mhurhangee/ep-ind-claims huggingface dataset:
A signal transmission circuit comprising: a primary element configured to receive differential signals (S21, S22) generated from a transmission signal, the differential signals containing alternating-current components; a secondary element magnetically or capacitively coupled with the primary element, the secondary element being configured to output AC signals (S31, S32) containing the AC components of the differential signals; a secondary circuit electrically connected to the secondary element, the secondary circuit including a pair of transmission lines (24, 25) configured to propagate the AC signals, the secondary circuit being configured to extract the transmission signal from the AC signals; and a feedback circuit, which is electrically connected to nodes (26, 27) each provided on respective one of the pair of transmission lines, configured to feedback an intermediate voltage between voltages of the pair of transmission lines, by controlling currents flowing through the nodes according to a difference between the intermediate voltage and a reference voltage so as to converge the intermediate voltage to the reference voltage, wherein the feedback circuit is configured to limit propagation of the AC signals, which have frequencies larger than a predetermined cut-off frequency. a primary element configured to receive differential signals (S21, S22) generated from a transmission signal, the differential signals containing alternating-current components; a secondary element magnetically or capacitively coupled with the primary element, the secondary element being configured to output AC signals (S31, S32) containing the AC components of the differential signals; a secondary circuit electrically connected to the secondary element, the secondary circuit including a pair of transmission lines (24, 25) configured to propagate the AC signals, the secondary circuit being configured to extract the transmission signal from the AC signals; and a feedback circuit, which is electrically connected to nodes (26, 27) each provided on respective one of the pair of transmission lines, configured to feedback an intermediate voltage between voltages of the pair of transmission lines, by controlling currents flowing through the nodes according to a difference between the intermediate voltage and a reference voltage so as to converge the intermediate voltage to the reference voltage, wherein the feedback circuit is configured to limit propagation of the AC signals, which have frequencies larger than a predetermined cut-off frequency.
An electrophotographic photosensitive member comprising a conductive substrate; and a photosensitive layer containing a charge generating material and a hole transport material, wherein the hole transport material is a triarylamine derivative represented by general formula below: where R 1, R 4, R 5, R 6, R 7, R 8, and R 9 each represent a hydrogen atom, R 2 represents an alkyl group having a carbon number of at least 1 and no greater than 4, R 3 represents an alkyl group having a carbon number of at least 1 and no greater than 4, the alkyl group being different from the alkyl group represented by R 2, X represents an alkylene group having a carbon number of at least 1 and no greater than 6 or an oxygen atom, and n represents an integer of at least 1 and no greater than 3. where R 1, R 4, R 5, R 6, R 7, R 8, and R 9 each represent a hydrogen atom, R 2 represents an alkyl group having a carbon number of at least 1 and no greater than 4, R 3 represents an alkyl group having a carbon number of at least 1 and no greater than 4, the alkyl group being different from the alkyl group represented by R 2, X represents an alkylene group having a carbon number of at least 1 and no greater than 6 or an oxygen atom, and n represents an integer of at least 1 and no greater than 3.
A propellant ignition system comprising: a combustion chamber defining a first longitudinal axis; a propellant flowing through said combustion chamber; and a spark plug extending into said combustion chamber, said spark plug comprising: an insulating body defining a second longitudinal axis and comprising a base portion and an obstruction portion; a first electrode extending through said base portion of said insulating body; and a second electrode extending through said base portion and said obstruction portion of said insulating body, said second electrode being spaced apart from said first electrode to define a gap therebetween, wherein said obstruction portion is in flow alignment with said gap. a combustion chamber defining a first longitudinal axis; a propellant flowing through said combustion chamber; and a spark plug extending into said combustion chamber, said spark plug comprising: an insulating body defining a second longitudinal axis and comprising a base portion and an obstruction portion; a first electrode extending through said base portion of said insulating body; and a second electrode extending through said base portion and said obstruction portion of said insulating body, said second electrode being spaced apart from said first electrode to define a gap therebetween, wherein said obstruction portion is in flow alignment with said gap. an insulating body defining a second longitudinal axis and comprising a base portion and an obstruction portion; a first electrode extending through said base portion of said insulating body; and a second electrode extending through said base portion and said obstruction portion of said insulating body, said second electrode being spaced apart from said first electrode to define a gap therebetween, wherein said obstruction portion is in flow alignment with said gap.
A pressure lock system for passing a wire along a wire path from a wire source at a high pressure first region to a destination at a low pressure second region, the system comprising: a pressure lock chamber; a first conduit having an interior positioned to pass the wire along the wire path; a second conduit having an interior positioned to pass the wire from the pressure lock chamber downstream of the first conduit; and means for maintaining a pressure (P 3) of the pressure lock chamber lower than a pressure (P 1) of the first region, characterised in that: said first conduit is mounted for rotation; said second conduit is mounted for rotation; and said system further comprises means for driving rotation of the first conduit and the second conduit. a pressure lock chamber; a first conduit having an interior positioned to pass the wire along the wire path; a second conduit having an interior positioned to pass the wire from the pressure lock chamber downstream of the first conduit; and means for maintaining a pressure (P 3) of the pressure lock chamber lower than a pressure (P 1) of the first region, characterised in that: said first conduit is mounted for rotation; said second conduit is mounted for rotation; and said system further comprises means for driving rotation of the first conduit and the second conduit. said first conduit is mounted for rotation; said second conduit is mounted for rotation; and said system further comprises means for driving rotation of the first conduit and the second conduit.
A toothed holding brake for a door for a vehicle, the toothed holding brake having the following features: a shaft which, at one end, forms a driver element with a driver main surface with a driver toothed rim which has a plurality of driver teeth; an armature disk which has a first main surface and a second main surface which is arranged so as to lie opposite the first main surface, an armature disk toothed rim with a plurality of armature teeth being arranged on the second main surface, the armature disk being arranged in a locked position in such a way that the armature teeth engage into the driver teeth, in order to prevent a rotation of the shaft in at least one direction, and being arranged in an unlocked position in such a way that the armature teeth are arranged spaced apart from the driver teeth, in order to release the rotation of the shaft in both directions; a magnet device (210, 256, 257) with a magnet main surface which is arranged so as to face the armature disk, the magnet device (210, 256, 257) being configured to move the armature disk between the locked position and the unlocked position, the first main surface of the armature disk and the magnet main surface being arranged so as to run substantially obliquely with respect to one another in the locked position of the armature disk; and a detection device which is configured to detect the locked position and/or the unlocked position, the detection device being arranged in the region of a first side of the armature disk. a shaft which, at one end, forms a driver element with a driver main surface with a driver toothed rim which has a plurality of driver teeth; an armature disk which has a first main surface and a second main surface which is arranged so as to lie opposite the first main surface, an armature disk toothed rim with a plurality of armature teeth being arranged on the second main surface, the armature disk being arranged in a locked position in such a way that the armature teeth engage into the driver teeth, in order to prevent a rotation of the shaft in at least one direction, and being arranged in an unlocked position in such a way that the armature teeth are arranged spaced apart from the driver teeth, in order to release the rotation of the shaft in both directions; a magnet device (210, 256, 257) with a magnet main surface which is arranged so as to face the armature disk, the magnet device (210, 256, 257) being configured to move the armature disk between the locked position and the unlocked position, the first main surface of the armature disk and the magnet main surface being arranged so as to run substantially obliquely with respect to one another in the locked position of the armature disk; and a detection device which is configured to detect the locked position and/or the unlocked position, the detection device being arranged in the region of a first side of the armature disk.
Control system for a process installation, wherein the process installation represents a chemical, pharmaceutical or petrochemical installation, or an installation from the food and drinks industry, wherein the control system comprises functionalities for representing, operating and controlling the process installation, and wherein the control system has a computer-implemented registration service, wherein the registration service is designed to: - receive a certificate request from an installation component of the process installation, said certificate request comprising information regarding an identity of the installation component, - extract, from a memory, information about which certificates of the installation component have already been assigned, can be assigned and are to be assigned, - determine, on the basis of a linking of the information regarding the identity of the installation component and the information, extracted from the memory, about the certificates that can be assigned or are to be assigned, the type of the certificate request, wherein the type represents an initial certificate request or a request for certificate renewal, and which registration authority or which certification authority (5a, 5b) of the process installation is responsible for the certificate request, - transfer the certificate request of the installation component, with information about the type of the certificate request, to the responsible registration authority or the responsible certification authority (5a, 5b). - receive a certificate request from an installation component of the process installation, said certificate request comprising information regarding an identity of the installation component, - extract, from a memory, information about which certificates of the installation component have already been assigned, can be assigned and are to be assigned, - determine, on the basis of a linking of the information regarding the identity of the installation component and the information, extracted from the memory, about the certificates that can be assigned or are to be assigned, the type of the certificate request, wherein the type represents an initial certificate request or a request for certificate renewal, and which registration authority or which certification authority (5a, 5b) of the process installation is responsible for the certificate request, - transfer the certificate request of the installation component, with information about the type of the certificate request, to the responsible registration authority or the responsible certification authority (5a, 5b).
A method of making a lifter bar (1a, 1c) having a new wearing surface for use in a grinding mill for forming a refurbished lifter bar, the lifter bar (1a, 1c) having a predetermined form and comprising a base member of a used lifter bar and a new wearing surface, wherein the method comprises the steps of: - providing a mould for moulding a new wearing surface to the lifter bar, the mould having an interior space that conforms at least partially to the predetermined form; - joining the mould and the base member of a used lifter bar together such that an empty space, which is a cavity, is formed between the base member of a used lifter bar and the mould; and - filling the empty space with polyurethane and allowing the polyurethane to attach to a worn wearing surface of the base member of a used lifter bar and to form a new moulded wearing surface to construct a lifter bar having the new wearing surface made of polyurethane in the predetermined form such that the base member and the new moulded wearing surface form together the refurbished lifter bar having the predetermined form, wherein the wearing surface comprises the upper surface of the lifter bar comprising at least part of the top surface of the lifter bar as well as at least part of the side surface of the lifter bar, which is toward the moving direction of the grinding mill. - providing a mould for moulding a new wearing surface to the lifter bar, the mould having an interior space that conforms at least partially to the predetermined form; - joining the mould and the base member of a used lifter bar together such that an empty space, which is a cavity, is formed between the base member of a used lifter bar and the mould; and - filling the empty space with polyurethane and allowing the polyurethane to attach to a worn wearing surface of the base member of a used lifter bar and to form a new moulded wearing surface to construct a lifter bar having the new wearing surface made of polyurethane in the predetermined form such that the base member and the new moulded wearing surface form together the refurbished lifter bar having the predetermined form, wherein the wearing surface comprises the upper surface of the lifter bar comprising at least part of the top surface of the lifter bar as well as at least part of the side surface of the lifter bar, which is toward the moving direction of the grinding mill.
A method in a user equipment for instructing establishment of a connection between a first local device and a second local device, the user equipment being connected to a public network, wherein an intermediary system is configured to connect to a first local network, to a second local network and to the public network and wherein the first local device is connected to the first local network and the second local device is connected to the second local network, wherein the first local device and the second local device are configured to connect over a communication path, the method comprising: - generating a virtual view comprising a first representation of the first local device in the first local network and a second representation of the second local device in the second local network; - processing a selection of the first representation in the virtual view; the method characterized by: - obtaining connectivity information regarding the communication path between the first local device and the second local device; and - disabling, in dependence of the connectivity information regarding the communication path and in response to processing the selection of the first representation in the virtual view, an ability for a user of the user equipment to provide an instruction over the public network to establish the connection over the communication path between the first local device and the second local device. - generating a virtual view comprising a first representation of the first local device in the first local network and a second representation of the second local device in the second local network; - processing a selection of the first representation in the virtual view; - obtaining connectivity information regarding the communication path between the first local device and the second local device; and - disabling, in dependence of the connectivity information regarding the communication path and in response to processing the selection of the first representation in the virtual view, an ability for a user of the user equipment to provide an instruction over the public network to establish the connection over the communication path between the first local device and the second local device.
A tired trailer with hooklift body comprising a chassis, in turn comprising two longitudinal members which are parallel to and transversally spaced from each other; a plurality of wheel hubs; at least one hydraulic suspension cylinder interposed between each said wheel hub and said chassis and coupled to the chassis in a respective connection point; a loading body; an operating arm for moving the body with respect to the chassis; for each said longitudinal member, a respective row of guide and support blocks for said body; and, for each said hydraulic cylinder, a respective connection bracket; each hydraulic cylinder having its own upper portion coupled to said connection bracket in said connection point; each said guide and support block extending at least partially above an upper surface of the respective said longitudinal member; characterized in that it comprises, for each said hydraulic cylinder, a corresponding said guide and support block; each said guide and support block being crossed by a respective vertical plane orthogonal to the corresponding said longitudinal member and passing through the connection point of the respective said hydraulic cylinder; each said bracket carrying a corresponding said guide and support block, which is juxtaposed in a direction orthogonal to said longitudinal direction; each said bracket being integrally connected to an external side of the respective said longitudinal member and comprising an upper end portion, which protrudes upwards beyond said upper surface and to which the corresponding said hydraulic cylinder is coupled; each said guide and support block being integrally connected to said upper end portion.
A melting and kneading method for producing a compatible nanostructured resin, wherein dispersed phases are uniformly dispersed in a matrix resin, comprising: a) a supplying step of supplying at least two incompatible resins selected from polycarbonate and methacryl-based resin from a material supplying part into a melting and kneading part which includes a cylinder, a screw, the material supplying part and a heating part; and b) a melting and kneading step to make the compatible nanostructured resin by melting and kneading the incompatible resins, wherein a rotation speed of the screw is set into a range from 600 rpm to 3000 rpm, and a shear rate is set into a range from 900 to 4500 sec -1; wherein one of polymer components polycarbonate or methacryl-based resin is formed into a matrix and a dispersed phase of the other polymer component is dispersed to this matrix, wherein the dispersed phases have sizes of 300 nm or less; and wherein the at least two incompatible resins have a polycarbonate of 97 to 3 weight % and a methacryl-based resin of 3 to 97 weight %. a) a supplying step of supplying at least two incompatible resins selected from polycarbonate and methacryl-based resin from a material supplying part into a melting and kneading part which includes a cylinder, a screw, the material supplying part and a heating part; and b) a melting and kneading step to make the compatible nanostructured resin by melting and kneading the incompatible resins, wherein a rotation speed of the screw is set into a range from 600 rpm to 3000 rpm, and a shear rate is set into a range from 900 to 4500 sec -1; wherein one of polymer components polycarbonate or methacryl-based resin is formed into a matrix and a dispersed phase of the other polymer component is dispersed to this matrix, wherein the dispersed phases have sizes of 300 nm or less; and wherein the at least two incompatible resins have a polycarbonate of 97 to 3 weight % and a methacryl-based resin of 3 to 97 weight %.
A method of manufacturing a bulk thermoelectric device comprising: cutting two slices of thermoelectric element material and preparing one slice as a P-type substrate and the other slice as an N-type substrate; sawing one side of each P-type and N-type substrate to form pellets in the form of quadrangular protrusions in a row separated by quadrangular depressions, such that the pellets of the P-type substrate and the pellets of the N-type substrate are adapted to be alternatively engaged with each other, and wherein the unsawed portion on the opposite side of each substrate forms a base layer; attaching a support pedestal, having a predetermined height, in a longitudinal direction along an upper central portion of a processed pellet; forming a fastening groove on the bottom portion of a depression in a form corresponding to the shape of the support pedestal such that the fastening groove and the support pedestal engage with each other; inserting and bonding the support pedestal into the fastening groove when the sawed top of the P-type substrate and the sawed top of the N-type substrate engage with each other, after applying the sawed top of the P-type substrate and the sawed top of the N-type substrate with an insulating resin; polishing or grinding the base layer of the P-type substrate and the N-type substrate until the support pedestal is removed, forming only a P/N layer after the insulating resin is cured; and assembling ceramic substrates with conductive electrode pads on the top and the bottom of the P/N layer to complete the thermoelectric device. cutting two slices of thermoelectric element material and preparing one slice as a P-type substrate and the other slice as an N-type substrate; sawing one side of each P-type and N-type substrate to form pellets in the form of quadrangular protrusions in a row separated by quadrangular depressions, such that the pellets of the P-type substrate and the pellets of the N-type substrate are adapted to be alternatively engaged with each other, and wherein the unsawed portion on the opposite side of each substrate forms a base layer; attaching a support pedestal, having a predetermined height, in a longitudinal direction along an upper central portion of a processed pellet; forming a fastening groove on the bottom portion of a depression in a form corresponding to the shape of the support pedestal such that the fastening groove and the support pedestal engage with each other; inserting and bonding the support pedestal into the fastening groove when the sawed top of the P-type substrate and the sawed top of the N-type substrate engage with each other, after applying the sawed top of the P-type substrate and the sawed top of the N-type substrate with an insulating resin; polishing or grinding the base layer of the P-type substrate and the N-type substrate until the support pedestal is removed, forming only a P/N layer after the insulating resin is cured; and assembling ceramic substrates with conductive electrode pads on the top and the bottom of the P/N layer to complete the thermoelectric device.