mhurhangee/ep-ind-claims huggingface dataset:
An electromagnetic device, comprising: a core, at least one winding having a middle axis and defining two boundary parallel planes (a, b) perpendicular to the axis, the winding being located in an intermediate region between the planes (a, b), a bobbin comprising a thermally conductive material, having elongated elements (42, 44, 46, 48) extending between the planes (a, b) in thermal contact with the core and the at least one winding, and at least one heat sink portion (50, 51, 52, 53, 54, 55, 56, 57) in thermal contact with an end portion of at least one elongated element (42, 44, 46, 48) and at least partially protruding in a region outwards from the intermediate region, wherein the at least one heat sink portion (50, 51, 52, 53, 54, 55, 56, 57) comprises at least one cooling element chosen from the list consisting of: fins, pins, rods, and ripples, for enhancing a heat exchanging surface of the at least one heat sink portion (50, 51, 52, 53, 54, 55, 56, 57). a core, at least one winding having a middle axis and defining two boundary parallel planes (a, b) perpendicular to the axis, the winding being located in an intermediate region between the planes (a, b), a bobbin comprising a thermally conductive material, having elongated elements (42, 44, 46, 48) extending between the planes (a, b) in thermal contact with the core and the at least one winding, and at least one heat sink portion (50, 51, 52, 53, 54, 55, 56, 57) in thermal contact with an end portion of at least one elongated element (42, 44, 46, 48) and at least partially protruding in a region outwards from the intermediate region, wherein the at least one heat sink portion (50, 51, 52, 53, 54, 55, 56, 57) comprises at least one cooling element chosen from the list consisting of: fins, pins, rods, and ripples, for enhancing a heat exchanging surface of the at least one heat sink portion (50, 51, 52, 53, 54, 55, 56, 57).
A cross-carrier scheduling method, comprising: receiving a cross-carrier scheduling indication transmitted from a base station via a first carrier; determining a cross-carrier scheduling time indicated by the base station according to the cross-carrier scheduling indication; obtaining a next cross-carrier scheduling time indicated by the base station according to a subframe and a structure of transmission frame by which the cross-carrier scheduling indication is transmitted; determining a value of the delay time according to a time interval between the cross-carrier scheduling time and the next cross-carrier scheduling time; adding a delay time to the cross-carrier scheduling time to obtain an actual cross-carrier scheduling time; and performing communication between user equipment by using a second carrier during the interval between the cross-carrier scheduling time and the actual cross-carrier scheduling time. receiving a cross-carrier scheduling indication transmitted from a base station via a first carrier; determining a cross-carrier scheduling time indicated by the base station according to the cross-carrier scheduling indication; obtaining a next cross-carrier scheduling time indicated by the base station according to a subframe and a structure of transmission frame by which the cross-carrier scheduling indication is transmitted; determining a value of the delay time according to a time interval between the cross-carrier scheduling time and the next cross-carrier scheduling time; adding a delay time to the cross-carrier scheduling time to obtain an actual cross-carrier scheduling time; and performing communication between user equipment by using a second carrier during the interval between the cross-carrier scheduling time and the actual cross-carrier scheduling time.
A system for obtaining a desirable shielding gas flow in a welding device, the system comprising: - a user interface configured for a user to input the size of a nozzle; - a processor configured to calculate a desirable flow rate of the shielding gas based at least in part on the input nozzle size; and - a flow regulator configured to control the flow of the shielding gas in order to obtain the desirable flow rate, characterized in that the user interface is configured so that a user can manually adjust the flow rate of the shielding gas for welding, and the user interface is further configured so that a user can select a low purge gas flow rate, wherein a purge gas flow is a continuous flow of shielding gas being maintained when the arc is idle, in order to prevent the atmosphere from diffusing into the welding device; wherein a range of suitable flow rates is either calculated by the processor or input through the user interface, and wherein the user can only adjust the flow rate of the shielding gas within the range of suitable flow rates, and wherein the user interface is configured to notify a user if the user adjusts the flow rate of the shielding gas outside the range of suitable flow rates and and to notify a user if the flow rate deviates outside the range of suitable flow rates because of an event which has occurred during operation. - a user interface configured for a user to input the size of a nozzle; - a processor configured to calculate a desirable flow rate of the shielding gas based at least in part on the input nozzle size; and - a flow regulator configured to control the flow of the shielding gas in order to obtain the desirable flow rate,
A method for stimulating the activation of platelets in a sample comprising: contacting the sample with a composition comprising an antibody against a moesin fragment, wherein the moesin fragment consists of the N-terminal FERM domain of human moesin protein.
A wire shaped coaxial photovoltaic solar cell comprising: - a conductive core wire shaped support, - a nanostructured semiconductor scaffold layer, - one or more successive perovskite layers, - an optionally provided hole transporting material layer, - an outer conductor layer, - an outer protective layer, characterized in that said outer conductor layer comprises dispersed nanoparticles and said perovskite layers are composed identically or wherein two or more of said perovskite layers have a different molecular structure and/or composition. - a conductive core wire shaped support, - a nanostructured semiconductor scaffold layer, - one or more successive perovskite layers, - an optionally provided hole transporting material layer, - an outer conductor layer, - an outer protective layer,
Carburettor with a carburettor housing, formed in which is an intake channel section, into which at least one fuel opening (27, 28) opens, with a fuel pump, which has a pump membrane, the pump membrane delimiting a pump chamber, the pump chamber being connected to a fuel inlet (63, 63'), with a pressure controller, which has a control membrane, which separates a control chamber from a compensation chamber, the control chamber feeding the at least one fuel opening (27, 28), the control chamber being connected to a fuel outlet (64, 64') from the carburettor, the compensation chamber being connected to a compensation connection, the carburettor housing having a carburettor body, formed in which is the intake channel section, a pump cover, which at least partially delimits the fuel pump, and also has an intermediate part (62, 112) arranged between the pump cover and the carburettor body, the compensation connection being formed on the intermediate part (62, 112), the pressure controller being delimited by the carburettor body and the intermediate part, the fuel pump being delimited by the intermediate part (62, 112), the pump cover, the fuel inlet (63, 63') and the fuel outlet (64, 64') being formed on the intermediate part (62, 112), and the fuel inlet (63, 63') being formed on a connection stub of the intermediate part (62, 112).
A fail-safe fluid-based actuation system having a safety position, comprising an actuator with at least a first and a second chamber (3, 4), a working circuit with a motor/pump device, whereby the actuator can be actuated by means of the working circuit, at least in the operative state, a safety circuit by means of which, in a failure state, the actuator can be moved into the safety position, whereby the safety circuit has a tank that holds pressurized fluid and that, in the failure state, is automatically connected to the first chamber via a switching valve, and it has a drain valve that, in the failure state, is moved into the through-flow position in order to drain fluid out of the second chamber, and the safety circuit is configured in such a way that, in the operative state, an inflow into the actuator - in a manner that is completely decoupled from the tank - can be established by means of the working circuit with its motor/pump device, characterized in that, in the failure state, an inflow from the tank into the first chamber - in a manner that is completely decoupled from the working circuit with its motor/pump device - is created by means of the safety circuit, the actuator has three chambers (3, 4, 15), whereby the safety circuit is configured in such a way that, in the operative state, an inflow into the third chamber - in a manner that is decoupled from the tank - can be established by means of the working circuit with its motor/pump device, whereby a filling line is provided by means of which the fluid from the working circuit can be fed into the tank, whereby the tank is decoupled from the working circuit by means of at least one valve element (10b, 10c) that prevents fluid from flowing back into the working circuit.
Functional seat cover for placing on seating, in particular for children, comprising an approximately horizontal seat, an approximately vertical backrest, and two armrests, composed of washable textile material, wherein a quadrilateral seat surface can be laid on the seat, - which is connected at its first edge to a back portion, on which a backrest hood is integrally formed, which can be drawn over the backrest, and - the seat surface is connected at its mutually opposite second edge and its fourth edge to an armrest portion in each case, which in each case can be laid on an armrest, and - the seat surface, at its third edge, is connected to a foot portion, which can be hung down over the front edge of the seat, characterised in that the seat surface has, approximately in the centre, a rectangular pocket, which, on at least one edge, is surrounded by a plurality of strip-shaped pockets and, at least into the centre pocket, there can be inserted - a three-dimensional knitted spacer fabric and/or - an upholstery element and/or - a cooling element and/or - a heating element. - which is connected at its first edge to a back portion, on which a backrest hood is integrally formed, which can be drawn over the backrest, and - the seat surface is connected at its mutually opposite second edge and its fourth edge to an armrest portion in each case, which in each case can be laid on an armrest, and - the seat surface, at its third edge, is connected to a foot portion, which can be hung down over the front edge of the seat, characterised in that the seat surface has, approximately in the centre, a rectangular pocket, which, on at least one edge, is surrounded by a plurality of strip-shaped pockets and, at least into the centre pocket, there can be inserted - a three-dimensional knitted spacer fabric and/or - an upholstery element and/or - a cooling element and/or - a heating element.
An adaptive data transmission method executed by a computing device that acts as an intermediary between log producers and a log processor, the method comprising: receiving log data from log producers (102, 104, 106) to be transmitted to a log processor, wherein receiving log data from the log producers includes receiving log data from log producing devices through a first network; subject to a transmission constraint of transmitting the received log data to the log processor, storing at least a portion of the received log data into a buffer configured to adapt to the transmission constraint, the transmission constraint comprising: a first threshold on bandwidth usage and a second threshold on log processor response time; and rules on adapting a size of the buffer or computing resources allocated to the log processor when the thresholds are reached; and transmitting the stored portion of the log data to the log processor in accordance with the transmission constraint, wherein transmitting the stored log data to the log processor includes transmitting the stored log data to a remote log processing device through a second network, wherein the first network includes a local area network and the second network includes a wide area network. receiving log data from log producers (102, 104, 106) to be transmitted to a log processor, wherein receiving log data from the log producers includes receiving log data from log producing devices through a first network; subject to a transmission constraint of transmitting the received log data to the log processor, storing at least a portion of the received log data into a buffer configured to adapt to the transmission constraint, the transmission constraint comprising: a first threshold on bandwidth usage and a second threshold on log processor response time; and rules on adapting a size of the buffer or computing resources allocated to the log processor when the thresholds are reached; and a first threshold on bandwidth usage and a second threshold on log processor response time; and rules on adapting a size of the buffer or computing resources allocated to the log processor when the thresholds are reached; and transmitting the stored portion of the log data to the log processor in accordance with the transmission constraint, wherein transmitting the stored log data to the log processor includes transmitting the stored log data to a remote log processing device through a second network, wherein the first network includes a local area network and the second network includes a wide area network.
A digital shoebox having a card compartment for receiving and archiving a plurality of memory cards (120, 122R), and a shoebox controller configured to detect the digital content of a newly-added memory card upon receipt in the card compartment, the shoebox controller causing allocation of backup storage for the digital content from available space in the plurality of memory cards, other than the newly-added memory card, and then copying the digital content to the allocated backup storage, wherein the shoebox controller is integrated with a card aggregator configured to logically aggregate the plurality of memory cards into a single virtual archive disk, and to perform maintenance employing a maintenance routine, comprising scanning the plurality of received memory cards and, for each scanned memory card, following the steps of monitoring by checking the card's content integrity and by measuring the storage media quality by quantifying errors associated with the stored data and refreshing the content of the scanned memory card according to a predefined schedule or as needed if the measured storage media quality is below a predefined thereshold; and calling for user intervention if at least one of the plurality of memory cards has a measured storage media quality that falls below the predefined threshold; wherein calling for user intervention includes either (a) calling for insertion in the digital shoebox of an additional memory card to replace a memory card or (b) calling for copying the content of the scanned memory card to an external backup storage device; and in the maintenance routine, after the user has responded to the call, repeating the same steps for each memory card not acted on.
System for the placement of stent grafts in bifurcational lesions comprising a stent graft and a balloon catheter, the balloon catheter having one proximal and two distal balloons, a multi-lumen shaft having one lumen to accommodate a guidewire and at least three lumina (5a, 5b) for individually applying hydraulic pressure to the balloons (7, 8), in which the stent graft comprises one proximal and two distal stents, the stents (3a, 3b) being connected with each other through a Y-shaped textile element, and the stents of the stent graft being crimped onto the balloons (7, 8), the lumina (5b, 6) accommodating the guidewire and the distally arranged balloons are passed through the proximal balloon, and the balloon catheter and the lumen accommodating the guide wire provide a Y-shaped branching point distally to the proximal balloon.
A method of controlling an electrical machine, the method comprising: exciting a phase winding of the electrical machine with a supply voltage; freewheeling the phase winding when current in the phase winding exceeds a threshold; and adjusting the threshold in response to changes in at least one of the supply voltage and the speed of the electrical machine, characterised in that the method comprises increasing the threshold in response to at least one of a decrease in the supply voltage and an increase the speed of the electrical machine. exciting a phase winding of the electrical machine with a supply voltage; freewheeling the phase winding when current in the phase winding exceeds a threshold; and adjusting the threshold in response to changes in at least one of the supply voltage and the speed of the electrical machine, characterised in that the method comprises increasing the threshold in response to at least one of a decrease in the supply voltage and an increase the speed of the electrical machine.
An article of footwear comprising: an upper having a body with a first side and a second side; a closure system for the upper including a first anchoring cable loop fixed at the first side of the body; a flap fixed to the second side of the body and configured to extend across the upper to a free end at the first side of the body; wherein the flap has an aperture extending through the flap; a flap cable loop extending from the free end of the flap, the flap cable loop configured to extend from the free end of the flap through the first anchoring cable loop, and from the first anchoring cable loop back to the flap and through the aperture in the flap from an inner side of the flap to an outer side of the flap; and a lace configured to extend through the flap cable loop at the outer side of the flap, wherein pulling the lace slides the flap cable loop through the first anchoring cable loop to tighten the flap against the body of the upper. an upper having a body with a first side and a second side; a closure system for the upper including a first anchoring cable loop fixed at the first side of the body; a flap fixed to the second side of the body and configured to extend across the upper to a free end at the first side of the body; wherein the flap has an aperture extending through the flap; a flap cable loop extending from the free end of the flap, the flap cable loop configured to extend from the free end of the flap through the first anchoring cable loop, and from the first anchoring cable loop back to the flap and through the aperture in the flap from an inner side of the flap to an outer side of the flap; and a lace configured to extend through the flap cable loop at the outer side of the flap, wherein pulling the lace slides the flap cable loop through the first anchoring cable loop to tighten the flap against the body of the upper. a first anchoring cable loop fixed at the first side of the body; a flap fixed to the second side of the body and configured to extend across the upper to a free end at the first side of the body; wherein the flap has an aperture extending through the flap; a flap cable loop extending from the free end of the flap, the flap cable loop configured to extend from the free end of the flap through the first anchoring cable loop, and from the first anchoring cable loop back to the flap and through the aperture in the flap from an inner side of the flap to an outer side of the flap; and a lace configured to extend through the flap cable loop at the outer side of the flap, wherein pulling the lace slides the flap cable loop through the first anchoring cable loop to tighten the flap against the body of the upper.
A heater for heating and vaporizing droplets in a gas stream, comprising a heater housing and a heater body located inside the heater housing, the heater housing is provided with an airflow inlet and an airflow outlet, an airflow enters into the heater housing via the airflow inlet, flows through the heater body, and then is discharged via the airflow outlet; the heater body comprises a stereoscopic network structure formed by interweaving one or more electrical heating wires; wherein the gas stream is an amine gas stream, the droplets are amine droplets, the heater is a vertical type heater, the amine airflow inlet is located on the heater housing below the heater body, the amine airflow outlet is located on the heater housing above the heater body, and the bottom of the heater housing is provided with a drain port.
An aircraft, comprising: an engine that includes an engine main body and an engine nacelle, the engine main body configured to output thrust force, and the engine nacelle surrounding the engine main body; an engine pylon that supports the engine main body to an airframe, and axially supports a cowl member (8;11,12) to be openable, the cowl member (8;11,12) configuring the engine nacelle; a locking part that locks the cowl member (8;11,12) of the engine nacelle in a closed state; characterized in that the aircraft comprises one or more light emitting sections that are disposed inside the cowl member (8;11,12) and are configured to show an unlocked state of the cowl member (8;11,12), and wherein the unlocked state of the cowl member (8;11,12) becomes visible by light emitted from the one or more light emitting sections and visible from an outside of the engine nacelle through a gap generated on an inner circumference of the cowl member (8;11,12) when the cowl member (8;11,12) is not locked. an engine that includes an engine main body and an engine nacelle, the engine main body configured to output thrust force, and the engine nacelle surrounding the engine main body; an engine pylon that supports the engine main body to an airframe, and axially supports a cowl member (8;11,12) to be openable, the cowl member (8;11,12) configuring the engine nacelle; a locking part that locks the cowl member (8;11,12) of the engine nacelle in a closed state; characterized in that the aircraft comprises one or more light emitting sections that are disposed inside the cowl member (8;11,12) and are configured to show an unlocked state of the cowl member (8;11,12), and wherein the unlocked state of the cowl member (8;11,12) becomes visible by light emitted from the one or more light emitting sections and visible from an outside of the engine nacelle through a gap generated on an inner circumference of the cowl member (8;11,12) when the cowl member (8;11,12) is not locked.