mhurhangee/ep-ind-claims huggingface dataset:
A device with a touch screen, comprising: an Electromagnetic Resonance, EMR, sensing panel configured to sense an input from an electronic pen above a top layer which forms an outer layer of the touch screen; a display panel installed on a top layer portion of the EMR sensing panel; a bracket, having an installation portion configured to accommodate the EMR sensing panel, and an extension portion that extends from a side of the installation portion and is placed on the side of the EMR sensing panel, wherein the extension portion forms a flat surface substantially parallel with the display panel, and the flat surface of the extension portion is higher height than other portions of the bracket; wherein between the extension portion and the top layer a frequency compensating plate comprising a soft magnet is provided, disposed to cover the flat surface of the extension portion so that the frequency compensating plate is placed on the side of the EMR sensing panel and positioned higher than the EMR sensing panel apart from the EMR sensing panel. an Electromagnetic Resonance, EMR, sensing panel configured to sense an input from an electronic pen above a top layer which forms an outer layer of the touch screen; a display panel installed on a top layer portion of the EMR sensing panel; a bracket, having an installation portion configured to accommodate the EMR sensing panel, and an extension portion that extends from a side of the installation portion and is placed on the side of the EMR sensing panel, wherein the extension portion forms a flat surface substantially parallel with the display panel, and the flat surface of the extension portion is higher height than other portions of the bracket; wherein between the extension portion and the top layer a frequency compensating plate comprising a soft magnet is provided, disposed to cover the flat surface of the extension portion so that the frequency compensating plate is placed on the side of the EMR sensing panel and positioned higher than the EMR sensing panel apart from the EMR sensing panel.
A battery pack comprising: a battery comprising at least one battery; a first pack terminal (P+) and a second pack terminal (P-), each of the first pack terminal and the second pack terminal being electrically connected to a respective terminal of the battery and configured to be electrically connected to an external load; a first switch configured to switch a discharge current of the battery according to a first control signal; a second switch configured to open or close according to a second control signal, and to open the first switch that is turned on by the first control signal, by a voltage of the first pack terminal or the second pack terminal; and a battery manager configured to output the first control signal and the second control signal, characterised in that the battery manager is configured to output, as the second control signal, a pulse width modulation signal having a pulse width varying according to a duty cycle. a battery comprising at least one battery; a first pack terminal (P+) and a second pack terminal (P-), each of the first pack terminal and the second pack terminal being electrically connected to a respective terminal of the battery and configured to be electrically connected to an external load; a first switch configured to switch a discharge current of the battery according to a first control signal; a second switch configured to open or close according to a second control signal, and to open the first switch that is turned on by the first control signal, by a voltage of the first pack terminal or the second pack terminal; and a battery manager configured to output the first control signal and the second control signal, characterised in that the battery manager is configured to output, as the second control signal, a pulse width modulation signal having a pulse width varying according to a duty cycle.
A method for improving the measuring performance of automation field devices, wherein each of the field devices determines or monitors at least one physical or chemical process variable of a medium using a measuring algorithm, wherein each of the field devices, tailored to the particular measuring task, is calibrated using specific calibration data, and wherein each of the field devices is exposed to measurable environmental influences at its particular measuring position, the method comprising the following method steps: capturing the calibration data of the field devices and capturing in each case at least one item of environmental information from the environment of the field devices at defined time intervals, storing the calibration data and environmental information provided with a time stamp in a database, selecting at least one group of field devices that determine a physical or chemical process variable using the essentially identical measuring algorithm and that correspond with respect to the captured environmental information within prescribed tolerance levels, correlating the calibration data captured over time and the environmental information captured over time, creating a mathematical model depicting the functional relationship between the calibration data and the captured environmental information, adapting the measuring algorithm of the field devices of the selected group on the basis of the determined mathematical model, and transmitting the adapted measuring algorithm to all field devices of the selected group. capturing the calibration data of the field devices and capturing in each case at least one item of environmental information from the environment of the field devices at defined time intervals, storing the calibration data and environmental information provided with a time stamp in a database, selecting at least one group of field devices that determine a physical or chemical process variable using the essentially identical measuring algorithm and that correspond with respect to the captured environmental information within prescribed tolerance levels, correlating the calibration data captured over time and the environmental information captured over time, creating a mathematical model depicting the functional relationship between the calibration data and the captured environmental information, adapting the measuring algorithm of the field devices of the selected group on the basis of the determined mathematical model, and transmitting the adapted measuring algorithm to all field devices of the selected group.
Positioning device of portal design, having two parallel linear guides (FX1, FX2) with integrated linear drives, which each hold an X carriage (LX1, LX2) in a movable manner in an X direction, and also having a crossbeam connected to the two X carriages (LX1, LX2), said crossbeam holding a Y carriage in a movable manner in a Y direction perpendicular to the X direction by means of an integrated linear drive, and also having a tool holder which is glided on the Y carriage in a Z direction perpendicular to the X and Y directions and carries a tool for machining a workpiece arranged in an X-Y plane, wherein the tool is arranged next to the crossbeam in a manner offset in the X direction, characterized in that a force frame arranged in the Z direction above the tool transmits a process force, acting on the tool, to the carriages (LX1, LX2).
An anti-sag hinge comprising: a mounting flange assembly, and a strap assembly pivotally coupled to said mounting flange assembly, said strap assembly including: a strap having at least one strap mounting hole, an adjustment bracket coupled to said strap for relative movement therebetween and having at least one bracket mounting hole alignable with said at least one strap mounting hole, and an adjuster coupled to said strap and said adjustment bracket, said adjuster being capable of varying the position of said adjustment bracket relative to said strap, wherein said adjuster includes a first flange defining an adjustment screw flange, holder or boss, extending from said strap, a second flange, defining an adjustment screw mounting flange, extending from said adjustment bracket and having a threaded bolt mounting hole therein, and a threaded bolt, defining an adjustment screw, coupled to said first flange for rotatable movement but preventing lateral movement of said threaded bolt along a longitudinal axis and threadably coupled to said second flange bolt mounting hole, whereby threaded movement of the threaded bolt causes relative movement between the first and second flanges, and thereby relative movement between the adjustment bracket and the strap, whereby said threaded bolt has a head positioned to abut one side of said first flange the anti-sag hinge being characterised in that the threaded bolt has a bearing flange positioned to abut an opposite side of said first flange. a mounting flange assembly, and a strap assembly pivotally coupled to said mounting flange assembly, a strap having at least one strap mounting hole, an adjustment bracket coupled to said strap for relative movement therebetween and having at least one bracket mounting hole alignable with said at least one strap mounting hole, and an adjuster coupled to said strap and said adjustment bracket, said adjuster being capable of varying the position of said adjustment bracket relative to said strap, wherein said adjuster includes a first flange defining an adjustment screw flange, holder or boss, extending from said strap, a second flange, defining an adjustment screw mounting flange, extending from said adjustment bracket and having a threaded bolt mounting hole therein, and a threaded bolt, defining an adjustment screw, coupled to said first flange for rotatable movement but preventing lateral movement of said threaded bolt along a longitudinal axis and threadably coupled to said second flange bolt mounting hole, whereby threaded movement of the threaded bolt causes relative movement between the first and second flanges, and thereby relative movement between the adjustment bracket and the strap, whereby said threaded bolt has a head positioned to abut one side of said first flange the anti-sag hinge being characterised in that the threaded bolt has a bearing flange positioned to abut an opposite side of said first flange.
A printed circuit board assembly (PCBA) characterized by comprising: a signal processor configured to universally run the printed circuit board assembly (PCBA) on any particular one of a series of pump models, each particular pump model having a respective different particular voltage requirement, the signal processor configured to: receive signaling containing information about a particular voltage being supplied to a particular motor to run the particular pump model, and also containing information about whether a particular current draw of the particular pump model is lower than a predetermined particular low current level or is higher than a predetermined particular high current level for the particular pump model; and determine whether to shut off the particular pump model after a predetermined time, based at least partly on the signaling received. receive signaling containing information about a particular voltage being supplied to a particular motor to run the particular pump model, and also containing information about whether a particular current draw of the particular pump model is lower than a predetermined particular low current level or is higher than a predetermined particular high current level for the particular pump model; and determine whether to shut off the particular pump model after a predetermined time, based at least partly on the signaling received.
A method for producing an all-solid-state battery having a solid electrolyte layer between a positive electrode layer and a negative electrode layer, the method comprising: a step of coating at least one of the positive electrode layer and the negative electrode layer with a coating solution, said coating solution containing a solid electrolyte solution, which is obtained by dissolving a solid electrolyte in a solvent, and fine particles which are insoluble in the solid electrolyte solution; and a step of removing the solvent from the coated coating solution to deposit the solid electrolyte on at least one of the positive electrode layer and the negative electrode layer, wherein the concentration of the solid electrolyte in the solid electrolyte solution is 1 to 40 wt%, wherein the coating solution comprises the fine particles in an amount of 0.1 to 30% by mass, wherein the fine particles have an average particle diameter (median diameter d50) of 10 nm to 1 μm, as measured according to the method of the description. wherein the solid electrolyte comprises at least one selected from the group consisting of LiBH 4, an LiBH 4 -LiI-based material, 3LiBH 4 -LiI, an LiBH 4 -P 2 S 5 -based material, 9LiBH 4 -P 2 S 5, an LiBH 4 -P 2 I 4 -based material, 9LiBH 4 -P 2 I 4, 85LiBH 4 -15P 2 I 4, Li 2 B 12 H 12, Li 2 B 10 H 10, LiCB 11 H 12 and LiCB 9 H 10. a step of coating at least one of the positive electrode layer and the negative electrode layer with a coating solution, said coating solution containing a solid electrolyte solution, which is obtained by dissolving a solid electrolyte in a solvent, and fine particles which are insoluble in the solid electrolyte solution; and a step of removing the solvent from the coated coating solution to deposit the solid electrolyte on at least one of the positive electrode layer and the negative electrode layer, wherein the concentration of the solid electrolyte in the solid electrolyte solution is 1 to 40 wt%, wherein the coating solution comprises the fine particles in an amount of 0.1 to 30% by mass, wherein the fine particles have an average particle diameter (median diameter d50) of 10 nm to 1 μm, as measured according to the method of the description. wherein the solid electrolyte comprises at least one selected from the group consisting of LiBH 4, an LiBH 4 -LiI-based material, 3LiBH 4 -LiI, an LiBH 4 -P 2 S 5 -based material, 9LiBH 4 -P 2 S 5, an LiBH 4 -P 2 I 4 -based material, 9LiBH 4 -P 2 I 4, 85LiBH 4 -15P 2 I 4, Li 2 B 12 H 12, Li 2 B 10 H 10, LiCB 11 H 12 and LiCB 9 H 10.
Ski pole, wherein the cross section of said pole in one end is circular, characterized in that the cross section of said pole in the other end is triangular, the cross section of said pole gradually adopting triangular or circular cross section moving along the ski pole from one end to the opposite end, and wherein at a distance from one end of said pole, there is a section of the pole with a slightly distorted diameter compared to the section immediately preceding and following said distorted diameter section of said pole.
Microfluidic component (1, 1'), containing at least one first cavity, which is filled with a liquid for washing at least one second cavity (20, 20'), and means (40, 50a, 50b) for providing a fluidic connection between the at least one first and the at least one second cavity (20, 20'), wherein, viewed in the direction of flow of the liquid, at least one further cavity is arranged between the first and the second cavity (20, 20'), cavity being filled with a gas, wherein the cavity to be washed comprises, in the direction of flow, a first section in which the cross-section of the cavity widens out continuously and a second section in which the cross-section of the cavity tapers continuously and wherein a section of constant cross-section is arranged between the sections (23 and 25) of varying cross-section and wherein the at least one further cavity filled with gas has a volume that is smaller than the volume of the at least one second cavity (20, 20') to be washed, characterised in that a pressure can be applied to the first cavity so that the liquid for washing the second cavity (20,20') flows in the direction of the cavity containing the gas and pushes the gas as a gas bubble along in front of it, into the cavity that is to be washed, wherein the gas bubble is so large that, when pushed into the cavity that is to be washed, it can form, in the section of constant cross-section, contact regions with the side walls of the cavity that is to be washed, and in that, viewed in the direction of flow of the liquid, at least one valve is connected upstream of the cavity filled with gas and at least one valve is connected downstream of the cavity filled with gas, wherein the valves (50a, 50b) are actuatable.
A method for filling a refrigerant mixture consisting of difluoromethane (HFC-32) and 2,3,3,3-tetrafluoropropene (HFO-1234yf), HFC-32 being present in the liquid phase in an amount of 10-90 wt.-% based on 100 wt.-% of the total of HFC-32 and HFO-1234yf, the method comprising, in transferring the refrigerant mixture in a liquid state to a target container or equipment from a feeding container, adjusting, immediately before the transfer, the proportion (initial composition) of HFC-32 in the liquid phase of the refrigerant mixture in the feeding container to (x+y 1) wt.-% (minimum value) to (x+a) wt.-% (maximum value), so that the proportion of HFC-32 in the liquid phase of the refrigerant mixture in the feeding container falls within a range of ±a wt.-% of a target composition (x) of HFC-32 during initiation and completion of the transfer, wherein ±a is a set tolerance (a ≥ 0); x is a target composition with the proviso that 10 ≤ x ≤ 90, excluding a range satisfying y 1 > a; and y 1 is a lower limit of a gap between the target composition and the initial composition, and is represented by Equation: 1000 y 1 = L 1 x 3 − M 1 x 2 + N 1 x − P 1 wherein L 1 = 0.0002a + 0.016, M 1 = 0.072a + 3.4761, N 1 = 7.914a + 187.52, and P 1 = 1194.8a - 9.58. the method comprising, in transferring the refrigerant mixture in a liquid state to a target container or equipment from a feeding container, adjusting, immediately before the transfer, the proportion (initial composition) of HFC-32 in the liquid phase of the refrigerant mixture in the feeding container to (x+y 1) wt.-% (minimum value) to (x+a) wt.-% (maximum value), so that the proportion of HFC-32 in the liquid phase of the refrigerant mixture in the feeding container falls within a range of ±a wt.-% of a target composition (x) of HFC-32 during initiation and completion of the transfer, wherein ±a is a set tolerance (a ≥ 0); x is a target composition with the proviso that 10 ≤ x ≤ 90, excluding a range satisfying y 1 > a; and y 1 is a lower limit of a gap between the target composition and the initial composition, and is represented by Equation: 1000 y 1 = L 1 x 3 − M 1 x 2 + N 1 x − P 1 wherein L 1 = 0.0002a + 0.016, M 1 = 0.072a + 3.4761, N 1 = 7.914a + 187.52, and P 1 = 1194.8a - 9.58. ±a is a set tolerance (a ≥ 0); x is a target composition with the proviso that 10 ≤ x ≤ 90, excluding a range satisfying y 1 > a; and y 1 is a lower limit of a gap between the target composition and the initial composition, and is represented by Equation: 1000 y 1 = L 1 x 3 − M 1 x 2 + N 1 x − P 1 wherein L 1 = 0.0002a + 0.016, M 1 = 0.072a + 3.4761, N 1 = 7.914a + 187.52, and P 1 = 1194.8a - 9.58. L 1 = 0.0002a + 0.016, M 1 = 0.072a + 3.4761, N 1 = 7.914a + 187.52, and P 1 = 1194.8a - 9.58.
A device (Va, Vb) for cleaning the head (G1a, G1b) of a golf club (Ga, Gb), having - a cup-shaped cleaning chamber (Ka, Kb) for insertion of the head (G1a, G1b), and - a pressurized water system with at least one nozzle (D21, D22) on a first nozzle plane, characterized in that the at least one nozzle introduces a jet of water (W21, W22) into the cleaning chamber (Ka, Kb) such that a water bath forms in there with a first vortical water flow, which washes turbulently over the head (G1a, G1b) of the golf club (Ga, Gb) and sets it into a rapid rotation. - a cup-shaped cleaning chamber (Ka, Kb) for insertion of the head (G1a, G1b), and - a pressurized water system with at least one nozzle (D21, D22) on a first nozzle plane, characterized in that the at least one nozzle introduces a jet of water (W21, W22) into the cleaning chamber (Ka, Kb) such that a water bath forms in there with a first vortical water flow, which washes turbulently over the head (G1a, G1b) of the golf club (Ga, Gb) and sets it into a rapid rotation.
A light guide panel, LGP, for a liquid crystal display, LCD, apparatus, comprising: a light-emitting pattern surface on which light-emitting patterns are formed; an opposite surface opposite to the light-emitting pattern surface; and four edge surfaces, wherein lenticular patterns are formed on one of the light-emitting pattern surface and the opposite surface, wherein the light-emitting pattern surface comprises: a light-emitting part in which the light-emitting patterns are formed; and an edge part (141 B) which extends along the four edge surfaces to enclose the light-emitting part and in which at least one fixing groove is formed to fix the LGP, wherein the light-emitting part comprises a pattern reducing region which is located adjacent to the fixing groove and has no light-emitting pattern or a lower light-emitting pattern density than an other region of the light-emitting part, wherein the pattern reducing region is positioned to encompass a part of a boundary between the light-emitting part and the edge part, characterised in that the part of the boundary comprises a point of the light-emitting part which is closest to the fixing groove. a light-emitting pattern surface on which light-emitting patterns are formed; an opposite surface opposite to the light-emitting pattern surface; and four edge surfaces, wherein lenticular patterns are formed on one of the light-emitting pattern surface and the opposite surface, wherein the light-emitting pattern surface comprises: a light-emitting part in which the light-emitting patterns are formed; and an edge part (141 B) which extends along the four edge surfaces to enclose the light-emitting part and in which at least one fixing groove is formed to fix the LGP, wherein the light-emitting part comprises a pattern reducing region which is located adjacent to the fixing groove and has no light-emitting pattern or a lower light-emitting pattern density than an other region of the light-emitting part, wherein the pattern reducing region is positioned to encompass a part of a boundary between the light-emitting part and the edge part, characterised in that the part of the boundary comprises a point of the light-emitting part which is closest to the fixing groove. a light-emitting part in which the light-emitting patterns are formed; and an edge part (141 B) which extends along the four edge surfaces to enclose the light-emitting part and in which at least one fixing groove is formed to fix the LGP, wherein the light-emitting part comprises a pattern reducing region which is located adjacent to the fixing groove and has no light-emitting pattern or a lower light-emitting pattern density than an other region of the light-emitting part, wherein the pattern reducing region is positioned to encompass a part of a boundary between the light-emitting part and the edge part, characterised in that the part of the boundary comprises a point of the light-emitting part which is closest to the fixing groove.
A piezoelectric element comprising: a core formed of a conductive fiber, a sheath formed of braided piezoelectric fibers, covering the core, and a conductive layer provided on the periphery of the sheath, wherein the piezoelectric element further comprises a metal terminal which is a signal metal terminal connected and fixed to the core, and a shielding metal terminal connected and fixed to the conductive layer, the signal metal terminal and the shielding metal terminal being fixed to each other via an insulator. a core formed of a conductive fiber, a sheath formed of braided piezoelectric fibers, covering the core, and a conductive layer provided on the periphery of the sheath, wherein the piezoelectric element further comprises a metal terminal which is a signal metal terminal connected and fixed to the core, and a shielding metal terminal connected and fixed to the conductive layer, the signal metal terminal and the shielding metal terminal being fixed to each other via an insulator.