mhurhangee/patent-ind-claim-en huggingface dataset:
A method for reconstructing an image of an object to be observed comprising: (a) providing an optical unit comprising a structured lighting pattern and a detector comprising at least a single pixel, wherein the detector is in optical communication with at least the structured lighting pattern comprising a plurality of regions with different optical characteristics within a region of light with which an object is irradiated wherein the optical characteristics comprise at least one of transmission characteristics or reflection characteristics; (b) irradiating the object with the structured lighting pattern, wherein the structured lighting pattern irradiating the object remains the same with respect to the optical characteristics in each region of the plurality of regions of the structured lighting pattern while the structured lighting pattern is spatially shifted over time relative to the object; (c) using the detector to collect optical signals from the object through at least the structured lighting pattern while the object is undergoing a change in relative position with respect to the structured lighting pattern; (d) using the optical signals to generate time series signal data of temporal change in intensity of the optical signals while the object is undergoing the change in relative position with respect to the structured lighting pattern; and (e) using the time series signal data to reconstruct the image of the object, characterized in that the reconstruction is based at least in part on prior knowledge of the optical characteristics of each region of the plurality of regions. (a) providing an optical unit comprising a structured lighting pattern and a detector comprising at least a single pixel, wherein the detector is in optical communication with at least the structured lighting pattern comprising a plurality of regions with different optical characteristics within a region of light with which an object is irradiated wherein the optical characteristics comprise at least one of transmission characteristics or reflection characteristics; (b) irradiating the object with the structured lighting pattern, wherein the structured lighting pattern irradiating the object remains the same with respect to the optical characteristics in each region of the plurality of regions of the structured lighting pattern while the structured lighting pattern is spatially shifted over time relative to the object; (c) using the detector to collect optical signals from the object through at least the structured lighting pattern while the object is undergoing a change in relative position with respect to the structured lighting pattern; (d) using the optical signals to generate time series signal data of temporal change in intensity of the optical signals while the object is undergoing the change in relative position with respect to the structured lighting pattern; and (e) using the time series signal data to reconstruct the image of the object, characterized in that the reconstruction is based at least in part on prior knowledge of the optical characteristics of each region of the plurality of regions.
Induction oven apparatus with an induction heating unit , which is provided to heat at least one induction oven wall and/or a food to be cooked situated in a cooking compartment , with a catalyst unit , which is provided to influence at least one chemical reaction in an exhaust air flow , with a heat transfer unit , which in at least one operating state is at least provided to transfer a thermal energy to the catalyst unit , wherein the induction heating unit is at least provided to at least partially heat the heat transfer unit in the operating state, characterised by a housing unit , which is at least provided to at least partially guide the exhaust air flow , and with which the heat transfer unit is embodied at least partially in one piece, wherein the heat transfer unit and the housing unit have at least one common component and/or at least one component of the heat transfer unit and/or the heat transfer unit is connected to and/or embodied with at least one component of the housing unit and/or the housing unit in one piece, wherein the housing unit has at least one through-opening and is provided to at least partially guide the exhaust air flow , wherein the catalyst unit has at least one catalyst element which, when viewed in a direction of the exhaust air flow , is arranged in a region of the through-opening , and wherein the housing unit has at least one further through-opening and the catalyst unit has at least one further catalyst element which, when viewed in the direction of the exhaust air current , is arranged in a region of the further through-opening .
A cleaning-performance evaluation system for evaluating a cleaning operation inside a work chamber , the system functioning as an inspection system for inspecting the cleaning-performance of a mock contaminant generated inside the work chamber , comprising: a contamination means for administering the mock contaminant to the inside of the work chamber; a waste liquid recovery means for performing the cleaning operation and recovering a cleaning waste-liquid that contains the mock contaminant; a mist generation means for generating a mist of the recovered cleaning waste-liquid; a collection means for collecting inspection air that includes the generated mist; and a detection means for detecting an amount of the mock contaminant included in the inspection air collected by the collection means , wherein the cleaning operation is evaluated by confirming that the amount of the mock contaminant detected by the detection means is at or below a prescribed value, wherein the mock contaminant is an aqueous solution of a fluorescence material, wherein the detection means includes a fine particle detecting part and a fluorescence detecting part, the fine particle detecting part being configured to detect the total particle concentration of the mock contaminant in the inspection air by a light scattering method, and the fluorescence detecting part being configured to detect a positive particle concentration in the inspection air which is a total number of fluorescence fine particles detected by the fluorescence detecting part, whereby a positive particle ratio is calculated by the total particle concentration and the positive particle concentration to confirm the amount of the mock contaminant. a contamination means for administering the mock contaminant to the inside of the work chamber; a waste liquid recovery means for performing the cleaning operation and recovering a cleaning waste-liquid that contains the mock contaminant; a mist generation means for generating a mist of the recovered cleaning waste-liquid; a collection means for collecting inspection air that includes the generated mist; and a detection means for detecting an amount of the mock contaminant included in the inspection air collected by the collection means , wherein the cleaning operation is evaluated by confirming that the amount of the mock contaminant detected by the detection means is at or below a prescribed value, wherein the mock contaminant is an aqueous solution of a fluorescence material, wherein the detection means includes a fine particle detecting part and a fluorescence detecting part, the fine particle detecting part being configured to detect the total particle concentration of the mock contaminant in the inspection air by a light scattering method, and the fluorescence detecting part being configured to detect a positive particle concentration in the inspection air which is a total number of fluorescence fine particles detected by the fluorescence detecting part, whereby a positive particle ratio is calculated by the total particle concentration and the positive particle concentration to confirm the amount of the mock contaminant.
A current driver for controlling a current source that drives an alternating current (AC) signal to a current driven actuator , the current driver comprising: a current sensor , the current sensor configured to measure an output current from the current source , the current source operable to supply desired output currents below a threshold value, and above the threshold value up to a maximum output current; a threshold detector , the threshold detector configured to detect when the measured current is below the threshold value; a controller , the controller configured to: calibrate the current source ; determine a duty cycle of the AC signal driven by the current source , based upon calibration of the current source and the desired output current; control the current source , using the determined duty cycle of the AC signal, when the measured current is below the threshold value; the controller further configured to control the current source using a feedback loop based upon the measured current, when the measured current is above the threshold value. a current sensor , the current sensor configured to measure an output current from the current source , the current source operable to supply desired output currents below a threshold value, and above the threshold value up to a maximum output current; a threshold detector , the threshold detector configured to detect when the measured current is below the threshold value; a controller , the controller configured to: calibrate the current source ; determine a duty cycle of the AC signal driven by the current source , based upon calibration of the current source and the desired output current; control the current source , using the determined duty cycle of the AC signal, when the measured current is below the threshold value; calibrate the current source ; determine a duty cycle of the AC signal driven by the current source , based upon calibration of the current source and the desired output current; control the current source , using the determined duty cycle of the AC signal, when the measured current is below the threshold value; the controller further configured to control the current source using a feedback loop based upon the measured current, when the measured current is above the threshold value.
A volumetric flow meter comprising: a piston rod including pistons at both ends; cylinders for accommodating the pistons mounted on both ends of the piston rod ; cylinder chambers drilled on a main body , the cylinder chambers separately accommodating the cylinders ; passages separately opening near cylinder chambers outside the cylinders to separately communicate with both cylinder chambers , and being alternately switched to an inflow passage and an outflow passage by a switching valve ; and piston covers separately opposing to the cylinder chambers and the passages , characterized in that one or more convex parts are formed on the inner surface of each of the piston covers or on the portions of the main body opposing to the inner surfaces of the piston covers in order to disturb fluid flow between the cylinder chambers and the passages to prevent generation of air reservoirs, whereby the one or more convex parts are located between each passage and corresponding cylinder chamber . a piston rod including pistons at both ends; cylinders for accommodating the pistons mounted on both ends of the piston rod ; cylinder chambers drilled on a main body , the cylinder chambers separately accommodating the cylinders ; passages separately opening near cylinder chambers outside the cylinders to separately communicate with both cylinder chambers , and being alternately switched to an inflow passage and an outflow passage by a switching valve ; and piston covers separately opposing to the cylinder chambers and the passages , characterized in that one or more convex parts are formed on the inner surface of each of the piston covers or on the portions of the main body opposing to the inner surfaces of the piston covers in order to disturb fluid flow between the cylinder chambers and the passages to prevent generation of air reservoirs, whereby the one or more convex parts are located between each passage and corresponding cylinder chamber .
Lightweight board - with an upper cover plate extending parallel to a longitudinal plane (E), - with a lower cover plate extending parallel to the longitudinal plane (E), - with a light central layer extending between the upper cover plate and the lower cover plate , and - with at least one supporting edge which extends from the side of the upper cover plate facing the central layer to the side of the lower cover plate facing the central layer and is arranged in the direction of the longitudinal plane (E) adjacent to the central layer , the at least one supporting edge having a plurality of separate individual layers , characterized in that a plurality of recesses are provided on the inside in each case in the upper and/or lower cover plate , wherein each recess of the respective cover plate accommodates at least one individual layer of the supporting edge and wherein the respective individual layer finds a stop in the respective recess towards the centre of the lightweight panel . - with an upper cover plate extending parallel to a longitudinal plane (E), - with a lower cover plate extending parallel to the longitudinal plane (E), - with a light central layer extending between the upper cover plate and the lower cover plate , and - with at least one supporting edge which extends from the side of the upper cover plate facing the central layer to the side of the lower cover plate facing the central layer and is arranged in the direction of the longitudinal plane (E) adjacent to the central layer ,
A method for controlling access to a physical space using an emergency delegation, the method being performed in a lock device and comprising the steps of: receiving an access request from an electronic key ; obtaining a plurality of delegations, wherein each delegation is a delegation from a delegator to a delegatee, the plurality of delegations collectively forming a chain of delegations wherein when two delegations are chained together, the delegatee of one delegation is the delegator of the next delegation; determining that a delegation in the chain of delegations is an emergency delegation, the emergency delegation indicating that access should only be granted when an emergency situation occurs, wherein one or more types of emergency situation are specified in the emergency delegation, wherein the one or more types of emergency situation is any one of break-in, fire, water leak, health emergency, and the emergency delegation specifying an address with which to communicate to determine whether the emergency situation occurs; determining when an emergency situation occurs by communicating with the address specified in the emergency delegation, and granting access to the physical space when the chain of delegations starts in the lock device and ends in the electronic key ; and when the emergency situation occurs. receiving an access request from an electronic key ; obtaining a plurality of delegations, wherein each delegation is a delegation from a delegator to a delegatee, the plurality of delegations collectively forming a chain of delegations wherein when two delegations are chained together, the delegatee of one delegation is the delegator of the next delegation; determining that a delegation in the chain of delegations is an emergency delegation, the emergency delegation indicating that access should only be granted when an emergency situation occurs, wherein one or more types of emergency situation are specified in the emergency delegation, wherein the one or more types of emergency situation is any one of break-in, fire, water leak, health emergency, and the emergency delegation specifying an address with which to communicate to determine whether the emergency situation occurs; determining when an emergency situation occurs by communicating with the address specified in the emergency delegation, and granting access to the physical space when the chain of delegations starts in the lock device and ends in the electronic key ; and when the emergency situation occurs.
An RFIC assembled antenna, comprising: a first layer substrate including a first metal pattern , a first slot formed in the first metal pattern , and a second slot formed in the first metal pattern ; an RFIC chip which is coupled to a region of the second slot for assembling the RFIC chip with the first layer substrate ; and a second layer substrate coupled to a lower portion of the first layer substrate and including a second metal pattern , a third slot formed in the second metal pattern , and a dipole radiator formed inside the third slot, wherein a feeding pattern connected to the RFIC chip to provide a feed signal to the dipole radiator is formed inside the first slot , wherein the second slot is connected to the first slot . a first layer substrate including a first metal pattern , a first slot formed in the first metal pattern , and a second slot formed in the first metal pattern ; an RFIC chip which is coupled to a region of the second slot for assembling the RFIC chip with the first layer substrate ; and a second layer substrate coupled to a lower portion of the first layer substrate and including a second metal pattern , a third slot formed in the second metal pattern , and a dipole radiator formed inside the third slot, wherein a feeding pattern connected to the RFIC chip to provide a feed signal to the dipole radiator is formed inside the first slot , wherein the second slot is connected to the first slot .
A method of configuring a laser scanner , the method comprising: activating a configuration mode of the laser scanner; sampling a field of view of the laser scanner; storing a background field of view of the laser scanner; introducing a target item in the field of view of the laser scanner; acquiring , via the laser scanner, a position of the target item as a vertex point of a monitoring zone to be configured; moving the target item through a plurality of positions in the field of view of the laser scanner; acquiring , via the laser scanner, a positional coordinate for each of a plurality of vertex points corresponding to the plurality of positions of the target item; and aggregating the positional coordinates for the respective vertex points to determine the monitoring zone for the laser scanner, characterized by further comprising receiving at the laser scanner, a signal from a remote controller, and in that said acquiring , via the laser scanner, a position of the target item as a vertex point of a monitoring zone to be configured is based on the signal received from the remote controller. activating a configuration mode of the laser scanner; sampling a field of view of the laser scanner; storing a background field of view of the laser scanner; introducing a target item in the field of view of the laser scanner; acquiring , via the laser scanner, a position of the target item as a vertex point of a monitoring zone to be configured; moving the target item through a plurality of positions in the field of view of the laser scanner; acquiring , via the laser scanner, a positional coordinate for each of a plurality of vertex points corresponding to the plurality of positions of the target item; and aggregating the positional coordinates for the respective vertex points to determine the monitoring zone for the laser scanner, characterized by further comprising receiving at the laser scanner, a signal from a remote controller, and in that said acquiring , via the laser scanner, a position of the target item as a vertex point of a monitoring zone to be configured is based on the signal received from the remote controller.
An unmanned aerial vehicle (UAV) used in fishing, comprising: a housing , said housing having a top part and a bottom part; a plurality of arms arranged on the top part, each arm having a motor and an airscrew; a battery unit arranged within the housing ; a processor arranged within the housing ; and a sonar unit having a wire connected thereto, wherein the sonar unit comprises a sonar main body; said UAV being characterized in that the sonar unit further comprises a floater which floats above water surface, and that said UAV further comprises a positioning unit detachably mounted within a mounting groove recessed from the bottom part, wherein the positioning unit is connected to the wire and configured to retract or release the wire, wherein the positioning unit comprises a rotator to engage the wire and a power component to actuate the rotator, and wherein the positioning unit comprises a supporting plate to support the wire, and a first sensor to sense the force between the wire and the supporting plate and wherein the processor is configured to instruct the power component to stop or decelerate in response to the first sensor sending a signal to the processor indicating the sensed force is less than a first predetermined threshold. a housing , said housing having a top part and a bottom part; a plurality of arms arranged on the top part, each arm having a motor and an airscrew; a battery unit arranged within the housing ; a processor arranged within the housing ; and a sonar unit having a wire connected thereto, wherein the sonar unit comprises a sonar main body; said UAV being characterized in that the sonar unit further comprises a floater which floats above water surface, and that said UAV further comprises a positioning unit detachably mounted within a mounting groove recessed from the bottom part, wherein the positioning unit is connected to the wire and configured to retract or release the wire, wherein the positioning unit comprises a rotator to engage the wire and a power component to actuate the rotator, and wherein the positioning unit comprises a supporting plate to support the wire, and a first sensor to sense the force between the wire and the supporting plate and wherein the processor is configured to instruct the power component to stop or decelerate in response to the first sensor sending a signal to the processor indicating the sensed force is less than a first predetermined threshold.
Process for manufacturing a tread based on a green rubber material, characterized in that it comprises the following steps : - form a rough tread based on green rubber material comprising at least one block of tread pattern , each block of tread pattern comprising a central portion having receiving faces , and a first lateral portion and a second lateral portion extending along the central portion , on either side of the central portion ; - mount at least one reinforcement ply on the receiving faces of the central portion , - cover the central portion with the first lateral portion and the second lateral portion so that the block of tread pattern envelops the at least one reinforcement ply so that the at least one reinforcement ply forms a herringbone-section profile in the block of tread pattern. - form a rough tread based on green rubber material comprising at least one block of tread pattern , each block of tread pattern comprising a central portion having receiving faces , and a first lateral portion and a second lateral portion extending along the central portion , on either side of the central portion ; - mount at least one reinforcement ply on the receiving faces of the central portion , - cover the central portion with the first lateral portion and the second lateral portion so that the block of tread pattern envelops the at least one reinforcement ply so that the at least one reinforcement ply forms a herringbone-section profile in the block of tread pattern.