mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for calibrating a light-field acquisition system, wherein a volume in an object space of the light-field acquisition system occupied by a set of rays of light passing through a pupil of said light-field acquisition system and a conjugate of at least one pixel of a sensor of said light-field acquisition system in the object space of the light-field acquisition system in a direction normal to a surface of the pupil, is called a pixel beam, such a pixel beam being represented by a first ray of light passing through a centre of said pixel of the sensor of said light-field acquisition system and a centre of said pupil, and a second ray of light passing through two points belonging to a surface of said pixel beam, a first point of said second ray belonging to a sensor plane of the light-field acquisition system and a second point of said second belonging to a pupil plane, said apparatus comprising a processor configured to - computing, in an image space of the light-field acquisition system, parameters defining said first ray of light and said second ray of light based at least on coordinates of the centre of said pixel, coordinates of the centre of said pupil and coordinates of at least two said two points defining the second ray of light; - computing parameters of the conjugates of the first ray of light and the second ray of light in an object space of the light-field acquisition system, by rotating around the conjugate of the first ray of light, which constitute calibration data for the light-field acquisition system. - computing, in an image space of the light-field acquisition system, parameters defining said first ray of light and said second ray of light based at least on coordinates of the centre of said pixel, coordinates of the centre of said pupil and coordinates of at least two said two points defining the second ray of light; - computing parameters of the conjugates of the first ray of light and the second ray of light in an object space of the light-field acquisition system, by rotating around the conjugate of the first ray of light, which constitute calibration data for the light-field acquisition system.
A device comprising: a semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region ; a reflective back contact disposed beneath the semiconductor structure ; a metal busbar disposed on the semiconductor structure , which busbar comprises a first portion and a second portion , and wherein the first portion of the metal busbar is in direct contact with the semiconductor structure ; a reflector disposed between the second portion of the metal busbar and the semiconductor structure ; and a current blocking structure , wherein the current blocking structure prevents current from being injected in the light emitting layer in a region below the first portion of the metal busbar . a semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region ; a reflective back contact disposed beneath the semiconductor structure ; a metal busbar disposed on the semiconductor structure , which busbar comprises a first portion and a second portion , and wherein the first portion of the metal busbar is in direct contact with the semiconductor structure ; a reflector disposed between the second portion of the metal busbar and the semiconductor structure ; and a current blocking structure , wherein the current blocking structure prevents current from being injected in the light emitting layer in a region below the first portion of the metal busbar .
A method of enhancing the production rate of NH3 on an electride-supported metal catalyst, the method comprising: providing hydrogen gas and nitrogen gas to a reactor, wherein the reactor includes the electride-supported metal catalyst and the reactor includes an electrode configuration; providing an electrical bias or a time-varying electrical field to the reactor; and reacting the hydrogen gas and the nitrogen gas at between 25°C and 600°C to produce ammonia. providing hydrogen gas and nitrogen gas to a reactor, wherein the reactor includes the electride-supported metal catalyst and the reactor includes an electrode configuration; providing an electrical bias or a time-varying electrical field to the reactor; and reacting the hydrogen gas and the nitrogen gas at between 25°C and 600°C to produce ammonia.
A system for converting and switching communication data comprising: - a plurality of probe modules , configured to intercept and acquire information about communication streams, - at least one converter module connected to the plurality of probe modules , configured to transform the protocol of the communication stream to an analysis communication protocol, - at least one output manager connected to the at least one converter module , - a plurality of delivery functions , and - a plurality of monitoring centers , wherein one specific monitoring center of said plurality of monitoring centers is configured to set up the analysis communication protocol, wherein the at least one output manager is connected to the plurality of delivery functions , wherein at least one delivery function of the plurality of delivery functions is connected to at least one monitoring center of the plurality of monitoring centers , and wherein the at least one output manager is configured to route the information in the analysis communication protocol by means of the plurality of delivery functions to the specific monitoring center that configures said analysis communication protocol. - a plurality of probe modules , configured to intercept and acquire information about communication streams, - at least one converter module connected to the plurality of probe modules , configured to transform the protocol of the communication stream to an analysis communication protocol, - at least one output manager connected to the at least one converter module , - a plurality of delivery functions , and - a plurality of monitoring centers , wherein one specific monitoring center of said plurality of monitoring centers is configured to set up the analysis communication protocol, wherein at least one delivery function of the plurality of delivery functions is connected to at least one monitoring center of the plurality of monitoring centers , and wherein the at least one output manager is configured to route the information in the analysis communication protocol by means of the plurality of delivery functions to the specific monitoring center that configures said analysis communication protocol.
A method implemented by a wireless transmit/receive unit, WTRU for controlling discontinuous reception, DRX, wherein at least a first DRX level associated with a first DRX cycle length and a second DRX level associated with a second DRX cycle length are configured for the WTRU by an eNB using higher layer signaling prior to the WTRU entering DRX, the method comprising: the WTRU receiving a DRX trigger from the eNB; the WTRU determining whether the received DRX trigger is a first type of DRX trigger or a second type of DRX trigger, wherein the WTRU performs DRX using the first DRX cycle length indicated in the higher layer signaling if the received DRX trigger is a first type of DRX trigger and the WTRU performs DRX using the second DRX cycle length indicated in the higher layer signaling if the received DRX trigger is a second type of DRX trigger, the second DRX cycle length being a multiple of the first DRX cycle length; and the WTRU performing DRX using the DRX cycle length indicated by the received DRX trigger. the WTRU receiving a DRX trigger from the eNB; the WTRU determining whether the received DRX trigger is a first type of DRX trigger or a second type of DRX trigger, wherein the WTRU performs DRX using the first DRX cycle length indicated in the higher layer signaling if the received DRX trigger is a first type of DRX trigger and the WTRU performs DRX using the second DRX cycle length indicated in the higher layer signaling if the received DRX trigger is a second type of DRX trigger, the second DRX cycle length being a multiple of the first DRX cycle length; and the WTRU performing DRX using the DRX cycle length indicated by the received DRX trigger.
An ultrasound diagnostic apparatus comprising: a plurality of holders each implemented to hold a probe ; an object sensor for detecting physical changes around one of said holders ; an electromagnetic wave sensor for detecting electromagnetic waves around the one holder; a controller configured to determine a port name for the probe when held in the one holder, based on sensing values from the object sensor and the electromagnetic wave sensor, a sensing value processor configured to determine whether the probe is held in or out of the one holder based on a sensing value from the object sensor, and a display unit , characterised in that the controller is configured to map the port name to a holder name of the one holder, wherein the controller is configured to determine the port name mapped to the holder name of the one holder when the probe is held out of the one holder, and activate the probe that corresponds to the mapped port name, and wherein the display unit is configured to display the holder name and the mapped port name. a plurality of holders each implemented to hold a probe ; an object sensor for detecting physical changes around one of said holders ; an electromagnetic wave sensor for detecting electromagnetic waves around the one holder; a controller configured to determine a port name for the probe when held in the one holder, based on sensing values from the object sensor and the electromagnetic wave sensor, a sensing value processor configured to determine whether the probe is held in or out of the one holder based on a sensing value from the object sensor, and a display unit , characterised in that the controller is configured to map the port name to a holder name of the one holder, wherein the controller is configured to determine the port name mapped to the holder name of the one holder when the probe is held out of the one holder, and activate the probe that corresponds to the mapped port name, and wherein the display unit is configured to display the holder name and the mapped port name.
A method of launching an unmanned air vehicle, comprising: supporting the unmanned air vehicle on a land or water based surface vehicle for riding along ground or across water; connecting a towline to the surface vehicle; and pulling the towline to force the unmanned air vehicle in a forward direction at a speed sufficient for take-off, wherein: the unmanned air vehicle is retained on the surface vehicle during initial towline tension impact by retainers on the surface vehicle arranged to contact trailing edges of wings of the unmanned air vehicle and prevent rearward movement of the unmanned air vehicle relative to the surface vehicle; or the step of supporting comprises supporting the fuselage of the unmanned air vehicle between two sidewalls of the surface vehicle, wherein the sidewalls comprise vertical slides and the unmanned air vehicle comprises a pair of laterally opposed guides at the sides of the fuselage, the vertical slides obstructing rearward motion of the pair of laterally opposed guides relative to the surface vehicle. supporting the unmanned air vehicle on a land or water based surface vehicle for riding along ground or across water; connecting a towline to the surface vehicle; and pulling the towline to force the unmanned air vehicle in a forward direction at a speed sufficient for take-off, wherein: the unmanned air vehicle is retained on the surface vehicle during initial towline tension impact by retainers on the surface vehicle arranged to contact trailing edges of wings of the unmanned air vehicle and prevent rearward movement of the unmanned air vehicle relative to the surface vehicle; or the step of supporting comprises supporting the fuselage of the unmanned air vehicle between two sidewalls of the surface vehicle, wherein the sidewalls comprise vertical slides and the unmanned air vehicle comprises a pair of laterally opposed guides at the sides of the fuselage, the vertical slides obstructing rearward motion of the pair of laterally opposed guides relative to the surface vehicle. the unmanned air vehicle is retained on the surface vehicle during initial towline tension impact by retainers on the surface vehicle arranged to contact trailing edges of wings of the unmanned air vehicle and prevent rearward movement of the unmanned air vehicle relative to the surface vehicle; or the step of supporting comprises supporting the fuselage of the unmanned air vehicle between two sidewalls of the surface vehicle, wherein the sidewalls comprise vertical slides and the unmanned air vehicle comprises a pair of laterally opposed guides at the sides of the fuselage, the vertical slides obstructing rearward motion of the pair of laterally opposed guides relative to the surface vehicle.
A wheel comprising: - a first part driven in rotation around a central axis of rotation , provided with a plurality of branches inscribed in a circle whose diameter is equal to that of the wheel, the circular outer surface of all of the branches forming a first part of the tread of the wheel, - a second part movable relative to the first part between a first position and a second position, said second part comprising a plurality of branches inscribed in a circle whose center coincides with the axis of rotation , - means for moving from one position to the other and vice versa, the first position corresponding to a closed position of the wheel in which the wheel has a complete circular circumference forming a continuous tread and the second position corresponding to an open position of the wheel in which the wheel does not have a complete circular circumference and forms a discontinuous tread, characterized in that the wheel comprises a third part composed of a plurality of teeth whose circular outer surface forms a second part of the tread of the wheel, said teeth being pivotably mounted on pivot pins of the first part, are driven by the movement of the second part and are movable between two positions. - a first part driven in rotation around a central axis of rotation , provided with a plurality of branches inscribed in a circle whose diameter is equal to that of the wheel, the circular outer surface of all of the branches forming a first part of the tread of the wheel, - a second part movable relative to the first part between a first position and a second position, said second part comprising a plurality of branches inscribed in a circle whose center coincides with the axis of rotation , - means for moving from one position to the other and vice versa, the first position corresponding to a closed position of the wheel in which the wheel has a complete circular circumference forming a continuous tread and the second position corresponding to an open position of the wheel in which the wheel does not have a complete circular circumference and forms a discontinuous tread,
A connector cabinet for connecting cables comprising a housing , holding means and at least one connector cassette with a first side and a second side , wherein said holding means is arranged to connect said at least one connector cassette to the housing of the connector cabinet , and arranged such that the cassette may be positioned such that the first or second side faces the housing , wherein the holding means is further arranged such that the cassette is pivotable around a pivot axis (P), said cabinet characterized in that the cassette is rotatable around its central axis (C).
A computer-implemented method with instructions which, when executed on a computer, perform a design method of a progressive addition lens , the method characterized by comprising: a first main line of sight calculation step (S6) of calculating a first main line of sight, where accommodative convergence caused by use of a accommodative power margin of an eye which is a difference between the maximum accommodative power and the necessary minimum accommodative power is considered, based on lens design information including at least information of accommodative power of the eye of a wearer; characterized by a second main line of sight calculation step (S4) of calculating a second main line of sight, where the accommodative power margin is not considered, based on the lens design information; a final main line of sight determination step (S7) of determining a final main line of sight of a lens existing between the first main line of sight and the second main line of sight from the first main line of sight and the second main line of sight, wherein the final main line of sight is determined by performing weighting on the first main line of sight and the second main line of sight and synthesizing the first main line of sight and the second main line of sight, wherein the weighting is performed based on variations of refractive power of the lens on the second main line of sight. a first main line of sight calculation step (S6) of calculating a first main line of sight, where accommodative convergence caused by use of a accommodative power margin of an eye which is a difference between the maximum accommodative power and the necessary minimum accommodative power is considered, based on lens design information including at least information of accommodative power of the eye of a wearer; characterized by a second main line of sight calculation step (S4) of calculating a second main line of sight, where the accommodative power margin is not considered, based on the lens design information; a final main line of sight determination step (S7) of determining a final main line of sight of a lens existing between the first main line of sight and the second main line of sight from the first main line of sight and the second main line of sight, wherein the final main line of sight is determined by performing weighting on the first main line of sight and the second main line of sight and synthesizing the first main line of sight and the second main line of sight, wherein the weighting is performed based on variations of refractive power of the lens on the second main line of sight.
A method for observing a sebaceous gland, comprising: an anchoring step of anchoring a sebaceous gland structure to a support via an anchoring member so that a sebaceous gland that is included in the sebaceous gland structure and is to be observed is not under a biological influence by a contact with the support via an anchoring member, the biological influence being migration of a cell in a sebaceous gland into an anchoring member or a medium, destruction of unity of the sebaceous gland structure, or differentiation of a sebaceous gland cell, the sebaceous gland structure having been obtained by removing all or part of each of dermis and hypodermis from a skin tissue; and an observation step of observing the sebaceous gland structure obtained in the anchoring step, wherein the sebaceous gland structure includes at least a hair follicle and epidermis in addition to the sebaceous gland, and the sebaceous gland to be observed is not in contact with the anchoring member via which the sebaceous gland structure is anchored to the support. an anchoring step of anchoring a sebaceous gland structure to a support via an anchoring member so that a sebaceous gland that is included in the sebaceous gland structure and is to be observed is not under a biological influence by a contact with the support via an anchoring member, the biological influence being migration of a cell in a sebaceous gland into an anchoring member or a medium, destruction of unity of the sebaceous gland structure, or differentiation of a sebaceous gland cell, the sebaceous gland structure having been obtained by removing all or part of each of dermis and hypodermis from a skin tissue; and an observation step of observing the sebaceous gland structure obtained in the anchoring step, wherein the sebaceous gland structure includes at least a hair follicle and epidermis in addition to the sebaceous gland, and the sebaceous gland to be observed is not in contact with the anchoring member via which the sebaceous gland structure is anchored to the support.
A process for hydroprocessing a heavy hydrocarbon oil, comprising contacting a heavy hydrocarbon oil in the presence of hydrogen with a mixture of different hydroprocessing catalyst I and hydroprocessing catalyst II, wherein catalyst I comprises a Group VIB metal component and optionally a Group VIII metal component on a porous inorganic carrier, said catalyst having a specific surface area of 100-180 m 2 /g, a total pore volume of at least 0.55 ml/g, at least 50% of the total pore volume in pores with a diameter of at least 20 nm (200 Å), and 10-30% of the total pore volume in pores with a diameter of at least 200 nm (2000 Å), and catalyst II comprises a Group VIB metal component and optionally a Group VIII metal component on a porous inorganic carrier, said catalyst having a specific surface area of at least 100 m 2 /g, a total pore volume of at least 0.55 ml/g, at least 75% of the total pore volume in pores with a diameter of 10-120 nm (100-1200 Å), 0-2% of the total pore volume in pores with a diameter of at least 400 nm (4000 Å), and 0-1% of the total pore volume in pores with a diameter of at least 1000 nm (10000 Å) and wherein catalyst II has a pore volume (%) in pores with a diameter of at least 200 nm (2000 Å) which is less than that of catalyst I.
A method of dispatching a trackless vehicle along a set of predetermined ride paths of a trackless ride system comprising a ride path comprising a plurality of optional predefined ride paths ; a controllable wireless, trackless ride vehicle dispatchable and maneuverable along the plurality of optional predefined ride paths, the wireless, trackless ride vehicle comprising a controllable, motive trackless ride vehicle track navigator and an independent vehicle controller operatively in communication with the track navigator; a wireless communicator operatively in communication with the independent vehicle controller, the wireless communicator comprising a vehicle mounted rider interface adapted to capture discrete input from a predetermined set of wireless, trackless ride vehicle riders associated with the trackless ride vehicle; and a central controller operatively in communication with the independent vehicle controller, the method comprising: a. using the independent vehicle controller to receive a rider path selection request from a rider associated with the trackless ride vehicle via the wireless communicator to advance the trackless ride vehicle onto an optional predefined ride path of the plurality of optional predefined ride paths via the vehicle mounted rider interface; b. upon receipt of the rider selection request, validating the rider selection request against a predetermined set of validation criteria; and c. upon validation, commanding the trackless ride vehicle to proceed onto the requested optional predefined ride path. a. using the independent vehicle controller to receive a rider path selection request from a rider associated with the trackless ride vehicle via the wireless communicator to advance the trackless ride vehicle onto an optional predefined ride path of the plurality of optional predefined ride paths via the vehicle mounted rider interface; b. upon receipt of the rider selection request, validating the rider selection request against a predetermined set of validation criteria; and c. upon validation, commanding the trackless ride vehicle to proceed onto the requested optional predefined ride path.