mhurhangee/ep-ind-claims huggingface dataset:
An imaging system, comprising: at least one storage medium including a set of instructions; and at least one processor in communication with the storage medium, wherein when executing the set of instructions, the at least one processor is directed to perform operations including: determining a first remaining power based on a maximum power of a camera and a working power of the camera; determining whether an operation condition of a first load is satisfied based on the first remaining power; and in response to a determination that the operation condition of the first load is satisfied, enabling the first load; characterized in that the first load is a fill flash and the determining whether the operation condition of the first load is satisfied includes: obtaining a mapping relation between a duty ratio of the fill flash and a consumed power of the fill flash; determining a maximum duty ratio of the fill flash based on the mapping relation and the first remaining power; determining whether the maximum duty ratio of the fill flash exceeds a duty ratio threshold; and in response to a determination that the maximum duty ratio exceeds the duty ratio threshold, determining that the operation condition of the first load is satisfied. at least one storage medium including a set of instructions; and at least one processor in communication with the storage medium, wherein when executing the set of instructions, the at least one processor is directed to perform operations including: determining a first remaining power based on a maximum power of a camera and a working power of the camera; determining whether an operation condition of a first load is satisfied based on the first remaining power; and determining a first remaining power based on a maximum power of a camera and a working power of the camera; determining whether an operation condition of a first load is satisfied based on the first remaining power; and in response to a determination that the operation condition of the first load is satisfied, enabling the first load; characterized in that the first load is a fill flash and the determining whether the operation condition of the first load is satisfied includes: obtaining a mapping relation between a duty ratio of the fill flash and a consumed power of the fill flash; determining a maximum duty ratio of the fill flash based on the mapping relation and the first remaining power; determining whether the maximum duty ratio of the fill flash exceeds a duty ratio threshold; and in response to a determination that the maximum duty ratio exceeds the duty ratio threshold, determining that the operation condition of the first load is satisfied. obtaining a mapping relation between a duty ratio of the fill flash and a consumed power of the fill flash; determining a maximum duty ratio of the fill flash based on the mapping relation and the first remaining power; determining whether the maximum duty ratio of the fill flash exceeds a duty ratio threshold; and in response to a determination that the maximum duty ratio exceeds the duty ratio threshold, determining that the operation condition of the first load is satisfied.
Method for cutting a separator foil for an electrode assembly for a battery cell, the separator foil containing a polymer layer and a ceramic layer whereat the ablation threshold of the ceramic layer is higher than that of the polymer layer, by dint of a laser beam, the laser beam being emitted by an ultrashort pulse laser and consisting of ultrashort pulses of light, whereat the laser beam propagates in a propagation direction (z) and is linear polarized in a vertical direction (x), and whereat the laser beam is directed onto the polymer layer on the ceramic layer of the separator foil and is moved along the separator foil in a cutting direction (s), characterized in that a diffractive optical element is arranged between the ultrashort pulse laser and the separator foil, the diffractive optical element includes a focussing lens and a diffractive pattern, whereat the focussing lens is shaped convex on one side to the ultrashort pulse laser and planar on the other side to the separator foil, and the diffractive optical element is designed such that a Gaussian intensity distribution of the laser beam is transformed into a top-hat intensity distribution whereat the intensity of the top-hat intensity distribution is higher than the ablation threshold of the ceramic layer and the transformed laser beam is directed onto the polymer layer whereat the laser beam is diffracted and a diameter of the laser beam is shrinking so that a first diameter of the laser beam on the surface of the polymer layer is smaller than a second diameter of the laser beam before entering the focussing lens and the first diameter of the laser beam on the surface of the separator foil is in a range between 3 times and 5 times of a diffraction limited spot size.
Method for determining the abrasion properties of a coated flat product, preferably a metal flat product, preferably a galvanised steel flat product, in which an adhesive strip is stuck to the coating of the flat product, in which the flat product is bent in the region provided with the adhesive strip, in which the adhesive strip after the bending is removed together with abrasion material of the coating adhering to the adhesive strip, characterized in that the grey tones of the adhesive strip are determined stripe by stripe crossways to the width of the abrasion forming an abrasion mark and in that on the basis of the grey tones determined stripe by stripe and a grey tone limit value a grey width is determined as the width of the abrasion mark and/or a representative grey tone of the abrasion mark.
Membrane element for an air humidifying device, wherein the membrane material of the membrane element is a microporous material which is preferably hydrophobic, wherein the membrane element has a frame formed from frame bridges (61 to 64) with a front side and a rear side and side walls, on which frame the membrane material is arranged flat on at least one side, and on which frame the membrane material is preferably arranged flat on both sides, front side and rear side, and wherein the membrane material is attached watertightly to the respective frame surfaces of the front side and rear side of the frame, so that a watertight but for water vapour permeable space limited by the frame and the membrane surfaces is formed within the frame, or optionally a space bounded by a membrane surface and a non-membrane surface is formed, the frame having at least one first opening as a water inlet and at least one second opening as a water outlet on the side walls, characterized in that the frame has at least one bridge in its interior which connects inner side walls of the frame, which bridge has substantially the same thickness as the frame bridges over a first portion thereof and a smaller thickness than the frame bridges over a second portion of its length, which portion of smaller thickness forms a water passage within the frame, and wherein the membrane surfaces are attached to the first portion of the bridge in a watertight manner, or optionally a non-membrane surface is water-tightly connected to the bridge.
Vacuum cleaner having an apparatus for influencing an electric power consumption of a vacuum cleaner motor of the vacuum cleaner with a dust collecting container that can be arranged in a flow of vacuum air, with the following features: a device for recording a pressure difference between a first vacuum air pressure upstream of the dust collecting container and a second vacuum air pressure downstream of the dust collecting container; and a device (17; 20) for adjusting the electric power consumption of the vacuum cleaner motor if the recorded pressure difference exceeds or does not reach a preset differential pressure threshold value, characterised in that the device (17, 20) is configured to adjust the electric power consumption so as to raise the electric power consumption of the vacuum cleaner motor discretely from a predetermined lower value to a predetermined higher value if the preset differential pressure threshold value is exceeded, and conversely to lower the electric power consumption of the vacuum cleaner motor discretely from the predetermined higher value to the predetermined lower value if the preset differential pressure threshold value is not reached. a device for recording a pressure difference between a first vacuum air pressure upstream of the dust collecting container and a second vacuum air pressure downstream of the dust collecting container; and a device (17; 20) for adjusting the electric power consumption of the vacuum cleaner motor if the recorded pressure difference exceeds or does not reach a preset differential pressure threshold value, characterised in that the device (17, 20) is configured to adjust the electric power consumption so as to raise the electric power consumption of the vacuum cleaner motor discretely from a predetermined lower value to a predetermined higher value if the preset differential pressure threshold value is exceeded, and conversely to lower the electric power consumption of the vacuum cleaner motor discretely from the predetermined higher value to the predetermined lower value if the preset differential pressure threshold value is not reached.
Apparatus for evaluating a signal of a rotational angle sensor for deducing a possible error, having: a first processing unit, having: a bandpass filter which is configured to attenuate frequency components below and above a predetermined frequency range and to suppress a DC component of the signal of the rotational angle sensor, and to provide a first filtered signal; and a first calculation unit, which is configured to calculate a first angle value on the basis of the first filtered signal in order to provide an angle signal having a high quality; a second processing unit, having a combined lowpass and bandpass filter, which operates in parallel and which is configured to attenuate frequency components above a predetermined cutoff frequency, and to provide a second filtered signal; and a second calculation unit, which is configured to calculate a second angle value on the basis of the second filtered signal in order to provide maximally efficient and informative diagnosability of possible errors; and an analysis device, which is configured to compare the calculated first angle value with the calculated second angle value and to deduce a possible error from a discrepancy between the calculated first angle value and the calculated second angle value. a first processing unit, having: a bandpass filter which is configured to attenuate frequency components below and above a predetermined frequency range and to suppress a DC component of the signal of the rotational angle sensor, and to provide a first filtered signal; and a first calculation unit, which is configured to calculate a first angle value on the basis of the first filtered signal in order to provide an angle signal having a high quality; a bandpass filter which is configured to attenuate frequency components below and above a predetermined frequency range and to suppress a DC component of the signal of the rotational angle sensor, and to provide a first filtered signal; and a first calculation unit, which is configured to calculate a first angle value on the basis of the first filtered signal in order to provide an angle signal having a high quality; a second processing unit, having a combined lowpass and bandpass filter, which operates in parallel and which is configured to attenuate frequency components above a predetermined cutoff frequency, and to provide a second filtered signal; and a second calculation unit, which is configured to calculate a second angle value on the basis of the second filtered signal in order to provide maximally efficient and informative diagnosability of possible errors; and an analysis device, which is configured to compare the calculated first angle value with the calculated second angle value and to deduce a possible error from a discrepancy between the calculated first angle value and the calculated second angle value.
Polymer comprising moieties derived from ethylene and moieties derived from 1-hexene, wherein the polymer has: (a) a density of ≥ 910 and ≤ 930 kg/m 3, preferably ≥916 and ≤ 925 kg/m 3, as determined in accordance with ASTM D792; (b) a melt mass-flow rate of ≥ 0.2, preferably ≥ 0.5 or ≥ 0.6, and ≤ 5.0 g/10 min, as determined in accordance with ASTM D1238 at a temperature of 190°C under a load of 2.16 kg; (c) a fraction that is eluted in analytical temperature rising elution fractionation (aTREF) at a temperature ≤30.0°C of ≥ 11.0 wt%, with regard to the total weight of the polymer; and (d) a fraction eluted in a-TREF at a temperature > 94.0°C of ≥ 20.0 wt%, with regard to the total weight of the polymer; and preferably (e) a fraction eluted in a-TREF at a temperature >30.0°C and ≤ 94.0°C of ≥ 40.0 and ≤ 64.0 wt%, with regard to the total weight of the polymer wherein the a-TREF fractions are determined according to the method of the description. (a) a density of ≥ 910 and ≤ 930 kg/m 3, preferably ≥916 and ≤ 925 kg/m 3, as determined in accordance with ASTM D792; (b) a melt mass-flow rate of ≥ 0.2, preferably ≥ 0.5 or ≥ 0.6, and ≤ 5.0 g/10 min, as determined in accordance with ASTM D1238 at a temperature of 190°C under a load of 2.16 kg; (c) a fraction that is eluted in analytical temperature rising elution fractionation (aTREF) at a temperature ≤30.0°C of ≥ 11.0 wt%, with regard to the total weight of the polymer; and (d) a fraction eluted in a-TREF at a temperature > 94.0°C of ≥ 20.0 wt%, with regard to the total weight of the polymer; and preferably (e) a fraction eluted in a-TREF at a temperature >30.0°C and ≤ 94.0°C of ≥ 40.0 and ≤ 64.0 wt%, with regard to the total weight of the polymer
An in vitro method of inhibiting HBV replication in a cell, comprising: contacting the cell with a combination of at least one peptide selected from the group consisting of Slug-ZF4s (SEQ ID NO: 218) and Slug-ZF5s (SEQ ID NO: 219), and at least one peptide selected from the group consisting of Sox7-H1s (SEQ ID NO: 220) and Sox7-H2s (SEQ ID NO: 221); wherein said combination of peptides is a combination of Slug-ZF4s (SEQ ID NO: 218), Slug-ZF5s (SEQ ID NO: 219) and Sox7-H2s (SEQ ID NO: 221) peptides, or Slug-ZF4s (SEQ ID NO: 218), Slug-ZF5s (SEQ ID NO: 219), Sox7-H2s (SEQ ID NO: 221) and Sox7-H1s (SEQ ID NO: 220) peptides; where the at least one peptide is a stapled peptide; wherein the cell is a cell line or primary human cell, wherein the cell line is HepG2 or Caco-2, wherein the primary human cell is primary human hepatocyte. contacting the cell with a combination of at least one peptide selected from the group consisting of Slug-ZF4s (SEQ ID NO: 218) and Slug-ZF5s (SEQ ID NO: 219), and at least one peptide selected from the group consisting of Sox7-H1s (SEQ ID NO: 220) and Sox7-H2s (SEQ ID NO: 221); wherein said combination of peptides is a combination of Slug-ZF4s (SEQ ID NO: 218), Slug-ZF5s (SEQ ID NO: 219) and Sox7-H2s (SEQ ID NO: 221) peptides, or Slug-ZF4s (SEQ ID NO: 218), Slug-ZF5s (SEQ ID NO: 219), Sox7-H2s (SEQ ID NO: 221) and Sox7-H1s (SEQ ID NO: 220) peptides; Slug-ZF4s (SEQ ID NO: 218), Slug-ZF5s (SEQ ID NO: 219) and Sox7-H2s (SEQ ID NO: 221) peptides, or Slug-ZF4s (SEQ ID NO: 218), Slug-ZF5s (SEQ ID NO: 219), Sox7-H2s (SEQ ID NO: 221) and Sox7-H1s (SEQ ID NO: 220) peptides; where the at least one peptide is a stapled peptide; wherein the cell is a cell line or primary human cell, wherein the cell line is HepG2 or Caco-2, wherein the primary human cell is primary human hepatocyte.
A microfluidic fluid control apparatus comprising: a multi-level molded elastomeric valve including: a flexible membrane having a flexible membrane thickness, and a base surrounding the flexible membrane, the base having a base thickness; and a valve lip extending upward from the membrane above the base, wherein the apparatus further comprises: a substrate comprising a plurality of fluid access holes (354a, 354b) in fluid communication with the flexible membrane, the flexible membrane being configured to form a seal with the fluid access holes upon supply of a pressure to the flexible membrane and to release the seal between the flexible membrane and the fluid access holes upon reduction of the pressure, and the flexible membrane being adapted to deflect away from the fluid access holes so as to allow fluid to pass between a first fluid access hole and a second fluid access hole upon membrane actuation, wherein the base thickness being greater than the flexible membrane thickness so as to aid in preventing the valve membrane from stretching and skewing. a multi-level molded elastomeric valve including: a flexible membrane having a flexible membrane thickness, and a base surrounding the flexible membrane, the base having a base thickness; and a valve lip extending upward from the membrane above the base, a flexible membrane having a flexible membrane thickness, and a base surrounding the flexible membrane, the base having a base thickness; and a valve lip extending upward from the membrane above the base, wherein the apparatus further comprises: a substrate comprising a plurality of fluid access holes (354a, 354b) in fluid communication with the flexible membrane, the flexible membrane being configured to form a seal with the fluid access holes upon supply of a pressure to the flexible membrane and to release the seal between the flexible membrane and the fluid access holes upon reduction of the pressure, and the flexible membrane being adapted to deflect away from the fluid access holes so as to allow fluid to pass between a first fluid access hole and a second fluid access hole upon membrane actuation, wherein the base thickness being greater than the flexible membrane thickness so as to aid in preventing the valve membrane from stretching and skewing. a substrate comprising a plurality of fluid access holes (354a, 354b) in fluid communication with the flexible membrane, the flexible membrane being configured to form a seal with the fluid access holes upon supply of a pressure to the flexible membrane and to release the seal between the flexible membrane and the fluid access holes upon reduction of the pressure, and the flexible membrane being adapted to deflect away from the fluid access holes so as to allow fluid to pass between a first fluid access hole and a second fluid access hole upon membrane actuation, wherein the base thickness being greater than the flexible membrane thickness so as to aid in preventing the valve membrane from stretching and skewing.
A shelf for a shelf system in a service vehicle comprising a base for arranging articles thereon and a first side wall, wherein said first side wall comprises a first wall portion connected to the base and a second wall portion, wherein said first wall portion continues into said second wall portion and said second wall portion overlaps at least partly said first wall portion in such a way that said first and second wall portion (21, 22) form a channel along the longitudinal direction of the first side wall, and said second wall portion is at least in some locations connected to said first wall portion along the longitudinal direction of the first side wall so that said channel is at least partly a closed channel in the longitudinal direction of the first side wall, characterized in that said shelf comprises four sides (12a, 12b, 12c, 12d) with a first pair of opposite sides and a second pair of opposite sides, wherein said first side wall is arranged on one of the sides (12a, 12b) of said first pair of opposite sides and a third side wall is arranged on one of the sides of said second pair of opposite sides and/or a fourth side wall is arranged on the other one of the sides of said second pair of opposite sides. base for arranging articles thereon and a first side wall, wherein said first side wall comprises a first wall portion connected to the base and a second wall portion, wherein said first wall portion continues into said second wall portion and said second wall portion overlaps at least partly said first wall portion in such a way that said first and second wall portion (21, 22) form a channel along the longitudinal direction of the first side wall, and said second wall portion is at least in some locations connected to said first wall portion along the longitudinal direction of the first side wall so that said channel is at least partly a closed channel in the longitudinal direction of the first side wall, characterized in that said shelf comprises four sides (12a, 12b, 12c, 12d) with a first pair of opposite sides and a second pair of opposite sides, wherein said first side wall is arranged on one of the sides (12a, 12b) of said first pair of opposite sides and a third side wall is arranged on one of the sides of said second pair of opposite sides and/or a fourth side wall is arranged on the other one of the sides of said second pair of opposite sides.
A mounting device for mounting an aircraft tail wheel on a fastening arm secured to the tail, said mounting device comprising a support block having, firstly, a hinge axis for hinging it to said arm and, secondly, a hinge axis for hinging it to a fork that receives the wheel in freely rotatable manner, characterized in that the hinge axis of the support block to said arm is positioned vertically in register with an axis of rotation of the wheel.
An unmanned aerial vehicle ground station, comprising: a landing surface having a perimeter and a center; a plurality of pushers held above said landing surface by a plurality of linear actuators; at least one electro-mechanical connector attached to one of said plurality of pushers, mechanically adapted to be electrically connected to a compatible electro-mechanical connector of a UAV; and a landing detection controller adapted to instruct said plurality of linear actuators to move said plurality of pushers from said perimeter toward said center when a landing event related to said UAV is detected; characterized in that said electro-mechanical connector includes a set of horizontally aligned teeth adapted to be mechanically combined and electrically coupled to a matching set of horizontally aligned teeth of said compatible electro-mechanical connector. a landing surface having a perimeter and a center; a plurality of pushers held above said landing surface by a plurality of linear actuators; at least one electro-mechanical connector attached to one of said plurality of pushers, mechanically adapted to be electrically connected to a compatible electro-mechanical connector of a UAV; and a landing detection controller adapted to instruct said plurality of linear actuators to move said plurality of pushers from said perimeter toward said center when a landing event related to said UAV is detected; characterized in that said electro-mechanical connector includes a set of horizontally aligned teeth adapted to be mechanically combined and electrically coupled to a matching set of horizontally aligned teeth of said compatible electro-mechanical connector.