mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a transponder, the method comprising: receiving, by the transponder, in particular wirelessly, transmitted reader data representing x and sqrt[b]/x, wherein x is an element of a binary Galois field and b is a constant; wherein x as well as sqrt[b]/x arc derivable from the reader data; and wherein sqrt[b] is stored as a first pre-stored value in the transponder prior to receiving the reader data; processing, by the transponder, the reader data to determine, whether x is a first coordinate of a point on an elliptic curve defined by the elliptic curve equation y 2 + xy = x 3 +ax 2 +b, wherein the elliptic curve is defined over the Galois field such that x and y are elements of the Galois field, wherein y is a second coordinate of the point on the elliptic curve; and performing a multiplication operation of the Galois elements x and sqrt[b]/x according to the multiplication operation defined in the Galois field and comparing the result of performing the multiplication operation with the first pre-stored value, wherein the processing involves checking whether Trace[x] == Trace[a] and whether Trace[sqrt[b]/x] == 0, wherein the processing by the transponder comprises using a Trace operation, the Trace operation mapping each element in the Galois field either to 0 or to 1, the Trace operation being a linear operation. receiving, by the transponder, in particular wirelessly, transmitted reader data representing x and sqrt[b]/x, wherein x is an element of a binary Galois field and b is a constant; wherein x as well as sqrt[b]/x arc derivable from the reader data; and wherein sqrt[b] is stored as a first pre-stored value in the transponder prior to receiving the reader data; processing, by the transponder, the reader data to determine, whether x is a first coordinate of a point on an elliptic curve defined by the elliptic curve equation y 2 + xy = x 3 +ax 2 +b, wherein the elliptic curve is defined over the Galois field such that x and y are elements of the Galois field, wherein y is a second coordinate of the point on the elliptic curve; and performing a multiplication operation of the Galois elements x and sqrt[b]/x according to the multiplication operation defined in the Galois field and comparing the result of performing the multiplication operation with the first pre-stored value, wherein the processing involves checking whether Trace[x] == Trace[a] and whether Trace[sqrt[b]/x] == 0,
A method for controlling the consumption of yarn in a knitting process, wherein a knitting machine receives a plurality of yarns from respective feeders each provided with a control unit, said control unit being adapted to calculate, for each garment produced, the amount of yarn consumed (YCmeas on the basis of the number of unwinding pulses (Npulses) that are generated during the production of the garment, compare it with a reference consumption value (YCref) and, if the difference is greater than a preset limit value (%max) that indicates an anomaly involving a limited variation in consumption, such as breakage of the needles of the machine, yarn count errors, and the like, generate an alarm, characterized in that said control unit periodically carries out the following steps: - calculate an average consumption value (YCmed) on the basis of a preset number (Nmed) of already-finished garments, - compare said average consumption value (YCmed) with said reference consumption value (YCref) and, if the difference is greater than a preset threshold value (%maxmed), set said reference consumption value (YCref) to said average consumption value (YCmed). - calculate an average consumption value (YCmed) on the basis of a preset number (Nmed) of already-finished garments, - compare said average consumption value (YCmed) with said reference consumption value (YCref) and, if the difference is greater than a preset threshold value (%maxmed), set said reference consumption value (YCref) to said average consumption value (YCmed).
Nacelle of an aircraft, the said nacelle having an air intake and comprising: - a structure, - an upstream cowl fixed to the said structure in order to create an aerodynamic surface and extending rearward from the air intake, - an upper cowl arranged in the upper part of the nacelle and to the rear of the upstream cowl and having a starboard-side door and a port-side door, each door (200a-b) being articulated between a closed position in which the said door (200a-b) is aerodynamically continuous with the upstream cowl and an open position in which the said door (200a-b) uncovers an opening in the nacelle, each door (200a-b) having a front edge (202a-b) arranged at the front of the door (200a-b), a rear edge (204a-b) arranged at the rear of the door (200a-b), an inner edge (208a-b) which, in the closed position, is contiguous with the inner edge (208b-a) of the other door (200b-a), and an outer edge (206a-b) arranged on the opposite side of the said door (200a-b) to the inner edge (208a-b), - for each door (200a-b), an articulation arranged at the level of the outer edge (206a-b) and fixed between the door (200a-b) and the structure, the said articulation allowing the door (200a-b) to move from the open position to the closed position and vice versa, and - for each door (200a-b), a locking system distributed between the front edge (202a-b) and the rear edge (204a-b) and able to move between a locked position in which it blocks the movement of the door (200a-b) with respect to the structure and an unlocked position in which it allows the door (200a-b) to move with respect to the structure. - a structure, - an upstream cowl fixed to the said structure in order to create an aerodynamic surface and extending rearward from the air intake, - an upper cowl arranged in the upper part of the nacelle and to the rear of the upstream cowl and having a starboard-side door and a port-side door, each door (200a-b) being articulated between a closed position in which the said door (200a-b) is aerodynamically continuous with the upstream cowl and an open position in which the said door (200a-b) uncovers an opening in the nacelle, each door (200a-b) having a front edge (202a-b) arranged at the front of the door (200a-b), a rear edge (204a-b) arranged at the rear of the door (200a-b), an inner edge (208a-b) which, in the closed position, is contiguous with the inner edge (208b-a) of the other door (200b-a), and an outer edge (206a-b) arranged on the opposite side of the said door (200a-b) to the inner edge (208a-b), - for each door (200a-b), an articulation arranged at the level of the outer edge (206a-b) and fixed between the door (200a-b) and the structure, the said articulation allowing the door (200a-b) to move from the open position to the closed position and vice versa, and - for each door (200a-b), a locking system distributed between the front edge (202a-b) and the rear edge (204a-b) and able to move between a locked position in which it blocks the movement of the door (200a-b) with respect to the structure and an unlocked position in which it allows the door (200a-b) to move with respect to the structure.
A method for delivering content to a mobile terminal, comprising: storing content at a server for delivery to at least one mobile terminal, wherein the content is associated with a record comprising at least one rendering location for the content; receiving a request, from the mobile terminal, for the content at the server; receiving location information for the mobile terminal at the server; comparing the location information for the mobile terminal with the at least one rendering location for the content; transmitting the content from the server to the mobile terminal, if the location information for the mobile terminal corresponds with a rendering location for the content; receiving updated location information for the mobile terminal at the server; comparing the updated location information to the at least one rendering location for the content; and based on the comparison, preventing content rendering on the mobile terminal if the updated location information for the mobile terminal does not correspond to a rendering location for the content, and permitting rendering of the content on the mobile terminal if the updated location information for the mobile terminal corresponds to a rendering location for the content. storing content at a server for delivery to at least one mobile terminal, wherein the content is associated with a record comprising at least one rendering location for the content; receiving a request, from the mobile terminal, for the content at the server; receiving location information for the mobile terminal at the server; comparing the location information for the mobile terminal with the at least one rendering location for the content; transmitting the content from the server to the mobile terminal, if the location information for the mobile terminal corresponds with a rendering location for the content; receiving updated location information for the mobile terminal at the server; comparing the updated location information to the at least one rendering location for the content; and based on the comparison, preventing content rendering on the mobile terminal if the updated location information for the mobile terminal does not correspond to a rendering location for the content, and permitting rendering of the content on the mobile terminal if the updated location information for the mobile terminal corresponds to a rendering location for the content.
An inspection system comprising: an inspection vehicle (16, 100) having a propulsion device operable in an enclosed transformer tank at least partially filled with oil; at least one sensor operable with the inspection vehicle (16, 100); a control system including an electronic controller in electronic communication with the inspection vehicle (16, 100); and one or more maintenance tools which are operable with the inspection vehicle (16, 100); characterized in that the one or more maintenance tool includes a repair apparatus which includes one or more injector nozzles (150, 152) configured to inject or otherwise discharge a liquid repair compound wherein the repair compound is capable of curing in the oil. an inspection vehicle (16, 100) having a propulsion device operable in an enclosed transformer tank at least partially filled with oil; at least one sensor operable with the inspection vehicle (16, 100); a control system including an electronic controller in electronic communication with the inspection vehicle (16, 100); and one or more maintenance tools which are operable with the inspection vehicle (16, 100); characterized in that the one or more maintenance tool includes a repair apparatus which includes one or more injector nozzles (150, 152) configured to inject or otherwise discharge a liquid repair compound wherein the repair compound is capable of curing in the oil.
A method of mitigating interference between a first radio operating in a wide frequency band and a second radio operating in a narrow frequency band within the wide frequency band, said method comprising: creating by the first radio, a transmitter notch of decreased transmit power centered at a selected frequency in the wide frequency band, said selected frequency having a position in the wide frequency band that is fixed in relation to a wideband carrier frequency, said creating including: creating the notch by a fixed high-Q filter at an intermediate frequency, hereinafter IF, stage of the first radio's wideband transmitter; and up-converting the signal to radio frequency, hereinafter RF, utilizing a local oscillator, hereinafter LO, frequency such that the resulting notch frequency F notch coincides with the second radio's narrowband carrier frequency; and adjusting the wideband carrier frequency so that the frequency of the transmitter notch is aligned with the second radio's narrowband carrier frequency. creating by the first radio, a transmitter notch of decreased transmit power centered at a selected frequency in the wide frequency band, said selected frequency having a position in the wide frequency band that is fixed in relation to a wideband carrier frequency, said creating including: creating the notch by a fixed high-Q filter at an intermediate frequency, hereinafter IF, stage of the first radio's wideband transmitter; and up-converting the signal to radio frequency, hereinafter RF, utilizing a local oscillator, hereinafter LO, frequency such that the resulting notch frequency F notch coincides with the second radio's narrowband carrier frequency; and creating the notch by a fixed high-Q filter at an intermediate frequency, hereinafter IF, stage of the first radio's wideband transmitter; and up-converting the signal to radio frequency, hereinafter RF, utilizing a local oscillator, hereinafter LO, frequency such that the resulting notch frequency F notch coincides with the second radio's narrowband carrier frequency; and adjusting the wideband carrier frequency so that the frequency of the transmitter notch is aligned with the second radio's narrowband carrier frequency.
An electric cable comprising at least one elongate electrically conductive element and at least one electrically insulating layer obtained from a polymer composition comprising at least one polypropylene-based thermoplastic polymer material and at least one inorganic filler, the inorganic filler is selected from among aluminium oxide, a hydrated aluminium oxide, magnesium oxide, zinc oxide and one of the mixtures thereof, the polymer composition further comprises a dielectric fluid, characterized in that the inorganic filler represents at least 10 % by weight relative to the total weight of the polymer composition.
A gas-insulated transmission line for transporting electrical power, the line comprising: · a tubular casing containing a dielectric gas; · a tubular conductor arranged inside the casing, coaxially with the casing; and · at least one insulating support connecting the conductor to the casing; the support being oriented mainly radially relative to a main axis A of the casing, and comprising an outer first radial end that is fastened to the casing, and an inner second radial end that is connected to the conductor in such a manner as to hold the conductor at a radial distance relative to the casing; the second end of the support and the conductor being suitable for sliding relative to each other along a direction that is parallel to the main axis A of the casing; the gas-insulated transmission line being characterized in that the second end of the support is arranged inside the conductor and is in sliding contact against at least one internal portion of the conductor at at least one point of contact; and in that at least one upwardly-open particles collection gutter is arranged inside the conductor and is situated below each point of contact between the second end of the support and the internal portion of the conductor. · a tubular casing containing a dielectric gas; · a tubular conductor arranged inside the casing, coaxially with the casing; and · at least one insulating support connecting the conductor to the casing;
A machining method comprising: determining, by a controller, a chatter-lobe plot of a cutting tool assembly (44;102) based on data about the cutting tool assembly (44; 102); developing, by the controller, a preliminary tool path using CAM software based on geometry and material data for a blank part; performing, by the controller, virtual machining of a virtual model of the blank part using the preliminary tool path to produce a virtually machined blank part, wherein machining the blank part changes the rigidity of the blank part due to material removal; determining, by the controller, a chatter-lobe plot of the virtually machined blank part using an estimation of the dynamics of the changing blank part as material is removed, using modal analysis; determining, by the controller, a dynamic chatter-lobe plot using the chatter-lobe plot of the cutting tool assembly (44; 102) and the chatter-lobe plot of the virtually machined blank part; determining, by the controller, optimized machining parameters, including a chatter-free rotational speed profile of the cutting tool assembly (44;102) from the dynamic chatter-lobe plot; and controlling, by the controller, a machining apparatus (40;100) to use the determined optimized machining parameters, including the chatter-free rotational speed profile of the cutting tool assembly (44;102) to machine the blank part. determining, by a controller, a chatter-lobe plot of a cutting tool assembly (44;102) based on data about the cutting tool assembly (44; 102); developing, by the controller, a preliminary tool path using CAM software based on geometry and material data for a blank part; performing, by the controller, virtual machining of a virtual model of the blank part using the preliminary tool path to produce a virtually machined blank part, wherein machining the blank part changes the rigidity of the blank part due to material removal; determining, by the controller, a chatter-lobe plot of the virtually machined blank part using an estimation of the dynamics of the changing blank part as material is removed, using modal analysis; determining, by the controller, a dynamic chatter-lobe plot using the chatter-lobe plot of the cutting tool assembly (44; 102) and the chatter-lobe plot of the virtually machined blank part; determining, by the controller, optimized machining parameters, including a chatter-free rotational speed profile of the cutting tool assembly (44;102) from the dynamic chatter-lobe plot; and controlling, by the controller, a machining apparatus (40;100) to use the determined optimized machining parameters, including the chatter-free rotational speed profile of the cutting tool assembly (44;102) to machine the blank part.
A method of estimating a sequence of polymer units in a polymer from measurements made during translocation of the polymer through a nanopore, wherein the value of each measurement is dependent on a k-mer, being a group of k polymer units where k is a positive, plural integer, the method comprising: providing a model comprising, for a set of possible k-mers: transition weightings representing the chances of transitions from origin k-mers to destination k-mers; and emission weightings in respect of each k-mer that represent the chances of observing given values of measurements for that k-mer; receiving at least one input signal comprising an input series of measurements in which groups of plural measurements are dependent on the same k-mer, without a priori knowledge of the number of measurements in the groups; processing the at least one input signal to identify successive groups of measurements and to derive a predetermined number of measurements in respect of each identified group, the predetermined number being one or more, thereby deriving a series of measurements in respect of the or each input signal; analysing the series of measurements thus derived using an analytical technique that refers to the model and estimating at least one estimated sequence of polymer units in the polymer based on the likelihood predicted by the model of the series of measurements being produced by sequences of polymer units. providing a model comprising, for a set of possible k-mers: transition weightings representing the chances of transitions from origin k-mers to destination k-mers; and emission weightings in respect of each k-mer that represent the chances of observing given values of measurements for that k-mer; transition weightings representing the chances of transitions from origin k-mers to destination k-mers; and emission weightings in respect of each k-mer that represent the chances of observing given values of measurements for that k-mer; receiving at least one input signal comprising an input series of measurements in which groups of plural measurements are dependent on the same k-mer, without a priori knowledge of the number of measurements in the groups; processing the at least one input signal to identify successive groups of measurements and to derive a predetermined number of measurements in respect of each identified group, the predetermined number being one or more, thereby deriving a series of measurements in respect of the or each input signal; analysing the series of measurements thus derived using an analytical technique that refers to the model and estimating at least one estimated sequence of polymer units in the polymer based on the likelihood predicted by the model of the series of measurements being produced by sequences of polymer units.
Sun protection device comprising a curtain of a plurality of spaced lamellas, which are held in guide rails by means of associated fastening elements, the fastening element containing at least one heat pipe having a first end and a second end, the first end being coupled to the lamella and the second end being connectable to a heat dissipation system, which is accommodated in the guide rail, characterized in that the fastening devices are slidable along the guide rail, and wherein the second end of the heat pipe is connected to a capacitor adapter, via which it is coupled to the heat dissipation system, and the guide rail has a pressing frame, with which an axial force can be applied to the capacitor adapter.
Process for the adjustment of backlash between a pinon and a rack in a rack-pinion drive, a motor being operatively connected to the pinion via a gearbox, a motor-gearbox assembly including the motor and the gearbox being supported on a carrier via a positioning mechanism for precisely positioning the assembly in a radial position relative to the rack, the process comprising the following steps: a) positioning the assembly in a first radial distance relative to the rack, using the positioning mechanism; b) determining a first circumferential backlash between the pinon and the rack at a first position of the pinion along the rack, based on measurements taken on an input side of the gearbox; c) positioning the assembly and/or the rack in a second position of the pinion along the rack, different from the first position; d) determining a second circumferential backlash between the pinon and the rack at the second position, based on measurements taken on the input side of the gearbox; e) determining a minimal circumferential backlash from the determined first circumferential backlash and the determined second circumferential backlash; f) determining a radial adjustment distance based on the determined minimal circumferential backlash; and g) repositioning the motor-gearbox assembly in a radial direction, towards the rack, by the determined radial adjustment distance, using the positioning mechanism. a) positioning the assembly in a first radial distance relative to the rack, using the positioning mechanism; b) determining a first circumferential backlash between the pinon and the rack at a first position of the pinion along the rack, based on measurements taken on an input side of the gearbox; c) positioning the assembly and/or the rack in a second position of the pinion along the rack, different from the first position; d) determining a second circumferential backlash between the pinon and the rack at the second position, based on measurements taken on the input side of the gearbox; e) determining a minimal circumferential backlash from the determined first circumferential backlash and the determined second circumferential backlash; f) determining a radial adjustment distance based on the determined minimal circumferential backlash; and g) repositioning the motor-gearbox assembly in a radial direction, towards the rack, by the determined radial adjustment distance, using the positioning mechanism.