mhurhangee/ep-ind-claims huggingface dataset:
A coaxial jack assembly suitable for being connected with a plug comprising: (a) an outer sleeve having a front end and a rear end; (b) a tubular outer contact within said sleeve concentric with said sleeve, said outer sleeve and outer contact being in electrical contact; (c) a contact pin concentric within said outer contact and defining an air gap with said outer contact, said contact pin being mounted in front and rear insulator mountings (20, 22); (d) biasing means urging said outer contact toward the front end of the sleeve; and (e) a connector in contact with the outer contact for interfacing with a transmission component, wherein the connector is a cylindrical bushing received in the rear end of the sleeve, characterized in that said front end of the outer sleeve defines an alignment guide for receiving mating plug, wherein the alignment guide is an alignment bushing that is located inside the outer sleeve and in the front end of the outer contact, and wherein the rear end of the sleeve receives a housing that interfaces with the outer sleeve, outer contact and cylindrical bushing, and the front part of the outer contact has spring fingers engageable with the plug. (a) an outer sleeve having a front end and a rear end; (b) a tubular outer contact within said sleeve concentric with said sleeve, said outer sleeve and outer contact being in electrical contact; (c) a contact pin concentric within said outer contact and defining an air gap with said outer contact, said contact pin being mounted in front and rear insulator mountings (20, 22); (d) biasing means urging said outer contact toward the front end of the sleeve; and (e) a connector in contact with the outer contact for interfacing with a transmission component, wherein the connector is a cylindrical bushing received in the rear end of the sleeve,
A manufacturing method of a sintered ceramic body, the method comprising: a material mixing step of mixing monoclinic barium silicate with aluminum oxide, a glass material being Ba-Si-B-O glass or Ba-Si-B-Al-O glass, and an additive oxide component including at least one oxide selected from the group consisting of oxides of: Cu, Mg, B, Zn, Bi and Zr, under adoption of conditions and to prepare a material mixture; and a firing step of molding the material mixture to a molded object and firing the molded object at a temperature in a range of not lower than 850°C and not higher than 1000°C, wherein the condition is that the monoclinic barium silicate has an average particle diameter in a range of not less than 0.3 μm and less than 1 μm and a specific surface area in a range of not less than 5 m 2 /g and not greater than 20 m 2 /g; and the condition is that the aluminum oxide has an average particle diameter in a range of not less than 0.4 μm and not greater than 10 μm, a specific surface area in a range of not less than 0.8 m 2 /g and not greater than 8 m 2 /g, and a volume ratio of the aluminum oxide to the monoclinic barium silicate in a range of not less than 10% by volume and not greater than 25% by volume. a material mixing step of mixing monoclinic barium silicate with aluminum oxide, a glass material being Ba-Si-B-O glass or Ba-Si-B-Al-O glass, and an additive oxide component including at least one oxide selected from the group consisting of oxides of: Cu, Mg, B, Zn, Bi and Zr, under adoption of conditions and to prepare a material mixture; and a firing step of molding the material mixture to a molded object and firing the molded object at a temperature in a range of not lower than 850°C and not higher than 1000°C, wherein the condition is that the monoclinic barium silicate has an average particle diameter in a range of not less than 0.3 μm and less than 1 μm and a specific surface area in a range of not less than 5 m 2 /g and not greater than 20 m 2 /g; and the condition is that the aluminum oxide has an average particle diameter in a range of not less than 0.4 μm and not greater than 10 μm, a specific surface area in a range of not less than 0.8 m 2 /g and not greater than 8 m 2 /g, and a volume ratio of the aluminum oxide to the monoclinic barium silicate in a range of not less than 10% by volume and not greater than 25% by volume.
An artificial transposon, comprising: a first transposase recognition site, a second transposase recognition site, a barcode disposed therebetween, wherein the barcode comprises a double-stranded nucleic acid sequence comprising a first strand barcode and a second strand barcode, and a linker disposed between the first and the second barcode sequences, wherein the linker comprises a first primer site, a second primer site and a non-amplifiable site disposed between the first and second primer sites. a first transposase recognition site, a second transposase recognition site, a barcode disposed therebetween, wherein the barcode comprises a double-stranded nucleic acid sequence comprising a first strand barcode and a second strand barcode, and a first strand barcode and a second strand barcode, and a linker disposed between the first and the second barcode sequences, wherein the linker comprises a first primer site, a second primer site and a non-amplifiable site disposed between the first and second primer sites. wherein the linker comprises a first primer site, a second primer site and a non-amplifiable site disposed between the first and second primer sites.
A method in a communication system for communication of data, said method comprising: determining (112, 152), at a transmitting source, a long sequence number of a frame of data; determining at said transmitting source a short sequence number of said frame of data, wherein said short sequence number includes a fewer number of bits than said long sequence number and is based on said long sequence number; determining a status of a retransmit flag of said frame of data; transmitting, from said transmitting source to a receiving destination, said frame of data including said short sequence number and said retransmit flag; determining at said receiving destination said long sequence number based on said transmitted short sequence number and said transmitted retransmit flag. determining (112, 152), at a transmitting source, a long sequence number of a frame of data; determining at said transmitting source a short sequence number of said frame of data, wherein said short sequence number includes a fewer number of bits than said long sequence number and is based on said long sequence number; determining a status of a retransmit flag of said frame of data; transmitting, from said transmitting source to a receiving destination, said frame of data including said short sequence number and said retransmit flag; determining at said receiving destination said long sequence number based on said transmitted short sequence number and said transmitted retransmit flag.
An emergency luminaire comprising at least one illuminant and at least one control and monitoring module connected via a power supply line to a mains voltage power supply or an emergency voltage power supply, the luminaire having associated therewith an ambient light sensor connected to the control and monitoring module, wherein the control and monitoring module includes a dimming control unit for dimming the at least one illuminant, and wherein the ambient light sensor is adapted to transmit, depending on a measured brightness, signals to the control and monitoring module for adaptively controlling the illuminant of the luminaire for an automatic local light control of the luminaire, characterized in that a delay time and/or a velocity of dimming can be adjusted by means of the control and monitoring module, and that a dimming adaptation time for the illuminant after activation or deactivation of the general lighting can be predetermined.
A medicine dispensing apparatus comprising: a housing; a plurality of medicine feeder storage units juxtaposed inside the housing, each unit including a plurality of medicine feeders operable to contain medicines and sequentially eject medicines and a medicine feeder casing configured to store the plurality of medicine feeders; one or more medicine guide assemblies each configured to guide the medicines, which have been ejected from the medicine feeders included in the plurality of medicine feeder storage units, to an outlet port located downward; a medicine collecting assembly disposed downward of the plurality of medicine feeder storage units and configured to collect the medicines ejected from the one or more medicine guide assemblies;and a packing device disposed downward of the medicine collecting assembly and operable to separately pack the collected medicines ejected from the medicine collecting assembly; characterized in that the medicine dispensing apparatus further comprises: an air cleaning device operable to take in air from outside of the housing, clean the air, and supply the cleaned air to an interior of the housing; a flow path for cleaned air configured to deliver at least a part of the cleaned air into the medicine guide assemblies such that the cleaned air flows downward inside the medicine guide assemblies; and a branch flow path for cleaned air configured to branch the cleaned air supplied from the air cleaning device and deliver the branched cleaned air directly to an interior of the medicine collecting assembly such that the branched cleaned air does not pass through the flow path for cleaned air. a housing; a plurality of medicine feeder storage units juxtaposed inside the housing, each unit including a plurality of medicine feeders operable to contain medicines and sequentially eject medicines and a medicine feeder casing configured to store the plurality of medicine feeders; one or more medicine guide assemblies each configured to guide the medicines, which have been ejected from the medicine feeders included in the plurality of medicine feeder storage units, to an outlet port located downward; a medicine collecting assembly disposed downward of the plurality of medicine feeder storage units and configured to collect the medicines ejected from the one or more medicine guide assemblies;and a packing device disposed downward of the medicine collecting assembly and operable to separately pack the collected medicines ejected from the medicine collecting assembly; an air cleaning device operable to take in air from outside of the housing, clean the air, and supply the cleaned air to an interior of the housing; a flow path for cleaned air configured to deliver at least a part of the cleaned air into the medicine guide assemblies such that the cleaned air flows downward inside the medicine guide assemblies; and a branch flow path for cleaned air configured to branch the cleaned air supplied from the air cleaning device and deliver the branched cleaned air directly to an interior of the medicine collecting assembly such that the branched cleaned air does not pass through the flow path for cleaned air.
Machine for emptying sacks containing powder or granular material, that comprises: one picker and handling unit, able to take at least one sack from a feed station of full sacks; one cutter unit, operating in a sack-emptying station situated downstream of the feed station, for slitting the sack carried by the picker and handling unit; means for collecting the product, situated in the sack-emptying station underneath the cutter unit, that receive the powder or granular material falling by gravity from the previously-cut sack, to convey the material towards a transfer line; means for receiving and removing the empty sacks, situated in a sack-ejection station with the picker and handling unit, comprising one carriage consisting of two roller sliders attached to each other by a frame and moving horizontally along a guideway located above the emptying and ejection stations, actuated so that it travels forward and back between the sack-ejection station and the sack-feed station, passing through the sack-emptying station; prongs, mounted almost horizontally on the frame of said carriage, said prongs extending from the carriage towards the sack-feed station and being able to pierce at least one full sack present in the sack-feed station when the carriage reaches the end of its forward travel, so that the sack is attached to the carriage and carried along with it on the return travel toward the sack-emptying station; said machine being characterized in that the cutter unit comprises at least one first shaft rotated by a first actuator, arranged so that the horizontal axis of the shaft is perpendicular to the direction of movement of the carriage and underneath the sack carried by the carriage during the return travel, and with a number of circular blades, keyed at preset distances along the first shaft and set at an angle relative to the axis of this shaft, such that during the rotation of the first shaft each of the circular blades follows a trajectory such that the point of contact between its circumference and a tangential plane oscillates on a line parallel to the axis of the first shaft, with amplitude proportional to the aforesaid angle, so that each of the blades is able to intercept and slice the lower surface of the passing sack, forming a cut of sinusoidal shape that facilitates the outflow of the powder or granular material into the product-collection means below.
A passport paper web for manufacturing a passport book with passport book pages which are supplied with page-individual security threads, wherein the passport paper web has a longitudinal direction and a transverse direction and at least in the longitudinal direction contains a multiplicity of sheets, which in turn are each subdivided at least in the longitudinal direction into a multiplicity of single copies which correspond to the passport book pages of the passport book to be manufactured, wherein the passport paper web is supplied with at least one security thread extending in the longitudinal direction, which contains a multiplicity of single-copy-individual security features which are allocated to specific single copies in each case, and wherein the security thread is arranged in register to the single copies, so that the single-copy-individual security features come to lie on or in the respectively allocated single copies, and wherein the security threads are formed as windowed or pendulating security threads.
Apparatus for moving a heavy weight radiography device for industrial applications, comprising: - a substantially rectangular frame extending parallel to a plane (X-Z) parallel to a longitudinal lengthwise direction (X-X) of the apparatus and to a vertical heightwise direction (Z-Z) of the apparatus, having a greater dimension parallel to the vertical direction (Z-Z) and translatably movable in both senses of the longitudinal direction (X-X) via means for translational movement of the frame; - a first carriage movable on the frame in both senses of the vertical direction (Z-Z); - a second carriage mounted on and displaceable relative to the first carriage in both senses of a transverse direction (Y-Y) orthogonal to the longitudinal (X-X) and vertical (Z-Z) directions and adapted to rotate about an axis parallel to the vertical direction (Z-Z); - a bottom support for the radiography device, mounted on the second carriage and adapted to swivel about an axis parallel to the longitudinal direction (X-X), relative to the second carriage; - a beam extending in the longitudinal direction (X-X) and able to be fixed to a wall, said beam comprising means complementing the means for translational movement of the frame which may thereby move on the beam in both senses of the said longitudinal direction (X-X); wherein in an intermediate position in the vertical direction (Z-Z) the frame has counter-thrust struts, extending parallel to the transverse direction (Y-Y) for keeping, during use, the frame spaced and aligned with respect to a wall to which the beam is also fixed. - a substantially rectangular frame extending parallel to a plane (X-Z) parallel to a longitudinal lengthwise direction (X-X) of the apparatus and to a vertical heightwise direction (Z-Z) of the apparatus, having a greater dimension parallel to the vertical direction (Z-Z) and translatably movable in both senses of the longitudinal direction (X-X) via means for translational movement of the frame; - a first carriage movable on the frame in both senses of the vertical direction (Z-Z); - a second carriage mounted on and displaceable relative to the first carriage in both senses of a transverse direction (Y-Y) orthogonal to the longitudinal (X-X) and vertical (Z-Z) directions and adapted to rotate about an axis parallel to the vertical direction (Z-Z); - a bottom support for the radiography device, mounted on the second carriage and adapted to swivel about an axis parallel to the longitudinal direction (X-X), relative to the second carriage; - a beam extending in the longitudinal direction (X-X) and able to be fixed to a wall, said beam comprising means complementing the means for translational movement of the frame which may thereby move on the beam in both senses of the said longitudinal direction (X-X);
A bus bar comprising: a main body portion that is configured to be included in a battery module and comprises a first metal, has a stepped structure, in which an outer surface of the main body portion in an outward direction of the battery module is recessed in an inward direction, formed in one region, and is configured to be electrically connected to at least one secondary battery; a current breaking portion that is inserted into a space formed as an outer surface of the stepped structure is recessed in the inward direction and comprises a second metal having a melting point relatively lower than the first metal; and a covering member configured to surround at least a part of an outer surface of the current breaking portion, wherein the current breaking portion is configured to electrically connect an upper wall and a lower wall of the recessed space of the stepped structure, which are spaced apart from each other; and wherein the covering member comprises a discharge hole perforated to communicate the inside and the outside of the bus bar. a main body portion that is configured to be included in a battery module and comprises a first metal, has a stepped structure, in which an outer surface of the main body portion in an outward direction of the battery module is recessed in an inward direction, formed in one region, and is configured to be electrically connected to at least one secondary battery; a current breaking portion that is inserted into a space formed as an outer surface of the stepped structure is recessed in the inward direction and comprises a second metal having a melting point relatively lower than the first metal; and a covering member configured to surround at least a part of an outer surface of the current breaking portion, wherein the current breaking portion is configured to electrically connect an upper wall and a lower wall of the recessed space of the stepped structure, which are spaced apart from each other; and wherein the covering member comprises a discharge hole perforated to communicate the inside and the outside of the bus bar.
Method for magnetic resonance imaging, MRI, using an MRI apparatus, comprising obtaining, from a database, an image acquisition sequence comprising RF pulses and magnetic field gradients configured to encode spatial information in a part of an object; obtaining, from the database, a predetermined noise cancelling signal corresponding to the obtained image acquisition sequence at a first position, wherein the predetermined noise cancelling signal is based on a transfer function that is an approximation of a function of calibration magnetic field gradients of a calibration image acquisition sequence, wherein the function characterizes the MRI apparatus, wherein the approximation of the function is a trained neural network obtained by training a neural network on a plurality of generic image acquisition sequences from a generic MRI apparatus or multiple MRI apparatus, followed by transfer learning with the calibration image acquisition sequence of the MRI apparatus, wherein the training the neural network comprises comparing predicted acoustic noise signals to measured acoustic noise signals; generating the image acquisition sequence by generating the RF pulses through RF coils and magnetic field gradients through gradient coils, wherein the gradient coils are configured for three orthogonal directions respectively; and converting, by an acoustic transducer, simultaneously with the image acquisition sequence, the predetermined noise cancelling signal to an acoustic noise cancelling signal at the first position. obtaining, from a database, an image acquisition sequence comprising RF pulses and magnetic field gradients configured to encode spatial information in a part of an object; obtaining, from the database, a predetermined noise cancelling signal corresponding to the obtained image acquisition sequence at a first position, wherein the predetermined noise cancelling signal is based on a transfer function that is an approximation of a function of calibration magnetic field gradients of a calibration image acquisition sequence, wherein the function characterizes the MRI apparatus, wherein the approximation of the function is a trained neural network obtained by training a neural network on a plurality of generic image acquisition sequences from a generic MRI apparatus or multiple MRI apparatus, followed by transfer learning with the calibration image acquisition sequence of the MRI apparatus, wherein the training the neural network comprises comparing predicted acoustic noise signals to measured acoustic noise signals; generating the image acquisition sequence by generating the RF pulses through RF coils and magnetic field gradients through gradient coils, wherein the gradient coils are configured for three orthogonal directions respectively; and converting, by an acoustic transducer, simultaneously with the image acquisition sequence, the predetermined noise cancelling signal to an acoustic noise cancelling signal at the first position.