mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a basic device of a vacuum cleaner, wherein the base unit has: - a suction nozzle for connection to a motor nozzle of the vacuum cleaner, wherein the motor nozzle contains a brush motor and a cleaning brush powered thereby, - an electrical interface for the motor nozzle, in order to supply at least its brush motor with electrical energy from the base unit, - a fan powered by a fan motor for taking in suction air through the suction nozzle, characterised in that - the base unit is normally operated in a normal mode and, in response to a learning signal triggered by a learning event, a switch to operation in a learning mode in a reference mode of operation takes place, - in the learning mode, a current characteristic value correlated with a current operating current of the base unit is captured, - and using a learning criterion, a reference value is determined for the captured characteristic value - the learning mode is terminated in response to an end signal and a switch to the normal mode takes place, - in the normal mode, the current characteristic value is captured for the current operating current - and a current fan power (LG1-3), with which the fan motor is operated, is determined from the current characteristic value and the reference value on the basis of a control rule. - a suction nozzle for connection to a motor nozzle of the vacuum cleaner, wherein the motor nozzle contains a brush motor and a cleaning brush powered thereby, - an electrical interface for the motor nozzle, in order to supply at least its brush motor with electrical energy from the base unit, - a fan powered by a fan motor for taking in suction air through the suction nozzle, - the base unit is normally operated in a normal mode and, in response to a learning signal triggered by a learning event, a switch to operation in a learning mode in a reference mode of operation takes place, - in the learning mode, a current characteristic value correlated with a current operating current of the base unit is captured, - and using a learning criterion, a reference value is determined for the captured characteristic value - the learning mode is terminated in response to an end signal and a switch to the normal mode takes place, - in the normal mode, the current characteristic value is captured for the current operating current - and a current fan power (LG1-3), with which the fan motor is operated, is determined from the current characteristic value and the reference value on the basis of a control rule.
A sling bar (2602, 3202) for use with an overhead lift system to lift a load suspended in a lift sling there below, comprising: a downward curved cross bar (2604, 3204) having first and second opposite ends; a central lift connector (2616, 3216) centered along the length of the cross bar (2604, 3204) and configured to couple with the overhead lift system; a lift hook (2607, 3207) disposed at each of the first and second ends of the cross bar (2604, 3204); and characterized by a spring loaded latch (2673, 3273) hingedly connected at each end of the cross bar (2604, 3204), wherein each spring loaded latch (2673, 3273) is biased to clamp downward onto a tip section (2682, 3282) of a point portion of the lift hook and close off a hook opening defined between a blunt end point of the lift hook (2607, 3207) and either the cross bar (2604, 3204) or a shank portion of the lift hook (2607, 3207). a downward curved cross bar (2604, 3204) having first and second opposite ends; a central lift connector (2616, 3216) centered along the length of the cross bar (2604, 3204) and configured to couple with the overhead lift system; a lift hook (2607, 3207) disposed at each of the first and second ends of the cross bar (2604, 3204); and characterized by a spring loaded latch (2673, 3273) hingedly connected at each end of the cross bar (2604, 3204), wherein each spring loaded latch (2673, 3273) is biased to clamp downward onto a tip section (2682, 3282) of a point portion of the lift hook and close off a hook opening defined between a blunt end point of the lift hook (2607, 3207) and either the cross bar (2604, 3204) or a shank portion of the lift hook (2607, 3207).
A temperature sensor comprising: a temperature sensing element having a temperature sensing unit and a pair of device electrode wires extending from the temperature sensing unit; a sheath member including a sheath wire connected at a junction to at least one of the device electrode wires and a sheath outer pipe retaining the sheath wire in an insulating material; and a first tube made of a metal which has a bottomed cylindrical shape, said first tube accommodating the temperature sensing element and the junction in a bottom portion side of the first tube serving as a leading end of the temperature sensor, and extending in an extension direction of the device electrode wire and the sheath wire; characterized by a second tube which has a bottomed cylindrical shape including a plurality of gas inlet holes (122a-c), said first tube being an inner tube, and said second tube being an outer tube, said outer tube covering the inner tube, and being spaced from the inner tube on a leading end side of the junction when viewed in a direction perpendicular to an axial direction of the inner tube, wherein all of the gas inlet holes (122a-c) are disposed on the leading end side of the junction when viewed in a direction perpendicular to the axial direction of the inner tube, and wherein the insulating material is filled between the temperature sensing element and an inner surface of the inner tube. a temperature sensing element having a temperature sensing unit and a pair of device electrode wires extending from the temperature sensing unit; a sheath member including a sheath wire connected at a junction to at least one of the device electrode wires and a sheath outer pipe retaining the sheath wire in an insulating material; and a first tube made of a metal which has a bottomed cylindrical shape, said first tube accommodating the temperature sensing element and the junction in a bottom portion side of the first tube serving as a leading end of the temperature sensor, and extending in an extension direction of the device electrode wire and the sheath wire; characterized by a second tube which has a bottomed cylindrical shape including a plurality of gas inlet holes (122a-c), said first tube being an inner tube, and said second tube being an outer tube, said outer tube covering the inner tube, and being spaced from the inner tube on a leading end side of the junction when viewed in a direction perpendicular to an axial direction of the inner tube, wherein all of the gas inlet holes (122a-c) are disposed on the leading end side of the junction when viewed in a direction perpendicular to the axial direction of the inner tube, and wherein the insulating material is filled between the temperature sensing element and an inner surface of the inner tube.
A vegetable butter characterized in that it contains microalgal flour, a drinkable liquid and a retrogradation agent chosen from native starches, modified starches and/or starch hydrolyzates.
An addition-fragmentation oligomer of the formula wherein R A is R B a (hetero)hydrocarbyl group, wherein at least 50% of the R B are substituted with a high refractive index group, X 1 is -O- or NR 5 -, where R 5 is H or C 1 -C 4 alkyl; Z comprises an ethylenically unsaturated polymerizable group; y is 0 or 1; x is 0 or 1; wherein the high refractive index group is selected from benzyl, 2-, 3-, and 4-biphenyl, 1-, 2, 3-, 4-, and 9-fluorenyl, 4-(1-methyl-1-phenethyl)phenoxyethyl; phenylthio; 1-, 2-, 3- and 4-napthyl, 1- and 2-naphthylthio; 2,4,6-tribromophenoxy; 2,4-dibromophenoxy; 2-bromophenoxy; 1-, and 2-naphthyloxy; 3-phenoxy-; 2-, 3- and 4-phenylphenoxy; 2,4-dibromo-6-sec-butylphenyl; 2,4-dibromo-6-isopropylphenyl; 2,4-dibromophenyl; pentabromobenzyl and pentabromophenyl. R A is R B a (hetero)hydrocarbyl group, wherein at least 50% of the R B are substituted with a high refractive index group, X 1 is -O- or NR 5 -, where R 5 is H or C 1 -C 4 alkyl; Z comprises an ethylenically unsaturated polymerizable group; y is 0 or 1; x is 0 or 1;
A solid oxide fuel cell comprising: a porous fuel electrode which allows reaction of a fuel gas to proceed and which is formed of Ni and an oxygen-ion-conductive material; a porous air electrode which allows reaction of an oxygen-containing gas to proceed; and a dense solid electrolyte membrane which is provided between the fuel electrode and the air electrode and which has an interface with the fuel electrode, wherein, in the fuel electrode, which has been subjected to reduction treatment, Ni grains present in a region located within 3 μm from the interface have a mean size of 0.28 to 0.80 μm; grains of the oxygen-ion-conductive material present in the region have a mean size of 0.28 to 0.80 μm; pores present in the region have a mean size of 0.10 to 0.87 μm and the ratio of the total volume of isolated Ni grains present in the region to the total volume of all the Ni grains present in the region is 40% or less. a porous fuel electrode which allows reaction of a fuel gas to proceed and which is formed of Ni and an oxygen-ion-conductive material; a porous air electrode which allows reaction of an oxygen-containing gas to proceed; and a dense solid electrolyte membrane which is provided between the fuel electrode and the air electrode and which has an interface with the fuel electrode, wherein, in the fuel electrode, which has been subjected to reduction treatment, Ni grains present in a region located within 3 μm from the interface have a mean size of 0.28 to 0.80 μm; grains of the oxygen-ion-conductive material present in the region have a mean size of 0.28 to 0.80 μm; pores present in the region have a mean size of 0.10 to 0.87 μm and the ratio of the total volume of isolated Ni grains present in the region to the total volume of all the Ni grains present in the region is 40% or less.
A method to generate a relief structure comprising the steps - providing of a relief precursor comprising a substrate layer, at least one photosensitive layer and a mask layer, - receiving of a raster image file comprising image data for a plurality of pixels, - analyzing the image data of the raster image file, - determining control data, and optionally at least one new raster image file, based on the analyzed image data, said control data being data for controlling settings of an imaging device so as to change the physical properties of generated imaged features corresponding with one or more of the plurality of pixels; - outputting the raster image file and/or the new raster image file, with the control data to an imaging device for imaging a relief precursor; - imaging the relief precursor using the raster image file and/or the new raster image file, with the control data, such that an image is generated in the mask layer, - exposing the imaged relief precursor to electromagnetic radiation through the imaged mask layer. - providing of a relief precursor comprising a substrate layer, at least one photosensitive layer and a mask layer, - receiving of a raster image file comprising image data for a plurality of pixels, - analyzing the image data of the raster image file, - determining control data, and optionally at least one new raster image file, based on the analyzed image data, said control data being data for controlling settings of an imaging device so as to change the physical properties of generated imaged features corresponding with one or more of the plurality of pixels; - outputting the raster image file and/or the new raster image file, with the control data to an imaging device for imaging a relief precursor; - imaging the relief precursor using the raster image file and/or the new raster image file, with the control data, such that an image is generated in the mask layer, - exposing the imaged relief precursor to electromagnetic radiation through the imaged mask layer.
A parallel transmitter system for a magnetic resonance system, wherein the parallel transmitter system comprises a magnetic resonance coil system comprising a plurality of coil elements, a radio frequency signal source, a feeding circuit arrangement with a switching circuit which comprises switching elements (28, 48, 50), and a controller system with a controller configured to control the switching elements (28, 48, 50) of the switching circuit, wherein the feeding circuit arrangement is adapted for supplying a radio frequency signal to the plurality of coil elements, wherein the feeding circuit arrangement comprises a main line connected to the radio frequency signal source; a plurality of feeding lines, each feeding line connected to a corresponding coil element of the coil system; a power divider arranged between the main line and the plurality of feeding lines configured to distribute the signal on the main line to each of the feeding lines, wherein at least one of the feeding lines comprises a controllable switching circuit with a switching element configured to connect/disconnect two resulting line sections (30, 32) of the feeding line, a first line section on the divider side and a second line section on the side connected to the coil element, and wherein the switching circuit further comprises at least one connectable termination element with a predefined termination resistance for line termination of the first line section and wherein the at least one termination element (44, 46) is connected in series with a further switching element (48, 50) configured to couple the first line section to a reference potential through the termination element. the feeding circuit arrangement is adapted for supplying a radio frequency signal to the plurality of coil elements, wherein the feeding circuit arrangement comprises a main line connected to the radio frequency signal source; a plurality of feeding lines, each feeding line connected to a corresponding coil element of the coil system; a power divider arranged between the main line and the plurality of feeding lines configured to distribute the signal on the main line to each of the feeding lines, wherein at least one of the feeding lines comprises a controllable switching circuit with a switching element configured to connect/disconnect two resulting line sections (30, 32) of the feeding line, a first line section on the divider side and a second line section on the side connected to the coil element, and wherein the switching circuit further comprises at least one connectable termination element with a predefined termination resistance for line termination of the first line section and wherein the at least one termination element (44, 46) is connected in series with a further switching element (48, 50) configured to couple the first line section to a reference potential through the termination element.
A power amplifier comprising: a class D amplification section that includes an input section and a switching section serving as an output stage, said switching section being configured to be switched depending on an output signal of the input section, wherein the class D amplification section is configured to output current from a power source (+B, -B) to a load via the switching section; a load current feedback circuit that is configured to negatively feed back the current flowing in the load to the input section of the class D amplification section; and a filter current feedback circuit, different from said load current feedback circuit, said filter current feedback circuit being configured to negatively feed back a current flowing in a filter interposed between the output stage of the class D amplification section and the load to the input section of the class D amplification section; wherein the load current feedback circuit includes a first connection section comprising a first resistor and a first capacitor which are connected in series, said first connection section thus being configured to adjust frequency characteristics of a feedback amount of the negative feedback performed via the load current feedback circuit; and wherein the filter current feedback circuit includes a second connection section comprising a second resistor and a second capacitor which are connected in series, said second connection section thus being configured to adjust frequency characteristics of a feedback amount of the negative feedback performed via the filter current feedback circuit. a class D amplification section that includes an input section and a switching section serving as an output stage, said switching section being configured to be switched depending on an output signal of the input section, wherein the class D amplification section is configured to output current from a power source (+B, -B) to a load via the switching section; a load current feedback circuit that is configured to negatively feed back the current flowing in the load to the input section of the class D amplification section; and a filter current feedback circuit, different from said load current feedback circuit, said filter current feedback circuit being configured to negatively feed back a current flowing in a filter interposed between the output stage of the class D amplification section and the load to the input section of the class D amplification section; wherein the load current feedback circuit includes a first connection section comprising a first resistor and a first capacitor which are connected in series, said first connection section thus being configured to adjust frequency characteristics of a feedback amount of the negative feedback performed via the load current feedback circuit; and wherein the filter current feedback circuit includes a second connection section comprising a second resistor and a second capacitor which are connected in series, said second connection section thus being configured to adjust frequency characteristics of a feedback amount of the negative feedback performed via the filter current feedback circuit.
An automated system for separating and concentrating regenerative cells from adipose tissue comprising: a) a collection chamber, which is configured to receive: adipose tissue removed from a subject; and disaggregation agents, such that said disaggregation agents may be added to said adipose tissue in an aseptic manner, and configured to separate said regenerative cells from the tissue; b) a processing chamber connected to the collection chamber to receive disaggregated tissue from the collection chamber, wherein the processing chamber is coupled to the collection chamber via a conduit; c) a centrifugation device which can connect to the processing chamber, wherein the centrifugation device is configured to concentrate regenerative cells from the disaggregated tissue present in the processing chamber; d) a programmable processing device capable of communication with and controlling the collection chamber, the processing chamber, the centrifugation device and associated connections; and e) an optical sensor along the conduit leading out of the collection chamber. a) a collection chamber, which is configured to receive: adipose tissue removed from a subject; and disaggregation agents, such that said disaggregation agents may be added to said adipose tissue in an aseptic manner, and configured to separate said regenerative cells from the tissue; b) a processing chamber connected to the collection chamber to receive disaggregated tissue from the collection chamber, wherein the processing chamber is coupled to the collection chamber via a conduit; c) a centrifugation device which can connect to the processing chamber, wherein the centrifugation device is configured to concentrate regenerative cells from the disaggregated tissue present in the processing chamber; d) a programmable processing device capable of communication with and controlling the collection chamber, the processing chamber, the centrifugation device and associated connections; and e) an optical sensor along the conduit leading out of the collection chamber.
A sensor means or module for determining a displacement or deflection or bending, in particular an elastic displacement or deflection or bending, of a panel, in particular a glass or glass ceramic panel, or of a section of a panel or of an insert in relation to the panel, the sensor means (11, 35, 49, 71) or module and the panel or said section thereof forming a weighing means, in particular a scale, the sensor means (11, 35, 49, 71) or module - being adapted to be integrated in or allocated to a household appliance, in particular a cooking hob, more in particular an induction cooking hob, and - comprising or being connected to at least one processing and/or interpretation and/or compilation means, characterized by an acceleration sensor for a detection of an acceleration of the panel section or of a panel reference point or reference area, in particular a reference point or a reference area on a panel surface, during the elastic displacement or deflection or bending of the panel section or the panel reference point or panel reference area due to a placing of an item to be weighed on the panel. - being adapted to be integrated in or allocated to a household appliance, in particular a cooking hob, more in particular an induction cooking hob, and - comprising or being connected to at least one processing and/or interpretation and/or compilation means,
Rail vehicle with a vehicle frame (1, 26, 34, 42, 81) and at least one buffer (10, 32, 51) which is supported by an energy absorption element (2, 31, 44, 67, 83) connected to the vehicle frame (1, 26, 34, 42, 81), wherein a bearing element (4, 41, 84) is fastened to that end (3, 43, 82) of the energy absorption element (2, 31, 44, 67, 83) which faces away from the vehicle frame (1, 26, 34, 42, 81), said bearing element (4, 41, 84) supporting an override protection entity (5, 20, 30, 40, 66, 80) at its end which projects in a vertical direction from the buffer (10, 32, 51), characterised in that a horizontally aligned stop (9, 24, 33, 50, 61, 88) is provided in such a way that an override protection element of the override protection entity (5, 20, 30, 40, 66, 80), interacting with the vehicle front of the rail vehicle in the event of a crash, can be moved by said stop (9, 24, 33, 50, 61, 88) into an override protection position which extends over the buffer (10, 32, 51).