mhurhangee/ep-ind-claims huggingface dataset:
Vessel comprising a topside lifting arrangement which comprises at least one topside lifting device, the topside lifting device including: a lifting actuator provided as a linear actuator having a first end and a second end, wherein the second end is engageable with a support portion of a topside and is configured to rotate about the first end around at least one axis including an axis other than the lifting actuator's actuating axis; and at least one positioning actuator provided as a linear actuator connected at its one end to the lifting actuator, wherein rotation of the lifting actuator about its first end is effectable by the at least one positioning actuator, wherein the other end of each at least one positioning actuator is connected to the vessel via a respective attachment portion, wherein the first end is connected to a wall of the vessel via a further respective attachment portion. a lifting actuator provided as a linear actuator having a first end and a second end, wherein the second end is engageable with a support portion of a topside and is configured to rotate about the first end around at least one axis including an axis other than the lifting actuator's actuating axis; and at least one positioning actuator provided as a linear actuator connected at its one end to the lifting actuator, wherein rotation of the lifting actuator about its first end is effectable by the at least one positioning actuator, wherein the other end of each at least one positioning actuator is connected to the vessel via a respective attachment portion, wherein the first end is connected to a wall of the vessel via a further respective attachment portion.
Process for making a container for cooking food, comprising the steps of: providing an assembly comprising at least a first element in a first metal material having an area intended to constitute the bottom of said container, at least one second element in a second metal material positioned externally with respect to said area and at least one third element positioned internally with respect to said area; heating said assembly to a predetermined temperature; mounting said assembly in a press; pressing said assembly with the impact bonding technique so as to stably connect said second element and said third element to said first element at said area; characterised in that said providing said assembly comprises the step of providing said first element, when it is in its unrefined or semi-finished state, with a supplementary annular portion constituting a continuous solid part of said element, positioned near to the perimeter of said second element; and in that said supplementary annular portion during the step of forming said container flows with a movement and is redistributed from the outer portion of said first element towards the inner portion of said first element itself, near to the perimeter of said third element, such movement being obtained through the action of a punch and of a matrix which act on said first element. providing an assembly comprising at least a first element in a first metal material having an area intended to constitute the bottom of said container, at least one second element in a second metal material positioned externally with respect to said area and at least one third element positioned internally with respect to said area; heating said assembly to a predetermined temperature; mounting said assembly in a press; pressing said assembly with the impact bonding technique so as to stably connect said second element and said third element to said first element at said area; characterised in that said providing said assembly comprises the step of providing said first element, when it is in its unrefined or semi-finished state, with a supplementary annular portion constituting a continuous solid part of said element, positioned near to the perimeter of said second element; and in that said supplementary annular portion during the step of forming said container flows with a movement and is redistributed from the outer portion of said first element towards the inner portion of said first element itself, near to the perimeter of said third element, such movement being obtained through the action of a punch and of a matrix which act on said first element.
A cardiovascular prosthetic valve comprising: an inflatable cuff comprising at least one inflatable channel that forms, at least in part, an inflatable structure; a leaflet valve coupled to the inflatable cuff, the leaflet valve configured to permit flow in a first axial direction and to inhibit flow in a second axial direction opposite to the first axial direction; and a plurality of tissue supports that extend generally in the axial direction and that are flexible and/or movable throughout a range in a radial direction, and characterized in that the inflatable channel houses two end valves at each ends and a directional valve between the ends of the inflation channel. an inflatable cuff comprising at least one inflatable channel that forms, at least in part, an inflatable structure; a leaflet valve coupled to the inflatable cuff, the leaflet valve configured to permit flow in a first axial direction and to inhibit flow in a second axial direction opposite to the first axial direction; and a plurality of tissue supports that extend generally in the axial direction and that are flexible and/or movable throughout a range in a radial direction, and characterized in that the inflatable channel houses two end valves at each ends and a directional valve between the ends of the inflation channel.
Dual-polarised, omnidirectional antenna comprising at least three separate sector antennae which are positioned mutually offset in the circumferential direction about a central axis, having the following features: - each sector antenna comprises at least one antenna gap comprising an associated reflector, which is arranged at least in part in a reflector plane, at least one dual-polarised radiator (7, 9) being arranged in the antenna gap in front of the reflector, - comprising a supply means, which is coupled to the sector antenna, - the sector antennae are additionally arranged mutually offset along the central axis thereof, - the sector antennae are arranged in such a way that, in an axial view along the central axis, the reflector walls, arranged in a respective reflector plane, of the reflectors intersect, - a decoupling means is provided between two adjacent sector antennae which are arranged mutually offset along the central axis, - the decoupling means consists of at least one reflector bar (15, 15') which is orientated transverse to the reflector plane of the associated reflector, - the reflector walls or the reflector planes are positioned parallel to the central axis, - the reflector walls or the reflector planes are positioned parallel to the central axis in such a way that the distance between the reflector plane of a sector antenna and the central axis is less than 15 % of the gap width of the respective antenna gap whereby the gap width is the width of the reflector wall, and - the central axis extends at the side of the reflector plane at which the radiators (7, 9) are provided in such a way that the central axis passes through the reflector bars (15, 15'). - each sector antenna comprises at least one antenna gap comprising an associated reflector, which is arranged at least in part in a reflector plane, at least one dual-polarised radiator (7, 9) being arranged in the antenna gap in front of the reflector, - comprising a supply means, which is coupled to the sector antenna, - the sector antennae are additionally arranged mutually offset along the central axis thereof, - the sector antennae are arranged in such a way that, in an axial view along the central axis, the reflector walls, arranged in a respective reflector plane, of the reflectors intersect, - a decoupling means is provided between two adjacent sector antennae which are arranged mutually offset along the central axis, - the decoupling means consists of at least one reflector bar (15, 15') which is orientated transverse to the reflector plane of the associated reflector, - the reflector walls or the reflector planes are positioned parallel to the central axis, - the reflector walls or the reflector planes are positioned parallel to the central axis in such a way that the distance between the reflector plane of a sector antenna and the central axis is less than 15 % of the gap width of the respective antenna gap whereby the gap width is the width of the reflector wall, and - the central axis extends at the side of the reflector plane at which the radiators (7, 9) are provided in such a way that the central axis passes through the reflector bars (15, 15').
A method of additive manufacturing of a three-dimensional object, comprising sequentially forming a plurality of layers one on top of the other in a configured pattern corresponding to the shape of the object, thereby forming the object; wherein said formation of each layer comprises operating a dispensing head for dispensing, by inkjet technology, at least one uncured building material, and operating a radiation source for at least partially curing said uncured building material, and wherein said dispensing head and said radiation source are mounted on a reciprocally moving block; characterized in that the method comprises: moving said block one pass over said tray to dispense and cure a single layer of building material, setting said block to rest at a resting position for a resting time-period which equals one or more time periods corresponding to said pass of said block over a tray so as to ensure that curing of a subsequent layer is initiated at least t seconds after commencement of curing of said single layer, said t being longer than an overall time required for said formation, said resting time-period being a difference between said overall formation time and said t. wherein said formation of each layer comprises operating a dispensing head for dispensing, by inkjet technology, at least one uncured building material, and operating a radiation source for at least partially curing said uncured building material, and wherein said dispensing head and said radiation source are mounted on a reciprocally moving block; characterized in that the method comprises: moving said block one pass over said tray to dispense and cure a single layer of building material, setting said block to rest at a resting position for a resting time-period which equals one or more time periods corresponding to said pass of said block over a tray so as to ensure that curing of a subsequent layer is initiated at least t seconds after commencement of curing of said single layer, said t being longer than an overall time required for said formation, said resting time-period being a difference between said overall formation time and said t.
Controller cluster for controlling a technical device comprising - a bus system, - a first automation device and - a second automation device, wherein the - first automation device has a first control program and the - second automation device has a second control program for controlling the technical device, wherein - the first and the second control program (11a, 12a) are embodied in such a way that they each carry out the same control tasks for the technical device, wherein the - first automation device has a first network interface controller with a first standard hardware address (S-MAC1), which is connected to the bus system and the second automation device has a second network interface controller with a second standard hardware address (S-MAC2), which is connected to the bus system, characterised in that a first virtual network interface controller (swNIC1) is arranged between the first network interface controller and a first protocol stack (NW-S1) of the first automation device and a second virtual network interface controller (swNIC2) is arranged between the second network interface controller and a second protocol stack (NW-S2) of the second automation device, wherein furthermore both the first and also the second network interface controller (NIC1, NIC2) are also embodied to administer a cluster hardware address (C-MAC), wherein the first protocol stack (NW-S1) can be accessed via the first standard hardware address (S-MAC1) and the first protocol stack (NW-S1) can only be accessed via the first virtual network interface controller (swNIC1) via the cluster hardware address (C-MAC) when said controller is switched to active and the second protocol stack (NW-S2) can be accessed via the second standard hardware address (S-MAC2) and the second protocol stack (NW-S2) can only be accessed via the second virtual network interface controller (swNIC2) via the cluster hardware address (C-MAC) when said controller is switched to active. - a bus system, - a first automation device and - a second automation device, wherein the - first automation device has a first control program and the - second automation device has a second control program for controlling the technical device, wherein - the first and the second control program (11a, 12a) are embodied in such a way that they each carry out the same control tasks for the technical device, wherein the - first automation device has a first network interface controller with a first standard hardware address (S-MAC1), which is connected to the bus system and the second automation device has a second network interface controller with a second standard hardware address (S-MAC2), which is connected to the bus system,
A mold material mixture for producing molds or cores comprising at least: a) a refractory basic mold material, b) alkaline resols and water as a binder or as a binder component and c) amorphous SiO 2 as additive. a) a refractory basic mold material, b) alkaline resols and water as a binder or as a binder component and c) amorphous SiO 2 as additive.
An agent that inhibits proteolysis of latent TGFβ binding protein 4 (LTBP4) for use in treating a patient who suffers from a disease selected from the group consisting of Duchenne muscular dystrophy, limb girdle muscular dystrophy, Becker muscular dystrophy, myopathy, cystic fibrosis, pulmonary fibrosis, cardiomyopathy, acute lung injury, acute muscle injury, and acute myocardial injury, wherein the agent is an isolated antibody that specifically binds to a peptide consisting of the sequence set forth in SEQ ID NO: 6.
A method in a Policy and Charging Rules Function, PCRF, node, for handling User Equipment-Aggregated Maximum Bit Rate, UE-AMBR, for a wireless device in a communications network, wherein the PCRF node comprises a direct interface with a Mobility Management Entity/Serving General packet radio service Support Node, MME/SGSN, the method comprising: receiving (403, 502, 603, 702, 801) a subscribed UE-AMBR from the MME/SGSN using the direct interface, which subscribed UE-AMBR is associated with a wireless device subscription; when triggered, calculating (404, 503, 604, 703, 805) a UE-AMBR based on the subscribed UE-AMBR and based on policies associated with the wireless device; and transmitting (405, 504, 605, 704, 806) the calculated UE-AMBR to the MME/SGSN using the direct interface. receiving (403, 502, 603, 702, 801) a subscribed UE-AMBR from the MME/SGSN using the direct interface, which subscribed UE-AMBR is associated with a wireless device subscription; when triggered, calculating (404, 503, 604, 703, 805) a UE-AMBR based on the subscribed UE-AMBR and based on policies associated with the wireless device; and transmitting (405, 504, 605, 704, 806) the calculated UE-AMBR to the MME/SGSN using the direct interface.
Method for non-destructive testing the teeth of a high power electrical generator rotor, comprising the steps of: providing a plurality of ultrasonic pulse echo transducers (22,..,25) being arranged in an array (18, 20), and being positioned and aligned in such a way as to provide a range of different inspection angles for the tooth geometry; positioning the array (18, 20) on top of the rotor tooth; exciting the various ultrasonic pulse echo transducers (22,..,25) of said array (18, 20) sequentially to produce a transmission beam for the interrogation of wedge angle on the underside of the tooth; and conditioning the acquired data from said at least one of said plurality of ultrasonic pulse echo transducers (22,..,25) to capture reflection from the flaws within the tooth. providing a plurality of ultrasonic pulse echo transducers (22,..,25) being arranged in an array (18, 20), and being positioned and aligned in such a way as to provide a range of different inspection angles for the tooth geometry; positioning the array (18, 20) on top of the rotor tooth; exciting the various ultrasonic pulse echo transducers (22,..,25) of said array (18, 20) sequentially to produce a transmission beam for the interrogation of wedge angle on the underside of the tooth; and conditioning the acquired data from said at least one of said plurality of ultrasonic pulse echo transducers (22,..,25) to capture reflection from the flaws within the tooth.
A method of driving a CO 2 compressor that forms part of a CO 2 capture system on board a mobile source for recovery of CO 2 from the exhaust gas stream of an ICE powering the mobile source and the densification of the CO 2 for storage on board the mobile source, the compressor having a drive shaft (101; 103) and a CO 2 intake port, the method comprising the steps of: providing a turbine having a power output shaft (100; 102) operatively connected to the drive shaft of the CO 2 compressor for driving the CO 2 compressor, operating said turbine with a pressurized working fluid, and heating the pressurized working fluid prior to its introduction into the turbine using waste heat produced on board the mobile source, characterized by providing a motor-generator operatively connected to the drive shaft of the CO 2 compressor for recovering excess power when the turbine-generated power exceeds the CO 2 compressor power demand, and for supplying supplemental power when the turbine-generated power is insufficient to meet the power demand of the CO 2 compressor. providing a turbine having a power output shaft (100; 102) operatively connected to the drive shaft of the CO 2 compressor for driving the CO 2 compressor, operating said turbine with a pressurized working fluid, and heating the pressurized working fluid prior to its introduction into the turbine using waste heat produced on board the mobile source, characterized by providing a motor-generator operatively connected to the drive shaft of the CO 2 compressor for recovering excess power when the turbine-generated power exceeds the CO 2 compressor power demand, and for supplying supplemental power when the turbine-generated power is insufficient to meet the power demand of the CO 2 compressor.
A method for facilitating a download of a specific portion of a map onto a computing device based on information received from a location-aware service, the method comprising: receiving,, from the location-aware service, location information, a start date associated with travel plans of a user, and an end date associated with the travel plans of the user; scheduling a download time for downloading a map portion corresponding to the received location information; at or prior to the download time, determining if the map portion can be downloaded at that time to a device associated with the user based on one or more factors and the received start date; if it is determined that the map portion can be downloaded at that time, downloading the map portion to the device associated with the user; characterized in that the method further comprises: scheduling a removal time for removal of the map portion from the device associated with the user, wherein the removal time is scheduled to occur subsequent to the end date associated with the travel plans of the user; and removing the downloaded map portion from the device associated with the user subsequent to the end date associated with the travel plans of the user. receiving,, from the location-aware service, location information, a start date associated with travel plans of a user, and an end date associated with the travel plans of the user; scheduling a download time for downloading a map portion corresponding to the received location information; at or prior to the download time, determining if the map portion can be downloaded at that time to a device associated with the user based on one or more factors and the received start date; if it is determined that the map portion can be downloaded at that time, downloading the map portion to the device associated with the user; scheduling a removal time for removal of the map portion from the device associated with the user, wherein the removal time is scheduled to occur subsequent to the end date associated with the travel plans of the user; and removing the downloaded map portion from the device associated with the user subsequent to the end date associated with the travel plans of the user.
Method for identifying an object, wherein the object has a security element which contains one or more inorganic luminescent pigments, which method comprises the steps - generating under defined excitation conditions at least two mutually different emission spectra of the luminescent pigment(s) used, wherein said spectra may be obtained with mutually different excitation pulses and/or represent the decay behaviour, - comparing the obtained emission spectra with the predefined emission spectra obtained for the luminescent pigment(s) under the same excitation conditions. - generating under defined excitation conditions at least two mutually different emission spectra of the luminescent pigment(s) used, wherein said spectra may be obtained with mutually different excitation pulses and/or represent the decay behaviour, - comparing the obtained emission spectra with the predefined emission spectra obtained for the luminescent pigment(s) under the same excitation conditions.