mhurhangee/ep-ind-claims huggingface dataset:
A handset for controlling a surgical operating table, characterized by the handset comprising a three-dimensional physical representation of a tabletop of a surgical operating table, the physical representation of the tabletop comprising a back section, a seat section and one or more leg sections (28, 30), wherein at least one of the sections includes a respective sensor arranged to sense a force or movement applied to a surface of the respective section by a touch applied to the surface, and a control system within the handset which is connected to the sensor, the control system being arranged to generate an output control signal for transmission to the surgical operating table to be controlled in response to an input command of an applied force or applied movement sensed by the respective sensor.
A front-load laundry appliance comprising: a tub; a drum that is rotationally operable within the tub about a generally horizontal rotational axis; a drive shaft of the drum; a plurality of lifters coupled to an interior surface of the drum; a fluid delivery path at least partially defined within the drum and the plurality of lifters; and a fluid delivery system configured to deliver fluid into the fluid delivery path in a direction parallel to the generally horizontal rotational axis; a fluid delivery ring that is defined between the tub and the drum, the fluid delivery ring being concentric to the drive shaft; characterized in that the front-load laundry appliance further comprises an interior gasket operably positioned within the fluid delivery ring, wherein the interior gasket selectively operates to define a fluid channel within the fluid delivery ring to deliver fluid to the plurality of lifters; wherein the interior gasket is configured to minimally engage with the drum when no fluid is delivered to the plurality of lifters, and wherein the interior gasket is configured to be biased against the drum by back pressure of the fluid when fluid is delivered through the fluid delivery ring, so to define the fluid channel within the fluid delivery ring; wherein the interior gasket includes a gasket membrane that includes gasket apertures, wherein the back pressure of the fluid biases the gasket membrane toward the drum to define the fluid channel and contemporaneously directs the fluid through the gasket apertures and into the fluid channel. a tub; a drum that is rotationally operable within the tub about a generally horizontal rotational axis; a drive shaft of the drum; a plurality of lifters coupled to an interior surface of the drum; a fluid delivery path at least partially defined within the drum and the plurality of lifters; and a fluid delivery system configured to deliver fluid into the fluid delivery path in a direction parallel to the generally horizontal rotational axis; a fluid delivery ring that is defined between the tub and the drum, the fluid delivery ring being concentric to the drive shaft; characterized in that the front-load laundry appliance further comprises an interior gasket operably positioned within the fluid delivery ring, wherein the interior gasket selectively operates to define a fluid channel within the fluid delivery ring to deliver fluid to the plurality of lifters; wherein the interior gasket is configured to minimally engage with the drum when no fluid is delivered to the plurality of lifters, and wherein the interior gasket is configured to be biased against the drum by back pressure of the fluid when fluid is delivered through the fluid delivery ring, so to define the fluid channel within the fluid delivery ring; wherein the interior gasket includes a gasket membrane that includes gasket apertures, wherein the back pressure of the fluid biases the gasket membrane toward the drum to define the fluid channel and contemporaneously directs the fluid through the gasket apertures and into the fluid channel.
Interrupter unit for a circuit breaker, the interrupter unit comprising - a gas-insulated housing, which is fillable with a quenching gas, and - a gas-guiding structure, which is arranged in the housing and has a guide tube and at least one diverting element (9, 27, 35), wherein - the guide tube runs in a tubular manner about a longitudinal axis of the interrupter unit in order to guide hot gas, which is created in an electric arc region of the interrupter unit by heating quenching gas by an electric arc, away from the electric arc region, and - the at least one diverting element (9, 27, 35) is designed to set hot gas exiting from the guide tube in a circular flow running around the longitudinal axis, characterized in that the interrupter unit has a snail-like diverting element which projects through an open guide tube end of the guide tube, which guide tube end is averted from the electric arc region, into the guide tube and has a groove which faces the electric arc region and is substantially in the form of a conical spiral which runs around the longitudinal axis and the diameter of which decreases in the direction of the electric arc region. - a gas-insulated housing, which is fillable with a quenching gas, and - a gas-guiding structure, which is arranged in the housing and has a guide tube and at least one diverting element (9, 27, 35), wherein - the guide tube runs in a tubular manner about a longitudinal axis of the interrupter unit in order to guide hot gas, which is created in an electric arc region of the interrupter unit by heating quenching gas by an electric arc, away from the electric arc region, and - the at least one diverting element (9, 27, 35) is designed to set hot gas exiting from the guide tube in a circular flow running around the longitudinal axis,
A sensor for detecting a change in a physical property, wherein the sensor includes a plurality of sensor elements, each having an electrical resistance that varies in accordance with a change in a physical property, and a protective film (40,60) for covering the sensor elements, the sensor being characterized by: etched portions formed by recesses obtained by etching and eliminating at least part of the protective film (40,60) so that the recesses extend near and along the periphery of each of the sensor elements without exposing the sensor elements from the protective film (40, 60). etched portions formed by recesses obtained by etching and eliminating at least part of the protective film (40,60) so that the recesses extend near and along the periphery of each of the sensor elements without exposing the sensor elements from the protective film (40, 60).
A vehicle control device, that controls to suppress a driving force of a vehicle based on an operation of a brake pedal operated at the time when a braking force is generated by a braking device, wherein the vehicle control device is configured to obtain a brake negative pressure and the brake pedal is connected to a brake servo unit, that increases an operating force input to the brake pedal by using the brake negative pressure to transmit the operating force to a brake fluid side of the braking device, and characterized in that the vehicle control device is configured to suppress the driving force according to a fluid pressure of the brake fluid when the brake negative pressure is higher than a predetermined judgment value, and the vehicle control device is configured to suppress the driving force according to an operation state of the brake pedal when the brake negative pressure is decreased to be not higher than the judgment value.
Method of acquiring and forming a spectrometry image of a sample comprising the following steps: e1) acquisition of an initial image of an area of the sample, the initial image being composed of pixels, and definition of a maximum set of N, 2 ≤ N, spectrometry measurement positions, each measurement position comprising at least one coordinate (CX; CY), representative of the measurement position with respect to the area of the sample, and at least one intensity (IR1; IR2; IG1; IG2; IB1; IB2), determined on the basis of at least one pixel of the initial image located in a neighborhood of the measurement position; e2) assignment of a classification value to each of the N measurement positions on the basis of deviations between the measurement positions, a deviation between two measurement positions being calculated on the basis of an intensity difference (IR1; IR2; IG1; IG2; IB1; IB2) and a coordinate difference (CX; CY); e3) determination of a group of P, 1≤P≤N, measurement positions among the set of N measurement positions as a function of the classification values assigned in step e2); e4) successively, for each measurement position of the group determined in step e3), positioning of an excitation beam at said measurement position on the area of the sample, acquiring a spectrometry measurement and constructing the spectrometry image based on the acquired spectrometry measurement(s). e1) acquisition of an initial image of an area of the sample, the initial image being composed of pixels, and definition of a maximum set of N, 2 ≤ N, spectrometry measurement positions, each measurement position comprising at least one coordinate (CX; CY), representative of the measurement position with respect to the area of the sample, and at least one intensity (IR1; IR2; IG1; IG2; IB1; IB2), determined on the basis of at least one pixel of the initial image located in a neighborhood of the measurement position; e2) assignment of a classification value to each of the N measurement positions on the basis of deviations between the measurement positions, a deviation between two measurement positions being calculated on the basis of an intensity difference (IR1; IR2; IG1; IG2; IB1; IB2) and a coordinate difference (CX; CY); e3) determination of a group of P, 1≤P≤N, measurement positions among the set of N measurement positions as a function of the classification values assigned in step e2); e4) successively, for each measurement position of the group determined in step e3), positioning of an excitation beam at said measurement position on the area of the sample, acquiring a spectrometry measurement and constructing the spectrometry image based on the acquired spectrometry measurement(s).
A method for modeling a thermal circuit of a power inverter, the method characterised by: setting a first input node of the thermal circuit to a first measured temperature; setting a second input node of the thermal circuit to a second measured temperature; determining at least one thermal characteristic of the thermal circuit using, at least, the first measured temperature and the second measured temperature; and determining an operating temperature of the thermal circuit based on the at least one thermal characteristic. setting a first input node of the thermal circuit to a first measured temperature; setting a second input node of the thermal circuit to a second measured temperature; determining at least one thermal characteristic of the thermal circuit using, at least, the first measured temperature and the second measured temperature; and determining an operating temperature of the thermal circuit based on the at least one thermal characteristic.
A steering device for use in a body lumen of a patient, comprising: a single integrated unit formed by a flexible tube and a plurality of elements rigidly fastened along the tube and configured to enable steering of the integrated unit, said elements being positioned in a spaced-apart arrangement along an outer surface of at least a distal end portion of the flexible tube; wherein the spaced-apart elements are arranged with distances between them selected in accordance with material of the flexible tube, determining flexibility and bending of at least said distal end portion of the flexible tube; and at least two steering wires having at least a portion passing around the flexible tube and through said spaced-apart elements and at least a portion passing within said flexible tube; pulling of the steering wire causing the bending of the integrated unit at said at least distal portion of the flexible tube, until edges of the spaced-apart elements come into contact. a single integrated unit formed by a flexible tube and a plurality of elements rigidly fastened along the tube and configured to enable steering of the integrated unit, said elements being positioned in a spaced-apart arrangement along an outer surface of at least a distal end portion of the flexible tube; wherein the spaced-apart elements are arranged with distances between them selected in accordance with material of the flexible tube, determining flexibility and bending of at least said distal end portion of the flexible tube; and at least two steering wires having at least a portion passing around the flexible tube and through said spaced-apart elements and at least a portion passing within said flexible tube; pulling of the steering wire causing the bending of the integrated unit at said at least distal portion of the flexible tube, until edges of the spaced-apart elements come into contact.
A dye-sensitized solar cell module having a plurality of dye-sensitized solar cells connected in series, characterised in that: this module having at least one power generation unit in which at least one bypass diode is connected in parallel to n number (where n represents an integer of 1 to 4) of dye-sensitized solar cells among the plurality of dye-sensitized solar cells, and in that: when the total number of the plurality of dye-sensitized solar cells connected in series is represented by m (where m represents an integer of 2 or more), the number of power generation units in which n is 1 is represented by p1 (where p1 represents an integer of 0 or more), the number of power generation units in which n is 2 is represented by p2 (where p2 represents an integer of 0 or more), the number of power generation units in which n is 3 is represented by p3 (where p3 represents an integer of 0 or more), the number of power generation units in which n is 4 is represented by p4 (where p4 represents an integer of 0 or more), and the number of the dye-sensitized solar cells to which the bypass diodes are not connected in parallel is represented by k, then k, as represented by the following formula, is 0: k = m -(1 × p1 + 2 × p2 + 3 × p3 + 4 × p4) (where, the total of p1 to p4 is 1 or more). this module having at least one power generation unit in which at least one bypass diode is connected in parallel to n number (where n represents an integer of 1 to 4) of dye-sensitized solar cells among the plurality of dye-sensitized solar cells, and in that: when the total number of the plurality of dye-sensitized solar cells connected in series is represented by m (where m represents an integer of 2 or more), the number of power generation units in which n is 1 is represented by p1 (where p1 represents an integer of 0 or more), the number of power generation units in which n is 2 is represented by p2 (where p2 represents an integer of 0 or more), the number of power generation units in which n is 3 is represented by p3 (where p3 represents an integer of 0 or more), the number of power generation units in which n is 4 is represented by p4 (where p4 represents an integer of 0 or more), and the number of the dye-sensitized solar cells to which the bypass diodes are not connected in parallel is represented by k, then k, as represented by the following formula, is 0: k = m -(1 × p1 + 2 × p2 + 3 × p3 + 4 × p4) (where, the total of p1 to p4 is 1 or more).
A gliding yaw bearing system for use in a wind turbine comprising: a first bearing part configured for being attached to a tower of the wind turbine; and a second bearing part configured for being attached to a nacelle of the wind turbine; wherein an upwind section of the second bearing part is different from a downwind section of the second bearing part characterized in that the downwind section of the second bearing part is configured to support higher bending loads. a first bearing part configured for being attached to a tower of the wind turbine; and a second bearing part configured for being attached to a nacelle of the wind turbine; wherein an upwind section of the second bearing part is different from a downwind section of the second bearing part characterized in that the downwind section of the second bearing part is configured to support higher bending loads.
A method of detecting nucleic acids, comprising the steps of: bringing a sample containing the nucleic acids into contact with solid copper in a powder form to form a composite of the nucleic acids and Cu ions, and detecting fluorescence emitted from the composite of the nucleic acids and the Cu ions. bringing a sample containing the nucleic acids into contact with solid copper in a powder form to form a composite of the nucleic acids and Cu ions, and detecting fluorescence emitted from the composite of the nucleic acids and the Cu ions.
Use of a powder as a setting accelerator for a dry mortar blend, the powder comprising calcium nitrate, wherein the powder has a water content between 0,1% and 20% and a particle size of 0.1 mm to 1 mm.
A capacitor holder, comprising: a holding portion made of a resin to have a cylindrical inner wall surface, at least an outer peripheral portion of the inner wall surface being open, the holding portion being configured to hold a cylindrical capacitor inserted through the opening into an inside of the inner wall surface while elastically deforming the resin; a fixed portion formed of the resin integrally with the holding portion and positioned opposite to the opening of the holding portion; a pair of fitting grooves formed at a pair of end surfaces of the fixed portion opposed to each other adjacent to the holding portion, the pair of fitting grooves being configured to fittably engage with end edges of a hole in a printed circuit board to extend along a surface of the printed circuit board, and a cross-sectional shape of each of the pair of fitting grooves being rectangular with one side opened; and a proximity suppressor formed of the resin as a part of the fixed portion and configured to suppress portions of the fixed portion where the fitting grooves are formed from being brought into proximity each other. a holding portion made of a resin to have a cylindrical inner wall surface, at least an outer peripheral portion of the inner wall surface being open, the holding portion being configured to hold a cylindrical capacitor inserted through the opening into an inside of the inner wall surface while elastically deforming the resin; a fixed portion formed of the resin integrally with the holding portion and positioned opposite to the opening of the holding portion; a pair of fitting grooves formed at a pair of end surfaces of the fixed portion opposed to each other adjacent to the holding portion, the pair of fitting grooves being configured to fittably engage with end edges of a hole in a printed circuit board to extend along a surface of the printed circuit board, and a cross-sectional shape of each of the pair of fitting grooves being rectangular with one side opened; and a proximity suppressor formed of the resin as a part of the fixed portion and configured to suppress portions of the fixed portion where the fitting grooves are formed from being brought into proximity each other.
Application unit for direct or indirect application of a coating medium to a running material web, composed in particular of paper or cardboard, having a carrying beam for guiding and positioning an elongate coating apparatus for dispensing coating medium over a machine width, wherein, for the purpose of thermal deflection compensation, the carrying beam comprises an outer tube, which has an outer wall and an inner wall, with an inner tube arranged therein, wherein a space flowed through by liquid is formed between the outer and inner tubes (8, 9), the coating apparatus is supported on the carrying beam in a thermally decoupled manner, for which purpose a plurality of individual rib-like elements (12, 13) is fastened to the carrying beam, which rib-like elements are spaced apart from one another and have in each case at least two carrying elements (14, 15) for an at least 70% division of a bearing of load, made up of weight force and operating force, of the coating device mounted on the rib-like elements (12, 13), the carrying elements (14, 15) have bearing surfaces (16, 17) which are formed from a plate-like insulating material for thermal shielding, and one rib-like element is in the form of a fixed bearing and the remaining rib-like elements are in the form of floating bearings for compensation of thermal changes in length between carrying beam and coating apparatus, characterized in that the coating apparatus is guided and positioned via a pin connection at the rib-like elements (12, 13), and the rib-like element in the form of a floating bearing has an elongate hole in the supporting bearing surface for axial thermal length compensation between coating apparatus and rib-like element.
A method of bending a photonic sensor chip comprising: placing a substantially flat photonic sensor chip (100, 304, 402, 500, 700) on a recessed surface of a mold (306, 502, 602, 702, 800, 900) such that an active region (104, 204, 308, 404, 504) of the photonic sensor chip (100, 304, 402, 500, 700) at least partially covers a concave central region (316, 1006) of the mold and an inactive region (108, 208, 310, 406, 506) of the photonic sensor chip (100, 304, 402, 500, 700) at least partially covers a convex peripheral region (318, 806, 906) of the mold, wherein the mold (306, 502, 602, 702, 800, 900) has a radially varying curvature and the recessed surface includes the concave central region (316, 1006) and the convex peripheral region (318, 806, 906) concentrically surrounding the concave central region (316, 1006); and applying pressure on the photonic sensor chip (100, 304, 402, 500, 700) to press and bend the photonic sensor chip (100, 304, 402, 500, 700) into the mold (316, 1006). placing a substantially flat photonic sensor chip (100, 304, 402, 500, 700) on a recessed surface of a mold (306, 502, 602, 702, 800, 900) such that an active region (104, 204, 308, 404, 504) of the photonic sensor chip (100, 304, 402, 500, 700) at least partially covers a concave central region (316, 1006) of the mold and an inactive region (108, 208, 310, 406, 506) of the photonic sensor chip (100, 304, 402, 500, 700) at least partially covers a convex peripheral region (318, 806, 906) of the mold, wherein the mold (306, 502, 602, 702, 800, 900) has a radially varying curvature and the recessed surface includes the concave central region (316, 1006) and the convex peripheral region (318, 806, 906) concentrically surrounding the concave central region (316, 1006); and applying pressure on the photonic sensor chip (100, 304, 402, 500, 700) to press and bend the photonic sensor chip (100, 304, 402, 500, 700) into the mold (316, 1006).
Use of a pharmaceutically acceptable salt of trans-[tetrachlorobis(1H-indazole)ruthenate] for the manufacture of a medicament for treating, preventing, or delaying the onset of, gastric cancer.
Method for gasification of biomass, wherein in a first method step, the biomass is oxidised substoichiometrically in an oxidation zone by the supply of an oxygen-containing gas, whereby a raw gas and a carbon-containing residue are produced, wherein in a second method step, the carbon-containing residue is partially gasified with gas constituents of the raw gas in a gasification zone, whereby activated carbon and a hot product gas are produced, characterised in that in a third method step, the activated carbon and the hot product gas are cooled in a cooling zone so that an adsorption process takes place in which the activated carbon is enriched with tar from the hot product gas.