mhurhangee/patent-ind-claim-en huggingface dataset:
A welding device for welding outer peripheral edges of overlapping two irregular shaped plates (P1, P2), the device comprising: a rotary table adapted to fix the overlapping two irregular shaped plates and to rotate the overlapping two irregular shaped plates; a torch unit including a welding torch positioned to face the outer peripheral edges of the two irregular shaped plates fixable to the rotary table; a first torch actuator capable of changing an orientation of the welding torch relative to the outer peripheral edges and a distance of the welding torch from the outer peripheral edges; characterized in a first controller configured to control the first torch actuator so that the orientation of the welding torch relative to a tangential line of the outer peripheral edges and the distance of the welding torch from the outer peripheral edges are kept constant along a circumferential direction of the outer peripheral edges during rotation of the two irregular shaped plates, wherein the first torch actuator further comprises an arc-shaped rail , the welding torch being mounted to the rail in a slidable manner in a longitudinal direction of said rail , the rail extending along a circumferential direction (b) of the rotary table and facing the rotary table , wherein the first torch actuator is further adapted to linearly move a tip of the welding torch in a direction toward and away from the outer peripheral edges. a rotary table adapted to fix the overlapping two irregular shaped plates and to rotate the overlapping two irregular shaped plates; a torch unit including a welding torch positioned to face the outer peripheral edges of the two irregular shaped plates fixable to the rotary table; a first torch actuator capable of changing an orientation of the welding torch relative to the outer peripheral edges and a distance of the welding torch from the outer peripheral edges; characterized in a first controller configured to control the first torch actuator so that the orientation of the welding torch relative to a tangential line of the outer peripheral edges and the distance of the welding torch from the outer peripheral edges are kept constant along a circumferential direction of the outer peripheral edges during rotation of the two irregular shaped plates, wherein the first torch actuator further comprises an arc-shaped rail , the welding torch being mounted to the rail in a slidable manner in a longitudinal direction of said rail , the rail extending along a circumferential direction (b) of the rotary table and facing the rotary table , wherein the first torch actuator is further adapted to linearly move a tip of the welding torch in a direction toward and away from the outer peripheral edges.
A method for managing a flooded start of a compressor in a vapor compression system , comprising; initiating an initial bump start of the compressor , terminating the initial bump start; determining whether a working fluid in a liquid state remains in a sump of the compressor ; and if working fluid in a liquid state remains in the compressor sump, initiating an additional bump start of the compressor .
A temperature controlling system adapted to an aircraft galley having a compartment for housing chilled food and beverage carts , the temperature controlling system including: a liquid cooling unit located within the compartment , wherein the liquid cooling unit includes a liquid reservoir , a liquid pump , a heat exchanger , and a fan ; a chiller unit located within the compartment and located above the liquid cooling unit , wherein the chiller unit includes a compressor , a heat exchanger , an expansion valve , an evaporator , and a liquid-cooled condenser which is connected to the liquid cooling unit ; wherein the chiller unit chills a plurality of food and beverage carts within the compartment ; wherein the chiller unit and the liquid cooling unit are located outside of the food and beverage carts housed within the compartment ; and wherein the chiller unit and the liquid cooling unit have a combined footprint that is less than a footprint of a food and beverage cart within the compartment . a liquid cooling unit located within the compartment , wherein the liquid cooling unit includes a liquid reservoir , a liquid pump , a heat exchanger , and a fan ; a chiller unit located within the compartment and located above the liquid cooling unit , wherein the chiller unit includes a compressor , a heat exchanger , an expansion valve , an evaporator , and a liquid-cooled condenser which is connected to the liquid cooling unit ; wherein the chiller unit chills a plurality of food and beverage carts within the compartment ; wherein the chiller unit and the liquid cooling unit are located outside of the food and beverage carts housed within the compartment ; and wherein the chiller unit and the liquid cooling unit have a combined footprint that is less than a footprint of a food and beverage cart within the compartment .
A method for lubricating an angular contact ball bearing comprising the steps of: injecting oil into an annulus channel (40;140;240); and passing oil from said annulus channel (40;140;240) into ball pockets (30;130;230) through holes (50;150;250) connecting said annulus channel (40;140;240) to said ball pockets (30;130;230), thereby lubricating said ball pockets (30;130;230); wherein said annulus channel comprises: a first wall approximately parallel a cage land surface (122;222); a second wall approximately parallel to a ball pocket wall ; and a third wall angled relative to said cage land surface (122;222) and angled relative to said ball pocket wall , said third wall being axially closer to said ball pocket wall than said second wall , relative to said axis defined by said bearing cage , wherein each of said holes (50;150;250) is approximately parallel to said cage land surface (122;222). injecting oil into an annulus channel (40;140;240); and passing oil from said annulus channel (40;140;240) into ball pockets (30;130;230) through holes (50;150;250) connecting said annulus channel (40;140;240) to said ball pockets (30;130;230), thereby lubricating said ball pockets (30;130;230); wherein said annulus channel comprises: a first wall approximately parallel a cage land surface (122;222); a second wall approximately parallel to a ball pocket wall ; and a third wall angled relative to said cage land surface (122;222) and angled relative to said ball pocket wall , said third wall being axially closer to said ball pocket wall than said second wall , relative to said axis defined by said bearing cage , wherein each of said holes (50;150;250) is approximately parallel to said cage land surface (122;222). a first wall approximately parallel a cage land surface (122;222); a second wall approximately parallel to a ball pocket wall ; and a third wall angled relative to said cage land surface (122;222) and angled relative to said ball pocket wall , said third wall being axially closer to said ball pocket wall than said second wall , relative to said axis defined by said bearing cage , wherein each of said holes (50;150;250) is approximately parallel to said cage land surface (122;222).
A multi-layered tissue graft comprising a collagen layer interposed between a first layer of separated and washed placental tissue component and/or umbilical cord component and a second layer of separated and washed placental tissue component and/or umbilical cord component, wherein the collagen is crosslinked human collagen derived from immune-privileged tissue.
An integrated circuit, the integrated circuit comprising: a substrate; an n-well formed on the substrate; a p-well formed on the substrate, wherein the integrated circuit comprises a plurality of memory cells (602, 710-720) in a column and having n-channel transistors in the p-well and p-channel transistors in the n-well; and a p-tap formed in the p-well adjacent to the n-well, wherein the p-tap extends between the p-channel transistors of the plurality of memory cells formed in the n-well and the n-channel transistors of the plurality of memory cells formed in the p-well and is coupled to a ground potential, wherein the p-tap surrounds the n-well. a substrate; an n-well formed on the substrate; a p-well formed on the substrate, wherein the integrated circuit comprises a plurality of memory cells (602, 710-720) in a column and having n-channel transistors in the p-well and p-channel transistors in the n-well; and a p-tap formed in the p-well adjacent to the n-well, wherein the p-tap extends between the p-channel transistors of the plurality of memory cells formed in the n-well and the n-channel transistors of the plurality of memory cells formed in the p-well and is coupled to a ground potential, wherein the p-tap surrounds the n-well.
A mitral valve replacement system for a heart, the mitral valve including commissural clefts, an anterior leaflet , a posterior leaflet , an annulus and a sub-annular gutter , comprising: an anchor assembly configured for placement within the heart, the anchor assembly including a retention structure and a plurality of projections , wherein the anchor assembly is movable between a compressed configuration and an expanded configuration in which the retention structure is configured for placement at or proximate the mitral valve annulus, while the plurality of projections are placed into contact with the sub-annular gutter; and an artificial valve comprising an expandable frame characterised by having a generally D-shaped outer peripheral region configured for engagement with the retention structure of the anchor assembly, and a circular valve orifice located radially inward from the generally D-shaped outer peripheral region, the artificial valve carrying valve leaflets directly attached to the circular valve orifice; wherein the anchor assembly leaves the leaflets of the mitral valve unaffected and the anchor assembly does not interrupt leaflet, chordae, or native valve function of the mitral valve prior to placement of the artificial valve. an anchor assembly configured for placement within the heart, the anchor assembly including a retention structure and a plurality of projections , wherein the anchor assembly is movable between a compressed configuration and an expanded configuration in which the retention structure is configured for placement at or proximate the mitral valve annulus, while the plurality of projections are placed into contact with the sub-annular gutter; and an artificial valve comprising an expandable frame characterised by having a generally D-shaped outer peripheral region configured for engagement with the retention structure of the anchor assembly, and a circular valve orifice located radially inward from the generally D-shaped outer peripheral region, the artificial valve carrying valve leaflets directly attached to the circular valve orifice; wherein the anchor assembly leaves the leaflets of the mitral valve unaffected and the anchor assembly does not interrupt leaflet, chordae, or native valve function of the mitral valve prior to placement of the artificial valve.
Composition comprising olive oil, trimethylglycine and xylitol for use in the prevention and/or treatment of a medical condition affecting the urogenital mucosa, wherein the condition is characterized by estrogen deficiency caused by age or by cancer treatment.
A method for producing a crimp cap for a container for receiving a pharmaceutical substance, in particular an ampoule, wherein the crimp cap has a metallic foil layer, which is covered over, at least on the outside, with a plastics layer that forms a covering of the foil layer, wherein, furthermore, a material strip (M) having an already plastics coated foil layer is formed into the crimp cap by stamping-out and deep-drawing, characterized in that a lacquer coat is provided between the plastics layer and the foil layer, and in that the plastics layer is designed to be transparent to enable determination of the color appearance of the crimp cap, or the plastics layer is of transparent configuration and is connected to the metallic foil layer with an adhesive that creates a color effect and is visible through the plastics layer.
Impact cylinder with a cylindrical piston jacket , which circumferentially encloses an inner piston chamber , is closed at a front end by a front impact cylinder plate and at a rear end by a rear impact cylinder plate , a piston arranged in the piston chamber and movable longitudinally displaceably along a longitudinal axis between a front impact position and a rear rest position, which divides the piston chamber into a front chamber facing the front impact cylinder plate and a rear chamber facing the rear impact cylinder plate, an impact rod , an anvil or the like received in the front impact cylinder plate for relative movement, a compression spring arranged between the front impact cylinder plate and the piston , a compressed air reservoir , a connection for supplying a fluid, in particular compressed air, and a resilient control diaphragm for selectively filling the compressed air reservoir and actuating the piston to trigger an impact, CHARACTERIZED IN in that a flange is arranged at a rear end of the piston jacket , in that the compressed air reservoir is arranged behind the flange , in that a feed pipe is arranged inside a flange opening of the flange , which feed pipe extends from the flange opening in the flange to a rear end of the compressed air reservoir CHARACTERIZED IN THAT a fluid-permeable diaphragm support is provided at a rear end of the feed tube . in that a flange is arranged at a rear end of the piston jacket , in that the compressed air reservoir is arranged behind the flange , in that a feed pipe is arranged inside a flange opening of the flange , which feed pipe extends from the flange opening in the flange to a rear end of the compressed air reservoir CHARACTERIZED IN THAT a fluid-permeable diaphragm support is provided at a rear end of the feed tube .
A communication method, comprising: determining a first configuration, a modulation order, and a first code rate, when first data is to be sent to a first device, wherein the first configuration comprises a mapping type, a time domain resource, and a first quantity and/or a first transmission quantity, the first quantity is a quantity of first transport blocks, the first transmission quantity is a transmission quantity of a first transport block, and the first code rate is a code rate of the first transport block; determining a second code rate, a second quantity, and a second transmission quantity based on the first code rate, the mapping type, and the first quantity and/or the first transmission quantity, wherein the second code rate is a code rate of a second transport block, the second quantity is a quantity of second transport blocks, and the second transmission quantity is a transmission quantity of the second transport block; determining a valid resource of the second transport block based on the time domain resource, the second quantity, and the second transmission quantity; and sending second data to the first device based on the first data, the modulation order, the second code rate, and the valid resource of the second transport block. determining a first configuration, a modulation order, and a first code rate, when first data is to be sent to a first device, wherein the first configuration comprises a mapping type, a time domain resource, and a first quantity and/or a first transmission quantity, the first quantity is a quantity of first transport blocks, the first transmission quantity is a transmission quantity of a first transport block, and the first code rate is a code rate of the first transport block; determining a second code rate, a second quantity, and a second transmission quantity based on the first code rate, the mapping type, and the first quantity and/or the first transmission quantity, wherein the second code rate is a code rate of a second transport block, the second quantity is a quantity of second transport blocks, and the second transmission quantity is a transmission quantity of the second transport block; determining a valid resource of the second transport block based on the time domain resource, the second quantity, and the second transmission quantity; and sending second data to the first device based on the first data, the modulation order, the second code rate, and the valid resource of the second transport block.
A method comprising, by one or more computing devices: receiving, from a client device of a first user of an online social network , a search query inputted by the first user; determining one or more search terms based on the received search query, each search term comprising a prefix and a suffix, wherein each prefix corresponds to an edge type and an object type of a social graph of the online social network , and wherein each suffix corresponds to a particular node of the social graph ; identifying one or more search results matching the search query by applying a suitable hash function to each search term, wherein the suitable hash function is determined based on an object type corresponding to the suffix of each search term; and sending, to the client device of the first user in response to the search query, one or more identified search results. receiving, from a client device of a first user of an online social network , a search query inputted by the first user; determining one or more search terms based on the received search query, each search term comprising a prefix and a suffix, wherein each prefix corresponds to an edge type and an object type of a social graph of the online social network , and wherein each suffix corresponds to a particular node of the social graph ; identifying one or more search results matching the search query by applying a suitable hash function to each search term, wherein the suitable hash function is determined based on an object type corresponding to the suffix of each search term; and sending, to the client device of the first user in response to the search query, one or more identified search results.
A method for determining the leakage inductance of a transformer of an LLC resonant converter (19; 49; 69; 79; 89) for a lighting means (3; 5), wherein the LLC resonant converter (19; 49; 69; 79; 89) has a primary-side circuit (20; 50; 70; 80; 90) and a secondary-side circuit that is galvanically separated therefrom, wherein the transformer has a primary coil and a secondary coil , wherein the primary-side circuit (20; 50; 70; 80; 90) of the LLC resonant converter (19; 49; 69; 79; 89) has an LLC resonant circuit connected to the transformer and a half-bridge circuit connected to the LLC resonant circuit, wherein the method comprises: a) Out of the rest state of the LLC resonant converter (19; 49; 69; 79; 89) activation of a first switch of the half-bridge circuit ; b) Detection of a voltage at a measurement resistor (R s ) in series with the primary coil of the transformer ; c) Processing, in a control device , of the detected voltage, wherein the processing comprises a detection of an increase in the detected voltage over a time period, which from the exceeding (start) of a lower reference voltage (Vrefu) to the reaching (stop) of an upper reference voltage (Vrefo) is evaluated for determining the leakage inductance. a) Out of the rest state of the LLC resonant converter (19; 49; 69; 79; 89) activation of a first switch of the half-bridge circuit ; b) Detection of a voltage at a measurement resistor (R s ) in series with the primary coil of the transformer ; c) Processing, in a control device , of the detected voltage, wherein the processing comprises a detection of an increase in the detected voltage over a time period, which from the exceeding (start) of a lower reference voltage (Vrefu) to the reaching (stop) of an upper reference voltage (Vrefo) is evaluated for determining the leakage inductance.
A method comprising: generating , by an apparatus of a relay node, a relay node access message for initiating an access procedure to establish a connection between a relay node and an access point, the relay node access message being generated in accordance with an access priority scheme, the access priority scheme being defined such that a higher priority is allocated to the relay node access message than a user device access message for initiating an access procedure to establish a connection between a user device and the access point; and providing , by the apparatus of the relay node, for transmission of the relay node access message in accordance with the access priority scheme, wherein providing for transmission of the relay node access message includes providing for transmission of the relay node access message using dedicated resources reserved for transmission of relay node access messages to the exclusion of user device access messaging. generating , by an apparatus of a relay node, a relay node access message for initiating an access procedure to establish a connection between a relay node and an access point, the relay node access message being generated in accordance with an access priority scheme, the access priority scheme being defined such that a higher priority is allocated to the relay node access message than a user device access message for initiating an access procedure to establish a connection between a user device and the access point; and providing , by the apparatus of the relay node, for transmission of the relay node access message in accordance with the access priority scheme, wherein providing for transmission of the relay node access message includes providing for transmission of the relay node access message using dedicated resources reserved for transmission of relay node access messages to the exclusion of user device access messaging.