mhurhangee/ep-ind-claims huggingface dataset:
A carrier (105, 305) for holding a plurality of containers, comprising: a plurality of panels extending at least partially around an interior space (1 10a, 1 10b) of the carrier (105, 305), the plurality of panels comprises a front panel, a back panel, a front side panel, a back side panel, at least one bottom panel, and at least one central panel (141a, 141b), a portion of the front panel forms a first curved corner of the carrier (105, 305) and a portion of the back panel forms a second curved corner of the carrier (105, 305), the portion of the front panel and the front side panel are opposite one another and the portion of the back panel and the back side panel are opposite one another; and a front end flap foldably connected to the front side panel and a back end flap foldably connected to the back side panel, characterized in that each of the front end flap and the back end flap comprises a plurality of portions that comprises a proximal portion (173a, 173b), an intermediate portion (177a, 177b), and a distal portion (181a, 181b), each portion of the respective plurality of portions is foldably attached to a respective adjacent portion of the respective plurality of portions at a respective vertical fold line (179a, 183a, 179b, 183b) and the respective distal portions (181a, 181b) of the front end flap and the back end flap are in face-to-face contact and disposed at least partially in the interior space (1 10a, 1 10b) of the carrier (105, 305) such that a space for at least partially receiving a vertical post of an outer container is formed between the front end flap and the back end flap. a plurality of panels extending at least partially around an interior space (1 10a, 1 10b) of the carrier (105, 305), the plurality of panels comprises a front panel, a back panel, a front side panel, a back side panel, at least one bottom panel, and at least one central panel (141a, 141b), a portion of the front panel forms a first curved corner of the carrier (105, 305) and a portion of the back panel forms a second curved corner of the carrier (105, 305), the portion of the front panel and the front side panel are opposite one another and the portion of the back panel and the back side panel are opposite one another; and a front end flap foldably connected to the front side panel and a back end flap foldably connected to the back side panel, characterized in that each of the front end flap and the back end flap comprises a plurality of portions that comprises a proximal portion (173a, 173b), an intermediate portion (177a, 177b), and a distal portion (181a, 181b), each portion of the respective plurality of portions is foldably attached to a respective adjacent portion of the respective plurality of portions at a respective vertical fold line (179a, 183a, 179b, 183b) and the respective distal portions (181a, 181b) of the front end flap and the back end flap are in face-to-face contact and disposed at least partially in the interior space (1 10a, 1 10b) of the carrier (105, 305) such that a space for at least partially receiving a vertical post of an outer container is formed between the front end flap and the back end flap.
A communication apparatus having a communication control function, which enables the apparatus to operate as a control apparatus that is adapted to form a wireless network and to control the wireless network, and having an apparatus function other than the communication control function, the communication apparatus characterized by: a determination means configured to determine whether priority is to be given to the apparatus function over the communication control function in the case that an instruction to implement the apparatus function is received while the apparatus is implementing the communication control function and operating as the control apparatus; and a control means configured to control operation of the apparatus such that priority is given to the apparatus function over the communication control function by terminating the communication control function in a case that the determination means determines that priority is to be given to the apparatus function over the communication control function and by implementing the apparatus function. a determination means configured to determine whether priority is to be given to the apparatus function over the communication control function in the case that an instruction to implement the apparatus function is received while the apparatus is implementing the communication control function and operating as the control apparatus; and a control means configured to control operation of the apparatus such that priority is given to the apparatus function over the communication control function by terminating the communication control function in a case that the determination means determines that priority is to be given to the apparatus function over the communication control function and by implementing the apparatus function.
A light absorbing configuration for a venue in which images are projected to a display screen, comprising: a light absorbing structure (200, 300, 400) deployed on one or more portions on one or more of a ceiling, side walls, or a floor of the venue; characterised in that the light absorbing structure comprises grooves (212, 312, 412) formed at least in part by a first type of light reflective surfaces (202, 302, 402) configured to receive a portion of light rays directly reflected off the display screen and a second type of light reflective surfaces (202, 304, 404) configured to receive light rays reflected off the first type of light reflective surfaces.
A system (600, 700, 800, 900) for cooling a component of a gas turbine engine defining a radial direction, the system comprising: a turbine rotor blade (58, 68, 100, 400) defining a cooling passage (106, 406) for providing a cooling airflow (300, 302, 310, 320) through the turbine rotor blade (58, 68, 100, 400), the cooling passage (106, 406) having an inlet and an outlet spaced from the inlet along the radial direction, the turbine rotor blade (58, 68, 100, 400) comprising a blade tip (76, 78, 108, 408), the outlet of the cooling passage (106, 406) formed on the blade tip (76, 78, 108, 408) of the turbine blade (58, 68, 100, 400); a casing (18, 71, 200, 500) spaced from the blade tip (76, 78, 108, 408) along the radial direction, the casing (18, 71, 200, 500) defining an aperture (210, 516) in airflow communication with the outlet of the cooling passage (106, 406); and a coolant duct assembly (650, 750, 850, 950) in airflow communication with the aperture (210, 516) of the casing (18, 71, 200, 500) for receiving at least a portion of the cooling airflow (300, 302, 310, 320) from the outlet of the cooling passage (106, 406) in the turbine rotor blade (58, 68, 100, 400) and distributing the cooling airflow (300, 302, 310, 320) to the component of the gas turbine engine; characterised in that the coolant duct assembly (650, 750, 850, 950) further includes a heat exchanger for removing heat from the cooling airflow (300, 302, 310, 320) to be provided to the component. a turbine rotor blade (58, 68, 100, 400) defining a cooling passage (106, 406) for providing a cooling airflow (300, 302, 310, 320) through the turbine rotor blade (58, 68, 100, 400), the cooling passage (106, 406) having an inlet and an outlet spaced from the inlet along the radial direction, the turbine rotor blade (58, 68, 100, 400) comprising a blade tip (76, 78, 108, 408), the outlet of the cooling passage (106, 406) formed on the blade tip (76, 78, 108, 408) of the turbine blade (58, 68, 100, 400); a casing (18, 71, 200, 500) spaced from the blade tip (76, 78, 108, 408) along the radial direction, the casing (18, 71, 200, 500) defining an aperture (210, 516) in airflow communication with the outlet of the cooling passage (106, 406); and a coolant duct assembly (650, 750, 850, 950) in airflow communication with the aperture (210, 516) of the casing (18, 71, 200, 500) for receiving at least a portion of the cooling airflow (300, 302, 310, 320) from the outlet of the cooling passage (106, 406) in the turbine rotor blade (58, 68, 100, 400) and distributing the cooling airflow (300, 302, 310, 320) to the component of the gas turbine engine; characterised in that the coolant duct assembly (650, 750, 850, 950) further includes a heat exchanger for removing heat from the cooling airflow (300, 302, 310, 320) to be provided to the component.
A method implemented at a wireless device, comprising: determining per carrier a time unit of a discontinuous reception, DRX, timer based on one of a plurality of different numerologies; and determining a time interval indicated by the DRX timer based on the time unit, the time interval being associated with a duration of time for the DRX timer. determining per carrier a time unit of a discontinuous reception, DRX, timer based on one of a plurality of different numerologies; and determining a time interval indicated by the DRX timer based on the time unit, the time interval being associated with a duration of time for the DRX timer.
A receiver comprising: a first local oscillator; an in-phase mixer and a quadrature mixer coupled to said first local oscillator and configured to generate in-phase and quadrature signals based upon received RF signals; a complex mixer downstream from said in-phase and quadrature mixers ( 14a, 14b); and a controller coupled to said in-phase and quadrature mixers ( 14a, 14b) and configured to determine when the in-phase and quadrature signals include interference less than an interference threshold, and then power off one of said in-phase and quadrature mixers ( 14a, 14b) and determine when the powered off in-phase or quadrature mixer ( 14a, 14b) has a signal-to-noise ratio greater than a SNR threshold, and then power back on the in-phase or quadrature mixer that is powered off. a first local oscillator; an in-phase mixer and a quadrature mixer coupled to said first local oscillator and configured to generate in-phase and quadrature signals based upon received RF signals; a complex mixer downstream from said in-phase and quadrature mixers ( 14a, 14b); and a controller coupled to said in-phase and quadrature mixers ( 14a, 14b) and configured to determine when the in-phase and quadrature signals include interference less than an interference threshold, and then power off one of said in-phase and quadrature mixers ( 14a, 14b) and determine when the powered off in-phase or quadrature mixer ( 14a, 14b) has a signal-to-noise ratio greater than a SNR threshold, and then power back on the in-phase or quadrature mixer that is powered off.
A method of reporting network information of a ZigBee network in a ZigBee coordination node of an Internet of Things, wherein the ZigBee coordination node is connected to a plurality of ZigBee nodes forming the ZigBee network, and the Internet of Things further comprises an auto-configuration server in an IP network, the ZigBee coordination node being connected to the auto-configuration server via a gateway, the method comprising the following step: a. sending a first signaling based on a ZigBee device object to the gateway, wherein the first signaling includes network description information and neighbor list information, wherein the network description information and the neighbor list information is network description information and neighbor list information of each ZigBee node of the plurality of ZigBee nodes forming the ZigBee network. a. sending a first signaling based on a ZigBee device object to the gateway, wherein the first signaling includes network description information and neighbor list information, wherein the network description information and the neighbor list information is network description information and neighbor list information of each ZigBee node of the plurality of ZigBee nodes forming the ZigBee network.
A free cooling system comprising a plurality of free cooling outdoor units each including a heat medium circuit, a controller, and a communication unit, the heat medium circuit being configured by connecting a heat medium pump, a first heat exchanger, and a heat source side of a second heat exchanger by pipes, a heat medium circulating through the heat medium circuit, the controller configured to control the heat medium pump, the communication units performing communication with each other, wherein the plurality of free cooling outdoor units are coupled with each other by a load pipe that allows a load heat medium to flow to or flow out from a load side of each of the second heat exchangers wherein the system is configured to change the number of the plurality of free cooling outdoor units operated depending on a load, wherein each of the plurality of free cooling outdoor units includes a load temperature detection sensor configured to detect a temperature of the load heat medium flowing through the load pipe, and in each of the plurality of free cooling outdoor units in operation, the controller increases a driving frequency of the heat medium pump in a case where the controller determines that the temperature detected by the load temperature detection sensor has not reached a target temperature set in advance, wherein in a case where the driving frequency of the heat medium pump is equal to or more than a reference driving frequency set in advance, the controller selected in advance from a plurality of the controllers instructs, via the communication unit, the controller of at least one of the plurality of free cooling outdoor units not in operation to start an operation of the at least one of the plurality of free cooling outdoor units. the plurality of free cooling outdoor units are coupled with each other by a load pipe that allows a load heat medium to flow to or flow out from a load side of each of the second heat exchangers wherein the system is configured to change the number of the plurality of free cooling outdoor units operated depending on a load, wherein each of the plurality of free cooling outdoor units includes a load temperature detection sensor configured to detect a temperature of the load heat medium flowing through the load pipe, and in each of the plurality of free cooling outdoor units in operation, the controller increases a driving frequency of the heat medium pump in a case where the controller determines that the temperature detected by the load temperature detection sensor has not reached a target temperature set in advance, wherein in a case where the driving frequency of the heat medium pump is equal to or more than a reference driving frequency set in advance, the controller selected in advance from a plurality of the controllers instructs, via the communication unit, the controller of at least one of the plurality of free cooling outdoor units not in operation to start an operation of the at least one of the plurality of free cooling outdoor units.
Locking assembly for a safety belt of a motor vehicle, comprising firstly a catch which is integral with an end of said belt, and can be received in a buckle which is integral with an element with the structure of a case, which projects substantially at the level of a seating part of a seat of the vehicle, said buckle comprising an opening for introduction of the catch and an inner mechanism for locking of said catch, which is arranged in a low inner part of the buckle, the opening for introduction of the buckle being fitted so as to be mobile between a high position for introduction of the catch, permitting facilitated access to the opening, and a low, locking position, in which it accompanies the catch as far as the locking mechanism, in order to immobilize the catch, the buckle comprising: - a framework, which is integral with the element with the structure of a case, and bears the inner locking mechanism; - a docking unit, which comprises the opening, and is mounted so as to slide between a high position and a low position, relative to the framework; characterized in the buckle also comprises: - means for resilient return of the docking unit to the high position, and means for braking towards the high position, which are interposed between the framework and the docking unit. - a framework, which is integral with the element with the structure of a case, and bears the inner locking mechanism; - a docking unit, which comprises the opening, and is mounted so as to slide between a high position and a low position, relative to the framework; - means for resilient return of the docking unit to the high position, and means for braking towards the high position, which are interposed between the framework and the docking unit.
A semiconductor component, comprising: a semiconductor substrate having a first surface and an opposing, second surface; and at least one via, comprising: an annular conductive metal layer substantially even with and extending between planes of the first surface and the opposing, second surface of the semiconductor substrate; a seed layer between the annular conductive metal layer and the substrate, the seed layer substantially even with and extending between the planes of the first surface and the opposing, second surface of the semiconductor substrate; and a silicon-containing filler material circumscribed by the annular conductive metal layer, the silicon-containing filler material being substantially even with and extending between the planes of the first surface and the opposing, second surface of the semiconductor substrate; bond pads overlying opposing ends of the at least one via, one of bond pads located on the first surface of the semiconductor substrate and another of the bond pads located on the opposing, second surface of the semiconductor substrate; contact pads on the first surface and the opposing, second surface of the semiconductor substrate; and circuit traces configured to electrically connect the at least one via to the contact pads. a semiconductor substrate having a first surface and an opposing, second surface; and at least one via, comprising: an annular conductive metal layer substantially even with and extending between planes of the first surface and the opposing, second surface of the semiconductor substrate; a seed layer between the annular conductive metal layer and the substrate, the seed layer substantially even with and extending between the planes of the first surface and the opposing, second surface of the semiconductor substrate; and a silicon-containing filler material circumscribed by the annular conductive metal layer, the silicon-containing filler material being substantially even with and extending between the planes of the first surface and the opposing, second surface of the semiconductor substrate; an annular conductive metal layer substantially even with and extending between planes of the first surface and the opposing, second surface of the semiconductor substrate; a seed layer between the annular conductive metal layer and the substrate, the seed layer substantially even with and extending between the planes of the first surface and the opposing, second surface of the semiconductor substrate; and a silicon-containing filler material circumscribed by the annular conductive metal layer, the silicon-containing filler material being substantially even with and extending between the planes of the first surface and the opposing, second surface of the semiconductor substrate; bond pads overlying opposing ends of the at least one via, one of bond pads located on the first surface of the semiconductor substrate and another of the bond pads located on the opposing, second surface of the semiconductor substrate; contact pads on the first surface and the opposing, second surface of the semiconductor substrate; and circuit traces configured to electrically connect the at least one via to the contact pads.
Three-port voltage converter, comprising a transformer, wherein the transformer comprises a first ring-shaped transformer core; a second ring-shaped transformer core; a first primary winding that is arranged on the first transformer core; a second primary winding that is arranged on the second transformer core; a first secondary winding that is arranged on the first transformer core; a second secondary winding that is arranged on the second transformer core; and a tertiary winding that is arranged on the first transformer core and the second transformer core, wherein the three-port voltage converter comprises a first driver circuit that is designed to provide a first AC voltage at the first primary winding and to provide a second AC voltage at the second primary winding; and a rectifier circuit that is designed to rectify an AC voltage present at the tertiary winding, wherein the three-port voltage converter comprises a second driver circuit that is designed to rectify an AC voltage present at the first secondary winding and to rectify an AC voltage present at the second secondary winding, or to provide a first AC voltage at the first secondary winding and to provide a second AC voltage at the second secondary winding. wherein the transformer comprises a first ring-shaped transformer core; a second ring-shaped transformer core; a first primary winding that is arranged on the first transformer core; a second primary winding that is arranged on the second transformer core; a first secondary winding that is arranged on the first transformer core; a second secondary winding that is arranged on the second transformer core; and a tertiary winding that is arranged on the first transformer core and the second transformer core, wherein the three-port voltage converter comprises a first driver circuit that is designed to provide a first AC voltage at the first primary winding and to provide a second AC voltage at the second primary winding; and a rectifier circuit that is designed to rectify an AC voltage present at the tertiary winding, wherein the three-port voltage converter comprises a second driver circuit that is designed to rectify an AC voltage present at the first secondary winding and to rectify an AC voltage present at the second secondary winding, or to provide a first AC voltage at the first secondary winding and to provide a second AC voltage at the second secondary winding.
A method of calibrating a position of a nozzle tip relative to a sample container, comprising: providing a robot; providing a nozzle including a nozzle tip coupled to the robot; providing a sample rack including a receptacle; providing a calibration target (102A-102E, 504A, 504B, 504C, 604A, 704A) in the receptacle in the sample rack; sensing with a height sensor and position feedback a height between a portion of the calibration target (102A-102E, 504A, 504B, 504C, 604A, 704A) and a registration location (230, 630, 730A, 730B), the height measured in machine space via movement of the robot and contact of the nozzle with the calibration target (102A-102E, 504A, 504B, 504C, 604A, 704A) and registration location (230, 630, 730A, 730B); imaging with an imaging apparatus (226A, 226B) fixed at an imaging station to determine a height between the portion of the calibration target and the registration location, the height measured in pixel space; and calculating a translation ratio between the height and the height. providing a robot; providing a nozzle including a nozzle tip coupled to the robot; providing a sample rack including a receptacle; providing a calibration target (102A-102E, 504A, 504B, 504C, 604A, 704A) in the receptacle in the sample rack; sensing with a height sensor and position feedback a height between a portion of the calibration target (102A-102E, 504A, 504B, 504C, 604A, 704A) and a registration location (230, 630, 730A, 730B), the height measured in machine space via movement of the robot and contact of the nozzle with the calibration target (102A-102E, 504A, 504B, 504C, 604A, 704A) and registration location (230, 630, 730A, 730B); imaging with an imaging apparatus (226A, 226B) fixed at an imaging station to determine a height between the portion of the calibration target and the registration location, the height measured in pixel space; and calculating a translation ratio between the height and the height.