mhurhangee/ep-ind-claims huggingface dataset:
An electrical machine comprising: a stator defining a cavity therein; a shaft; and a rotor coupled to said shaft, said rotor and said shaft configured to be positioned at least partially within the cavity, characterised by said rotor comprising at least one rotor winding configured to alternately energize and de-energize to alternately apply and remove, respectively, a corrective torque to said electrical machine to dampen harmonic oscillations thereof. a stator defining a cavity therein; a shaft; and a rotor coupled to said shaft, said rotor and said shaft configured to be positioned at least partially within the cavity, characterised by said rotor comprising at least one rotor winding configured to alternately energize and de-energize to alternately apply and remove, respectively, a corrective torque to said electrical machine to dampen harmonic oscillations thereof.
A wearable item formed to transition between a stable open configuration and a stable collapsed configuration, comprising: a bi-stable mechanism, the bi-stable mechanism being bi-stable in both an open configuration and a collapsed configuration; a pair of frame members connected with and separated by the bi-stable mechanism; wherein the wearable item is eyewear and the bi-stable mechanism is a nose bridge assembly; a lens affixed with each frame member and separated by the nose bridge assembly, the nose bridge assembly being bendable between the open configuration and collapsed configuration such that the nose bridge assembly is stable in the open configuration until bent to an inflection point, at which point a closing force causes the nose bridge assembly to collapse to a relaxed state in the collapsed configuration; and wherein when the wearable item is in the open configuration, the wearable item can be worn as eyewear, and wherein when the wearable item is in the collapsed configuration, the lenses are rotated toward one another to form a clamshell shaped enclosure having an open space framed by the lenses, wherein the clamshell shaped enclosure forms an acute angle between the lenses and the open space having an area sufficient to accommodate a wrist of a user, thereby allowing the wearable item to be stored or worn on the user's wrist. a bi-stable mechanism, the bi-stable mechanism being bi-stable in both an open configuration and a collapsed configuration; a pair of frame members connected with and separated by the bi-stable mechanism; wherein the wearable item is eyewear and the bi-stable mechanism is a nose bridge assembly; a lens affixed with each frame member and separated by the nose bridge assembly, the nose bridge assembly being bendable between the open configuration and collapsed configuration such that the nose bridge assembly is stable in the open configuration until bent to an inflection point, at which point a closing force causes the nose bridge assembly to collapse to a relaxed state in the collapsed configuration; and wherein when the wearable item is in the open configuration, the wearable item can be worn as eyewear, and wherein when the wearable item is in the collapsed configuration, the lenses are rotated toward one another to form a clamshell shaped enclosure having an open space framed by the lenses, wherein the clamshell shaped enclosure forms an acute angle between the lenses and the open space having an area sufficient to accommodate a wrist of a user, thereby allowing the wearable item to be stored or worn on the user's wrist.
A gasket for sealing two mating surfaces, the gasket comprising: a rigid non-metal core defining an aperture, the core comprising a first face extending away from the aperture and a second face opposite the first face; and at least one sealing layer (108, 116); wherein the first face comprises: a substantially flat inner region defining a plane; and a serrated region comprising a plurality of serrations, wherein the substantially flat inner region is located between the aperture and the serrated region, wherein the serrations are recessed in the first face such that they do not cross the plane, wherein the at least one sealing layer overlays at least part of the serrated region of the first face, wherein the non-metal core comprises one or more of: glass reinforced epoxy; a phenolic resin, polytetrafluoroethylene, polyimide and/or an (alk)acrylic (co)polymer or other suitable (co)polymer. a rigid non-metal core defining an aperture, the core comprising a first face extending away from the aperture and a second face opposite the first face; and at least one sealing layer (108, 116); wherein the first face comprises: a substantially flat inner region defining a plane; and a serrated region comprising a plurality of serrations, wherein the substantially flat inner region is located between the aperture and the serrated region, a substantially flat inner region defining a plane; and a serrated region comprising a plurality of serrations, wherein the substantially flat inner region is located between the aperture and the serrated region, wherein the serrations are recessed in the first face such that they do not cross the plane, wherein the at least one sealing layer overlays at least part of the serrated region of the first face, wherein the non-metal core comprises one or more of: glass reinforced epoxy; a phenolic resin, polytetrafluoroethylene, polyimide and/or an (alk)acrylic (co)polymer or other suitable (co)polymer. glass reinforced epoxy; a phenolic resin, polytetrafluoroethylene, polyimide and/or an (alk)acrylic (co)polymer or other suitable (co)polymer.
Assembly formed from one first and at least one second wall element (2, 6), in which assembly the wall elements (2, 6) are either movably interconnected or are present so as to be separate and within a common region are transferable from a non space-saving arrangement to a space-saving arrangement, wherein the first wall element has first vertical reinforcement elements which are connected in a cruciform manner to first horizontal reinforcement elements of the first wall element and wherein the at least one second wall element has second vertical reinforcement elements which are connected in a cruciform manner to second horizontal reinforcement elements of the at least one second wall element, wherein in each wall element (2, 6) the vertical reinforcement elements bear on the horizontal reinforcement elements, or vice versa, and wherein each vertical reinforcement element is connected to at least two horizontal reinforcement elements and each horizontal reinforcement element is connected to at least two vertical reinforcement elements such that on each wall element (2, 6), on account of the vertical reinforcement elements, on the one hand, and on account of the horizontal reinforcement elements, at least one first intermediate space, which is formed by the respective vertical reinforcement elements, and at least one first second intermediate space which is created by the respective horizontal reinforcement elements, on the other hand, are formed, and wherein the spatial thickness of the at least one first intermediate space is determined by the thickness of the respective vertical reinforcement elements and the spatial thickness of the at least one second intermediate space is determined by the thickness of the respective horizontal reinforcement elements, characterized in that in the space-saving arrangement of the wall elements (2, 6) and within the common region, the second vertical reinforcement elements of the at least one second wall element are entirely or partially located in at least one first intermediate space of the first wall element and the second horizontal reinforcement elements of the at least one second wall element are entirely or partially located in at least one second intermediate space of the first wall element.
An anti-LAG-3 antibody for use in a method of treating a hematological malignancy in a human patient, wherein the anti-LAG-3 antibody comprises (a) a heavy chain variable region CDR1 having the sequence set forth in SEQ ID NO:7; (b) a heavy chain variable region CDR2 having the sequence set forth in SEQ ID NO:8; (c) a heavy chain variable region CDR3 having the sequence set forth in SEQ ID NO:9; (d) a light chain variable region CDR1 having the sequence set forth in SEQ ID NO:10; (e) a light chain variable region CDR2 having the sequence set forth in SEQ ID NO:11; and (f) a light chain variable region CDR3 having the sequence set forth in SEQ ID NO:12, and wherein the method comprises at least one administration cycle of the anti-LAG-3 antibody, wherein the cycle is a period of eight weeks, wherein for each of the at least one cycles, the anti-LAG-3 antibody is administered as follows: (a) four doses of 20 mg anti-LAG-3 antibody; (b) four doses of 80 mg anti-LAG-3 antibody; (c) four doses of 240 mg anti-LAG-3 antibody; or (d) four doses of 800 mg anti-LAG-3 antibody. (a) a heavy chain variable region CDR1 having the sequence set forth in SEQ ID NO:7; (b) a heavy chain variable region CDR2 having the sequence set forth in SEQ ID NO:8; (c) a heavy chain variable region CDR3 having the sequence set forth in SEQ ID NO:9; (d) a light chain variable region CDR1 having the sequence set forth in SEQ ID NO:10; (e) a light chain variable region CDR2 having the sequence set forth in SEQ ID NO:11; and (f) a light chain variable region CDR3 having the sequence set forth in SEQ ID NO:12, and (a) four doses of 20 mg anti-LAG-3 antibody; (b) four doses of 80 mg anti-LAG-3 antibody; (c) four doses of 240 mg anti-LAG-3 antibody; or (d) four doses of 800 mg anti-LAG-3 antibody.
An apparatus for preparing one or more samples for measurement by x-ray fluorescence spectrometry, comprising a well plate having at least one hole penetrating said well plate; said at least one hole passing through the well plate from one face to the other face, a film covering said hole, said film being at least 5% translucent to 2,300 eV X-rays oriented normal to said film, characterised in that said hole has a diameter less than 500 micrometers in at least one dimension parallel to said film at the location where said hole adjoins said film and a cross sectional area of less than 0.005 square centimeters where said hole adjoins said film, and wherein the walls of said hole have an RMS roughness of less than 20 micrometers.
A circuit system, comprising: an original circuit; a dual circuit, wherein the dual circuit is a dual of the original circuit; an input inverter connected to the dual circuit, wherein the input inverter inverts system inputs; an output inverter connected to one of the original circuit and the dual circuit, wherein the output inverter is configured to invert the output of the connected original circuit or dual circuit; and a comparator configured to receive and compare the output of the output inverter and the output of one of the original circuit and the dual circuit not connected to the output inverter, wherein the comparator is configured to indicate an error when the received outputs are not identical and to indicate no error when the received outputs are identical, characterised in that the circuit system further comprises an input delay element connected to the input of one of the original circuit or the dual circuit; and an output delay element connected to the output of the other of the dual circuit or the original circuit. an original circuit; a dual circuit, wherein the dual circuit is a dual of the original circuit; an input inverter connected to the dual circuit, wherein the input inverter inverts system inputs; an output inverter connected to one of the original circuit and the dual circuit, wherein the output inverter is configured to invert the output of the connected original circuit or dual circuit; and a comparator configured to receive and compare the output of the output inverter and the output of one of the original circuit and the dual circuit not connected to the output inverter, wherein the comparator is configured to indicate an error when the received outputs are not identical and to indicate no error when the received outputs are identical, characterised in that the circuit system further comprises an input delay element connected to the input of one of the original circuit or the dual circuit; and an output delay element connected to the output of the other of the dual circuit or the original circuit.
A method for inter-thread trace timing alignment among threads of a multi-threaded processor during an execution tracing process, comprising: recording timing data relating to a common predetermined event, said common predetermined event being commonly referenceable by all operating threads of said multi-threaded processor during core processor execution tracing; referencing a time at which a thread initiates execution tracing to said common predetermined event for maintaining the timing of execution tracing for said thread relative to said common predetermined event; and updating said timing data relating to said common predetermined event to associate with said time at which said thread initiated execution tracing, thereby aligning said time at which said thread initiated execution tracing to timing data associated with all other threads of said multi-threaded processor for which execution tracing may be occurring. recording timing data relating to a common predetermined event, said common predetermined event being commonly referenceable by all operating threads of said multi-threaded processor during core processor execution tracing; referencing a time at which a thread initiates execution tracing to said common predetermined event for maintaining the timing of execution tracing for said thread relative to said common predetermined event; and updating said timing data relating to said common predetermined event to associate with said time at which said thread initiated execution tracing, thereby aligning said time at which said thread initiated execution tracing to timing data associated with all other threads of said multi-threaded processor for which execution tracing may be occurring.
A device, comprising: a housing defining an aperture, wherein the housing is selectively securable via a fastener to a surgical instrument in a selected orientation relative to the instrument; a power source disposed within the housing; and a light source assembly at least partially disposed in the housing, the light source assembly comprising a light source operably coupled to the power source via a power circuit, wherein the light source is positioned within the housing to emit through the aperture of the housing, wherein, upon activation, the light source assembly emits a parallax-free alignment indicator along an alignment axis (218, 219, 220) having at least one of a selected angle and a selected displacement relative to a selected reference axis, wherein the alignment indicator is configured to be rotatable about at least three alignment axes (218, 219, 220) to adjust a roll, a pitch and/or a yaw of the alignment indicator and wherein the alignment indicator is configured to guide a surgical procedure; characterised in that the power circuit comprises a first lead and a second lead both exposed on an exterior surface of the housing in a location designed to contact a metal object to complete the power circuit and activate the light source; and wherein the metal object comprises a portion of the fastener. a housing defining an aperture, wherein the housing is selectively securable via a fastener to a surgical instrument in a selected orientation relative to the instrument; a power source disposed within the housing; and a light source assembly at least partially disposed in the housing, the light source assembly comprising a light source operably coupled to the power source via a power circuit, wherein the light source is positioned within the housing to emit through the aperture of the housing, wherein, upon activation, the light source assembly emits a parallax-free alignment indicator along an alignment axis (218, 219, 220) having at least one of a selected angle and a selected displacement relative to a selected reference axis, wherein the alignment indicator is configured to be rotatable about at least three alignment axes (218, 219, 220) to adjust a roll, a pitch and/or a yaw of the alignment indicator and wherein the alignment indicator is configured to guide a surgical procedure; characterised in that the power circuit comprises a first lead and a second lead both exposed on an exterior surface of the housing in a location designed to contact a metal object to complete the power circuit and activate the light source; and wherein the metal object comprises a portion of the fastener.
A balloon catheter comprising: a flexible elongated shaft which possesses a distal portion; a balloon fixed to the distal portion of the shaft and configured to expand and contract, the balloon possessing an inner surface; the balloon comprising an effective expansion portion and at least one projection portion on the effective expansion portion, the effective expansion portion possessing a cylindrical shape when the balloon is expanded and the projection portion extending for a predetermined length along an axial direction of the balloon; the projection portion comprised of first and second parts of the balloon so that the inner surface of the first part of the balloon faces the inner surface of the second part of the balloon, the first and second parts of the balloon projecting radially outwardly away from parts of the balloon immediately adjacent the first and second parts; characterised in that, the inner surfaces of the first part of the balloon being at least partially welded to the inner surface of the second part of the balloon so that the projection portion comprises a welded portion. a flexible elongated shaft which possesses a distal portion; a balloon fixed to the distal portion of the shaft and configured to expand and contract, the balloon possessing an inner surface; the balloon comprising an effective expansion portion and at least one projection portion on the effective expansion portion, the effective expansion portion possessing a cylindrical shape when the balloon is expanded and the projection portion extending for a predetermined length along an axial direction of the balloon; the projection portion comprised of first and second parts of the balloon so that the inner surface of the first part of the balloon faces the inner surface of the second part of the balloon, the first and second parts of the balloon projecting radially outwardly away from parts of the balloon immediately adjacent the first and second parts; characterised in that, the inner surfaces of the first part of the balloon being at least partially welded to the inner surface of the second part of the balloon so that the projection portion comprises a welded portion.
Electromechanical parking-lock actuator for actuating a parking lock in a motor vehicle, said actuator including an electric motor and a coupling device, acting by positive closure and/or by force closure, with two coupling parts (80, 82) supported so as to be capable of being rotated or swivelled, of which a first coupling part is actively connected to the motor shaft of the electric motor via a gearing mechanism, whereas the second coupling part is supported so as to be axially relocatable relative to the first coupling part and serves to drive, directly or indirectly, an actuating element acting on a locking pawl of a parking lock, wherein the parking-lock actuator further includes a switching device for optional opening of the coupling device, the second coupling part being actively connected to the electric motor via the first coupling part in the case of a closed coupling device, and being decoupled from the electric motor in the case of an open coupling device, wherein the parking-lock actuator includes an actuator shaft supported so as to be capable of being rotated or swivelled, which is actively connected to the second coupling part of the coupling device and which drives the actuating element acting on the locking pawl of the parking lock, the parking-lock actuator includes a spring element acting on the coupling device, which biases the coupling device into its closed state, characterized in that the switching device of the coupling device includes an electromagnet with a coil surrounding the actuator shaft, wherein in the event of an energising of the electromagnet against the biasing force of the spring element the coupling device is opened, so that the actuating element is capable of being moved independently of the electric motor.
A method of cooling a wind turbine, the method comprising: operating a cooling system (21, 22, 23) with a first setpoint temperature to cool the wind turbine over a first period; measuring a temperature of the wind turbine over the first period to obtain temperature measurements; allocating each of the temperature measurements to a temperature range, wherein one or more of the temperature ranges are critical temperature ranges; for each critical temperature range, comparing a parameter indicative of a number of the temperature measurements allocated to the critical temperature range with a threshold (41, 43); selecting a second setpoint temperature on the basis of the comparison(s); and operating the cooling system (21, 22, 23) with the second setpoint temperature over a second period, wherein if the parameter is less than the threshold (41, 43) for each critical temperature range, then the second setpoint temperature is selected to be higher than the first setpoint temperature; and if the parameter is higher than the threshold (41, 43) for at least one critical temperature range, then the second setpoint temperature is selected to be lower than the first setpoint temperature. operating a cooling system (21, 22, 23) with a first setpoint temperature to cool the wind turbine over a first period; measuring a temperature of the wind turbine over the first period to obtain temperature measurements; allocating each of the temperature measurements to a temperature range, wherein one or more of the temperature ranges are critical temperature ranges; for each critical temperature range, comparing a parameter indicative of a number of the temperature measurements allocated to the critical temperature range with a threshold (41, 43); selecting a second setpoint temperature on the basis of the comparison(s); and operating the cooling system (21, 22, 23) with the second setpoint temperature over a second period, wherein if the parameter is less than the threshold (41, 43) for each critical temperature range, then the second setpoint temperature is selected to be higher than the first setpoint temperature; and if the parameter is higher than the threshold (41, 43) for at least one critical temperature range, then the second setpoint temperature is selected to be lower than the first setpoint temperature.