mhurhangee/ep-ind-claims huggingface dataset:
Delivering device of liquids contained in water crocks, said delivering device being equipped with a system or kit for replacing water crocks with vessels of the "Bag-In-Box" BIB type for their delivery, said system or kit being adapted to perform a placement and a connection of the BIB vessels on said delivering device, said system or kit comprising: - a main supporting and containing body (4, 17, 18); - at least one plate (3, 16) connected to said main body (4, 17, 18) and adapted to place thereon at least one BIB vessel; - at least one connector connected to said main body (4, 17, 18) through a flexible hose and adapted to be connected to a delivering tap of a BIB vessel; - at least one plug connected to said main body (4, 17, 18) and adapted to be connected to a PIN of said delivering device; characterised in that at least one connecting tube (4.1, 17.1, 18.1) is placed in said main body (4, 17, 18) and connected to said flexible hose for communicating said BIB vessel with said delivering device; and - at least one check valve assembly (6, 7) is placed in said main body (4, 17, 18) and is adapted to be connected to and to be contained in said plug to prevent liquid from reentering into said main body (4, 17, 18); and the delivering device is further equipped with at least one system with inspection plate constrained to the main body through a hinge, adapted to allow to inspect the connection system between connector and main body. - a main supporting and containing body (4, 17, 18); - at least one plate (3, 16) connected to said main body (4, 17, 18) and adapted to place thereon at least one BIB vessel; - at least one connector connected to said main body (4, 17, 18) through a flexible hose and adapted to be connected to a delivering tap of a BIB vessel; - at least one plug connected to said main body (4, 17, 18) and adapted to be connected to a PIN of said delivering device; characterised in that at least one connecting tube (4.1, 17.1, 18.1) is placed in said main body (4, 17, 18) and connected to said flexible hose for communicating said BIB vessel with said delivering device; and - at least one check valve assembly (6, 7) is placed in said main body (4, 17, 18) and is adapted to be connected to and to be contained in said plug to prevent liquid from reentering into said main body (4, 17, 18); and the delivering device is further equipped with at least one system with inspection plate constrained to the main body through a hinge, adapted to allow to inspect the connection system between connector and main body.
A system, comprising: an expandable distal-end assembly coupled to a distal end of a shaft for insertion into a cavity of an organ of a patient; a proximal position sensor located at a proximal end of the distal-end assembly; a distal position sensor located at a distal end of the distal-end assembly; and a processor, configured to: based on signals received from the proximal position sensor, estimate a position and a longitudinal direction of the proximal sensor in a coordinate system used by the processor; based on signals received from the distal position sensor, estimate a position of the distal position sensor in the coordinate system; characterized in that the processor is further configured to: project the estimated position of the distal position sensor on an axis defined by the estimated longitudinal direction; and calculate an elongation of the distal-end assembly by calculating a distance between the estimated position of the proximal position sensor and the projected position of the distal position sensor. an expandable distal-end assembly coupled to a distal end of a shaft for insertion into a cavity of an organ of a patient; a proximal position sensor located at a proximal end of the distal-end assembly; a distal position sensor located at a distal end of the distal-end assembly; and a processor, configured to: based on signals received from the proximal position sensor, estimate a position and a longitudinal direction of the proximal sensor in a coordinate system used by the processor; based on signals received from the distal position sensor, estimate a position of the distal position sensor in the coordinate system; characterized in that the processor is further configured to: project the estimated position of the distal position sensor on an axis defined by the estimated longitudinal direction; and calculate an elongation of the distal-end assembly by calculating a distance between the estimated position of the proximal position sensor and the projected position of the distal position sensor. based on signals received from the proximal position sensor, estimate a position and a longitudinal direction of the proximal sensor in a coordinate system used by the processor; based on signals received from the distal position sensor, estimate a position of the distal position sensor in the coordinate system; characterized in that the processor is further configured to: project the estimated position of the distal position sensor on an axis defined by the estimated longitudinal direction; and calculate an elongation of the distal-end assembly by calculating a distance between the estimated position of the proximal position sensor and the projected position of the distal position sensor. project the estimated position of the distal position sensor on an axis defined by the estimated longitudinal direction; and calculate an elongation of the distal-end assembly by calculating a distance between the estimated position of the proximal position sensor and the projected position of the distal position sensor.
A method for encapsulating at least a conductive path formed on a support carrier, said method comprising: forming said conductive path on a layer of a soft and/or rubber material on a rigid carrier. forming an encapsulation layer on a substrate comprising a transparent carrier, wherein the method further comprises forming a rubber or soft layer on said transparent carrier and forming said encapsulation layer on said rubber or soft layer forming at least one through vias through said encapsulation layer; aligning said at least one through vias with a predefined portion of said conductive path; reciprocally bonding said encapsulation layer and said support carrier, wherein said encapsulation layer comprises a first encapsulation layer and a second encapsulation layer, said method further comprising removing said transparent carrier once said encapsulation layer and said support carrier have been reciprocally bonded, peeling off said rubber or soft layer from said first encapsulation layer once said second encapsulation layer has been bonded to said support carrier, filling said at least one vias with a conductive material, characterized in that said method further comprises peeling off said first encapsulation layer from said second encapsulation layer so as to remove conductive material outside said at least one vias. forming said conductive path on a layer of a soft and/or rubber material on a rigid carrier. forming an encapsulation layer on a substrate comprising a transparent carrier, wherein the method further comprises forming a rubber or soft layer on said transparent carrier and forming said encapsulation layer on said rubber or soft layer forming at least one through vias through said encapsulation layer; aligning said at least one through vias with a predefined portion of said conductive path; reciprocally bonding said encapsulation layer and said support carrier, wherein said encapsulation layer comprises a first encapsulation layer and a second encapsulation layer, said method further comprising removing said transparent carrier once said encapsulation layer and said support carrier have been reciprocally bonded, peeling off said rubber or soft layer from said first encapsulation layer once said second encapsulation layer has been bonded to said support carrier, filling said at least one vias with a conductive material, characterized in that said method further comprises peeling off said first encapsulation layer from said second encapsulation layer so as to remove conductive material outside said at least one vias.
Use of a lithium silicate-diopside glass ceramic, which comprises lithium silicate as main crystal phase and diopside as further crystal phase, as dental material and in particular for the preparation of dental restorations.
Wall element of a pallet stacking frame, • where the wall element is made from plastic and incorporates at each of its two front ends a hinge element for attachment to an adjacent wall element, in such a way that a number of wall elements can be joined together in the form of a closed ring, • and where the wall element incorporates an extruded hollow section, • having a closed inner wall that faces towards the interior of the ring and a closed outer wall that faces towards the outside, • and where the hollow section is closed at each of its two front ends by a cover strip that is itself designed to form part of a hinge or incorporates a hinge element as a separate component part, • and where the hollow section forms a retaining strip that is joined to the outer wall and protrudes downwards and is designed to grip the outside of the pallet, characterised in • that at least one insertable tab projects from the cover strip into a cavity in the hollow section, • where a fastening element extends through the hollow section and into the insertable tab. • where the wall element is made from plastic and incorporates at each of its two front ends a hinge element for attachment to an adjacent wall element, in such a way that a number of wall elements can be joined together in the form of a closed ring, • and where the wall element incorporates an extruded hollow section, • having a closed inner wall that faces towards the interior of the ring and a closed outer wall that faces towards the outside, • and where the hollow section is closed at each of its two front ends by a cover strip that is itself designed to form part of a hinge or incorporates a hinge element as a separate component part, • and where the hollow section forms a retaining strip that is joined to the outer wall and protrudes downwards and is designed to grip the outside of the pallet, characterised in • that at least one insertable tab projects from the cover strip into a cavity in the hollow section, • where a fastening element extends through the hollow section and into the insertable tab.
A method for a user equipment, UE, the method comprising: receiving, from a base station, higher layer signalling or an UL grant carried by a random access response, RAR, including a first indication to use either a cyclic prefix orthogonal frequency multiplexing, CP-OFDM, or discrete Fourier transform spread OFDM, DFT-s-OFDM, waveform for message 3 transmission in a random access procedure, RACH; transmitting a message 1 that includes a random access preamble to the base station over a physical random access channel, PRACH; receiving a message 2 that includes the random access response, RAR, from the base station in response to message 1; transmitting a message 3 that includes an identification of the UE to the base station in response to message 2, wherein message 3 is transmitted as either a CP-OFDM or DFT-s-OFDM; and characterized by receiving, from the base station, radio resource control, RRC, signaling including a second indication to use either a CP-OFDM or DFT-s-OFDM waveform for uplink data transmission. receiving, from a base station, higher layer signalling or an UL grant carried by a random access response, RAR, including a first indication to use either a cyclic prefix orthogonal frequency multiplexing, CP-OFDM, or discrete Fourier transform spread OFDM, DFT-s-OFDM, waveform for message 3 transmission in a random access procedure, RACH; transmitting a message 1 that includes a random access preamble to the base station over a physical random access channel, PRACH; receiving a message 2 that includes the random access response, RAR, from the base station in response to message 1; transmitting a message 3 that includes an identification of the UE to the base station in response to message 2, wherein message 3 is transmitted as either a CP-OFDM or DFT-s-OFDM; and characterized by receiving, from the base station, radio resource control, RRC, signaling including a second indication to use either a CP-OFDM or DFT-s-OFDM waveform for uplink data transmission.
A method for assembling a fuel distribution system for a turbomachine fuel injector, comprising: Inserting a liquid fuel distributor into an interior cavity of a shroud to create a liquid fuel distribution circuit between the liquid fuel distributor and the shroud; Inserting a gas fuel distributor into the interior cavity of the shroud and into an interior cavity of the liquid fuel distributor to create a gas fuel distribution circuit between the gas fuel distributor and the liquid fuel distributor; characterized in that the method further comprises inserting a fuel transfer tube into an outer diameter of the shroud, the fuel transfer tube including a liquid fuel channel configured to be in fluid communication with the liquid fuel distribution circuit and a gas fuel channel configured to be in fluid communication with the gas fuel distribution circuit; and brazing or shrink fitting at least one of the fuel transfer tube, the gas fuel distributor, or the liquid fuel distributor to the shroud. Inserting a liquid fuel distributor into an interior cavity of a shroud to create a liquid fuel distribution circuit between the liquid fuel distributor and the shroud; Inserting a gas fuel distributor into the interior cavity of the shroud and into an interior cavity of the liquid fuel distributor to create a gas fuel distribution circuit between the gas fuel distributor and the liquid fuel distributor; characterized in that the method further comprises inserting a fuel transfer tube into an outer diameter of the shroud, the fuel transfer tube including a liquid fuel channel configured to be in fluid communication with the liquid fuel distribution circuit and a gas fuel channel configured to be in fluid communication with the gas fuel distribution circuit; and brazing or shrink fitting at least one of the fuel transfer tube, the gas fuel distributor, or the liquid fuel distributor to the shroud. inserting a fuel transfer tube into an outer diameter of the shroud, the fuel transfer tube including a liquid fuel channel configured to be in fluid communication with the liquid fuel distribution circuit and a gas fuel channel configured to be in fluid communication with the gas fuel distribution circuit; and brazing or shrink fitting at least one of the fuel transfer tube, the gas fuel distributor, or the liquid fuel distributor to the shroud.
A steam turbine, comprising: a casing where a turbine rotor in which rotor blades are implanted is provided to penetrate; a diaphragm outer ring arranged at an inner side of the casing, and having a hollow part inside thereof; a diaphragm inner ring arranged at an inner side of the diaphragm outer ring; a plurality of stationary blades forming a turbine stage with the rotor blades, and supported between the diaphragm inner ring and the diaphragm outer ring, a stationary blade having an end face at the outer diameter side, the end face being contacted with an inner wall surface of the diaphragm outer ring, an end part at an outer diameter side of the stationery blade being joined to the inner wall surface of the diaphragm outer right by welding; a non-joint part existing at a part of a joint part between the diaphragm outer ring and the stationary blade at the turbine stage where wet steam flows, and in which the end part of the outer diameter side of the stationary blade is not welded to the diaphragm outer ring; and a suction part communicated with the hollow part, and collecting waterdroplet or a water film from the non-joint part. a casing where a turbine rotor in which rotor blades are implanted is provided to penetrate; a diaphragm outer ring arranged at an inner side of the casing, and having a hollow part inside thereof; a diaphragm inner ring arranged at an inner side of the diaphragm outer ring; a plurality of stationary blades forming a turbine stage with the rotor blades, and supported between the diaphragm inner ring and the diaphragm outer ring, a stationary blade having an end face at the outer diameter side, the end face being contacted with an inner wall surface of the diaphragm outer ring, an end part at an outer diameter side of the stationery blade being joined to the inner wall surface of the diaphragm outer right by welding; a non-joint part existing at a part of a joint part between the diaphragm outer ring and the stationary blade at the turbine stage where wet steam flows, and in which the end part of the outer diameter side of the stationary blade is not welded to the diaphragm outer ring; and a suction part communicated with the hollow part, and collecting waterdroplet or a water film from the non-joint part.
A flameproof input intrinsically-safe output transmitter for outputting, to an intrinsically-safe side, a loop electrical signal input from a flameproof side, the flameproof input intrinsically-safe output transmitter being covered with a flameproof enclosure and comprising: an intrinsically-safe-side terminal configured to connect to an intrinsically-safe built-in battery type wireless device; a flameproof-side electrical signal terminal configured to input a loop electrical signal from a loop signal line at a flameproof side, the loop signal line of a flameproof type two-terminal transmitter; and an electrical input signal transmitter circuit configured to measure the loop electrical signal and transmit a signal according to a measurement result to the intrinsically-safe-side terminal, wherein the electrical input signal transmitter circuit comprises a current and voltage limiting circuit configured not to perform a specified electrical output or more to the intrinsically-safe-side terminal. an intrinsically-safe-side terminal configured to connect to an intrinsically-safe built-in battery type wireless device; a flameproof-side electrical signal terminal configured to input a loop electrical signal from a loop signal line at a flameproof side, the loop signal line of a flameproof type two-terminal transmitter; and an electrical input signal transmitter circuit configured to measure the loop electrical signal and transmit a signal according to a measurement result to the intrinsically-safe-side terminal, wherein the electrical input signal transmitter circuit comprises a current and voltage limiting circuit configured not to perform a specified electrical output or more to the intrinsically-safe-side terminal.
A switched-mode cyclo-converter including a resonant circuit and first and second three phase half bridge converters (96, 97), wherein switching of the cydo-converter is determined by resonance of the resonant circuit; wherein the first three phase half bridge cyclo-converter includes: a first set of phase voltage inputs; a first set of bidirectional switches, respective ones of which are coupled between respective ones of the phase voltage inputs of the first set of phase voltage inputs and a first output line; and a first set of capacitors (113, 114, 115), respective ones of which are coupled between respective ones of the phase voltage inputs of the first set of phase voltage inputs and a common node; wherein the second three phase half bridge cyclo-converter includes: a second set of phase voltage inputs; a second set of bidirectional switches, respective ones of which are coupled between respective ones of the phase voltage inputs of the first set of phase voltage inputs and a second output line; and a second set of capacitors (116, 117, 118), respective ones of which are coupled between respective ones of the phase voltage inputs of the second set of phase voltage inputs and the common node; and wherein first and second terminals of the resonant circuit are coupled to the first output line and the second output line, respectively; and further comprising a controller that controls switching of the first and second sets of bidirectional switches (101-106, 107-112) based on phase voltages at the first and second sets of phase voltage inputs; and a power supply transformer which is arranged to supply three phase input voltages to the three phase voltage inputs of the half bridge cyclo-converters (96, 97), wherein the power supply transformer is a phase shifting transformer arranged to supply phase shifted three phase voltage inputs to one of the half bridge cyclo-converters (96, 97) which are phase shifted by about 60 degrees with respect to those of the other half bridge cyclo-converter. a first set of phase voltage inputs; a first set of bidirectional switches, respective ones of which are coupled between respective ones of the phase voltage inputs of the first set of phase voltage inputs and a first output line; and a first set of capacitors (113, 114, 115), respective ones of which are coupled between respective ones of the phase voltage inputs of the first set of phase voltage inputs and a common node; a second set of phase voltage inputs; a second set of bidirectional switches, respective ones of which are coupled between respective ones of the phase voltage inputs of the first set of phase voltage inputs and a second output line; and a second set of capacitors (116, 117, 118), respective ones of which are coupled between respective ones of the phase voltage inputs of the second set of phase voltage inputs and the common node; and
Iterative decoding method of the message-passing type for decoding an error correcting code susceptible of representation by a bipartite graph including a plurality of variable nodes and a plurality of control nodes, said messages being expressed in terms of log likelihood ratio, characterized in that at each iteration of a plurality of decoding iterations, for each pair consisting of a variable node and a control node, a change is detected in the sign of the extrinsic information intended to be transmitted α m n t e m p as a message by said variable node to said control node relative to that transmitted ( α mn) at the previous iteration, and in the event of a sign change, said extrinsic information is subjected to an amplitude reduction operation ( F red) before it is transmitted to said control node, the amplitude reduction operation being an operation to threshold the absolute value of said extrinsic information relative to a threshold value α m n T, said threshold value being obtained as the smallest of the absolute values of the extrinsic information transmitted at the previous iterations from said variable node to said control node.