mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of tracking a target object in an object recognition system , the method comprising: acquiring a plurality of images with a camera ; acquiring offline map data , wherein the offline map data includes offline map data of the target object , wherein offline map data is generated prior to the acquiring the plurality of images ; detecting the target object based on a comparison of features extracted from the acquired images with features contained in the offline map data ; and simultaneously tracking the detected target object and dynamically building online map data from the plurality of images without modifying the offline map data , characterized in that tracking the target object includes selecting between the online map data and the offline map data based on a region size of the target object , wherein selecting between the online map data and the offline map data includes: computing the region size of the target object ; selecting the offline map data for tracking and disabling the online map data if the region size of the target object is greater than a region threshold; and selecting the online map data for tracking and disabling the offline map data if the region size of the target object is not greater than the region threshold. acquiring a plurality of images with a camera ; acquiring offline map data , wherein the offline map data includes offline map data of the target object , wherein offline map data is generated prior to the acquiring the plurality of images ; detecting the target object based on a comparison of features extracted from the acquired images with features contained in the offline map data ; and simultaneously tracking the detected target object and dynamically building online map data from the plurality of images without modifying the offline map data , characterized in that tracking the target object includes selecting between the online map data and the offline map data based on a region size of the target object , wherein selecting between the online map data and the offline map data includes: computing the region size of the target object ; selecting the offline map data for tracking and disabling the online map data if the region size of the target object is greater than a region threshold; and selecting the online map data for tracking and disabling the offline map data if the region size of the target object is not greater than the region threshold. computing the region size of the target object ; selecting the offline map data for tracking and disabling the online map data if the region size of the target object is greater than a region threshold; and selecting the online map data for tracking and disabling the offline map data if the region size of the target object is not greater than the region threshold.
A labeling method for nucleic acid, characterized by comprising: a reaction step for hybridizing a nucleic acid probe that has a nucleotide sequence complementary to that of a nucleic acid to be labeled and contains a reactive nucleobase derivative incorporated at a position complementary to that of a target nucleobase as a target of labeling in the nucleic acid to be labeled, to the nucleic acid to be labeled; a transferring step for transferring a transfer group contained in the reactive nucleobase derivative to the nucleotide residue containing the target nucleobase in the nucleic acid to be labeled; and a labeling step for labeling the transfer group transferred to the nucleotide residue with a radioactive material. a reaction step for hybridizing a nucleic acid probe that has a nucleotide sequence complementary to that of a nucleic acid to be labeled and contains a reactive nucleobase derivative incorporated at a position complementary to that of a target nucleobase as a target of labeling in the nucleic acid to be labeled, to the nucleic acid to be labeled; a transferring step for transferring a transfer group contained in the reactive nucleobase derivative to the nucleotide residue containing the target nucleobase in the nucleic acid to be labeled; and a labeling step for labeling the transfer group transferred to the nucleotide residue with a radioactive material.
A modular network element , comprising: one or more lineboxes which are each a rack mounted module that provide line module functionality ; one or more linebox carriers including a structure that is rack mountable and configured to physically support the one or more lineboxes in a rack and to provide power connectors and data connectors thereto; and a core chassis comprising one or more switch modules , one or more controller modules , and a set of connectors located at the rear for cabling to the power connectors and the data connectors on the one or more linebox carriers , wherein the core chassis is physically separate from the one or more lineboxes . one or more lineboxes which are each a rack mounted module that provide line module functionality ; one or more linebox carriers including a structure that is rack mountable and configured to physically support the one or more lineboxes in a rack and to provide power connectors and data connectors thereto; and a core chassis comprising one or more switch modules , one or more controller modules , and a set of connectors located at the rear for cabling to the power connectors and the data connectors on the one or more linebox carriers , wherein the core chassis is physically separate from the one or more lineboxes .
A phonon parametric oscillator comprising a laser for periodically emitting brief optical pulses (IL), said pulses have a duration of about a few tens of femtoseconds to a few hundred femtoseconds; an assembly for generating acoustic pulses (IA) and a medium for coupling the acoustic pulses to an object (O), said coupling medium allowing said acoustic pulses passing through said coupling medium to reach the object, the assembly for generating acoustic pulses comprising an entrance face , an exit face , a conversion medium for converting the brief optical pulses into acoustic pulses and a propagation medium for propagating said acoustic pulses, the entrance and exit faces being reflective to the acoustic pulses, the propagation medium having a defined thickness, the exit face making contact with the coupling medium, characterized in that the round-trip time of an acoustic pulse due to reflection from the entrance and exit faces, is equal to the emission period (-c) of the laser, so that the reflected acoustic pulse is in phase with the following acoustic pulse.
A measurement arrangement for measuring an electromagnetic field, the measurement arrangement comprising: 1.1 a measurement probe adapted to measure an electromagnetic signal and provide a measurement signal corresponding to the measured electromagnetic signal; 1.21 a mechanical probe positioning structure adapted to carry the measurement probe and to controllably move the measurement probe , wherein the mechanical probe positioning structure is adapted to perform a rotational movement of the measurement probe around a predetermined axis (R); and 1.22 wherein the mechanical probe positioning structure comprises a moving device for moving the measurement probe in a direction perpendicular to the predetermined axis (R) and the measurement probe is adapted to measure at least two different polarizations of the electromagnetic signal; and 1.3 an analyzing device adapted to determine a rotational angle (a) of the mechanical probe positioning structure with respect to a predetermined reference position (A), 1.4 and to compute an electromagnetic field based on measurement signals measured by the measurement probe at a number of at least two different rotational angles (a). 1.1 a measurement probe adapted to measure an electromagnetic signal and provide a measurement signal corresponding to the measured electromagnetic signal; 1.21 a mechanical probe positioning structure adapted to carry the measurement probe and to controllably move the measurement probe , wherein the mechanical probe positioning structure is adapted to perform a rotational movement of the measurement probe around a predetermined axis (R); and 1.22 wherein the mechanical probe positioning structure comprises a moving device for moving the measurement probe in a direction perpendicular to the predetermined axis (R) and the measurement probe is adapted to measure at least two different polarizations of the electromagnetic signal; and 1.3 an analyzing device adapted to determine a rotational angle (a) of the mechanical probe positioning structure with respect to a predetermined reference position (A), 1.4 and to compute an electromagnetic field based on measurement signals measured by the measurement probe at a number of at least two different rotational angles (a).
A method for controlling a nonvolatile memory arrangement, comprising: applying a first biasing voltage to a switching electrode to bend a micromechanical element and thereby move the micromechanical element from a first, de-programmed state spaced from a contact electrode to a second state in contact with the contact electrode and spaced a first distance from the switching electrode to generate stiction at the interface between the micromechanical element and the contact electrode and to render the micromechanical element to a programmed state; and applying a second biasing voltage to the switching electrode to further move the micromechanical element and increase the elastic strain energy of the micromechanical element to a value greater than the stiction at the interface between the micromechanical element and the contact electrode, wherein applying the second biasing voltage pulls the micromechanical element further towards the switching electrode; and rapidly dropping the second biasing voltage applied to the switching electrode to move the micromechanical element to the first, de-programmed state by counteracting the stiction at the interface between the micromechanical element and the contact electrode. applying a first biasing voltage to a switching electrode to bend a micromechanical element and thereby move the micromechanical element from a first, de-programmed state spaced from a contact electrode to a second state in contact with the contact electrode and spaced a first distance from the switching electrode to generate stiction at the interface between the micromechanical element and the contact electrode and to render the micromechanical element to a programmed state; and applying a second biasing voltage to the switching electrode to further move the micromechanical element and increase the elastic strain energy of the micromechanical element to a value greater than the stiction at the interface between the micromechanical element and the contact electrode, wherein applying the second biasing voltage pulls the micromechanical element further towards the switching electrode; and rapidly dropping the second biasing voltage applied to the switching electrode to move the micromechanical element to the first, de-programmed state by counteracting the stiction at the interface between the micromechanical element and the contact electrode.
Cooking oven including a casing , wherein said cooking oven comprises the following parts: - two side walls forming lateral parts of the casing , - a front frame arranged at a front side of the casing , - a treatment cavity being at least partially enclosed by at least one cavity wall including at least one upper cavity lug (34.1) and at least one lower cavity lug (34.2) and being arranged inside the casing , - a bottom part of the casing arranged beneath the side walls , and - a top part of the casing arranged above the side walls , wherein - a front end of the at least one cavity wall forms an opening for charging food stuff to be cooked into the treatment cavity , wherein - the front frame surrounds said opening circumferentially, - wherein the front frame is coupled to the cavity wall via coupling means (31.1,...,31.3, 32.1,..., 32.7, 34.1, 34.2), characterised in that - the coupling means comprise at least one upper frame lug (32.1) and one lower frame lug (32.2), wherein at least one of said upper and lower frame lugs (32.1, 32.2) comprise a first frame lug section (32.3) that is disposed offset relative to a second frame lug section (32.4) of the frame lug in a direction towards one of the side walls and adapted for lying against or supporting a first embossment of the one of the side walls and the second frame lug section (32.4) is disposed in a direction towards the cavity wall and adapted to lie against the corresponding one of said upper and lower cavity lugs (34.1, 34.2). - two side walls forming lateral parts of the casing , - a front frame arranged at a front side of the casing , - a treatment cavity being at least partially enclosed by at least one cavity wall including at least one upper cavity lug (34.1) and at least one lower cavity lug (34.2) and being arranged inside the casing , - a bottom part of the casing arranged beneath the side walls , and - a top part of the casing arranged above the side walls , wherein - a front end of the at least one cavity wall forms an opening for charging food stuff to be cooked into the treatment cavity , wherein - the front frame surrounds said opening circumferentially, - wherein the front frame is coupled to the cavity wall via coupling means (31.1,...,31.3, 32.1,..., 32.7, 34.1, 34.2), characterised in that - the coupling means comprise at least one upper frame lug (32.1) and one lower frame lug (32.2), wherein at least one of said upper and lower frame lugs (32.1, 32.2) comprise a first frame lug section (32.3) that is disposed offset relative to a second frame lug section (32.4) of the frame lug in a direction towards one of the side walls and adapted for lying against or supporting a first embossment of the one of the side walls and the second frame lug section (32.4) is disposed in a direction towards the cavity wall and adapted to lie against the corresponding one of said upper and lower cavity lugs (34.1, 34.2).
A guide template having a tool guide for a working tool , namely a drilling tool or milling tool, for producing a main-side cut-out (HA) on a workpiece main-side surface (WH) of a workpiece (W), which workpiece has a workpiece secondary-side surface (WN), which is at an angle to the workpiece main-side surface (WH) and proceeding from which a secondary-side cut-out (NA) extends into the workpiece (W) next to the workpiece main-side surface (WH) at a distance therefrom, wherein the guide template comprises a main-side stop having a main-side stop surface for making contact with the workpiece main-side surface (WH) and comprises a secondary-side stop , which has an engagement protrusion for engaging the secondary-side cut-out (NA), wherein a longitudinal axis (E) of the engagement protrusion extends toward the tool guide to an intersection region (SB), in which the main-side cut-out (HA) to be produced and the secondary-side cut-out (NA) intersect, and is at an angle, in particular a right angle, to a guide longitudinal axis (L) of the tool guide , wherein the guide template comprises a depth stop having a depth stop surface for a counter stop assigned to the working tool for limiting the penetration depth of the working tool into the workpiece (W) with respect to the guide longitudinal axis (L), characterized in that the depth stop and the engagement protrusion are arranged on a carrier body , on which the main-side stop is mounted for adjustment by means of an adjusting device for adjusting a main-side stop distance (A1, A2) of the main-side stop surface with respect to the engagement protrusion while a depth-setting distance (T1, T2) is retained between the engagement protrusion , particularly a side of the engagement protrusion facing away from the main-side stop surface , and the depth stop surface .
Adjustment system for adjusting the guide play of a sliding guide for movable parts of a press, with at least one adjustable guide element , comprising at least one slide block adjustable transversely to the direction of movement of the part of the press to be guided, at least one setting wedge and at least one guide wedge co-operating with the setting wedge , the adjustment of which relative to one another causes displacement of the slide block transversely to the direction of movement of the movable part, wherein the setting wedge is steplessly adjustable, characterised in that the setting wedge is adjusted by means of at least one spindle drive, the spindle drive comprises at least one spindle , which is driven by a setting motor and which cooperates with a movement thread of the setting wedge , and at least one measured value transmitter is provided, which detects the guide play of the sliding guide and delivers this to a control device and/or regulating device for automatic readjustment of the guide play.
A method for detecting Helicobacter pylori by means of non-dispersive infrared spectroscopy with use of 13 C-labeled urea, wherein firstly a measurement chamber is flushed with CO 2 -free gas, a gaseous sample is admitted into the measurement chamber, the sample distributes itself homogeneously and the 13 C content in the sample is measured, characterized in that a standard deviation of a minimum number of a plurality of continuous measurement values of the 13 C content is determined and the measurement of the 13 C content is only carried out until this determined standard deviation meets a standard deviation to be specified, and wherein the 13 C content in the sample is already measured during the homogenization of the sample in the measurement chamber.
A method of separating linear alpha olefins, comprising: passing a feed stream comprising linear alpha olefins through a first column; distributing a C4- fraction to a top portion of the first column; withdrawing a C6+ fraction from a bottom portion of the first column and passing the C6+ fraction through a second column; distributing a C12+ fraction to a bottom portion of the second column; withdrawing a C10- fraction from a top portion of the second column and passing the C10- fraction through a third column, wherein the C10- fraction is substantially free of polymer; and distributing a C6 fraction to a top portion of the third column. passing a feed stream comprising linear alpha olefins through a first column; distributing a C4- fraction to a top portion of the first column; withdrawing a C6+ fraction from a bottom portion of the first column and passing the C6+ fraction through a second column; distributing a C12+ fraction to a bottom portion of the second column; withdrawing a C10- fraction from a top portion of the second column and passing the C10- fraction through a third column, wherein the C10- fraction is substantially free of polymer; and distributing a C6 fraction to a top portion of the third column.
An optical device comprising: a magnetic-containing layer having a first surface and a second surface opposite the first surface; a first reflector layer external to the first surface of the magnetic-containing layer; a second reflector layer external to the second surface of the magnetic-containing layer; a first selective light modulator layer external to the first reflector layer; a second selective light modulator layer external to the second reflector layer; a first absorber layer external to the first selective light modulator layer; and a second absorber layer external to the second selective light modulator layer; wherein at least one of the first and second selective light modulator layers comprises at least one of a curing agent, and at least one coating aid. a magnetic-containing layer having a first surface and a second surface opposite the first surface; a first reflector layer external to the first surface of the magnetic-containing layer; a second reflector layer external to the second surface of the magnetic-containing layer; a first selective light modulator layer external to the first reflector layer; a second selective light modulator layer external to the second reflector layer; a first absorber layer external to the first selective light modulator layer; and a second absorber layer external to the second selective light modulator layer; wherein at least one of the first and second selective light modulator layers comprises at least one of a curing agent, and at least one coating aid.
A method for detecting a cleaning process in a radar level gauge configured to determine a fill level of a product contained in a tank , the radar level gauge comprising a transceiver configured to provide a transmit signal, S T , to be propagated towards the product by a propagating device, to receive a reflected signal, S R , resulting from a reflection of the transmit signal at a surface of the product, and to determine a fill level in the tank based on the received reflected signal, wherein the method comprises: at a measurement position above the fill level and a known distance from a reference position near a ceiling of the tank, determining a difference in signal amplitude between at least two different fill level measurements; and if the determined difference in signal amplitude exceeds a predetermined threshold value, determining that a cleaning process is ongoing in the tank. at a measurement position above the fill level and a known distance from a reference position near a ceiling of the tank, determining a difference in signal amplitude between at least two different fill level measurements; and if the determined difference in signal amplitude exceeds a predetermined threshold value, determining that a cleaning process is ongoing in the tank.
A cutting machine , comprising - a table having a planar working surface lying in a working surface plane , the working surface configured to receive an object to be cut, - a light curtain device and a protective pane , wherein the light curtain device is designed to generate a light curtain, - a crossbeam arranged above the working surface, mounted on the table, and designed for linear positionability parallel to a first horizontal axis (H 1), - a module , in particular for receiving tools, mounted on the crossbeam and designed for linear positionability parallel to a second horizontal axis (H2), wherein the second horizontal axis extends at right angles to the first horizontal axis, and - a control unit designed to control the cutting machine , characterized in that the cutting machine has two operating states, wherein in a first operating state the protective pane on one side of the table is below the working surface plane , and wherein in a second operating state both the protective pane and the light curtain, which can be generated by the light curtain device , on the side of the table are at least partially above the working surface plane , wherein in the second operating state the light curtain is at least partially above the protective pane . - a table having a planar working surface lying in a working surface plane , the working surface configured to receive an object to be cut, - a light curtain device and a protective pane , wherein the light curtain device is designed to generate a light curtain, - a crossbeam arranged above the working surface, mounted on the table, and designed for linear positionability parallel to a first horizontal axis (H 1), - a module , in particular for receiving tools, mounted on the crossbeam and designed for linear positionability parallel to a second horizontal axis (H2), wherein the second horizontal axis extends at right angles to the first horizontal axis, and - a control unit designed to control the cutting machine ,