mhurhangee/patent-ind-claim-en huggingface dataset:
A system for supplying power for drilling operations, the system comprising: a main powerhouse having an engine/generator, a mud pump and a mud drive thereat, said mud pump being driven by said mud drive , said mud drive being supplied with power from said engine/generator , said engine/generator having an output line extending therefrom, said system comprising an AC or DC umbilical connected to the output line ; and characterised in that the system further comprises a drill floor powerhouse having an energy storage system connected or interconnected to said umbilical such that power from said engine/generator is directed to said energy storage system , said drill floor powerhouse having a load connected to said energy storage system such that power from said energy storage system is directly transferred to said load such that power from said engine/generator is isolated from said load , said engine/generator having a capacity greater than an average power requirement of said load , said AC or DC umbilical having a capacity less than a maximum power requirement of said load , said main powerhouse being in spaced relationship to said drill floor powerhouse , said drill floor powerhouse being in moveable relationship to a fixed position of said main powerhouse ; and in that an autotransformer is connected between said engine/generator and said AC or DC umbilical . a main powerhouse having an engine/generator, a mud pump and a mud drive thereat, said mud pump being driven by said mud drive , said mud drive being supplied with power from said engine/generator , said engine/generator having an output line extending therefrom, said system comprising an AC or DC umbilical connected to the output line ; and characterised in that the system further comprises a drill floor powerhouse having an energy storage system connected or interconnected to said umbilical such that power from said engine/generator is directed to said energy storage system , said drill floor powerhouse having a load connected to said energy storage system such that power from said energy storage system is directly transferred to said load such that power from said engine/generator is isolated from said load , said engine/generator having a capacity greater than an average power requirement of said load , said AC or DC umbilical having a capacity less than a maximum power requirement of said load , said main powerhouse being in spaced relationship to said drill floor powerhouse , said drill floor powerhouse being in moveable relationship to a fixed position of said main powerhouse ; and in that
A sliding bushing comprising: a load bearing substrate , having a first major surface, a second major surface, and an edge, the load bearing substrate having a thickness t1, a metal containing layer (104; 1042) which is a corrosion protective layer and which is overlying and in direct contact with the first major surface, the metal containing layer (104; 1042) having a thickness t2, wherein the metal containing layer (104; 1042) contains a metal selected from magnesium, aluminum, titanium, scandium, zinc, or any combination thereof, a sliding layer overlying the first or the second major surface, characterized in that a ratio of t2/t1 is at least 1/10, wherein t2 is at least 25 μm (microns) and not greater than 200 μm (microns). a load bearing substrate , having a first major surface, a second major surface, and an edge, the load bearing substrate having a thickness t1, a metal containing layer (104; 1042) which is a corrosion protective layer and which is overlying and in direct contact with the first major surface, the metal containing layer (104; 1042) having a thickness t2, wherein the metal containing layer (104; 1042) contains a metal selected from magnesium, aluminum, titanium, scandium, zinc, or any combination thereof, a sliding layer overlying the first or the second major surface, characterized in that a ratio of t2/t1 is at least 1/10, wherein t2 is at least 25 μm (microns) and not greater than 200 μm (microns).
A cochlear implant system, comprising a microphone arrangement for providing an input audio signal; a sound processor for generating an auditory nerve stimulation signal from the input audio signal; an implantable stimulation assembly comprising an electrode array to be implanted into a cochlea of a patient for electrical stimulation of the cochlea according to the auditory nerve stimulation signal; and an electrode migration monitoring unit including a unit for capturing ECAP signals induced at the electrodes of the electrode array in response to stimulation of the cochlea by applying auditory nerve stimulation signals to the electrodes, a memory unit for storing captured ECAP signals and/or ECAP data derived from such captured ECAP signals, an electrode migration detection unit for detecting post-operative electrode migration relative to the cochlea, by comparing presently captured ECAP signals and/or ECAP data derived from such presently captured ECAP signals to stored previously captured ECAP signals and/or ECAP data derived from such previously captured ECAP signals, and a unit for outputting an alarm signal in case that post-operative electrode migration is detected by the electrode migration detection unit, wherein the electrode migration monitoring unit is adapted to repeat said capturing of ECAP signals and said comparing of ECAP signals and/or ECAP data on a regular basis, wherein the unit for outputting an alarm signal is adapted (i) to generate an auditory nerve stimulation signal corresponding to an alarm message; and/or (ii) to control an LED of the sound processor in a manner so as to generate an optical alarm signal; and /or (iii) to generate an alarm message to be sent to a clinician via an accessory device and an communication network to which the accessory device is to be connected, the system comprising an interface to the accessory device.
A carriage configured to be mounted in a fiber distribution cabinet, the carriage comprising: a carriage body having a front end , a rear end , a first side , a second side , and a back wall cooperating to define a cavity ; a top wall at the front end of the carriage body ; a plurality of side walls extending from the back wall to the top wall , wherein the top wall , the side walls , and the back wall define a plurality of openings at the front end of the carriage body, wherein the plurality of openings are sized and configured to receive a fiber optic component, wherein the top wall includes a plurality of slots , each of the plurality of slots being associated with a respective one of the plurality of openings , and wherein the slots are sized and configured to allow fiber optic cables to be inserted into and/or removed from an opening of said plurality of openings through a slot of said plurality of slots , while preventing the fiber optic component from being inserted into and/or removed from the opening through the slot. a carriage body having a front end , a rear end , a first side , a second side , and a back wall cooperating to define a cavity ; a top wall at the front end of the carriage body ; a plurality of side walls extending from the back wall to the top wall , wherein the top wall , the side walls , and the back wall define a plurality of openings at the front end of the carriage body, wherein the plurality of openings are sized and configured to receive a fiber optic component, wherein the top wall includes a plurality of slots , each of the plurality of slots being associated with a respective one of the plurality of openings , and wherein the slots are sized and configured to allow fiber optic cables to be inserted into and/or removed from an opening of said plurality of openings through a slot of said plurality of slots , while preventing the fiber optic component from being inserted into and/or removed from the opening through the slot.
A synchronization method, comprising: receiving (S102), by a second access point, a monophonic signal transmitted by a first access point, wherein the monophonic signal is a signal with a single frequency; determining (S103), by the second access point, a frequency offset between a first carrier and a second carrier based on the monophonic signal, wherein the first carrier is used by the first access point to transmit the monophonic signal, and the second carrier is used by the second access point to receive the monophonic signal; performing (S104), by the second access point, phase compensation on a target data frame based on the frequency offset, so that a difference between a phase of the second carrier and a phase of the first carrier is less than or equal to a first threshold; and transmitting (S106), by the second access point, a phase-compensated target data frame by using the second carrier. receiving (S102), by a second access point, a monophonic signal transmitted by a first access point, wherein the monophonic signal is a signal with a single frequency; determining (S103), by the second access point, a frequency offset between a first carrier and a second carrier based on the monophonic signal, wherein the first carrier is used by the first access point to transmit the monophonic signal, and the second carrier is used by the second access point to receive the monophonic signal; performing (S104), by the second access point, phase compensation on a target data frame based on the frequency offset, so that a difference between a phase of the second carrier and a phase of the first carrier is less than or equal to a first threshold; and transmitting (S106), by the second access point, a phase-compensated target data frame by using the second carrier.
A basket for cultivation of shellfish, wherein the basket includes a top , bottom , left and right sides , front and rear ends and wherein the basket has an elongate dimension and includes: a buoyancy module , wherein the buoyancy module is provided to the top of the basket; one or more support brackets for a cable; and characterised in that each bracket is orientated along an axis substantially midway along and perpendicular to the elongate dimension of the basket, wherein the one or more brackets are provided to the bottom of the basket and define an axis of rotation disposed substantially midway along and perpendicular to the elongate dimension of the basket. a buoyancy module , wherein the buoyancy module is provided to the top of the basket; one or more support brackets for a cable; and characterised in that each bracket is orientated along an axis substantially midway along and perpendicular to the elongate dimension of the basket, wherein the one or more brackets are provided to the bottom of the basket and define an axis of rotation disposed substantially midway along and perpendicular to the elongate dimension of the basket.
A portable diagnostic device comprising: a housing, assay stages (161-164), each with a reservoir linked by channels , at least one of the assay stages including a sensor for detecting target analyte, an inlet for receiving a sample and including: a sample lysing agent, an outlet port to the assay stages, the outlet port having a wax or oil plug having embedded magnetic beads for attachment by a probe to target analyte. a housing, assay stages (161-164), each with a reservoir linked by channels , at least one of the assay stages including a sensor for detecting target analyte, an inlet for receiving a sample and including: a sample lysing agent, an outlet port to the assay stages, the outlet port having a wax or oil plug having embedded magnetic beads for attachment by a probe to target analyte. a sample lysing agent, an outlet port to the assay stages, the outlet port having a wax or oil plug having embedded magnetic beads for attachment by a probe to target analyte.
Compression unit for supplying high and low pressure services to a plant comprising a single driver associated with two driver shaft-ends projecting apart from said driver , a first driver shaft end and a second driver shaft end , a first unit being directly operatively connected to the first driver shaft-end and a second unit being operatively connected to the second driver shaft-end , wherein said second unit is an integrally geared-compressor arrangement comprising a bull gear and a plurality of pinions engaged with the bull gear , wherein the diameter of the bull gear is larger than the diameter of the pinions; characterized in that the first unit is directly connected to the first driver shaft-end by a flexible coupling and the bull gear is connected to the second driver shaft-end by a flexible coupling; and in that said first unit is an overhung impeller and the inlet of said first unit is fluidly connected to the outlet of said second unit thus forming a first multi stage compression unit.
Exhaust duct configured to be disposed around an ejection nozzle of an engine , the exhaust duct featuring a plurality of sections , said sections comprising an inlet section and an outlet section , the exhaust duct extending along a guiding line from the inlet section to the outlet section , the outlet section being configured to expel gases ejected by the ejection nozzle , characterised in that said sections are circular between the inlet section and the outlet section , with the exception of the sections of a deformed length , each section of the deformed length comprising a lower section and an upper section , the lower section having a non-circular shape so that at least one volume of liquid unable by gravity to reach the inlet section and the outlet section is less than a volume threshold in the presence of pitch and roll angles contained respectively within the predetermined angular ranges in pitch and in roll.
A panel comprising a plasterboard, the plasterboard having a backing lamina glued to one of the faces thereof, the plasterboard comprising a gypsum matrix having fibres embedded therein in an amount of at least 1 wt% relative to the gypsum, wherein the lamina has a thickness of at least 1 mm and comprises substantially a material selected from the group comprising: PVC, HDPE, Nylon, polycarbonate, Bakelite, polypropylene and acetal.
A method in which a multi-cell coordination entity, MCE, transmits a cell identification, ID, list in a wireless communication system, the method comprising: receiving (S1310, S1410) the cell ID list, from a mobility management entity, MME; and transmitting (S1320, S1420) the cell ID list, which is received from the MME, to a base station, wherein the cell ID list transmitted to the base station is identical to the cell ID list received from the MME, and wherein the cell ID list comprises a list of cells for providing a same single-cell point-to-multipoint, SCPTM, service. receiving (S1310, S1410) the cell ID list, from a mobility management entity, MME; and transmitting (S1320, S1420) the cell ID list, which is received from the MME, to a base station, wherein the cell ID list transmitted to the base station is identical to the cell ID list received from the MME, and wherein the cell ID list comprises a list of cells for providing a same single-cell point-to-multipoint, SCPTM, service.
A die-integrated aspheric mirror system , comprising: an ion trap die comprising a plurality of separate ion locations each configured to trap an ion in a potential well; a first aspheric mirror integrated with the ion trap die; and a first number of optical fibers positioned between the first aspheric mirror and the ion trap die , wherein the first number of optical fibers is configured to collect fluorescent light reflected by the first aspheric mirror that was emitted from the plurality of ion locations ; wherein the first aspheric mirror has a plurality of principal axes; wherein the ion trap die comprises a longitudinal axis (x direction at 223) wherein the first aspheric mirror is configured to be integrated with the ion trap die such that a principal axis of the aspheric mirror is substantially aligned with the longitudinal axis of the ion trap die ; wherein the first aspheric mirror is configured with a number of image locations between the first aspheric mirror and the ion trap die , and wherein the first aspheric mirror is configured to focus fluorescent light emitted from the different ion locations along the ion trap die to separate optical fibers . an ion trap die comprising a plurality of separate ion locations each configured to trap an ion in a potential well; a first aspheric mirror integrated with the ion trap die; and a first number of optical fibers positioned between the first aspheric mirror and the ion trap die , wherein the first number of optical fibers is configured to collect fluorescent light reflected by the first aspheric mirror that was emitted from the plurality of ion locations ; wherein the first aspheric mirror has a plurality of principal axes; wherein the ion trap die comprises a longitudinal axis (x direction at 223) wherein the first aspheric mirror is configured to be integrated with the ion trap die such that a principal axis of the aspheric mirror is substantially aligned with the longitudinal axis of the ion trap die ; wherein the first aspheric mirror is configured with a number of image locations between the first aspheric mirror and the ion trap die , and wherein the first aspheric mirror is configured to focus fluorescent light emitted from the different ion locations along the ion trap die to separate optical fibers .
A method of manufacturing prestressed slabs, prefabricated by pouring concrete or the like onto a decking extending over a length of 100 to 200 m, comprising at least : - a step before the concrete is poured, during which a one-piece matrix is positioned on the decking , both the decking and the matrix extending over a length of 100 to 200 m, the matrix being made of thin sheet metal, preferably between 0.5 and 1 mm thick, profiled in relief (a, b, c, d, e) and completely covering the decking, so that after the concrete has set and the slab has been demoulded, the underside of the slab is printed with the relief of the said matrix, and - a step before the concrete is poured, during which active reinforcements are stretched over the entire length of the decking covered by the matrix to form prestressed slabs, - a step before the concrete is poured, during which supports are fitted in the concave part of the reliefs between the one-piece matrix and the decking, so as to prevent the concrete from deforming the reliefs under its weight when poured, - a step of pouring the concrete by spreading and vibrating or by means of a slipforming extruder. - a step before the concrete is poured, during which a one-piece matrix is positioned on the decking , both the decking and the matrix extending over a length of 100 to 200 m, the matrix being made of thin sheet metal, preferably between 0.5 and 1 mm thick, profiled in relief (a, b, c, d, e) and completely covering the decking, so that after the concrete has set and the slab has been demoulded, the underside of the slab is printed with the relief of the said matrix, and - a step before the concrete is poured, during which active reinforcements are stretched over the entire length of the decking covered by the matrix to form prestressed slabs, - a step before the concrete is poured, during which supports are fitted in the concave part of the reliefs between the one-piece matrix and the decking, so as to prevent the concrete from deforming the reliefs under its weight when poured, - a step of pouring the concrete by spreading and vibrating or by means of a slipforming extruder.
An electric gear pump comprising: an electric motor in which a supply of motor current rotates a motor shaft ; a driving gear that is coupled to the motor shaft to be rotated; a driven gear that is rotated by meshing between gear teeth of the driving gear and gear teeth of the driven gear ; a pump housing that houses the driving gear and the driven gear ; and a control unit that outputs the motor current to control the electric motor , characterized in that the control unit is configured so that when the electric motor that stopped is started and when the rotation of the electric motor is reversed, the control unit executes rotational speed restricting control that restrains the motor current to restrict a rotational speed of the electric motor at least during an idling period, the idling period being a period until a gear tooth of the driving gear and a gear tooth of the driven gear abut against each other in a rotational direction of the electric motor . an electric motor in which a supply of motor current rotates a motor shaft ; a driving gear that is coupled to the motor shaft to be rotated; a driven gear that is rotated by meshing between gear teeth of the driving gear and gear teeth of the driven gear ; a pump housing that houses the driving gear and the driven gear ; and a control unit that outputs the motor current to control the electric motor , characterized in that the control unit is configured so that when the electric motor that stopped is started and when the rotation of the electric motor is reversed, the control unit executes rotational speed restricting control that restrains the motor current to restrict a rotational speed of the electric motor at least during an idling period, the idling period being a period until a gear tooth of the driving gear and a gear tooth of the driven gear abut against each other in a rotational direction of the electric motor .
A method for cleaning oily waste comprising water, solids and at least one fuel oil, wherein the method comprises the steps of: - providing oily waste to be cleaned, which provided oily waste to be cleaned comprises water, solids and at least one fuel oil; - removing water from said provided oily waste to be cleaned so as to produce dried oily waste, comprising heating said provided oily waste so as to boil off water from said provided oily waste and/or so as to facilitate evaporation of water from said provided oily waste; - introducing dried oily waste produced in said step of removing water into a two-phase centrifugal separator through a liquid inlet of said two-phase centrifugal separator, which further comprises a sludge outlet and a liquid outlet and is free of further liquid outlets, wherein said two-phase centrifugal separator comprises a screw conveyor and a stack of separation discs ; - separating said dried oily waste in said two-phase centrifugal separator into a cleaned oil phase and a sludge phase comprising solids from said dried oily waste; - discharging said sludge phase through the sludge outlet of said two-phase centrifugal separator by means of said screw conveyor ; and - discharging said cleaned oil phase through the liquid outlet of said two-phase centrifugal separator . - providing oily waste to be cleaned, which provided oily waste to be cleaned comprises water, solids and at least one fuel oil; - removing water from said provided oily waste to be cleaned so as to produce dried oily waste, comprising heating said provided oily waste so as to boil off water from said provided oily waste and/or so as to facilitate evaporation of water from said provided oily waste; - introducing dried oily waste produced in said step of removing water into a two-phase centrifugal separator through a liquid inlet of said two-phase centrifugal separator, which further comprises a sludge outlet and a liquid outlet and is free of further liquid outlets, wherein said two-phase centrifugal separator comprises a screw conveyor and a stack of separation discs ; - separating said dried oily waste in said two-phase centrifugal separator into a cleaned oil phase and a sludge phase comprising solids from said dried oily waste; - discharging said sludge phase through the sludge outlet of said two-phase centrifugal separator by means of said screw conveyor ; and - discharging said cleaned oil phase through the liquid outlet of said two-phase centrifugal separator .