mhurhangee/patent-ind-claim-en huggingface dataset:
A method of laying a subsea pipeline , the method comprising: launching the pipeline from an installation vessel , the pipeline having an outer coating, surface treatment or surface finish extending along discrete regions that are mutually spaced along the pipeline for reducing friction in those discrete regions between an outer surface of the pipeline and seabed soil ; and imparting curvature to the pipeline along its length during laying to create expansion loops of increased curvature relative to intermediate portions of the pipeline that join those loops , each of those loops being coincident with a respective one of the discrete regions. launching the pipeline from an installation vessel , the pipeline having an outer coating, surface treatment or surface finish extending along discrete regions that are mutually spaced along the pipeline for reducing friction in those discrete regions between an outer surface of the pipeline and seabed soil ; and imparting curvature to the pipeline along its length during laying to create expansion loops of increased curvature relative to intermediate portions of the pipeline that join those loops , each of those loops being coincident with a respective one of the discrete regions.
A method for localisation microscopy, comprising: receiving a temporal sequence of microscopy image frames captured by a microscope, the image frames being images containing emitters or fluorophores therein; temporally filtering respective sets of pixel values for respective same pixel positions in the sequence of frames using a plurality of temporal filters having different temporal characteristics in order to obtain respective sets of pluralities of temporally filtered pixel values for the respective same pixel positions in the frames; and providing the respective sets of temporally filtered pixel values as input to a localisation algorithm to permit emitter or fluorophore localisation in dependence thereon. receiving a temporal sequence of microscopy image frames captured by a microscope, the image frames being images containing emitters or fluorophores therein; temporally filtering respective sets of pixel values for respective same pixel positions in the sequence of frames using a plurality of temporal filters having different temporal characteristics in order to obtain respective sets of pluralities of temporally filtered pixel values for the respective same pixel positions in the frames; and providing the respective sets of temporally filtered pixel values as input to a localisation algorithm to permit emitter or fluorophore localisation in dependence thereon.
A certification system for a sensing camera for at least partially navigating an autonomous mobile robot , comprising: a robot body; at least one light source resident on the robot body proximate to the sensing camera such that the at least one light source is capable of at least partially irradiating a field of view FoV of the sensing camera , wherein the at least one light source has characteristics mated to the sensing camera ; at least one processing system for providing the at least partial navigation, wherein the at least one processing system comprises a processor for executing non-transitory computing code stored in at least one computing memory , and wherein execution of the computing code by the processor comprises the steps of: actuating the at least one light source at a predetermined time and for a predetermined duration; monitoring data from the sensing camera for confirmation of the actuating; calculating at least one of the latency, throughput, and reactivity of the sensing camera based on the monitoring; at least partially navigating based on the calculating. a robot body; at least one light source resident on the robot body proximate to the sensing camera such that the at least one light source is capable of at least partially irradiating a field of view FoV of the sensing camera , wherein the at least one light source has characteristics mated to the sensing camera ; at least one processing system for providing the at least partial navigation, wherein the at least one processing system comprises a processor for executing non-transitory computing code stored in at least one computing memory , and wherein execution of the computing code by the processor comprises the steps of: actuating the at least one light source at a predetermined time and for a predetermined duration; monitoring data from the sensing camera for confirmation of the actuating; calculating at least one of the latency, throughput, and reactivity of the sensing camera based on the monitoring; at least partially navigating based on the calculating. actuating the at least one light source at a predetermined time and for a predetermined duration; monitoring data from the sensing camera for confirmation of the actuating; calculating at least one of the latency, throughput, and reactivity of the sensing camera based on the monitoring; at least partially navigating based on the calculating.
A power source , comprising: an enclosure ; a substrate disposed within the enclosure; radioactive material disposed within the substrate and adapted to emit radioactive particles; and a carrier material disposed within the enclosure, characterized by a diffusion barrier disposed over an outer surface of the substrate, wherein the carrier material comprises an oxide material. an enclosure ; a substrate disposed within the enclosure; radioactive material disposed within the substrate and adapted to emit radioactive particles; and a carrier material disposed within the enclosure, characterized by a diffusion barrier disposed over an outer surface of the substrate, wherein the carrier material comprises an oxide material.
First method for tinting or decoloring a lens, the method comprising - inserting a lens in a reception unit of a lens holder , - providing an immersion bath comprising a fluid, - immersing the lens holder into the fluid, and - rotating the lens holder around a rotation axis to a predetermined maximum rotation angle, characterized in that the rotation axis is located outside the lens and generally perpendicular to the plane of the lens . - inserting a lens in a reception unit of a lens holder , - providing an immersion bath comprising a fluid, - immersing the lens holder into the fluid, and - rotating the lens holder around a rotation axis to a predetermined maximum rotation angle,
A plunger assembly for forming drops of molten glass, the assembly comprising a fixed frame ; a tank adapted to accommodate a mass of molten glass; a support arm extending in a cantilever fashion starting from said fixed frame above said tank ; at least a first extruder plunger adapted to be inserted in said tank for forming a ribbon of molten glass and having its own vertical axis ; first motorised handling means for cyclically moving said extruder plunger and forming said ribbon of molten glass ; and an electronic control unit for said first motorised handling means and configured to move said first extruder plunger from and towards said tank with an alternated cyclic motion along said vertical axis and according an electronic cam, characterised in that said support arm is fixed in respect to the frame during the cyclic displacement of said first extruder plunger and said first motorised means translate said first extruder plunger in respect to said support arm , and in that it comprises an attachment structure for said first motorised means supported by said support arm and a guide head of said first extruder plunger coupled to the support arm for guiding the first extruder plunger in a vertical direction parallel to said vertical axis during said cyclic displacement.
Method for routing near-field communications, in a device including: - a near field communication router ; - at least one secure element ; - an user interface module ; - a host circuit distinct from the near-field communication router, the host circuit arbitrating and activating applications hosted by said secure element, so as to allow communications between these applications and said router; and - a management unit included in the host circuit, wherein the management unit selects a secure element towards which to direct a communication. - a near field communication router ; - at least one secure element ; - an user interface module ; - a host circuit distinct from the near-field communication router, the host circuit arbitrating and activating applications hosted by said secure element, so as to allow communications between these applications and said router; and - a management unit included in the host circuit, wherein the management unit selects a secure element towards which to direct a communication.
A building management system configured to control the operation of one or more building system components of a building , wherein the one or more building system components include lighting system components, security system components, and/or HVAC system components the building management system comprising: an I/O port for operative coupling to a remote user interface ; a controller operatively coupled to the I/O port , the controller configured to provide a natural language interaction on the remote user interface via the I/O port and to receive one or more building management requests from one or more users ; the controller further configured to ascertain whether the received one or more building management requests can be carried out by the building management system ; the controller further configured to instruct the one or more building system components of the building to carry out the received one or more building management requests unless one or more building management requests cannot be carried out; and wherein the controller is configured to determine that one or more of the received building management requests cannot be carried out due to a conflict with another one of the received building management requests. an I/O port for operative coupling to a remote user interface ; a controller operatively coupled to the I/O port , the controller configured to provide a natural language interaction on the remote user interface via the I/O port and to receive one or more building management requests from one or more users ; the controller further configured to ascertain whether the received one or more building management requests can be carried out by the building management system ; the controller further configured to instruct the one or more building system components of the building to carry out the received one or more building management requests unless one or more building management requests cannot be carried out; and wherein the controller is configured to determine that one or more of the received building management requests cannot be carried out due to a conflict with another one of the received building management requests.
An air conditioner comprising: a first air conditioner coil assembly configured to cool air; a first condensate collection device including a tray configured to be mounted in a horizontal orientation below the first air conditioner coil assembly to collect condensate, and a lid configured to restrict air movement across the first air conditioner coil assembly, the lid including a condensate drain channel configured to collect and drain condensate from a top of the lid into the tray, and a coil header port configured to accept a portion of the first air conditioner coil assembly; a second air conditioner coil assembly disposed below the first condensate collection device and configured to cool air; and a second condensate collection device including: a tray configured to be mounted in a horizontal orientation below the second air conditioner coil assembly to collect condensate; a lid configured to restrict air movement across the second air conditioner coil assembly, the lid including a condensate drain channel configured to collect and drain condensate from a top of the lid into the tray, and a coil header port configured to accept a portion of the second air conditioner coil assembly. a first air conditioner coil assembly configured to cool air; a first condensate collection device including a tray configured to be mounted in a horizontal orientation below the first air conditioner coil assembly to collect condensate, and a lid configured to restrict air movement across the first air conditioner coil assembly, the lid including a condensate drain channel configured to collect and drain condensate from a top of the lid into the tray, and a coil header port configured to accept a portion of the first air conditioner coil assembly; a second air conditioner coil assembly disposed below the first condensate collection device and configured to cool air; and a second condensate collection device including: a tray configured to be mounted in a horizontal orientation below the second air conditioner coil assembly to collect condensate; a lid configured to restrict air movement across the second air conditioner coil assembly, the lid including a condensate drain channel configured to collect and drain condensate from a top of the lid into the tray, and a coil header port configured to accept a portion of the second air conditioner coil assembly. a tray configured to be mounted in a horizontal orientation below the second air conditioner coil assembly to collect condensate; a lid configured to restrict air movement across the second air conditioner coil assembly, the lid including a condensate drain channel configured to collect and drain condensate from a top of the lid into the tray, and a coil header port configured to accept a portion of the second air conditioner coil assembly.
A method for characterizing natural fracture networks or other textural networks in an Earth formation, comprising: receiving microseismic data from a hydraulic fracturing event ; and processing the microseismic data with a computer processor to: determine presence and location of microseismic events in the data and thereby provide a cloud of microseismic events; characterized in that the method further comprises: processing the microseismic data with a computer processor to identify a subset of the microseismic data predominantly containing microseismic events which are located on or immediately adjacent to one or more fractures produced by the hydraulic fracturing event, wherein processing to identify the said subset comprises identifying locations according to density of microseismic events; obtain a remainder dataset of the microseismic data containing different microseismic events which are predominantly events on natural fractures by removing the subset from the microseismic data; process the remainder dataset of the microseismic data to characterize the natural fracture networks or the other textural networks, and output the characterization to a visual display, a printer or computer memory. receiving microseismic data from a hydraulic fracturing event ; and processing the microseismic data with a computer processor to: determine presence and location of microseismic events in the data and thereby provide a cloud of microseismic events; determine presence and location of microseismic events in the data and thereby provide a cloud of microseismic events; identify a subset of the microseismic data predominantly containing microseismic events which are located on or immediately adjacent to one or more fractures produced by the hydraulic fracturing event, wherein processing to identify the said subset comprises identifying locations according to density of microseismic events; obtain a remainder dataset of the microseismic data containing different microseismic events which are predominantly events on natural fractures by removing the subset from the microseismic data; process the remainder dataset of the microseismic data to characterize the natural fracture networks or the other textural networks, and output the characterization to a visual display, a printer or computer memory.
An inspection hatch comprising an outer framework , which has an annular, quadrilateral shape and is delimited by two first sides , which are parallel to one another and to a first direction , and by two second sides , which are parallel to one another and to a second direction that is transverse to the first direction ; and an inner door , which is movable, relative to the outer framework , between an opening position and a closing position to open and close the inspection hatch, and comprises an outer frame , which extends along the outer framework when the inspection hatch is closed, and is designed to support an inner closing panel; the outer framework comprising at least two first support section bars , which are coupled to one another in a sliding manner, so as to selectively control the size of the outer framework in at least one of said first and second directions ; the outer frame comprising at least two second support section bars , which are coupled to one another in a sliding manner, so as to selectively control the size of the outer frame in at least one of said first and second directions ; and wherein the inspection hatch further comprises a plurality of first coupling section bars , which are as many as the first support section bars and are engaged in a sliding manner by the first support section bars , and characterized in that a plurality of second coupling section bars , which are as many as the second support section bars and are engaged in a sliding manner by the second support section bars .
A device to operate several functions in a motor vehicle, with an actuating element which is mounted on a rotary shaft so that it can swivel and can be moved between at least two positions, with a switching function allocated to at least one of the positions, whereby the end-sections of the rotary shaft to the actuating element are mounted at two lateral bearing points in two slots directed along an upper axis (z), whereby the actuating element is located centrally in at least one bearing point in relation to the direction of the upper axis (z) and the actuating element is supported on two studs characterized by the fact, that between the vertical slots at the lateral bearing points there is a central bearing point , in which the upper and lower sides of the actuating element is held firmly and centrally by centering pegs along the upper axis (z) and the centering pegs are attached to parts of the housing and restrict movement of the actuating element in a vertical direction.
System for detecting an electric arc in an electrical installation equipped with at least one sensor capable of detecting temporal acoustic signals produced by the electrical installation , said system being characterised in that it comprises an analysis device configured to analyse any temporal acoustic signal (S) coming from said one or more sensors by associating with said acoustic signal a corresponding parsimony measurement (m) whose value indicates whether or not the acoustic signal is a signature of an electric arc, where the analysis device is configured to determine said parsimony measurement by sampling said acoustic signal to form a sampled signal, by compressing the sampled signal to form a compressed signal and by reconstructing the sampled signal from said compressed signal.
A method for a user equipment operating in a wireless communication system, the method comprising: receiving an uplink grant; performing, at a medium access control, MAC, entity, a logical channel prioritization, LCP, procedure based on the uplink grant; and transmitting a MAC protocol data unit, PDU, based on the uplink grant and the LCP procedure, wherein the MAC entity is associated with a plurality of logical channels, wherein each of the logical channels is configured as allowed or not allowed to be transmitted on unlicensed cells, and the method characterized in that : the MAC entity performs (S1407) the LCP procedure for all of the plurality of logical channels, based on the uplink grant being for a licensed cell among a plurality of serving cells of the UE; and the MAC entity performs (S1409) the LCP procedure only for logical channels allowed to be transmitted on unlicensed cells, based on the uplink grant being for a unlicensed cell among the plurality of serving cells. receiving an uplink grant; performing, at a medium access control, MAC, entity, a logical channel prioritization, LCP, procedure based on the uplink grant; and transmitting a MAC protocol data unit, PDU, based on the uplink grant and the LCP procedure, wherein the MAC entity is associated with a plurality of logical channels, wherein each of the logical channels is configured as allowed or not allowed to be transmitted on unlicensed cells, and the method characterized in that : the MAC entity performs (S1407) the LCP procedure for all of the plurality of logical channels, based on the uplink grant being for a licensed cell among a plurality of serving cells of the UE; and the MAC entity performs (S1409) the LCP procedure only for logical channels allowed to be transmitted on unlicensed cells, based on the uplink grant being for a unlicensed cell among the plurality of serving cells. the MAC entity performs (S1407) the LCP procedure for all of the plurality of logical channels, based on the uplink grant being for a licensed cell among a plurality of serving cells of the UE; and the MAC entity performs (S1409) the LCP procedure only for logical channels allowed to be transmitted on unlicensed cells, based on the uplink grant being for a unlicensed cell among the plurality of serving cells.