mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit comprising: a control circuit (101, 501); a one-time programmable circuit (103, 502) comprising a one-time programmable disable circuit and a one-time programmable enable circuit; and a security feature, wherein the control circuit (101, 501) determines if the one-time programmable disable circuit and the one-time programmable enable circuit are programmed in response to a request by a user of the integrated circuit to access the security feature, the control circuit (101, 501) causes the one-time programmable enable circuit to be programmed in response to the request to access the security feature, and the control circuit (101, 501) generates a signal to indicate to the user of the integrated circuit that the security feature has been previously accessed if the control circuit (101, 501) determines that the one-time programmable enable circuit has been programmed, wherein the control circuit (101, 501) causes the one-time programmable enable circuit to be programmed in response to the request if the control circuit (101, 501) determines that the one-time programmable enable circuit has not been programmed, and wherein the control circuit (101, 501) prevents a user of the integrated circuit from accessing the security feature if the control circuit (101, 501) determines that the one-time programmable disable circuit has been programmed. a control circuit (101, 501); a one-time programmable circuit (103, 502) comprising a one-time programmable disable circuit and a one-time programmable enable circuit; and a security feature, wherein the control circuit (101, 501) determines if the one-time programmable disable circuit and the one-time programmable enable circuit are programmed in response to a request by a user of the integrated circuit to access the security feature, the control circuit (101, 501) causes the one-time programmable enable circuit to be programmed in response to the request to access the security feature, and the control circuit (101, 501) generates a signal to indicate to the user of the integrated circuit that the security feature has been previously accessed if the control circuit (101, 501) determines that the one-time programmable enable circuit has been programmed, wherein the control circuit (101, 501) causes the one-time programmable enable circuit to be programmed in response to the request if the control circuit (101, 501) determines that the one-time programmable enable circuit has not been programmed, and wherein the control circuit (101, 501) prevents a user of the integrated circuit from accessing the security feature if the control circuit (101, 501) determines that the one-time programmable disable circuit has been programmed.
A method for managing a training of users on a plurality of exercise machines, comprising steps of: - providing a control unit of a user training class on a plurality of exercise machines, the control unit being accessible by a trainer user in charge of managing a training class on a plurality of exercise machines; - providing a plurality of exercise machines operatively connected to the control unit by means of a data communication network; - loading, by the control unit, in a respective memory module of the control unit, a training program to be performed for the users of the training class chosen by the trainer user from various training programs; - sending, by the control unit, by means of the data communication network, a start of training command to the plurality of exercise machines; - unlocking, by the control unit using the start of training command, the plurality of exercise machines which, until the start of training command was received, are locked and ready to be used only in the training class with which they were associated; - starting, by the plurality of exercise machines, the training following the reception of the start of training command; - sending to the plurality of exercise machines, by the control unit, by means of the data communication network, at least one control instruction of the operation of each exercise machine of the plurality of exercise machines; - controlling the operation of each exercise machine, by each exercise machine of the plurality of exercise machines, on the basis of the at least one control instruction of the operation of each exercise machine received by the control unit. - providing a control unit of a user training class on a plurality of exercise machines, the control unit being accessible by a trainer user in charge of managing a training class on a plurality of exercise machines; - providing a plurality of exercise machines operatively connected to the control unit by means of a data communication network; - loading, by the control unit, in a respective memory module of the control unit, a training program to be performed for the users of the training class chosen by the trainer user from various training programs; - sending, by the control unit, by means of the data communication network, a start of training command to the plurality of exercise machines; - unlocking, by the control unit using the start of training command, the plurality of exercise machines which, until the start of training command was received, are locked and ready to be used only in the training class with which they were associated; - starting, by the plurality of exercise machines, the training following the reception of the start of training command; - sending to the plurality of exercise machines, by the control unit, by means of the data communication network, at least one control instruction of the operation of each exercise machine of the plurality of exercise machines; - controlling the operation of each exercise machine, by each exercise machine of the plurality of exercise machines, on the basis of the at least one control instruction of the operation of each exercise machine received by the control unit.
Centrifugal gas compressor or pump comprising a body, a wheel rotatively mounted in the body around a wheel axis, the wheel comprising a hub, a set of blades attached to the hub, the body comprising a diffuser placed on the periphery of the wheel and a fluid intake placed opposite the hub, the blades comprising a first edge opposite the intake and a second edge opposite the diffuser so that a fluid circulates from the intake to the diffuser, the second edges being located inside a blade-enveloping cylinder centred on the wheel axis, - the wheel (212; 402; 502) comprising at least one ring (21201, 40221, 50221), attached to the wheel and which extends radially beyond the blade-enveloping cylinder to form a wall of the diffuser (2111; 4011; 5011); - the body comprising a volute around the diffuser; characterised in that - the ring is inserted with play into a bore of the compressor body and is placed in such a way that its diffuser side face is in the same plane as the wall of the volute at this level. - the wheel (212; 402; 502) comprising at least one ring (21201, 40221, 50221), attached to the wheel and which extends radially beyond the blade-enveloping cylinder to form a wall of the diffuser (2111; 4011; 5011); - the body comprising a volute around the diffuser; characterised in that - the ring is inserted with play into a bore of the compressor body and is placed in such a way that its diffuser side face is in the same plane as the wall of the volute at this level.
An implantable device for treating sleep apnea, the device comprising: a flexible substrate sized and shaped for supporting at least one pair of modulation electrodes and configured to lie between a myelohyoid muscle and a genioglossus muscle, the substrate further including a portion configured to lie between a geniohyoid muscle and the genioglossus muscle and configured to be implanted adjacent the genioglossus muscle; an implantable circuit arranged on the substrate and coupled to said electrodes configured to stimulate a hypoglossal nerve; an encapsulation structure disposed over at least a portion of the substrate and at least a portion of the implantable circuit, the encapsulation structure including: a first polymer layer having a first density; characterised by a second polymer layer disposed over the first polymer layer and having a density which is less than the first density. a flexible substrate sized and shaped for supporting at least one pair of modulation electrodes and configured to lie between a myelohyoid muscle and a genioglossus muscle, the substrate further including a portion configured to lie between a geniohyoid muscle and the genioglossus muscle and configured to be implanted adjacent the genioglossus muscle; an implantable circuit arranged on the substrate and coupled to said electrodes configured to stimulate a hypoglossal nerve; an encapsulation structure disposed over at least a portion of the substrate and at least a portion of the implantable circuit, the encapsulation structure including: a first polymer layer having a first density; characterised by a second polymer layer disposed over the first polymer layer and having a density which is less than the first density. a first polymer layer having a first density; characterised by a second polymer layer disposed over the first polymer layer and having a density which is less than the first density.
A computing module, comprising: a chassis configured to be installed on a shelf in a rack; a left circuit board assembly in a primarily vertical orientation coupled to the chassis and a right circuit board assembly in a primarily vertical orientation coupled to the chassis, wherein the left circuit board and the right circuit board may operate independently of each other, and wherein the chassis comprises a left chassis member and a right chassis member coupled to one another and wherein the left circuit board assembly is coupled to the left chassis member and the right circuit board assembly is coupled to the right chassis member; and one or more hard disk drives installed in a primarily vertical orientation in the chassis such that the installed height of a said hard disk drive installed in a primarily vertical orientation is greater than the installed width of said hard disk drive, the one or more hard disk drives being coupled to the chassis, wherein at least one of the hard disk drives installed in a primarily vertical orientation is coupled such that the hard disk drive can be removed from the computing module without removing any other components from the computing module. a chassis configured to be installed on a shelf in a rack; a left circuit board assembly in a primarily vertical orientation coupled to the chassis and a right circuit board assembly in a primarily vertical orientation coupled to the chassis, wherein the left circuit board and the right circuit board may operate independently of each other, and wherein the chassis comprises a left chassis member and a right chassis member coupled to one another and wherein the left circuit board assembly is coupled to the left chassis member and the right circuit board assembly is coupled to the right chassis member; and one or more hard disk drives installed in a primarily vertical orientation in the chassis such that the installed height of a said hard disk drive installed in a primarily vertical orientation is greater than the installed width of said hard disk drive, the one or more hard disk drives being coupled to the chassis, wherein at least one of the hard disk drives installed in a primarily vertical orientation is coupled such that the hard disk drive can be removed from the computing module without removing any other components from the computing module.
Connection unit for connecting an electrical supply line to an exhaust gas heater of an exhaust system of an internal combustion engine, the connection unit comprising: - an electrically conductive connection element elongated in the direction of a longitudinal axis, wherein the connection element has an exhaust gas heater connection region in a first axial end region and has a supply line connection region in a second axial end region, - a connection element carrier with a connection element receiving opening, wherein the connection element passes through the connection element receiving opening with a support region lying between the first axial end region and the second axial end region, - a first insulating element, formed as an insulting sleeve and arranged in the connection element receiving opening and surrounding the support region, - a second insulating element arranged on a first end face of the connection element carrier facing the first axial end region of the connection element, wherein the connection element is supported axially with respect to the first end face of the connection element carrier via the second insulating element, - a third insulating element arranged on a second end face of the connection element carrier facing the second axial end region of the connection element, wherein the connection element is supported axially with respect to the second end face of the connection element carrier via the third insulating element, characterized in that an axial extension length of the first insulating element is smaller than an axial extension length of the connecting element receiving opening, so that an axial intermediate space (82, 84) is formed between the first insulating element and at least one insulating element of the second insulating element and third insulating element. - an electrically conductive connection element elongated in the direction of a longitudinal axis, wherein the connection element has an exhaust gas heater connection region in a first axial end region and has a supply line connection region in a second axial end region, - a connection element carrier with a connection element receiving opening, wherein the connection element passes through the connection element receiving opening with a support region lying between the first axial end region and the second axial end region, - a first insulating element, formed as an insulting sleeve and arranged in the connection element receiving opening and surrounding the support region, - a second insulating element arranged on a first end face of the connection element carrier facing the first axial end region of the connection element, wherein the connection element is supported axially with respect to the first end face of the connection element carrier via the second insulating element, - a third insulating element arranged on a second end face of the connection element carrier facing the second axial end region of the connection element, wherein the connection element is supported axially with respect to the second end face of the connection element carrier via the third insulating element,
A method of forming an oxide dispersion-strengthened alloy metal comprising the steps of: providing, in a powdered form, an oxide dispersion-strengthened alloy composition comprising a nickel chromium powder composition or a nickel aluminide powder composition that is capable of achieving a dispersion-strengthened microstructure, wherein providing the oxide dispersion-strengthened alloy composition in powdered form comprises mixing a plurality of metals and oxides forming the alloy to form a mixture, melting the mixture to form a melted mixture, and atomizing the melted mixture into the powdered form; directing a low energy density energy beam from an additive manufacturing process selected from direct metal laser fusion, DMLF, electron beam melting, EBM, or direct metal laser sintering, DMLS, at a portion of the alloy composition, wherein the portion of the alloy composition is provided in a layer having a thickness of less than 0.025 mm; withdrawing the energy beam from the portion of the powdered alloy composition; and cooling the portion of the powdered alloy composition at a rate greater than or equal to 0.56 x 10 7 °C per second (10 7 °F per second), thereby forming the oxide dispersion-strengthened alloy metal. providing, in a powdered form, an oxide dispersion-strengthened alloy composition comprising a nickel chromium powder composition or a nickel aluminide powder composition that is capable of achieving a dispersion-strengthened microstructure, wherein providing the oxide dispersion-strengthened alloy composition in powdered form comprises mixing a plurality of metals and oxides forming the alloy to form a mixture, melting the mixture to form a melted mixture, and atomizing the melted mixture into the powdered form; directing a low energy density energy beam from an additive manufacturing process selected from direct metal laser fusion, DMLF, electron beam melting, EBM, or direct metal laser sintering, DMLS, at a portion of the alloy composition, wherein the portion of the alloy composition is provided in a layer having a thickness of less than 0.025 mm; withdrawing the energy beam from the portion of the powdered alloy composition; and cooling the portion of the powdered alloy composition at a rate greater than or equal to 0.56 x 10 7 °C per second (10 7 °F per second), thereby forming the oxide dispersion-strengthened alloy metal.
A method of wireless communication performed by a user equipment, UE, comprising: receiving signaling indicative of a scheduling parameter for a system information block, SIB, in a broadcast communication from a base station, wherein the signaling comprises a bit field indicative of the scheduling parameter for the SIB; interpreting the received signaling; determining a bandwidth or duplexing configuration based on the interpreted signal for communication with a base station; determining the scheduling parameter for the SIB based at least in part on a mapping between the bandwidth or duplexing configuration and the scheduling parameter; and receiving the SIB according to the scheduling parameter. receiving signaling indicative of a scheduling parameter for a system information block, SIB, in a broadcast communication from a base station, wherein the signaling comprises a bit field indicative of the scheduling parameter for the SIB; interpreting the received signaling; determining a bandwidth or duplexing configuration based on the interpreted signal for communication with a base station; determining the scheduling parameter for the SIB based at least in part on a mapping between the bandwidth or duplexing configuration and the scheduling parameter; and receiving the SIB according to the scheduling parameter.
A process containing as process steps: a) Provide a confectionery precursor mass, wherein the confectionery precursor mass is liquid; b) providing a carrier carrying a powder, said powder including a powder mirror surface, wherein the powder mirror surface includes a plurality of negative molds; c) Fill the negative moulds with the confectionery precursor mass; d) Hardening of the precursor confectionery mass; said powder having a particle size distribution, characterized by a i) D 10 in a range from 6 to 10 μm, ii) D 50 in a range of 12 to 16 μm, and iii) D 90 in a range from 21 to 25 μm. a) Provide a confectionery precursor mass, wherein the confectionery precursor mass is liquid; b) providing a carrier carrying a powder, said powder including a powder mirror surface, wherein the powder mirror surface includes a plurality of negative molds; c) Fill the negative moulds with the confectionery precursor mass; d) Hardening of the precursor confectionery mass; i) D 10 in a range from 6 to 10 μm, ii) D 50 in a range of 12 to 16 μm, and iii) D 90 in a range from 21 to 25 μm.
An optical system for detecting light from a 2D area of a sample, comprising: - a collection lens for collecting light from a collection region of the sample; - a light detector; - a reflector arrangement for directing collected light to the detector, characterised in that the light detector is in use positionally fixed with respect to the sample, in that the reflector arrangement comprises movable components comprising first and second reflectors which reflect the collected light in perpendicular planes, wherein the first and second reflectors are movable along the axis of the reflected collected light as reflected by the respective reflector, and the collection lens is movable relative to the sample, and in that the collection lens and the movable components are configurable to define different collection regions covering the 2D area, and wherein the movement of the components and the collection lens relatively to the sample effects a direction of the light from the collection region to a substantially unchanged area of the light detector. - a collection lens for collecting light from a collection region of the sample; - a light detector; - a reflector arrangement for directing collected light to the detector,
A wall structure for a building, comprising: a cavity for allowing air to flow through the wall structure between the building's interior and exterior, between the wall structure's inner and outer layers; and an electricity generating member for generating electricity using heat transfer and being located for transferring heat from the building's exterior to interior when exposed to relatively warm external conditions (T HOT) and from the building's interior to exterior when exposed to relatively cooler external conditions (T COLD), and wherein the electricity generating member is located for promoting an energy transfer with air within the cavity. a cavity for allowing air to flow through the wall structure between the building's interior and exterior, between the wall structure's inner and outer layers; and an electricity generating member for generating electricity using heat transfer and being located for transferring heat from the building's exterior to interior when exposed to relatively warm external conditions (T HOT) and from the building's interior to exterior when exposed to relatively cooler external conditions (T COLD), and wherein the electricity generating member is located for promoting an energy transfer with air within the cavity.
An apparatus for trapping ions, comprising: (a) an array of electrodes (2, 3, 4); (b) AC voltages having different relative phase applied to adjacent electrodes of said array of electrodes; (c) at least one DC offset voltage applied to said electrodes of said array of electrodes; (d) at least one counter electrode; (e) at least one DC voltage applied to said at least one counter electrode; (f) at least one back electrode behind said array of electrodes; (g) at least one DC voltage applied to said at least one back electrode; and (h) means to control said AC and DC voltages to trap ions in one of more trapping regions proximal to said array of electrodes, characterised in that the array of electrodes is arranged along a planar surface. (a) an array of electrodes (2, 3, 4); (b) AC voltages having different relative phase applied to adjacent electrodes of said array of electrodes; (c) at least one DC offset voltage applied to said electrodes of said array of electrodes; (d) at least one counter electrode; (e) at least one DC voltage applied to said at least one counter electrode; (f) at least one back electrode behind said array of electrodes; (g) at least one DC voltage applied to said at least one back electrode; and (h) means to control said AC and DC voltages to trap ions in one of more trapping regions proximal to said array of electrodes, characterised in that the array of electrodes is arranged along a planar surface.
A method for the production of lightweight building boards comprising at least one outer layer and a core layer adhesively bonded to this, the adhesive being applied to at least one outer layer, wherein the application of the adhesive is effected by means of one or more rotating disk(s) which is or are mounted horizontally or with a the slight deviation of up to 15° from the horizontal, preferably parallel to the outer layer, the disk being rounded or beveled at the edges facing upward, and a honeycomb, folded or plug-type structure comprising paper, board, wood or light metal being used as core layer.