mhurhangee/patent-ind-claim-en huggingface dataset:
A combustion engine comprising : a compressor-combustor array and a radial compressor , wherein the compressor-combustor array is provided radially outward of the radial compressor ; both the radial compressor and compressor-combustor array being coaxial with, and rotatable around, a central axis , wherein the compressor-combustor array comprises an array of rotor blades comprising walls, wherein the walls of the blades define a plurality of chambers , the plurality of chambers comprising : a first pilot combustion chamber and a second pilot combustion chamber , and at least one of the plurality of chambers being provided as a compression flow path chamber ; wherein the first pilot combustion chamber is provided with a first fuel injector , and the second pilot combustion chamber is provided with a second fuel injector , the combustion engine comprising : a first fuel reservoir , a second fuel reservoir , and a flow regulator ; wherein the first fuel injector is in flow communication with the first fuel reservoir , and the second fuel injector is in flow communication with the second fuel reservoir ; wherein the first fuel reservoir and the second fuel reservoir are each in fluid communication with the flow regulator , and the flow regulator is operable to vary fuel flow delivery rate to the first fuel reservoir and the second fuel reservoir relative to each other. a compressor-combustor array and a radial compressor , wherein the compressor-combustor array is provided radially outward of the radial compressor ; both the radial compressor and compressor-combustor array being coaxial with, and rotatable around, a central axis , wherein the compressor-combustor array comprises an array of rotor blades comprising walls, wherein the walls of the blades define a plurality of chambers , the plurality of chambers comprising : a first pilot combustion chamber and a second pilot combustion chamber , and a first pilot combustion chamber and a second pilot combustion chamber , and at least one of the plurality of chambers being provided as a compression flow path chamber ; wherein the first pilot combustion chamber is provided with a first fuel injector , and the second pilot combustion chamber is provided with a second fuel injector , the combustion engine comprising : a first fuel reservoir , a second fuel reservoir , and a flow regulator ; a first fuel reservoir , a second fuel reservoir , and a flow regulator ; wherein the first fuel injector is in flow communication with the first fuel reservoir , and the second fuel injector is in flow communication with the second fuel reservoir ; wherein the first fuel reservoir and the second fuel reservoir are each in fluid communication with the flow regulator , and the flow regulator is operable to vary fuel flow delivery rate to the first fuel reservoir and the second fuel reservoir relative to each other.
A wiping system, comprising: a support table ; a conveying unit configured to convey a wiping belt onto the support table ; a carrier holding device configured to hold a carrier on which a plurality of fiber optic ferrules are mounted; a carrier pressing device configured to press the carrier on the support table , so that a front end faces of the fiber optic ferrules mounted on the carrier directly contact the wiping belt on the support table ; and a first base constructed to mount the support table , wherein the carrier holding device and the carrier pressing device are slidably mounted on the first base , so that the carrier pressed on the support table is movable back and forth relative to the support table in a first horizontal direction, so as to wipe the front end faces of the fiber optic ferrules by the wiping belt on the support table . a support table ; a conveying unit configured to convey a wiping belt onto the support table ; a carrier holding device configured to hold a carrier on which a plurality of fiber optic ferrules are mounted; a carrier pressing device configured to press the carrier on the support table , so that a front end faces of the fiber optic ferrules mounted on the carrier directly contact the wiping belt on the support table ; and a first base constructed to mount the support table , wherein the carrier holding device and the carrier pressing device are slidably mounted on the first base , so that the carrier pressed on the support table is movable back and forth relative to the support table in a first horizontal direction, so as to wipe the front end faces of the fiber optic ferrules by the wiping belt on the support table .
A user device (UE) that communicates with a base station (eNB) in a narrowband radio communication system and using a physical downlink shared channel that includes multiple subframes, the user device (UE) comprising: an acquirer configured to obtain a total repetition number indicating a total number of times each of the multiple subframes is repeatedly transmitted in the time domain, and a predetermined resource number indicating a number of times each of the multiple subframes is consecutively repeatedly transmitted in the time domain, the predetermined resource number being different from the total repetition number; and a receiver configured to receive, from the base station (eNB), the physical downlink shared channel in which each of the multiple subframes is consecutively repeated a number of times indicated by the predetermined resource number in each repetition unit and is repeated in total a number of times indicated by the total repetition number, wherein the user device (UE) is configured to communicate with the base station (eNB) by using a guard band in an LTE system band as an operating frequency band, the operating frequency band being 180 kHz. an acquirer configured to obtain a total repetition number indicating a total number of times each of the multiple subframes is repeatedly transmitted in the time domain, and a predetermined resource number indicating a number of times each of the multiple subframes is consecutively repeatedly transmitted in the time domain, the predetermined resource number being different from the total repetition number; and a receiver configured to receive, from the base station (eNB), the physical downlink shared channel in which each of the multiple subframes is consecutively repeated a number of times indicated by the predetermined resource number in each repetition unit and is repeated in total a number of times indicated by the total repetition number, wherein the user device (UE) is configured to communicate with the base station (eNB) by using a guard band in an LTE system band as an operating frequency band, the operating frequency band being 180 kHz.
A wind turbine comprising a tower with a tower wall and having at least one nacelle mounted thereon, and a yaw system interconnecting the tower and at least one nacelle , the yaw system comprising: - a yaw claw being fixedly connected to the tower or to a part forming part of or being connected to at least one nacelle , the yaw claw comprising an upper radially extending part , a lower radially extending part and an axially extending part interconnecting the upper radially extending part and the lower radially extending part , thereby defining a space delimited by the upper radially extending part , the lower radially extending part and the axially extending part , with an open end arranged opposite the axially extending part , - a sliding bearing connection comprising at least two axial sliding surfaces and at least one radial sliding surface arranged between the yaw claw and a flange arranged in the space defined by the yaw claw , the flange forming part of the part forming part of or being connected to at least one nacelle , or the flange forming part of the tower , - a toothed yaw ring , and - at least one yaw drive comprising a toothed gear arranged in meshing connection with the toothed yaw ring , wherein the axially extending part of the yaw claw and the meshing connection between the toothed gear and the toothed yaw ring are arranged at the same side of the tower wall. - a yaw claw being fixedly connected to the tower or to a part forming part of or being connected to at least one nacelle , the yaw claw comprising an upper radially extending part , a lower radially extending part and an axially extending part interconnecting the upper radially extending part and the lower radially extending part , thereby defining a space delimited by the upper radially extending part , the lower radially extending part and the axially extending part , with an open end arranged opposite the axially extending part , - a sliding bearing connection comprising at least two axial sliding surfaces and at least one radial sliding surface arranged between the yaw claw and a flange arranged in the space defined by the yaw claw , the flange forming part of the part forming part of or being connected to at least one nacelle , or the flange forming part of the tower , - a toothed yaw ring , and - at least one yaw drive comprising a toothed gear arranged in meshing connection with the toothed yaw ring ,
A method of forming an ophthalmic lens, the method comprising the steps of: forming an ophthalmic Lens Precursor with a first surface and a second surface via exposure of a reactive mixture to a first actinic radiation through a substrate ; wherein the ophthalmic Lens Precursor is a composite object consisting of a Lens Precursor form and a fluent lens reactive media in contact with the Lens Precursor form ; wherein the Lens Precursor form is a non-fluent object comprising at least one optical quality surface and wherein the fluent lens reactive media comprises the second surface of the Lens Precursor; wherein the fluent lens reactive media is formed in the course of producing a Lens Precursor form within the volume of reactive mixture; wherein separating the Lens Precursor form and adhered fluent lens reactive media from the volume of reactive mixture used to produce the lens precursor form generates the Lens Precursor ; flowing a portion of the fluent lens reactive media during a dwelling period, wherein the flowing step comprises allowing the fluent lens reactive media to spread under the force of gravity and surface forces to achieve a stable entity while the Lens Precursor is placed upright; and exposing the Lens Precursor to an exposure of a second actinic radiation to fix the fluent lens reactive media and form the ophthalmic lens. forming an ophthalmic Lens Precursor with a first surface and a second surface via exposure of a reactive mixture to a first actinic radiation through a substrate ; wherein the ophthalmic Lens Precursor is a composite object consisting of a Lens Precursor form and a fluent lens reactive media in contact with the Lens Precursor form ; wherein the Lens Precursor form is a non-fluent object comprising at least one optical quality surface and wherein the fluent lens reactive media comprises the second surface of the Lens Precursor; wherein the fluent lens reactive media is formed in the course of producing a Lens Precursor form within the volume of reactive mixture; wherein separating the Lens Precursor form and adhered fluent lens reactive media from the volume of reactive mixture used to produce the lens precursor form generates the Lens Precursor ; flowing a portion of the fluent lens reactive media during a dwelling period, wherein the flowing step comprises allowing the fluent lens reactive media to spread under the force of gravity and surface forces to achieve a stable entity while the Lens Precursor is placed upright; and exposing the Lens Precursor to an exposure of a second actinic radiation to fix the fluent lens reactive media and form the ophthalmic lens.
An electric motor system comprising: a drive shaft that rotationally drives a load ; a bearingless motor that includes a rotor and a stator having an armature winding (46a to 46c, 56a to 56c) and a support winding (47a to 47c, 57a to 57c) and that rotationally drives the drive shaft and supports a radial load of the drive shaft in a contactless manner; a power source unit for applying a voltage to the armature winding (46a to 46c, 56a to 56c) and the support winding (47a to 47c, 57a to 57c); and a control unit that controls the power source unit so that a radial support force that is a sum of a radial support force caused by a support current IS, which is a current flowing through the support winding (47a to 47c, 57a to 57c), and a radial support force caused by both the support current IS and an armature current IA, which is a current flowing through the armature winding (46a to 46c, 56a to 56c), is output and so that one of an armature voltage VA, which is a voltage across the armature winding (46a to 46c, 56a to 56c), and a support current IS, which is a current flowing through the support winding (47a to 47c, 57a to 57c), is increased and the other of the armature voltage VA and the support current IS is decreased. a drive shaft that rotationally drives a load ; a bearingless motor that includes a rotor and a stator having an armature winding (46a to 46c, 56a to 56c) and a support winding (47a to 47c, 57a to 57c) and that rotationally drives the drive shaft and supports a radial load of the drive shaft in a contactless manner; a power source unit for applying a voltage to the armature winding (46a to 46c, 56a to 56c) and the support winding (47a to 47c, 57a to 57c); and a control unit that controls the power source unit so that a radial support force that is a sum of a radial support force caused by a support current IS, which is a current flowing through the support winding (47a to 47c, 57a to 57c), and a radial support force caused by both the support current IS and an armature current IA, which is a current flowing through the armature winding (46a to 46c, 56a to 56c), is output and so that one of an armature voltage VA, which is a voltage across the armature winding (46a to 46c, 56a to 56c), and a support current IS, which is a current flowing through the support winding (47a to 47c, 57a to 57c), is increased and the other of the armature voltage VA and the support current IS is decreased.
A coupling device for a prosthesis including an inner stent and an outer stent arranged concentrically one within the other, and a substantially non-porous membrane covering at least the outer stent , wherein the outer stent is self-expandable, characterised in that the substantially non-porous membrane is associated with both the inner and outer stents, in that the stents are not provided along the entire length of the device, and in that the inner and outer stents are able to expand to different diameters and to be spaced from one another when expanded, such that in use the outer stent expands to abut a vessel wall, while the inner stent extends inwardly thereof to couple to one or more prosthetic modules.
A method performed by a mobile device (2-1) at least partially under control of a positioning program of the mobile device, the method comprising: - estimating , by the positioning program, a position of said mobile device at least partially based on one or more radio signal parameters obtained by said mobile device, wherein position data representing said estimated position of said mobile device are obtained as a result of said estimating; - determining , by the positioning program, a digital signature of said position data, wherein signature data representing said digital signature of said position data are obtained as a result of said determining; - providing , by the positioning program, said position data and said signature data to one or more application programs of the mobile device. - estimating , by the positioning program, a position of said mobile device at least partially based on one or more radio signal parameters obtained by said mobile device, wherein position data representing said estimated position of said mobile device are obtained as a result of said estimating; - determining , by the positioning program, a digital signature of said position data, wherein signature data representing said digital signature of said position data are obtained as a result of said determining; - providing , by the positioning program, said position data and said signature data to one or more application programs of the mobile device.
Cooking appliance door with a front pane, with an inner pane , with at least one intermediate pane between the front pane and the inner pane , with a door base (12a; 12b) which has an inner bottom area , on which the inner pane is supported in a direction which faces away from the front pane, and with a cooking appliance door unit, which is provided for assembly in the door base (12a; 12b), and which has at least one inner pane holding unit (14a; 14b) for the inner pane , wherein the cooking appliance door unit has at least one intermediate pane holding unit (18a; 18b, 20b) for the at least one intermediate pane , wherein the inner pane holding unit (14a; 14b) and the intermediate pane holding unit (18a; 18b, 20b) form at least one assembly unit for assembly together in the door base (12a; 12b), characterised in that the assembly unit has at least one holding element for a hinge element .
A refrigeration apparatus combining magnetic refrigeration and gas-based regenerative refrigeration comprising a pressure wave generator , m regenerators containing filler materials, m phase difference adjusting mechanisms for adjusting phase difference between the pressure wave and mass flow rate, j magnet assemblies for generating controllable and changeable field strength and a coupling control system for performing coupling control on working sequence of a gas-based regenerative refrigerator and magnetic field changing sequence; wherein m is an integer between 2 and 5, and j<=m; wherein j regenerators are magnetic regenerators in which part of or all of fillers are magnetic refrigeration materials; magnetic refrigeration temperature ranges of the magnetic refrigeration materials in the magnetic regenerators are the same as the corresponding temperature ranges of locations of the magnetic regenerators in the gas-based regenerative refrigerator; and the components are connected in the following manner: the pressure wave generator is connected via a fluid flow pipe with one end of a first stage gas-based regenerative refrigerator consisting of a first stage regenerator (2 1 ) and a first stage phase difference adjusting mechanism (3 1 ) for adjusting phase difference between pressure wave and mass flow rate; and the other end of the first stage gas-based regenerative refrigerator is connected with one end of a lower stage gas-based regenerative refrigerator via a fluid flow pipe, and so on until the last stage; the magnetic regenerators are respectively disposed in the corresponding magnet assemblies for generating controllable and periodically-changing field strength; and the coupling control system for performing coupling control on working sequence of the gas-based regenerative refrigerator and magnetic field changing sequence is respectively connected with the pressure wave generator , phase difference adjusting mechanisms and magnet assemblies for generating controllable and changeable field strength via a signal transmission cable and/or pipe and/or mechanical device; input signals of the coupling control system are characteristic parameters of the working sequence of the pressure wave generator and/or characteristic parameters of the working sequence of respective phase difference adjusting mechanisms; and output signals of the coupling control system are signals for controlling the magnet assemblies for generating controllable and changeable field strength.
Method for making a preformed thermoplastic tube having a tube wall and including at least one bend formed by thermoforming, wherein on the inner curve of the bend the tube wall is provided with a pattern of corrugations with minimal dimensions in terms of number of and heights of corrugations such that the wall length reduction resulting from the corrugations along the inner curve is kept at a minimal value necessary to absorb overlength on the inner curve resulting from forming the bend , and in that on the outer curve of the bend the tube wall is smooth and free of corrugations, in which method a straight thermoplastic tube is provided, characterized in that in said method the thermoplastic tube is bent around and forced against a concavely curved surface of a forming tool to shape the tube to obtain the at least one bend, wherein during the bending a pattern of corrugations is formed on an inner curve surface of the bend to absorb overlength resulting from length reduction of the inner curve due to the bending, wherein the pattern of corrugations is formed by a corresponding pattern of depressions in the curved surface of the forming tool against which the tube is forced when the tube is being bent around the forming tool , whereafter a thermoforming process is performed while the tube is still bent around the forming tool with the pattern of corrugations on the inner curve of the tube received in the pattern of depressions of the forming tool .
An implant for treating and/or for replacing a diseased inflamed and/or infected heart valve , wherein the implant comprises a capture device able to be introduced into the body of a patient in a compressed state in minimally invasive manner and expanded at the site of implantation on the diseased heart valve , wherein the capture device is designed to compartmentalize tissue changes or tissue deposits in the form of heart valve vegetation or deposits at least when in the implanted and expanded state by way of the capture device at least partially grasping and/or capturing the tissue change or deposit , wherein the capture device has an anchoring structure for fixing and/or positioning the capture device at the implantation site, and wherein the capture device has a capturing structure connected to the anchoring structure which extends downstream from the anchoring structure , as viewed in the direction of blood flow, into a vessel connected in terms of flow to the diseased heart valve and comprises at least one clamping area in the expanded state which is designed to interact with at least one heart valve leaflet of the diseased heart valve in the expanded and implanted state of the capture device such that at least one heart valve leaflet is pressed toward a vascular wall and at least partially enclosed by the capture device .