mhurhangee/ep-ind-claims huggingface dataset:
Device (1, 2) for applying a bandage around a limb, the device (1, 2) being a handheld device having a grip for allowing a user of the device (1, 2) to take hold of the device (1, 2), and the device (1, 2) comprising - a rotatable support for supporting a bandage roll; - a motor for driving the support; - a bidirectional drive circuit for driving the motor; - an interface (60, 61) for receiving first input information representing a desired tension of the bandage during a bandage applying process; - a detecting mechanism (70, 71, 72) for receiving second input information representing an actual tension of the bandage; and - a controller for controlling operation of the motor during a bandage applying process through the drive circuit, which is connected to both the interface (60, 61) for receiving the first input information from the interface (60, 61) and the detecting mechanism (70, 71, 72) for receiving the second input information from the detecting mechanism (70, 71, 72), which is configured to determine a value representing an output torque of the motor on the basis of the first and second input information, and which is connected to the drive circuit for setting the value in the drive circuit. - a rotatable support for supporting a bandage roll; - a motor for driving the support; - a bidirectional drive circuit for driving the motor; - an interface (60, 61) for receiving first input information representing a desired tension of the bandage during a bandage applying process; - a detecting mechanism (70, 71, 72) for receiving second input information representing an actual tension of the bandage; and - a controller for controlling operation of the motor during a bandage applying process through the drive circuit, which is connected to both the interface (60, 61) for receiving the first input information from the interface (60, 61) and the detecting mechanism (70, 71, 72) for receiving the second input information from the detecting mechanism (70, 71, 72), which is configured to determine a value representing an output torque of the motor on the basis of the first and second input information, and which is connected to the drive circuit for setting the value in the drive circuit.
An assembly for guiding a movable furniture part, preferably a sliding door or folding sliding door, on a stationary furniture part, preferably a furniture carcass, with - at least one guide system (4, 5) to be fastened to the stationary furniture part, and - a support on which the movable furniture part can be mounted pivotable and which can be or is connected movably to the at least one guide system (4, 5) for indirectly guiding the movable furniture part on the stationary furniture part, wherein the movable furniture part has a guide device, which is separate from the at least one guide system, for directly guiding the movable furniture part on the stationary furniture part, characterized in that the assembly comprises at least one adjusting device, by means of which at least one part of the guide device is adjustable relative to the stationary furniture part, preferably in a direction normal to a longitudinal extent of the at least one guide system (4, 5), wherein the adjusting device has an actuating element, by means of which the adjusting device is actuatable, preferably wherein the actuating element is implemented in the form of a screw, and that the adjusting device has a mounting device, on which at least one part of the guide device is mounted, wherein the mounting device is mounted movable in a recess of a connecting element, preferably wherein the connecting element is arranged on the stationary furniture part. - at least one guide system (4, 5) to be fastened to the stationary furniture part, and - a support on which the movable furniture part can be mounted pivotable and which can be or is connected movably to the at least one guide system (4, 5) for indirectly guiding the movable furniture part on the stationary furniture part,
A connecting device for electric motor testing, characterized in that an electric motor to be tested is placed in a thermostat, the connecting device penetrates a side wall of the thermostat and comprises a housing, a connecting shaft and at least two seals, the connecting shaft comprises a first section, a second section, and an intermediate section located between the first section and the second section, the first section, the second section and the intermediate section are integrally formed, the intermediate section is located inside the housing, and the first section and the second section are located outside the housing; the at least two seals are sleeved on an outer peripheral wall of the intermediate section and are in tight fit with the housing, and at least one sealed cavity is enclosed together by the at least two seals, the outer peripheral wall of the intermediate section and an inner wall of the housing, and is filled with compressed air to support the connecting shaft; and the first section is connected to a piece of external electric motor testing equipment outside a thermostat, and the second section is connected to the electric motor inside the thermostat. the connecting shaft comprises a first section, a second section, and an intermediate section located between the first section and the second section, the first section, the second section and the intermediate section are integrally formed, the intermediate section is located inside the housing, and the first section and the second section are located outside the housing; the at least two seals are sleeved on an outer peripheral wall of the intermediate section and are in tight fit with the housing, and at least one sealed cavity is enclosed together by the at least two seals, the outer peripheral wall of the intermediate section and an inner wall of the housing, and is filled with compressed air to support the connecting shaft; and the first section is connected to a piece of external electric motor testing equipment outside a thermostat, and the second section is connected to the electric motor inside the thermostat.
A phase shifter arrangement for an antenna, comprising: a pair of phase shifters, each phase shifter having a first wiper arm and a second wiper arm, the first and second wiper arms each including (i) a proximal end, (ii) a distal end, (iii) a pivot axis disposed between the proximal end and the distal end, and (iv) a drive pin slot disposed between the pivot axis and the proximal end, the first and second wiper arms (205a, 205b) each having a wiper arm conductive trace disposed on one side thereof, and the conductive trace being disposed between the pivot axis and the distal end, a drive shaft having a longitudinal axis and two drive pins disposed on opposite sides of the drive shaft a lateral distance from the longitudinal axis of the drive shaft and mechanically coupled to the drive shaft by a plurality of elongate struts, wherein each drive pin mechanically couples to a corresponding first wiper arm and second wiper arm of each of the pair of phase shifters, and wherein as the drive shaft translates along the longitudinal axis, each drive pin slides within the drive pin slots of the corresponding first and second wiper arms (205a, 205b), causing the first and second wiper arms to rotate in unison about their corresponding pivot axes, wherein each first wiper arm has a first step feature disposed between its pivot axis and its drive pin slot, and each second wiper arm has a second step feature disposed between its pivot axis and its drive pin slot, wherein the second step feature is greater in height than the first step feature. a pair of phase shifters, each phase shifter having a first wiper arm and a second wiper arm, the first and second wiper arms each including (i) a proximal end, (ii) a distal end, (iii) a pivot axis disposed between the proximal end and the distal end, and (iv) a drive pin slot disposed between the pivot axis and the proximal end, the first and second wiper arms (205a, 205b) each having a wiper arm conductive trace disposed on one side thereof, and the conductive trace being disposed between the pivot axis and the distal end, a drive shaft having a longitudinal axis and two drive pins disposed on opposite sides of the drive shaft a lateral distance from the longitudinal axis of the drive shaft and mechanically coupled to the drive shaft by a plurality of elongate struts, wherein each drive pin mechanically couples to a corresponding first wiper arm and second wiper arm of each of the pair of phase shifters, and wherein as the drive shaft translates along the longitudinal axis, each drive pin slides within the drive pin slots of the corresponding first and second wiper arms (205a, 205b), causing the first and second wiper arms to rotate in unison about their corresponding pivot axes, wherein each first wiper arm has a first step feature disposed between its pivot axis and its drive pin slot, and each second wiper arm has a second step feature disposed between its pivot axis and its drive pin slot, wherein the second step feature is greater in height than the first step feature.
A four-stroke engine for a working machine with a rod, a tool being attached to one end of the rod in a longitudinal direction and the four-stroke engine being fixed to the other end of the rod in use, the four-stroke engine comprising: an oil circulation pathway; and a gas-liquid separating chamber configured to separate oil from blowby gas, the gas-liquid separating chamber including: an inflow part into which the blowby gas is introduced from the oil circulation pathway; oil discharge parts configured to flow the oil separated from the blowby gas back to the oil circulation pathway; and a blowby gas discharge part configured to discharge the blowby gas not containing oil mist from the gas-liquid separating chamber and supplies the blowby gas to an intake passageway to a combustion chamber, wherein the oil discharge parts are formed as openings on at least two corners in a lower part of the gas-liquid separating chamber in the longitudinal direction, characterised by the fact that liquefied oil in the gas-liquid separating chamber flows from the oil discharge parts back to a crank chamber through a reflux passageway. an oil circulation pathway; and a gas-liquid separating chamber configured to separate oil from blowby gas, the gas-liquid separating chamber including: an inflow part into which the blowby gas is introduced from the oil circulation pathway; oil discharge parts configured to flow the oil separated from the blowby gas back to the oil circulation pathway; and an inflow part into which the blowby gas is introduced from the oil circulation pathway; oil discharge parts configured to flow the oil separated from the blowby gas back to the oil circulation pathway; and a blowby gas discharge part configured to discharge the blowby gas not containing oil mist from the gas-liquid separating chamber and supplies the blowby gas to an intake passageway to a combustion chamber, wherein the oil discharge parts are formed as openings on at least two corners in a lower part of the gas-liquid separating chamber in the longitudinal direction, characterised by the fact that liquefied oil in the gas-liquid separating chamber flows from the oil discharge parts back to a crank chamber through a reflux passageway.
Portable polishing machine for polishing cylinders which includes: a centering support configured to be fixed on a cylinder support and a frame connected to the centering support and configured to support a tool holder spindle connectable to a tool for polishing cylinders, said spindle being connected slidingly to said frame and moved by motor means (13, 14),said centering support comprising a lower plate comprising an opening aligned with the mandrel for carrying tool, said lower plate being configured to be fixed on a cylinder support, said opening also being aligned with the cylinder so that said tool fits into the opening of the centering support and consequently in the cylinder aligned with it, and in use is configured to smooth the cylinder, centering support further comprising an upper plate to which the frame is connected, said upper plate being connected to the lower plate and comprising an opening obtained in correspondence with the opening of the lower plate so as to allow the tool holder spindle to slide with respect to the centering support in the aligned openings (31, 32), characterized in that the frame comprises a base rotatably connected to the upper plate of the centering support, to allow the rotation of the frame with respect to the centering support around a vertical axis Y, said opening having a shape such as to allow the passage of the mandrel during the rotation of the frame.
A system for real-time processing of a pointer movement provided by a pointing device, the system comprising: - an output for displaying a pointer (162, 164) at a first position (p 1) in an image (152, 154, 156), the image comprising a contour; - a user input for obtaining pointer movement data from a pointing device operable by a user, the pointer movement data being indicative of a pointer movement (v) of the pointer from the first position (p 1) to a second position (p 2) in the image; and - a processor configured for: - determining the contour in the image within the neighborhood of the first position, - dampening the pointer movement by (i) decomposing a vector (v) representing the pointer movement in a direction parallel to the contour and in a direction orthogonal to the contour and (ii) reducing a size of a component of the vector along the direction orthogonal to the contour to obtain a damped pointer movement (v d), and - establishing a third position (p 3) of the pointer based on the dampened pointer movement (v d); wherein the output is arranged for displaying the pointer at the third position (p 3) in the image (154, 156). - an output for displaying a pointer (162, 164) at a first position (p 1) in an image (152, 154, 156), the image comprising a contour; - a user input for obtaining pointer movement data from a pointing device operable by a user, the pointer movement data being indicative of a pointer movement (v) of the pointer from the first position (p 1) to a second position (p 2) in the image; and - a processor configured for: - determining the contour in the image within the neighborhood of the first position, - dampening the pointer movement by (i) decomposing a vector (v) representing the pointer movement in a direction parallel to the contour and in a direction orthogonal to the contour and (ii) reducing a size of a component of the vector along the direction orthogonal to the contour to obtain a damped pointer movement (v d), and - establishing a third position (p 3) of the pointer based on the dampened pointer movement (v d); - determining the contour in the image within the neighborhood of the first position, - dampening the pointer movement by (i) decomposing a vector (v) representing the pointer movement in a direction parallel to the contour and in a direction orthogonal to the contour and (ii) reducing a size of a component of the vector along the direction orthogonal to the contour to obtain a damped pointer movement (v d), and - establishing a third position (p 3) of the pointer based on the dampened pointer movement (v d);
A method for determining the sialylation content of a protein comprising: (a) preparing a protein for analysis; (b) enzymatically treating the prepared protein comprising: dividing the prepared protein into a plurality of protein samples comprising (i) at least one protein sample as a media sample (Reaction A); (ii) adding at least β-galactosidase to at least one protein sample (Reaction B); (iii)adding at least β-galactosidase, and α-sialidase to at least one other protein sample (Reaction C); and incubating the plurality of protein samples; and adding a deoxyribose standard to the plurality of protein samples; and (c) analyzing the plurality of protein samples using HPAEC-PAD chromatography; (d) determining a galactose content for the plurality of protein samples of reaction A, reaction B and reaction C; and (e) calculating a percent of sialylation for the protein using equation 1: Percent Capping % = Reaction C Total Gal − Reaction B Uncapped Gal Reaction C Total Gal − Reaction A Gal in media × 100 wherein reaction A (Gal in media), reaction B (Uncapped Gal) and reaction C (Total Gal) are the corrected galactose areas of reactions A, B and C, measured as the galactose area divided by the deoxyribose area. (a) preparing a protein for analysis; (b) enzymatically treating the prepared protein comprising: dividing the prepared protein into a plurality of protein samples comprising (i) at least one protein sample as a media sample (Reaction A); (ii) adding at least β-galactosidase to at least one protein sample (Reaction B); (iii)adding at least β-galactosidase, and α-sialidase to at least one other protein sample (Reaction C); and incubating the plurality of protein samples; and adding a deoxyribose standard to the plurality of protein samples; and dividing the prepared protein into a plurality of protein samples comprising (i) at least one protein sample as a media sample (Reaction A); (ii) adding at least β-galactosidase to at least one protein sample (Reaction B); (iii)adding at least β-galactosidase, and α-sialidase to at least one other protein sample (Reaction C); and (i) at least one protein sample as a media sample (Reaction A); (ii) adding at least β-galactosidase to at least one protein sample (Reaction B); (iii)adding at least β-galactosidase, and α-sialidase to at least one other protein sample (Reaction C); and incubating the plurality of protein samples; and adding a deoxyribose standard to the plurality of protein samples; and (c) analyzing the plurality of protein samples using HPAEC-PAD chromatography; (d) determining a galactose content for the plurality of protein samples of reaction A, reaction B and reaction C; and (e) calculating a percent of sialylation for the protein using equation 1: Percent Capping % = Reaction C Total Gal − Reaction B Uncapped Gal Reaction C Total Gal − Reaction A Gal in media × 100 wherein reaction A (Gal in media), reaction B (Uncapped Gal) and reaction C (Total Gal) are the corrected galactose areas of reactions A, B and C, measured as the galactose area divided by the deoxyribose area.
A secondary battery of an improved lead structure comprising: an electrode assembly including a cathode plate with a plurality of cathode tabs, an anode plate with a plurality of anode tabs, and a separator, stacked in an alternate manner; a battery casing to receive the electrode assembly; a cathode lead electrically connected to the plurality of cathode tabs; and an anode lead electrically connected to the plurality of anode tabs, wherein at least one electrode tab of the plurality of cathode tabs and the plurality of anode tabs is electrically connected to the corresponding electrode lead at a plurality of joints and the number of the electrode leads is smaller than the number of the joints between the electrode tab and the electrode lead, characterized in that: - the plurality of the cathode tabs have different locations and a plurality of the cathode leads are interposed between the cathode tabs for each location; and - the plurality of the anode tabs have different locations and a plurality of the anode leads are interposed between the anode tabs for each location. an electrode assembly including a cathode plate with a plurality of cathode tabs, an anode plate with a plurality of anode tabs, and a separator, stacked in an alternate manner; a battery casing to receive the electrode assembly; a cathode lead electrically connected to the plurality of cathode tabs; and an anode lead electrically connected to the plurality of anode tabs, wherein at least one electrode tab of the plurality of cathode tabs and the plurality of anode tabs is electrically connected to the corresponding electrode lead at a plurality of joints and the number of the electrode leads is smaller than the number of the joints between the electrode tab and the electrode lead, characterized in that: - the plurality of the cathode tabs have different locations and a plurality of the cathode leads are interposed between the cathode tabs for each location; and - the plurality of the anode tabs have different locations and a plurality of the anode leads are interposed between the anode tabs for each location. - the plurality of the cathode tabs have different locations and a plurality of the cathode leads are interposed between the cathode tabs for each location; and - the plurality of the anode tabs have different locations and a plurality of the anode leads are interposed between the anode tabs for each location.
A valve replacement device comprising a stent component that is radially compressible to a compressed state for delivery and radially expandable to a functional state, a plurality of valve leaflets mounted within the stent component, an inner skirt (28, 35) attached to the valve leaflets, the inner skirt extending at least partly within the stent component, and an outer skirt extending at least partly outside the stent component, wherein the inner skirt (28, 35) and the outer skirt are made of porcine pericardium. stent component that is radially compressible to a compressed state for delivery and radially expandable to a functional state, a plurality of valve leaflets mounted within the stent component, an inner skirt (28, 35) attached to the valve leaflets, the inner skirt extending at least partly within the stent component, and an outer skirt extending at least partly outside the stent component, wherein the inner skirt (28, 35) and the outer skirt are made of porcine pericardium.
Power-transmission belt or transport belt with a belt body or a cord-embedment zone made of a synthetic elastomer and with, embedded into the synthetic elastomer, at least one tension-member system made of a cord, between strands of which there is a material present which differs from the elastomer of the belt structure, where - the elastomer of the belt body is a polyurethane and - the tension-member system(s) comprise(s), or consist(s) of, carbon fibres, characterized in that - the material present between the strands of the tension-member-system cord a) consists of a post-curable, non-rubber-containing hydroxyaromatic-aldehyde resin, where the hydroxyaromatic is selected from the group consisting of resorcinol, phenol, hydroquinone, cresol, bisphenol A, or b) consists of reaction products of hydroxyaromatics or hydroxyaromatic-aldehyde compounds with isocyanates or isocyanate prepolymers. - the elastomer of the belt body is a polyurethane and - the tension-member system(s) comprise(s), or consist(s) of, carbon fibres, - the material present between the strands of the tension-member-system cord a) consists of a post-curable, non-rubber-containing hydroxyaromatic-aldehyde resin, where the hydroxyaromatic is selected from the group consisting of resorcinol, phenol, hydroquinone, cresol, bisphenol A, or b) consists of reaction products of hydroxyaromatics or hydroxyaromatic-aldehyde compounds with isocyanates or isocyanate prepolymers. a) consists of a post-curable, non-rubber-containing hydroxyaromatic-aldehyde resin, where the hydroxyaromatic is selected from the group consisting of resorcinol, phenol, hydroquinone, cresol, bisphenol A, or b) consists of reaction products of hydroxyaromatics or hydroxyaromatic-aldehyde compounds with isocyanates or isocyanate prepolymers.