mhurhangee/ep-ind-claims huggingface dataset:
Method (100; 150) for recognizing an erroneous detection of an object in an image, comprising: sensing an object in an image of a plurality of images; analyzing the plurality of images for determining a characteristic of the sensed object, wherein it is determined for each image of the plurality of images whether the respective image shows the sensed object, wherein the images of the plurality of images are time-sequential images, wherein, during the analysis of the plurality of images, it is determined, as a characteristic of the object, which image of the plurality of images is a first image where the object is shown for the first time, wherein, during the analysis of the plurality of images, it is determined, as a further characteristic of the object, in how many images of the plurality of images directly following the first image the object is shown, wherein, during the analysis of the plurality of images, it is determined, as a characteristic of the object, by how much a position or size of the sensed object has changed in an image following the first image compared to a position or size of the sensed object in the first image; and recognizing that the sensed object is an erroneous detection when the sensed object has been found for at least a predetermined period, and position and size changes lie below a predetermined threshold, and the image content limited by the sensed object changes maximally by a predetermined upper limit during this period. sensing an object in an image of a plurality of images; analyzing the plurality of images for determining a characteristic of the sensed object, wherein it is determined for each image of the plurality of images whether the respective image shows the sensed object, wherein the images of the plurality of images are time-sequential images, wherein, during the analysis of the plurality of images, it is determined, as a characteristic of the object, which image of the plurality of images is a first image where the object is shown for the first time, wherein, during the analysis of the plurality of images, it is determined, as a further characteristic of the object, in how many images of the plurality of images directly following the first image the object is shown, wherein, during the analysis of the plurality of images, it is determined, as a characteristic of the object, by how much a position or size of the sensed object has changed in an image following the first image compared to a position or size of the sensed object in the first image; and recognizing that the sensed object is an erroneous detection when the sensed object has been found for at least a predetermined period, and position and size changes lie below a predetermined threshold, and the image content limited by the sensed object changes maximally by a predetermined upper limit during this period.
A power supply stage, comprising: a plurality of amplifiers (202 1 -202 n) for amplifying an input signal, each amplifier receiving a power supply voltage; a common selection means for selecting one of a plurality of power supply voltages in dependence on a reference signal representing a desired power supply voltage; and a plurality of adjusting means (232 1 -232 n), corresponding to the plurality of amplifiers, adapted to generate an adjusted selected power supply voltage (120 1 -120 n) for a respective amplifier tracking the reference signal in dependence on the one selected power supply voltage and the reference signal. a plurality of amplifiers (202 1 -202 n) for amplifying an input signal, each amplifier receiving a power supply voltage; a common selection means for selecting one of a plurality of power supply voltages in dependence on a reference signal representing a desired power supply voltage; and a plurality of adjusting means (232 1 -232 n), corresponding to the plurality of amplifiers, adapted to generate an adjusted selected power supply voltage (120 1 -120 n) for a respective amplifier tracking the reference signal in dependence on the one selected power supply voltage and the reference signal.
A method executed by one or more computing devices for performing functional testing of software, wherein the method comprises: storing, by at least one of the one or more computing devices, a plurality of statements in a plurality of cells, the method being characterized in that: the plurality of cells being organized in a plurality of columns and a plurality of rows, wherein the plurality of columns include a verification column and wherein each statement in the verification column corresponds to an acceptance criterion for a step of a functional test of the software; storing, by at least one of the one or more computing devices, a plurality of mappings linking the plurality of cells to a plurality of blocks of executable code, wherein each mapping in the plurality of mappings links a unique cell in the plurality of cells with a corresponding unique block of executable code in the plurality of blocks of executable code and wherein each block of executable code is configured to execute one or more commands on the software; executing, by at least one of the one or more computing devices, the plurality of blocks of executable code to produce an output by iterating through the plurality of cells and executing each executable block of code linked to each corresponding cell without parsing any textual content within the plurality of cells; and transmitting, by at least one of the one or more computing devices, an indication of whether the software meets one or more acceptance criteria in the verification column based at least in part on the output. the plurality of cells being organized in a plurality of columns and a plurality of rows, wherein the plurality of columns include a verification column and wherein each statement in the verification column corresponds to an acceptance criterion for a step of a functional test of the software; storing, by at least one of the one or more computing devices, a plurality of mappings linking the plurality of cells to a plurality of blocks of executable code, wherein each mapping in the plurality of mappings links a unique cell in the plurality of cells with a corresponding unique block of executable code in the plurality of blocks of executable code and wherein each block of executable code is configured to execute one or more commands on the software; executing, by at least one of the one or more computing devices, the plurality of blocks of executable code to produce an output by iterating through the plurality of cells and executing each executable block of code linked to each corresponding cell without parsing any textual content within the plurality of cells; and transmitting, by at least one of the one or more computing devices, an indication of whether the software meets one or more acceptance criteria in the verification column based at least in part on the output.
Amorphous precipitated silica particles with an oil absorption value of 85 cm 3 /100g or less, a weight median particle diameter d 50 of less than 3 μm and a d 90 value, wherein 90% by weight of the particles have a diameter less than the d 90 value, of 6 μm or less, a d 99 value, wherein 99% by weight of the particles have a diameter less than the d 99 value, of 10 μm or less.
A drawer having a device for securing a movable rail of a pullout guide on the drawer, having a support arranged on the drawer, on which a U-shaped holder is provided, wherein the movable rail is insertable with a front end section into the U-shaped holder and the movable rail is lockable via at least one catch (8, 8') on the support and/or holder, which engages through at least one opening (21, 22) on the movable rail, wherein the drawer has a front panel, wherein the holder is supported indirectly or directly on the front panel with a support surface, characterized in that the support surface protrudes from the holder toward a front side and can be pressed against by the front panel or a component connected to the front panel in order to pre-tension the holder.
A tool for non-balanced friction stir welding for joining two adjacent work pieces, which work pieces with a limited access for the tool to the welding zone comprise portions to be welded, said tool having an axis of rotation, and comprising - a first shoulder limited by its circumference periphery, - a second shoulder limited by its circumference periphery, and - a pin arranged so as to connect the first and second shoulders, wherein said first shoulder has a first contact surface for friction heat generation to the work pieces to be joined during welding, said first contact surface having a first contact area (a 1) essentially perpendicular to the axis of rotation, and said second shoulder has a second contact surface for friction heat generation to an opposite surface of the same portions of the work pieces to be joined, said second contact surface having a second contact area (a 2) essentially perpendicular to the axis of rotation, characterized in that the first and second areas (a 1, a 2) have different sizes, where the first area (a 1) is a larger sized area, and the second area (a 2) is a smaller sized area, wherein the smaller sized area (a 2) is adapted for insertion in a narrow space between the work pieces, the portions forming the narrow space on one side and defining a surface by either the inclined walls (8,9) or by curved welded edges of a smaller radius and thus coming into contact with one side of the work pieces, and the larger sized area (a 1) of the first shoulder coming into contact with the opposite side of the work pieces is adapted to generate friction heat from the opposite side upon rotation, which friction heat is sufficient for plasticizing the work pieces material throughout the thickness of work piece at an appropriate production speed, and in that the pin cross section reduces in a direction from one shoulder towards the other shoulder. - a first shoulder limited by its circumference periphery, - a second shoulder limited by its circumference periphery, and - a pin arranged so as to connect the first and second shoulders, wherein said first shoulder has a first contact surface for friction heat generation to the work pieces to be joined during welding, said first contact surface having a first contact area (a 1) essentially perpendicular to the axis of rotation, and
A dust separation apparatus comprising a dust intake unit comprising a blower, an inertial separation unit, a centrifugal separation unit, and a filtering separation unit, wherein the dust intake unit, the inertial separation unit, the centrifugal separation unit, and the filtering separation unit are sequentially connected in series and together form a horizontal structure, the inertial separation unit and the centrifugal separation unit are connected in a horizontal-axis direction to form an inertial and centrifugal separation unit, a dust collection box is provided below and connected to the inertial and centrifugal separation unit, and the filtering separation unit comprises a dust collection barrel, wherein a conical guide block, a baffle, and a cyclone blade that are sequentially and fixedly connected are disposed inside a chamber of the inertial and centrifugal separation unit, the conical guide block is placed in the middle of the chamber, and a first air duct is formed at a periphery of the conical guide block; the baffle is provided with a cavity, a plurality of through holes are provided on a surface of the baffle, a second air duct is formed at an outer periphery of the baffle, and a third air duct is formed inside the cavity of the baffle; and the cyclone blade has a spiral form, the cyclone blade enables spiral movement of dust in dust-containing air that flows past it, a tangential direction of the spiral movement points to the dust collection box, a fourth air duct is formed at a periphery of the cyclone blade, the first air duct, the second air duct, the third air duct, and the fourth air duct are connected sequentially, and the second air duct is connected to the dust collection box, and wherein a conical flow-guide unit and a flow-guide outlet pipe are further disposed inside the chamber of the inertial and centrifugal separation unit, the conical flow-guide unit and the flow-guide outlet pipe are both located in the middle of the chamber, and a conical tip of the conical flow-guide unit is made to approach, be level with or enter a pipe port of the flow-guide outlet pipe; a fifth air duct is formed at a periphery of the conical flow-guide unit and the flow-guide outlet pipe, and a sixth air duct is formed inside the flow-guide outlet pipe; and the fifth air duct is connected to the fourth air duct, and the fifth air duct is connected to the dust collection box.
A capillary tube and a dryer for a refrigerator unit and/or a freezer unit, wherein the capillary tube forms a capillary tube winding in a part section by an at least partial winding up and is wound up onto the dryer, characterised in that a securing element is provided in the region of the capillary tube winding and represents an at least partial enveloping of the capillary tube winding wound onto the dryer so that disturbing noises due to a relative movement of parts of the capillary tube winding relative to one another and disturbing noises due to a relative movement of the capillary tube winding to the dryer are prevented or reduced.
Method for operating a broadband lambda probe, wherein the broadband lambda probe has a ceramic sensor element, which has an electrochemical pumping cell, an electrochemical Nernst cell, a diffusion barrier and a cavity, wherein the cavity communicates via the diffusion barrier with an exhaust gas, wherein the electrochemical pumping cell has an outer pumping electrode, which is directly exposed to the exhaust gas, and has an inner pumping electrode, which is arranged in the cavity, and has a first solid electrolyte, which is arranged between the outer pumping electrode and the inner pumping electrode, wherein the electrochemical Nernst cell has a Nernst electrode, which is arranged in the cavity, and has a reference electrode, which is arranged in a reference gas chamber, and has a second solid electrolyte, which is arranged between the Nernst electrode and the reference electrode, wherein a pumping voltage (Up) can be applied between the outer pumping electrode and the inner pumping electrode, so that a pumping current (Ip) flows, wherein a Nernst voltage (Un) can be measured between the Nernst electrode and the reference electrode, wherein a lambda value (λ) of a measuring gas can be detected on the basis of the pumping current, wherein the method comprises the following steps: - controlling the Nernst voltage (Un) to a predetermined setpoint value by adjusting the pumping voltage (Up) and/or the pumping current (Ip), - measuring the pumping voltage (Up), the pumping current (Ip) and/or the lambda value (λ), - forming pairs of measured values on the basis of measured values measured for the pumping voltage (Up), the pumping current (Ip) and/or the lambda value (λ), - calculating a regression line (314, 414, 514, 516) on the basis of the pairs of measured values to approximate a predetermined portion of a reference characteristic (300, 400, 500) of the pumping voltage (Up), and - ascertaining a pumping current offset and/or a lambda offset on the basis of the regression lines (314, 414, 514, 516). - controlling the Nernst voltage (Un) to a predetermined setpoint value by adjusting the pumping voltage (Up) and/or the pumping current (Ip), - measuring the pumping voltage (Up), the pumping current (Ip) and/or the lambda value (λ), - forming pairs of measured values on the basis of measured values measured for the pumping voltage (Up), the pumping current (Ip) and/or the lambda value (λ), - calculating a regression line (314, 414, 514, 516) on the basis of the pairs of measured values to approximate a predetermined portion of a reference characteristic (300, 400, 500) of the pumping voltage (Up), and - ascertaining a pumping current offset and/or a lambda offset on the basis of the regression lines (314, 414, 514, 516).
A pocketed spring for use within a mattress, providing a variable resistance as the pocketed spring is compressed, said pocketed spring comprising: a compression spring having an upper end convolution and a lower end convolution opposite the upper end convolution, and a plurality of helical intermediate convolutions between the upper end convolution and the lower end convolution; and a flexible enclosure including a top wall positioned adjacent to the upper end convolution of the compression spring, a bottom wall positioned adjacent to the lower end convolution of the compression spring, and a side wall that extends from the top wall to the bottom wall; characterized by a tension member connected to the flexible enclosure wherein the tension member is connected to the top wall of the flexible enclosure and the bottom wall of the flexible enclosure, such that the tension member extends through an interior of the flexible enclosure along a central longitudinal axis of the compression spring, such that the tension member works in opposition to the compression spring for a first portion of the spring's compression, and wherein the tension member is an elastic cable. a compression spring having an upper end convolution and a lower end convolution opposite the upper end convolution, and a plurality of helical intermediate convolutions between the upper end convolution and the lower end convolution; and a flexible enclosure including a top wall positioned adjacent to the upper end convolution of the compression spring, a bottom wall positioned adjacent to the lower end convolution of the compression spring, and a side wall that extends from the top wall to the bottom wall; characterized by a tension member connected to the flexible enclosure wherein the tension member is connected to the top wall of the flexible enclosure and the bottom wall of the flexible enclosure, such that the tension member extends through an interior of the flexible enclosure along a central longitudinal axis of the compression spring, such that the tension member works in opposition to the compression spring for a first portion of the spring's compression, and wherein the tension member is an elastic cable.
Process for manufacturing acrolein characterized in that it comprises selective elimination of propanal in an acrolein-rich stream by passing the said stream in gas phase in the presence of oxygen through a catalyst represented by the general formula: A a X b Y c Z d O e in which A is at least one cation selected from elements belonging to Group 1 to 16 of the Periodic Table of Elements and lanthanides, preferably one alkali metal cation such as cesium, rubidium or potassium X is P or Si, preferably P Y is Mo Z is at least one element selected from the group comprising W, Ti, Zr, V, Nb, Ta, Cr, Mn, Fe, Co, Ni, Cu, Zn, Ga, In, Tl, Sn, Ag, As, Ge, B, Bi, La, Ba, Sb, Te, Ce and Pb, preferably Fe, Bi, Co, Ni, W, V, Cr, Sb, Mn, Ce a, b, c and d satisfying following ranges: 0 ≤ a ≤ 9, preferably 0 < a ≤ 9 0 ≤ b ≤ 2 preferably 0.1 ≤ b ≤ 1.5 0 < c ≤ 12 preferably 5 < c ≤ 12 0 ≤ d < 12 preferably 0 ≤ d ≤ 4 with d ≠ 0 when b = 0 and e is a number determined by the oxidation of the elements said selective elimination of propanal meaning that propanal is more converted than acrolein on the bed of said catalyst and that propanal is not converted into propionic acid to an extend higher than 50%, and after selective elimination, the amount of propanal in said acrolein-rich stream being lower than 5000 ppm. A is at least one cation selected from elements belonging to Group 1 to 16 of the Periodic Table of Elements and lanthanides, preferably one alkali metal cation such as cesium, rubidium or potassium X is P or Si, preferably P Y is Mo Z is at least one element selected from the group comprising W, Ti, Zr, V, Nb, Ta, Cr, Mn, Fe, Co, Ni, Cu, Zn, Ga, In, Tl, Sn, Ag, As, Ge, B, Bi, La, Ba, Sb, Te, Ce and Pb, preferably Fe, Bi, Co, Ni, W, V, Cr, Sb, Mn, Ce a, b, c and d satisfying following ranges: 0 ≤ a ≤ 9, preferably 0 < a ≤ 9 0 ≤ b ≤ 2 preferably 0.1 ≤ b ≤ 1.5 0 < c ≤ 12 preferably 5 < c ≤ 12 0 ≤ d < 12 preferably 0 ≤ d ≤ 4 with d ≠ 0 when b = 0 and e is a number determined by the oxidation of the elements
A control apparatus for a continuously variable transmission including a lock-up clutch, comprising: learning means for learning a hydraulic fluid pressure of said lock-up clutch in a coasting state; and transmission control means for executing transmission ratio feedback control of said continuously variable transmission by increasing transmission gain when brake manipulation is detected in a coasting state as compared to when brake manipulation is not detected, said transmission control means including means for suppressing an amount of increase in said transmission gain after completion of learning of said hydraulic fluid pressure as compared to before completion. learning means for learning a hydraulic fluid pressure of said lock-up clutch in a coasting state; and transmission control means for executing transmission ratio feedback control of said continuously variable transmission by increasing transmission gain when brake manipulation is detected in a coasting state as compared to when brake manipulation is not detected, said transmission control means including means for suppressing an amount of increase in said transmission gain after completion of learning of said hydraulic fluid pressure as compared to before completion.
A pharmaceutically acceptable suspension comprising: a.) pharmaceutical grade water; b.) at least one processing enhancer; and c.) gold-platinum bi-metallic nanocrystals suspended in said water forming a suspension, wherein said gold-platinum bi-metallic nanocrystals: i.) have surfaces that include at least one characteristic selected from the group of characteristics consisting of: no organic chemical constituents adhered or attached to said surfaces and are substantially clean and do not have chemical constituents adhered or attached to surfaces, other than water, lysis products of water or said processing enhancer, none of which alter the functioning of said nanocrystals; ii.) have an average particle size of less than about 50nm; iii.) are present in said suspension at a total metal concentration of about 2-1000ppm; and d.) said suspension having a pH of between about 5 to about 12 and a zeta potential of at least about -30mv. a.) pharmaceutical grade water; b.) at least one processing enhancer; and c.) gold-platinum bi-metallic nanocrystals suspended in said water forming a suspension, wherein said gold-platinum bi-metallic nanocrystals: i.) have surfaces that include at least one characteristic selected from the group of characteristics consisting of: no organic chemical constituents adhered or attached to said surfaces and are substantially clean and do not have chemical constituents adhered or attached to surfaces, other than water, lysis products of water or said processing enhancer, none of which alter the functioning of said nanocrystals; ii.) have an average particle size of less than about 50nm; iii.) are present in said suspension at a total metal concentration of about 2-1000ppm; and i.) have surfaces that include at least one characteristic selected from the group of characteristics consisting of: no organic chemical constituents adhered or attached to said surfaces and are substantially clean and do not have chemical constituents adhered or attached to surfaces, other than water, lysis products of water or said processing enhancer, none of which alter the functioning of said nanocrystals; ii.) have an average particle size of less than about 50nm; iii.) are present in said suspension at a total metal concentration of about 2-1000ppm; and d.) said suspension having a pH of between about 5 to about 12 and a zeta potential of at least about -30mv.