mhurhangee/patent-ind-claim-en huggingface dataset:
A railway vehicle underframe inspection method for inspecting the underframe of a railway vehicle on a railway track by means of an inspection device including a processing block and a motor system (11.1), the said processing block being adapted so as to command and control the motor system and the motor system being adapted so as to move the inspection device until it is positioned at least at one destination point commanded and controlled by the processing block; the said method being characterised in that , given a list, which is saved and stored in the processing block, of coordinates of points of interest of the underframe expressed in a reference frame having as origin a reference point, the method includes the following steps: - moving of the inspection device up to a predetermined point whose position relative to the reference point is known; - recording and saving, by the processing block, of the location of the reference point as a function of the position up to which the device has been moved; - determining, by the processing block, of at least one command intended to be sent to the motor system in order to position the inspection device at least at one point of interest from the list on the basis of at least the coordinates of the said point of interest expressed in the list and of the said recorded and saved location of the reference point. - moving of the inspection device up to a predetermined point whose position relative to the reference point is known; - recording and saving, by the processing block, of the location of the reference point as a function of the position up to which the device has been moved; - determining, by the processing block, of at least one command intended to be sent to the motor system in order to position the inspection device at least at one point of interest from the list on the basis of at least the coordinates of the said point of interest expressed in the list and of the said recorded and saved location of the reference point.
A pull down bed comprising: a cabinet , a bed frame which is designed to support a mattress and is hinged to said cabinet so as to be able to rotate about a first axis (A) between a first position, in which said bed frame is arranged substantially vertical, and a second position in which said bed frame is arranged substantially horizontal, at least one leg which is hinged on the bed frame so as to be able to rotate about a second axis (B) between an operating position, in which the free end of the leg abuts against a supporting surface, and a rest position, in which the leg is approximately coplanar with the plane on which the bed frame lies, movement means which comprise at least one control rod structured to rotate said leg between the rest position and the operating position and in response to the rotation of the bed frame between the first and the second positions, said movement means further comprise at least one safety member which is structured to cooperate with a respective control rod so that the rotation imparted by the control rod to said leg about the second axis (B) from the operating position to the rest position, in response to the rotation of the bed frame from the second position to the first position, is stopped when the leg is hindered in its rotation movement about said second axis (B), said pull down bed being characterized in that said safety member comprises an extendable element, which is structured to extend axially, in a controlled manner, based on a counteracting force exerted by the leg on the said control rod . a cabinet , a bed frame which is designed to support a mattress and is hinged to said cabinet so as to be able to rotate about a first axis (A) between a first position, in which said bed frame is arranged substantially vertical, and a second position in which said bed frame is arranged substantially horizontal, at least one leg which is hinged on the bed frame so as to be able to rotate about a second axis (B) between an operating position, in which the free end of the leg abuts against a supporting surface, and a rest position, in which the leg is approximately coplanar with the plane on which the bed frame lies, movement means which comprise at least one control rod structured to rotate said leg between the rest position and the operating position and in response to the rotation of the bed frame between the first and the second positions, said movement means further comprise at least one safety member which is structured to cooperate with a respective control rod so that the rotation imparted by the control rod to said leg about the second axis (B) from the operating position to the rest position, in response to the rotation of the bed frame from the second position to the first position, is stopped when the leg is hindered in its rotation movement about said second axis (B), said pull down bed being characterized in that said safety member comprises an extendable element, which is structured to extend axially, in a controlled manner, based on a counteracting force exerted by the leg on the said control rod .
A computer-implemented method, comprising: receiving input of a query from a client terminal (200A-200G); performing natural language interpretation of the query using a grammar; outputting a response to the query after performing the natural language interpretation; counting a number of times that the grammar is used in natural language interpretation of queries from the client terminal, wherein the counting includes all times that grammars belonging to a domain to which the grammar belongs are used in natural language interpretation of the query, and sending the grammar to the client terminal, wherein sending the grammar to the client terminal is conditioned upon the counted number exceeding a threshold. receiving input of a query from a client terminal (200A-200G); performing natural language interpretation of the query using a grammar; outputting a response to the query after performing the natural language interpretation; counting a number of times that the grammar is used in natural language interpretation of queries from the client terminal, wherein the counting includes all times that grammars belonging to a domain to which the grammar belongs are used in natural language interpretation of the query, and sending the grammar to the client terminal, wherein sending the grammar to the client terminal is conditioned upon the counted number exceeding a threshold.
Particle analysis method, including a spectrometry-based analysis of a fluid sample comprising a sheath fluid and at least one particle to be analysed, comprising the steps of - creating a sample light beam (S, S1, S2) and a probe light beam (P) with a light source device and periodically varying a relative phase between the sample and probe light beams (S, S1, S2, P) with a phase modulator device , - irradiating the fluid sample with the sample light beam (S, S1, S2), wherein the fluid sample is flowing in at least one sample channel through a beam path of the sample light beam (S, S1, S2), so that the at least one particle is irradiated for a predetermined irradiation period, - detecting the sample and probe light beams (S, S1, S2, P) with a detector device , and - providing a spectral response of the at least one particle , based on an output of the detector device , wherein - the light source device comprises at least one broadband source, which has an emission spectrum covering a mid-infrared (MIR) frequency range, wherein - the step of detecting the sample and probe light beams (S, S1, S2, P) comprises interferometrically sensing an optical spectrum of the at least one particle with the detector device , and - the phase modulator device varies the relative phase with a scanning period equal to or below the irradiation period of irradiating the at least one particle . - creating a sample light beam (S, S1, S2) and a probe light beam (P) with a light source device and periodically varying a relative phase between the sample and probe light beams (S, S1, S2, P) with a phase modulator device , - irradiating the fluid sample with the sample light beam (S, S1, S2), wherein the fluid sample is flowing in at least one sample channel through a beam path of the sample light beam (S, S1, S2), so that the at least one particle is irradiated for a predetermined irradiation period, - detecting the sample and probe light beams (S, S1, S2, P) with a detector device , and - providing a spectral response of the at least one particle , based on an output of the detector device , wherein - the light source device comprises at least one broadband source, which has an emission spectrum covering a mid-infrared (MIR) frequency range, wherein - the step of detecting the sample and probe light beams (S, S1, S2, P) comprises interferometrically sensing an optical spectrum of the at least one particle with the detector device , and - the phase modulator device varies the relative phase with a scanning period equal to or below the irradiation period of irradiating the at least one particle .
A method of preparing a multicomponent bismuth-molybdenum composite metal oxide catalyst represented by Formula 1, the method comprising steps of: preparing a first solution by mixing a divalent or trivalent cationic metal precursor solution, a monovalent cationic metal precursor solution, and a bismuth precursor solution; preparing a second solution by dropwise adding the first solution to a molybdenum precursor solution and performing primary co-precipitation; preparing a fourth solution by dropwise adding a third solution including a tetravalent cation precursor during an aging process of the second solution and performing secondary co-precipitation; and sintering after drying the fourth solution: [Formula 1 ] [MO a Bi b C c D d E e O f ] wherein C represents a divalent or trivalent cationic metal element, D represents a monovalent cationic metal element, E represents a tetravalent cation and the tetravalent cation represented by E is represented by Formula 2, a is a real number of 5 to 20, b is a real number of 0.1 to 2, c is a real number of 1 to 5, d is a real number of 1 to 10, e is a real number of 0.1 to 1, and f is a value which is determined by other components to match valency, [Formula 2 ] [Ce g Zr (1-g) ] wherein g is a real number of 0.5 to 1. and wherein the tetravalent cationic metal is a mixture of cerium and zirconium.
An air guidance element for motor vehicles having at least one elongate hollow body , the inner wall (W) of which defines an air guidance duct , wherein the hollow body changes along its direction of longitudinal extent (L) from a first connection portion (A1) into a second portion (A2), wherein sound-absorbing auxiliary bodies are provided at least within the second portion (A2), are designed in a manner following the air guidance channel in sections or continuously, and are fastened to the hollow body such that air flowing along the air guidance channel in the hollow body flows additionally along and against the auxiliary bodies and interacts therewith, and wherein the auxiliary bodies have a non-uniform thickness (D1, D2), characterised in that the thicknesses (D1, D2) of auxiliary bodies arranged opposite one another within the air guidance channel vary along the direction of longitudinal extent (L) of the hollow body in such a way that an auxiliary body becomes thinner to the same extent as the oppositely arranged further auxiliary body or the oppositely arranged further auxiliary bodies becomes or become thicker, and vice versa, so that, in a cross section through the hollow body , the sum of the auxiliary body cross-sectional areas (Z1, Z2) in the direction of longitudinal extent (L) of the hollow body varies over a length of at least 66%, preferably at least 77%, more preferably at least 85% of the total length of the second portion (A2) with a deviation of at most ±25%, so that in the air guidance duct the free air guidance cross section (LF) within the second portion (A2) remains substantially the same in the direction of longitudinal extent (L) of the hollow body . wherein sound-absorbing auxiliary bodies are provided at least within the second portion (A2), are designed in a manner following the air guidance channel in sections or continuously, and are fastened to the hollow body such that air flowing along the air guidance channel in the hollow body flows additionally along and against the auxiliary bodies and interacts therewith, and wherein the auxiliary bodies have a non-uniform thickness (D1, D2), characterised in that the thicknesses (D1, D2) of auxiliary bodies arranged opposite one another within the air guidance channel vary along the direction of longitudinal extent (L) of the hollow body in such a way that an auxiliary body becomes thinner to the same extent as the oppositely arranged further auxiliary body or the oppositely arranged further auxiliary bodies becomes or become thicker, and vice versa, so that, in a cross section through the hollow body , the sum of the auxiliary body cross-sectional areas (Z1, Z2) in the direction of longitudinal extent (L) of the hollow body varies over a length of at least 66%, preferably at least 77%, more preferably at least 85% of the total length of the second portion (A2) with a deviation of at most ±25%, so that in the air guidance duct the free air guidance cross section (LF) within the second portion (A2) remains substantially the same in the direction of longitudinal extent (L) of the hollow body .
An orthopaedic implant for the replacement of joints, with an insert body made of a non-metallic material as ceramic and with a metallic socket made of titanium materials that at least partially surrounds the insert body, characterised in that the surface of the metallic socket is pre-coated with a silicate glass solder that is hardened in a ceramic firing, and its subsequent soldering with the outer surface of the insert body is achieved via a glass solder based on silicon dioxide (SiO 2 ), which joins the two components to one another, and the metallic socket is embodied as a net structure or as a perforated metal sheet , having through-apertures in the form of a plurality of small holes.
An assembly for a gas turbine engine, comprising: a wall comprising a shell , a heat shield and a cooling cavity ; the heat shield including a first panel and a second panel ; the first panel extending longitudinally between a first panel first end and a first panel second end , and the first panel including a first panel base and a first panel rail ; the second panel extending longitudinally between a second panel first end and a second panel second end , the second panel at the second panel first end arranged between and displaced from the shell and the first panel at the first panel second end , the second panel including a second panel base and a second panel rail , and the second panel base comprising an uninterrupted surface that extends longitudinally from the second panel rail to the second panel first end , the second panel rail disposed a longitudinal first distance from the second panel first end and a longitudinal second distance from the second panel second end , wherein the cooling cavity is longitudinally bounded by the first panel rail and the second panel rail , characterized in that the longitudinal first distance is greater than the longitudinal second distance . a wall comprising a shell , a heat shield and a cooling cavity ; the heat shield including a first panel and a second panel ; the first panel extending longitudinally between a first panel first end and a first panel second end , and the first panel including a first panel base and a first panel rail ; the second panel extending longitudinally between a second panel first end and a second panel second end , the second panel at the second panel first end arranged between and displaced from the shell and the first panel at the first panel second end , the second panel including a second panel base and a second panel rail , and the second panel base comprising an uninterrupted surface that extends longitudinally from the second panel rail to the second panel first end , the second panel rail disposed a longitudinal first distance from the second panel first end and a longitudinal second distance from the second panel second end , wherein the cooling cavity is longitudinally bounded by the first panel rail and the second panel rail , characterized in that the longitudinal first distance is greater than the longitudinal second distance .
Method for learning parameters of a convolutional neural network, CNN, for classifying personal data, in order to recognize an individual by way of a personal datum of said individual, the method comprising implementing steps of: (a1) data processing means of a main server obtaining parameters of a set of at least one first CNN; (a2) for a first CNN of said set: - the data processing means of said main server or data processing means of a secondary server possessing a database of previously classified confidential learning data learning the parameters of a final representation block (B) of a second CNN corresponding to the first CNN plus said representation block (B), based on a database of previously classified public learning data; - data processing means of said secondary server relearning the parameters of the second CNN, based on its database of previously classified confidential learning data; - transmitting the parameters of a third CNN corresponding to the second CNN without a final representation block (B) to the main server ; (a3) the data processing means of the main server replacing a first CNN of said set of first CNNs with the third CNN; (a4) aggregating said set of at least one first CNN into a fourth CNN. (a1) data processing means of a main server obtaining parameters of a set of at least one first CNN; (a2) for a first CNN of said set: - the data processing means of said main server or data processing means of a secondary server possessing a database of previously classified confidential learning data learning the parameters of a final representation block (B) of a second CNN corresponding to the first CNN plus said representation block (B), based on a database of previously classified public learning data; - data processing means of said secondary server relearning the parameters of the second CNN, based on its database of previously classified confidential learning data; - transmitting the parameters of a third CNN corresponding to the second CNN without a final representation block (B) to the main server ; - the data processing means of said main server or data processing means of a secondary server possessing a database of previously classified confidential learning data learning the parameters of a final representation block (B) of a second CNN corresponding to the first CNN plus said representation block (B), based on a database of previously classified public learning data; - data processing means of said secondary server relearning the parameters of the second CNN, based on its database of previously classified confidential learning data; - transmitting the parameters of a third CNN corresponding to the second CNN without a final representation block (B) to the main server ; (a3) the data processing means of the main server replacing a first CNN of said set of first CNNs with the third CNN; (a4) aggregating said set of at least one first CNN into a fourth CNN.
Method for the determination of a phase distribution of a region of interest, which is determined in order to generate an MR image of the region of interest by means of an MR system, wherein a known magnetic field distribution in the region of interest is taken into account, comprising the following steps: - provision of a first measured phase distribution which is based at least on the known magnetic field distribution in the region of interest (21, S41); - provision of at least one second phase value of the region of interest (21, S42); - determination of a phase-difference distribution between the first measured phase distribution and the at least one second phase value to generate a combination-phase distribution, wherein the phase values of the combination-phase distribution are restricted to the presentation interval [-n;+n] (S43); - calculation of a correction-phase distribution from the known magnetic field distribution in the region of interest , wherein the phase values of the correction-phase distribution are not restricted to the presentation interval [-π;+π] (S44); - generation of a corrected combination-phase distribution using the correction-phase distribution and the combination-phase distribution, wherein the phase values of the corrected combination-phase distribution are restricted to the presentation interval [-π;+π] (S45); and - generation of an absolute combination-phase distribution from the corrected combination-phase distribution using a phase-unwrapping technique, wherein the phase values of the absolute combination-phase distribution are not restricted to the presentation interval [-π;+π] (S46); characterised in that the known magnetic field distribution in the region of interest is known a priori in absolute values and is substantially not induced by an object of interest. - provision of a first measured phase distribution which is based at least on the known magnetic field distribution in the region of interest (21, S41); - provision of at least one second phase value of the region of interest (21, S42); - determination of a phase-difference distribution between the first measured phase distribution and the at least one second phase value to generate a combination-phase distribution, wherein the phase values of the combination-phase distribution are restricted to the presentation interval [-n;+n] (S43); - calculation of a correction-phase distribution from the known magnetic field distribution in the region of interest , wherein the phase values of the correction-phase distribution are not restricted to the presentation interval [-π;+π] (S44); - generation of a corrected combination-phase distribution using the correction-phase distribution and the combination-phase distribution, wherein the phase values of the corrected combination-phase distribution are restricted to the presentation interval [-π;+π] (S45); and - generation of an absolute combination-phase distribution from the corrected combination-phase distribution using a phase-unwrapping technique, wherein the phase values of the absolute combination-phase distribution are not restricted to the presentation interval [-π;+π] (S46);
A tissue capture anchor for attaching tissue to bone, the anchor comprising: an expandable anchor body ; and a spreader configured for displacement along an axis of the anchor body between a unexpanded position and a expanded position, the spreader comprising: a proximal end with a means for receiving an insertion tool ; a base section; a central body ; and a distal end , wherein the central body is configured to expand the anchor body as the spreader is advanced from the first position to the second position, and the spreader further comprises a generally flat-shaped face at the distal end , characterized in that the central body gradually widens in a conical shape from the base section to the distal end , and the generally flat-shaped face at the distal end comprises two openings for receiving limbs of a suture loop . an expandable anchor body ; and a spreader configured for displacement along an axis of the anchor body between a unexpanded position and a expanded position, the spreader comprising: a proximal end with a means for receiving an insertion tool ; a base section; a central body ; and a distal end , a proximal end with a means for receiving an insertion tool ; a base section; a central body ; and a distal end , wherein the central body is configured to expand the anchor body as the spreader is advanced from the first position to the second position, and the spreader further comprises a generally flat-shaped face at the distal end , characterized in that the central body gradually widens in a conical shape from the base section to the distal end , and the generally flat-shaped face at the distal end comprises two openings for receiving limbs of a suture loop .