mhurhangee/ep-ind-claims huggingface dataset:
Method for assembling a turbomachine, by means of a device, the turbomachine comprising at least two modules (3, 4) assembled by insertion of a shaft of one of the modules into a housing of the other module, the device comprising: - support means of a first of the modules, - suspension and movement means (20, 21) of a second of the modules along a movement axis, - a laser beam emitter intended to be fixed to said first module and configured to emit a laser beam that coincides with a longitudinal axis of this first module, and - a target intended to be fixed to said suspension and movement means, such that it can be moved along said movement axis, and such that in at least two separate axial positions (P1, P2) on this axis, a task from said laser beam is located at the centre of said target, the method being characterised in that it comprises the steps of: a) positioning said first module on said support means, b) fixing said target to said suspension and movement means, c) determining a first axial position of said target, for which a task of said laser beam is located at the centre of said target, d) moving said target along said movement axis, and e) determining a second axial position of said target, for which a task of said laser beam is located at the centre of said target, in order to validate the parallelism between said longitudinal axis of said first module and said movement axis. - support means of a first of the modules, - suspension and movement means (20, 21) of a second of the modules along a movement axis, - a laser beam emitter intended to be fixed to said first module and configured to emit a laser beam that coincides with a longitudinal axis of this first module, and - a target intended to be fixed to said suspension and movement means, such that it can be moved along said movement axis, and such that in at least two separate axial positions (P1, P2) on this axis, a task from said laser beam is located at the centre of said target, the method being characterised in that it comprises the steps of: a) positioning said first module on said support means, b) fixing said target to said suspension and movement means, c) determining a first axial position of said target, for which a task of said laser beam is located at the centre of said target, d) moving said target along said movement axis, and e) determining a second axial position of said target, for which a task of said laser beam is located at the centre of said target, in order to validate the parallelism between said longitudinal axis of said first module and said movement axis. a) positioning said first module on said support means, b) fixing said target to said suspension and movement means, c) determining a first axial position of said target, for which a task of said laser beam is located at the centre of said target, d) moving said target along said movement axis, and e) determining a second axial position of said target, for which a task of said laser beam is located at the centre of said target, in order to validate the parallelism between said longitudinal axis of said first module and said movement axis.
An implant system for implantation at a joint, the implant system including an implant device, the implant device comprising a body portion having first and second ends (15, 16), and a first elongate member (30, 40), extending from the first or second end of the body portion, the implant system further comprising a corresponding fixation device (70, 90) for securing the first elongate member (30, 40) to a subject, characterised in that the fixation device (70, 90) comprises at least one latching element, the first elongate member comprising at least one cooperating element, the at least one cooperating element (31 a, 32, 41 a) being capable of cooperating with said at least one latching element of the fixation device (70, 90) in use.
A histogram statistics circuit, wherein the histogram statistics circuit is coupled to a memory, the memory stores multimedia data, and the histogram statistics circuit comprises a counter cache, a controller, a parsing circuit, a matching-and-decoding circuit, and a count value updating circuit, wherein the controller is coupled to the counter cache, the parsing circuit, and the matching-and-decoding circuit, and the count value updating circuit is coupled between the counter cache and the matching-and-decoding circuit; the counter cache is configured to cache Y groups of counters, wherein each group of counters comprises at least one counter and each counter corresponds to one current count value, and Y is a positive integer greater than 1; the controller is configured to control the memory to group pixels in the multimedia data, to obtain M groups of data; the parsing circuit is configured to perform the following step: obtaining an i th group of data from the M groups of data, and parsing each pixel value in the i th group of data, to determine X groups of counters that match the i th group of data in the Y groups of counters stored in the counter cache, wherein X is a positive integer and 1≤X≤Y; and the parsing circuit repeatedly performs the step until i=M, wherein i is a natural number whose starting value is 1 and is increased by 1 in each iterative process; the controller is further configured to control, based on the X groups of counters determined by the parsing circuit, the matching-and-decoding circuit to match the i th group of data with each of the X groups of counters in X clock cycles; the matching-and-decoding circuit is configured to perform the following step: in a j th clock cycle, matching each pixel in the i th group of data with a j th group of counters in the X groups of counters, and instructing, based on a matching result, the count value updating circuit to update a count value of the j th group of counters; and the matching-and-decoding circuit repeatedly performs the step until j=X, wherein j is a natural number whose starting value is 1 and is increased by 1 in each iterative process; and the count value updating circuit is configured to: read a current count value of the j th group of counters from the counter cache in the j th clock cycle, update the current count value of the j th group of counters based on the matching result indicated by the matching-and-decoding circuit, to obtain an updated count value of the j th group of counters, and write back the updated count value of the j th group of counters into the j th group of counters in the counter cache.
A glass frit system for forming an enamel adhered to a substrate, including a vehicle, a glass frit, a colored CTE modifier, and optionally one or more pigments, the colored CTE modifier including: a modified Pseudo-Brookite type material having a formula Al 2 TiO 5, wherein Al and/or Ti are partially substituted with one or more coloring ions including Fe, Cr, Mn, Co, Ni, and Cu; a modified Cordierite type material having a formula Mg 2 Al 4 Si 5 O 18, wherein Mg and/or Al is partially substituted with one or more of the coloring ions; a Perovskite type material having a formula Sm 1-x Sr x MnO 3-δ, where x=0.0-0.5 and δ=0.0-0.25, or a modified version of the Perovskite type material wherein Sr is partially substituted with Ba and/or Ca; or combinations thereof. a modified Pseudo-Brookite type material having a formula Al 2 TiO 5, wherein Al and/or Ti are partially substituted with one or more coloring ions including Fe, Cr, Mn, Co, Ni, and Cu; a modified Cordierite type material having a formula Mg 2 Al 4 Si 5 O 18, wherein Mg and/or Al is partially substituted with one or more of the coloring ions; a Perovskite type material having a formula Sm 1-x Sr x MnO 3-δ, where x=0.0-0.5 and δ=0.0-0.25, or a modified version of the Perovskite type material wherein Sr is partially substituted with Ba and/or Ca; or combinations thereof.
A sample holder comprising: a base member; a holder member attached to the base member, the holder member having a flexible tab resiliently biased towards the base member; characterised in that the flexible tab is one of a plurality of flexible tabs resiliently biased toward the base member, and wherein for each flexible tab: one of the base member and the tab comprises a first formation provided on a face thereof so that when a sample having a corresponding second formation is located between the tab and the base member it is retained by cooperation of the first and second formations. a base member; a holder member attached to the base member, the holder member having a flexible tab resiliently biased towards the base member; characterised in that the flexible tab is one of a plurality of flexible tabs resiliently biased toward the base member, and wherein for each flexible tab: one of the base member and the tab comprises a first formation provided on a face thereof so that when a sample having a corresponding second formation is located between the tab and the base member it is retained by cooperation of the first and second formations.
Device for calculating a current load level (36, 36A, 36B, 36C, 36D) of a user, comprising • a mobile end unit with ∘ at least one signal data generating sensor integrated into the mobile end unit, ∘ a multitude of available applications for use by the user and • an evaluation unit (13, 6) provided in the mobile end unit or in a central server, wherein the mobile end unit has a further application, designed for calculating a multitude of biometric data about the user, at least from the signal data, and from available applications used by the user, and making these available to the evaluation unit (13, 6), and in that the evaluation unit (13, 6) is designed for determining the current load level (36, 36A, 36B, 36C, 36D) of the user from the biometric data, characterised in that the evaluation unit (13, 6) is designed for determining the current load level (36, 36A, 36B, 36C, 36D) of the user from the biometric data by applying a method carried out in a network of artificial neural networks, which comprises a multitude of artificial neural networks that interact with each other, and that a multitude of processors are arranged on the mobile end unit or on the central server, which are designed for calculating the multitude of artificial neural networks in parallel, and that at least one graphics card with at least one graphics card processor is arranged on the mobile end unit or on the central server and the at least one graphics card processor supports the calculation of the artificial neural networks. • a mobile end unit with ∘ at least one signal data generating sensor integrated into the mobile end unit, ∘ a multitude of available applications for use by the user and ∘ at least one signal data generating sensor integrated into the mobile end unit, ∘ a multitude of available applications for use by the user • an evaluation unit (13, 6) provided in the mobile end unit or in a central server,
A method of detecting rotor position in a reluctance machine, the machine having at least one phase winding with an inductance which is periodic with rotor position, comprising: deriving a value (ψ c) for the flux linkage associated with the or at least one phase winding of the machine at a first point (θ i); tracking a value of a parameter indicative of the flux linkage; advancing the rotor to a second point (θ on) where application of positive voltage to the phase winding is initiated; advancing the rotor from the second point to a third point (0 ref); deriving a value of the phase current and the parameter at the third point (θ ref); evaluating the flux linkage at the third point (θ ref) based on the value of the parameter; and deriving the rotor position from the value of the phase current and the value (ψ a) of the flux linkage at the third point (θ ref). deriving a value (ψ c) for the flux linkage associated with the or at least one phase winding of the machine at a first point (θ i); tracking a value of a parameter indicative of the flux linkage; advancing the rotor to a second point (θ on) where application of positive voltage to the phase winding is initiated; advancing the rotor from the second point to a third point (0 ref); deriving a value of the phase current and the parameter at the third point (θ ref); evaluating the flux linkage at the third point (θ ref) based on the value of the parameter; and deriving the rotor position from the value of the phase current and the value (ψ a) of the flux linkage at the third point (θ ref).
A method for predicting the risk of having respiratory failure in a patient having severe sepsis or septic shock comprising a step consisting of measuring the concentration of endocan in a blood sample obtained from said septic patient and a step of comparing the concentration of endocan with a predetermined threshold value representing the concentration measured in average in healthy patients and wherein a lower concentration than the predetermined threshold value predicts respiratory failure at 48-72 hours following ICU admission of the patient having severe sepsis or septic shock.
Arrangement of a filter plate (3, 35) for a filter press and at least one attachment part (9, 10, 33), wherein the filter plate comprises a filter-chamber boundary surface, via which a filter chamber to be formed in the filter press can be limited, in the filter plate (3, 35), at least one channel is formed for a fluid connection to the filter-chamber boundary surface and the attachment part (9, 10, 33) is attached to the filter plate (3, 35) at the channel, characterized in that the attachment part (9, 10, 33) is detachably attached to the filter plate by means of at least one detachable ball-type snap-on connection (12, 13) and that the ball-type snap-on connection (12, 13) comprises at least one ball pin and at least one coupling. the filter plate comprises a filter-chamber boundary surface, via which a filter chamber to be formed in the filter press can be limited, in the filter plate (3, 35), at least one channel is formed for a fluid connection to the filter-chamber boundary surface and the attachment part (9, 10, 33) is attached to the filter plate (3, 35) at the channel, characterized in that the attachment part (9, 10, 33) is detachably attached to the filter plate by means of at least one detachable ball-type snap-on connection (12, 13) and that the ball-type snap-on connection (12, 13) comprises at least one ball pin and at least one coupling.
An apparatus comprising: a housing having at least one window; a lighting device positioned within said housing such that light is directed outward from said window to illuminate a monitoring area; an optical sensing device positioned within said housing configured to monitor said monitoring area; an air burst nozzle fixed to said housing and aimed downward at said window; an air knife nozzle positioned proximate to said air burst nozzle; a compressed air source; an air control solenoid operably connected to said air burst nozzle and said compressed air source, wherein said air control solenoid regulates flow of compressed air to said air burst nozzle in order to clear particulates from said at least one window; tubing connected to said air burst nozzle and to a pressure switch, wherein said tubing is also connected to said air control solenoid; and a support box connected to said housing and said air control solenoid, said support box comprising a magnetic valve for controlling said air control solenoid and a programmable timer module for controlling said magnetic valve. a housing having at least one window; a lighting device positioned within said housing such that light is directed outward from said window to illuminate a monitoring area; an optical sensing device positioned within said housing configured to monitor said monitoring area; an air burst nozzle fixed to said housing and aimed downward at said window; an air knife nozzle positioned proximate to said air burst nozzle; a compressed air source; an air control solenoid operably connected to said air burst nozzle and said compressed air source, wherein said air control solenoid regulates flow of compressed air to said air burst nozzle in order to clear particulates from said at least one window; tubing connected to said air burst nozzle and to a pressure switch, wherein said tubing is also connected to said air control solenoid; and a support box connected to said housing and said air control solenoid, said support box comprising a magnetic valve for controlling said air control solenoid and a programmable timer module for controlling said magnetic valve.
A method, comprising: determining a location of a hand held mobile device; determining an orientation of the hand held mobile device; downloading, at the hand held mobile device, contextual information comprising virtual objects, corresponding to real objects in an area surrounding the hand held mobile device, from a database accessible through a network; and selecting a virtual object in a visual user interface of the hand held mobile device, by aligning a target space of the visual user interface with that virtual object, wherein the alignment depends upon the determined orientation of the hand held mobile device. determining a location of a hand held mobile device; determining an orientation of the hand held mobile device; downloading, at the hand held mobile device, contextual information comprising virtual objects, corresponding to real objects in an area surrounding the hand held mobile device, from a database accessible through a network; and selecting a virtual object in a visual user interface of the hand held mobile device, by aligning a target space of the visual user interface with that virtual object, wherein the alignment depends upon the determined orientation of the hand held mobile device.
A method for monitoring health state of a wind turbine blade root fastener, comprising the following steps: obtaining a sequence of acceleration signals representing the lateral vibration of a nacelle of a wind turbine referring to vibration of the nacelle of the wind turbine in the lateral direction perpendicular or transverse to the vertical direction and a sequence of rotational speed signals representing a rotational speed of the rotor; analyzing the sequence of acceleration signals and the sequence of rotational speed signals to determine the amplitude of the nacelle at 2-time-frequency of the rotational speed of the rotor referring to twice of the frequency in Hertz converted from the rotational speed of the rotor; and determining the health state of the blade root fastener based on the amplitude. obtaining a sequence of acceleration signals representing the lateral vibration of a nacelle of a wind turbine referring to vibration of the nacelle of the wind turbine in the lateral direction perpendicular or transverse to the vertical direction and a sequence of rotational speed signals representing a rotational speed of the rotor; analyzing the sequence of acceleration signals and the sequence of rotational speed signals to determine the amplitude of the nacelle at 2-time-frequency of the rotational speed of the rotor referring to twice of the frequency in Hertz converted from the rotational speed of the rotor; and determining the health state of the blade root fastener based on the amplitude.
A disposable consumable container configured to produce dialysate solution in real-time, comprising: a sterile interface connection on the disposable consumable container and configured to be fluidly coupled to a source of sterile water; a concentrate container for coupling to the source of sterile water via the sterile interface connection and containing a plurality of pre-sterilized dialysate concentrates; a mixing chamber configured to promote mixing of sterile water with the plurality of pre-sterilized dialysate concentrates to produce dialysis fluid; and an automated cycler configured to pump mixtures of each of the plurality of pre-sterilized dialysate concentrates into the mixing chamber, the automated cycler being further configured to feed the produced dialysis fluid to and from a patient. a sterile interface connection on the disposable consumable container and configured to be fluidly coupled to a source of sterile water; a concentrate container for coupling to the source of sterile water via the sterile interface connection and containing a plurality of pre-sterilized dialysate concentrates; a mixing chamber configured to promote mixing of sterile water with the plurality of pre-sterilized dialysate concentrates to produce dialysis fluid; and an automated cycler configured to pump mixtures of each of the plurality of pre-sterilized dialysate concentrates into the mixing chamber, the automated cycler being further configured to feed the produced dialysis fluid to and from a patient.
Process for the oxidative cleavage of unsaturated carboxylic acids and their derivatives in which the carboxylic acid group forms an ester bond, an amide bond, a nitrile bond or a thioester bond, for the obtainment of saturated monocarboxylic and dicarboxylic acids or derivatives thereof, said process comprising the steps of: a) reacting at least one unsaturated carboxylic acid or derivative thereof, an oxidising compound and a catalyst capable of catalysing the oxidation reaction of the olefin double bond, in order to obtain an intermediate compound containing vicinal diols, and b) reacting the said intermediate compound, oxygen or a compound containing oxygen, and a catalyst capable of catalysing the oxidation reaction of vicinal diols to carboxyl groups in the presence of water, obtaining an organic phase comprising saturated monocarboxylic acids and saturated dicarboxylic acids or their derivatives, and an aqueous phase comprising the said catalyst, and c) separating the said aqueous phase from the said organic phase, characterised in that at least a part of the said aqueous phase comprising the catalyst and at least one base are fed to step b) so that the mixture of the intermediate compound of step a) with the said part of aqueous phase and the said base has a pH value of between 4 and 7. a) reacting at least one unsaturated carboxylic acid or derivative thereof, an oxidising compound and a catalyst capable of catalysing the oxidation reaction of the olefin double bond, in order to obtain an intermediate compound containing vicinal diols, and b) reacting the said intermediate compound, oxygen or a compound containing oxygen, and a catalyst capable of catalysing the oxidation reaction of vicinal diols to carboxyl groups in the presence of water, obtaining an organic phase comprising saturated monocarboxylic acids and saturated dicarboxylic acids or their derivatives, and an aqueous phase comprising the said catalyst, and c) separating the said aqueous phase from the said organic phase,