mhurhangee/ep-ind-claims huggingface dataset:
An aircraft passenger seat assembly comprising: a passenger seat; a component (22, 50) comprising an outer surface; and an inductive wireless power unit comprising a coil assembly, wherein the coil assembly is positioned within the component; wherein wires connecting the coil assembly to a power supply are hidden from view within the aircraft passenger seat assembly; a portion of the outer surface of the component (22, 50) comprises a power location covering the coil assembly, the power location being formed of materials that do not impede or interfere with charging, the component (22, 50) comprises an outer shroud, characterized in that a) portions of the shroud (22,50) that do not cover the coil assembly are integrally formed with the power location using a mold that decreases the thickness of the power location whereby the portions of the shroud (22,50) that do not cover the coil assembly have a thickness that exceeds a maximum suitable thickness of the power location; and/or b) portions of the shroud (22,50) that do not cover the coil assembly are reinforced with metal sheets or other materials that would impede or otherwise interfere with charging if positioned over the coil assembly; or in that the power location comprises a separately formed unit attached to a cutout location in the shroud (22,50). a passenger seat; a component (22, 50) comprising an outer surface; and an inductive wireless power unit comprising a coil assembly, wherein the coil assembly is positioned within the component; wherein wires connecting the coil assembly to a power supply are hidden from view within the aircraft passenger seat assembly; a portion of the outer surface of the component (22, 50) comprises a power location covering the coil assembly, the power location being formed of materials that do not impede or interfere with charging, the component (22, 50) comprises an outer shroud, characterized in that a) portions of the shroud (22,50) that do not cover the coil assembly are integrally formed with the power location using a mold that decreases the thickness of the power location whereby the portions of the shroud (22,50) that do not cover the coil assembly have a thickness that exceeds a maximum suitable thickness of the power location; and/or b) portions of the shroud (22,50) that do not cover the coil assembly are reinforced with metal sheets or other materials that would impede or otherwise interfere with charging if positioned over the coil assembly; a) portions of the shroud (22,50) that do not cover the coil assembly are integrally formed with the power location using a mold that decreases the thickness of the power location whereby the portions of the shroud (22,50) that do not cover the coil assembly have a thickness that exceeds a maximum suitable thickness of the power location; and/or b) portions of the shroud (22,50) that do not cover the coil assembly are reinforced with metal sheets or other materials that would impede or otherwise interfere with charging if positioned over the coil assembly; or in that the power location comprises a separately formed unit attached to a cutout location in the shroud (22,50).
A method for mapping and controlling network-enabled appliances with a control device, the method comprising: collecting spatial information in three dimensions with at least one sensor of the control device being moved within an environment; receiving registration signals from network-enabled appliances in the environment; associating each network-enabled appliance with a respective three-dimensional, 3D, position in the environment based on the spatial information; registering each network-enabled appliance with the control device to create a registration log; generating a digital map of the environment from the spatial information; placing a representation of each network-enabled appliance on the digital map based on the respective 3D position; generating a spatially aware rule set that applies to one or more rooms within the environment based upon the spatial information and the registration log, wherein rules are chosen from among a plurality of pre-programmed rules stored in a memory based on comparing conditions of the network enabled appliance, said conditions including types and threshold distances of the network enabled appliance, with the detected configuration of the network-enabled appliances as determined by the spatial information and registration log; detecting a trigger event; and in response to the trigger event, commanding the network-enabled appliances within the room or rooms according to the spatially aware rule set. collecting spatial information in three dimensions with at least one sensor of the control device being moved within an environment; receiving registration signals from network-enabled appliances in the environment; associating each network-enabled appliance with a respective three-dimensional, 3D, position in the environment based on the spatial information; registering each network-enabled appliance with the control device to create a registration log; generating a digital map of the environment from the spatial information; placing a representation of each network-enabled appliance on the digital map based on the respective 3D position; generating a spatially aware rule set that applies to one or more rooms within the environment based upon the spatial information and the registration log, wherein rules are chosen from among a plurality of pre-programmed rules stored in a memory based on comparing conditions of the network enabled appliance, said conditions including types and threshold distances of the network enabled appliance, with the detected configuration of the network-enabled appliances as determined by the spatial information and registration log; detecting a trigger event; and in response to the trigger event, commanding the network-enabled appliances within the room or rooms according to the spatially aware rule set.
A crane comprising: a main body; a tower derrickably supported by the main body; a jib derrickably supported by the tower; an assist member that is configured to assist the jib to move along a ground; and a determination unit that is configured to determine whether or not the jib is stopped when the tower is lowered in a lowering work state where the jib is assisted by the assist member, characterized in that the determination unit is configured to determine that the jib is stopped, in a case where the jib is stopped by an obstacle when the tower is lowered in the lowering work state. a main body; a tower derrickably supported by the main body; a jib derrickably supported by the tower; an assist member that is configured to assist the jib to move along a ground; and a determination unit that is configured to determine whether or not the jib is stopped when the tower is lowered in a lowering work state where the jib is assisted by the assist member, characterized in that the determination unit is configured to determine that the jib is stopped, in a case where the jib is stopped by an obstacle when the tower is lowered in the lowering work state.
Method of influencing the formation of reaction gases in a metallurgical vessel for producing molten metals from starting materials comprising scrap and pig iron, where the reaction gases are collected in a charging extraction hood and fed via an extraction conduit to a dust removal plant, characterized in that - the instantaneous reaction gas temperature in the charging extraction hood T H is measured, - the instantaneous reaction gas flow MR in the extraction conduit is measured, - the temperature of the reaction gas at the place of measurement of the instantaneous reaction gas flow is measured at the point in time of the measurement of the instantaneous reaction gas flow, - the instantaneous heat power of the reaction gases is calculated from these measured values, the ambient temperature T U and the specific heat capacity of C p of the reaction gases as follows: P = MR * c p * T H − T U and - the value of this instantaneous heat power of the reaction gases is employed for regulating the amount of starting material during charging of starting materials into the metallurgical vessel, where T H and MR are measured at the same point in time. - the instantaneous reaction gas temperature in the charging extraction hood T H is measured, - the instantaneous reaction gas flow MR in the extraction conduit is measured, - the temperature of the reaction gas at the place of measurement of the instantaneous reaction gas flow is measured at the point in time of the measurement of the instantaneous reaction gas flow, - the instantaneous heat power of the reaction gases is calculated from these measured values, the ambient temperature T U and the specific heat capacity of C p of the reaction gases as follows: P = MR * c p * T H − T U and - the value of this instantaneous heat power of the reaction gases is employed for regulating the amount of starting material during charging of starting materials into the metallurgical vessel, where T H and MR are measured at the same point in time.
An attachment for removably-affixing to a sports helmet by inserting into a hole piercing the external surface of the helmet comprising: A. an external portion comprising an object to be attached to the sports helmet, wherein optionally the object is selected from the group consisting of an ornament, a frame, an aerodynamic feature, and a combination thereof; and B. a shaft attached to an external portion, the shaft optionally extending between the external portion and an internal portion, characterised in that the external portion constructed or designed so as to break off from the internal portion and/or the shaft in an impact. A. an external portion comprising an object to be attached to the sports helmet, wherein optionally the object is selected from the group consisting of an ornament, a frame, an aerodynamic feature, and a combination thereof; and B. a shaft attached to an external portion, the shaft optionally extending between the external portion and an internal portion,
Assembly comprising a plate heat exchanger evaporator with a liquid separator for separation of liquid droplets from vapour transported from the evaporator to the separator, wherein the separator is designed as a U-shaped pipe comprising two essentially parallel pipes interconnected by means of a pipe portion, said pipes being arranged essentially horizontally, the plate heat exchanger evaporator comprising a top connection for allowing a two phase refrigerant flow of liquid and vapour to leave the plate heat exchanger evaporator and enter into a first end of the separator, the plate heat exchanger evaporator further comprising a bottom connection for allowing liquid refrigerant to circulate back from a second end of the separator, the separator configured to allow dry vapor to leave at the second end to a compressor.
A turbomachine component (40; 50) made of composite material comprising a fibrous reinforcement formed by a fibrous preform (1; 10; 100), and a matrix densifying the fibrous reinforcement, said fibrous preform having a three-dimensional weave formed by a plurality of woven strands (3a; 3b; 13; 23; 33) the component being characterized in that, in a shear plane of the component, all or part of the strands present in this plane have fibers forming an angle (α) comprised between 10° and 50° with their centerline and in that said shear plane corresponds to the plane defined by the warp and weft directions of the three-dimensional weave, or to the plane defined by the warp direction and the thickness direction of the three-dimensional weave, or to plane defined by the weft direction and the thickness direction of the three-dimensional weave.
A method operable in a system having a source node (110; 301) and a destination node (160; 302), the method comprising: transmitting first data units from the source node to the destination node over a first path (150a; 311); receiving, by the source node, the destination node, or both, information about one or more second paths between the source and destination nodes, the received information comprising information on the path availability or path requirements; determining, by the source node, the destination node, or both, a cost associated with the first path and each of the one or more second paths; transmitting second data units from the source node to the destination node over the first path; determining, by the source node, the destination node, or both, an allocation of the second data units to the one or more second paths based on the determined costs; generating, by the source node, network coded data units for transmission via the one or more second paths by: coding the second data units if network coding is not used in the first path; and recoding the second data units if network coding is used in the first path; and transmitting the network coded data units from the source node to the destination node via the second paths (150b; 312). transmitting first data units from the source node to the destination node over a first path (150a; 311); receiving, by the source node, the destination node, or both, information about one or more second paths between the source and destination nodes, the received information comprising information on the path availability or path requirements; determining, by the source node, the destination node, or both, a cost associated with the first path and each of the one or more second paths; transmitting second data units from the source node to the destination node over the first path; determining, by the source node, the destination node, or both, an allocation of the second data units to the one or more second paths based on the determined costs; generating, by the source node, network coded data units for transmission via the one or more second paths by: coding the second data units if network coding is not used in the first path; and recoding the second data units if network coding is used in the first path; and coding the second data units if network coding is not used in the first path; and recoding the second data units if network coding is used in the first path; and transmitting the network coded data units from the source node to the destination node via the second paths (150b; 312).
NK012 for use in the treatment of an intracranial brain tumor in a subject, wherein NK012 is a preparation comprising SN-38-loaded polymeric micelles, SN-38 being 7-ethyl-10-hydroxy-camptothecine, NK012 is administrated into a central nervous system of the subject via a convection-enhanced delivery system, and NK012 releases SN-38, which provides a therapeutic effect in the subject suitable for treating the intracranial brain tumor.
A system comprising: - a first flux device (510-a; 710-a) comprising a first loop of superconducting material interrupted by a first at least one Josephson junction; - a second flux device (510-c; 710-c) comprising a second loop of superconducting material interrupted by a second at least one Josephson junction; - a first SQUID coupler (510-b; 710-b) including a SQUID inductively coupled to the first flux device and to the second flux device; and - a magnetic flux bias source (110-C) configured to apply a magnetic field to the first SQUID coupler, wherein a strength of the magnetic field determines whether the first SQUID coupler provides ferromagnetic or anti-ferromagnetic inductive coupling between the first flux device and the second flux device, the inductive coupling being ferromagnetic for a flux of the magnetic field of π and anti-ferromagnetic for the flux of the magnetic field of zero, wherein - the first SQUID coupler is a monostable rf-SQUID coupler, having a dimensionless inductance β greater than 0,7 and lower than 1, defined as β = 2 π L I c / Φ 0 wherein L and I c are an inductance and a critical current of the first rf-SQUID coupler, respectively, and Φ 0 is a flux quantum. - a first flux device (510-a; 710-a) comprising a first loop of superconducting material interrupted by a first at least one Josephson junction; - a second flux device (510-c; 710-c) comprising a second loop of superconducting material interrupted by a second at least one Josephson junction; - a first SQUID coupler (510-b; 710-b) including a SQUID inductively coupled to the first flux device and to the second flux device; and - a magnetic flux bias source (110-C) configured to apply a magnetic field to the first SQUID coupler, wherein a strength of the magnetic field determines whether the first SQUID coupler provides ferromagnetic or anti-ferromagnetic inductive coupling between the first flux device and the second flux device, the inductive coupling being ferromagnetic for a flux of the magnetic field of π and anti-ferromagnetic for the flux of the magnetic field of zero, wherein - the first SQUID coupler is a monostable rf-SQUID coupler, having a dimensionless inductance β greater than 0,7 and lower than 1, defined as β = 2 π L I c / Φ 0
Starter engine solenoid comprising a cover, a magnetic core, a diode and a diode accommodation core, CHARACTERIZED in that said diode accommodation core is positioned in a space defined between the cover and the magnetic core and said diode accommodation core comprises a structural body being manufactured in a flexible and insulating material, said structural body provided with: an opening of accommodation of a body of the diode; two contact sides (3a, 3b) opposite to each other, wherein each contact side (3a, 3b) is provided with an accommodation guide (5', 5") of terminals (6', 6") of the diode; each accommodation guide (5', 5") comprising a surface portion in which at least one of said terminals (6', 6") is supported and at least partially exposed to the surface of the corresponding contact side (3a, 3b) of structural body, in order to be electrically contacted with at least one adjacent component by pressing when said cover presses the diode accommodation core against the magnetic core. an opening of accommodation of a body of the diode; two contact sides (3a, 3b) opposite to each other, wherein each contact side (3a, 3b) is provided with an accommodation guide (5', 5") of terminals (6', 6") of the diode; each accommodation guide (5', 5") comprising a surface portion in which at least one of said terminals (6', 6") is supported and at least partially exposed to the surface of the corresponding contact side (3a, 3b) of structural body, in order to be electrically contacted with at least one adjacent component by pressing when said cover presses the diode accommodation core against the magnetic core.
A flow-through electrochemical cell assembly for a chromatography system comprising (a) a perimeter wall defining a sample flow channel including an inlet and an outlet, (b) a sample inlet line in fluid communication with said sample flow channel inlet, (c) a sample outlet line providing fluid communication between said sample flow channel outlet and a remote reference electrode, and (d) a disposable working electrode structure comprising an electrically conductive and electrochemically active working electrode region bound as a layer, directly or indirectly, to an electrically insulating substrate surface, said substrate surface being in fluid-sealing relationship with said sample flow channel, said working electrode region being in fluid communication with said sample flow channel, said working electrode structure being readily removable from said electrochemical cell assembly. (a) a perimeter wall defining a sample flow channel including an inlet and an outlet, (b) a sample inlet line in fluid communication with said sample flow channel inlet, (c) a sample outlet line providing fluid communication between said sample flow channel outlet and a remote reference electrode, and (d) a disposable working electrode structure comprising an electrically conductive and electrochemically active working electrode region bound as a layer, directly or indirectly, to an electrically insulating substrate surface, said substrate surface being in fluid-sealing relationship with said sample flow channel, said working electrode region being in fluid communication with said sample flow channel, said working electrode structure being readily removable from said electrochemical cell assembly.
Speaker, comprising a plurality of speaker elements, each speaker-element comprising two substantially mutually opposing spaced apart membrane planes, wherein each membrane plane comprises at least one electromagnetic wire arranged for creating a magnetic field upon an electric current passing through said electromagnetic wire, wherein at least one permanent magnet is arranged between the two membrane planes, wherein the electromagnet wires of the two membrane planes are connectable to an electric power source in such a manner, that the electric current passes there trough in substantially mutually opposing directions (7, 8) and thereby creating substantially mutually opposing magnetic fields, such that upon passing an electric current through the electromagnetic wire of each membrane plane said membrane planes are both either attracted towards or repulsed from the permanent magnet and thereby moved towards or away from each other, respectively, thereby producing a sound wave, wherein: said speaker defines a central longitudinal line, wherein said plurality of speaker-elements are arranged in a radial direction with respect to said central longitudinal line and spaced apart by an angular distance.
A thermal emission source, comprising a) a two-dimensional photonic crystal comprising: a slab in which an n-layer made of an n-type semiconductor, a quantum well structure layer having a quantum well structure, and a p-layer made of a p-type semiconductor are stacked in a mentioned order in a thickness direction; and modified refractive index areas whose refractive index differs from refractive indices of the n-layer, the p-layer and the quantum well structure layer, the modified refractive index areas cyclically arranged in the slab so as to resonate with a specific wavelength of light corresponding to a transition energy between subbands in a quantum well in the quantum well structure layer; and b) electrodes (131, 132) for applying, to the slab, a voltage which is negative on the side of the p-layer and positive on the side of the n-layer. a) a two-dimensional photonic crystal comprising: a slab in which an n-layer made of an n-type semiconductor, a quantum well structure layer having a quantum well structure, and a p-layer made of a p-type semiconductor are stacked in a mentioned order in a thickness direction; and modified refractive index areas whose refractive index differs from refractive indices of the n-layer, the p-layer and the quantum well structure layer, the modified refractive index areas cyclically arranged in the slab so as to resonate with a specific wavelength of light corresponding to a transition energy between subbands in a quantum well in the quantum well structure layer; and a slab in which an n-layer made of an n-type semiconductor, a quantum well structure layer having a quantum well structure, and a p-layer made of a p-type semiconductor are stacked in a mentioned order in a thickness direction; and modified refractive index areas whose refractive index differs from refractive indices of the n-layer, the p-layer and the quantum well structure layer, the modified refractive index areas cyclically arranged in the slab so as to resonate with a specific wavelength of light corresponding to a transition energy between subbands in a quantum well in the quantum well structure layer; and b) electrodes (131, 132) for applying, to the slab, a voltage which is negative on the side of the p-layer and positive on the side of the n-layer.