mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: at least one processor; and a memory, storing program instructions that when executed by the at least one processor, cause the at least one processor to implement a local execution environment for a provider network, the local execution environment is implemented within a client network and the local execution environment is configured to: receive a plurality of different data streams from a plurality of different devices in the client network; store the plurality of different data streams; reestablish a network connection between the local execution environment and a target service in the provider network; after reestablishing the network connection, select according to an export configuration, one of the plurality of data streams to export to the target service; obtain a next portion of data stored for the selected data stream to send to the target service; and send the next portion of data to the target service in the provider network according to an interface for the target service. at least one processor; and a memory, storing program instructions that when executed by the at least one processor, cause the at least one processor to implement a local execution environment for a provider network, the local execution environment is implemented within a client network and the local execution environment is configured to: receive a plurality of different data streams from a plurality of different devices in the client network; store the plurality of different data streams; reestablish a network connection between the local execution environment and a target service in the provider network; after reestablishing the network connection, select according to an export configuration, one of the plurality of data streams to export to the target service; obtain a next portion of data stored for the selected data stream to send to the target service; and send the next portion of data to the target service in the provider network according to an interface for the target service. receive a plurality of different data streams from a plurality of different devices in the client network; store the plurality of different data streams; reestablish a network connection between the local execution environment and a target service in the provider network; after reestablishing the network connection, select according to an export configuration, one of the plurality of data streams to export to the target service; obtain a next portion of data stored for the selected data stream to send to the target service; and send the next portion of data to the target service in the provider network according to an interface for the target service.
Cemented carbide wear part with an interior portion and a wear surface, based on WC and a binder phase of Co, Ni and/or Fe, characterised in that the WC grain size is 2 to 6 μm in said interior portion and said wear surface comprises a surface layer with a thickness of 0.5 to 25 μm, preferably 1 to 10 μm, in which the average WC grain size is less than 500 nm.
A method carried out by a base station, the method comprising: defining a plurality of sub-resource spaces within a plurality of layers of sub-resource spaces within an OFDM resource space, wherein for each successive layer, a size in terms of resource units of each sub-resource space of the successive layer is smaller than the size of any sub-resource space of the layer that the successive layer succeeds, each sub-resource space in the plurality of layers having an associated identifier and being individually allocatable; for each of at least one receiver, transmitting a respective sub-burst in a sub-resource space of the plurality of layers of sub-resource spaces within the OFDM resource space; and transmitting signaling information indicating in which sub-resource space each receiver's sub-burst is located. defining a plurality of sub-resource spaces within a plurality of layers of sub-resource spaces within an OFDM resource space, wherein for each successive layer, a size in terms of resource units of each sub-resource space of the successive layer is smaller than the size of any sub-resource space of the layer that the successive layer succeeds, each sub-resource space in the plurality of layers having an associated identifier and being individually allocatable; for each of at least one receiver, transmitting a respective sub-burst in a sub-resource space of the plurality of layers of sub-resource spaces within the OFDM resource space; and transmitting signaling information indicating in which sub-resource space each receiver's sub-burst is located.
A system for securing an internal padding element of a doona to conform with the extent of a sheath or cover of the doona; the system including providing fastening means at least proximate the respective four corners of the internal padding element and the sheath or cover of the doona; each fastening means comprising a first component and a second component arranged for releasable coupling one to the other; each first and second component provided with attachment means for securing respective first and second components to the padding element and to the cover of the doona; characterized in that each attachment means of the first and second components includes an attachment mechanism for securing the respective component to material of the doona or the doona cover; each attachment mechanism comprising a socket or pair of sockets integrally formed in tabs (336,338) extending respectively from each of the first and second components, and a push pin or a pair of push pins formed to couple with the socket or the pair of sockets as a snap fit.
A bellcrank assembly for variable vane assembly of a gas turbine engine, the bellcrank assembly comprising: a first bellcrank segment; a second bellcrank segment; a bolt extending through respective interior barrels (78, 82) defined by the first and second bellcrank segments (72, 74) to couple the first and second bellcrank segments to each other; and a torque frame having a wall defining an aperture, the bolt extending through the aperture; characterised by a torsion spring having an end including a keyed geometry, the end engaged with one of the first and second bellcrank segments (72, 74); wherein the torsion spring has a spring coefficient sufficient to maintain a rigid connection between the first and second bellcrank segments (72, 74) during a normal operating condition of the compressor, but allowing relative rotation of the first bellcrank segment and the second bellcrank segment during a compressor surge event. a first bellcrank segment; a second bellcrank segment; a bolt extending through respective interior barrels (78, 82) defined by the first and second bellcrank segments (72, 74) to couple the first and second bellcrank segments to each other; and a torque frame having a wall defining an aperture, the bolt extending through the aperture; characterised by a torsion spring having an end including a keyed geometry, the end engaged with one of the first and second bellcrank segments (72, 74); wherein the torsion spring has a spring coefficient sufficient to maintain a rigid connection between the first and second bellcrank segments (72, 74) during a normal operating condition of the compressor, but allowing relative rotation of the first bellcrank segment and the second bellcrank segment during a compressor surge event.
An elevator system, comprising: an elevator car disposed in and constructed and arranged to move along a hoistway; a linear propulsion system constructed and arranged to propel the elevator car, the linear propulsion system including a plurality of primary coils engaged to and distributed along the hoistway generally defined by a stationary structure; and a wireless power transfer system configured to inductively transfer power to the elevator car, the wireless power transfer system including a secondary coil mounted to the elevator car and configured to be induced with electromotive forces by the plurality of primary coils and output power for use by the elevator car, characterised by further comprising: a communication system configured to utilize the secondary coil and the plurality of primary coils to exchange a communication data signal. an elevator car disposed in and constructed and arranged to move along a hoistway; a linear propulsion system constructed and arranged to propel the elevator car, the linear propulsion system including a plurality of primary coils engaged to and distributed along the hoistway generally defined by a stationary structure; and a wireless power transfer system configured to inductively transfer power to the elevator car, the wireless power transfer system including a secondary coil mounted to the elevator car and configured to be induced with electromotive forces by the plurality of primary coils and output power for use by the elevator car, characterised by further comprising: a communication system configured to utilize the secondary coil and the plurality of primary coils to exchange a communication data signal. a communication system configured to utilize the secondary coil and the plurality of primary coils to exchange a communication data signal.
A laser projection system (10, 110, 210) for projecting a template on a workpiece, comprising: a photogrammetry assembly and a laser projector, each configured to communicate with a computer; said photogrammetry assembly including a first camera and a second camera spaced from said first camera for scanning said workpiece, and said laser projector configured to project a laser image to arbitrary locations and to said workpiece with said laser image being readable by said cameras (22, 24); said photogrammetry assembly being configured to scan light conveyed from the direction of said arbitrary locations on which said laser image is projected, to scan light conveyed from the direction of said workpiece, and to transmit a signal relating to said scanned arbitrary locations and said scanned workpiece to said computer; said computer being programmed for calculating a geometric correlation between said photogrammetry assembly, said laser projector, and said workpiece based on said signal from said cameras (22,24) relating to the scanned arbitrary locations and the scanned workpiece to verify none of these items have been moved; and for signaling said laser projector to project a template onto a desired location of said workpiece based on the calculated geometric correlation. a photogrammetry assembly and a laser projector, each configured to communicate with a computer; said photogrammetry assembly including a first camera and a second camera spaced from said first camera for scanning said workpiece, and said laser projector configured to project a laser image to arbitrary locations and to said workpiece with said laser image being readable by said cameras (22, 24); said photogrammetry assembly being configured to scan light conveyed from the direction of said arbitrary locations on which said laser image is projected, to scan light conveyed from the direction of said workpiece, and to transmit a signal relating to said scanned arbitrary locations and said scanned workpiece to said computer; said computer being programmed for calculating a geometric correlation between said photogrammetry assembly, said laser projector, and said workpiece based on said signal from said cameras (22,24) relating to the scanned arbitrary locations and the scanned workpiece to verify none of these items have been moved; and for signaling said laser projector to project a template onto a desired location of said workpiece based on the calculated geometric correlation.
Use of a composition comprising two or more pluralities of nanoparticles of formula (Me)(NR a + X -) n wherein Me is the metal core selected from Ag, Cu, Sn and Zn; (NR 4 + X -) is the shell where X is selected from Cl, Br and I, and R is an alkyl chain C 4 -C 12, each plurality of nanoparticles having R with different length from other pluralities of nanoparticles, to prepare nanocomposite materials having predefined release properties of metal ions and controlled bioactivity.
A gas supply method in which a gas is supplied to a tank by using a compressor and a pressure accumulator (5; 5a, 5b, 5c) arranged in parallel to the compressor, the pressure accumulator (5; 5a, 5b, 5c) being capable of storing the gas compressed by the compressor, comprising: a flow rate determination step of determining a relationship between a filling pressure (Pd) that serves as a pressure of the gas to be supplied to the tank and a target flow rate (Qs(Pd)) that serves as a target value of a flow rate of the gas to be supplied to the tank before supplying the gas to the tank from the compressor, wherein the target flow rate (Qs(Pd)) is determined based on the filling pressure (Pd) detected by a filling pressure meter; and a flow rate control step of controlling the flow rate of the gas to be supplied into the tank according to the target flow rate (Qs(Pd)), characterized in that in the flow rate control step, the gas is supplied to the tank only from the compressor in a case where the target flow rate (Qs(Pd)) is equal to or less than a maximum discharge flow rate of the compressor, and the gas is supplied to the tank from the compressor and the pressure accumulator (5; 5a, 5b, 5c) in a case where the target flow rate (Qs(Pd)) is greater than the maximum discharge flow rate. a flow rate determination step of determining a relationship between a filling pressure (Pd) that serves as a pressure of the gas to be supplied to the tank and a target flow rate (Qs(Pd)) that serves as a target value of a flow rate of the gas to be supplied to the tank before supplying the gas to the tank from the compressor, wherein the target flow rate (Qs(Pd)) is determined based on the filling pressure (Pd) detected by a filling pressure meter; and a flow rate control step of controlling the flow rate of the gas to be supplied into the tank according to the target flow rate (Qs(Pd)), characterized in that in the flow rate control step, the gas is supplied to the tank only from the compressor in a case where the target flow rate (Qs(Pd)) is equal to or less than a maximum discharge flow rate of the compressor, and the gas is supplied to the tank from the compressor and the pressure accumulator (5; 5a, 5b, 5c) in a case where the target flow rate (Qs(Pd)) is greater than the maximum discharge flow rate.
A laser processing machine, in particular a laser cutting machine with long-wave laser radiation, in particular CO2 laser radiation, comprising at least one laser processing head which has an interior and a nozzle (3; 3'; 3") having a nozzle opening for the passage of a primary beam in the form of a focused laser working beam on a workpiece to be processed, further comprising an alignment device having at least one sensor for centring the primary beam and the nozzle opening relative to each other for adjusting the focus position in the lateral direction, wherein at least one first beam processing unit is provided, in particular in the region of the nozzle opening of the nozzle or calibration nozzle (3; 3'; 3"), which is suitably designed for converting the primary, focused beam into a secondary electromagnetic beam, in particular a broadband heat beam and for emitting the secondary beam in a direction of propagation in the direction of the sensor or for reflecting/scattering at least part of the primary, focused beam in the direction of propagation as a secondary beam in the direction of the sensor, wherein the at least one sensor is arranged within the laser processing head for detecting the secondary beam, characterised in that the laser processing machine further comprises an optical focusing element for adjusting the focus position of the primary beam in the axial direction; and a CNC controller for the prescribed positioning of the focus of the primary electromagnetic beam, in particular CO 2 laser processing beam, in relation to the nozzle tip or nozzle opening by adjusting the primary beam and/or the nozzle (3; 3'; 3") in the lateral and axial directions, wherein, during the adjustment, an axial position of the focus of the primary electromagnetic beam is determined by means of nozzle centring and adjusted to a pre-selectable value.
Minicircle-surrounded lipid bilayer at least comprising one membrane associated entity, wherein the minicircle comprises at least nucleic acids or nucleic acid analogues.
A scroll plate for use in a scroll compressor, the scroll plate comprising: a base plate having a first side and a second side, wherein the second side opposes the first side; and a spiral wrap formed on the first side of the base plate; wherein the base plate comprises one or more recesses (220, 220b) and wherein an insulating material (230, 260, 230a, 230b) is located in each one of the one or more recesses (220, 220b); wherein the second side of the base plate further comprises a reception configured to receive a portion of a crankshaft of the compressor; and wherein at least one recess of the one or more recesses (220, 220b) is located within the reception at a surface of the second side of the base plate; characterized in that at least one further recess of the one or more recesses (220, 220b) is located outside of the reception at the surface of the second side of the base plate and forms a closed ring around the reception. a base plate having a first side and a second side, wherein the second side opposes the first side; and a spiral wrap formed on the first side of the base plate; wherein the base plate comprises one or more recesses (220, 220b) and wherein an insulating material (230, 260, 230a, 230b) is located in each one of the one or more recesses (220, 220b); wherein the second side of the base plate further comprises a reception configured to receive a portion of a crankshaft of the compressor; and wherein at least one recess of the one or more recesses (220, 220b) is located within the reception at a surface of the second side of the base plate; characterized in that at least one further recess of the one or more recesses (220, 220b) is located outside of the reception at the surface of the second side of the base plate and forms a closed ring around the reception.
A laser processing machine, in particular a laser cutting machine, comprising - a work arm with at least one laser cutting head that comprises a nozzle receiving device and a nozzle arranged therein, by means of which nozzle a laser beam is to be directed onto the work piece to be processed; - main drives for moving the work arm with the laser cutting head in their effective working region at least in the directions of X-Y axes for processing the work piece; - an alignment unit for adjusting the laser beam, characterized in that an adjusting station is provided in the effective working region of the main drives of the work arm, and for centering the nozzle said adjusting station comprises a receiving unit for fixing the nozzle and/or the nozzle receiving device, and in that the alignment unit is designed in such a manner that in the laser cutting head a head element (5A; 5B) for receiving the nozzle and/or the nozzle receiving device is provided, wherein said head element (5A; 5B) is arranged so as to be relative slidable in the directions of the X-Y axes exclusively by means of the existing main drives of the machine; and after the nozzle centering in the adjusting station, said slidable head element (5A; 5B) can be fixed in its adjusted position in the laser cutting head by means of an releasable clamping device. - a work arm with at least one laser cutting head that comprises a nozzle receiving device and a nozzle arranged therein, by means of which nozzle a laser beam is to be directed onto the work piece to be processed; - main drives for moving the work arm with the laser cutting head in their effective working region at least in the directions of X-Y axes for processing the work piece; - an alignment unit for adjusting the laser beam,
A method of manufacturing a metal vessel, said method comprising: providing a preform (110, 114, 802, 1000) being formed of a work hardened metal, the preform having an open portion (804, 1002), a closed end portion (806, 1008), and a body portion (808, 1006); preheating the body portion of the preform in a manner that limits heat being applied to the open portion and closed end portion of the preform; inserting the preheated preform into a mold that includes multiple segments (204a, 204b); applying a pre-pressure by delivering a fluid into the inside of the preform at a first pressure level prior to closing the multiple segments of the mold; closing the multiple segments of the mold; blow molding the preform by increasing the applied pressure using a step function to a second pressure level after the mold is closed, the increase of the pressure from the first pressure level to the second pressure level to occur in less than about 0.2 seconds to cause the preform to take a shape defined by the mold; and removing the molded preform from the mold. providing a preform (110, 114, 802, 1000) being formed of a work hardened metal, the preform having an open portion (804, 1002), a closed end portion (806, 1008), and a body portion (808, 1006); preheating the body portion of the preform in a manner that limits heat being applied to the open portion and closed end portion of the preform; inserting the preheated preform into a mold that includes multiple segments (204a, 204b); applying a pre-pressure by delivering a fluid into the inside of the preform at a first pressure level prior to closing the multiple segments of the mold; closing the multiple segments of the mold; blow molding the preform by increasing the applied pressure using a step function to a second pressure level after the mold is closed, the increase of the pressure from the first pressure level to the second pressure level to occur in less than about 0.2 seconds to cause the preform to take a shape defined by the mold; and removing the molded preform from the mold.
An unducted propulsion system, said propulsion system comprising a rotating element having an axis of rotation and a stationary element, said rotating element having a plurality of blades each having a blade root proximal to said axis, a blade tip remote from said axis, and a blade span measured between said blade root and said blade tip, wherein said stationary element has a plurality of vanes each having a vane root proximal to said axis, a vane tip remote from said axis, and a vane span measured between said vane root and said vane tip configured to impart a change in tangential velocity of the air opposite to that imparted by the rotating element, and which have non-uniform characteristics with respect to one another configured to generate a desired vane exit swirl angle; characterised in that said stationary element has a delta in stagger angle between neighboring vanes, and related vane sections of greater than or equal to about 2 degrees.