mhurhangee/ep-ind-claims huggingface dataset:
A joint connector with internal noise filter, comprising: a connector housing connectable to a mating connector; terminal fittings (21A, 21B) incorporated into the connector housing and formed with a plurality of juxtaposed terminal portions; and a plurality of types of noise removal elements constituting the noise filter and having different removable frequency bands, wherein the noise removal elements are accommodated side by side in a juxtaposition direction of the terminal portions within a juxtaposition range of the terminal portions in the connector housing, the noise removal elements include an aluminium electrolytic capacitor, characterized in that an opening, of a first accommodation chamber provided in the connector housing and accommodating the aluminum electrolytic capacitor, is filled and closed by an epoxy resin; a rubber ring is wound on side surfaces of the aluminum electrolytic capacitor's main body; wherein a lead wire is drawn out from a mounting surface of the aluminium electrolytic capacitor's main body; and wherein the rubber ring prevents the epoxy resin from reaching said mounting surface, whereby said mounting surface is exposed. a connector housing connectable to a mating connector; terminal fittings (21A, 21B) incorporated into the connector housing and formed with a plurality of juxtaposed terminal portions; and a plurality of types of noise removal elements constituting the noise filter and having different removable frequency bands, wherein the noise removal elements are accommodated side by side in a juxtaposition direction of the terminal portions within a juxtaposition range of the terminal portions in the connector housing, the noise removal elements include an aluminium electrolytic capacitor, characterized in that an opening, of a first accommodation chamber provided in the connector housing and accommodating the aluminum electrolytic capacitor, is filled and closed by an epoxy resin; a rubber ring is wound on side surfaces of the aluminum electrolytic capacitor's main body;
A radiographic system comprising: a plurality of radiation detection apparatuses (120, 122, 124) configured to detect X-rays, wherein at least two of the plurality of radiation detection apparatuses overlap with each other; a combining processor configured to generate a long-size image by controlling enlargement factors of the individual image data of the plurality of radiation images in accordance with the layout relationship between the plurality of radiation detection apparatuses (120, 122, 124); an image correction unit configured to correct a defective region in the long-size image including an image of a structure of one of the plurality of radiation detection apparatuses (120, 122, 124) using a pixel value of an image other than the defective region, and a gradation processor configured to perform a gradation process on the long-size image that has been corrected by the image correction unit. a plurality of radiation detection apparatuses (120, 122, 124) configured to detect X-rays, wherein at least two of the plurality of radiation detection apparatuses overlap with each other; a combining processor configured to generate a long-size image by controlling enlargement factors of the individual image data of the plurality of radiation images in accordance with the layout relationship between the plurality of radiation detection apparatuses (120, 122, 124); an image correction unit configured to correct a defective region in the long-size image including an image of a structure of one of the plurality of radiation detection apparatuses (120, 122, 124) using a pixel value of an image other than the defective region, and a gradation processor configured to perform a gradation process on the long-size image that has been corrected by the image correction unit.
Hydraulic generator for converting falling water into energy, comprising at least a first conveyor member and a second conveyor member, wound around a series of wheels or pulleys and each operating in a closed circuit and along a certain path having a difference in height, wherein each of the conveyors comprises a series of water containers and moreover comprises, along the respective closed path, at least one zone for filling containers with water and a zone in which water is discharged located at a lower height with respect to the filling zone, and wherein said conveyors cooperate so as to actuate at least one user device, and comprising a plurality of conveyors (30, 31, 32) the paths of which are substantially arranged on parallel planes, characterized by comprising at least a first conveyor actuated by wheels with a first diameter, and a second conveyor (31, 32) actuated by wheels with a second diameter (35, 36), that is different from the first, and wherein the wheels of the conveyors, in at least one point of the parallel paths of the conveyors, form a group of coaxial wheels with diameters that increase in size from a smaller inner wheel to a larger outer wheel.
A transmitter (21, 61) for transmitting transmission data to a receiver (40, 70), the transmitter (21, 61) comprising: a power source (30, 68); a transmitter memory (25b, 67), which stores identification information; a data generating section (25, 64), which generates the transmission data containing variable data that may have a different value and verification data, which causes a verifying section (41, 73) provided in the receiver (40, 70) to verify the identification information stored in the transmitter memory (25b, 67) against the identification information registered in the receiver (40, 70), wherein the data generating section (25, 64) is capable of generating, as the verification data, computation data that is computed from fixed data representing the identification information stored in the transmitter memory (25b, 67) and the variable data and that has a shorter data length than the fixed data, wherein the transmitter memory (25b, 67) stores an ID code, which is data indicating the identification information specific to each transmitter (21, 61), the transmitter (21, 61) being characterized in that the transmission data contains a shuffling pattern, which refers to data for shuffling the ID code and specifies the rule with which the ID code is shuffled. a power source (30, 68); a transmitter memory (25b, 67), which stores identification information; a data generating section (25, 64), which generates the transmission data containing variable data that may have a different value and verification data, which causes a verifying section (41, 73) provided in the receiver (40, 70) to verify the identification information stored in the transmitter memory (25b, 67) against the identification information registered in the receiver (40, 70), wherein the data generating section (25, 64) is capable of generating, as the verification data, computation data that is computed from fixed data representing the identification information stored in the transmitter memory (25b, 67) and the variable data and that has a shorter data length than the fixed data, wherein the transmitter memory (25b, 67) stores an ID code, which is data indicating the identification information specific to each transmitter (21, 61), the transmitter (21, 61) being characterized in that the transmission data contains a shuffling pattern, which refers to data for shuffling the ID code and specifies the rule with which the ID code is shuffled.
A method of decorating a ceramic panel, comprising the steps of supplying a ceramic panel to a carrier, performing at least a first printing step by means of a first printing module, and performing a second printing step by means of a second printing module, characterised in that the first and second printing steps are performed according to a predetermined positional relationship to form the decorated ceramic panel, and wherein during and between the first and second printing steps the ceramic panel is held at a substantially fixed position with respect to the carrier.
Cooling apparatus that comprises: - a support structure that comprises a resting surface; - a micro-channel heat exchanger arranged vertically on the resting surface, the heat exchanger comprising a plurality of micro-channel tubes arranged horizontally for the flow of a fluid and transverse air passages between the micro-channel tubes, wherein the heat exchanger is curved along a circular perimeter line so as to define a circular upper opening for the passage of air and a circular surface on the resting surface delimited by the heat exchanger; - a fan arranged on the air passage upper opening, and - an air flow guide element that comprises a guide body having a generally frusto-conical shape arranged centrally on the circular surface about a central axis. - a support structure that comprises a resting surface; - a micro-channel heat exchanger arranged vertically on the resting surface, the heat exchanger comprising a plurality of micro-channel tubes arranged horizontally for the flow of a fluid and transverse air passages between the micro-channel tubes, wherein the heat exchanger is curved along a circular perimeter line so as to define a circular upper opening for the passage of air and a circular surface on the resting surface delimited by the heat exchanger; - a fan arranged on the air passage upper opening, and - an air flow guide element that comprises a guide body having a generally frusto-conical shape arranged centrally on the circular surface about a central axis.
A gas turbine engine comprising: a fan; an engine core located downstream of the fan so as to receive a first portion of flow from the fan; a bypass duct located downstream of the fan and radially outside the engine core so as to receive a second portion of flow from the fan; and a flow splitter (23, 123) defining the location at which the flow from the fan splits into the first and second portions; characterised in that the flow splitter (23, 123) comprises a body (26, 126) having an external surface, and an internal cavity (32, 132), the external surface comprising two surfaces (34, 36, 134, 136), the flow splitter having a leading edge delineating the two surfaces, and one or more noise-attenuation boreholes formed in the exterior surface in a region (38, 138) extending around the leading edge open into the internal cavity (32, 132). a fan; an engine core located downstream of the fan so as to receive a first portion of flow from the fan; a bypass duct located downstream of the fan and radially outside the engine core so as to receive a second portion of flow from the fan; and a flow splitter (23, 123) defining the location at which the flow from the fan splits into the first and second portions; characterised in that the flow splitter (23, 123) comprises a body (26, 126) having an external surface, and an internal cavity (32, 132), the external surface comprising two surfaces (34, 36, 134, 136), the flow splitter having a leading edge delineating the two surfaces, and one or more noise-attenuation boreholes formed in the exterior surface in a region (38, 138) extending around the leading edge open into the internal cavity (32, 132).
A self-supporting film comprising - green luminescent crystals - red luminescent crystals, and - a polymer, wherein the green luminescent crystals are perovskite crystals selected from compounds of formula: [M 1 A 1] a M 2 b X c, wherein: A 1 represents one or more organic cations, in particular formamidinium, M 1 represents one or more alkaline metals, in particular Cs, M 2 represents one or more metals other than M 1, in particular Pb, X represents one or more anions selected from the group consisting of halides, pseudohalides and sulfides, in particular Br, a represents 1-4, b represents 1-2, c represents 3-9, and wherein either M 1, or A 1, or M 1 and A 1 being present; wherein the red luminescent crystals are zincblende or wurzite, preferably zincblende, crystals selected from compounds of formula [M 3 M 3 ']], wherein: M 3, M 3 ' represent Al, Ga, In, in particular In and Y, Y' represent N, P, As, Sb, in particular P and M 3 ', Y' may or may not be present, or M 3, M 3 ' represent Zn, Cd, Be in particular Cd, and Y, Y' represent S, Se, Te in particular Se, and M 3 ', Y' may or may not be present, and wherein a concentration of M 2 is 5 - 200 mg/m 2, preferably 10 - 100 mg/m 2, very preferably 20 - 80 mg/m 2. - green luminescent crystals - red luminescent crystals, and - a polymer, wherein the green luminescent crystals are perovskite crystals selected from compounds of formula: [M 1 A 1] a M 2 b X c, wherein: A 1 represents one or more organic cations, in particular formamidinium, M 1 represents one or more alkaline metals, in particular Cs, M 2 represents one or more metals other than M 1, in particular Pb, X represents one or more anions selected from the group consisting of halides, pseudohalides and sulfides, in particular Br, a represents 1-4, b represents 1-2, c represents 3-9, and A 1 represents one or more organic cations, in particular formamidinium, M 1 represents one or more alkaline metals, in particular Cs, M 2 represents one or more metals other than M 1, in particular Pb, X represents one or more anions selected from the group consisting of halides, pseudohalides and sulfides, in particular Br, a represents 1-4, b represents 1-2, c represents 3-9, and wherein either M 1, or A 1, or M 1 and A 1 being present; wherein the red luminescent crystals are zincblende or wurzite, preferably zincblende, crystals selected from compounds of formula [M 3 M 3 ']], wherein: M 3, M 3 ' represent Al, Ga, In, in particular In and Y, Y' represent N, P, As, Sb, in particular P and M 3 ', Y' may or may not be present, or M 3, M 3 ' represent Zn, Cd, Be in particular Cd, and Y, Y' represent S, Se, Te in particular Se, and M 3 ', Y' may or may not be present, and M 3, M 3 ' represent Al, Ga, In, in particular In and Y, Y' represent N, P, As, Sb, in particular P and M 3 ', Y' may or may not be present, or M 3, M 3 ' represent Zn, Cd, Be in particular Cd, and Y, Y' represent S, Se, Te in particular Se, and M 3 ', Y' may or may not be present, and wherein a concentration of M 2 is 5 - 200 mg/m 2, preferably 10 - 100 mg/m 2, very preferably 20 - 80 mg/m 2.
A method for operating a wind turbine, the wind turbine including a yawing part being yaw angle variable about a yaw axis of the wind turbine, a support structure for supporting the yawing part of the wind turbine, and a load control for controlling an operational parameter of the wind turbine having an influence on the load on the support structure of the wind turbine, the method comprising: a) determining the wind direction; b) determining a yaw angle; c) adjusting the load control during operation of the wind turbine in an operating envelope of wind velocities from 3m/s to 25m/s dependent on the wind direction and the yaw angle, including: using the yaw angle to determine an actual position of the wind turbine within a non-symmetric wind rose around the wind turbine; accessing stored data related to the non-symmetric wind rose; and based on the stored data and the yaw angle of the wind turbine, controlling the operational parameter to adjust the load control to achieve a substantially axi-symmetric loading of the support structure wherein the load control is performed by setting peak shaver setting so as to influence the load distribution on the support structure of the wind turbine. a) determining the wind direction; b) determining a yaw angle; c) adjusting the load control during operation of the wind turbine in an operating envelope of wind velocities from 3m/s to 25m/s dependent on the wind direction and the yaw angle, including: using the yaw angle to determine an actual position of the wind turbine within a non-symmetric wind rose around the wind turbine; accessing stored data related to the non-symmetric wind rose; and based on the stored data and the yaw angle of the wind turbine, controlling the operational parameter to adjust the load control to achieve a substantially axi-symmetric loading of the support structure wherein the load control is performed by setting peak shaver setting so as to influence the load distribution on the support structure of the wind turbine. using the yaw angle to determine an actual position of the wind turbine within a non-symmetric wind rose around the wind turbine; accessing stored data related to the non-symmetric wind rose; and based on the stored data and the yaw angle of the wind turbine, controlling the operational parameter to adjust the load control to achieve a substantially axi-symmetric loading of the support structure wherein the load control is performed by setting peak shaver setting so as to influence the load distribution on the support structure of the wind turbine.
A reagent for examining a water supply for microbial contamination comprising a set of primers comprising a forward nucleotide sequence primer comprising SEQ ID NO: 4 and a reverse nucleotide sequence primer comprising SEQ ID NO: 10, the nucleotide sequences having high specificity for a Legionella microbial species, wherein said nucleotide sequences do not cross-react, or minimally cross- reacts, with a microbial species other than Legionella.
An optical system comprising: a first lens group comprising a plurality of lenses, the first lens group being configured to correct for lateral chromatic aberration; and a second lens group comprising a plurality of lenses, the second lens group being configured to correct for axial chromatic aberration, the second lens group being disposed adjacent the first lens group, a detector disposed behind the second lens group; a mechanism for switching a configuration of the optical system between a narrow field of view (NFOV) configuration and a wide field of view (WFOV) configuration; a ray path steering system disposed in front of the first lens group, the ray path steering system comprising a pair of counter-rotating grisms configured to enhance a field of regard of the optical system; and a stabilization system configured to suppress image jitter, the stabilization system including a mechanism for decentering at least one lens in the first lens group or in the second lens group orthogonal to an optical axis of the optical system; wherein a pupil of the optical system is located external to the first lens group and second lens group for placement of a cold shield within a cryo-vac Dewar enclosing the detector. a first lens group comprising a plurality of lenses, the first lens group being configured to correct for lateral chromatic aberration; and a second lens group comprising a plurality of lenses, the second lens group being configured to correct for axial chromatic aberration, the second lens group being disposed adjacent the first lens group, a detector disposed behind the second lens group; a mechanism for switching a configuration of the optical system between a narrow field of view (NFOV) configuration and a wide field of view (WFOV) configuration; a ray path steering system disposed in front of the first lens group, the ray path steering system comprising a pair of counter-rotating grisms configured to enhance a field of regard of the optical system; and a stabilization system configured to suppress image jitter, the stabilization system including a mechanism for decentering at least one lens in the first lens group or in the second lens group orthogonal to an optical axis of the optical system; wherein a pupil of the optical system is located external to the first lens group and second lens group for placement of a cold shield within a cryo-vac Dewar enclosing the detector.
A resonator (100, 200) for coupling electromagnetic radiation to a sample on the scale of a quantum object embodying a qubit, the resonator (100, 200) comprising: an electrically conductive member; an opening (106, 206) through the member defining an inductive loop in the member, the sample at least partially receivable within the opening (106, 206); and an elongated gap (108, 208) in the member defining a convoluted path having a length between a boundary of the member and the opening, wherein the elongated gap contributes electrical capacitance to the resonator, wherein the convoluted path comprises a plurality of path segments and changes of direction therebetween, and wherein one or more of the changes of direction comprises a reversal of direction.
An automated method for spectroscopic evaluation of a characteristic of edible oil, the method comprising: using a spectrometer, optically obtaining reflectance data from the edible oil in situ in a frying apparatus housing the edible oil, the reflectance data corresponding to a specified range of infra-red wavelengths; transforming the reflectance data using a model profile corresponding to the characteristic being assessed to generate a value corresponding to the characteristic; and applying a criterion to the value to establish a simplified representation of the characteristic for presentation to a user for assessment of oil quality; characterized in that the model profile is securely obtained, by receiving ar encrypted representation of the model profile from a repository and by decrypting the representation of the model profile using a key, the key received in response to validatior that the user is authorized to decrypt and apply the model profile for transforming the reflectance data. using a spectrometer, optically obtaining reflectance data from the edible oil in situ in a frying apparatus housing the edible oil, the reflectance data corresponding to a specified range of infra-red wavelengths; transforming the reflectance data using a model profile corresponding to the characteristic being assessed to generate a value corresponding to the characteristic; and applying a criterion to the value to establish a simplified representation of the characteristic for presentation to a user for assessment of oil quality; characterized in that the model profile is securely obtained, by receiving ar encrypted representation of the model profile from a repository and by decrypting the representation of the model profile using a key, the key received in response to validatior that the user is authorized to decrypt and apply the model profile for transforming the reflectance data.
A control system for a traction wing comprising: a bar having first and second ends, a first fixing arm connected to the first end of the bar, the first fixing arm having a first fixing point for attachment of a first wing control line, a second fixing arm connected to the second end of the bar, the second fixing arm having a second fixing point for attachment of a second wing control line, wherein, at least the first fixing arm is pivotally connected to the first end of the bar and is pivotal between a first position defining a first distance between the first and second fixing points and a second position defining a second distance between the first and second fixing points, and wherein the control system includes a first releasable retaining means for releasably retaining the first fixing arm in the first or second positions. a bar having first and second ends, a first fixing arm connected to the first end of the bar, the first fixing arm having a first fixing point for attachment of a first wing control line, a second fixing arm connected to the second end of the bar, the second fixing arm having a second fixing point for attachment of a second wing control line, wherein, at least the first fixing arm is pivotally connected to the first end of the bar and is pivotal between a first position defining a first distance between the first and second fixing points and a second position defining a second distance between the first and second fixing points, and wherein the control system includes a first releasable retaining means for releasably retaining the first fixing arm in the first or second positions.