mhurhangee/ep-ind-claims huggingface dataset:
A prosthetic valve comprising: a leaflet structure comprising a plurality of leaflets; a sealing device in the form of a skirt; and a collapsible and expandable annular frame, configured to be collapsed to a radially collapsed state for mounting on a delivery apparatus and expanded to a radially expanded state inside the body; wherein each leaflet has a scalloped lower edge portion, secured to the frame and/or the skirt by sutures, and a tab portion adjacent an upper free edge of the leaflet which is placed against another tab portion of an adjacent leaflet to form a commissure; and wherein the frame comprises a plurality of rows (112a, 112b, 112c, 112d) of angled struts, the angled struts joined to each other so as to form a plurality of rows of hexagonal cells, wherein each of the hexagonal cells is defined by six struts (144, 146, 148), including: two opposing side struts extending parallel to a flow axis of the valve, a pair of lower angled struts, extending downwardly from respective lower ends of the side struts and converging to intersect with each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging to intersect with each other. a leaflet structure comprising a plurality of leaflets; a sealing device in the form of a skirt; and a collapsible and expandable annular frame, configured to be collapsed to a radially collapsed state for mounting on a delivery apparatus and expanded to a radially expanded state inside the body; wherein each leaflet has a scalloped lower edge portion, secured to the frame and/or the skirt by sutures, and a tab portion adjacent an upper free edge of the leaflet which is placed against another tab portion of an adjacent leaflet to form a commissure; and wherein the frame comprises a plurality of rows (112a, 112b, 112c, 112d) of angled struts, the angled struts joined to each other so as to form a plurality of rows of hexagonal cells, wherein each of the hexagonal cells is defined by six struts (144, 146, 148), including: two opposing side struts extending parallel to a flow axis of the valve, a pair of lower angled struts, extending downwardly from respective lower ends of the side struts and converging to intersect with each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging to intersect with each other. two opposing side struts extending parallel to a flow axis of the valve, a pair of lower angled struts, extending downwardly from respective lower ends of the side struts and converging to intersect with each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging to intersect with each other.
A de-icer for an aircraft wing, comprising a bracket arranged on a structural member and a de-icer module mounted on the bracket, characterized in that the de-icer module is adjustable arranged on the bracket, so that the position of the de-icer module is adjustable in relation to the bracket.
Timepiece barrel assembly, including at least one barrel mainspring mounted between, at a first end a barrel drum, and at a second end, a receiving surface comprised in a barrel core coaxial to said drum about a pivot axis, characterized in that said spring is made of a multiphase, cobalt-nickel-chromium based alloy, comprising 44 to 46% cobalt, 20 to 22% nickel, 17 to 19% chromium, 4 to 6 % iron, 3 to 5% tungsten, 3 to 5% molybdenum, 0 to 2% titanium, 0 to 1% beryllium, and having a Young's modulus of between 200 and 240 GPa and a shear modulus of between 80 and 100 GPa, and having a width to thickness ratio of between 9 and 21, and in that the maximum radius of said steel or stainless steel core relative to said pivot axis is less than nine times the maximum thickness of said spring, and further characterized in that said barrel assembly includes, on said spring or said drum, a means of limiting the longitudinal clearance, in the direction of said pivot axis, between said drum and said mainspring.
A cargo tank unit comprising: a cargo tank of IMO IGC Code Tank Type C; a skirt having an upper end connected to a lower half portion of the cargo tank over a circumferential direction and extending downward to be fixed to a hull; and a welded portion fixing the upper end of the skirt to the cargo tank over the circumferential direction, wherein the skirt includes a tubular portion and a tank support portion, the tubular portion has a cylindrical shape extending in an up-down direction, and the tank support portion is continuously provided on an upper portion of the tubular portion and extends downward and outward in a radial direction of the cargo tank, characterized in that an angle formed by the tank support portion and a central axis of the tubular portion is formed so as to gradually increase upward. a cargo tank of IMO IGC Code Tank Type C; a skirt having an upper end connected to a lower half portion of the cargo tank over a circumferential direction and extending downward to be fixed to a hull; and a welded portion fixing the upper end of the skirt to the cargo tank over the circumferential direction, wherein the skirt includes a tubular portion and a tank support portion, the tubular portion has a cylindrical shape extending in an up-down direction, and the tank support portion is continuously provided on an upper portion of the tubular portion and extends downward and outward in a radial direction of the cargo tank, characterized in that an angle formed by the tank support portion and a central axis of the tubular portion is formed so as to gradually increase upward.
A fluoropolyether-containing polymer-modified silane having the general formula: wherein Rf is a monovalent fluorooxyalkyl or divalent fluorooxyalkylene-containing polymer residue, Y is a divalent to hexavalent hydrocarbon group which may contain a siloxane bond or silylene group, each R independently is an alkyl group of 1 to 4 carbon atoms or phenyl group, each X independently is a hydrolysable group, n is an integer of 1 to 3, m is an integer of 1 to 5, and α is 1 or 2.
A method of operating a radio unit, RU, in a network node of a wireless communication system, comprising: receiving, at the radio unit and from a lower-layer split central unit, LLS-CU, a plurality of downlink signals that include reference symbols, RS, and user data downlink, UD-DL, messages to be transmitted to a user equipment, UE, over a wireless interface; accumulating received data corresponding to the plurality of downlink signals into a concentrated data format; and receiving a data-associated control information, DACI, message including a section description associated with the plurality of downlink signals, the DACI message including an indication of how to perform the accumulating data operation. receiving, at the radio unit and from a lower-layer split central unit, LLS-CU, a plurality of downlink signals that include reference symbols, RS, and user data downlink, UD-DL, messages to be transmitted to a user equipment, UE, over a wireless interface; accumulating received data corresponding to the plurality of downlink signals into a concentrated data format; and receiving a data-associated control information, DACI, message including a section description associated with the plurality of downlink signals, the DACI message including an indication of how to perform the accumulating data operation.
Barrelled weapon with a mass-lockable breech system which comprises a breech housing with a breech part displaceably mounted therein and an elastic closing element, having the following features: a) the breech part is designed as a hollow cylinder with a front wall arranged in the firing direction and with an axially opposite rear wall; b) a brake cylinder filled with a brake fluid is arranged in the cylinder chamber of the breech part and extends from the front wall axially into the vicinity of the rear wall of the breech part; c) a piston which is axially displaceable in the brake cylinder is connected to a piston rod which is guided through the rear wall of the breech part and is connected to the breech housing at its end facing away from the piston; d) the cylinder chamber of the breech part is subdivided into two part-cylinder chambers (12, 13) by a compensation piston which is axially displaceable on the brake cylinder, wherein, as viewed in the firing direction of the corresponding weapon, the first part-cylinder chamber arranged on the rear side is likewise filled with brake fluid and is connected via a gap-like opening to the cylinder chamber situated ahead of the piston of the brake cylinder; e) the elastic closing element is arranged in the second part-cylinder chamber and holds the compensation piston in a starting position in such a way that, with the breech part travelling backwards, and as a result of the piston moving into the first part-cylinder chamber, the compensation piston is displaced towards the closing element and the closing element is stressed. a) the breech part is designed as a hollow cylinder with a front wall arranged in the firing direction and with an axially opposite rear wall; b) a brake cylinder filled with a brake fluid is arranged in the cylinder chamber of the breech part and extends from the front wall axially into the vicinity of the rear wall of the breech part; c) a piston which is axially displaceable in the brake cylinder is connected to a piston rod which is guided through the rear wall of the breech part and is connected to the breech housing at its end facing away from the piston; d) the cylinder chamber of the breech part is subdivided into two part-cylinder chambers (12, 13) by a compensation piston which is axially displaceable on the brake cylinder, wherein, as viewed in the firing direction of the corresponding weapon, the first part-cylinder chamber arranged on the rear side is likewise filled with brake fluid and is connected via a gap-like opening to the cylinder chamber situated ahead of the piston of the brake cylinder; e) the elastic closing element is arranged in the second part-cylinder chamber and holds the compensation piston in a starting position in such a way that, with the breech part travelling backwards, and as a result of the piston moving into the first part-cylinder chamber, the compensation piston is displaced towards the closing element and the closing element is stressed.
A method of controlling a plurality of lighting devices (110, 112, 114), the method comprising: - obtaining a 360 degree panoramic image, - rendering the 360 degree panoramic image partially on an image rendering device (120, 320, 420, 520), - obtaining positions of the plurality of lighting devices (110, 112, 114) relative to the image rendering device (120, 320, 420, 520), - mapping the 360 degree panoramic image onto the plurality of lighting devices (110, 112, 114) based on the positions of the plurality of lighting devices (110, 112, 114) relative to the image rendering device (120, 320, 420, 520), such that each lighting device is associated with a respective part of the 360 degree panoramic image, - determining, for each lighting device, a light setting based on an image characteristic of the respective part of the 360 degree image, and - controlling each lighting device according to the respective light setting, characterized in that the method further comprises - receiving an input indicative of a rotation of the 360 degree panoramic image relative to the image rendering device (120, 320, 420, 520), and - adjusting the mapping of the 360 degree panoramic image onto the plurality of lighting devices (110, 112, 114) in dependence on the rotation. - obtaining a 360 degree panoramic image, - rendering the 360 degree panoramic image partially on an image rendering device (120, 320, 420, 520), - obtaining positions of the plurality of lighting devices (110, 112, 114) relative to the image rendering device (120, 320, 420, 520), - mapping the 360 degree panoramic image onto the plurality of lighting devices (110, 112, 114) based on the positions of the plurality of lighting devices (110, 112, 114) relative to the image rendering device (120, 320, 420, 520), such that each lighting device is associated with a respective part of the 360 degree panoramic image, - determining, for each lighting device, a light setting based on an image characteristic of the respective part of the 360 degree image, and - controlling each lighting device according to the respective light setting, characterized in that the method further comprises - receiving an input indicative of a rotation of the 360 degree panoramic image relative to the image rendering device (120, 320, 420, 520), and - adjusting the mapping of the 360 degree panoramic image onto the plurality of lighting devices (110, 112, 114) in dependence on the rotation.
An apparatus with a non-volatile memory core comprising memory cells operatively accessible via access lines, the memory core being capable of operating in multiple modes of operation including at least a lower-power read mode and a lower-latency mode, the lower latency mode being a mode for read- or write access, wherein the lower-power read mode has lower-power consumption than the lower-latency mode, the apparatus characterized by: access line bias circuitry configured to set a bias level associated with a deselected access line of the memory core, wherein the bias level is set in response to mode information such that the lower-power read mode has a first bias level applied to the deselected access line and the lower-latency mode has a second bias level applied to the deselected access line higher than the first bias level, the access line comprising a word line, wherein the access line bias circuitry includes a linear down regulator configured to reduce a voltage level on the deselected access line of the memory core if the mode information indicates a change in the mode of operation from the lower-latency mode to the lower-power read mode, wherein the linear down regulator comprises an N-type insulated-gate field effect transistor, IGFET and a P-type IGFET connected in a line between first and second power nodes, wherein an intermediate node between the N-type IGFET and the P-type IGFET is coupled to the deselected access line of the memory core; wherein the linear down regulator is configured to provide a dead zone preventing mutual conduction between the N-type IGFET and the P-type IGFET, and being based at least in part on a difference in driving voltages associated with the N-type IGFET and the P-type IGFET. access line bias circuitry configured to set a bias level associated with a deselected access line of the memory core, wherein the bias level is set in response to mode information such that the lower-power read mode has a first bias level applied to the deselected access line and the lower-latency mode has a second bias level applied to the deselected access line higher than the first bias level, the access line comprising a word line, wherein the access line bias circuitry includes a linear down regulator configured to reduce a voltage level on the deselected access line of the memory core if the mode information indicates a change in the mode of operation from the lower-latency mode to the lower-power read mode, wherein the linear down regulator comprises an N-type insulated-gate field effect transistor, IGFET and a P-type IGFET connected in a line between first and second power nodes, wherein an intermediate node between the N-type IGFET and the P-type IGFET is coupled to the deselected access line of the memory core; wherein the linear down regulator is configured to provide a dead zone preventing mutual conduction between the N-type IGFET and the P-type IGFET, and being based at least in part on a difference in driving voltages associated with the N-type IGFET and the P-type IGFET.
A display device, comprising: a display panel having a first edge, and a second edge opposing the first edge; a roller to which the first edge of the display panel is fixed; a link assembly having a first end, the first end of the link assembly connected to the second edge of the display panel; characterized in that a driving unit is disposed outside of the roller and directly connected to the roller, wherein the driving unit applies a torque to the roller to rotate the roller and thereby wind the display panel around the roller; and a lifting unit is disposed outside the roller and connected to a second end of the link assembly, wherein the lifting unit comprises ar elastic member connected to the second end of the link assembly. a display panel having a first edge, and a second edge opposing the first edge; a roller to which the first edge of the display panel is fixed; a link assembly having a first end, the first end of the link assembly connected to the second edge of the display panel; characterized in that a driving unit is disposed outside of the roller and directly connected to the roller, wherein the driving unit applies a torque to the roller to rotate the roller and thereby wind the display panel around the roller; and a lifting unit is disposed outside the roller and connected to a second end of the link assembly, wherein the lifting unit comprises ar elastic member connected to the second end of the link assembly.
A key negotiation processing method, comprising: acquiring, by a control network element, MME, a first key negotiation parameter from a first user equipment UE1 and a third key negotiation parameter from a second user equipment UE2, and calculating a second key negotiation parameter according to the first key negotiation parameter and a shared key between the UE1 and the MME, calculating a fourth key negotiation parameter according to the third key negotiation parameter and a shared key between the UE2 and the MME; and sending, by the control network element, the second key negotiation parameter to the UE2 and the fourth key negotiation parameter to the UE1, so that the UE1 and the UE2 generate a key for the communication between the UE1 and the UE2 (S210, S211) acquiring, by a control network element, MME, a first key negotiation parameter from a first user equipment UE1 and a third key negotiation parameter from a second user equipment UE2, and calculating a second key negotiation parameter according to the first key negotiation parameter and a shared key between the UE1 and the MME, calculating a fourth key negotiation parameter according to the third key negotiation parameter and a shared key between the UE2 and the MME; and sending, by the control network element, the second key negotiation parameter to the UE2 and the fourth key negotiation parameter to the UE1, so that the UE1 and the UE2 generate a key for the communication between the UE1 and the UE2 (S210, S211)
Front landing gear module for aircraft, the module being a one-piece module, namely forming an individual assembly, capable of being mounted directly on the aircraft, said module comprising an open box having an aerodynamic outer wall, said box furthermore being provided with at least one door (5A, 5B) configured to be able to be opened and closed, said box containing a deployable front landing gear configured to be able to be deployed through said door (5A, 5B), said front landing gear module comprising an attachment system intended to attach said front landing gear module on the aircraft.
Process for the preparation of perindopril L-arginine salt of formula: by means of reaction between perindopril and L-arginine in a solvent system selected from: a binary mixture of acetonitrile and dimethyl sulphoxide, a binary mixture of ethyl acetate and dimethyl sulphoxide, a ternary mixture of acetonitrile, dimethyl sulphoxide and toluene, at a temperature from 10 to 100°C, followed by isolation by means of filtration of the L-arginine salt thereby obtained. a binary mixture of acetonitrile and dimethyl sulphoxide, a binary mixture of ethyl acetate and dimethyl sulphoxide, a ternary mixture of acetonitrile, dimethyl sulphoxide and toluene,
An antiballistic armor-plating component, comprising a ceramic body made of a material comprising, as percentages by volume: - between 20% and 75% of boron carbide, - between 5% and 30% of a metallic silicon phase or of a metallic phase comprising silicon, - between 20% and 70% of silicon carbide, and wherein, as percentages by volume: - more than 60% of the grains with an equivalent diameter greater than 60 micrometers are boron carbide grains, - the boron carbide grains with an equivalent diameter greater than 30 micrometers represent more than 25%, - the silicon carbide grains with an equivalent diameter greater than or equal to 10 micrometers represent more than 10%, - the silicon carbide grains with an equivalent diameter less than 10 micrometers represent more than 10%, preferably more than 15%, - the silicon carbide grains with an equivalent diameter greater than or equal to 60 micrometers represent less than 10% by volume of said material. - between 20% and 75% of boron carbide, - between 5% and 30% of a metallic silicon phase or of a metallic phase comprising silicon, - between 20% and 70% of silicon carbide, - more than 60% of the grains with an equivalent diameter greater than 60 micrometers are boron carbide grains, - the boron carbide grains with an equivalent diameter greater than 30 micrometers represent more than 25%, - the silicon carbide grains with an equivalent diameter greater than or equal to 10 micrometers represent more than 10%, - the silicon carbide grains with an equivalent diameter less than 10 micrometers represent more than 10%, preferably more than 15%, - the silicon carbide grains with an equivalent diameter greater than or equal to 60 micrometers represent less than 10% by volume of said material.
Device (10, 10') for monitoring for bearing capacity failure for a mobile work machine, - wherein the work machine has a number of stabilizers, - wherein each stabilizer has a support foot with a support foot plate, wherein in a supported state of the mobile work machine the support foot plate of at least one support foot is arranged on an underlying surface surrounding the work machine or is arranged on a baseplate, wherein the device (10, 10') for monitoring for bearing capacity failure has: - a number of sensors for sensing a change in position in the form of tilting, inclination or rotation about one or more axes of rotation of at least one support foot plate and/or at least one baseplate, and - an evaluation unit which has a data connection to the number of sensors and which is designed to detect bearing capacity failure on the basis of a change in position, sensed by means of the number of sensors, of the at least one support foot plate and/or the at least one baseplate in a supported state. - wherein the work machine has a number of stabilizers, - wherein each stabilizer has a support foot with a support foot plate, wherein in a supported state of the mobile work machine the support foot plate of at least one support foot is arranged on an underlying surface surrounding the work machine or is arranged on a baseplate, - a number of sensors for sensing a change in position in the form of tilting, inclination or rotation about one or more axes of rotation of at least one support foot plate and/or at least one baseplate, and - an evaluation unit which has a data connection to the number of sensors and which is designed to detect bearing capacity failure on the basis of a change in position, sensed by means of the number of sensors, of the at least one support foot plate and/or the at least one baseplate in a supported state.
A fluoropolyether-containing polymer having the general formula: wherein Rf is a polymer residue containing a monovalent fluorooxyalkyl group or divalent fluorooxyalkylene group, Z is a divalent hydrocarbon group, and α is 1 or 2.