact with a peripheral nerve; and an outer surface comprising another at least one of the plurality of electrode contacts that is facing away from the peripheral nerve, is electrically isolated from the peripheral nerve, and is configured as a stable ground electrode or a stable return electrode. a plurality of electrode contacts (C1; C2; C3); a nerve cuff comprising: an inner surface comprising at least one of the plurality of electrode contacts configured to be in electrical contact with a peripheral nerve; and an outer surface comprising another at least one of the plurality of electrode contacts that is facing away from the peripheral nerve, is electrically isolated from the peripheral nerve, and is configured as a stable ground electrode or a stable return electrode. an inner surface comprising at least one of the plurality of electrode contacts configured to be in electrical contact with a peripheral nerve; and an outer surface comprising another at least one of the plurality of electrode contacts that is facing away from the peripheral nerve, is electrically isolated from the peripheral nerve, and is configured as a stable ground electrode or a stable return electrode.
A medical imaging apparatus comprising: a scanner configured to acquire projection data of an object in a plurality of directions; and a data processor configured to generate a volume of interest based on the projection data, generate two-dimensional reprojection images by reprojecting the volume of interest in a plurality of directions, extract feature information from the 2D reprojection images, generate a feature vector by fusing the feature information extracted from the 2D reprojection images corresponding to each direction, and determine whether a certain substance exists in the volume of interest based on the generated feature vector. a scanner configured to acquire projection data of an object in a plurality of directions; and a data processor configured to generate a volume of interest based on the projection data, generate two-dimensional reprojection images by reprojecting the volume of interest in a plurality of directions, extract feature information from the 2D reprojection images, generate a feature vector by fusing the feature information extracted from the 2D reprojection images corresponding to each direction, and determine whether a certain substance exists in the volume of interest based on the generated feature vector.
Method for treating particulate material (M) in a fluidising device , with a fluidising unit having a longitudinal axis (X-X), the fluidising unit having a perforated distributor plate dividing the fluidising unit into a distributor chamber and a fluidising chamber arranged above the distributor chamber , wherein the fluidising chamber comprises a material inlet for the material (M) to be treated and the distributor chamber comprises a material discharge having a material outlet for the treated material (M') having a lower and an upper edge over a material outlet surface and a barrier device closes the material discharge and wherein the distributor chamber comprises a fluid inlet and the fluidising chamber comprises a fluid outlet for a process gas (PG) fluidising the material (M) in the fluidising chamber flowing from the fluid inlet through the perforated distributor plate to the fluid outlet , wherein in an operating condition, the fluidising chamber is first filled through the material inlet with material (M) to be treated and the material (M) is then treated by the process gas (PG) flowing through the fluidising chamber , characterised in that the distributor chamber comprises a bar extending at least partly in a circumferential direction, arranged in the region of the material outlet surface and depending on the operating condition, the distributor plate movably arranged relative to the fluidising unit is moved to an emptying position such that the distributor plate is arranged in the emptying condition on the bar such that a fluid connection is formed past the distributor plate between the material outlet arranged in the distributor chamber and the fluidising chamber , and the treated material (M') is discharged from the fluidising unit through the material outlet , wherein in the emptying condition in the emptying position of the distributor plate , the barrier device releases the material discharge .
A light control device comprising: a light transmission/reception unit installed in a movable body and including an emission unit configured to emit a light and a light receiving unit configured to receive the light; and a control unit configured to control the emission unit to perform a first control of continuously shifting the light in a first direction and a second control of continuously shifting the light in a second direction crossing the first direction, wherein, when an emission angle of the light emitted from the emission unit in the first direction is in a predetermined angle range, the control unit shifts the emission angle of the light by a predetermined angle in the second direction while continuously shifting the light in the first direction, and when the emission angle of the light in the first direction is out of the predetermined angle range, the control unit continuously shifts the light in the first direction and does not shift the emission angle of the light in the second direction. a light transmission/reception unit installed in a movable body and including an emission unit configured to emit a light and a light receiving unit configured to receive the light; and a control unit configured to control the emission unit to perform a first control of continuously shifting the light in a first direction and a second control of continuously shifting the light in a second direction crossing the first direction, wherein, when an emission angle of the light emitted from the emission unit in the first direction is in a predetermined angle range, the control unit shifts the emission angle of the light by a predetermined angle in the second direction while continuously shifting the light in the first direction, and when the emission angle of the light in the first direction is out of the predetermined angle range, the control unit continuously shifts the light in the first direction and does not shift the emission angle of the light in the second direction.
A system for presenting, in an interactive program guide, a virtual content source for binge watching a program series, the system comprising: means for determining a program series a user has started watching; means for determining a plurality of episodes of the program series that the user has not watched; means for receiving a user selection of a media asset; means for determining a start time of the media asset; means for determining a length of time between a current time and the start time of the media asset; means for determining a number of episodes of the program series the user can watch in the length of time before the start time of the media asset; means for selecting a subset of the plurality of episodes of the program series that the user has not watched based on the number of episodes the user can watch; means for creating the virtual content source including the selected subset of the plurality of episodes of the program series that the user has not watched; and means for generating for display, in the interactive program guide, the virtual content source simultaneously with a plurality of media asset indicators corresponding to at least one other content source. means for determining a program series a user has started watching; means for determining a plurality of episodes of the program series that the user has not watched; means for receiving a user selection of a media asset; means for determining a start time of the media asset; means for determining a length of time between a current time and the start time of the media asset; means for determining a number of episodes of the program series the user can watch in the length of time before the start time of the media asset; means for selecting a subset of the plurality of episodes of the program series that the user has not watched based on the number of episodes the user can watch; means for creating the virtual content source including the selected subset of the plurality of episodes of the program series that the user has not watched; and means for generating for display, in the interactive program guide, the virtual content source simultaneously with a plurality of media asset indicators corresponding to at least one other content source.
A method for the selection of one or more microorganisms capable of imparting one or more beneficial property to a plant, the method comprising at least the steps of: a) subjecting one or more plant to a growth medium in the presence of a first set of one or more microorganisms, optionally wherein the one or more plant comprises seeds, seedlings, cuttings and/or propagules thereof; and wherein the one or more plant is subjected to at least one selective pressure; b) selecting one or more plant following step a) on the basis of one or more plant phenotypic trait; c) acquiring a second set of one or more microorganisms associated with said one or more plant selected in step b); d) repeating steps a) to c) one or more times, wherein the second set of one or more microorganisms acquired in step c) is used as the first set of microorganisms in step a) of any successive repeat; wherein at least one round of the method comprises the step of identifying an association between (i) the one or more beneficial property and (ii) one or more plant marker and/or one or more microorganism marker after step b) and/or after step c), wherein the plant marker is at least one QTL (Quantitative Trait Locus), and/or wherein the microorganism marker is selected from the group consisting of a polymorphism, a mutation, an allelic variation, presence or absence of expression of one or more gene, level of expression of one or more gene, presence or absence of production of one or more compounds by a microorganism, and level of production of one or more compounds by a microorganism. a) subjecting one or more plant to a growth medium in the presence of a first set of one or more microorganisms, optionally wherein the one or more plant comprises seeds, seedlings, cuttings and/or propagules thereof; and wherein the one or more plant is subjected to at least one selective pressure; b) selecting one or more plant following step a) on the basis of one or more plant phenotypic trait; c) acquiring a second set of one or more microorganisms associated with said one or more plant selected in step b); d) repeating steps a) to c) one or more times, wherein the second set of one or more microorganisms acquired in step c) is used as the first set of microorganisms in step a) of any successive repeat;
A displacement measuring device , comprising: a light projecting part configured to generate light ; a sensor head configured to irradiate a measurement target with the light and to receive light reflected by a measurement target surface of the measurement target from the irradiated light ; and a control part configured to calculate a value (L1(i), L2(i), L3(i), L4(i)) indicating a distance (L1(i), L2(i), L3(i), L4(i)) to the measurement target surface on the basis of the light received by the sensor head , wherein the control part is configured to process the calculated value (L1(i), L2(i), L3(i), L4(i)) as the value (L1(i), L2(i), L3(i), L4(i)) indicating the distance (L1(i), L2(i), L3(i), L4(i)) to the measurement target surface on condition that the calculated value (L1(i), L2(i), L3(i), L4(i)) is included in a preset numerical range (R1(i), R2(i), R3(i), R4(i)), wherein the displacement measuring device is characterized in that the control part is further configured to reset the preset numerical range (R1(i), R2(i), R3(i), R4(i)) to a new numerical range (R1(i+1), R2(i+1), R3(i+1), R4(i+1)) such that a width of the preset numerical range (R1(i), R2(i), R3(i), R4(i)) and a width of the new numerical range (R1(i+1), R2(i+1), R3(i+1), R4(i+1)) are equal, and the calculated value (L1(i), L2(i), L3(i), L4(i)) is a middle value of the new numerical range (R1(i+1), R2(i+1), R3(i+1), R4(i+1)). a light projecting part configured to generate light ; a sensor head configured to irradiate a measurement target with the light and to receive light reflected by a measurement target surface of the measurement target from the irradiated light ; and a control part configured to calculate a value (L1(i), L2(i), L3(i), L4(i)) indicating a distance (L1(i), L2(i), L3(i), L4(i)) to the measurement target surface on the basis of the light received by the sensor head , wherein the control part is configured to process the calculated value (L1(i), L2(i), L3(i), L4(i)) as the value (L1(i), L2(i), L3(i), L4(i)) indicating the distance (L1(i), L2(i), L3(i), L4(i)) to the measurement target surface on condition that the calculated value (L1(i), L2(i), L3(i), L4(i)) is included in a preset numerical range (R1(i), R2(i), R3(i), R4(i)), wherein the displacement measuring device is characterized in that the control part is further configured to reset the preset numerical range (R1(i), R2(i), R3(i), R4(i)) to a new numerical range (R1(i+1), R2(i+1), R3(i+1), R4(i+1)) such that a width of the preset numerical range (R1(i), R2(i), R3(i), R4(i)) and a width of the new numerical range (R1(i+1), R2(i+1), R3(i+1), R4(i+1)) are equal, and the calculated value (L1(i), L2(i), L3(i), L4(i)) is a middle value of the new numerical range (R1(i+1), R2(i+1), R3(i+1), R4(i+1)).
An induction hob with boiling detection and induction power control at least comprising: - two induction heating zones ; - a temperature sensor associated to a heating zone ; - a micro-electromechanical system as acceleration detector; - an induction generator ; - a controller , wherein the controller is connected to the induction generator , the micro-electromechanical system and the at least a temperature sensor ; and - the controller is adapted to identify the presence of a boiling substance on at least one of the heating zones based on the temperature sensor and the micro-electromechanical system detecting audible sound vibrations emitted during a normal heating operation ; - the controller is adapted to run an evaluation algorithm on the audible sound vibrations for boiling detection and is adapted to control the power supplied to the identified heating zone ; - characterized in that the evaluation is only started once a cooking zone has reached a certain temperature. - two induction heating zones ; - a temperature sensor associated to a heating zone ; - a micro-electromechanical system as acceleration detector; - an induction generator ; - a controller , wherein the controller is connected to the induction generator , the micro-electromechanical system and the at least a temperature sensor ; and - the controller is adapted to identify the presence of a boiling substance on at least one of the heating zones based on the temperature sensor and the micro-electromechanical system detecting audible sound vibrations emitted during a normal heating operation ; - the controller is adapted to run an evaluation algorithm on the audible sound vibrations for boiling detection and is adapted to control the power supplied to the identified heating zone ; - characterized in that the evaluation is only started once a cooking zone has reached a certain temperature.
A mobile X-ray apparatus comprising: an X-ray emitter ; a battery configured to supply operating power to the X-ray emitter ; a battery management system, BMS, configured to detect a state of the battery including at least one of a voltage and a current of the battery ; and a controller , characterized in that the controller is configured to: obtain an initial voltage value of the battery detected by the BMS before X-rays are emitted, obtain a maximum current value of the battery and a minimum voltage value of the battery detected by the BMS during the X-rays being emitted, and calculate an internal resistance value based on the minimum voltage value and the maximum current value, and determine a degradation state of the battery by using the calculated internal resistance value. an X-ray emitter ; a battery configured to supply operating power to the X-ray emitter ; a battery management system, BMS, configured to detect a state of the battery including at least one of a voltage and a current of the battery ; and a controller , characterized in that the controller is configured to: obtain an initial voltage value of the battery detected by the BMS before X-rays are emitted, obtain a maximum current value of the battery and a minimum voltage value of the battery detected by the BMS during the X-rays being emitted, and calculate an internal resistance value based on the minimum voltage value and the maximum current value, and determine a degradation state of the battery by using the calculated internal resistance value. obtain an initial voltage value of the battery detected by the BMS before X-rays are emitted, obtain a maximum current value of the battery and a minimum voltage value of the battery detected by the BMS during the X-rays being emitted, and calculate an internal resistance value based on the minimum voltage value and the maximum current value, and determine a degradation state of the battery by using the calculated internal resistance value.