mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic focusing method based on a region of interest, comprising the following steps acquiring a target image that is divided into blocks; selecting a region of interest of a rectangular or other closed geometrical shape on the target image; acquiring a definition evaluation parameter of each of said blocks acquiring normalized central coordinates and a normalized size of the selected region of interest on the target image; calculating a full width at half maximum coefficient in a horizontal direction and a vertical direction according to a number of the blocks in the horizontal direction and the vertical direction and the normalized size; calculating a weight value of each of said blocks using a two-dimensional discrete Gaussian function according to the number of the blocks in the horizontal direction and the vertical direction and the normalized central coordinates and the full width at half maximum coefficient; calculating a normalized overall definition evaluation parameter of the target image according to the calculated weight value and the definition evaluation parameter of each of said blocks through summation; and focusing according to the normalized overall definition evaluation parameter. selecting a region of interest of a rectangular or other closed geometrical shape on the target image; acquiring a definition evaluation parameter of each of said blocks acquiring normalized central coordinates and a normalized size of the selected region of interest on the target image; calculating a full width at half maximum coefficient in a horizontal direction and a vertical direction according to a number of the blocks in the horizontal direction and the vertical direction and the normalized size; calculating a weight value of each of said blocks using a two-dimensional discrete Gaussian function according to the number of the blocks in the horizontal direction and the vertical direction and the normalized central coordinates and the full width at half maximum coefficient; calculating a normalized overall definition evaluation parameter of the target image according to the calculated weight value and the definition evaluation parameter of each of said blocks through summation; and focusing according to the normalized overall definition evaluation parameter.
Filter cassette for a vacuum cleaner apparatus , it being possible for the filter cassette to be positioned in the vacuum cleaner apparatus in such a way that the filter cassette can be positioned in an air stream which is sucked in by the vacuum cleaner apparatus , the filter cassette comprising substantially a shell face , an upper opening and a lower opening, with the result that the air stream which is sucked in can flow through the lower opening into the filter cassette and through the upper opening out of the filter cassette in order to filter out the dirt particles, characterized in that at least one first and second sealing element are provided, the first sealing element running in a first plane and the second sealing element running in a second plane, and the first and second plane being arranged at an acute angle with respect to one another, with the result that the second sealing element is oriented substantially horizontally when the filter cassette is positioned in a filter cassette receptacle of the vacuum cleaner apparatus , the filter cassette receptacle being accessible from outside the vacuum cleaner apparatus .
A method of driving a linear actuator including a stator and a movable element , wherein one of the stator and the movable element includes an electromagnet, the method comprising: detecting at least one of displacement, speed, and acceleration of the movable element to control drive current for reciprocating the movable element in accordance with the detected value; detecting a tendency in temporal changes of a load in correspondence with a tendency in temporal changes of the detected value to detect an abnormality; determining likeliness of a momentary change of the load to occur by detecting a number of times the detected value increases and decreases; and changing a method of controlling the movable element in accordance with the determination result, wherein the determining likeliness of a momentary change of the load to occur includes: determining that the load change is unlikely to occur when the number of times the detected value increases and decreases within a predetermined period is small; and determining that the load change is apt to occur when the number of times the detected value increases and decreases within the predetermined period is high. detecting at least one of displacement, speed, and acceleration of the movable element to control drive current for reciprocating the movable element in accordance with the detected value; detecting a tendency in temporal changes of a load in correspondence with a tendency in temporal changes of the detected value to detect an abnormality; determining likeliness of a momentary change of the load to occur by detecting a number of times the detected value increases and decreases; and changing a method of controlling the movable element in accordance with the determination result, wherein the determining likeliness of a momentary change of the load to occur includes: determining that the load change is unlikely to occur when the number of times the detected value increases and decreases within a predetermined period is small; and determining that the load change is apt to occur when the number of times the detected value increases and decreases within the predetermined period is high. determining that the load change is unlikely to occur when the number of times the detected value increases and decreases within a predetermined period is small; and determining that the load change is apt to occur when the number of times the detected value increases and decreases within the predetermined period is high.
A food processing apparatus, comprising: - a food processing compartment for a food substance, - a heating unit arranged to apply a heating procedure to the food substance, - a weight sensor arranged to monitor the weight of the processed food substance, and characterized by : - a control device that is arranged to - obtain weight information for the food substance, - compute a derivative signal that is indicative of a weight loss rate of the food substance, - compute a characteristic value of the derivative signal, and - in an initial stage of the heating procedure, based on the characteristic value, determine at least one of an estimate for an initial fat content of the food substance, for the ongoing heating procedure, and an estimate for a resulting fat content change for the food substance. - a food processing compartment for a food substance, - a heating unit arranged to apply a heating procedure to the food substance, - a weight sensor arranged to monitor the weight of the processed food substance, and characterized by : - a control device that is arranged to - obtain weight information for the food substance, - compute a derivative signal that is indicative of a weight loss rate of the food substance, - compute a characteristic value of the derivative signal, and - in an initial stage of the heating procedure, based on the characteristic value, determine at least one of an estimate for an initial fat content of the food substance, for the ongoing heating procedure, and an estimate for a resulting fat content change for the food substance. - a control device that is arranged to - obtain weight information for the food substance, - compute a derivative signal that is indicative of a weight loss rate of the food substance, - compute a characteristic value of the derivative signal, and - in an initial stage of the heating procedure, based on the characteristic value, determine at least one of an estimate for an initial fat content of the food substance, for the ongoing heating procedure, and an estimate for a resulting fat content change for the food substance.
An apparatus for holding a disposable medical item for blood treatment, comprising - a mounting means configured to rotatably mount the disposable item - a drive means configured to rotate the rotatably mounted disposable item about a longitudinal axis (L) extending substantially in a direction in which blood flows through the disposable item during operation of the disposable item, and - a control means configured to control the drive means , characterized in that - the apparatus further comprises a sensor means configured to detect a rotation of the rotatably mounted disposable item about at least the longitudinal axis (L) and to output corresponding sensor data, - the control means is further configured to process the sensor data output by the sensor means, - the sensor means comprises an optical sensor which is configured to detect a mark located on the disposable item during and/or after the rotation of the disposable item about the longitudinal axis (L) and to output corresponding first sensor data, and - the control means is configured to determine, on the basis of the first sensor data output by the optical sensor, information relating to the rotation and/or the rotational position of the disposable item with respect to the longitudinal axis (L). - a mounting means configured to rotatably mount the disposable item - a drive means configured to rotate the rotatably mounted disposable item about a longitudinal axis (L) extending substantially in a direction in which blood flows through the disposable item during operation of the disposable item, and - a control means configured to control the drive means , characterized in that - the apparatus further comprises a sensor means configured to detect a rotation of the rotatably mounted disposable item about at least the longitudinal axis (L) and to output corresponding sensor data, - the control means is further configured to process the sensor data output by the sensor means, - the sensor means comprises an optical sensor which is configured to detect a mark located on the disposable item during and/or after the rotation of the disposable item about the longitudinal axis (L) and to output corresponding first sensor data, and - the control means is configured to determine, on the basis of the first sensor data output by the optical sensor, information relating to the rotation and/or the rotational position of the disposable item with respect to the longitudinal axis (L).
Method for controlling a slide direction in a branch point of a water slide, - in which a slide surface of the branch point is wetted with water, and the branch point is formed: - with a first slide connector for a slide entrance, - with a second slide connector for a slide exit, - with a third slide connector for a further slide exit, - wherein the first and second slide connector are provided adjacently to each other, and the third slide connector is provided removed from or opposite the first and second slide connector , and a mouth region is formed between the first and second slide connector and the third slide connector , - with a first slide path , which runs from the first slide connector to the second slide connector , and with a second slide path , which runs from the first slide connector to the third slide connector , - wherein the third slide connector is elevated in relation to the first and second slide connector when seen in the vertical direction and, starting from the mouth region , an incline section is provided in the direction of the third slide connector , characterised in that - water is supplied to the incline section and/or a peak provided between the incline section and the third slide connector via at least one controllable water nozzle , and - a through slide of the first or second slide path is controlled by the amount of water supplied to the slide surface in the incline section and/or the peak . - in which a slide surface of the branch point is wetted with water, and the branch point is formed: - with a first slide connector for a slide entrance, - with a second slide connector for a slide exit, - with a third slide connector for a further slide exit, - wherein the first and second slide connector are provided adjacently to each other, and the third slide connector is provided removed from or opposite the first and second slide connector , and a mouth region is formed between the first and second slide connector and the third slide connector , - with a first slide path , which runs from the first slide connector to the second slide connector , and with a second slide path , which runs from the first slide connector to the third slide connector , - wherein the third slide connector is elevated in relation to the first and second slide connector when seen in the vertical direction and, starting from the mouth region , an incline section is provided in the direction of the third slide connector , - water is supplied to the incline section and/or a peak provided between the incline section and the third slide connector via at least one controllable water nozzle , and - a through slide of the first or second slide path is controlled by the amount of water supplied to the slide surface in the incline section and/or the peak .
A method of power and data transfer in a rotating wing aircraft, characterized by : providing, by a coil embedded in paramagnetic material in a rotor shaft of a rotor hub composed of a paramagnetic material, power to at least one sensor ; and receiving, by the coil , data from the at least one sensor . providing, by a coil embedded in paramagnetic material in a rotor shaft of a rotor hub composed of a paramagnetic material, power to at least one sensor ; and receiving, by the coil , data from the at least one sensor .
A computer-implemented method for seismic processing to generate a seismic image of a subterranean area comprising: • receiving seismic data comprising acquired seismic waveforms that were acquired from a seismic receiver and represent the subterranean area; • generating synthetic waveforms based on an initial model of the subterranean area; • determining a model error; • adjusting the initial model based on the model error to generate an adjusted model; and • performing a full-waveform inversion using the adjusted model as a background model to generate the seismic image of the subterranean area; characterized in that determining the model error comprises: • determining a travel time shift objective function in a time domain, wherein the travel time shift objective function represents a travel time shift between at least one of the acquired waveforms and at least one of the synthetic waveforms; and • determining a local travel time shift error by directly minimizing the travel time shift objective function as a local attribute; • translating the local travel time shift error to an unwrapped instantaneous phase error; • determining an instantaneous phase objective function relation based on the unwrapped instantaneous phase error; and • back projecting the travel time shift error to the model error using the instantaneous phase objective function relation. • receiving seismic data comprising acquired seismic waveforms that were acquired from a seismic receiver and represent the subterranean area; • generating synthetic waveforms based on an initial model of the subterranean area; • determining a model error; • adjusting the initial model based on the model error to generate an adjusted model; and • performing a full-waveform inversion using the adjusted model as a background model to generate the seismic image of the subterranean area; characterized in that determining the model error comprises: • determining a travel time shift objective function in a time domain, wherein the travel time shift objective function represents a travel time shift between at least one of the acquired waveforms and at least one of the synthetic waveforms; and • determining a local travel time shift error by directly minimizing the travel time shift objective function as a local attribute; • translating the local travel time shift error to an unwrapped instantaneous phase error; • determining an instantaneous phase objective function relation based on the unwrapped instantaneous phase error; and • back projecting the travel time shift error to the model error using the instantaneous phase objective function relation.
A method for implementation by one or more data processors forming part of at least one computing device to connect to at least one of a plurality of data sources comprising: initiating deployment of a computing environment comprising at least one integration scenario and at least one adapter providing an interface to the at least one of the plurality of data sources, which is a backend computing system, wherein the integration scenario enables the definition of message exchange and process flows for computer-implemented collaborative processes executing across multiple computing nodes which utilize the plurality of data sources having different data access or transport protocols or formats; preventing , by a runtime component , activation of the at least one integration scenario until such time that the at least one adapter is fully deployed, the preventing including: listening, by a deploy listener forming part of the runtime component , to events of an integration service forming part of the deployment to determine a state of deployment of the at least one adapter ; and subsequently enabling integration flows within the at least one integration scenario to utilize the at least one adapter ; wherein the determined state of deployment is used to determine when the at least one adapter is fully deployed. initiating deployment of a computing environment comprising at least one integration scenario and at least one adapter providing an interface to the at least one of the plurality of data sources, which is a backend computing system, wherein the integration scenario enables the definition of message exchange and process flows for computer-implemented collaborative processes executing across multiple computing nodes which utilize the plurality of data sources having different data access or transport protocols or formats; preventing , by a runtime component , activation of the at least one integration scenario until such time that the at least one adapter is fully deployed, the preventing including: listening, by a deploy listener forming part of the runtime component , to events of an integration service forming part of the deployment to determine a state of deployment of the at least one adapter ; and subsequently enabling integration flows within the at least one integration scenario to utilize the at least one adapter ; wherein the determined state of deployment is used to determine when the at least one adapter is fully deployed.
A control apparatus system comprising plural control apparatuses that control operations of a device connected to a relay apparatus via the relay apparatus , each control apparatus of the control apparatus system respectively comprising: an instruction part configured for transmitting an instruction for the device and an identification information of the instruction to the relay apparatus , and an execution confirmation part configured for retrieving an execution status information indicating an execution status of the instruction by using the identification information, characterized in that the identification information transmitted by the instruction part of each control apparatus comprise a sequence number selected from a plurality of sequence numbers which are assigned to the respective control apparatus , wherein the sequence number is indicated by the execution confirmation part when retrieving the execution status of the instruction from the control apparatus during or after the execution of the instruction such that an ill effect caused by receiving the execution status of an instruction transmitted by another control apparatus can be prevented. an instruction part configured for transmitting an instruction for the device and an identification information of the instruction to the relay apparatus , and an execution confirmation part configured for retrieving an execution status information indicating an execution status of the instruction by using the identification information, characterized in that the identification information transmitted by the instruction part of each control apparatus comprise a sequence number selected from a plurality of sequence numbers which are assigned to the respective control apparatus , wherein the sequence number is indicated by the execution confirmation part when retrieving the execution status of the instruction from the control apparatus during or after the execution of the instruction such that an ill effect caused by receiving the execution status of an instruction transmitted by another control apparatus can be prevented.
Play-free shaft/hub connection, in particular shaft journal/coupling sleeve connection for use in rolling mills, wherein at least one subregion of a shaft that is rotatable about an axis of rotation (R) extending in the longitudinal direction and a journal holder are arranged in a manner engaging one in the other in a form-fitting manner, forming a connecting region, and at least one adjusting device for compensating for play is provided between the shaft and the journal holder , wherein the adjusting device is configured as a clamping mechanism between the shaft and the journal holder , wherein automatic adjustment of a compensating element (16.1, 16.2) of the adjusting device by way of at least one wedge surface (17.1, 17.2, 18.1, 18.2) cooperating with one of the connection components - journal holder and/or shaft - is provided, characterized in that the wedge surface (17.1, 17.2, 18.1, 18.2) is oriented in a manner extending perpendicularly to the longitudinal direction of the journal holder , wherein the individual adjusting device comprises at least two compensating elements (16.1, 16.2) and the compensating elements are arranged on both sides of a plane, wherein the plane is describable by the longitudinal axis of the journal holder and a perpendicular thereto, between the journal holder and shaft , and wherein the configuration of the wedge surfaces takes place at least on a side of the compensating elements that cooperates with a connection component.
A zirconia mill blank for dental cutting and machining, wherein; the zirconia mill blank for dental cutting and machining has a porosity within a range of 15 to 30 %, as calculated by formula Porosity % = pore volume ÷ pore volume + skeleton volume × 100 wherein in the formula , the skeleton volume is calculated by formula skelton volume cm 3 / g = 1 ÷ true density g / cm 3 . the zirconia mill blank for dental cutting and machining has a porosity within a range of 15 to 30 %, as calculated by formula Porosity % = pore volume ÷ pore volume + skeleton volume × 100 wherein in the formula , the skeleton volume is calculated by formula skelton volume cm 3 / g = 1 ÷ true density g / cm 3 .
Connecting fitting comprising a first fitting part , which is to be fixed to a first furniture part and has at least one expansion anchor with an expansion bolt , and comprising a second fitting part , which is to be fixed to a second furniture part and is supported on the first fitting part such that it can be pivoted between an initial position, which is angled with respect to the at least one expansion anchor , and a non-angled clamping position, in which the expansion anchor is expanded further by the expansion bolt than in the initial position and has an eccentric clamping contour with respect to the pivot axis , which cooperates with the first fitting part or the first furniture part , wherein the expansion bolt comprises a bolt head which has a partially spherical or partially cylindrical shape and protrudes past the expansion anchor , and wherein the second fitting part is supported on the at least one bolt head such that it is pivotable between the initial position and the clamping position, characterized in that the second fitting part is locked on the at least one bolt head .