mhurhangee/patent-ind-claim-en huggingface dataset:
A turbomachine housing , in particular steam turbine housing, having a first housing part and a second housing part , which are connected to one another via screw connections on flanges located opposite one another or adjoining one another, wherein the second housing part has a curved wall with a curved inside and a curved outside , wherein the curved inside in a first region facing away from the screw connections , is contoured via a first curvature radius (R1) and in a second region facing the screw connections , via a second curvature radius (R2) deviating from the first curvature radius (R1), characterized in that the curved inside is contoured via the first curvature radius (R1) and the second curvature radius (R2) in such a manner that in the region of the screw connections a force vector of the force, which is dependent on a pressure in the interior of the turbomachine housing , extends approximately coaxially but opposite to a force vector of the screw force of the screw connections , which extends through the axis of the screw connections namely in such a manner that an offset between the force vector of the force which is dependent on the pressure in the interior of the turbomachine housing and the force vector of the screw force amounts to < 0.15 of the flange width B, the curved outside is contoured via a third curvature radius (R3), wherein the third curvature radius (R3) and the first curvature radius (R1) deviate from one another.
An intra-train network management system for a train comprising up to three train units coupled together to form a train, each train unit comprising two terminal cars and zero or more intermediate cars between the terminal cars, the intra-train network management system comprising: a communications interface unit in each terminal car configured to establish at least two separate Communications-Based Train Control, CBTC, peer-to-peer networks within its associated train unit, wherein each network connects to distinct nodes within the train unit, and wherein the separate networks of coupled train units are crossed over between train units; and a gateway associated with each terminal car for linking the respective networks of separate train units coupled into a train; and wherein the network management system is configured to determine network topology within the train by sending: a) global device discovery messages throughout the networks, and b) local discovery messages within each train unit that are addressed such that they cannot penetrate the gateway(s) associated with that train unit; wherein an on-board controller unit is configured to build routing tables based on the determined network topology and to set a subnet mask of the local discovery messages to a value that will not penetrate the local gateway. a communications interface unit in each terminal car configured to establish at least two separate Communications-Based Train Control, CBTC, peer-to-peer networks within its associated train unit, wherein each network connects to distinct nodes within the train unit, and wherein the separate networks of coupled train units are crossed over between train units; and a gateway associated with each terminal car for linking the respective networks of separate train units coupled into a train; and wherein the network management system is configured to determine network topology within the train by sending: a) global device discovery messages throughout the networks, and b) local discovery messages within each train unit that are addressed such that they cannot penetrate the gateway(s) associated with that train unit; a) global device discovery messages throughout the networks, and b) local discovery messages within each train unit that are addressed such that they cannot penetrate the gateway(s) associated with that train unit; wherein an on-board controller unit is configured to build routing tables based on the determined network topology and to set a subnet mask of the local discovery messages to a value that will not penetrate the local gateway.
A method of reducing distortion in an additively manufactured part ; comprising: forming a shrinking platform (RA1) of successive layers of composite, the composite including a metal particulate filler in a debindable matrix; forming shrinking supports (SS1) of the composite above the shrinking platform (RA1); forming a desired part of the composite upon the shrinking platform (RA1) and shrinking supports (SS1), all portions of the desired part being vertically and directly supported by the shrinking platform (RA1); forming a sliding release layer (SL1) below the shrinking platform (RA1) of equal or larger surface area than a bottom of the shrinking platform (RA1) that reduces lateral resistance between the shrinking platform (RA1) and an underlying surface ; debinding the matrix sufficient to form a shape-retaining brown part assembly including the shrinking platform (RA1), the shrinking supports (SS1), and the desired part ; and heating the shape-retaining brown part assembly formed from the composite to shrink all of the shrinking platform (RA1), the shrinking supports (SS1), and the desired part together at a same rate as neighboring metal particles throughout the shape-retaining brown part assembly undergo mass diffusion. forming a shrinking platform (RA1) of successive layers of composite, the composite including a metal particulate filler in a debindable matrix; forming shrinking supports (SS1) of the composite above the shrinking platform (RA1); forming a desired part of the composite upon the shrinking platform (RA1) and shrinking supports (SS1), all portions of the desired part being vertically and directly supported by the shrinking platform (RA1); forming a sliding release layer (SL1) below the shrinking platform (RA1) of equal or larger surface area than a bottom of the shrinking platform (RA1) that reduces lateral resistance between the shrinking platform (RA1) and an underlying surface ; debinding the matrix sufficient to form a shape-retaining brown part assembly including the shrinking platform (RA1), the shrinking supports (SS1), and the desired part ; and heating the shape-retaining brown part assembly formed from the composite to shrink all of the shrinking platform (RA1), the shrinking supports (SS1), and the desired part together at a same rate as neighboring metal particles throughout the shape-retaining brown part assembly undergo mass diffusion.
A support (100; 200; 500) for at least one pre-formed fabric layer which fabric layer is configured for use in the formation of a composite component, wherein the support is configured for handling a plurality of pre-formed woven fabric layers or wherein the support is configured for forming pre-formed non-woven fibre layers, wherein the support is configured to align longitudinally extending fibres and transversely extending fibres of each pre-formed fabric layer in a predetermined orientation by providing a shaped portion (120; 220; 520) configured to match the configuration of the at least one pre-formed fabric layer the shaped portion having first and second longitudinally extending edges (130, 140; 230, 240; 530, 540) and first and second transversely extending edges (150, 160; 250, 260; 550, 560) configured to be substantially perpendicular to the first and second longitudinally extending edges, wherein the shaped portion (120; 220; 520) comprises a plurality of peaks (170a, 170b, 170c, 170d, 170e, 170f; 270a, 270b, 270c, 270d, 270e, 270f; 570a, 570b, 570c, 570d, 570e, 570f) extending between the first and second longitudinal edges (130, 140; 230, 240; 530, 540), and wherein each of the plurality of peaks (170a, 170b, 170c, 170d, 170e, 170f; 270a, 270b, 270c, 270d, 270e, 270f; 570a, 570b, 570c, 570d, 570e, 570f) has a peak profile comprising a varying amplitude which extends between the first and second longitudinal edges (130, 140; 230, 240; 530, 540).
A connector for connecting first and second parts of an apparatus, said apparatus being a helmet, the connector comprising: an inner region comprising a first anchor point on a first side thereof, the first anchor point being configured to connect the connector to the first part of the apparatus, the inner region further comprising a sliding surface on a second side thereof, opposite the first side, the sliding surface being configured to provide a low friction interface between the inner region and an opposing surface of the second part of the apparatus; and characterised by : two, or more, arms extending from an edge of the inner region , the arms being formed from a deformable material and configured to connect the connector to the second part of the apparatus.
A steering device assembly for positioning and fastening an airbag module on a steering device of a motor vehicle which steering device can be rotated about a steering axis, comprising a first positioning body which has a detent lever including a first leg and a second leg connected to the first leg , and a carrier on which the detent lever is mounted for pivoting between an initial position and a final assembly position, the two legs of the detent lever being connected to each other at one leg end and each extending to an opposite free leg end at a specified angle, and comprising a second positioning body which has a stop for the free leg end of the first leg for pivoting the detent lever from the initial position into the final assembly position, characterized in that the second positioning body has a detent contour for locking with the free leg end of the second leg in the final assembly position of the detent lever , wherein a spring element is provided for loading the detent lever into the final assembly position. comprising a first positioning body which has a detent lever including a first leg and a second leg connected to the first leg , and a carrier on which the detent lever is mounted for pivoting between an initial position and a final assembly position, the two legs of the detent lever being connected to each other at one leg end and each extending to an opposite free leg end at a specified angle, and comprising a second positioning body which has a stop for the free leg end of the first leg for pivoting the detent lever from the initial position into the final assembly position, characterized in that the second positioning body has a detent contour for locking with the free leg end of the second leg in the final assembly position of the detent lever , wherein a spring element is provided for loading the detent lever into the final assembly position.
A card connector , the card connector is used to accommodate a first card or a second card , a size of the first card is approximate to or the same as that of the second card and the type of the first card and the type of the second card are different; characterized in that the card connector comprises six first terminals and two second terminals , wherein the six first terminals are arranged to form a first card access area , the first card access area is used to install a first card , the six first terminals are configured to be electrically connected to the first card , the first terminals are arranged in two rows and three columns, and the two second terminals are respectively arranged on one side of the two rows of first terminals , in each row, a distance between a second terminal and an adjacent first terminal is shorter than a distance between two adjacent first terminals , the second terminals are distributed on a periphery of the first card access area , the six first terminals and the two second terminals jointly form a second card access area , the second card access area is used to install a second card , and the first terminals and the second terminals are all configured to be electrically connected to the second card ; the six first terminals are electrically connected to the first card and the two second terminals are not electrically connected to the first card when the first card is inserted into the card connector ; the six first terminals and the two second terminals are both electrically connected to the second card when the second card is inserted into the card connector . the card connector comprises six first terminals and two second terminals , wherein the six first terminals are arranged to form a first card access area , the first card access area is used to install a first card , the six first terminals are configured to be electrically connected to the first card , the first terminals are arranged in two rows and three columns, and the two second terminals are respectively arranged on one side of the two rows of first terminals , in each row, a distance between a second terminal and an adjacent first terminal is shorter than a distance between two adjacent first terminals , the second terminals are distributed on a periphery of the first card access area , the six first terminals and the two second terminals jointly form a second card access area , the second card access area is used to install a second card , and the first terminals and the second terminals are all configured to be electrically connected to the second card ; the six first terminals are electrically connected to the first card and the two second terminals are not electrically connected to the first card when the first card is inserted into the card connector ; the six first terminals and the two second terminals are both electrically connected to the second card when the second card is inserted into the card connector .
A console for controlling the delivery of cardioplegia to a patient, comprising in combination: a computer configured to perfuse cardioplegia into the patient, said computer running predefined protocols and sequences of protocols in a specific order to deliver cardioplegia to the patient; an integrated display/touch screen for displaying cardioplegia information and information about the patient and allowing inputting of parameters via the display/touch screen into the console for computer-controlled perfusion of cardioplegia into the patient in accordance with said protocols in said sequence; a flow knob allowing manual control the cardioplegia flow rate, said manual control via said flow knob taking precedence over any in-process computer-controlled cardioplegia perfusion into the patient by suspending any in-process perfusion of cardioplegia into the patient in accordance with said protocols in said sequence, whereby manual control of the cardioplegia perfusion into the patient resumes; and an interface cable operatively connected between the console and a cardioplegia pump. a computer configured to perfuse cardioplegia into the patient, said computer running predefined protocols and sequences of protocols in a specific order to deliver cardioplegia to the patient; an integrated display/touch screen for displaying cardioplegia information and information about the patient and allowing inputting of parameters via the display/touch screen into the console for computer-controlled perfusion of cardioplegia into the patient in accordance with said protocols in said sequence; a flow knob allowing manual control the cardioplegia flow rate, said manual control via said flow knob taking precedence over any in-process computer-controlled cardioplegia perfusion into the patient by suspending any in-process perfusion of cardioplegia into the patient in accordance with said protocols in said sequence, whereby manual control of the cardioplegia perfusion into the patient resumes; and an interface cable operatively connected between the console and a cardioplegia pump.
Particle separator which is designed to separate solid particles from a particle-battery-gas mixture introduced at overpressure at an inlet and to release the battery gas at an outlet , characterized in that the particle separator comprises a gas channel wound helically in an axial direction (z), which gas channel fluidically connects the inlet to the outlet , the gas channel having a particle ejector at the outlet end, which particle ejector is open in a radial direction (y) and is designed to allow particles to pass through, characterized in that the gas channel is formed by a screw arranged in a riser pipe , the screw having a screw helix wound around an axial screw spindle , the riser pipe having a radially inwardly projecting thread wound so as to correspond to the screw helix , the riser pipe being gas-permeably closed on the inlet side by means of a sieve plate and being widened in a funnel shape on the outlet side in an outlet trumpet , and the particle ejector being arranged as a radial slot in the casing of the riser pipe in the region of the outlet trumpet . characterized in that the particle separator comprises a gas channel wound helically in an axial direction (z), which gas channel fluidically connects the inlet to the outlet , the gas channel having a particle ejector at the outlet end, which particle ejector is open in a radial direction (y) and is designed to allow particles to pass through, characterized in that the gas channel is formed by a screw arranged in a riser pipe , the screw having a screw helix wound around an axial screw spindle , the riser pipe having a radially inwardly projecting thread wound so as to correspond to the screw helix , the riser pipe being gas-permeably closed on the inlet side by means of a sieve plate and being widened in a funnel shape on the outlet side in an outlet trumpet , and the particle ejector being arranged as a radial slot in the casing of the riser pipe in the region of the outlet trumpet .
Support for raised floors comprising a base , an intermediate element and a head on which raised floor portions rest, the base comprises a cylindrical cavity having an internal thread , the intermediate element has a cylindrical shape with an external thread and comprises a curved upper surface and central teeth , each tooth of the central teeth comprises a portion which protrudes outwards leaving a space below, the head comprises an upper portion with an outer upper surface which is flat, and a central compartment comprising a central surface with a central through hole , the head further comprises a lower portion with a curved surface , the through hole is provided with curved edges interrupted by notches which protrude outwards to allow the passage from below of the teeth through the through hole , the curved upper surface of the intermediate element being adapted to slidably couple with the curved surface of the lower portion of the head , the intermediate element having a circular groove on the curved upper surface characterized in that the circular groove is positioned at the edge of the curved upper surface of the intermediate element . the base comprises a cylindrical cavity having an internal thread , the intermediate element has a cylindrical shape with an external thread and comprises a curved upper surface and central teeth , each tooth of the central teeth comprises a portion which protrudes outwards leaving a space below, the head comprises an upper portion with an outer upper surface which is flat, and a central compartment comprising a central surface with a central through hole , the head further comprises a lower portion with a curved surface , the through hole is provided with curved edges interrupted by notches which protrude outwards to allow the passage from below of the teeth through the through hole , the curved upper surface of the intermediate element being adapted to slidably couple with the curved surface of the lower portion of the head , the intermediate element having a circular groove on the curved upper surface characterized in that the circular groove is positioned at the edge of the curved upper surface of the intermediate element .
A light assembly comprising: a base having a receiving port ; a first light source supported by the base , the first light source including an area light emitting diode configured to emit light in an upward direction from the base ; a second light source supported by the base , and the second light source including a flood light emitting diode configured to emit light from a side of the base ; and a diffuser supported by the base , the diffuser extending upwardly from the base to enclose the first light source , the diffuser diffusing light emitted from the first light source to the surrounding area in an upward and outward direction; characterized in that : the light assembly further comprises a battery pack removably received in the receiving port of the base ; and wherein the second light source is supported on the side of the base outside the diffuser . a base having a receiving port ; a first light source supported by the base , the first light source including an area light emitting diode configured to emit light in an upward direction from the base ; a second light source supported by the base , and the second light source including a flood light emitting diode configured to emit light from a side of the base ; and a diffuser supported by the base , the diffuser extending upwardly from the base to enclose the first light source , the diffuser diffusing light emitted from the first light source to the surrounding area in an upward and outward direction; characterized in that : the light assembly further comprises a battery pack removably received in the receiving port of the base ; and wherein the second light source is supported on the side of the base outside the diffuser . the light assembly further comprises a battery pack removably received in the receiving port of the base ; and wherein the second light source is supported on the side of the base outside the diffuser .