mhurhangee/ep-ind-claims huggingface dataset:
Workstation (9, 15, 16, 17) for a film-processing packaging machine, where said workstation (9, 15, 16, 17) is configured in particular as a forming station, as a preheating station, as a labeling station, as a labeling printing station, or as a sealing station for processing a packaging film (5, 22), where said workstation (9, 15, 16, 17) defines a film transport plane in which said packaging film (5, 22) can be transported, and where said workstation (9, 15, 16, 17) comprises an electrically operable heating assembly, wherein that said heating assembly comprises an electrically conductive planar resistance heating element which in each of two directions spanning a plane (E`) parallel to said film transport plane has dimensions (L1, L2) that are greater by a factor of at least 100 than a dimension (d) in a direction perpendicular to said film transport plane, wherein said resistance heating element is arranged between a heating plate and a clamping plate, wherein said resistance heating element comprises an electrical flat conductor having a meandering profile arranged in a plane (E`), characterized in that in a border area of the heating assembly, the electrical flat conductor has a horseshoe-shaped course and per unit area a longer length than in central areas of the resistance heating element,. wherein said resistance heating element is arranged between a heating plate and a clamping plate, wherein said resistance heating element comprises an electrical flat conductor having a meandering profile arranged in a plane (E`), characterized in that in a border area of the heating assembly, the electrical flat conductor has a horseshoe-shaped course and per unit area a longer length than in central areas of the resistance heating element,.
A collapsible cart comprising: a frame; a tongue assembly configured to releasably couple said frame to an associated receiver hitch; at least one axle operatively connected to said frame and to at least one wheel assembly, wherein said at least one axle is rotatable relative to said frame; a base operatively connected to said frame; and at least one retaining wall having a top edge and a bottom edge, wherein said retaining wall is operatively connected to said base via a rotatable device along said bottom edge, characterized in that the collapsible cart comprises a discard lock block operatively connected to said base to allow discard of the base and configured to lock said base to said frame, wherein said rotatable device provides an angle of rotation for the at least one retaining wall of at least about 225°,. a frame; a tongue assembly configured to releasably couple said frame to an associated receiver hitch; at least one axle operatively connected to said frame and to at least one wheel assembly, wherein said at least one axle is rotatable relative to said frame; a base operatively connected to said frame; and at least one retaining wall having a top edge and a bottom edge, wherein said retaining wall is operatively connected to said base via a rotatable device along said bottom edge, characterized in that the collapsible cart comprises a discard lock block operatively connected to said base to allow discard of the base and configured to lock said base to said frame, wherein said rotatable device provides an angle of rotation for the at least one retaining wall of at least about 225°,.
A method of operating a refrigerating machine, in particular a heat pump, which comprises a refrigeration circuit which is flowed through by a refrigerant and which has a speed-regulated compressor, wherein a desired thermal power of the refrigerating machine is requested; a rotational speed of the compressor required for providing the requested power is determined; a currently present working point of the refrigerating machine is determined, with the working point (12, 14, 18, 22, 28, 32) at least being defined by an evaporation temperature and a condensing temperature of the refrigerant; a permissible rotational speed range of the compressor, having an upper and lower rotational speed limit which are each associated with the currently present working point, is determined for the currently present working point (12, 14, 18, 22, 28, 32) of the refrigerating machine, with each working point (12, 14, 18, 22, 28, 32) lying in one of a plurality of ranges (10, 16, 20, 26, 30, 34) within which different permissible rotational speed ranges are defined; and the rotational speed of the compressor is regulated to the required rotational speed when the required rotational speed lies within the permissible rotational speed range, said rotational speed of the compressor is regulated to the lower rotational speed limit when the required rotational speed lies below the permissible rotational speed range, and said rotational speed of the compressor is regulated to the upper rotational speed limit when the required rotational speed lies above the permissible rotational speed range.
A method of realizing a shear wave propagation velocity anisotropy characterization within a display for a wellbore region comprising: recording, via cross-dipole sonic tools, cross-dipole sonic data from the wellbore region; characterized in that the method further comprises: obtaining, using the cross-dipole sonic data, a shear wave propagation velocity anisotropy intensity, and a shear wave propagation velocity anisotropy azimuth; determining a directional line segment (202, 302, 314, 316, 318) to represent the anisotropy for each of a plurality of measured depth points along the wellbore; and plotting on the display a plurality of directional line segments (202, 302, 314, 316, 318) to produce a 1-dimensional anisotropy characterization plot, wherein a slope of the directional line segment of the 1-dimensional anisotropy characterization plot corresponds to the shear wave propagation velocity anisotropy azimuth, and wherein a length of the directional line segment represents the shear wave propagation velocity anisotropy intensity. recording, via cross-dipole sonic tools, cross-dipole sonic data from the wellbore region; characterized in that the method further comprises: obtaining, using the cross-dipole sonic data, a shear wave propagation velocity anisotropy intensity, and a shear wave propagation velocity anisotropy azimuth; determining a directional line segment (202, 302, 314, 316, 318) to represent the anisotropy for each of a plurality of measured depth points along the wellbore; and plotting on the display a plurality of directional line segments (202, 302, 314, 316, 318) to produce a 1-dimensional anisotropy characterization plot, wherein a slope of the directional line segment of the 1-dimensional anisotropy characterization plot corresponds to the shear wave propagation velocity anisotropy azimuth, and wherein a length of the directional line segment represents the shear wave propagation velocity anisotropy intensity. obtaining, using the cross-dipole sonic data, a shear wave propagation velocity anisotropy intensity, and a shear wave propagation velocity anisotropy azimuth; determining a directional line segment (202, 302, 314, 316, 318) to represent the anisotropy for each of a plurality of measured depth points along the wellbore; and plotting on the display a plurality of directional line segments (202, 302, 314, 316, 318) to produce a 1-dimensional anisotropy characterization plot, wherein a slope of the directional line segment of the 1-dimensional anisotropy characterization plot corresponds to the shear wave propagation velocity anisotropy azimuth, and wherein a length of the directional line segment represents the shear wave propagation velocity anisotropy intensity.
A device for safe control of at least one driver module for controlling a semiconductor switch of an inverter, wherein the driver module controls the semiconductor switch in dependence on a pulse signal, wherein a switching arrangement which is connected with the driver module is provided, characterized in that the switching arrangement has a switching connection for applying an inhibition signal and a first connection for applying the pulse signal, in order to either inhibit or switch through the pulse signal applied to the first connection to the driver module, depending on the inhibition signal.
A method for harvesting grain using a combine harvester having a plurality of processing areas, the method comprising: moving the combine harvester through harvest material comprising grain material and material other than grain; and separating the grain material from the material other than grain using the plurality of processing areas as the harvest material is transported through the combine harvester, characterized in that two or more of the processing areas have a location, at or prior to entering the processing area, at which the method further comprises: collecting material in the location; determining whether a collection threshold is reached; and transporting a first group of material from the location to the processing area or a subsequent processing area after the collection threshold is reached, wherein the first group of material is transported from the location to the processing area or the subsequent processing area substantially simultaneously and at least one of said processing areas comprises a threshing area, a grain conveying area, a cleaning area, a grain delivery area or a grain testing area. moving the combine harvester through harvest material comprising grain material and material other than grain; and separating the grain material from the material other than grain using the plurality of processing areas as the harvest material is transported through the combine harvester, characterized in that two or more of the processing areas have a location, at or prior to entering the processing area, at which the method further comprises: collecting material in the location; determining whether a collection threshold is reached; and transporting a first group of material from the location to the processing area or a subsequent processing area after the collection threshold is reached, wherein the first group of material is transported from the location to the processing area or the subsequent processing area substantially simultaneously and at least one of said processing areas comprises a threshing area, a grain conveying area, a cleaning area, a grain delivery area or a grain testing area. collecting material in the location; determining whether a collection threshold is reached; and transporting a first group of material from the location to the processing area or a subsequent processing area after the collection threshold is reached, wherein the first group of material is transported from the location to the processing area or the subsequent processing area substantially simultaneously and at least one of said processing areas comprises a threshing area, a grain conveying area, a cleaning area, a grain delivery area or a grain testing area.
An apparatus for controlling an inverter, the apparatus comprising: a first determination unit configured to determine a 3-phase current using a 2-phase current flowing between both ends of a leg-shunt resistor; a conversion unit configured to convert the 3-phase current from the first determination unit to a stator current at stationary reference frame; a detection unit configured to determine whether there is a deviation in the 3-phase current; and a correction unit configured to correct the deviation in the 3-phase current when the detection unit determines that there is generated the deviation, wherein the detection unit includes: a reference generation unit configured to set a reference of a stator voltage to detect whether there is generated the deviation, based on a first difference between a stator voltage and a voltage drop across a stator resistance; a boundary setting unit configured to generate a boundary of the stator voltage for determination of the deviation; and a second determination unit configured to determine the deviation in the 3-pahse current when an absolute value of a second difference between the reference and the first difference is larger than the boundary. a first determination unit configured to determine a 3-phase current using a 2-phase current flowing between both ends of a leg-shunt resistor; a conversion unit configured to convert the 3-phase current from the first determination unit to a stator current at stationary reference frame; a detection unit configured to determine whether there is a deviation in the 3-phase current; and a correction unit configured to correct the deviation in the 3-phase current when the detection unit determines that there is generated the deviation, wherein the detection unit includes: a reference generation unit configured to set a reference of a stator voltage to detect whether there is generated the deviation, based on a first difference between a stator voltage and a voltage drop across a stator resistance; a boundary setting unit configured to generate a boundary of the stator voltage for determination of the deviation; and a second determination unit configured to determine the deviation in the 3-pahse current when an absolute value of a second difference between the reference and the first difference is larger than the boundary. a reference generation unit configured to set a reference of a stator voltage to detect whether there is generated the deviation, based on a first difference between a stator voltage and a voltage drop across a stator resistance; a boundary setting unit configured to generate a boundary of the stator voltage for determination of the deviation; and a second determination unit configured to determine the deviation in the 3-pahse current when an absolute value of a second difference between the reference and the first difference is larger than the boundary.
An apparatus for inspecting lithium plating in at least one battery cell using eddy current, the apparatus comprising: an inspection module including a first sensor for inducing an eddy current in the at least one battery cell and a second sensor for measuring impedance of the at least one battery cell in which the eddy current is induced; and a controller configured to determine whether or not lithium plating has occurred in the at least one battery cell by comparing a measured value of the impedance measured by the second sensor with standard data; wherein the first sensor and the second sensor are provided in a form in which a coil is wound around a magnetizing member, wherein the first sensor induces eddy current in the battery cell by applying an alternating current of a specific predefined frequency to the coil to form a magnetic field, and wherein the second sensor measures an impedance at the specific predefined frequency for the at least one battery cell. an inspection module including a first sensor for inducing an eddy current in the at least one battery cell and a second sensor for measuring impedance of the at least one battery cell in which the eddy current is induced; and a controller configured to determine whether or not lithium plating has occurred in the at least one battery cell by comparing a measured value of the impedance measured by the second sensor with standard data; wherein the first sensor and the second sensor are provided in a form in which a coil is wound around a magnetizing member, wherein the first sensor induces eddy current in the battery cell by applying an alternating current of a specific predefined frequency to the coil to form a magnetic field, and wherein the second sensor measures an impedance at the specific predefined frequency for the at least one battery cell.
A signal analyser comprising: signal receiving means operable to receive a signal for analysis; signal processing means operable to process the received signal and identify the occurrence of any of a plurality of predetermined signal features; a classification engine operable to increment or decrement one or more individual belief index values in response to the identification of predetermined signal features, each individual belief index corresponding to one of a plurality of potential signal classifications, the classification engine further operable to calculate belief index ratings from belief index values by use of a suitable function which rises relatively slowly at either end of the range of belief index values and relatively rapidly in the middle of the range of belief index values; and means for providing an indication of the classification of the signal based on the individual belief index values and for providing an overall signal classification by considering the relative belief index rating of each potential signal classification.
A laser module, comprising: a housing having a platform (a - g, h - n); one or more laser sources secured to the platform; optical components to direct radiation from the one or more lasers to an endcap inside the housing, the endcap being positionally secured to a structure in the platform; an optical fiber secured inside the housing, an entry facet of the optical fiber being fused to the endcap; an epoxy coating applied to a cladding of the optical fiber inside the housing, wherein a refractive index of the coating is the same or greater than a refractive index of the cladding, and wherein the structure is a groove in the platform. a housing having a platform (a - g, h - n); one or more laser sources secured to the platform; optical components to direct radiation from the one or more lasers to an endcap inside the housing, the endcap being positionally secured to a structure in the platform; an optical fiber secured inside the housing, an entry facet of the optical fiber being fused to the endcap; an epoxy coating applied to a cladding of the optical fiber inside the housing, wherein a refractive index of the coating is the same or greater than a refractive index of the cladding, and wherein the structure is a groove in the platform.
A PN-junction temperature sensing apparatus comprising: - a plurality of current sources (1, 2, n) wherein each current source (1, 2, n) comprises a p-type MOSFET transistor (19, 20, 21) being source connected to V DD; - switches (5, 6, 7) having two selectable outputs (8, 9) wherein each switch is connected with the drain of each respective current source (1, 2, n) and wherein a first output of each switch (5, 6, 7) is connected to an anode of a PN-junction thermal sensor and a second output of each switch (5, 6, 7) is connected to an anode of a sink diode and wherein the cathodes (14, 15) of both components (12, 13) are connected to a common level; - an integrated A/D converter, characterized in that - the integrated A/D converter is provided to digitize the voltage across the PN-junction thermal sensor, - a band gap based current reference is mirrored in the plurality of current sources (1, 2, n), wherein each mirrored current source (1, 2, n) comprises a p-type MOSFET transistor (19, 20, 21) being source connected to V DD, - the number of current sources being connected to the switches is a 3 or above odd number, the current sources being usable 1:1 current sources, - the switches (5, 6, 7) are controllable by a digital processor, and - the value of the digitized voltage is storable in a memory of the digital processor. - a plurality of current sources (1, 2, n) wherein each current source (1, 2, n) comprises a p-type MOSFET transistor (19, 20, 21) being source connected to V DD; - switches (5, 6, 7) having two selectable outputs (8, 9) wherein each switch is connected with the drain of each respective current source (1, 2, n) and wherein a first output of each switch (5, 6, 7) is connected to an anode of a PN-junction thermal sensor and a second output of each switch (5, 6, 7) is connected to an anode of a sink diode and wherein the cathodes (14, 15) of both components (12, 13) are connected to a common level; - an integrated A/D converter, characterized in that - the integrated A/D converter is provided to digitize the voltage across the PN-junction thermal sensor, - a band gap based current reference is mirrored in the plurality of current sources (1, 2, n), wherein each mirrored current source (1, 2, n) comprises a p-type MOSFET transistor (19, 20, 21) being source connected to V DD, - the number of current sources being connected to the switches is a 3 or above odd number, the current sources being usable 1:1 current sources, - the switches (5, 6, 7) are controllable by a digital processor, and - the value of the digitized voltage is storable in a memory of the digital processor.
A method of inhibiting in vitro spore germination of Clostridium difficile, comprising incubating a spore of Clostridium difficile with an effective amount of a Fe 3 - δ O 4 nanoparticle, wherein δ is a number between 0 and 0.3.
A method for a video system including a recognition unit adapted to recognize an object existing in a foreground of a vehicle, and a display source adapted to generate a virtual line on the basis of a result of the recognition by the recognition unit and to display the generated virtual line on a display medium, the method comprising: determining whether two or more objects exist in the foreground of the vehicle on the basis of an input data from the recognition unit; characterized by controlling the display source, if it is determined that two or more objects exist, so as to generate a virtual line (401, 402, 403) for each of the two or more objects and display the virtual line generated for each of the two or more objects on the display medium, wherein each virtual line (401, 402, 403) starts from a starting point on the display medium and is directed to the respective object, and the starting points of the generated virtual lines (401, 402, 403) have the same predetermined position on the display medium or are positioned on a predetermined axis on the display medium. determining whether two or more objects exist in the foreground of the vehicle on the basis of an input data from the recognition unit; characterized by controlling the display source, if it is determined that two or more objects exist, so as to generate a virtual line (401, 402, 403) for each of the two or more objects and display the virtual line generated for each of the two or more objects on the display medium, wherein each virtual line (401, 402, 403) starts from a starting point on the display medium and is directed to the respective object, and the starting points of the generated virtual lines (401, 402, 403) have the same predetermined position on the display medium or are positioned on a predetermined axis on the display medium.
A gait training apparatus for producing a natural gait pattern (T1, T2), comprising a first and a second multi-joint mechanism (10, 20) which are mechanically coupled to one another, a drive for introducing a rotatory movement into the first multi-joint mechanism, a foot support element and a longitudinal guide, wherein the first and the second multi-joint mechanism (10, 20) are coupled to one another via a first longitudinal displacement body, wherein the first longitudinal displacement body is in mechanical active connection with the longitudinal guide and is displaceably arranged relative to this characterised in that the gait training apparatus comprises a third multi-joint mechanism which is connected to the second multi-joint mechanism, and the foot support element is formed on the third multi-joint mechanism and the gait training apparatus comprises a second longitudinal displacement body which is mechanically coupled to the third multi-joint mechanism and which is in mechanical active connection with a longitudinal guide and is displaceably arranged relative to this.