mhurhangee/ep-ind-claims huggingface dataset:
Agricultural spreading machine with a tank for storing granular material such as seeds or fertiliser, and a distribution unit, which is connected by way of a supply line to the tank and connected by way of spreading lines to a number of spreading elements, wherein the distribution unit is supported by a connecting rod arrangement on folding machine wings (14, 15), which are mounted foldably between a lowered working position and a raised headland and/or transport position, characterised in that the connecting rod arrangement comprises two connecting rods (9, 10), which are each coupled articulatedly on the one hand to the distribution unit and articulatedly on the other hand to one of the machine wings (14, 15), wherein the distribution unit is guided by a linear guide when adjusting the machine wings (14, 15) between the working and transport positions and is held upright and centrally between the machine wings (14, 15) both in the working and transport positions.
Handling apparatus in the form of a linear, gripping, clamping, rotary or pivoting device, comprising a main housing, comprising at least one actuator that is movably arranged in the main housing, comprising an axially extending cylinder and a piston that is movement-coupled to the actuator, which piston is arranged so as to be axially movable in the cylinder, a valve being arranged, which is connected to the cylinder on one face of the piston, it being possible for either a pressure source or a reference pressure source, in particular atmospheric pressure, to be connected to the cylinder by means of the valve in order to influence an axial position of the piston, a switching valve being arranged in a connection between the valve and the cylinder in order to selectively open or close the connection, characterized in that an integrated control device is provided which is designed to specify switching time points for the valves (106, 110) in order to move the piston axially into a specifiable position for a target position of the actuator and which control device is further designed, depending on the target position of the actuator, to specify at least one switching time point for the switching valve at which the switching valve is closed.
A scissor gear assembly (1; 21) comprising: - a main gear (3; 23) provided with main teeth (4; 24) having a top radius and a foot radius; - an auxiliary gear (5; 25) being concentric to the main gear and being in axial direction near the main gear, said auxiliary gear being provided with auxiliary teeth (6; 26) having a top radius and a foot radius; and - at least one resilient element (7; 27) in between both gears and having two ends (7a, 7b), one of them being in contact with the main gear and the other with the auxiliary gear, characterized in that at least one part of a circumference of the auxiliary gear (5; 25) has a circumferential radius being equal to or smaller than the foot radius of the main gear (3; 23) and the remaining part of the circumference of the auxiliary gear being provided with the auxiliary teeth (6; 26) and has a top radius greater than the foot radius of the main gear. - a main gear (3; 23) provided with main teeth (4; 24) having a top radius and a foot radius; - an auxiliary gear (5; 25) being concentric to the main gear and being in axial direction near the main gear, said auxiliary gear being provided with auxiliary teeth (6; 26) having a top radius and a foot radius; and - at least one resilient element (7; 27) in between both gears and having two ends (7a, 7b), one of them being in contact with the main gear and the other with the auxiliary gear, characterized in that at least one part of a circumference of the auxiliary gear (5; 25) has a circumferential radius being equal to or smaller than the foot radius of the main gear (3; 23) and the remaining part of the circumference of the auxiliary gear being provided with the auxiliary teeth (6; 26) and has a top radius greater than the foot radius of the main gear.
A carbon material for nonaqueous-electrolyte secondary-battery negative electrode, which is a multilayered carbon material which includes graphitic particles and amorphous carbon that covers the surface of the graphitic particles and satisfies the following to: the carbon material has an aspect ratio of 10 or less, determined as specified in the description; the carbon material has a specific surface area of 0.5-8 m 2 /g, determined by the BET one-point method based on nitrogen adsorption; the carbon material has a volume-based average particle diameter d50 of 2-50 μm, determined with a laser diffraction-type particle size distribution analyzer as specified in the description and the carbon material has an average degree of circularity of 0.88-1, determined with flow type particle anaylzer as specified in the description, the average degree of circularity is the average of the degrees of circularity obtained for particles in the range of 1.5-40 μm; the carbon material has a raman R value between 0.25 or more and 0.5 or less, determined by Raman spectral analysis using argon ion laser light having a wavelength of 514.5 nm; characterized in that the amount of CO eliminated from the carbon material during heating from room temperature to 1,000°C at a heating rate of 20 °C/min while passing helium gas thereover at a rate of 60 ml/min, as determined with a temperature programmed decomposition mass spectrometer (TPD-MS), is 2-15 μmol/g. the carbon material has an aspect ratio of 10 or less, determined as specified in the description; the carbon material has a specific surface area of 0.5-8 m 2 /g, determined by the BET one-point method based on nitrogen adsorption; the carbon material has a volume-based average particle diameter d50 of 2-50 μm, determined with a laser diffraction-type particle size distribution analyzer as specified in the description and the carbon material has an average degree of circularity of 0.88-1, determined with flow type particle anaylzer as specified in the description, the average degree of circularity is the average of the degrees of circularity obtained for particles in the range of 1.5-40 μm; the carbon material has a raman R value between 0.25 or more and 0.5 or less, determined by Raman spectral analysis using argon ion laser light having a wavelength of 514.5 nm; characterized in that the amount of CO eliminated from the carbon material during heating from room temperature to 1,000°C at a heating rate of 20 °C/min while passing helium gas thereover at a rate of 60 ml/min, as determined with a temperature programmed decomposition mass spectrometer (TPD-MS), is 2-15 μmol/g.
An on-skin sensor assembly and an applicator (7100; 8100-8500) for applying the on-skin sensor assembly to a skin of a host, the applicator (7100; 8100-8500) comprising: a first body (7108; 8108; 8208) releasably coupled to a needle (7174; 8274); a second body (7124; 8124; 8224) releasably coupled to the first body (7108; 8108; 8208) by a frictional engagement; and a spring (7112; 8212) configured to provide a first force to the second body (7124; 8124; 8224), the first force driving the first body (7108; 8108; 8208), the second body (7124; 8124; 8224) and the on-skin sensor assembly in a distal direction; wherein the frictional engagement is configured to be decoupled by a counter force applied to the on-skin sensor assembly in an opposite direction of the first force. a first body (7108; 8108; 8208) releasably coupled to a needle (7174; 8274); a second body (7124; 8124; 8224) releasably coupled to the first body (7108; 8108; 8208) by a frictional engagement; and a spring (7112; 8212) configured to provide a first force to the second body (7124; 8124; 8224), the first force driving the first body (7108; 8108; 8208), the second body (7124; 8124; 8224) and the on-skin sensor assembly in a distal direction; wherein the frictional engagement is configured to be decoupled by a counter force applied to the on-skin sensor assembly in an opposite direction of the first force.
A color mapping method of mapping an input image signal into an output image signal for a display comprising display pixels (Pi) having three or more sub-pixels (RP, GP, BP, YP) with primary colors (RW, GW, BW, YW) defining a display color gamut, the method comprises: gamut mapping the input image signal having input pixel colors defined by an input luminance and an input chromaticity (x, y) to obtain a mapped image signal having corresponding mapped pixel colors defined by a mapped luminance (Ym) and a mapped chromaticity (xm, ym), the input pixel colors lying within an input color gamut different from the display color gamut; retrieving a first looked-up luminance Y1 by looking up a stored luminance in a look-up table at the mapped chromaticity (xm, ym) of the mapped image signal, wherein the first looked-up luminance Y1 is a maximum luminance of a reflective object which has a color corresponding to the mapped chromaticity (xm, ym); retrieving a second looked-up luminance Y2 by looking up the stored luminance in the look-up table at the input chromaticity (x, y) of the input signal, wherein the second looked-up luminance Y2 is a maximum luminance of a reflective object which has a color corresponding to the input chromaticity (x, y); and adapting the mapped luminance (Ym) by using a factor G to obtain an output luminance (Ys), wherein an image output signal is defined by the mapped chromaticity (xm, ym) and the output luminance (Ys), and wherein the adapting the mapped luminance (Ym) comprises scaling the mapped luminance (Ym) by the factor G being equal to Y2 / Y1. gamut mapping the input image signal having input pixel colors defined by an input luminance and an input chromaticity (x, y) to obtain a mapped image signal having corresponding mapped pixel colors defined by a mapped luminance (Ym) and a mapped chromaticity (xm, ym), the input pixel colors lying within an input color gamut different from the display color gamut; retrieving a first looked-up luminance Y1 by looking up a stored luminance in a look-up table at the mapped chromaticity (xm, ym) of the mapped image signal, wherein the first looked-up luminance Y1 is a maximum luminance of a reflective object which has a color corresponding to the mapped chromaticity (xm, ym); retrieving a second looked-up luminance Y2 by looking up the stored luminance in the look-up table at the input chromaticity (x, y) of the input signal, wherein the second looked-up luminance Y2 is a maximum luminance of a reflective object which has a color corresponding to the input chromaticity (x, y); and adapting the mapped luminance (Ym) by using a factor G to obtain an output luminance (Ys), wherein an image output signal is defined by the mapped chromaticity (xm, ym) and the output luminance (Ys), and wherein the adapting the mapped luminance (Ym) comprises scaling the mapped luminance (Ym) by the factor G being equal to Y2 / Y1.
Guard rail assembly used, in particular, as a vehicle restraint system on a carriageway, wherein at least one guard rail strand consisting of guard rails butted together in a row is arranged at a vertical distance to a surface of a subsurface and is fastened to posts, wherein the posts are formed in the vertical direction in two parts consisting of an anchor post embedded in the subsurface and a retention post and a flange plate is arranged on an upper end of the anchor post and that a flange plate is arranged on the retention post on a lower end, wherein both flange plates (12, 13) abut in a flat manner against one another and are coupled with one another and wherein the coupling takes place by means of screw bolts, characterised in that the flange plate of the anchor post has internal threads, wherein the screw bolts are screwed into the internal threads so as to engage through the flange plate of the retention post, whereby a shear effect of the screw bolts is supported in the event of a lateral impact of a motor vehicle.
A peritoneal dialysis system comprising: a cycler including a pump actuator; a disposable set including a pumping portion operable with the pump actuator, a patient line positioned to fluidly communicate with the pumping portion, and a drain container positioned to fluidly communicate with the pumping portion; and a control unit, characterized in that the control unit is configured to cause the pump actuator to actuate the pumping portion (i) to run a peritoneal dialysis treatment in which fresh dialysis fluid is pumped through the patient line to a patient and used dialysis fluid is pumped from the patient to the drain container, and (ii) at the end of the peritoneal dialysis treatment, to pump the used dialysis fluid from the drain container, through the patient line, to a house drain. a cycler including a pump actuator; a disposable set including a pumping portion operable with the pump actuator, a patient line positioned to fluidly communicate with the pumping portion, and a drain container positioned to fluidly communicate with the pumping portion; and a pumping portion operable with the pump actuator, a patient line positioned to fluidly communicate with the pumping portion, and a drain container positioned to fluidly communicate with the pumping portion; and a control unit, characterized in that the control unit is configured to cause the pump actuator to actuate the pumping portion (i) to run a peritoneal dialysis treatment in which fresh dialysis fluid is pumped through the patient line to a patient and used dialysis fluid is pumped from the patient to the drain container, and (ii) at the end of the peritoneal dialysis treatment, to pump the used dialysis fluid from the drain container, through the patient line, to a house drain.
A turbine rotor assembly, comprising: (a) a rotor element (26,40) including an annular first hub surface (30,46) and an annular first flange (32,48) surrounding the first hub surface, spaced away from the first hub surface so as to define a first pocket (34,50); and (b) at least one balance weight (60,160) disposed in the first pocket, comprising: (i) a block-like centerbody (62,162); (ii) a pair of resilient spring arms (64,164) extending laterally from opposite sides of the centerbody, the centerbody and the spring arms collectively defining an arcuate shape; and (iii) at least one locating feature (68,168) extending radially outward from the balance weight; (c) wherein the spring arms and the centerbody resiliently bear against the first flange and the first hub surface, respectively, so as to retain the balance weight in the first pocket. (a) a rotor element (26,40) including an annular first hub surface (30,46) and an annular first flange (32,48) surrounding the first hub surface, spaced away from the first hub surface so as to define a first pocket (34,50); and (b) at least one balance weight (60,160) disposed in the first pocket, comprising: (i) a block-like centerbody (62,162); (ii) a pair of resilient spring arms (64,164) extending laterally from opposite sides of the centerbody, the centerbody and the spring arms collectively defining an arcuate shape; and (iii) at least one locating feature (68,168) extending radially outward from the balance weight; (i) a block-like centerbody (62,162); (ii) a pair of resilient spring arms (64,164) extending laterally from opposite sides of the centerbody, the centerbody and the spring arms collectively defining an arcuate shape; and (iii) at least one locating feature (68,168) extending radially outward from the balance weight; (c) wherein the spring arms and the centerbody resiliently bear against the first flange and the first hub surface, respectively, so as to retain the balance weight in the first pocket.
An apparatus configured for wireless communication, comprising: a communication interface for exchanging wireless signals with a base station; a memory for storing instructions configured to provide hybrid automatic repeat request, HARQ, functions for a wireless communication; and a data processor for executing modules to implement the instructions, the modules comprising: a buffering module that obtains multiple data signals received by the communication interface within a feedback response window of a HARQ process; and an analysis module for comparing a receive energy of at least one signal of the multiple data signals with a target signal to noise ratio, SNR, level and for combining the multiple data signals for decoding if the receive energy of said at least one signal of the multiple data signals is below said target signal to noise ratio, SNR, level, wherein the analysis module decodes a control channel instruction that contains information on locating and decoding the multiple data signals, or re-transmissions thereof. a communication interface for exchanging wireless signals with a base station; a memory for storing instructions configured to provide hybrid automatic repeat request, HARQ, functions for a wireless communication; and a data processor for executing modules to implement the instructions, the modules comprising: a buffering module that obtains multiple data signals received by the communication interface within a feedback response window of a HARQ process; and an analysis module for comparing a receive energy of at least one signal of the multiple data signals with a target signal to noise ratio, SNR, level and for combining the multiple data signals for decoding if the receive energy of said at least one signal of the multiple data signals is below said target signal to noise ratio, SNR, level, wherein the analysis module decodes a control channel instruction that contains information on locating and decoding the multiple data signals, or re-transmissions thereof. a buffering module that obtains multiple data signals received by the communication interface within a feedback response window of a HARQ process; and an analysis module for comparing a receive energy of at least one signal of the multiple data signals with a target signal to noise ratio, SNR, level and for combining the multiple data signals for decoding if the receive energy of said at least one signal of the multiple data signals is below said target signal to noise ratio, SNR, level, wherein the analysis module decodes a control channel instruction that contains information on locating and decoding the multiple data signals, or re-transmissions thereof.
An method of reproducing audio using an output transducer, the method comprising: mapping a difference between a grade describing a quality of a first transducer to be modelled and a grade describing a quality of a second, different, audio transducer to be used as the output transducer to an empirical difference value expressed in phon; providing a plurality of equal loudness contour tables, each equal loudness contour table defining a dependency between sound pressure level and frequency, resulting in sounds of equal loudness, wherein the plurality of equal loudness contour tables comprises at least one table for sounds of a notional negative loudness; selecting a first equal loudness contour table from the plurality of equal loudness contour tables, wherein the selected first equal loudness contour table corresponds to a target audio reproduction level; selecting a second equal loudness contour table from the plurality of equal loudness contour tables, wherein the selected second equal loudness contour table corresponds to an audio level value obtained by subtracting the difference value from the target audio reproduction level; generating a required spectral weighting profile from the first and second selected equal loudness contour tables to represent a difference in frequency response between the first audio transducer and the second audio transducer; applying a spectral weighting to an audio signal in dependence upon the generated spectral weighting profile; and reproducing the spectrally weighted audio signal using the second audio transducer at the audio reproduction level. mapping a difference between a grade describing a quality of a first transducer to be modelled and a grade describing a quality of a second, different, audio transducer to be used as the output transducer to an empirical difference value expressed in phon; providing a plurality of equal loudness contour tables, each equal loudness contour table defining a dependency between sound pressure level and frequency, resulting in sounds of equal loudness, wherein the plurality of equal loudness contour tables comprises at least one table for sounds of a notional negative loudness; selecting a first equal loudness contour table from the plurality of equal loudness contour tables, wherein the selected first equal loudness contour table corresponds to a target audio reproduction level; selecting a second equal loudness contour table from the plurality of equal loudness contour tables, wherein the selected second equal loudness contour table corresponds to an audio level value obtained by subtracting the difference value from the target audio reproduction level; generating a required spectral weighting profile from the first and second selected equal loudness contour tables to represent a difference in frequency response between the first audio transducer and the second audio transducer; applying a spectral weighting to an audio signal in dependence upon the generated spectral weighting profile; and reproducing the spectrally weighted audio signal using the second audio transducer at the audio reproduction level.
Storage tank of a metering system for the introduction of a reducing agent into an exhaust gas section of an internal combustion engine, the storage tank having at least one opening for internals (20, 24) and openings (46, 48, 62) for filling and emptying and for aerating/ventilating, all of the openings (46, 48, 50, 62) being arranged above a region of the storage tank which is flooded by the reducing agent, and an emptying opening lying in the tank roof of the storage tank, and attachment components being arranged on the tank roof, and the fasteners thereof lying on the outer side of the tank roof within that region of the storage tank which is not flooded by the reducing agent, the at least one opening for mounting of a splash pot and/or heating element, openings for an inlet, a return (38, 58), openings (46, 48) for filling and emptying, at least one opening for aerating/ventilating and a leadthrough for electric contacts being configured in the tank roof or a flange, and lying outside a region of the storage tank which is flooded by the reducing agent, the splash pot enclosing a pot wall which stands up right on the inner side of the tank bottom.