mhurhangee/ep-ind-claims huggingface dataset:
Driving assistance method for a vehicle, in which in a training phase, the vehicle is steered by a driver through a setpoint course to a setpoint target position, and in the process setpoint course data are collected, in a replay phase, the vehicle is steered automatically through an actual course, in the process actual course data are collected, and the vehicle is steered by means of a comparison of actual course data with setpoint course data in such a way that the actual course is adapted to the setpoint course and ends in the region of the setpoint target position, and images of the surroundings of the vehicle are captured with a camera as setpoint course data at setpoint positions which are spaced apart equidistantly on a setpoint section of a route of the setpoint course, and edge segments, feature points and corresponding descriptors are determined from image processing for each image, characterized in that images of the surroundings of the vehicle are captured with a camera as actual course data at actual positions which are spaced apart equidistantly on an actual section of a route of the actual course, and edge segments, feature points and corresponding descriptors are determined from image processing for each image, and in that in the replay phase, given a known or specific relative orientation, the relative position and orientation at the current actual position is determined with respect to the setpoint course, by a triangulation of the actual position with two, in particular subsequent, positions on the setpoint course, in particular using an orientation at the actual position with respect to the two positions on the setpoint course. in a training phase, the vehicle is steered by a driver through a setpoint course to a setpoint target position, and in the process setpoint course data are collected, in a replay phase, the vehicle is steered automatically through an actual course, in the process actual course data are collected, and the vehicle is steered by means of a comparison of actual course data with setpoint course data in such a way that the actual course is adapted to the setpoint course and ends in the region of the setpoint target position, and images of the surroundings of the vehicle are captured with a camera as setpoint course data at setpoint positions which are spaced apart equidistantly on a setpoint section of a route of the setpoint course, and edge segments, feature points and corresponding descriptors are determined from image processing for each image,
An apparatus comprising: an eccentric bushing having a plurality of circumferentially disposed gear teeth; a secondary bushing disposed within the eccentric bushing; and an aperture disposed within the secondary bushing; an input gear having input gear teeth and an output gear having output gear teeth, wherein the input gear teeth and the output gear teeth are in meshed engagement, wherein the output gear teeth are configured to be placed into meshed engagement with the plurality of circumferentially disposed gear teeth, wherein rotation of the eccentric bushing causes rotation of the secondary bushing, wherein rotation of the secondary bushing causes the aperture to be displaced along a diameter of the eccentric bushing. an eccentric bushing having a plurality of circumferentially disposed gear teeth; a secondary bushing disposed within the eccentric bushing; and an aperture disposed within the secondary bushing; an input gear having input gear teeth and an output gear having output gear teeth, wherein the input gear teeth and the output gear teeth are in meshed engagement, wherein the output gear teeth are configured to be placed into meshed engagement with the plurality of circumferentially disposed gear teeth, wherein rotation of the eccentric bushing causes rotation of the secondary bushing, wherein rotation of the secondary bushing causes the aperture to be displaced along a diameter of the eccentric bushing.
A multi-component copolymer, containing a conjugated diene unit, a non-conjugated olefin unit and an aromatic vinyl unit, wherein: a main chain thereof consists of noncyclic structures, a content of the aromatic vinyl unit is 1 mol % or less, and melting enthalpy of a non-conjugated olefin portion as a chain unit constituted exclusively of the non-conjugated olefin unit is 25 J/g or less, and wherein the melting enthalpy of the non-conjugated olefin portion is determined as enthalpy (J/g) when the crystal melts at a temperature increasing rate of 10 °C/min in a temperature range of 0 °C to 140 °C according to JIS K 7121-1987 by using a differential scanning calorimeter. a main chain thereof consists of noncyclic structures, a content of the aromatic vinyl unit is 1 mol % or less, and melting enthalpy of a non-conjugated olefin portion as a chain unit constituted exclusively of the non-conjugated olefin unit is 25 J/g or less, and wherein the melting enthalpy of the non-conjugated olefin portion is determined as enthalpy (J/g) when the crystal melts at a temperature increasing rate of 10 °C/min in a temperature range of 0 °C to 140 °C according to JIS K 7121-1987 by using a differential scanning calorimeter.
A circumferential seal for a gas turbine engine, the circumferential seal comprising: a first beam; a second beam; and a seal shoe; characterised by at least one cradle feature between the first beam and second beam including raised portions (150,151) of the first beam and raised portions (152,153) of the second beam, wherein the raised portions of the first and second beams (110,115) form a channel between the first and second beams; and a beam spacer; wherein the beam spacer is an elongated element, the channel receives and secures the beam spacer along an axial depth of the circumferential seal, and the at least one cradle feature is configured to dampen at least one of beam (110,115) and seal shoe vibration of the circumferential seal. a first beam; a second beam; and a seal shoe; characterised by at least one cradle feature between the first beam and second beam including raised portions (150,151) of the first beam and raised portions (152,153) of the second beam, wherein the raised portions of the first and second beams (110,115) form a channel between the first and second beams; and a beam spacer; wherein the beam spacer is an elongated element, the channel receives and secures the beam spacer along an axial depth of the circumferential seal, and the at least one cradle feature is configured to dampen at least one of beam (110,115) and seal shoe vibration of the circumferential seal.
Apparatus for the additive production of three-dimensional objects by successive layer-by-layer selective exposure and associated successive layer-by-layer selective solidification of building material layers from an energy beam solidifiable building material, comprising: - an exposure device which is set up for the generation of an energy beam for successive layer-wise selective exposure and associated successive layer-wise selective solidification of building material layers from a means of energy beam solidifying building material, and - a measuring device designed as a themography camera for measuring a temperature, a temperature control device which forms part of a control unit, wherein the temperature control device comprises a temperature control or heating device, characterised in that the control unit is designed to measure by means of the measuring device, at least two measuring points a temperature locally and temporally multiple times, wherein the measuring points at least two at least partially formed of solidified building material three-dimensional objects or at least two resulting in the additive production of an additively produced object are assigned, wherein the control unit is designed to indicate a temperature measured at the at least two measuring points and local and/or temporal temperature gradients of the objects on one of the device associated display device, wherein the control unit for controlling the temperature control device is designed such that the temperature at one or more measuring or room points can be changed depending on the measured/average temperatures measured by the measuring device. - an exposure device which is set up for the generation of an energy beam for successive layer-wise selective exposure and associated successive layer-wise selective solidification of building material layers from a means of energy beam solidifying building material, and - a measuring device designed as a themography camera for measuring a temperature,
A method of providing a fiber reinforced braze, the method comprising: providing a substrate comprising a superalloy, wherein the superalloy comprises at least one of a nickel-based superalloy, a cobalt-based superalloy and an iron-based superalloy; disposing at least a first fiber reinforcement layer on the substrate, wherein the at least first fiber reinforcement layer comprises a fiber material; disposing at least a first braze layer on the at least first fiber reinforcement layer, wherein a melt temperature of the braze layer is lower than a melt temperature of the fiber material; wherein at least one of the braze layers comprise a pre-sintered preform, the pre-sintered preform further comprising a base alloy and a second alloy that have been sintered together at a temperature below their melting points to form an agglomerate and somewhat porous mass, the second alloy containing a melting point depressant to enable bonding of the pre-sintered preform to the substrate at temperatures below the melting point of the substrate; and, heating the at least first fiber reinforcement layer and the at least first braze layer to bond the fiber reinforced braze to the substrate. providing a substrate comprising a superalloy, wherein the superalloy comprises at least one of a nickel-based superalloy, a cobalt-based superalloy and an iron-based superalloy; disposing at least a first fiber reinforcement layer on the substrate, wherein the at least first fiber reinforcement layer comprises a fiber material; disposing at least a first braze layer on the at least first fiber reinforcement layer, wherein a melt temperature of the braze layer is lower than a melt temperature of the fiber material; wherein at least one of the braze layers comprise a pre-sintered preform, the pre-sintered preform further comprising a base alloy and a second alloy that have been sintered together at a temperature below their melting points to form an agglomerate and somewhat porous mass, the second alloy containing a melting point depressant to enable bonding of the pre-sintered preform to the substrate at temperatures below the melting point of the substrate; and, heating the at least first fiber reinforcement layer and the at least first braze layer to bond the fiber reinforced braze to the substrate.
A pool cleaner configured to clean a pool, the pool cleaner comprising: a housing; a driving assembly; a transmission assembly operably coupled to the driving assembly, the transmission assembly including a brush gear; at least one traction assembly operably coupled to the transmission assembly and configured to convey the housing across the pool; a mounting rod coupled to the brush gear; a clamp supported on the mounting rod; and a brush assembly removably coupled to the housing; wherein the pool cleaner has: a ready configuration in which the mounting rod is exposed through the clamp and configured to receive the brush assembly; a loaded configuration in which the brush assembly is positioned against the mounting rod; and a locked configuration in which the clamp holds the brush assembly against the mounting rod such that rotation of the brush gear is transferred to the brush assembly via the mounting rod. a housing; a driving assembly; a transmission assembly operably coupled to the driving assembly, the transmission assembly including a brush gear; at least one traction assembly operably coupled to the transmission assembly and configured to convey the housing across the pool; a mounting rod coupled to the brush gear; a clamp supported on the mounting rod; and a brush assembly removably coupled to the housing; wherein the pool cleaner has: a ready configuration in which the mounting rod is exposed through the clamp and configured to receive the brush assembly; a loaded configuration in which the brush assembly is positioned against the mounting rod; and a locked configuration in which the clamp holds the brush assembly against the mounting rod such that rotation of the brush gear is transferred to the brush assembly via the mounting rod. a ready configuration in which the mounting rod is exposed through the clamp and configured to receive the brush assembly; a loaded configuration in which the brush assembly is positioned against the mounting rod; and a locked configuration in which the clamp holds the brush assembly against the mounting rod such that rotation of the brush gear is transferred to the brush assembly via the mounting rod.
Ultralight and electronically powered tricycle including a chassis fitted with two front wheels and a drive rear wheel, a electric motor to lead that drive wheel, a suppy battery to provide the electrical power to that motor and a steering column based on the chassis and including a steering wheel designed to be driven by an user in order to control the direction and/or the speed of the tricycle, the tricycle is designed so that it could switch from an unfolded configuration, in which that steering column is in a position perceptibly perpendicular to that chassis and fixed to the latter so that the user sit on the chassis can drive that steering wheel of the tricycle, to a folded configuration in which that steering column is lowered to the chassis so that the user can grip the steering wheel to let the tricycle front wheels roll up and with the rear wheel lifted off the ground; That tricycle being characterised in that it includes a tachometer to measure the tricycle's speed and a control unit for deceleration/braking (20, 20bis) connected to that tachometer and adapted to control the transformation of said motor into a power generator provided by said battery when the speed of said motor exceeds a predetermined speed between 20km/h and 30km/h, so that the tricycle slows by the fact that said moteur become generator acts as a brake.
A system, comprising: a computer readable storage medium with computer executable instructions, including: a biophysical simulator configured to determine a fractional flow reserve, FFR, value; a processor configured to execute the biophysical simulator, which employs machine learning to determine the fractional flow reserve value with spectral computed tomography volumetric image data; and a display configured to display the determined fractional flow reserve value; characterized in that the biophysical simulator includes a feature extraction component configured to extract at least one feature from the spectral computed tomography volumetric image data, wherein the at least one extracted feature includes at least one of a spectrally enhanced myocardium deficit and a spectrally enhanced collateral flow; and a machine learning engine configured to find a function, the function mapping the at least one extracted feature onto FFR values and thereby to determine the FFR value at a predetermined location of a coronary tree by applying the function on a feature describing the predetermined location. a computer readable storage medium with computer executable instructions, including: a biophysical simulator configured to determine a fractional flow reserve, FFR, value; a processor configured to execute the biophysical simulator, which employs machine learning to determine the fractional flow reserve value with spectral computed tomography volumetric image data; and a display configured to display the determined fractional flow reserve value; characterized in that the biophysical simulator includes a feature extraction component configured to extract at least one feature from the spectral computed tomography volumetric image data, wherein the at least one extracted feature includes at least one of a spectrally enhanced myocardium deficit and a spectrally enhanced collateral flow; and a machine learning engine configured to find a function, the function mapping the at least one extracted feature onto FFR values and thereby to determine the FFR value at a predetermined location of a coronary tree by applying the function on a feature describing the predetermined location.
A method of preparing a vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound graft copolymer, the method comprising: preparing graft copolymer latex by graft-polymerizing 20 to 40 % by weight of an aromatic vinyl compound and 1 to 20 % by weight of a vinyl cyanide compound onto 50 to 70 % by weight of conjugated diene rubber latex having a solids content of 30 to 65 % by weight; and coagulating and aging the prepared graft copolymer latex by adding 0.04 to 0.27 parts by weight of a nonionic polymer coagulant as a first coagulant, and 0.47 to 1.65 parts by weight of a cationic polymer coagulant or 0.73 to 3.35 parts by weight of an anionic polymer coagulant as a second coagulant to 100 parts by weight (based on solids) of the prepared graft copolymer latex, wherein, when the second coagulant is the cationic polymer coagulant, a total weight of the nonionic polymer coagulant and the cationic polymer coagulant is 0.7 to 1.7 parts by weight, and when the second coagulant is the anionic polymer coagulant, a total weight of the nonionic polymer coagulant and the anionic polymer coagulant is 0.97 to 3.37 parts by weight. preparing graft copolymer latex by graft-polymerizing 20 to 40 % by weight of an aromatic vinyl compound and 1 to 20 % by weight of a vinyl cyanide compound onto 50 to 70 % by weight of conjugated diene rubber latex having a solids content of 30 to 65 % by weight; and coagulating and aging the prepared graft copolymer latex by adding 0.04 to 0.27 parts by weight of a nonionic polymer coagulant as a first coagulant, and 0.47 to 1.65 parts by weight of a cationic polymer coagulant or 0.73 to 3.35 parts by weight of an anionic polymer coagulant as a second coagulant to 100 parts by weight (based on solids) of the prepared graft copolymer latex, wherein, when the second coagulant is the cationic polymer coagulant, a total weight of the nonionic polymer coagulant and the cationic polymer coagulant is 0.7 to 1.7 parts by weight, and when the second coagulant is the anionic polymer coagulant, a total weight of the nonionic polymer coagulant and the anionic polymer coagulant is 0.97 to 3.37 parts by weight.
A multiple output switching circuit comprising: an input configured to receive power from a power source; a first output configured to provide a first output voltage; an inductor and a power switch connected between the input and first output; wherein the power switch is operable to transfer power from the input to the first output; the switching circuit further comprising: a second output configured to provide a second output voltage; a second switch coupled between the first output and the second output; and a second switch controller characterised in that the second switch controller is configured to provide the second switch with a second switch control signal such that power is transferred from the input to the second output when the first output voltage level reaches a first output threshold level, and in that the second switch controller comprises a comparator configured to compare a signal representative of the voltage level at the first output with a threshold value, and set the second switch control signal such that the second switch is operated when the voltage level at the first output reaches the first output threshold level. an input configured to receive power from a power source; a first output configured to provide a first output voltage; an inductor and a power switch connected between the input and first output; a second output configured to provide a second output voltage; a second switch coupled between the first output and the second output; and a second switch controller characterised in that the second switch controller is configured to provide the second switch with a second switch control signal such that power is transferred from the input to the second output when the first output voltage level reaches a first output threshold level, and in that the second switch controller comprises a comparator configured to compare a signal representative of the voltage level at the first output with a threshold value, and set the second switch control signal such that the second switch is operated when the voltage level at the first output reaches the first output threshold level.
A method for identifying marker proteins for the diagnosis and risk stratification of blood coagulation disorders, comprising the following steps: i.) providing blood, whole blood, blood serum or blood plasma containing thrombocytes, ii.) aliquoting into at least two aliquots, iii.) A. adding a thrombocyte activator to at least a first aliquot and B. adding a thrombocyte inhibitor to at least a second aliquot, and repeating the addition once or more, and optionally C. adding a thrombocyte activator and adding a thrombocyte inhibitor to at least a third aliquot, or vice versa, and optionally repeating the respective additions once or more, iv.) lysing the cells, in particular thrombocytes from iii.) A. B. and C. in the particular aliquot, v.) extracting the proteins and digesting them to form peptides by means of proteases, vi.) enriching and separating the phosphorylated peptides, vii.) performing an analysis by means of quantitative mass spectrometry, and evaluation, wherein phosphorylated peptides are selected which at the same time demonstrate an increased or reduced phosphorylation from iii.) A over time and which demonstrate, oppositely, reduced or increased phosphorylation from iii. B) over time and which optionally demonstrate a reduced or increased phosphorylation in comparison with phosphorylated peptides from iii.) C. i.) providing blood, whole blood, blood serum or blood plasma containing thrombocytes, ii.) aliquoting into at least two aliquots, iii.) A. adding a thrombocyte activator to at least a first aliquot and B. adding a thrombocyte inhibitor to at least a second aliquot, and repeating the addition once or more, and optionally C. adding a thrombocyte activator and adding a thrombocyte inhibitor to at least a third aliquot, or vice versa, and optionally repeating the respective additions once or more, A. adding a thrombocyte activator to at least a first aliquot and B. adding a thrombocyte inhibitor to at least a second aliquot, and repeating the addition once or more, and optionally C. adding a thrombocyte activator and adding a thrombocyte inhibitor to at least a third aliquot, or vice versa, and optionally repeating the respective additions once or more, iv.) lysing the cells, in particular thrombocytes from iii.) A. B. and C. in the particular aliquot, v.) extracting the proteins and digesting them to form peptides by means of proteases, vi.) enriching and separating the phosphorylated peptides, vii.) performing an analysis by means of quantitative mass spectrometry, and evaluation,