mhurhangee/ep-ind-claims huggingface dataset:
A method for in-situ resurfacing of a main rotor shaft of a wind turbine, wherein in an operational state, the main rotor shaft is coupled at a first end to a rotor hub and at the opposite second end to a gearbox or directly to a generator within a nacelle, the method comprising: uncoupling the rotor shaft from the gearbox or generator so as to expose an end face of the second end of the rotor shaft; attaching a fixture to the exposed end face concentric with a rotational axis of the rotor shaft; attaching a lathe system to the fixture; machining the rotor shaft surface adjacent to the exposed end face with the lathe system such that the resurfaced portion of the rotor shaft surface is brought to a round state concentric with the rotational axis of the rotor shaft; and wherein the method is conducted within the nacelle with the first end of the rotor shaft remaining coupled to the rotor. uncoupling the rotor shaft from the gearbox or generator so as to expose an end face of the second end of the rotor shaft; attaching a fixture to the exposed end face concentric with a rotational axis of the rotor shaft; attaching a lathe system to the fixture; machining the rotor shaft surface adjacent to the exposed end face with the lathe system such that the resurfaced portion of the rotor shaft surface is brought to a round state concentric with the rotational axis of the rotor shaft; and wherein the method is conducted within the nacelle with the first end of the rotor shaft remaining coupled to the rotor.
A system for determining the number of target nucleotide molecules in a sample, comprising: a sample holder (150, 150a, 150b) configured to receive an article (100, 200) comprising a plurality of separate reaction sites (104, 204); an image recording system comprising an optical sensor; and a housing comprising: an excitation optical system comprising a light source configured to simultaneously illuminate the separate reaction sites (104, 204); an emission optical system configured to transfer fluorescent emissions from the reaction sites (104, 204) to the image recording system; a common beamsplitter (430 for the excitation optical system and the emission optical system configured to reflect excitation light from the light source to the reaction sites and to transmit the fluorescent emissions from the reaction sites to the image recording system, wherein the image recording system is detachably mounted to the housing. a sample holder (150, 150a, 150b) configured to receive an article (100, 200) comprising a plurality of separate reaction sites (104, 204); an image recording system comprising an optical sensor; and a housing comprising: an excitation optical system comprising a light source configured to simultaneously illuminate the separate reaction sites (104, 204); an emission optical system configured to transfer fluorescent emissions from the reaction sites (104, 204) to the image recording system; a common beamsplitter (430 for the excitation optical system and the emission optical system configured to reflect excitation light from the light source to the reaction sites and to transmit the fluorescent emissions from the reaction sites to the image recording system, wherein the image recording system is detachably mounted to the housing. an excitation optical system comprising a light source configured to simultaneously illuminate the separate reaction sites (104, 204); an emission optical system configured to transfer fluorescent emissions from the reaction sites (104, 204) to the image recording system; a common beamsplitter (430 for the excitation optical system and the emission optical system configured to reflect excitation light from the light source to the reaction sites and to transmit the fluorescent emissions from the reaction sites to the image recording system, wherein the image recording system is detachably mounted to the housing.
A method of calculating a maximum heater power level within an isolette, the isolette including a patient section for housing an infant and for receiving heated air from a heater, the method comprising: by means of a control unit obtaining a temperature of ambient air external to the isolette; by means of said control unit obtaining a base-line ambient air temperature of the ambient air internal external to the isolette; characterised in that by means of said control unit the maximum heater power level is calculated based on a relationship between the base-line ambient air temperature of the ambient air internal to the isolette and the obtained temperature of ambient air external to the isolette. by means of a control unit obtaining a temperature of ambient air external to the isolette; by means of said control unit obtaining a base-line ambient air temperature of the ambient air internal external to the isolette; characterised in that by means of said control unit the maximum heater power level is calculated based on a relationship between the base-line ambient air temperature of the ambient air internal to the isolette and the obtained temperature of ambient air external to the isolette.
Use of an organic compound of formula I A-L-B, or a salt thereof, wherein A is a straight-chain or branched aliphatic hydrocarbon group having a total number of 4 to 20, preferably of 6 to 16, carbon atoms, which is substituted by 1 to 4 ether groups, or is unsubstituted, B is a straight-chain or branched aliphatic hydrocarbon group having a total number of 1 to 6, preferably of 1 to 4, carbon atoms, which is substituted by one or two ionic groups independently selected from anionic groups, preferably carboxylate, sulfate, sulfonate or phosphate; and cationic groups, preferably ammonium which is unsubstituted or substituted by 1 to 3 straight-chain or branched C 1 -C 4 -alkyl groups; and L is a urethane group, as cleavable additive in the modification and/or treatment of at least one surface of a semiconductor substrate, where the compound of formula I is cleaved into a set of fragments subsequent to said modification or treatment, for facilitating its removal from said surface. A is a straight-chain or branched aliphatic hydrocarbon group having a total number of 4 to 20, preferably of 6 to 16, carbon atoms, which is substituted by 1 to 4 ether groups, or is unsubstituted, B is a straight-chain or branched aliphatic hydrocarbon group having a total number of 1 to 6, preferably of 1 to 4, carbon atoms, which is substituted by one or two ionic groups independently selected from anionic groups, preferably carboxylate, sulfate, sulfonate or phosphate; and cationic groups, preferably ammonium which is unsubstituted or substituted by 1 to 3 straight-chain or branched C 1 -C 4 -alkyl groups; and L is a urethane group, as cleavable additive in the modification and/or treatment of at least one surface of a semiconductor substrate, where the compound of formula I is cleaved into a set of fragments subsequent to said modification or treatment, for facilitating its removal from said surface.
A computer implemented method for processing digital data including a master 3D digital asset and an auxiliary digital asset (304b...304n), the method comprising: providing a 3D digital asset player within a display screen operatively connected to a processing device; providing a first positional mesh on at least a portion of the 3D digital asset player, wherein the first positional mesh assigns a plurality of display screen positions within the display screen with corresponding virtual 3D positional locations within the master 3D digital asset; identifying (602, 603) a display screen position via a user input device operatively connected to the processing device; and determining via the first positional mesh a virtual 3D positional location within the master 3D digital asset from the identified display screen position. providing a 3D digital asset player within a display screen operatively connected to a processing device; providing a first positional mesh on at least a portion of the 3D digital asset player, wherein the first positional mesh assigns a plurality of display screen positions within the display screen with corresponding virtual 3D positional locations within the master 3D digital asset; identifying (602, 603) a display screen position via a user input device operatively connected to the processing device; and determining via the first positional mesh a virtual 3D positional location within the master 3D digital asset from the identified display screen position.
A user device comprising: a network interface (7a, 7b) configured to receive a video signal from another device via a network; a rendering module configured to control display apparatus of the user device to provide a real-world view of their environment to a user of the user device and to render visible a visual scene by displaying a virtual augmentation element so that it is visible simultaneously with the real-world view, the virtual augmentation element comprising a video image derived from the video signal; and a scene modification module configured to generate rendering data for displaying at the other device a representation of the visual scene as it is perceived by the user, including a modified version of the virtual augmentation element wherein in the modified version said video image has been removed, wherein the network interface (7a, 7b) is configured to transmit the rendering data to the other device via the network. a network interface (7a, 7b) configured to receive a video signal from another device via a network; a rendering module configured to control display apparatus of the user device to provide a real-world view of their environment to a user of the user device and to render visible a visual scene by displaying a virtual augmentation element so that it is visible simultaneously with the real-world view, the virtual augmentation element comprising a video image derived from the video signal; and a scene modification module configured to generate rendering data for displaying at the other device a representation of the visual scene as it is perceived by the user, including a modified version of the virtual augmentation element wherein in the modified version said video image has been removed, wherein the network interface (7a, 7b) is configured to transmit the rendering data to the other device via the network.
A manufacturing method of a multilayer syringe barrel, comprising: a finish cutting step of cutting a remaining gate of a nozzle portion of the multilayer syringe barrel that is injection-molded from a nozzle tip, with a cutting blade of an ultrasonic cutting apparatus including a mechanism for suppressing abnormal vibration; characterized by an irradiation step of irradiating a laser beam to a corner portion of the nozzle portion, the corner portion being formed in the finish cutting step. a finish cutting step of cutting a remaining gate of a nozzle portion of the multilayer syringe barrel that is injection-molded from a nozzle tip, with a cutting blade of an ultrasonic cutting apparatus including a mechanism for suppressing abnormal vibration; characterized by an irradiation step of irradiating a laser beam to a corner portion of the nozzle portion, the corner portion being formed in the finish cutting step.
A method of grinding strand-like fibrous material, in which the strand-like fibrous material is fed to a cutting edge of a cutting mechanism, in which at least one movable striking mechanism for grinding the fibrous material cooperates with the cutting mechanism and in which a movable clamping mechanism is arranged at the cutting mechanism, by means of which the fibrous material is clamped in an oscillating manner, wherein the fibrous material is fed through an oscillating clamping gap formed between the clamping mechanism and the cutting mechanism, and wherein the clamping mechanism is moved in a back and forth clamping movement relative to the cutting mechanism.
Drive device for a wire erosion machine with a rotating indexing spindle driven by a motor as well as a current transfer device for transferring current to a rotating or statically indexed workpiece for erosive rotation or for a statically indexed cutting task, wherein the rotating indexing spindle has a workpiece holder for holding the workpiece to be machined, characterised in that the current transfer device is configured as at least one sector (10a, 10b, 10c, 10d) of an annular cylinder, wherein the inner surface has radially extending electrically conductive filaments configured as microfibres for current supply, and the current transfer device is arranged in such a way that the distal ends of the electrically conductive filaments make an electrical contact with the rotating or indexed rotating indexing spindle.
Piece of seating furniture having the following features: a. the piece of seating furniture has a base for setting up in a fixed position, and b. the piece of seating furniture has a seating element which is tiltable in relation to the base and has a seating surface and a carrying structure, and c. the piece of seating furniture has a leg support element which is movable in relation to the seating element and has a leg support surface and a carrying structure, and d. the leg support element is connected to the seating element by means of a link mechanism, wherein the leg support element is movable between a storage position under the seating element and a use position in front of the seating element by means of the link mechanism, characterized by the following additional features: e. the piece of seating furniture has an electric motor below the seating surface, the electric motor acting on the link mechanism via a push rod, and f. to connect the leg support element to the seating element, the link mechanism has at least one pivoting link which, during the transfer of the leg support element from the storage position into the use position, is arranged sometimes in a slot partially penetrating the leg support surface. a. the piece of seating furniture has a base for setting up in a fixed position, and b. the piece of seating furniture has a seating element which is tiltable in relation to the base and has a seating surface and a carrying structure, and c. the piece of seating furniture has a leg support element which is movable in relation to the seating element and has a leg support surface and a carrying structure, and d. the leg support element is connected to the seating element by means of a link mechanism, wherein the leg support element is movable between a storage position under the seating element and a use position in front of the seating element by means of the link mechanism, e. the piece of seating furniture has an electric motor below the seating surface, the electric motor acting on the link mechanism via a push rod, and f. to connect the leg support element to the seating element, the link mechanism has at least one pivoting link which, during the transfer of the leg support element from the storage position into the use position, is arranged sometimes in a slot partially penetrating the leg support surface.
A communication apparatus comprising: a transmission path monitoring unit adapted to generate an alarm information signal when a received signal level in radio communication with another communication apparatus is lower than a threshold, and output the alarm information signal to an alarm display unit to cause the alarm display unit to display an alarm; characterized by further comprising: a license period monitoring unit adapted to output a function limitation signal if a license of the communication apparatus has expired, the license period monitoring unit being adapted not to output the function limitation signal when the license of the communication apparatus is effective; and a function limitation unit adapted to disconnect the alarm information signal output from the transmission path monitoring unit to the alarm display unit when receiving the function limitation signal, the function limitation unit being adapted not to disconnect the alarm information signal output from the transmission path monitoring unit to the alarm display unit when not receiving the function limitation signal. a transmission path monitoring unit adapted to generate an alarm information signal when a received signal level in radio communication with another communication apparatus is lower than a threshold, and output the alarm information signal to an alarm display unit to cause the alarm display unit to display an alarm; characterized by further comprising: a license period monitoring unit adapted to output a function limitation signal if a license of the communication apparatus has expired, the license period monitoring unit being adapted not to output the function limitation signal when the license of the communication apparatus is effective; and a function limitation unit adapted to disconnect the alarm information signal output from the transmission path monitoring unit to the alarm display unit when receiving the function limitation signal, the function limitation unit being adapted not to disconnect the alarm information signal output from the transmission path monitoring unit to the alarm display unit when not receiving the function limitation signal. a license period monitoring unit adapted to output a function limitation signal if a license of the communication apparatus has expired, the license period monitoring unit being adapted not to output the function limitation signal when the license of the communication apparatus is effective; and a function limitation unit adapted to disconnect the alarm information signal output from the transmission path monitoring unit to the alarm display unit when receiving the function limitation signal, the function limitation unit being adapted not to disconnect the alarm information signal output from the transmission path monitoring unit to the alarm display unit when not receiving the function limitation signal.
A welding-type system, for receiving an input that may be either a single or a three phase input voltage, comprising: a first power module (301; 1101) comprising a first pair of input connections, a first single phase boost power circuit, and a first output circuit receiving an output of the first single phase boost power circuit, and wherein the first output circuit provides a first output; a second power module (303; 1103) comprising a second pair of input connections, a second single phase boost power circuit, and a second output circuit receiving an output of the second single phase boost power circuit, and wherein the second output circuit provides a second output; a third power module (305; 1105) comprising a third pair of input connections, a third single phase boost power circuit, and a third output circuit receiving an output of the third single phase boost power circuit, and wherein the third output circuit provides a third output; a weld output circuit, disposed to receive and combine the first, second and third outputs into a welding output; an input power distribution module, configurable to connect the first, second and third pair of input connections to the input such that when the input is single phase at least one of the first, second and third pair of input connections receive the single phase input, and when the input is three phase each of the first, second and third pair of input connections receive a unique single phase power signal; and a controller, connected to control the first, second and third power modules, and further connected to control the input power distribution module. a first power module (301; 1101) comprising a first pair of input connections, a first single phase boost power circuit, and a first output circuit receiving an output of the first single phase boost power circuit, and wherein the first output circuit provides a first output; a second power module (303; 1103) comprising a second pair of input connections, a second single phase boost power circuit, and a second output circuit receiving an output of the second single phase boost power circuit, and wherein the second output circuit provides a second output; a third power module (305; 1105) comprising a third pair of input connections, a third single phase boost power circuit, and a third output circuit receiving an output of the third single phase boost power circuit, and wherein the third output circuit provides a third output; a weld output circuit, disposed to receive and combine the first, second and third outputs into a welding output; an input power distribution module, configurable to connect the first, second and third pair of input connections to the input such that when the input is single phase at least one of the first, second and third pair of input connections receive the single phase input, and when the input is three phase each of the first, second and third pair of input connections receive a unique single phase power signal; and a controller, connected to control the first, second and third power modules, and further connected to control the input power distribution module.
A method of producing a uniform polymer of high molar mass by cationic ring-opening polymerisation of a cyclic imino ether monomer with 5 or 6 ring members, said method comprising the following steps: a) providing a first liquid reaction mixture comprising cyclic imino ether monomer and optionally solvent; b) polymerizing cyclic imino ether monomer in the first reaction mixture by cationic ring opening polymerization to produce a polymerized first reaction mixture containing (i) polymerized material and (ii) solvent and/or unreacted cyclic imino ether monomer; c) separating solvent and/or unreacted cyclic imino ether monomer from polymerized material contained in the polymerized first reaction mixture; d) providing a second liquid reaction mixture containing cyclic imino ether monomer and solvent by combining the separated unreacted cyclic imino ether monomer and/or the separated solvent with other components; and e) polymerizing the cyclic imino ether monomer in the second reaction mixture by cationic ring opening polymerization to produce a uniform polymer having a degree of polymerization of at least 100. a) providing a first liquid reaction mixture comprising cyclic imino ether monomer and optionally solvent; b) polymerizing cyclic imino ether monomer in the first reaction mixture by cationic ring opening polymerization to produce a polymerized first reaction mixture containing (i) polymerized material and (ii) solvent and/or unreacted cyclic imino ether monomer; c) separating solvent and/or unreacted cyclic imino ether monomer from polymerized material contained in the polymerized first reaction mixture; d) providing a second liquid reaction mixture containing cyclic imino ether monomer and solvent by combining the separated unreacted cyclic imino ether monomer and/or the separated solvent with other components; and e) polymerizing the cyclic imino ether monomer in the second reaction mixture by cationic ring opening polymerization to produce a uniform polymer having a degree of polymerization of at least 100.
A grill appliance comprising at least a non-stick cooking plate comprising a support plate and a non-stick coating on at least one surface of the support plate, characterized in that the at least one surface of the support plate having said non-stick coating is a micro-corrugated surface, having corrugations on a micrometric scale and the non-stick coating is a nodular chromium coating, having a micro-nodular structure with a substantially peaks-and-valleys morphology, wherein the support plate comprises at least one surface portion, including said surface of the support plate having said non-stick coating, which is hardened and annealed, and has a superficial hardness equal to or higher than about 40 HRc, preferably comprised in the range of about 40-60 HRc.